| Aberrations, 42.15.Fr |
| Ab initio calculations (electronic
structure of atoms and molecules), 31.15.A- |
| Ablation |
| film deposition, 81.15.Fg |
| laser impact on surfaces, 79.20.Eb |
| in plasmas, 52.38.Ph |
| Abrasion |
| materials, 81.40.Pq |
| mechanics, 46.55.+d |
| Absorption |
| acoustical |
| architectural acoustics, *43.55.Ev, *43.55.Nd |
| linear acoustics, *43.20.Hq |
| nonlinear acoustics, *43.25.Ed |
| underwater, *43.30.Es, *43.30.Ky |
| of electromagnetic radiation |
| in Earth's atmosphere, 42.68.Ay, 92.60.Ta |
| in plasmas, 52.25.Os |
| of laser light in plasmas, 52.38.Dx |
| multiphoton, by surfaces, 79.20.Ws |
| neutron, 28.20.Fc |
| optical, 42.25.Bs |
| of particles in plasmas, 52.25.Tx |
| of photons by nuclei, 25.20.Dc |
| Absorption coefficients, optical, 78.20.Ci |
| Absorption edges, x-ray, 78.70.Dm |
| Absorption spectra |
| of atoms, 32.30.-r |
| of biomolecules, 87.15.M- |
| of clusters, 36.40.Mr |
| of excitons, 71.35.Cc |
| of macro- and polymer molecules, 36.20.Kd |
| of molecules, 33.20.-t |
| of solids and liquids, 78.40.-q |
| disordered solids, 78.40.Pg |
| fullerenes, 78.40.Ri |
| liquids, 78.40.Dw |
| metals, semimetals, and alloys, 78.40.Kc |
| nonmetallic inorganics, 78.40.Ha |
| organic compounds and polymers, 78.40.Me |
| semiconductors, 78.40.Fy |
| Absorption spectroscopy |
| in biophysics, 87.64.K- |
| chemical analysis, 82.80.Dx |
| instrumentation, 07.57.Ty, 07.60.Rd |
| Abstraction reactions, 82.30.Hk |
| Accelerated beams, in plasmas, 52.59.Bi, 52.59.Fn |
| Accelerated plasmas, 52.59.Dk |
| Acceleration |
| laser-driven, 41.75.Jv |
| by laser-plasma interactions, 52.38.Kd |
| measurement of, 06.30.Gv |
| of particles in interplanetary space, 96.50.Pw |
| Accelerators, 29.20.-c |
| cyclic, 29.20.D- |
| electrostatic, 29.20.Ba |
| linear, 29.20.Ej |
| in radiation therapy, 87.56.bd |
| Accidents (nuclear reactors), 28.41.Te |
| Accommodation, gas dynamics, 47.45.Gx |
| Accretion and accretion disks |
| galactic, 98.62.Mw |
| Milky Way, 98.35.Nq |
| stellar, 97.10.Gz |
| Acids (bioproduct from biomass), 88.20.rm |
| Acoustical holography, *43.35.Sx, *43.60.Sx |
| Acoustical instruments and techniques, 07.64.+z,
*43.58.-e, 43.58.+z |
| Acoustical properties |
| gases, 51.40.+p |
| liquids, 62.60.+v |
| rocks and minerals, 91.60.Lj |
| solids, 62.65.+k |
| of solid surfaces and interfaces, 68.35.Iv |
| superconductors, 74.25.Ld |
| thin films, *43.35.Ns, 68.60.Bs |
| Acoustic array systems, *43.60.Fg |
| Acoustic emission, *43.40.Le |
| Acoustic force microscopy, 68.37.Tj |
| Acoustic impedance, *43.20.Rz |
| architectural acoustics, *43.55.Ev |
| of ground, snow, and ice, *43.28.En |
| Acoustics |
| architectural, *43.55.-n, 43.55.+p |
| ASA Web page, *43.05.Gv |
| atmospheric, *43.28.-g, 43.28.+h |
| numerical methods for, *43.28.Js |
| statistical characteristics, *43.28.Lv |
| biological, *43.80.-n, 43.80.+p |
| forensic, *43.72.Uv |
| linear, *43.20.-f, 43.20.+g |
| nonlinear, *43.25.-x, 43.25.+y |
| physiological, *43.64.-q, 43.64.+r |
| psychological, *43.66.-x, 43.66.+y |
| ray, *43.20.Dk |
| structural, *43.40.-r, 43.40.+s |
| underwater, *43.30.-k, 43.30.+m |
| Acoustic sensing, *43.60.Vx |
| Acoustic signal coding, *43.60.Ek |
| Acoustic signal processing, *43.60.-c, 43.60.+d |
| Acoustics Research Letters Online (ARLO), *43.05.Gv |
| Acoustic streaming, *43.25.Nm |
| Acoustic tomography, *43.35.Wa, *43.60.Rw |
| Acoustic transduction, 43.38.+n, *43.38.-p |
| Acoustoelectric effects |
| conductivity phenomena, 72.50.+b |
| in piezoelectrics, 77.65.Dq |
| thin films, 73.50.Rb |
| Acousto-optical devices, 42.79.Jq |
| Acousto-optical effects, *43.35.Sx, 78.20.hb |
| Activation analysis, radiochemical, 82.80.Jp |
| Adaptation, visual |
| color, 42.66.Ne |
| light, 42.66.Lc |
| Adaptive acoustical systems, *43.60.Mn |
| Adaptive optical systems |
| astronomy, 95.75.Qr |
| atmospheric optics, 42.68.Wt |
| Addenda, 99.10.Qr |
| Adhesion |
| cellular, 87.17.Rt |
| interfacial flow, 83.50.Lh |
| mechanical contacts (structural mechanics), 46.55.+d |
| of polymers on surfaces, 82.35.Gh |
| at solid surfaces and interfaces, 68.35.Np |
| Adhesives (bioproduct from biomass), 88.20.rp |
| Admittance measurement, 84.37.+q |
| Adsorbates |
| assemblies of, 68.43.Hn |
| diffusion of, 68.43.Jk |
| electron states, 73.20.Hb |
| femtochemistry of, 82.53.St |
| photoelectron spectra, 79.60.Dp |
| statistical mechanics of, 68.43.De |
| structure and reactions of, 68.43.Bc, 68.43.Fg |
| vibrations of, 68.43.Pq |
| Adsorption |
| on fluid interfaces, 68.03.-g |
| kinetics of, 68.43.Mn |
| at solid surfaces, 68.43.-h |
| Advanced vehicles |
| alternative fuels for, 88.85.M- |
| biodiesel, 88.85.mb |
| ethanol, 88.85.mj |
| fuel blends, 88.85.mn |
| hydrogen, 88.85.mh |
| natural gas, 88.85.mf |
| propane, 88.85.md |
| electric vehicles (EVs), 88.85.Hj |
| fuel cell vehicles (FCVs), 88.85.Cd |
| fueling stations for, 88.85.Pq |
| plug-in hybrid vehicles (HEVs), 88.85.Fg |
| vehicle energy storage, 88.85.J- |
| lead-acid batteries, 88.85.jk |
| nickel-metal-hydride batteries, 88.85.jm |
| ultracapacitors, 88.85.jp |
| Aeroacoustics, *43.28.-g, 43.28.+h |
| Aerodynamics, 47.85.Gj |
| Aeroelasticity, 46.40.Jj |
| Aerogels, reactions in, 82.33.Ln |
| Aerosols |
| in atmosphere, 92.60.Mt |
| atmospheric optics, 42.68.Jg |
| interactions with space plasma, 94.05.Bf |
| in materials synthesis, 81.20.Rg |
| oceanography of, 92.20.Bk |
| paleoceanography, *92.30.Ef |
| physical chemistry, 82.70.Rr |
| plasma interactions (ionosphere), 94.20.wl |
| Africa, 93.30.Bz |
| Afterglow (plasma reactions), 82.33.Xj |
| Aggregation |
| of cells, 87.18.Ed |
| diffusion-limited, 61.43.Hv |
| in solutions of macromolecules (biomolecules),
87.15.nr |
| Aging (of materials), 81.40.Cd |
| Agriculture |
| agricultural residues as biomass source, 88.20.dj |
| biogeosciences, *91.62.Bf |
| energy use in, 88.05.Qr |
| Aharonov-Bohm effect |
| mesoscopic systems, 73.23.-b |
| quantum mechanics, 03.65.Ta |
| Airglow, 92.60.hw |
| Air pollution |
| atmospheric chemistry, 82.33.Tb |
| atmospheric optics, 42.68.Kh |
| meteorology, 92.60.Sz |
| Air transportation, 89.40.Dd |
| Alfven waves, 52.35.Bj |
| Algebra |
| Lie, 02.20.Sv |
| linear, 02.10.Ud |
| matrix, 02.10.Yn |
| Algebraic geometry, 02.10.-v |
| Algebraic groups, 02.20.Hj |
| Algebraic methods |
| in quantum mechanics, 03.65.Fd |
| in string theory, 11.25.Hf |
| Algebraic rings, 02.10.Hh |
| Algebraic structures, 02.10.De |
| Algebraic topology, 02.40.Re |
| Alkali halides, photoluminescence of, 78.55.Fv |
| Alkali metals, electronic structure of, 71.20.Dg |
| Alloys |
| absorption spectra, 78.40.Kc |
| diamagnetism and paramagnetism, 75.20.En |
| electronic conduction |
| bulk matter, 72.15.Cz, 72.15.Eb |
| liquid, 72.15.Cz |
| thin films, 73.61.At |
| electronic structure, 71.20.Be, 71.20.Eh, 71.20.Gj |
| fabrication, 81.05.Bx |
| impurity and defect levels, 71.55.Ak |
| infrared and Raman spectra, 78.30.Er |
| liquid |
| structure of, 61.25.Mv |
| local magnetic moment, 75.20.Hr |
| materials for magnetotransport, 75.47.Np |
| optical properties of thin films, 78.66.Bz |
| phase diagrams, 81.30.Bx |
| radiation effects, 61.82.Bg |
| self-diffusion, 66.30.Fq |
| structure |
| amorphous, 61.43.Dq |
| crystalline, 61.66.Dk |
| superconducting, 74.70.Ad |
| AlN films (dielectric films), 77.55.hd |
| Alpha Cygni stars, 97.30.Dg |
| Alpha decay, 23.60.+e |
| Alpha-particle-induced nuclear reactions, 25.55.-e |
| ALS (degenerative diseases), 87.19.xr |
| Alzheimer's disease, 87.19.xr |
| Amorphous magnetic materials, 75.50.Kj |
| Amorphous metals and alloys |
| electrical and thermal conduction, 72.15.Cz |
| electron density of states, 71.23.-k |
| photoelectron spectra, 79.60.Ht |
| structure, 61.43.Dq |
| thermal properties, 65.60.+a |
| Amorphous semiconductors |
| electronic structure, 71.23.Cq |
| fabrication, 81.05.Gc |
| impurity and defect levels, 71.55.Jv |
| infrared and Raman spectra, 78.30.Ly |
| photoelectron spectra, 79.60.Ht |
| photoluminescence, 78.55.Qr |
| structure of, 61.43.Dq |
| surface structure of, 68.35.bj |
| synthesis, 81.05.Gc |
| thermal properties, 65.60.+a |
| thin films |
| electrical conductivity, 73.61.Jc |
| optical properties, 78.66.Jg |
| Amorphous superconductors, 74.81.Bd |
| Amphiphilic systems, 82.70.Uv |
| Amplifiers |
| electronic, 84.30.Le |
| laser, 42.60.Da |
| optical parametric, 42.65.Yj |
| Amyloids, 87.14.em |
| Analytic spaces, 02.30.Fn |
| Anatomic imaging, MRI, 87.61.Jc |
| Anatomic MRI (in neuroscience), 87.19.lf |
| Anchoring (liquid crystals), 61.30.Hn |
| Anderson localization |
| conductivity in metals and alloys, 72.15.Rn |
| disordered solids, 71.23.An |
| hopping transport, 72.20.Ee |
| surface and interface states, 73.20.Fz |
| Andreev reflection (superconductivity), 74.45.+c |
| Anelasticity |
| materials treatment effects on, 81.40.Jj |
| mechanical properties of solids, 62.40.+i |
| Anemometry, 47.80.Fg |
| Angiography, 87.59.Dj |
| Angles, measurement of, 06.30.Bp |
| Angular velocity measurement, 06.30.Gv |
| Anharmonic lattice modes, 63.20.Ry |
| Anisotropic media, 81.05.Xj |
| Annealing |
| crystal defects, 61.72.Cc |
| effects on microstructure, 81.40.Ef |
| magnetic, 75.60.Nt |
| Announcements, 01.10.Cr |
| Anodic films, 82.45.Cc |
| Anoxic environments |
| biogeosciences, *91.62.De |
| oceanography, 92.20.Hs |
| Antarctica, 93.30.Ca |
| Antennas, 84.40.Ba |
| plasma interactions with, 52.40.Fd |
| Anthropogenic effects |
| environmental studies of, 89.60.Gg |
| in hydrology, 92.40.Aa |
| in paleoceanography, *92.30.De |
| Anthropology, 89.65.Ef |
| Antibunched photon states, 42.50.Dv |
| Antiferroelectricity, 77.80.-e |
| Antiferroelectric materials, 77.84.-s |
| Antiferromagnetic materials, 75.50.Ee |
| Antiferromagnetic resonance, 76.50.+g |
| Antiprotonic atoms and molecules, 36.10.Gv |
| Antiproton-induced reactions, 25.43.+t |
| Antireflection coatings, 42.79.Wc |
| Anyons |
| electronic structure, 71.10.Pm |
| nonconventional mechanisms in superconductivity,
74.20.Mn |
| quantum statistical mechanics, 05.30.Pr |
| Apertures, optical, 42.79.Ag |
| Appliances, energy use in, 88.05.Rt |
| Apodization, 42.15.Eq |
| APW calculations, 71.15.Ap |
| Aquifers (ground water), 92.40.Kf, *92.40.kh |
| Arc discharges, 52.80.Mg |
| Archaeoastronomy, 95.90.+v |
| Archean period, *91.70.hf |
| Archeomagnetism, 91.25.Dx |
| Architectural acoustics, *43.55.-n, 43.55.+p |
| Arctic Ocean, 93.30.Li |
| Arc welding, 52.77.Fv |
| Arms control, 89.20.Dd |
| Arrays |
| fiber optical, 42.81.Qb |
| integrated optics, 42.82.Et |
| laser, 42.60.Da |
| solar cells, 84.60.Jt |
| Artificial intelligence, 07.05.Mh |
| Artificial satellites, 07.87.+v, 95.40.+s, 95.55.Pe |
| ASA (atomic sphere approximation), 71.15.Ap |
| Ash deposits, 91.40.Bp |
| Asia, 93.30.Db |
| Associated liquids, structure of, 61.20.Qg |
| Association reactions, chemical, 82.30.Nr |
| Associative rings and algebras, 02.10.Hh |
| Asteroids, 96.30.Ys |
| Astrobiology, *91.62.Fc, 96.55.+z |
| Astrometric binary stars, 97.80.Af |
| Astrometry, 95.10.Jk |
| instrumentation, 95.55.Br |
| Astron (magnetic trap), 52.55.Lf |
| Astronomy databases, 95.80.+p |
| Astrophysical plasma, 95.30.Qd |
| laboratory studies, 52.72.+v |
| Asymptotic normalization coefficients, 21.10.Jx |
| Atlantic Ocean, 93.30.Mj |
| Atmosphere |
| comets, *96.25.F-, 96.25.Fx |
| Earth |
| biosphere/atmosphere interactions, *91.62.Xy |
| effects of volcanic eruptions, 91.40.Dr |
| global change, 92.70.Cp |
| ionosphere, 94.20.-y |
| land/atmosphere interactions, 92.60.Kc, 92.70.Bc |
| magnetosphere, 94.30.-d |
| ocean/atmosphere interactions, 92.60.Cc |
| troposphere, 92.60.hf |
| Moon, 96.20.Dt |
| planetary |
| fluid planets, *96.15.H-, 96.15.Hy |
| solid surface planets, *96.12.J-, 96.12.Jt |
| stellar, 97.10.Ex |
| Atmosphere/ocean/Earth interaction, 91.10.Vr |
| Atmospheric acoustics, *43.28.-g, 43.28.+h |
| Atmospheric chemistry, 82.33.Tb |
| meteorology, 92.60.hf |
| Atmospheric electricity |
| in Earth's atmosphere, 92.60.Pw |
| in plasmas, 52.80.Mg |
| Atmospheric ion precipitation, 94.20.Qq, 94.30.Hn |
| Atmospheric optics, 42.68.-w |
| cloud optics, 42.68.-w, *92.60.nc |
| Atmospheric pressure, 92.60.hv |
| Atom-surface collisions, 34.35.+a, 79.20.Rf |
| Atomic beam epitaxy, 81.15.Hi |
| Atomic beams |
| chemical reactions, 34.50.Lf |
| detectors for, 07.77.-n |
| interactions with solids, 79.20.Rf |
| irradiation effects, 61.80.Lj |
| sources of, 07.77.Gx, 37.20.+j |
| in structure determination, 61.05.Np |
| Atomic clusters, 36.40.-c |
| Atomic force microscopy |
| in biophysics, 87.64.Dz |
| instrumentation, 07.79.Lh |
| in surface structure determination, 68.37.Ps |
| Atomic forces, 34.20.-b |
| Atomic isotopes, 32.10.Bi |
| Atomic mass, 32.10.Bi |
| Atomic moments, 32.10.Dk |
| Atomic-orbital methods |
| atoms and molecules, 31.15.xr |
| solids, 71.15.Ap |
| Atomic properties, 32.10.-f |
| Atomic spectra, 32.30.-r |
| astrophysics, 95.30.Ky |
| Atomic sphere approximation (ASA), 71.15.Ap |
| Atom interferometry, 03.75.Dg, 37.25.+k |
| Atom lasers, 03.75.Pp |
| Atom manipulation |
| in atomic physics, 37.10.De, 37.10.Gh |
| in nanotechnology, 81.16.Ta |
| in physical chemistry, 82.37.Gk |
| Atom-molecule potentials and forces, 34.20.Gj |
| Atom optics, 03.75.Be |
| Atoms |
| in cavities, 37.30.+i |
| collisions in plasma, 52.20.Hv |
| cooling and trapping, 37.10.De, 37.10.Gh |
| electric and magnetic moments, 32.10.Dk |
| electron affinity, 32.10.Hq |
| electronic structure |
| calculations of, 31.15.-p |
| theory of, 31.10.+z |
| excitation and ionization by electron impact,
34.80.Dp |
| exotic, 36.10.-k |
| hot atom reactions, 82.30.Cf |
| ionization potential, 32.10.Hq |
| polarizability, 32.10.Dk |
| scattering, 34.50.-s |
| from surfaces, 34.35.+a, 68.49.Bc |
| Audio and visual aids, educational, 01.50.F- |
| Auditory system, *43.64.-q, 43.64.+r, 87.19.lt |
| Auger effect |
| atoms, 32.80.Hd |
| solids, 79.20.Fv |
| Auger microscopy, 68.37.Xy |
| Auger spectroscopy, 82.80.Pv |
| Augmented plane-wave (APW) calculations, 71.15.Ap |
| Aurorae, 92.60.hw, 94.20.Ac, 94.30.Aa |
| Australia, 93.30.Fd |
| Autoionization |
| atoms, 32.80.Zb |
| molecules, 33.80.Eh |
| Avalanche counters, 29.40.Cs |
| Avalanches |
| phase transitions in, 64.60.av |
| Avalanches (granular systems), 45.70.Ht |
| Aviation fuel from biomass, 88.20.fw |
| Awards, 01.10.Cr |
| Axial vector currents, 11.40.Ha |
| Axiomatic field theory, 11.10.Cd |
| Axions, 14.80.Va |
| Axons, action potential propagation in, 87.19.lb |
| Background radiation, cosmic, 98.70.Vc |
| Backscattering. See Scattering |
| Bacteria |
| seawater, 92.20.Jt, *92.20.jb |
| swimming of, 47.63.Gd |
| Bacterial diseases, 87.19.xb |
| Bag model, 12.39.Ba |
| Balance systems, 07.10.Lw |
| Ballistics, 45.40.Gj |
| Ballistic transport, 73.23.Ad |
| Ballooning instability, 52.35.Py |
| Balloons (meteorology), 92.60.-e |
| Band model of magnetism, 75.10.Lp |
| Band structure, 71.20.-b |
| Barkhausen effect (magnetic properties and
materials), 75.60.Ej |
| Baryon number, 11.30.Fs |
| Baryon resonances, 14.20.Gk |
| Baryons |
| bottom baryons, 14.20.Mr |
| charmed baryons, 14.20.Lq |
| decays of, 13.30.Eg |
| exotic baryons, 14.20.Pt |
| production of, 13.60.Rj |
| properties of, 14.20.-c |
| resonances, 14.20.Gk |
| Bathymetry, 91.50.Ga |
| BaTiO3-based dielectric films, 77.55.fe |
| Batteries |
| lead-acid, nickel-metal hydride, 82.47.Cb |
| lithium-ion, 82.47.Aa |
| BCS theory (superconductivity), 74.20.Fg |
| Beach processes (marine geology), 91.50.Cw |
| Beamfoil excitation and ionization, 34.50.Fa |
| Beam injection |
| electron and ion optics, 41.85.Ar |
| in particle accelerators, 29.27.Ac |
| Beam optics (charged-particle beams), 41.85.-p |
| Beam-plasma instabilities, 52.35.Qz |
| Beams |
| structural acoustics, *43.40.Cw |
| structural mechanics, 46.70.De |
| Beams, charged-particle |
| in accelerators, 29.27.-a |
| electron, 41.75.Fr, 41.75.Ht |
| interactions with plasma, 52.40.Mj |
| ion, 41.75.Ak, 41.75.Cn |
| positron, 41.75.Fr, 41.75.Ht |
| relativistic electron and positron, 41.75.Ht |
| Beams, photon |
| laser, 42.60.-v |
| x-ray, 41.50.+h |
| Beam splitters and deflectors |
| electron and ion optics, 41.85.Ct |
| optical, 42.79.Fm |
| Beam trapping (nonlinear optics), 42.65.Jx |
| Bearings, 06.60.Vz, 07.10.-h |
| Bell inequalities, 03.65.Ud |
| Benthic processes |
| marine geology, 91.50.Ey |
| oceanography, 92.10.Oc, 92.20.Iv |
| Bernstein waves, 52.35.Hr |
| Berry's phase, 03.65.Vf |
| Bessel functions, 02.30.Gp |
| Beta Cephei stars, 97.30.Dg |
| Beta decay, 23.40.-s |
| Betatrons, 29.20.df |
| Bethe-Salpeter equations, 11.10.St |
| BGK modes (in plasma), 52.35.Sb |
| Bianisotropic media, 81.05.Xj |
| Bibliographies, 01.30.Tt |
| Bifurcation |
| chemical reactions, 82.40.Bj |
| flow instabilities, 47.20.Ky |
| nonlinear dynamics, 05.45.-a |
| theory, 02.30.Oz |
| Big Bang nucleosynthesis, 26.35.+c |
| Big Bang theory, 98.80.Bp |
| Bilayers |
| in subcellular structure, 87.16.D- |
| Binary stars, 97.80.-d |
| accreting binary systems |
| explosive burning in, 26.30.Ca |
| black hole binaries |
| general relativity, 04.25.dg |
| Binding energy |
| molecular core, 33.15.Ry |
| nuclear, 21.10.Dr |
| solids, 71.15.Nc |
| Bingham fluids (rheology), 83.60.La |
| Binocular vision, 42.66.Si |
| Bioacoustics, *43.80.-n, 43.80.+p |
| biological effects of acoustic and ultrasonic
radiation, 87.50.Y- |
| Biochemistry, 87.15.R- |
| in nanofabrication, 81.16.Fg |
| Biocompatibility, of biomaterials, 87.85.jj |
| Biodiesel |
| from biomass energy, 88.20.fk |
| for advanced vehicles, 88.85.mb |
| Biodiversity, *91.62.Gk |
| Bioelectrochemistry, 82.45.Tv, 87.15.Tt |
| Bioethers as fuel from biomass, 88.20.fv |
| Biofilms, 87.18.Fx |
| Biogeochemical cycles |
| oceanography, 92.20.Sg |
| paleoceanography, *92.30.Gh |
| Biogeochemical processes, global, 92.70.-j |
| Biogeosciences, 91.62.+g |
| Biographies, 01.60.+q |
| Biological complexity, 87.18.-h |
| biofilms, 87.18.Fx |
| cell aggregation, 87.18.Ed |
| cell-cell communication, 87.18.Gh |
| genetic switches, 87.18.Cf |
| integrative biophysics, 87.18.Nq |
| multicellular phenomena, 87.18.Fx |
| neural networks, 87.18.Sn |
| noise in, 87.18.Tt |
| pattern formation, 87.18.Hf |
| systems biology, 87.18.Vf |
| Biological fluid dynamics, 47.63.-b, 87.85.gf |
| Biological physics |
| general theory of, 87.10.-e |
| spectroscopic and microscopic techniques, 87.64.-t |
| Biological signal transduction |
| intracellular signaling, 87.16.Xa |
| multicellular, 87.18.Mp |
| Biological systems |
| acoustic and ultrasonic radiation effects, 87.50.Y- |
| dosimetry/exposure assessment, 87.50.yk |
| interaction mechanisms, 87.50.yg |
| therapeutic applications, 87.50.yt |
| chemical kinetics in, 82.39.-k, 87.15.R- |
| electric and magnetic fields effects, 87.50.C- |
| dosimetry/exposure assessment, 87.50.cm |
| electrophoresis, 87.50.ch |
| electroporation, 87.50.cj |
| interaction mechanisms, 87.50.cf |
| therapeutic applications, 87.50.ct |
| ionizing radiation effects, 87.53.-j |
| brachytherapy, 87.53.Jw |
| dosimetry/exposure assessment, 87.53.Bn |
| interaction mechanisms, 87.53.Ay |
| therapeutic applications, 87.53.Jw |
| millimeter and terahertz radiation effects, 87.50.U- |
| dosimetry/exposure assessment, 87.50.up |
| interaction mechanisms, 87.50.uj |
| therapeutic applications, 87.50.ux |
| optical and infrared radiation effects, 87.50.W- |
| dosimetry/exposure assessment, 87.50.wj |
| interaction mechanisms, 87.50.wf |
| therapeutic applications, 87.50.wp |
| radiofrequency and microwave radiation effects,
87.50.S- |
| dosimetry/exposure assessment, 87.50.sj |
| interaction mechanisms, 87.50.sg |
| therapeutic applications, 87.50.st |
| Biological tissues |
| electrical and mechanical properties of, 87.19.R- |
| flow through, 47.63.Jd, 87.19.rh, 87.85.gf |
| tissue engineering, 87.85.Lf |
| Biomass |
| biofuels (renewable alternative fuels) |
| bioaviation fuel, 88.20.fw |
| biodiesel, 88.20.fk |
| bioethers, 88.20.fv |
| butanol, 88.20.fh |
| ethanol, 88.20.ff |
| hydrogen, 88.20.fn |
| markets for, 88.20.T- |
| methane |
| as renewable biofuel, 88.20.fq |
| production, general and miscellaneous, 88.20.G- |
| production from anaerobic digestion, 88.20.gh |
| production from decaying organic matter, 88.20.gf |
| production from Fischer-Tropsch liquids, 88.20.gc |
| methanol, 88.20.fg |
| mixed alcohols, 88.20.fj |
| solid palletized fuel, 88.20.fr |
| syngas, 88.20.fs |
| vegetable oils, 88.20.ft |
| biopower systems, 88.20.M- |
| cofiring systems, 88.20.mp |
| direct-firing systems, 88.20.mn |
| gasification systems; syngas, 88.20.mr |
| paper mills, 88.20.mv |
| pyrolysis to liquids, 88.20.mt |
| bioproducts from, 88.20.R- |
| acids, 88.20.rm |
| foam insulation, 88.20.rr |
| glues, 88.20.rg |
| plastics, 88.20.rb |
| wood adhesives, 88.20.rp |
| conversion methods, 88.20.J- |
| combustion, 88.20.jj |
| extraction and esterification, 88.20.jp |
| hydrolysis and fermentation, 88.20.jm |
| photosynthetic pathways, 88.20.jr |
| energy sources of, 88.20.D- |
| agriculture/forestry residues, 88.20.dj |
| aquatic/marine sources, 88.20.dm |
| cellolusic materials, 88.20.dp |
| food crops, 88.20.df |
| food wastes, 88.20.dr |
| grassy and woody plants, 88.20.dh |
| methane from landfills, 88.20.dv |
| municipal and industrial wastes, 88.20.dt |
| wood, 88.20.dd |
| processing routes for, 88.20.H- |
| biochemical route, 88.20.hh |
| thermochemical route, 88.20.hj |
| social issues in, 88.20.Y- |
| food versus fuel debate, 88.20.yq |
| Biomaterials |
| bio-based materials, 87.85.jf |
| biocompatibility of, 87.85.jj |
| biofuels, 88.20.F- |
| in biomedical engineering, 87.85.J- |
| physical properties of, 87.85.jc |
| bioproducts from biomass, 88.20.R- |
| Biomechanics |
| in biomedical engineering, 87.85.G- |
| mechanical systems in, 87.85.gp |
| movement and locomotion, 87.85.gj |
| Biomedical engineering |
| applied neuroscience, 87.85.D- |
| biological signal processing, 87.85.Ng |
| biomaterials, 87.85.J- |
| biomechanics in, 87.85.G- |
| biomedical imaging techniques in, 87.85.Pq |
| biomedical instruments, 87.85.Ox |
| biotechnology, 87.85.M- |
| integrative biology, 87.85.Xd |
| MEMS in, 87.85.Ox |
| micromachining in, 87.85.Va |
| micromanipulators in, 87.85.Uv |
| modeling of biomedical systems, 87.85.Tu |
| nanotechnologies in, 87.85.Qr, 87.85.Rs |
| neural prosthetics, 87.85.E- |
| regulatory biology, 87.85.Xd |
| robotics in, 87.85.St |
| smart prosthetics, 87.85.F- |
| tissue engineering, 87.85.Lf |
| Biomolecular electronics, 85.65.+h |
| Biomolecules |
| aggregates of, 87.15.bk |
| biopolymers, 82.35.Pq, 87.15.rp |
| chemical kinetics, 82.39.-k, 87.15.R- |
| NMR of, 82.56.Pp |
| sequence analysis of, 87.15.Qt |
| structure and physical properties, 87.15.-v |
| on surfaces, 68.47.Pe |
| Biophysical techniques, 87.80.-y |
| biochemical separation processes, 87.80.Qk |
| electrochemical techniques, 87.80.Kc |
| ESR/EPR techniques, 87.80.Lg |
| genomic techniques, 87.80.St |
| magnetic resonance techniques, 87.80.Lg |
| mechanical and micromechanical techniques, 87.80.Ek |
| Proteomic techniques, 87.80.Un |
| single-molecule techniques, 87.80.Nj |
| spectroscopies in, 87.80.Dj |
| Biopolymers, 82.35.Pq, 87.15.rp |
| Biopropulsion (in water and air), 47.63.M- |
| Bioremediation, *91.62.Jf |
| Biosensors |
| in smart prosthetics, 87.85.fk |
| Biosonic generation, *43.80.Ka |
| Biosphere (chemical composition), *91.67.gj |
| Biotechnology |
| genetic engineering, 87.85.md |
| genomics techniques in, 87.80.St, 87.85.mg |
| proteomics techniques in, 87.80.Un, 87.85.mk |
| Biothermics, 87.19.Pp |
| Bipolarons |
| electronic structure of solids, 71.38.Mx |
| nonconventional mechanisms in superconductivity,
74.20.Mn |
| Bipolar outflows |
| external galaxies, 98.58.Fd |
| Milky Way, 98.38.Fs |
| pre-main-sequence objects, 97.21.+a |
| Bipolar transistors, 85.30.Pq |
| Birefringence |
| in bulk materials and thin films, 78.20.Fm |
| in optical fibers, 42.81.Gs |
| in wave optics, 42.25.Lc |
| Bistability, optical, 42.65.Pc |
| Blackbody radiation, 44.40.+a |
| Black holes |
| black-hole binaries, 04.25.dg |
| classical, 04.70.Bw |
| evaporation of, 04.70.Dy |
| in external galaxies, 98.62.Js |
| higher-dimensional, 04.50.Gh |
| in Milky Way, 98.35.Jk |
| numerical relativistic studies of, 04.25.dg |
| in stellar evolution, 97.60.Lf |
| Black strings (general relativity), 04.50.Gh |
| Blast waves, *43.28.Mw |
| Blazars, 98.54.Cm |
| Blood |
| blood-brain barrier, 87.19.um |
| flow imaging by MRI, 87.61.Np |
| flow in cardiovascular system, 47.63.Cb, 87.19.ug,
87.19.uj |
| hemodynamics, 87.19.U- |
| rheology of, 83.80.Lz, 87.19.rh, 87.85.gf |
| Blue phases (liquid crystals), 61.30.Mp |
| Blue stars, blue stragglers, 97.20.Rp |
| Body fluids |
| transport of, 87.19.rh |
| Body movements, physics of, 87.19.rs, 87.19.ru |
| Body waves (seismology), 91.30.Cd |
| Boiling, 64.70.fh |
| Bok globules, 97.21.+a |
| Bolometers |
| infrared detectors in astronomy, 95.55.Rg |
| instruments, 07.57.Kp |
| Bond angles and bond lengths, 33.15.Dj, 61.50.Lt |
| Bonds, dangling, 61.43.-j |
| Bond strength, 33.15.Fm |
| Bone densitometry, 87.63.St |
| Book reviews, 01.30.Vv |
| Books of general interest to physics teachers,
01.30.Os |
| Borides |
| dielectric materials, 77.84.Bw |
| refractories, 81.05.Je |
| Born-Oppenheimer approximation, 31.30.-i |
| Borocarbides, superconductivity of, 74.70.Dd |
| Boron nanotubes |
| structure of, 61.48.De |
| Bose-Einstein condensates, 67.85.Hj, 67.85.Jk |
| Bose-Einstein condensation |
| dynamic properties, 03.75.Kk |
| entanglement and decoherence, 03.75.Gg |
| multicomponent and spinor condensates, 03.75.Mn |
| quantum optics, 42.50.Gy |
| solitons, 03.75.Lm |
| static properties, 03.75.Hh |
| tunneling, 03.75.Lm |
| vortices in, 03.75.Lm |
| Bose-Einstein statistics, 05.30.-d |
| Boson degeneracy |
| in quantum fluids, 67.10.Ba |
| Bosons |
| gauge, 14.70.-e |
| Higgs, 14.80.Bn, 14.80.Da, 14.80.Ec, 14.80.Fd |
| interacting boson model, 21.60.Fw |
| intermediate, decays of, 13.38.-b |
| Nambu-Goldstone, 14.80.Va |
| Boson systems, 05.30.Jp |
| Bottom baryons, 14.20.Mr |
| Bottom mesons |
| hadronic decays, 13.25.Hw |
| leptonic decays, 13.20.He |
| properties of, 14.40.Nd |
| Bottom quarks, 14.65.Fy |
| Boundary layer |
| laminar flow, 47.15.Cb |
| Boundary layers |
| benthic (oceanography), 92.10.Oc, 92.20.Iv |
| flow control, 47.85.ld |
| instability of, 47.20.Ib |
| meteorology, 92.60.Fm |
| in plasmas, 52.40.Hf |
| sea-air, 92.10.Kp |
| turbulence, 47.27.nb |
| Boundary-value problems |
| in electrostatics, 41.20.Cv |
| in magnetostatics, 41.20.Gz |
| numerical analysis, 02.60.Lj |
| Bound states |
| field theory, 11.10.St |
| magnetic bound states in atoms, 32.10.Ee |
| potential energy surfaces, 31.50.-x |
| quantum mechanics, 03.65.Ge |
| Brachytherapy, 87.53.Jw |
| Bragg reflectors, 42.79.Dj |
| Brain-machine interface |
| in applied neuroscience, 87.85.dd |
| Branes, 11.25.-w |
| D branes, 11.25.Uv |
| M theory, 11.25.Yb |
| Breakdown, electrical |
| dielectrics, 77.22.Jp |
| gases, 51.50.+v |
| Breeder reactors, 28.50.Ft |
| Bremsstrahlung, 03.50.-z, 41.60.-m, 78.70.Ck |
| Bright field optical microscopy, in biophysics,
87.64.mc |
| Brillouin scattering |
| condensed matter, 78.35.+c |
| molecular spectra, 33.20.Fb |
| nonlinear optics, 42.65.Es |
| plasma, 52.38.Bv |
| Brillouin zones, 61.50.Ah, 71.20.-b |
| Brittleness |
| nanoscale systems, 62.25.Mn |
| structural failure of materials, 62.20.mj |
| Broken symmetry phases (nanoscale materials),
73.22.Gk |
| Brown dwarfs, 97.20.Vs |
| Brownian motion, 05.40.Jc |
| in rheology, 83.10.Mj |
| Bubble chambers, 29.40.-n |
| Bubbles |
| dynamics |
| in boiling, 64.70.fh |
| in multiphase flow, 47.55.dd |
| magnetic, 75.70.Kw |
| nonlinear acoustics, *43.25.Yw |
| Buckling |
| fission reactors, 28.41.Ak |
| materials treatment effects, 81.40.Lm |
| static, 46.32.+x |
| structural failure of materials, 62.20.mq |
| Buckyballs. see Fullerenes |
| Bumpy tori, 52.55.Hc |
| Buoyancy-driven flows |
| convection, 47.55.P- |
| flow instabilities, 47.20.Bp |
| Bursts |
| galactic jets, 98.62.Nx |
| gamma-ray, 98.70.Rz |
| solar, 96.60.qe |
| x-ray, 98.70.Qy |
| Business and management, 89.65.Gh |
| Butanol (from biomass), 88.20.fh |
| Cables |
| electrical, 84.70.+p |
| fiber-optical, 42.81.Qb |
| superconducting, 84.71.Fk |
| Calculus |
| operational, 02.30.Vv |
| of variations, 02.30.Xx |
| Calderas (volcanology), 91.40.Wx |
| Calendars, astronomical, 95.10.Km |
| Calibration, 06.20.fb |
| Callisto, 96.30.lh |
| Calorimeters, 07.20.Fw |
| radiation detectors, 29.40.Vj |
| Cambrian period, *91.70.fn |
| Cameras, photographic, 07.68.+m |
| Cancer, 87.19.xj |
| Capacitance measurement, 84.37.+q |
| Capacitor banks (energy storage), 84.60.Ve |
| Capacitors, 84.32.Tt |
| electrochemical, 82.47.Uv |
| Capillary effects (interfacial flows), 47.55.nb |
| Capillary waves |
| fluid flow, 47.35.Pq |
| fluid interfaces, 68.03.Kn |
| ocean waves, *92.10.hd |
| Carbides |
| dielectric materials, 77.84.Bw |
| refractories, 81.05.Je |
| Carbohydrates, 87.14.Df |
| Carbon, 81.05.U- |
| Carbon-based materials |
| diamond, 81.05.ug |
| diamond/nanocarbon composites, 81.05.uj |
| fullerenes, 81.05.ub |
| graphene, 81.05.ue |
| graphite, 81.05.uf |
| superconducting materials, 74.70.Wz |
| Carbon cycling |
| biogeosciences, *91.62.La |
| oceans, 92.20.Xy |
| Carbon dioxide lasers, 42.55.Lt |
| Carboniferous period, *91.70.fd |
| Carbon nanotubes |
| structure of, 61.48.De |
| Carbon stars, 97.30.Hk |
| Cardiac dynamics, 87.19.Hh |
| Cardiovascular system (blood flow), 47.63.Cb,
87.19.ug, 87.19.uj |
| Careers in science, 01.85.+f |
| Car-Parrinello method, 71.15.Pd |
| CARS, 42.65.Dr |
| Cartography, 91.10.Da |
| Catalysis |
| electrochemistry, 82.45.Jn |
| enzymatic, 87.15.R- |
| heterogeneous, 82.65.+r |
| homogeneous, 82.30.Vy |
| in nanotechnology, 81.16.Hc |
| Catastrophe theory, 05.45.-a |
| Cathode-ray tubes, 84.47.+w |
| Cathodoluminescence, 78.60.Hk |
| Causal structure (general relativity), 04.20.Gz |
| Cavitation |
| acoustics, *43.25.Yw, *43.35.Ei |
| nonhomogeneous flows, 47.55.dp |
| Cavity quantum electrodynamics, 42.50.Pq |
| Cavity resonators |
| fiber optics, 42.81.Qb |
| integrated optics, 42.82.Et |
| laser, 42.60.Da |
| optical, 42.79.Gn |
| Celestial mechanics |
| astronomy, 95.10.Ce |
| classical mechanics, 45.50.Pk |
| Cell adhesion, 87.17.Rt |
| Cell aggregation, 87.18.Ed |
| Cell division, 87.17.Ee |
| Cell mechanics, 87.17.Rt |
| Cell processes, 87.17.-d |
| biotechnology of, 87.17.Uv |
| cell adhesion, 87.17.Rt |
| cell locomotion, 87.17.Jj |
| chemotaxis in, 87.17.Jj |
| growth and division, 87.17.Ee |
| morphogenesis, 87.17.Pq |
| theory and modeling of, 87.17.Aa |
| Cells on a chip |
| in applied neuroscience, 87.85.dh |
| Cellular engineering, 87.85.Lf |
| Cell walls |
| in subcellular structure and processes, 87.16.Gj |
| Cenozoic period, *91.70.B-, 91.70.Bf |
| Cepheids, 97.30.Gj |
| Ceramics |
| in electrochemistry, 82.45.Xy |
| fabrication, 81.05.Je, 81.05.Mh |
| PZT ceramics as piezoelectric materials, 77.84.Cg |
| Cerenkov radiation |
| from moving charges, 41.60.Bq |
| Cermets, fabrication of, 81.05.Mh |
| Chain reactions, chemical, 82.30.Cf |
| Chains, macromolecular and polymer, 36.20.Fz |
| Chalcogenides |
| dielectric materials, 77.84.Bw |
| noncuprate superconductors, 74.70.Xa |
| Channel flow, 47.60.Dx |
| rheology, 83.50.Ha |
| Channeling |
| in crystals, 61.85.+p |
| in laser-plasma interactions, 52.38.Hb |
| Chaos |
| acoustics, *43.25.Rq |
| applications of, 05.45.Gg |
| astronomy, 95.10.Fh |
| chemical reactions, 82.40.Bj |
| communication using, 05.45.Vx |
| control of, 05.45.Gg |
| fluid dynamics, 47.52.+j |
| high-dimensional, 05.45.Jn |
| low-dimensional, 05.45.Ac |
| in nuclear systems, 24.60.Lz |
| numerical simulations, 05.45.Pq |
| optical, 42.65.Sf |
| plasmas, 52.25.Gj |
| quantum, 05.45.Mt |
| rheology, 83.60.Wc |
| in superconductors, 74.40.De |
| Charge carriers |
| semiconductors and insulators, 72.20.Jv |
| surfaces, 73.25.+i |
| thin films, 73.50.Gr |
| Charge-coupled devices, 85.60.Gz |
| in astronomical instrumentation, 95.55.Aq |
| Charged clusters, 36.40.Wa |
| Charge-density waves |
| collective excitations, 71.45.Lr |
| one-dimensional conductors, 72.15.Nj |
| surface and interface excitations, 73.20.Mf |
| Charged excitons, 71.35.Pq |
| Charged Higgs bosons, 14.80.Fd |
| Charge distribution (nuclear), 21.10.Ft |
| Charged-lepton interactions with hadrons, 13.60.-r |
| Charged-particle beams |
| in accelerators, 29.27.-a |
| beam optics, 41.75.-i, 41.85.-p |
| sources and detectors, 07.77.Ka |
| Charged-particle-induced fission, 25.85.Ge |
| Charged-particle spectrometers, 29.30.Aj |
| Charged-particle spectroscopy, 29.30.Ep |
| Charge-exchange reactions |
| in biomolecular reactions, 87.15.R- |
| in chemistry, 82.30.Fi |
| nuclear reactions |
| 2H-induced, 25.45.Kk |
| 3H-, 3He-, and 4He-induced, 25.55.Kr |
| heavy-ion reactions (low energy), 25.60.Lg |
| nucleon induced, 25.40.Kv |
| pion, 25.80.Gn |
| unstable-nuclei-induced, 25.60.Lg |
| Charge measurement, 84.37.+q |
| Charge transfer |
| in atomic and molecular collisions, 34.70.+e |
| in biomolecular reactions, 87.15.R- |
| in chemical reactions, 82.30.Fi |
| Charginos, 14.80.Nb |
| Charmed baryons, 14.20.Lq |
| Charmed mesons |
| hadronic decays, 13.25.Ft |
| leptonic and semileptonic decays, 13.20.Fc |
| properties of, 14.40.Lb |
| Charmed quarks, 14.65.Dw |
| Chemical analysis, 82.80.-d |
| Chemical beam epitaxy, 81.15.Hi |
| Chemical bonds, 31.10.+z, 33.15.Fm |
| biomolecules, 87.15.Fh |
| crystals, 61.50.Lt |
| hydrogen bonding, hydrophilic effects, 82.30.Rs |
| macro- and polymer molecules, 36.20.Hb |
| Chemical composition |
| biosphere, *91.67.gj |
| continental crust, *91.67.gd |
| Earth's atmosphere, 92.60.H- |
| Earth's interior, 91.35.Lj |
| effects on ferroelectric phase transitions, 77.80.bg |
| effects on transition temperature
(superconductivity), 74.62.Bf |
| galaxies, 98.62.Bj |
| geochemistry, *91.67.G-, 91.67.Gy |
| hydrosphere, *91.67.gh |
| materials, 81.05.-t, 82.80.-d |
| oceanic crust, *91.67.gf |
| of solid surfaces and interfaces, 68.35.Dv |
| stars, 97.10.Tk |
| Sun, 96.60.Fs |
| thin films, 68.55.Nq |
| Chemical equilibria, 82.60.Hc |
| Chemical interdiffusion, 66.30.Ny |
| Chemical kinetics, 82.20.-w, 82.40.-g |
| in biological systems, 82.39.-k, 87.15.R- |
| single molecule, 82.37.-j |
| Chemical lasers, 42.55.Ks |
| Chemically reactive flows, 47.70.Fw |
| Chemically reactive materials (rheology), 83.50.Jf |
| Chemical physics. See 82 |
| Chemical processes (astrophysics), 95.30.Ft,
98.38.Bn, 98.58.Bz |
| Chemical reactions, 82.30.-b, 82.33.-z, 82.35.-x |
| of biomolecules, 82.39.-k, 87.15.R- |
| Chemical sensors, 07.07.Df |
| Chemical shift (NMR), 33.25.+k, 76.60.Cq, 82.56.-b |
| Chemical synthesis, 81.20.Ka |
| nanofabrication, 81.16.Be |
| Chemical thermodynamics, 82.60.-s |
| Chemical vapor deposition, 81.15.Gh |
| chemistry of, 82.33.Ya |
| Chemiluminescence, 78.60.Ps |
| Chemisorption, 68.43.-h |
| Chemotaxis, 87.17.Jj |
| Cherenkov detectors, 29.40.Ka |
| Cherenkov radiation, 41.60.Bq |
| Chern-Simons gauge theory, 11.15.Yc |
| Chevrel phases, superconductivity of, 74.70.Dd |
| Chirality |
| biomolecules, 87.15.B- |
| liquid crystals, 61.30.-v |
| optical activity, 33.55.+b, 78.20.Ek |
| particle physics, 11.30.Rd |
| polymer molecules and macromolecules, 36.20.Ey |
| Chiral Lagrangians, 12.39.Fe |
| Chiral media, 81.05.Xj |
| Chiral symmetries, 11.30.Rd |
| Chirping, 42.65.Re |
| Chromatography, 82.80.Bg |
| Chromodynamics, quantum, 12.38.-t |
| Chromosomes, 87.16.Sr |
| Chromosphere, solar, 96.60.Na |
| Chronometers, 06.30.Ft |
| Cilia, 87.16.Qp |
| Circadian rhythms, 87.18.Yt |
| Circuits |
| electronic, 07.50.Ek, 84.30.-r |
| integrated, 85.40.-e |
| optoelectronic, 42.82.Fv |
| passive components, 84.32.-y |
| theory of, 84.30.Bv |
| Circulation |
| atmospheric, 92.60.Bh |
| oceanic, 92.10.ab |
| Circumstellar envelopes, 97.10.Fy |
| Cladding, optical fibers, 42.81.Bm |
| Classical field theory, 03.50.-z |
| Classical mechanics |
| continuous media, 83.10.Ff |
| discrete systems, 45 |
| Clathrates, 82.75.-z |
| Clebsch-Gordan coefficients, 03.65.-w, 31.10.+z |
| Climate |
| change and variability |
| global change |
| abrupt/rapid change, 92.70.Aa |
| meteorology, 92.60.Ry |
| paleoceanography |
| abrupt/rapid change, *92.30.Bc |
| continental climate records, *92.30.Iv |
| dynamics |
| global change, 92.70.Gt |
| global, modeling of, 92.70.Np |
| inter-annual variability (oceanography), 92.05.Df |
| regional change, 92.70.Kb |
| Clocks, 06.30.Ft, 95.55.Sh |
| Clouds |
| atmospheric optics, 42.68.Ge |
| interstellar, 98.38.Dq |
| meteorology, *92.60.N-, 92.60.Nv |
| stellar, 97.10.Fy |
| Cluster model, nuclear structure, 21.60.Gx |
| Clusters |
| atomic and molecular, 36.40.-c |
| formation in chemical reactions, 82.30.Nr |
| galaxy, 98.65.-r |
| hollow molecular |
| structure of, 61.48.-c |
| phonons in, 63.22.Kn |
| reactions in, 82.33.Fg |
| reactions on, 82.33.Hk |
| reactivity of, 36.40.Jn |
| solid |
| electronic structure, 73.22.-f |
| structure of, 61.46.Bc |
| stellar, 98.20.-d |
| superfluidity of helium-4 in, 67.25.dw |
| in zeolites, 82.75.Vx |
| Coal, 89.30.ag |
| Coastal oceanography, 92.10.Sx |
| Coastal processes, 91.50.Cw |
| Coatings |
| deposition methods, 81.15.-z |
| flow in material processing, 47.85.mb |
| optical, 42.79.Wc |
| Coercivity (magnetic materials), 75.50.Vv, 75.60.Ej |
| Coherence |
| in electron and positron scattering, 34.80.Pa |
| optical |
| quantum optics, 42.50.Ar |
| wave optics, 42.25.Kb |
| phase coherent atomic ensembles, 03.75.Hh, 03.75.Kk |
| Coherent anti-Stokes Raman scattering (CARS),
42.65.Dr |
| Coherent radiation, plasma-generated, 52.59.Ye |
| Coherent spectroscopy |
| femtochemistry, 82.53.Kp |
| ultrafast spectroscopy (condensed matter), 78.47.jh |
| Cohesive energy, crystal, 61.50.Lt, 71.15.Nc |
| Coils, induction, 84.32.Hh |
| Cold electron emitters, 85.45.Db |
| Cold working, 81.40.Ef |
| Collagen |
| biomolecules, 87.14.em |
| rheology of, 83.80.Lz |
| Collective excitations |
| clusters, 36.40.Gk |
| excitons, 71.35.Lk |
| in multilayers, 73.21.Ac |
| in nanoscale systems, 73.21.-b |
| nuclear structure, 21.10.Re |
| one-dimensional conductors, 72.15.Nj |
| quantum Hall effects, 73.43.Lp |
| in superlattices, 73.21.Cd |
| surfaces and interfaces, 73.20.Mf |
| Collective flow, relativistic collisions, 25.75.Ld |
| Collective models (nuclei), 21.60.Ev |
| Collimators |
| for beam intensity modifications (medical physics),
87.56.nk |
| optics, 42.79.Ag |
| radiation therapy, 87.56.J- |
| Collisions |
| atomic and molecular (see 34) |
| classical mechanics, 45.50.Tn |
| elementary particles (see 13) |
| galaxies, 98.65.Fz |
| in plasma, 52.20.Hv, 52.20.Fs |
| Colloids, 82.70.Dd |
| complex fluids, 47.57.J- |
| glass transitions in, 64.70.pv |
| phase separation and segregation in, 64.75.Xc |
| rheology of, 83.80.Hj |
| Color centers |
| absorption spectra, 78.40.Fy, 78.40.Ha |
| crystal defects, 61.72.jn |
| defect states, 71.55.-i |
| EPR, 76.30.Mi |
| Colorimeters, 07.60.Dq |
| Color-magnitude diagrams |
| galaxies, 98.62.Qz |
| stars, 97.10.Zr |
| Color transparency (QCD in nuclei), 24.85.+p |
| Color vision, 42.66.Ne |
| Colossal magnetoresistance, 75.47.Gk |
| Combinatorics, 02.10.Ox |
| Combustion |
| biomass conversion by, 88.20.jj |
| enthalpy, 82.60.Cx |
| reaction kinetics, 82.33.Vx |
| reactive flows, 47.70.Pq |
| Combustion synthesis, 81.20.Ka |
| Comets |
| atmosphere, *96.25.F-, 96.25.Fx |
| impact phenomena, 96.25.Pq |
| interaction with solar wind, 96.50.Ek |
| ionosphere, *96.25.J-, 96.25.Jz |
| orbits and rotation, 96.25.De |
| origin, 96.25.Bd |
| volcanism, 96.25.Xz |
| Commensurate-incommensurate transformations,
64.70.Rh |
| Communication |
| cell-cell, 87.18.Gh |
| forms of, 01.20.+x |
| optical, 42.79.Sz |
| quantum, 03.67.Hk |
| satellites, 84.40.Ua |
| synaptic, 87.18.Sn |
| telecommunications, 84.40.Ua |
| theory of, 89.70.-a |
| communication complexity, 89.70.Hj |
| Commutative rings and algebras, 02.10.Hh |
| Compactification (string theory), 11.25.Mj |
| Compaction |
| granular systems, 45.70.Cc |
| materials preparation, 81.20.Ev |
| Comparators, electronic, 84.30.Qi |
| Compensators (radiation therapy), 87.56.ng |
| Complex systems, 89.75.-k |
| biological, 82.39.Rt |
| chemical, 82.40.Qt |
| granular models of, 45.70.Vn |
| Complex variables, 02.30.Fn |
| Composite materials |
| dielectric, piezo-, and ferroelectric, 77.84.Lf |
| electrical conductivity, 72.80.Tm |
| fabrication, 81.05.Mh, 81.05.Ni, 81.05.Pj, 81.05.Qk |
| nanocomposites, optical properties of, 78.67.Sc |
| optical properties of thin films, 78.66.Sq |
| rheology, 83.80.Ab |
| Composite particle models, 12.60.Rc |
| Composite superconductors, 74.81.Bd |
| Compressibility |
| gases, 51.35.+a |
| liquids, 62.10.+s |
| Compressible flows, 47.40.-x |
| Compressional waves |
| in atmosphere, 92.60.hh |
| meteorology, 92.60.hh |
| Compression molding, 83.50.Uv |
| Compressors, electronic, 84.30.Qi |
| Compton scattering |
| atoms, 34.50.-s |
| bulk matter, 78.70.-g |
| by hadrons, 13.60.Fz |
| Computational techniques |
| classical mechanics, 45.10.-b |
| continuum mechanics, 46.15.-x |
| electronic structure |
| atoms and molecules, 31.15.-p |
| solids, 71.15.Dx |
| fluid dynamics, 47.11.-j |
| mathematics, 02.70.-c |
| statistical physics and nonlinear dynamics, 05.10.-a |
| Computed tomography |
| in materials testing, 81.70.Tx |
| in medical imaging, 87.57.Q- |
| Computer-aided design |
| electronics, 84.30.Bv |
| microelectronics, 85.40.Bh |
| Computer-aided diagnosis, 87.57.R- |
| Computer algebra, 02.70.Wz |
| Computer hardware, 07.05.Bx |
| Computer interfaces, 07.05.Wr |
| nuclear physics, 29.50.+v |
| Computer languages, 07.05.Bx |
| Computer modeling and simulation, 07.05.Tp |
| astronomy, 95.75.Pq |
| biomolecules, 87.15.A- |
| cellular and subcellular biophysics, 87.15.A-,
87.16.A- |
| chaotic systems, 05.45.Pq |
| in chemical kinetics, 82.20.Wt |
| disordered solids, 61.43.Bn |
| impact phenomena, solids, 79.20.Ap |
| in integrated circuits fabrication, 85.40.Bh |
| liquid structure, 61.20.Ja |
| of magnetic critical points, 75.40.Mg |
| optical properties, 78.20.Bh |
| plasma, 52.65.-y |
| in radiation therapy, 87.55.Gh, 87.55.K- |
| rheology, 83.10.Rs |
| spectroscopy in medical physics, 87.64.Aa |
| Computers |
| in acoustics, *43.55.Ka, *43.58.Ta |
| as educational aids, 01.50.H- |
| in experimental physics, 07.05.-t |
| laboratory use, 01.50.Lc |
| optical, 42.79.Ta |
| Computer science and technology, 89.20.Ff |
| Computer vision, 42.30.Tz |
| Concentrators, solar, 42.79.Ek |
| Condensates |
| Bose-Einstein, 67.85.Hj, 67.85.Jk |
| dynamic properties of, 67.85.De |
| spinor condensates, 67.85.Fg |
| static properties of, 67.85.Bc |
| Condensation, 64.70.fm |
| of liquids, 68.03.Fg |
| liquid-vapor transitions, 64.70.F- |
| Conducting polymers |
| electrical conductivity of, 72.80.Le |
| reactions of, 82.35.Cd |
| thin films, electrical properties of, 73.61.Ph |
| Conductors, electrical, 84.32.Ff |
| Conferences |
| in acoustics, *43.10,Ce |
| on physics topics, 01.10.Fv |
| Conference proceedings, 01.30.Cc |
| Configuration interaction calculations, 31.15.V- |
| Confocal microscopy in biophysics, 87.64.mk |
| Conformal field theory, 11.25.Hf |
| Conformal radiation treatment, 87.53.Kn |
| Conformation, molecular, 33.15.Bh |
| barrier heights, 33.15.Hp |
| biomolecules, 87.15.hp |
| macromolecules and polymers, 36.20.Ey |
| Conservation laws |
| fields and particles, 11.30.-j |
| fluid dynamics, 47.10.ab |
| Constants, fundamental, 06.20.Jr |
| Constitutive relations |
| fluid dynamics, 47.10.ab |
| rheology, 83.10.Gr |
| Contact resistance and potential, 73.40.Cg |
| Contacts |
| III-V semiconductor-to-semiconductor, 73.40.Kp |
| II-VI semiconductor-to-semiconductor, 73.40.Lq |
| integrated electronics, 85.40.Ls |
| mechanical, 46.55.+d |
| metal-nonmetal, 73.40.Ns |
| metal-to-metal, 73.40.Jn |
| nanocontacts, 81.07.Lk |
| semiconductor-electrolyte, 73.40.Mr |
| Continental crust |
| chemical composition, *91.67.gd |
| seismology of, 91.30.Vc |
| Continental tectonics, *91.45.C-, 91.45.Cg |
| neotectonics, *91.45.ch |
| orogenic belts, *91.45.cc |
| rift basins, *91.45.cj |
| Continents, 93.30.-w |
| drift of, *91.45.D-, 91.45.Dh |
| Continuum mechanics |
| of solids |
| applications of, 46.70.-p |
| computational methods in, 46.15.-x |
| general theory of, 46.05.+b |
| measurement methods in, 46.80.+j |
| in rheology, 83.10.Ff |
| Control devices, 07.07.Tw |
| Control theory |
| in mathematical physics, 02.30.Yy |
| in neuroscience, 87.19.lr |
| Convection, 44.25.+f |
| astrophysics, 95.30.Tg |
| atmospheric, 92.60.hk |
| fluid dynamics, 47.55.P- |
| forced, 44.27.+g |
| ionosphere, 94.20.wc |
| magnetosphere, 94.30.cs |
| Convection currents (plate tectonics), 91.45.Fj |
| Convex sets, 02.40.Ft |
| Cooling |
| of atoms, ions, and molecules, 37.10.De, 37.10.Mn,
37.10.Rs |
| cryogenic, 07.20.Mc |
| magnetic, 75.30.Sg |
| Cooling flows (galaxy clusters), 98.65.Hb |
| Copolymers |
| rheology, 83.80.Uv |
| structure and phase transitions, 82.35.Jk |
| Corals (paleoceanography), *92.30.Hj |
| Core-annular flows, 47.55.Iv |
| Coriolis effects |
| molecules (vibration/rotation), 33.20.Vq |
| oceans, 92.10.Ei |
| Corona |
| solar, 96.60.P- |
| coronal holes, 96.60.pc |
| coronal loops, 96.60.pf |
| coronal mass ejection, 96.60.ph |
| stellar, 97.10.Ex |
| Corona discharges, 52.80.Hc |
| Corrected article, 99.10.Jk |
| Correlations |
| collective effects, 71.45.Gm |
| in electron and positron scattering, 34.80.Pa |
| in nuclear electromagnetic transitions, 23.20.En |
| Corrosion (electrochemistry), 82.45.Bb |
| Corrosion fatigue, 81.40.Np |
| Corrosion protection |
| surface treatments, 81.65.Kn |
| fuel cell technology, 88.30.Nn |
| Cosmic censorship, 04.20.Dw |
| Cosmic dust |
| external galaxies, 98.58.Ca |
| Milky Way, 98.38.Cp |
| Cosmic rays, 96.50.S- |
| astronomical observations, 95.85.Ry |
| energy spectra, 96.50.sb |
| extensive air showers, 96.50.sd |
| galactic and extragalactic, 98.70.Sa |
| high-energy interactions, 13.85.Tp |
| interplanetary propagation, 96.50.sh |
| in ionosphere, 94.20.wq |
| nucleosynthesis, 26.40.+r |
| Cosmic strings, 11.27.+d, 98.80.Cq |
| Cosmogony, 96.10.+i |
| Cosmological constant, 98.80.Es |
| Cosmology, 98.80.-k |
| Cosmotrons, 29.20.dk |
| Cost |
| trends in renewable energy, 88.05.Lg |
| of production of solar cells, 88.40.hm |
| Couette flow, 47.15.-x |
| Coulomb blockade, 73.23.Hk |
| Coulomb energies (nuclear levels), 21.10.Sf |
| Coulomb excitation (heavy-ion collisions), 25.70.De |
| Coulomb explosion, 79.77.+g |
| Coupled-channel methods (nuclear reactions),
24.10.Eq |
| Coupled cluster theory (atomic physics), 31.15.bw |
| Coupled map lattices, 05.45.Ra |
| CP invariance, 11.30.Er |
| CPT invariance, 11.30.Er |
| Cracks |
| detection, 81.70.-q |
| healing (rheology), 83.60.Uv |
| phase transitions, 64.60.av |
| structural failure of materials, 62.20.mt |
| structural mechanics, 46.50.+a |
| Cratering (Moon), 96.20.Ka |
| Creep |
| crystal defects, 61.72.Hh |
| effects of materials treatment, 81.40.Lm |
| mechanical properties of solids, 62.20.Hg |
| Creeping flows, 47.15.G- |
| Cretaceous period, *91.70.db |
| Critical currents (superconductivity), 74.25.Sv |
| Critical exponents, 64.60.F- |
| Magnetic critical point effects, 75.40.Cx |
| Critical fields (superconductivity), 74.25.Op |
| Criticality, self-organized, 05.65.+b |
| Critical phenomena |
| in magnetism, 75.40.-s |
| in physical chemistry, 82.60.-s |
| quantum critical phenomena (superconductivity),
74.40.Kb |
| at surfaces and interfaces, 68.35.Rh |
| in thermodynamics, 05.70.Jk |
| Critical points |
| dynamic critical behavior, 64.60.Ht |
| criticality of glass transitions, 64.70.qj |
| equilibrium properties near, 64.60.F- |
| general theory of critical region behavior, 64.60.fd |
| in magnetic properties, 75.40.-s |
| multicritical points, 64.60.Kw |
| Cryobiology (glaciology), 92.40.Vq, *92.40.vu |
| Cryogenics |
| instrumentation, 07.20.Mc |
| Cryosphere, 92.40.-t |
| global change, 92.70.Ha |
| Cryptography, quantum, 03.67.Dd |
| Crystal binding, 61.50.Lt |
| Crystal defects, 61.72.-y |
| effects on transition temperature
(superconductivity), 74.62.Dh |
| Crystal fields |
| level splitting, 71.70.Ch |
| in magnetic ordering, 75.10.Dg |
| Crystal growth |
| in controlled atmospheres, 81.10.St |
| from melts, 81.10.Fq |
| physics and chemistry of, 81.10.-h |
| from solid phases, 81.10.Jt |
| from solutions, 81.10.Dn |
| in space, 81.10.Mx |
| in vacuum, 81.10.Pq |
| from vapors, 81.10.Bk |
| theory and models of, 81.10.Aj |
| Crystallization |
| liquid-solid transitions, 64.70.dg |
| in solutions of macromolecules (biomolecules),
87.15.nt |
| Crystallographic databases, 61.68.+n |
| Crystallography. see crystal structure |
| Crystals |
| impurities, 61.72.S- |
| liquid, structure of, 61.30.-v |
| microstructure, 61.72.-y |
| materials treatment effects on, 81.40.-z |
| morphology and orientation, 81.10.Aj |
| nonlinear optical, 42.70.Mp |
| phase diagrams, 81.30.-t |
| purification, 81.10.-h |
| quantum, 67.80.-s |
| Crystal structure |
| alloys, 61.66.Dk |
| atomic and molecular scattering methods, 61.05.Np |
| bulk crystals, 61.50.-f |
| of clean solid surfaces, 68.35.B- |
| effects on transition temperature
(superconductivity), 74.62.Bf |
| electron diffraction and scattering methods,
61.05.J- |
| elemental solids, 61.66.Bi |
| inorganic compounds, 61.66.Fn |
| minerals, 91.60.Ed |
| neutron diffraction and scattering methods, 61.05.F- |
| organic compounds, 61.66.Hq |
| theory, 61.50.Ah |
| x-ray diffraction and scattering methods, 61.05.C- |
| Crystal symmetry, 61.50.Ah |
| Cuprates (superconductors), 74.72.-h |
| Curie point |
| Ferroelectric phase transitions, 77.80.B- |
| magnetic, 75.30.Kz, 75.40.-s |
| Current drive (magnetic confinement), 52.55.Wq |
| Currents |
| critical (superconductivity), 74.25.Sv |
| in ionosphere, 94.20.Ss |
| in magnetosphere, 94.30.Kq |
| marine geology, 91.50.Jc |
| theory of fields and particles, 11.40.-q |
| Curricula and evaluation (physics education),
01.40.G- |
| Curvature measurement, 06.30.Bp |
| Cusps, 52.55.Lf |
| Cyclotron resonance |
| condensed matter, 76.40.+b |
| ion-cyclotron resonance (plasma), 52.50.Qt |
| Cyclotrons, 29.20.dg |
| Cytoskeleton, 87.16.Ln |
| Dams, 92.40.Xx |
| Dark energy, 95.36.+x |
| Dark field optical microscopy (biophysics), 87.64.mf |
| Dark matter, 95.35.+d |
| Data acquisition, 07.05.Hd |
| nuclear physics, 29.85.Ca |
| Databases |
| astronomy, 95.80.+p |
| crystallography, 61.68.+n |
| Data management, 07.05.Kf |
| Data visualization, algorithms for, 07.05.Rm |
| D branes, 11.25.Uv |
| Debye temperature, 63.70.+h |
| Debye-Waller factor, 61.05.C-, 63.70.+h |
| Decay |
| baryons, 13.30.-a |
| electromagnetic (particle physics), 13.40.Hq |
| heavy neutrinos, 13.35.Hb |
| intermediate bosons, 13.38.-b |
| isomer, 23.35.+g |
| mesons |
| hadronic, 13.25.-k |
| leptonic and semileptonic, 13.20.-v |
| muons, 13.35.Bv |
| by proton emission, 23.50.+z |
| radiationless (molecules), 33.50.Hv |
| radioactive (see 23) |
| taus, 13.35.Dx |
| Decision theory, 02.50.Le |
| Decoherence |
| Bose-Einstein condensates, 03.75.Gg |
| quantum error correction, 03.67.Pp |
| quantum mechanics, 03.65.Yz |
| Decomposition reactions, 82.30.Lp |
| Deep energy levels, 71.55.-i |
| Deep-level photothermal spectroscopy, 79.10.na |
| Defect levels |
| bulk matter, 71.55.-i |
| surfaces and interfaces, 73.20.Hb |
| Defects, crystal, 61.72.-y |
| absorption spectra, 78.40.-q |
| determination by diffraction and scattering,
61.72.Dd |
| diffusion, 66.30.Lw |
| EPR, 76.30.Mi |
| formation and annealing, 61.72.Cc |
| gettering effect, 61.72.Yx |
| liquid crystals, 61.30.Jf, 61.30.Mp |
| quantum tunneling, 66.35.+a |
| scattering by (electronic transport), 72.10.Fk |
| solid surfaces and interfaces, 68.35.Dv |
| superconductors, 74.62.Dh |
| thin films, 68.55.Ln |
| Deflectors (optical devices), 42.79.Fm |
| Deformation |
| crust and mantle |
| geodesy, 91.10.Kg |
| structural geology, 91.55.Ln |
| effects of materials treatment on, 81.40.Lm |
| high strain zones (structural geology), 91.55.Mb |
| kinematics (rheology), 83.10.Bb |
| material flow, 83.50.-v |
| mathematical aspects, 46.25.Cc |
| mechanical properties of solids, 62.20.F- |
| Degasification (vacuum apparatus), 07.30.Bx |
| Degenerative diseases, 87.19.xr |
| de Haas-van Alphen effect, 71.18.+y |
| Delay equations, in function theory, 02.30.Ks |
| Delocalization (surface electron states), 73.20.Jc |
| Demodulators, 84.30.Qi |
| optical, 42.79.Hp |
| Demographics, 89.65.Cd |
| Demonstration experiments (physics education),
01.50.My |
| Demultiplexers, 42.79.Sz |
| Dendrites, 68.70.+w |
| Dense plasma focus, 52.59.Hq |
| Density |
| changes of, 65.40.De |
| measurement of, 06.30.Dr |
| Density-functional theory |
| atomic and molecular physics, 31.15.E- |
| condensed matter, 71.15.Mb |
| Depolarization (dielectric properties), 77.22.Ej |
| Deposition |
| films and coatings, 81.15.-z |
| integrated circuits, 85.40.Sz |
| Depth profiling, 61.72.S-, 81.70.Jb |
| Desertification, 92.40.Iv |
| Design of experiments (computers), 07.05.Fb |
| Desorption |
| electron-stimulated, 68.43.Rs, 79.20.La |
| field induced, 79.70.+q |
| kinetics of, 68.43.Nr |
| photon-stimulated, 68.43.Tj, 79.20.La |
| thermal, 68.43.Vx |
| Detectors |
| bolometers, 07.57.Kp, 95.55.Rg |
| Cherenkov, 29.40.Ka |
| infrared, 07.57.Kp, 85.25.Pb, 85.60.Gz |
| microwave, 07.57.Kp |
| optical, 42.79.Pw |
| radiation, 29.40.-n |
| radiowave, 07.57.Kp |
| submillimeter wave, 07.57.Kp, 85.25.Pb |
| x-ray, 07.85.Fv |
| Detonation |
| chemical reactions, 82.33.Vx |
| fluid dynamics, 47.40.Rs |
| seismology, 91.30.Rz |
| Deuteron-induced reactions, 25.45.-z |
| Deuterons, 27.10.+h |
| Developmental diseases, 87.19.xt |
| Devonian period, *91.70.ff |
| Diamagnetic resonance, 76.40.+b |
| Diamagnetism, 75.20.-g |
| local moments in compounds, 75.20.Hr |
| in gases, 51.60.+a |
| in metals and alloys, 75.20.En |
| in nonmetals, 75.20.Ck |
| Diamond, 81.05.ug |
| Diamond anvil cells, 07.35.+k |
| Diaphragms, optical, 42.79.Ag |
| Diatomic molecules, electron correlation in,
31.15.vn |
| Dichroism |
| materials, 78.20.Fm |
| molecules, 33.55.+b |
| Dictionaries, 01.30.Kj |
| Dielectric breakdown |
| gases, 51.50.+v |
| insulators, 77.22.Jp |
| Dielectric constant, 78.20.Ci |
| Dielectric devices, 85.50.-n |
| Dielectric function, 77.22.Ch |
| collective excitations, 71.45.Gm |
| Dielectric films, 77.55.-g |
| epitaxial and superlattice films, 77.55.Px |
| high-permittivity gate dielectric films, 77.55.D- |
| for silicon electronics, 77.55.df |
| for nonsilicon electronics, 77.55.dj |
| high permittivity capacitive films, 77.55.F- |
| BaTiO3-based films, 77.55.fe |
| ferroelectric films, excluding BaTiO3, Pb(Zr,Ti)O3, 77.55.fp |
| niobate- and tantalite-based films, 77.55.fj |
| paraelectric films, 77.55.fb |
| Pb(Zr,Ti)O3-based films, 77.55.fg |
| low-permittivity films, 77.55.Bh |
| multiferroic/magnetoelectric films, 77.55.Nv |
| piezoelectric and electrostrictive films, 77.55.H- |
| AlN films, 77.55.hd |
| PZT films, 77.55.hj |
| ZnO films, 77.55.hf |
| pyroelectric films, 77.55.Kt |
| Dielectric loss, 77.22.Gm |
| Dielectric materials, 77.84.-s |
| borides, 77.84.Bw |
| carbides, 77.84.Bw |
| chalcogenides, 77.84.Bw |
| composite materials, 77.84.Lf |
| emulsions, 77.84.Nh |
| KDP- type crystals, 77.84.Fa |
| liquid crystals, 77.84.Nh |
| liquids, 77.84.Nh |
| niobates, 77.84.Ek |
| nitrides, 77.84.Bw |
| organic compounds, 77.84.Jd |
| oxides, 77.84.Bw |
| polymers, 77.84.Jd |
| PZT, 77.84.Cg |
| suspensions, 77.84.Nh |
| tantalates, 77.84.Ek |
| TGS-type crystals, 77.84.Fa |
| titanates, 77.84.Cg |
| in electrochemistry, 82.45.Un |
| thin films, 77.55.-g |
| Dielectric properties |
| of gases, 51.70.+f |
| new topics in, 77.90.+k |
| of plasma, 52.25.Mq |
| related to treatment conditions, 81.40.Tv |
| of solids and liquids, 77.22.-d |
| depolarization, 77.22.Ej |
| dielectric breakdown, 77.22.Jp |
| dielectric function, 77.22.Ch |
| dielectric loss and relaxation, 77.22.Gm |
| permittivity, 77.22.Ch |
| polarization, 77.22.Ej |
| space charge effects, 77.22.Jp |
| of tissues and organs, 87.19.rf |
| Dielectric relaxation, 77.22.Gm |
| Differential equations |
| in mathematical aspects of biological physics,
87.10.Ed |
| numerical approximation and analysis, 02.60.Lj |
| ordinary, 02.30.Hq |
| partial, 02.30.Jr |
| Differential geometry, 02.40.-k |
| Differential overlap method (atomic and molecular
physics), 31.15.bu |
| Differential thermal analysis (DTA), 81.70.Pg |
| Diffraction |
| acoustical, *43.20.Fn, *43.25.Jh |
| ultrasound, *43.35.Bf, *43.35.Cg |
| electron, 61.05.J- |
| neutron, 61.05.fm |
| optical, 42.25.Fx |
| x-ray, 61.05.cp |
| Diffraction gratings |
| holographic, 42.40.Eq |
| optical, 42.79.Dj |
| Diffractometers |
| electron, 07.78.+s |
| x-ray, 07.85.Jy |
| Diffusion |
| of adsorbates, 68.43.Jk |
| in atmosphere, 92.60.hk |
| of biomolecules, 87.15.Vv |
| in chemical reaction kinetics, 82.40.Ck |
| clusters, 36.40.Sx |
| in gases, 51.20.+d |
| of gases in solids, 66.30.je |
| of impurities, 66.30.J- |
| in liquids, 66.10.C- |
| in nanoscale solids, 66.30.Pa |
| neutron, 28.20.Gd |
| nuclear magnetic resonance, 82.56.Lz |
| in ocean, 92.10.Lq |
| of protons in solids, 66.30.jp |
| in quantum solids, 66.30.Ma |
| in solids, 66.30.-h |
| at solid surfaces and interfaces, 68.35.Fx |
| spin, 75.40.Gb |
| turbulent, 47.27.tb |
| of water in solids, 66.30.jj |
| Diffusion-limited aggregation, 61.43.Hv |
| Digital circuits, 84.30.Sk |
| Digital imaging |
| astronomy, 95.75.Tv |
| image processing algorithms, 07.05.Pj |
| Digital radiography, 87.59.bf |
| Diode lasers, 42.55.Px |
| Diode-pumped lasers, 42.55.Xi |
| Diodes |
| high-voltage, 52.59.Mv |
| junction, 85.30.Kk |
| light-emitting, 85.60.Jb |
| plasma, 52.75.Fk |
| Dirac equation, 03.65.Pm |
| nonrelativistic limits in, 31.30.jx |
| Disasters, natural and man-made, 89.60.Gg |
| Discharges, electric, 52.80.-s |
| Disclinations |
| crystals, 61.72.Lk |
| liquid crystals, 61.30.Jf |
| Discriminators, electronic, 84.30.Qi |
| Diseases, 87.19.X- |
| ALS, 87.19.xr |
| Alzheimer's, 87.19.xr |
| bacterial diseases, 87.19.xb |
| cancer, 87.19.xj |
| degenerative diseases, 87.19.xr |
| developmental diseases, 87.19.xt |
| endocrine diseases, 87.19.xv |
| epilepsy, 87.19.xm |
| fungal diseases, 87.19.xg |
| gastrointestinal, 87.19.xu |
| genetic diseases, 87.19.xk |
| immune system diseases, 87.19.xw |
| motor system diseases, 87.19.xe |
| musculoskeletal diseases, 87.19.xn |
| parasitic diseases, 87.19.xe |
| Parkinson's, 87.19.xe |
| prion diseases, 87.19.xh |
| stroke, 87.19.xq |
| viral diseases, 87.19.xd |
| Disk galaxies, 98.52.Nr |
| Dislocations, 61.72.Ff, 61.72.Hh, 61.72.Lk |
| Disorder effects on transition temperature
(superconductivity), 74.62.En |
| Disordered solids |
| absorption and reflection spectra, 78.40.Pg |
| amorphous solids |
| vibrational states in, 63.50.Lm |
| disordered crystalline alloys |
| vibrational states in, 63.50.Gh |
| electrical conductivity, 72.80.Ng |
| glasses |
| vibrational states in, 63.50.Lm |
| infrared and Raman spectra, 78.30.Ly |
| localization in, 71.55.Jv |
| photoemission, 79.60.Ht |
| photoluminescence, 78.55.Qr |
| structure, 61.43.-j |
| superconductivity, 74.81.Bd |
| vibrational states in, 63.50.-x |
| Dispersion hardening, 81.40.Cd |
| Dispersion-reinforced composites, 81.05.Ni |
| Dispersions |
| physical chemistry, 82.70.-y |
| quantum optical phenomena, 42.50.Nn |
| rheology of, 83.80.Hj |
| Displacement measurement, 06.30.Bp |
| Displacive phase transitions, 63.70.+h |
| Display devices |
| electrochemical, 82.47.Tp |
| in general instrumentation, 07.07.Hj |
| optical, 42.79.Kr |
| optoelectronic, 85.60.Pg |
| Dissociation |
| in chemical reactions, 82.30.Lp |
| of biomolecules, 87.15.rs |
| photochemical, 82.50.-m |
| molecular |
| diffuse spectra, 33.80.Gj |
| by electron impact, 34.80.Ht |
| energy of, 33.15.Fm |
| single molecule, 82.37.Np |
| Dissolution |
| in solutions of macromolecules (biomolecules),
87.15.np |
| Distance measurement, 06.30.Bp |
| Distorted-wave approximation (nuclear reactions),
24.10.Eq |
| Distributed-feedback lasers, 42.55.-f |
| Distribution theory, 02.50.Ng |
| Diurnal cycles (oceanography), 92.05.Fg |
| Divertors, 28.52.Lf, 52.55.Rk |
| DNA, 87.14.gk |
| chemical kinetics of, 82.39.Pj, 87.15.R- |
| Domain structures |
| in ferroelectricity and antiferroelectricity,
77.80.Dj |
| in magnetic films, 75.70.Kw |
| in magnetic nanoparticles, 75.75.Fk |
| in magnetization curves and hysteresis, 75.60.Ch |
| magnetization dynamics of, 75.78.Fg |
| Domain walls |
| cosmology, 98.80.Cq |
| field theory, 11.27.+d |
| magnetic properties and materials, 75.60.Ch |
| Doped-insulator lasers, 42.55.Rz |
| Doping |
| effects on transition temperature
(superconductivity), 74.62.Dh |
| germanium and silicon, 61.72.uf |
| III-V and II-VI semiconductors, 61.72.uj |
| integrated-circuit technology, 85.40.Ry |
| profiles, 61.72.U-, 81.70.Jb |
| thin films, 68.55.Ln |
| Doppler effect (atmospheric acoustics), *43.28.Py |
| Doppler imaging in ultrasonography, 87.63.dk |
| Dosimetry/exposure assessment |
| of acoustic and ultrasonic radiation, 87.50.yk |
| of electric and magnetic fields, 87.50.cm |
| electron and positron, 87.53.Bn |
| of ionizing radiations, 87.53.Bn |
| of millimeter and terahertz radiation, 87.50.up |
| neutron and proton, 87.53.Bn |
| in nuclear medicine imaging, 87.57.uq |
| of optical and infrared radiation, 87.50.wj |
| x-rays and gamma rays, 87.53.Bn |
| of radiofrequency and microwave radiation, 87.50.sj |
| Double nuclear magnetic resonance (DNMR) |
| condensed matter, 76.70.Fz |
| molecules, 33.40.+f |
| Drag reduction |
| in flow control, 47.85.lb |
| material behavior (rheology), 83.60.Yz |
| D region, ionosphere, 94.20.de |
| Drell-Yan process, 13.85.Qk |
| Drift waves (plasma), 52.35.Kt |
| Drops, 47.55.D- |
| Drought, 92.40.De |
| Drug delivery (biopropulsion), 47.63.mh |
| Duality, strong interactions, 12.40.Nn |
| Ductility, 62.20.fk |
| Ducts |
| flows in, 47.60.Dx |
| sound propagation in, *43.28.Py, *43.55.Rg |
| Dusty plasmas, 52.27.Lw |
| Dwarf galaxies, 98.52.Wz, 98.56.Wm |
| elliptical, 98.52.Wz |
| Dwarf novae, 97.30.Qt |
| Dwarf planets, 96.30.Iz |
| dwarf planet satellites, 96.30.Ja |
| Dwarf stars, 97.20.-w |
| Dye lasers, 42.55.Mv |
| Dynamical systems |
| linear, 45.30.+s |
| nonlinear, 05.45.-a |
| Dynamic loading, 83.50.-v |
| Dynamic mechanical analysis (rheology), 83.85.Vb |
| Dynamic phases, 03.65.Vf |
| Dynamics |
| of biomolecules, 87.15.H- |
| conformational changes, 87.15.hp |
| of domain structures (magnetization), 75.78.Fg |
| folding dynamics, 87.15.hm |
| intermolecular interactions, 87.15.hg |
| transport dynamics, 87.15.hj |
| ultrafast dynamics, 87.15.ht |
| of magnetic domain structures, 75.78.Fg |
| of magnetic nanoparticles, 75.75.Jn |
| Dynamometers, 07.10.Pz |
| Ear, *43.64.-q, 43.64.+r |
| Early Universe, 98.80.Cq |
| Earth |
| core (tectonophysics), 91.45.Kn |
| crust movement, 91.10.Kg, 91.45.Ga |
| interior structure and properties, 91.35.-x |
| magnetic field, 91.25.-r |
| Earthquakes, *91.30.P-, 91.30.Px |
| forecasting, *91.30.pd |
| magnitudes, *91.30.pc |
| phase transitions, 64.60.av |
| Echelles, 42.79.Dj |
| Eclipses, 95.10.Gi |
| Ecology, 87.23.-n |
| biogeosciences, *91.62.Mn |
| ecohydrology, plant ecology, 92.40.Oj |
| ocean biology, *92.20.jm, *92.20.jp |
| pattern formation in, 87.23.Cc |
| population dynamics, 87.23.Cc |
| Economics |
| business and management, 89.65.Gh |
| economic issues, sustainability, cost trends
(renewable energy), 88.05.Lg |
| Econophysics, 89.65.Gh |
| ECR plasma heating, 52.50.Sw |
| Eddies (turbulent flows) |
| eddy-viscosity closures, 47.27.em |
| large-eddy simulation, 47.27.ep |
| Eddy-current testing, 81.70.Ex |
| Editorial note, 99.10.Np |
| Editorials, 01.30.Ww |
| Education, 01.40.-d |
| Educational aids, 01.50.-i |
| EEG, in neuroscience, 87.19.le |
| Effective mass, 71.18.+y |
| Eikonal approximation, 11.80.Fv |
| Einstein equation, general relativity, 04.20.-q |
| Einstein-Maxwell spacetime, 04.40.Nr |
| Elastic deformation |
| material flow, 83.50.-v |
| material treatment effects, 81.40.Jj |
| mechanical properties of solids, 62.20.F- |
| Elasticity |
| in continuum mechanics of solids, 46.25.-y, 46.35.+z |
| mechanical properties of solids, 62.20.D- |
| rocks and minerals, 91.60.Ba |
| static, 46.25.-y |
| superconductors, 74.25.Ld |
| theory in biological physics, 87.10.Pq |
| Elastic moduli, 62.20.de |
| Elastic scattering |
| of atoms and molecules, 34.50.Cx |
| deuteron-induced reactions, 25.45.De |
| of electrons by atoms and molecules, 34.80.Bm |
| hadron-induced, 13.85.Dz |
| heavy-ion reactions, 25.70.Bc |
| lepton-induced reactions, 25.30.Bf |
| meson-induced reactions, 25.80.Dj |
| nucleon-induced reactions, 25.40.Cm, 25.40.Dn |
| of photons and leptons by hadrons, 13.60.Fz |
| reactions induced by unstable nuclei, 25.60.Bx |
| triton-,3He-, and 4He-induced reactions, 25.55.Ci |
| Elastic structures, acoustic scattering by,
*43.40.Fz |
| Elastic waves |
| linear acoustics, *43.20.Gp, *43.20.Jr |
| rheology, 83.60.Uv |
| solids, 62.30.+d |
| Elastomeric polymers, 83.80.Va |
| Elastomers |
| rheology, 83.80.Va, 83.80.Wx |
| structure, 61.41.+e |
| Elasto-optical effects, 78.20.H-, 78.20.hb |
| Electrets, 77.22.-d |
| Electrical conductivity |
| Earth, 91.25.Qi |
| materials treatment effects on, 81.40.Rs |
| metals and alloys |
| amorphous and liquid, 72.15.Cz |
| crystalline, 72.15.Eb |
| semiconductors and insulators, 72.20.-i |
| mixed conductivity, 72.60.+g |
| specific materials, 72.80.-r |
| superconductors, 74.25.fc |
| surfaces, 73.25.+i |
| thin films, 73.50.-h |
| specific materials, 73.61.-r |
| EELS (electron energy loss spectroscopy), 79.20.Uv |
| Electrical impedance tomography, 87.63.Pn |
| Electrical instruments, 07.50.-e |
| Electrical noise, 07.50.Hp |
| Electrical phenomena in gases, 51.50.+v |
| Electrical sensors, 07.07.Df |
| Electrical shielding, 07.50.Hp |
| Electric breakdown, 51.50.+v, 52.80.-s, 77.22.Jp |
| Electric charge, 41.20.Cv, 84.37.+q |
| Electric current measurement, 84.37.+q |
| Electric discharges, 52.80.-s |
| Electric fields |
| effects on biological systems, 87.50.C- |
| effects on liquid crystal structure, 61.30.Gd |
| effects on material flows, 83.60.Np |
| electromagnetism, 41.20.-q |
| galactic, 98.62.En |
| instrumentation for measurement, 07.50.-e |
| in ionosphere, 94.20.Ss |
| in magnetosphere, 94.30.Kq |
| measurement, 84.37.+q |
| Milky Way, 98.35.Eg |
| solar, 96.60.Hv |
| stellar, 97.10.Ld |
| therapeutic applications, 87.50.ct |
| Electric impedance measurement, 84.37.+q |
| Electric moments |
| atomic, 32.10.Dk |
| hadronic, 13.40.Em |
| molecular, 33.15.Kr |
| nuclear, 21.10.Ky |
| Electric motors, 84.50.+d |
| Electric power transmission, 88.80.H- |
| ac power transmission, 88.80.hm |
| grid-connected energy resources, 88.80.Cd |
| high-current, and high voltage (electrical
engineering), 84.70.+p |
| high-voltage dc transmission, 88.80.hj |
| rf power transmission, 88.80.hp |
| superconducting cables |
| in renewable energy technology, 88.80.hr |
| in electrical engineering, 84.71.Fk |
| superconducting wires and tapes (electrical
engineering), 84.71.Mn |
| transmission grids, 88.80.hh |
| wireless transmission, 88.80.ht |
| Electroacoustic transducers, *43.38.Bs, 43.38.Dv,
43.38.Fx |
| Electroanalytical chemistry, 82.45.Rr |
| Electrocaloric effects, 77.70.+a |
| Electrochemical analysis, 82.80.Fk |
| Electrochemical capacitors, 82.47.Uv |
| Electrochemical displays, 82.47.Tp |
| Electrochemical energy conversion, 82.47.-a |
| Electrochemical engineering, 82.47.Wx |
| Electrochemical sensors, 82.47.Rs |
| Electrochemical synthesis, 82.45.Aa |
| Electrochemical techniques in biophysics, 87.80.Kc |
| Electrochemistry, 82.45.-h |
| applied, 82.47.-a |
| bioelectrochemistry, 82.45.Tv, 87.15.Tt |
| Electrochromic devices, 85.60.Pg |
| Electrochromism, 78.20.Jq |
| Electrodeposition |
| electrochemistry of, 82.45.Qr |
| methods of film deposition, 81.15.Pq |
| Electrodes (electrochemistry), 82.45.Fk |
| Electrodissolution, 82.45.Qr |
| Electrodynamics |
| classical, 03.50.De |
| quantum, 12.20.-m |
| Electroelasticity, 46.25.Hf |
| Electrogasdynamic energy conversion, 84.60.Rb |
| Electrohydrodynamics, 47.65.-d |
| Electrokinetic effects (complex fluids), 47.57.jd |
| Electroluminescence, 78.60.Fi |
| Electrolysis, 82.45.Hk |
| Electrolytes |
| electrochemistry, 82.45.Gj |
| structure of, 61.20.Qg |
| Electromagnetic decay, 13.40.Hq |
| Electromagnetic fields, 03.50.De, 41.20.-q |
| Electromagnetic induction (geoelectricity), 91.25.Qi |
| Electromagnetic interactions, 13.40.-f |
| electroweak, 12.15.-y |
| unified field theories, 12.10.-g |
| Electromagnetic mass differences, 13.40.Dk |
| Electromagnetic moments, nuclear, 21.10.Ky |
| Electromagnetic quantities, 06.30.Ka |
| Electromagnetic radiation |
| interaction with plasma, 52.40.Db |
| from moving charges, 41.60.-m |
| solar, *96.60.T-, 96.60.Tf |
| wave propagation, 41.20.Jb |
| Electromagnetic testing, 81.70.Ex |
| Electromagnetic transitions |
| nuclear |
| angular distribution, 23.20.En |
| correlation measurement, 23.20.En |
| internal conversion, 23.20.Nx |
| internal pair production, 23.20.Ra |
| level energies, 23.20.Lv |
| Electromagnetic waves |
| atmospheric optics, 42.68.Ay |
| atmospheric propagation, 92.60.Ta |
| ionospheric propagation, 94.20.Bb, 94.20.ws |
| magnetospheric propagation, 94.30.Tz |
| microwaves, 84.40.-x |
| in plasma, 52.35.Hr |
| radiowaves, 41.20.Jb, 84.40.-x |
| wave optics, 42.25.Bs |
| Electromagnetism. See 41 |
| Electromechanical effects, 77.65.-j |
| acousto-electric effects, 77.65.Dq |
| electromechanical resonance, 77.65.Fs |
| electrostrictive constants, 77.65.Bn |
| strain-induced electromechanical effects, 77.65.Ly |
| Electrometers, 07.50.Ls |
| Electromigration, 66.30.Qa |
| Electron affinity |
| atoms, 32.10.Hq |
| molecules, 33.15.Ry |
| Electron-atom collisions |
| elastic scattering, 34.80.Bm |
| excitation and ionization, 34.80.Dp |
| Electron attachment, 34.80.Ht, 34.80.Lx |
| Electron beam annealing, 81.40.Ef |
| Electron beam-assisted deposition, 81.15.Jj |
| Electron beam induced current (EBIC), 68.37.Hk |
| Electron beam lithography, 85.40.Hp |
| Electron beam radiation effects, 61.80.Fe |
| Electron beams |
| in medicine |
| dosimetry of, 87.53.Bn |
| nonrelativistic, 41.75.Fr |
| in particle accelerators, 29.27.-a |
| polarized (atomic and molecular scattering),
34.80.Nz |
| in radiation therapy |
| safety of, 87.55.N- |
| relativistic, 41.75.Ht |
| Electron capture (nuclear physics), 23.40.-s |
| Electron correlation calculations, 31.15.V- |
| Electron-cyclotron waves (plasma), 52.35.Hr,
52.35.Qz |
| Electron density of states |
| crystalline solids, 71.20.-b |
| disordered solids, 71.23.-k |
| surfaces and interfaces, 73.20.-r |
| Electron diffraction |
| in biophysics, 87.64.Bx |
| in structure determination, 61.05.J- |
| Electron diffractometers, 07.78.+s |
| Electron doped materials (cuprate superconductors),
74.72.Ek |
| Electron dosimetry, 87.53.Bn |
| Electron double resonance (ELDOR) |
| condensed matter, 76.70.Dx |
| molecules, 33.40.+f |
| Electron emission |
| Auger emission, 79.20.Fv |
| exoelectron emission, 79.75.+g |
| field emission, 79.70.+q |
| new topics in, 79.90.+b |
| photoemission, 79.60.-i |
| from adsorbed layers, 79.60.Dp |
| from disordered structures, 79.60.Ht |
| from insulators, 79.60.Bm |
| from interfaces, 79.60.Jv |
| from liquids, 79.60.Cn |
| from metals, 79.60.Bm |
| from nanostructures, 79.60.Jv |
| from polymers, 79.60.Fr |
| from semiconductors, 79.60.Bm |
| secondary emission, 79.20.Hx |
| thermionic emission, 79.40.+z |
| Electron energy loss spectroscopy (EELS), 79.20.Uv |
| Electron gas |
| quantum statistical mechanics, 05.30.Fk |
| theories and models, 71.10.Ca |
| two-dimensional, 73.20.-r |
| Electron-hadron scattering, 13.60.-r |
| Electron-hole drops and plasma, 71.35.Ee |
| Electron holography |
| in structure determination, 61.05.jp |
| Electronic circuits, 07.50.Ek, 84.30.-r |
| microelectronics, 85.40.-e |
| microwave, 84.40.Dc |
| integrated, 84.40.Lj |
| passive components of, 84.32.-y |
| Electronic excitation and ionization |
| atomic collisions, 34.50.Fa |
| molecular collisions, 34.50.Gb |
| Electronic publications, 01.30.Xx |
| Electronic publishing, 01.20.+x |
| Electronic structure |
| atomic and molecular clusters, 36.40.Cg |
| atoms, and molecules |
| calculations of, 31.15.-p |
| ab initio calculations, 31.15.A- |
| alternative approaches to, 31.15.X- |
| approximate calculations for, 31.15.B- |
| density-functional theory, 31.15.E- |
| electron correlation calculations, 31.15.V- |
| corrections to, 31.30.-i |
| interaction effects on, 31.70.-f |
| of magnetic nanoparticles, 75.75.Lf |
| theory of, 31.10.+z |
| biomolecules, 87.10.-e |
| condensed matter |
| calculation methods, 71.15.-m |
| crystalline solids, 71.20.-b |
| disordered solids, 71.23.-k |
| graphene, 73.22.Pr |
| liquid metals and semiconductors, 71.22.+i |
| nanoscale materials, 73.22.-f |
| calculations in superconductivity, 74.20.Pq |
| theories and models of, 71.10.-w |
| macromolecules and polymer molecules, 36.20.Kd |
| properties of superconductors, 74.25.Jb |
| surfaces, interfaces, and thin films (see 73) |
| Electronic transport |
| bulk matter (see transport processes) |
| graphene, 72.80.Vp |
| interface structures, 73.40.-c |
| nanoscale materials, 73.63.-b |
| thin films, 73.50.-h, 73.61.-r |
| Electron-induced nuclear reactions, 25.30.-c |
| Electron-ion scattering |
| excitation and ionization, 34.80.-i |
| recombination and electron attachment, 34.80.Lx |
| Electron microscopes, 07.78.+s |
| Electron microscopy |
| in biophysics, 87.64.Ee |
| in observations of crystal defects, 61.72.Ff |
| in structure determination, 68.37.-d |
| Electron-molecule collisions |
| dissociation, 34.80.Ht |
| elastic scattering, 34.80.Bm |
| excitation and ionization, 34.80.Gs |
| Electron optics, 41.85.-p |
| Electron paramagnetic resonance (EPR) |
| in biophysics, 87.64.kh, 87.80.Lg |
| in condensed matter, 76.30.-v |
| in defect structure determination, 61.72.Hh |
| of molecules, 33.35.+r |
| Electron phase diagrams, 71.10.Hf |
| Electron-phonon interactions |
| electronic structure of solids, 71.38.-k |
| electronic transport, 72.10.Di |
| lattice dynamics, 63.20.kd |
| Electron-positron collisions, hadron production by,
13.66.Bc |
| Electron-positron plasmas, 52.27.Ep |
| Electron probe analysis, 81.70.Jb |
| Electrons, properties of, 14.60.Cd |
| Electron scattering |
| in atomic and molecular collisions |
| elastic scattering, 34.80.Bm |
| inelastic scattering, 34.80.Dp, 34.80.Gs, 34.80.Ht |
| in nuclear reactions |
| elastic, 25.30.Bf |
| inelastic, 25.30.Dh, 25.30.Fj |
| spin arrangement determination by, 75.25.-j |
| from surfaces, 68.49.Jk |
| Electron solids, 73.20.Qt |
| Electron sources, 07.77.Ka |
| in nuclear physics, 29.25.Bx |
| Electron spectrometers, 07.81.+a |
| Electron spectroscopy |
| in biophysics, 87.64.ks |
| chemical analysis, 82.80.Pv |
| nuclear and particle physics, 29.30.Dn |
| Electron spin resonance (ESR) |
| in biophysics, 87.64.kh, 87.80.Lg |
| in condensed matter, 76.30.-v |
| in defect structure determination, 61.72.Hh |
| of molecules, 33.35.+r |
| Electron stimulated desorption, 68.43.Rs, 79.20.La |
| Electron tubes, 84.47.+w |
| Electro-optical effects |
| condensed matter, 78.20.Jq |
| molecules, 33.57.+c |
| Electro-osmosis, in biological systems, 82.39.Wj |
| Electrophoresis |
| biomolecule, 82.45.Tv, 87.15.Tt |
| electrochemistry, 82.45.-h |
| Electrophotography, 07.68.+m |
| Electrophysiology |
| auditory system, *43.64.Nf, 87.19.lt |
| in biomedical engineering |
| neural prosthetics, 87.85.E- |
| charge injection in, 87.85.ej |
| electrode stimulation in, 87.85.eg |
| smart prosthetics, 87.85.F- |
| feedback in, 87.85.ff |
| feedforward in, 87.85.fh |
| dielectric properties of tissues, 87.19.rf |
| electrical properties of tissues, 87.19.R- |
| electric field effects on biological systems,
87.50.C- |
| in neuroscience |
| action potential propagation (axons), 87.19.lb |
| EEG and MEG, 87.19.le |
| electrodynamics in the nervous system, 87.19.ld |
| sensory systems, 87.19.lt |
| synapses, 87.19.lg |
| Electroplating, 81.15.Pq |
| Electroproduction (nuclear reactions), 25.30.Rw |
| Electrorheological fluids, 47.65.Gx, 83.80.Gv |
| Electrostatic accelerators, 29.20.Ba |
| Electrostatic lenses, 41.85.Ne |
| Electrostatics, 41.20.Cv |
| Electrostatic waves and oscillations |
| plasma waves, 52.35.Fp |
| Electrostriction, 77.65.-j |
| Electrostrictive constants, 77.65.Bn |
| Electrostrictive films, 77.55.H- |
| Electroweak interactions, 12.15.-y |
| extensions of gauge sector, 12.60.Cn |
| extensions of Higgs sector, 12.60.Fr |
| nuclear tests of electroweak models, 24.80.+y |
| in unified field theories, 12.10.Dm |
| Elemental abundances |
| in stars, 97.10.Tk |
| in Universe, 98.80.Ft |
| Elementary particles. See 10 |
| in astrophysics, 95.30.Cq |
| Ellipsometers, 07.60.Fs |
| Elliptical galaxies, 98.52.Eh, 98.56.Ew |
| El Nino Southern Oscillation |
| oceanography, 92.10.am |
| paleoceanography, *92.30.La |
| Embrittlement, 81.40.Np |
| EMC effect (muon scattering), 25.30.Mr |
| Emission spectra |
| atoms, 32.30.-r, 32.50.+d |
| of biomolecules, 87.15.mq |
| condensed matter, 78.55.-m, 78.60.-b |
| molecules, 33.20.-t, 33.50.-j |
| Emissions trading, 88.05.Pq |
| Emissivity (optical constants), 78.20.Ci |
| Empirical methods (atomic physics), 31.15.bu |
| Emulsions, 82.70.Kj |
| complex fluids, 47.57.Bc |
| dielectric properties, 77.84.Nh |
| nuclear, 29.40.Rg |
| photographic, 07.68.+m |
| rheological properties, 83.80.Iz |
| Encoding and decoding in neuroscience, 87.19.ls |
| ENDOR |
| condensed matter, 76.70.Dx |
| molecules, 33.40.+f |
| Energy analysis (renewable energy resources) |
| economic issues, 88.05.Lg |
| emissions trading, 88.05.Pq |
| energy conservation, 88.05.Gh |
| energy efficiency, 88.05.Bc |
| energy use |
| in agriculture, 88.05.Qr |
| in appliances, 88.05.Rt |
| in heating and cooling of buildings, 88.05.Sv |
| in lighting, 88.05.Tg |
| in manufacturing, 88.05.Vx |
| in transportation, 88.05.Xj |
| environmental aspects, 88.05.Np |
| life cycle analysis, 88.05.Hj |
| policy issues, 88.05.Jk |
| renewables energy targets, 88.05.Ec |
| thermodynamic considerations, 88.05.De |
| Energy conservation |
| in classical mechanics, 45.20.dh |
| in renewable energy, 88.05.Gh |
| Energy conversion, 84.60.-h |
| electrochemical, 82.47.-a |
| electrogasdynamic conversion, 84.60.Rb |
| magnetohydrodynamic conversion, 84.60.Lw |
| photoelectric conversion, 84.60.Jt |
| thermionic conversion, 84.60.Ny |
| thermoelectric conversion, 84.60.Rb |
| Energy delivery |
| electric power transmission, 88.80.H- |
| grid-connected distributed energy sources, 88.80.Cd |
| infrastructure, 88.80.Kg |
| Energy extraction from ocean |
| energy from ocean currents, 88.60.nm |
| energy from ocean waves, 88.60.nf |
| in hydrospheric geophysics, 92.05.Jn |
| oceanic geothermal energy, 88.10.cj |
| marine thermal gradients, 88.60.nj |
| ocean thermal energy, 88.60.nr |
| tidal energy, 88.60.nh |
| Energy losses |
| atom and molecule scattering, 34.50.Bw |
| of particles in condensed matter, 61.85.+p |
| Energy storage |
| energy storage systems (electrical engineering),
84.60.Ve |
| storage technologies (renewable energy), 88.80.F- |
| batteries |
| in energy delivery and storage, 88.80.ff |
| lead-acid batteries in advanced vehicles, 88.85.jk |
| lead-acid batteries in applied electrochemistry,
82.47.Cb |
| lithium-ion batteries applied electrochemistry,
82.47.Aa |
| nickel-metal-hydride batteries in advanced vehicles,
88.85.jm |
| nickel-metal-hydride batteries in applied
electrochemistry, 82.47.Cb |
| superconducting magnetic energy storage, 88.80.fj |
| supercapacitors |
| in applied electrochemistry, 82.47.Uv |
| in electrical engineering, 84.60.Ve |
| in energy delivery and storage, 88.80.fh |
| in advanced vehicles, 88.85.jp |
| vehicle energy storage, 88.85.J- |
| Energy transfer |
| intramolecular, 33.15.Hp |
| rotational and vibrational, 34.50.Ez |
| state-to-state (chemical reactions), 82.20.Rp |
| Engineering, 89.20.Kk |
| biomedical, 87.85.-d |
| electrochemical, 82.47.Wx |
| nuclear (see nuclear engineering) |
| Ensemble theory |
| classical, 05.20.Gg |
| quantum, 05.30.Ch |
| Entanglement and quantum nonlocality, 03.65.Ud |
| in Bose-Einstein condensation, 03.75.Gg |
| in nonlinear optics, 42.65.Lm |
| in quantum information, 03.67.Bg, 03.67.Mn |
| Enthalpy |
| condensed matter, 65.40.G- |
| gases, 51.30.+i |
| physical chemistry, 82.60.-s |
| thermodynamics, 05.70.Ce |
| Entropy |
| condensed matter, 65.40.gd |
| in information theory, 89.70.Cf |
| thermodynamics, 05.70.-a |
| Environmental effects |
| on instruments, 07.89.+b |
| of natural and man-made disasters, 89.60.Gg |
| Environmental impacts |
| air quality, 92.60.Sz |
| ground water quality, *92.40.kc |
| nuclear power |
| radioactive wastes, waste disposal, 28.41.Kw |
| renewable energy resources, 88.05.Np |
| surface water quality, *92.40.qc |
| Environmental magnetism, 91.25.fd |
| Environmental pollution |
| air pollution, 92.60.Sz |
| instruments for, 07.88.+y |
| land pollution, soil pollution, *91.62.Rt |
| water pollution, *92.40.kc, *92.40.qc |
| Environmental regulations, 89.60.Fe |
| Environmental safety, 89.60.Ec |
| Enzymatic catalysis, 87.15.R- |
| Enzymes, 87.14.ej |
| Ephemerides, 95.10.Km |
| Epilepsy, 87.19.xm |
| Epitaxial dielectric films, 77.55.Px |
| Epitaxy |
| molecular beam epitaxy, 81.15.Hi |
| liquid phase epitaxy, 81.15.Lm |
| solid phase epitaxy, 81.15.Np |
| vapor phase epitaxy, 81.15.Kk |
| Epoxy resins, 83.80.-k |
| EPR paradox, 03.65.Ud |
| Equations of state |
| gases, 51.30.+i |
| general theory, 05.70.Ce, 64.10.+h |
| of metals and alloys, 64.30.Ef |
| of nonmetals, 64.30.Jk |
| nuclear matter, 21.65.Mn |
| rock formation, 91.60.Fe |
| Equatorial ionosphere, 94.20.dt |
| Equilibrium constants, 82.60.Hc |
| E region, ionosphere, 94.20.dg |
| Erosion (hydrology), 92.40.Gc |
| Errata, 99.10.Cd |
| Error theory, 06.20.Dk |
| Eruptions, volcanic, 91.40.Ft |
| ESCA, 82.80.Pv |
| Estuarine oceanography, 92.10.Sx |
| Etalons, 42.79.Bh |
| Etching, 81.65.Cf |
| Etch pits, 61.72.Ff |
| Ethanol (from biomass), 88.20.ff |
| from biomass, 88.20.ff |
| fuel for advanced vehicles, 88.85.mj |
| Euclidean field theory, 11.10.Cd |
| Euclidean geometries, 02.40.Dr |
| Europa, 96.30.ld |
| Europe, 93.30.Ge |
| Eutectic structure, 81.30.-t |
| Evaporation, 64.70.fm |
| of black holes, 04.70.Dy |
| field-induced, 79.70.+q |
| of liquids, 68.03.Fg |
| meteorology, *92.60.jc |
| water in atmosphere, *92.60.J-, 92.60.Jq |
| Evapotranspiration (hydrology), 92.40.Je |
| Evolution, 87.23.-n |
| in biology, 87.23.Kg |
| comets, 96.25.Bd |
| external galaxies, 98.62.Ai |
| Milky Way, 98.35.Ac |
| Moon, 96.20.Br |
| planets, 96.12.Bc, 96.15.Bc |
| stellar, 97.10.Cv |
| Evolutionary geobiology (biogeosciences), *91.62.Np |
| EXAFS |
| in biophysics, 87.64.kd |
| in structure determination, 61.05.cj |
| Exchange interactions |
| energy-level splitting, 71.70.Gm |
| magnetically ordered materials, 75.30.Et |
| Exchange reactions, chemical, 82.30.Hk |
| Excimer lasers, 42.55.Lt |
| Excited states |
| atomic and molecular, 31.50.Df |
| electron correlation in, 31.15.vj |
| Rydberg states |
| atoms, 32.80.Rm |
| magnetic trapping of, 32.10.Ee |
| molecules, 33.80.Rv |
| solids |
| electronic structure calculations, 71.15.Qe |
| model systems, 71.10.Li |
| Excitons, 71.35.-y |
| Exoelectron emission, 79.75.+g |
| Exosphere, 92.60.ha |
| Exotic atoms and molecules, 36.10.-k |
| Exotic baryons, 14.20.Pt |
| Exotic mesons, 14.40.Rt |
| Exploding wires, 52.80.Qj |
| Exploration |
| of continental structures, 93.85.De |
| geophysical methods of |
| downhole methods, 93.85.Fg |
| gravity methods, 93.85.Hj |
| radioactivity methods, 93.85.Np |
| seismic methods, 93.85.Rt |
| of oceanic structures, 93.85.Ly |
| Explosions |
| chemical reactions, 82.33.Vx |
| compressible flows, 47.40.Rs |
| electric discharges, 52.80.Qj |
| nuclear, 28.70.+y |
| seismology, 91.30.Rz |
| underwater, *43.30.Lz |
| Extensional flows |
| deformation, 83.50.Jf |
| measurement of, 83.85.Rx |
| Extinction coefficients, optical, 78.20.Ci |
| Extranuclear effects, 23.20.Nx |
| Extrasolar planets, 97.82.-j |
| Extrudate swell, 83.60.Jk |
| Extrusion, 81.20.Hy |
| Eye, 42.66.-p |
| Fabry-Perot interferometer, 07.60.Ly |
| Factorization (quark models), 12.39.St |
| Faddeev equation, 11.80.Jy |
| Failure |
| integrated circuits, 85.40.Qx |
| materials, 81.40.Np |
| mechanical properties, 62.20.M- |
| Familons, 14.80.Va |
| Faraday cups, 41.85.Qg |
| Faraday effect, 33.57.+c, 78.20.Ls |
| Fatigue |
| effects of materials treatment, 81.40.Np |
| structural mechanics, 46.50.+a |
| structural failure of materials, 62.20.me |
| Faults, plate tectonics, 91.55.Jk |
| Femtochemistry |
| coherent spectroscopy of atoms and molecules,
82.53.Kp |
| femtosecond probing |
| of adsorbed molecules, 82.53.St |
| of biological molecules, 82.53.Ps |
| of molecules in liquids, 82.53.Uv |
| of molecules in solids, 82.53.Xa |
| of semiconductor nanostructures, 82.53.Mj |
| pump probe studies |
| bound states, 82.53.Hn |
| photodissociation, 82.53.Eb |
| Femtosecond techniques, 06.60.Jn |
| femtochemistry, 82.53.-k |
| in nonlinear optics, 42.65.Re |
| in spectroscopy of solid state dynamics, 78.47.J- |
| Fermi-Dirac statistics, 05.30.-d |
| Fermi gas, 71.10.Ca |
| degenerate, 03.75.Ss |
| Fermi liquid |
| nonconventional mechanisms of superconductivity,
74.20.Mn |
| theory of, 71.10.Ay |
| Fermion degeneracy |
| in quantum fluids, 67.10.Db |
| Fermions |
| composite, 71.10.Pm |
| systems (quantum statistical mechanics), 05.30.Fk |
| Fermi surfaces, 71.18.+y |
| Ferrimagnetic resonance, 76.50.+g |
| Ferrimagnetics, 75.50.Gg |
| Ferrite devices, 85.70.Ge |
| Ferrites, 75.50.Gg |
| Ferroelasticity, 62.20.D- |
| Ferroelectric devices, 85.50.-n |
| ferroelectric memories, 85.50.Gk |
| Ferroelectricity, 77.80.-e |
| domain structure, 77.80.Dj |
| phase transitions, 77.80.B- |
| switching phenomena, 77.80.Fm |
| Ferroelectric materials, 77.84.-s |
| relaxor ferroelectrics, 77.80.Jk |
| Ferroelectric phase transitions, 77.80.B- |
| effects of material composition, 77.80.bg |
| interface effects, 77.80.bn |
| scaling effects, 77.80.bj |
| strain effects, 77.80.bn |
| Ferrofluids (magnetohydrodynamics), 47.65.Cb |
| Ferromagnetic materials |
| iron and its alloys, 75.50.Bb |
| metals other than iron, 75.50.Cc |
| nonmetals, 75.50.Dd |
| Ferromagnetic resonance, 76.50.+g |
| Few-body systems |
| atomic systems, calculations for, 31.15.ac |
| classical mechanics, 45.50.Jf |
| nuclear structure, 21.45.-v |
| Fiber gyros, 42.81.Pa |
| Fiber lasers, 42.55.Wd |
| Fiber-optic instruments, 07.60.Vg |
| Fiber optics, 42.81.-i |
| Fiber-optic sensors, 42.81.Pa |
| Fiber-reinforced composites, 81.05.Ni |
| Fibers, synthetic and natural, 81.05.Lg |
| Fibrils, 87.14.em |
| Field desorption, 79.70.+q |
| Field effect transistors, 85.30.Tv |
| spin polarized, 85.75.Hh |
| Field emission, 79.70.+q |
| Field-emission displays, 85.45.Fd |
| Field-emission microscopy, 68.37.Vj |
| Field emitters and arrays, 85.45.Db |
| Field ionization, 79.70.+q |
| Field-ion microscopy, 68.37.Vj |
| Field theory, 11.10.-z |
| classical, 03.50.-z |
| gauge, 11.15.-q |
| noncommutative, 11.10.Nx |
| quantized fields, 03.70.+k |
| unified, 04.50.-h, 12.10.-g |
| Figure of merit (energy conversion), 84.60.Bk |
| Filamentation, in plasma, 52.38.Hb |
| Filaments |
| in subcellular structure and processes, 87.16.Ka |
| Film deposition |
| chemical vapor deposition, 81.15.Gh |
| electron beam-assisted deposition, 81.15.Jj |
| electron beam deposition, 81.15.Dj |
| electrodeposition, 81.15.Pq |
| epitaxy |
| molecular beam epitaxy, 81.15.Hi |
| liquid phase epitaxy, 81.15.Lm |
| solid phase epitaxy, 81.15.Np |
| vapor phase epitaxy, 81.15.Kk |
| hot filament evaporation deposition, 81.15.Dj |
| ion beam-assisted deposition, 81.15.Jj |
| laser ablation deposition, 81.15.Fg |
| spray coating, 81.15.Rs |
| sputtering deposition, 81.15.Cd |
| theory and models of, 81.15.Aa |
| Films |
| dielectric, 77.55.-g |
| electrical properties of, 73.61.-r |
| electronic transport in, 73.50.-h |
| graphene, 68.65.Pq |
| growth, deposition, 81.15.-z |
| Langmuir-Blodgett films, 68.18.-g, 68.47.Pe |
| liquid films, 68.15.+e |
| magnetic properties of, 75.70.Ak |
| microscopic studies of, 68.37.-d |
| in normal phase 3He, 67.30.ej |
| in normal phase 4He, 67.25.bh |
| optical properties of, 78.20.-e, 78.66.-w |
| physical properties of, 68.60.-p |
| of solid 3He, 67.80.dm |
| of solutions of 3He in liquid 4He, 67.30.hr |
| structure and morphology, 68.55.-a |
| superconducting, 74.78.-w |
| in superfluid phase 3He, 67.30.hr |
| in superfluid phase 4He, 67.25.dp |
| videos (educational aids), 01.50.ff |
| Filters |
| acoustic, *43.58.Kr |
| electronic, 84.30.Vn |
| optical, 42.79.Ci |
| Financial markets, 89.65.Gh |
| Fine structure |
| atoms, 32.10.Fn |
| molecules, 33.15.Pw |
| Finite difference methods, 02.70.Bf |
| in atomic and molecular physics, 31.15.xf |
| in fluid dynamics, 47.11.Bc |
| Finite element analysis, 02.70.Dh |
| in biological physics, 87.10.Kn |
| in fluid dynamics, 47.11.Fg |
| Finite-size systems |
| phase transitions in, 64.60.an |
| Finite volume methods (in fluid dynamics), 47.11.Df |
| Fission-fusion reactions, 25.70.Jj |
| Fission reactions, 25.85.-w |
| Fission reactors |
| design and components, 28.41.-i |
| fuel cycles, 28.41.Vx |
| fuel elements, 28.41.Bm |
| moderators, 28.41.Pa |
| radioactive wastes in, 28.41.Kw |
| reactor cooling, 28.41.Fr |
| reactor safety, 28.41.Te |
| types of, 28.50.-k |
| Flagella, 87.16.Qp |
| Flames |
| reactions in, 82.33.Vx |
| reactive flows, 47.70.Pq |
| Flare stars, 97.30.Nr |
| Flavor symmetries, 11.30.Hv |
| Flight (motor systems), 87.19.lu |
| Floods, 92.40.Qk, *92.40.qp |
| Flow computation, 47.11.-j |
| Flow control, 47.85.L- |
| drag reduction, 47.85.lb |
| flow noise reduction, 47.85.lf |
| Flow imaging (blood flow), MRI, 87.61.Np |
| Flow in quasi-one-dimensional systems, 47.60.-i |
| Flow instabilities |
| general, 47.20.-k |
| interfacial, 47.20.Ma |
| non-Newtonian flows, 47.50.Gj |
| in rheology, 83.60.Wc |
| Flowmeters, 47.80.-v |
| Flow receptivity, 47.20.Pc |
| Flow visualization, 47.80.Jk |
| Fluctuation phenomena |
| biomolecules, 87.15.Ya |
| magnetically ordered materials, 75.30.Mb |
| nuclear reactions, 24.60.Ky |
| plasma, 52.25.Gj |
| quantum optics, 42.50.Lc |
| statistical physics, 05.40.-a |
| in superconductivity, 74.40.-n |
| noise and chaos, 74.40.De |
| nonequilibrium processes, 74.40.Gh |
| quantum critical phenomena, 74.40.Kb |
| valence fluctuations (diamagnetism and
paramagnetism), 75.20.Hr |
| Fluid dynamics. see fluid flow |
| Fluid equation (plasma simulation), 52.65.Kj |
| Fluid flow |
| biological, 47.63.-b |
| compressible, 47.40.-x |
| flow control, 47.85.L- |
| instruments for, 47.80.-v |
| laminar, 47.15.-x |
| low-Reynolds number (creeping), 47.15.G- |
| non-Newtonian, 47.50.-d |
| rarefied gas dynamics, 47.45.-n |
| reactive, radiative and nonequilibrium, 47.70.-n |
| relativistic, 47.75.+f |
| rotational, 47.32.-y |
| through porous media, 47.56.+r |
| Fluidics, 47.85.Np |
| Fluidized beds, 47.55.Lm |
| Fluid mechanics, applied, 47.85.-g |
| Fluid planets |
| atmosphere, *96.15.H-, 96.15.Hy |
| ionosphere, 96.15.Hy, *96.15.hk |
| surfaces, 96.15.Lb |
| Fluids |
| optical properties of, 78.15.+e |
| quantum (see 67) |
| statistical mechanics, 05.20.Jj |
| Fluorescence |
| of atoms, 32.50.+d |
| in biophysics, 87.64.kv |
| in condensed matter, 78.55.-m |
| of molecules, 33.50.Dq |
| x-ray, 78.70.En |
| Fluoroscopy, 87.59.C-, 87.59.cf |
| Flute instability, 52.35.Py |
| Flux-line lattices, 74.25.Uv |
| Flux creep, 74.25.Wx |
| Foams, 82.70.Rr |
| complex fluids, 47.57.Bc |
| rheology, 83.80.Iz |
| Fog |
| atmospheric optics, 42.68.Ge |
| meteorology, *92.60.J-, 92.60.Jq |
| Fokker-Planck equation |
| kinetic theory of gases, 51.10.+y |
| plasma simulation, 52.65.Ff |
| statistical physics, 05.10.Gg |
| Folding |
| structure of biomolecules, 87.15.Cc, 87.15.hm |
| Folds, tectonic, 91.55.Hj |
| Food, rheology of, 83.80.Lz |
| Foodwebs (ocean biology), *92.20.jq |
| Forced convection, 44.27.+g |
| Forces |
| interatomic, 34.20.Cf |
| intermolecular, 34.20.Gj |
| measurement of, 07.10.Pz |
| in Newtonian mechanics, 45.20.da |
| nuclear, 21.30.-x |
| Forensic science, 89.20.Mn |
| forensic acoustics, *43.72.Uv |
| Formation heat, 82.60.Cx |
| Form factors |
| electromagnetic, 13.40.Gp |
| photon-atom interactions, 34.50.-s |
| Forming, 81.20.Hy |
| Fossil fuels, 89.30.A- |
| coal, 89.30.ag |
| oil, 89.30.aj |
| natural gas, 89.30.an |
| petroleum, 89,30.aj |
| Fourier analysis, 02.30.Nw |
| Fourier optics, 42.30.Kq |
| Fourier transform spectra, 33.20.Ea |
| Four-wave mixing, 42.65.Hw |
| Four-wave mixing spectroscopy |
| nonlinear optical spectroscopy, 78.47.nj |
| Fourth generation quarks, 14.65.Jk |
| Fractals |
| fluid dynamics, 47.53.+n |
| nonlinear dynamics, 05.45.Df |
| in phase transitions, 64.60.al |
| structure of disordered solids, 61.43.Hv |
| Fractional quantum Hall effect, 73.43.-f |
| Fractional statistics systems, 05.30.Pr |
| Fracture |
| continuum mechanics of solids, 46.50.+a |
| effects of materials treatments, 81.40.Np |
| nanoscale systems, 62.25.Mn |
| plate tectonics, 91.55.Jk |
| rheology, 83.60.Uv |
| rock mechanics, 91.60.Ba |
| structural failure of materials, 62.20.mm |
| Fragmentation (nuclear reactions), 25.70.Mn,
25.70.Pq |
| Franck-Condon factors, 33.70.Ca |
| Free-electron devices, 52.59.Rz |
| Free-electron lasers, 41.60.Cr |
| Free energy, 05.70.Ce, 51.30.+i, 65.40.G- |
| Free-induction decay (quantum optics), 42.50.Md |
| Free molecular flows, 47.45.Dt |
| Free polarization decay |
| in ultrafast pump/probe spectroscopy, 78.47.js |
| Free radicals |
| chemical reactions, 82.30.Cf |
| EPR of, 76.30.Rn |
| F region, ionosphere, 94.20.dj |
| Frenkel defects, 61.72.jn |
| Frenkel excitons, 71.35.Aa |
| Frequency, measurement of, 06.30.Ft |
| Frequency conversion (nonlinear optics), 42.65.Ky |
| Frequency convertors, optical, 42.79.Nv |
| Frequency standards, 06.20.fb |
| in astronomical instrumentation, 95.55.Sh |
| Fresnel zone plates, 42.79.Ci |
| Friction |
| atomic scale, 68.35.Af |
| internal, 62.40.+i |
| evidence of dislocations, 61.72.Hh |
| materials treatment effects, 81.40.Pq |
| mechanical properties of solids, 62.20.Qp |
| structural mechanics, 46.55.+d |
| Friction force microscopy |
| instrumentation of, 07.79.Sp |
| Fuel |
| for advanced vehicles, 88.85.M- |
| biofuels, 88.20.F- |
| for fission reactors, 28.41.Bm |
| fossil fuels, 89.30.A- |
| coal, 89.30.ag |
| oil, petroleum, 89.30.aj |
| oil prospecting; pipelines, 93.85.Tf |
| natural gas, 89.30.an |
| as fuel for advanced vehicles, 88.85.mf |
| for fusion reactors, 28.52.Cx, 52.57.Kk |
| Fuel cells |
| components, 88.30.J- |
| current converters, 88.30.jr |
| stacks, 88.30.jn |
| fuel processor, 88.30.jp |
| heat recovery system, 88.30.jt |
| component materials, 88.30.M- |
| composite materials, 88.30.mj |
| inorganic proton conductors, 88.30.mg |
| systems, 88.30.G- |
| design and simulation, 88.30.gg |
| types of |
| alkaline fuel cells, 88.30.ph |
| direct methanol fuel cells, 88.30.pf |
| molten carbonate fuel cells |
| in applied electrochemistry, 82.47.Lh |
| in hydrogen energy, 88.30.pm |
| phosphoric acid fuel cells |
| in applied electrochemistry, 82.47.Pm |
| in hydrogen energy, 88.30.pj |
| polymer electrolyte fuel cells (applied
electrochemistry), 82.47.Nj |
| proton exchange membrane fuel cells (PEM) |
| in applied electrochemistry, 82.47.Gh |
| in hydrogen energy, 88.30.pd |
| regenerative fuel cells, 88.30.pp |
| solid oxide fuel cells |
| in applied electrochemistry, 82.47.Ed |
| in hydrogen energy, 88.30.pn |
| Fullerenes |
| absorption and reflection spectra, 78.40.Ri |
| electrical conductivity, 72.80.Rj |
| electronic structure, 71.20.Tx |
| fabrication, 81.05.ub |
| film growth, 68.55.ap |
| infrared and Raman spectra, 78.30.Na |
| structure of, 61.48.-c |
| superconductivity, 74.70.Wz |
| surface structure of, 68.35.bp |
| thin films |
| electrical conductivity, 73.61.Wp |
| optical properties, 78.66.Tr |
| Functional analysis, 02.30.Sa |
| quantum mechanics, 03.65.Db |
| Functional approximation, algorithms for, 02.60.Gf |
| Functional MRI, 87.19.lf, 87.61.Qr |
| Function generators, 84.30.Ng |
| Fundamental constants, 06.20.Jr |
| Fungal diseases, 87.19.xg |
| Furnaces, 07.20.Hy |
| Fuses, 84.32.Vv |
| Fusion |
| 2H-induced, 25.45.-z |
| heavy-ion induced, 25.70.Jj |
| inertial confinement |
| heavy-ion, 52.58.Hm |
| laser, 52.57.-z |
| light-ion, 52.58.Ei |
| magnetic confinement, 52.55.-s |
| unstable-nuclei-induced, 25.60.Pj |
| Fusion-fission reactions, 25.70.Jj |
| Fusion fuels, fast ignition of, 52.57.Kk |
| Fusion products effects, 52.55.Pi |
| Fusion reactors |
| fueling and ignition, 28.52.Cx |
| reactor safety, 28.52.Nh |
| structural materials for, 28.52.Fa |
| Fuzzy logic, 07.05.Mh |
| Galactic center, 98.35.Jk |
| Galactic mass, 98.35.Ce, 98.62.Ck |
| Galactic radioactivity (nuclear astrophysics),
26.30.Jk |
| Galactic winds, 98.35.Nq, 98.62.Nx |
| Galaxies |
| active, 98.54.-h |
| clusters of, 98.65.Cw |
| local group, 98.56.-p |
| normal, 98.52.-b |
| primordial, 98.54.Kt |
| properties of, 98.62.-g |
| protogalaxies, 98.54.Kt |
| Galerkin method, 02.70.Dh |
| Galvanomagnetic effects |
| metals and alloys, 72.15.Gd |
| semiconductors and insulators, 72.20.My |
| thin films, 73.50.Jt |
| Games, physics of, 01.80.+b |
| Game theory, 02.50.Le |
| Gamma-ray detectors, 07.85.Fv, 29.40.-n |
| superconducting, 85.25.Oj |
| Gamma-ray lasers, 42.55.Vc |
| Gamma rays |
| astronomical observations, 95.85.Pw |
| atmospheric emissions, 92.60.hx |
| bursts, 98.70.Rz |
| effects on biological systems, 87.53.-j |
| in laser-plasma interactions, 52.38.Ph |
| in photochemistry, 82.50.Kx |
| radiation damage by, 61.80.Ed |
| Gamma-ray sources, 07.85.-m |
| astronomical, 98.70.Rz |
| Gamma-ray spectroscopy |
| chemical analysis, 82.80.Ej |
| condensed matter, 76.80.+y |
| instrumentation, 07.85.Nc |
| nuclear physics, 29.30.Kv |
| Gamma-ray telescopes, 95.55.Ka |
| Gamma transitions, 23.20.Lv |
| Ganymede, 96.30.lf |
| Garnet devices, 85.70.Ge |
| Garnets (ferrites), 75.50.Gg |
| Gas chromatography, 82.80.Bg |
| Gas dynamic traps (magnetic confinement), 52.55.Jd |
| Gases |
| in chemical oceanography, 92.20.Uv |
| interplanetary, 96.50.Dj |
| rarefied, dynamics of, 47.45.-n |
| ultracold, 67.85.-d |
| Gas-filled counters, 29.40.Cs |
| Gas lasers, 42.55.Lt |
| Gas-liquid flows, 47.55.Ca |
| Gas-liquid interfaces, 68.03.-g |
| Gas sensors, 07.07.Df |
| Gas-surface interactions, 34.35.+a |
| Gauge bosons, 14.70.-e |
| production in electron-positron interactions,
13.66.Fg |
| Gauge field theories, 11.15.-q |
| topologically massive, 11.15.Wx |
| Chern-Simons, 11.15.Yc |
| Gauge sector extensions (electroweak interactions),
12.60.Cn |
| Gauge/string duality, 11.25.Tq |
| Gels |
| aerogels, reactions in, 82.33.Ln |
| as disperse systems, 82.70.Gg |
| microgels, rheology of, 83.80.Kn |
| rheology of, 83.80.Kn |
| thermoreversible gels, 83.80.Kn |
| rheological properties, 83.80.Kn |
| Genealogical trees (complex systems), 89.75.Hc |
| General physics (physics education), 01.55.+b |
| General relativity. See 04 |
| Genetic diseases, 87.19.xk |
| Genetic engineering, 87.85.md |
| Genetic switches |
| in biological complexity, 87.18.Cf |
| Genomics, 87.18.Wd |
| techniques in biotechnology, 87.80.St, 87.85.mg |
| Genomic techniques, 87.80.St |
| Geochemical cycles |
| geochemistry, 91.67.Nc |
| meteorology, 92.60.hn |
| Geochemical processes, *91.67.F-, 91.67.Fx |
| intraplate, *91.67.fh |
| mid-oceanic ridge, *91.67.ff |
| subduction zone, *91.67.fc |
| Geochemistry |
| fluid and melt inclusion, 91.67.St |
| fresh water, 92.40.Bc |
| low-temperature, 91.67.Vf |
| organic and biogenic, 91.67.Uv |
| radiogenic isotopic, 91.67.Qr |
| sedimentary, 91.67.Ty |
| stable isotopic, 91.67.Rx |
| Geochronology, 91.80.+d, *91.80.-d |
| isotopic dating, *91.80.Hj |
| sedimentary, *91.80.Wx |
| sidereal, *91.80.Ef |
| Geodesy, 91.10.-v |
| Geodetic reference systems, 91.10.Ws |
| Geodetic techniques, *91.10.P-, 91.10.Pp |
| Geoelectricity, 91.25.Qi |
| Geographical regions, 93.30.-w |
| Geological materials |
| physical properties, 91.60.-x |
| rheology, 83.80.Nb |
| Geological time, 91.70.-c |
| Geology, 91.65.-n |
| Geomagnetism, 91.25.-r |
| geomagnetic excursion, 91.25.Xg |
| geomagnetic induction, 91.25.Wb |
| magnetic anomalies, 91.25.Rt |
| magnetic fabrics, 91.25.St |
| magnetic field reversals, 91.25.Mf |
| remagnetization, 91.25.Ux |
| spatial variations in, 91.25.G- |
| time variations in, *91.25.L-, 91.25.Le |
| Geometrical methods (classical mechanics), 45.10.Na |
| Geometrical optics, 42.15.-i |
| Geometric inequalities, 02.40.Ft |
| Geometric mechanics, 02.40.Yy |
| Geometric phases (quantum mechanics), 03.65.Vf |
| Geometry |
| algebraic, 02.10.-v |
| differential, 02.40.Hw, 02.40.Ma |
| Euclidean and projective, 02.40.Dr |
| noncommutative, 02.40.Gh |
| Riemannian, 02.40.Ky |
| Geophysical instrumentation, 93.85.-q |
| Geophysical prospecting (acoustical methods),
*43.40.Ph |
| Geophysics. See 91 |
| Geothermal energy |
| brines and their dissolved matter, 88.10.J- |
| combined minerals and metals extraction, 88.10.jp |
| metals extraction, 88.10.jn |
| minerals extraction, 88.10.jj |
| geothermal electricity production, 88.10.H- |
| binary-cycle steam plants, 88.10.hh |
| dry steam plants, 88.10.hd |
| flash steam plants |
| ground heat, 88.10.C- |
| continental geothermal energy, 88.10.ch |
| geothermal heat pumps, 88.10.cd |
| heating and cooling of buildings, 88.10.cn |
| oceanic geothermal energy, 88.10.cj |
| space heating, 88.10.cn |
| terrestrial geothermal flux, 88.10.cf |
| hot dry rock, 88.10.Eb |
| hydrothermal reservoirs, 88.10.F- |
| down hole pumps, 88.10.fh |
| hot springs, 88.10.fb |
| hot water from wells, 88.10.fe |
| igneous systems, 88.10.Eb |
| reservoir engineering, 88.10.G- |
| high-temperature tools, 88.10.gk |
| imaging fluid flow, 88.10.gf |
| prediction models, 88.10.gc |
| rock fracture, 88.10.gn |
| simulation, 88.10.gc |
| site characterization, 88.10.gp |
| Geothermy, 91.35.Dc |
| Germanium, doping and ion implantation of, 61.72.uf |
| Gettering effect |
| crystals, 61.72.Yx |
| surface treatments, 81.65.Tx |
| g factor, 32.10.Fn, 33.15.Pw, 71.18.+y |
| GHZ states, 03.65.Ud |
| Giant magnetoresistance, 75.47.De |
| magnetic memory, 85.75.Bb |
| Giant resonances (nuclear reactions), 24.30.Cz |
| Giant stars, 97.20.Li |
| Ginzburg-Landau theory (superconductivity), 74.20.De |
| Glaciology, *92.40.V-, 92.40.Vq |
| avalanches, snow melt, 92.40.Vq, *92.40.vw |
| ice cores, 92.40.Vq, *92.40.vv |
| Glass-based composites, 81.05.Pj |
| Glasses |
| disordered solids |
| vibrational states in, 63.50.Lm |
| electrical conductivity, 72.80.Ng |
| electronic structure, 71.23.Cq |
| fabrication, 81.05.Kf |
| magnetic materials, 75.50.Lk |
| nonelectronic thermal conduction in, 66.70.Hk |
| optical materials, 42.70.Ce |
| photoluminescence, 78.55.Qr |
| rheology, 83.80.Ab |
| self-diffusion and ionic conduction in, 66.30.hh |
| solid-solid transitions, 72.80.Ng |
| structure, 61.43.Fs |
| surface structure of, 68.35.bj |
| thermal properties, 65.60.+a |
| thin films |
| electrical conductivity, 73.61.Jc |
| optical properties, 78.66.Jg |
| Glass transitions, 64.70.P- |
| in colloids, 64.70.pv |
| in liquid crystals, 64.70.pp |
| in liquids, 64.70.pm |
| in metallic glasses, 64.70.pe |
| in nonmetallic glasses, 64.70.ph |
| in polymers, 64.70.pj |
| theory and modeling of, 64.70.Q- |
| Glauber model, 24.10.Ht |
| Glauber scattering, 11.80.La |
| Glia (in neuroscience), 87.19.lk |
| Global analysis, 02.40.Vh |
| Global change, 92.70.-j |
| cryospheric, 92.70.Ha |
| from geodesy, 91.10.Xa |
| impacts of, 92.70.Mn |
| land cover change, 92.70.St |
| solar variability impact on, 92.70.Qr |
| Global warming, *92.30.Np, 92.70.Mn |
| Globular clusters, 98.20.Gm |
| Glow discharge, 52.80.Hc |
| Glues (bioproduct from biomass), 88.20.rg |
| Gluons |
| in nuclei, 24.85.+p |
| particle properties of, 14.70.Dj |
| Gradient-index (GRIN) devices, 42.79.Ry |
| fiber-optical, 42.81.Ht |
| Grain boundaries, 61.72.Mm |
| Grand unified theories, 12.10.Dm |
| Granular flow |
| classical mechanics of discrete systems, 45.70.Mg |
| complex fluids, 47.57.Gc |
| Granular materials |
| fabrication, 81.05.Rm |
| rheology, 83.80.Fg |
| superconductivity, 74.81.Bd |
| Granular systems, classical mechanics of, 45.70.-n |
| Granular superconductors, 74.81.Bd |
| Graphite, 81.05.uf |
| Graphene |
| electronic structure, 73.22.Pr, |
| electronic transport, 72.80.Vp |
| films, 68.65.Pq |
| material science aspect of, 81.05.ue |
| optical properties, 78.67.Wj |
| phonons in, 63.22.Rc |
| structure, 61.48.Gh |
| thermal properties, 65.80.Ck |
| Graph theory, 02.10.Ox |
| Grasers (gamma-ray lasers), 42.55.Vc |
| Gratings |
| holographic, 42.40.Eq |
| optical elements, 42.79.Dj |
| Gravimeters, 04.80.Nn |
| Gravimetric measurements, 91.10.Pp |
| Gravitation |
| astrophysics, 95.30.Sf |
| general theory of (see 04) |
| Gravitational constant, 04.80.-y, 06.20.Jr, 95.30.Ft |
| Gravitational fields |
| comets, 96.25.Nc |
| fluid planets, 96.15.Ef |
| Moon, 96.20.Jz |
| solid surface planets, 96.12.Fe |
| Gravitational lenses, 95.30.Sf, 98.62.Sb |
| Gravitational waves |
| astronomical observations, 95.85.Sz |
| detectors, 04.80.Nn, 95.55.Ym |
| general relativity, 04.30.-w |
| Gravitons, 14.70.Kv |
| Gravity |
| Earth's, 91.10.-v |
| experimental test of gravitational theories,
04.80.Cc |
| higher-dimensional, 04.50.-h |
| in marine geology, 91.50.Kx |
| modified theories of, 04.50.Kd |
| Moon's, 96.20.Jz |
| quantum, 04.60.-m |
| self-gravitating systems, 04.40.-b |
| supergravity, 04.65.+e |
| time variable, 91.10.Op |
| Gravity waves |
| hydrodynamic waves (fluids), 47.35.Bb |
| meteorology, 92.60.hh |
| Greenhouse effect, 92.70.-j |
| Greenhouse gases, *92.30.Np |
| Greenland, 93.30.Kh |
| GRIN devices, 42.79.Ry, 42.81.Ht |
| Ground water, *92.40.K-, 92.40.Kf |
| aquifers, 92.40.Kf, *92.40.kh |
| Group theory |
| atomic and molecular physics, 31.15.xh |
| mathematics, 02.20.-a |
| nuclear physics, 21.60.Fw |
| quantum mechanics, 03.65.Fd |
| Gunn effect devices, 85.30.Fg |
| Gyrofluid and gyrokinetic plasma simulations,
52.65.Tt |
| Gyrokinetics, in plasmas, 52.30.Gz |
| Gyros, fiber-optical, 42.81.Pa |
| Gyroscope motion, 45.40.Cc |
| Gyrotrons, 84.40.Ik |
| Hadronic decays |
| baryons, 13.30.Eg |
| mesons, 13.25.-k |
| Hadrons |
| interactions induced by |
| high and super-high energy, 13.85.-t |
| low and intermediate energy, 13.75.-n |
| mass models, 12.40.Yx |
| neutrino interactions with, 13.15.+g |
| nuclear forces, 21.30.Fe |
| photon and charged-lepton interactions with,
13.60.-r |
| production by electron-positron collisions, 13.66.Bc |
| properties of |
| baryons, 14.20.-c |
| mesons, 14.40.-n |
| R-hadrons, 14.80.Pq |
| Hall effect |
| quantum, 73.43.-f |
| in semiconductors, 72.20.My |
| in thin films, 73.50.Jt |
| Hall effect devices, 85.30.Fg |
| hybrid, 85.75.Nn |
| Hamiltonian mechanics, 45.20.Jj, 47.10.Df |
| Handbooks, 01.30.Kj |
| Hardening (materials treatments), 81.40.Cd, 81.40.Ef |
| Hardness |
| of solids, 62.20.Qp |
| in structural mechanics, 46.55.+d |
| Harmonic generation (nonlinear optics), 42.65.Ky |
| Harmonic oscillators, 03.65.Ge |
| Hartree-Fock approximation |
| electronic structure of atoms and molecules,
31.15.xr |
| electronic structure of solids, 71.15.Ap |
| nuclear-structure models, 21.60.Jz |
| Hawking effects, 04.60.-m |
| Hazards, natural (biogeosciences), *91.62.Ty |
| Hearing, *43.66.-x, 43.66.+y |
| sensory systems, 87.19.lt |
| Hearing aids, *43.66.Ts |
| Heart, hemodynamics of, 87.19.ug |
| Heat capacity |
| of amorphous solids and glasses, 65.60.+a |
| in chemical thermodynamics, 82.60.Fa |
| of crystalline solids, 65.40.Ba |
| of liquids, 65.20.Jk |
| at magnetic critical points, 75.40.Cx |
| of nanocrystals, 65.80.-g |
| Heat conduction, 44.10.+i |
| Heat engines, 07.20.Pe |
| Heaters, 07.20.Hy |
| Heating |
| buildings |
| energy use in heating/cooling of, 88.05.Sv |
| geothermal, 88.10.cn |
| solar |
| active space/water heating, 88.40.mg |
| heating systems, 88.40.me |
| passive space/water heating, 88.40.mj |
| plasma |
| by dc fields, 52.50.Nr |
| ECR heating, 52.50.Sw |
| ICR heating, 52.50.Qt |
| by laser beams, 52.50.Jm |
| by microwaves, 52.50.Sw |
| by particle beams, 52.50.Gj |
| by rf fields, 52.50.Qt |
| by shock waves, 52.50.Lp |
| Heat pumps |
| geothermal, 88.10.cd |
| thermal instruments, 07.20.Pe |
| Heat transfer |
| analytical and numerical techniques, 44.05.+e |
| boundary layer, 44.20.+b |
| channel and internal, 44.15.+a |
| convective, 44.25.+f, 44.27.+g |
| Earth's interior, 91.35.Dc |
| heat-pulse propagation in solids, 66.70.-f |
| inhomogeneous and porous media, 44.30.+v |
| multiphase systems, 44.35.+c |
| radiative, 44.40.+a |
| in turbulent flows, 47.27.T- |
| Heat treatments, effects on microstructure, 81.40.Gh |
| Heavy-fermion solids |
| diamagnetism and paramagnetism, 75.20.Hr |
| electron states, 71.27.+a |
| magnetically ordered materials, 75.30.Mb |
| noncuprate superconductors, 74.70.Tx |
| Heavy-ion nuclear reactions |
| low and intermediate energy, 25.70.-z |
| relativistic, 25.75.-q |
| Heavy-ion spectroscopy, 29.30.-h |
| Heavy-particle decay, 23.70.+j |
| Heavy-particle dosimetry, 87.53.Bn |
| Heavy quark theory, 12.39.Hg |
| Heavy quarkonia, 14.40.Pq |
| Heinrich events (oceanography), 92.05.Ek |
| Heisenberg model, 75.10.Jm |
| Hele-Shaw flows, 47.15.gp |
| Heliacs, 52.55.Hc |
| Helicity amplitudes, 11.80.Cr |
| Helicity injection (magnetic confinement), 52.55.Wq |
| Heliopause, 96.50.Ek |
| Helioseismology, 96.60.Ly |
| Helium |
| burning in stars, 26.20.Fj |
| liquid mixtures, 67.60.-g |
| solid, 67.80.-s |
| 3He |
| -induced nuclear reactions, 25.55.-e |
| normal phase, 67.30.E- |
| excitations in, 67.30.em |
| films in, 67.30.ej |
| hydrodynamics in, 67.30.eh |
| magnetic properties of, 67.30.er |
| thermodynamic properties, 67.30.ef |
| transport processes in, 67.30.eh |
| solid phase, 67.80.D- |
| superfluid phase, 67.30.H- |
| films in, 67.30.hr |
| hydrodynamics in, 67.30.hb |
| impurities in, 67.30.hm |
| interfaces in, 67.30.hp |
| spin dynamics of, 67.30.hj |
| transport processes in, 67.30.hb |
| vortices in, 67.30.he |
| 4He, 67.25.-k |
| -induced nuclear reactions, 25.55.-e |
| normal phase |
| films in, 67.25.bh |
| hydrodynamics of, 67.25.bf |
| thermodynamic properties, 67.25.bd |
| transport processes in, 67.25.bf |
| solid phase, 67.80.B- |
| superfluid phase, 67.25.D- |
| critical phenomena in, 67.25.dj |
| excitations in, 67.25.dt |
| films in, 67.25.dp |
| hydrodynamics of, 67.25.dg |
| relaxation phenomena, 67.25.du |
| sound in, 67.25.dt |
| thermodynamic properties, 67.25.de |
| vortices in, 67.25.dk |
| superfluid transition in, 67.25.dj |
| supersolid, 67.80.bd |
| Hemodynamics, 87.19.U- |
| biological fluid dynamics, 47.63.-b, 87.85.gf |
| blood-brain barrier, 87.19.um |
| of heart and lungs, 87.19.ug |
| of peripheral vascular system, 87.19.uj |
| physiological materials (rheology), 83.80.Lz |
| Herbig-Haro objects, 97.21.+a |
| Hertzsprung-Russell diagrams, 97.10.Zr |
| Heterostructures |
| electrical properties, 73.40.-c |
| electron states and collective excitations in,
73.21.-b |
| magnetic properties of, 75.70.Cn |
| optical properties, 78.66.-w |
| photoemission and photoelectron spectra, 79.60.Jv |
| structure and nonelectronic properties of, 68.65.-k |
| superconducting, 74.78.Fk |
| H I and H II regions |
| external galaxies, 98.58.Ge, 98.58.Hf |
| Milky Way, 98.38.Gt, 98.38.Hv |
| Higgs bosons |
| charged Higgs bosons, 14.80.Fd |
| neutral Higgs bosons, 14.80.Ec |
| production in electron-positron interactions,
13.66.Fg |
| standard model, 14.80.Bn |
| supersymmetric Higgs bosons, 14.80.Da |
| Higgs sector extensions, 12.60.Fr |
| High-coercivity materials, 75.50.Vv |
| High-current technology, 84.70.+p |
| High-energy reactions, hadron-induced, 13.85.-t |
| High-field effects (conductivity) |
| bulk matter, 72.20.Ht |
| thin films, 73.50.Fq |
| High-frequency discharges, 52.80.Pi |
| High-frequency effects (conductivity) |
| bulk matter, 72.30.+q |
| thin films, 73.50.Mx |
| High-frequency plasma confinement, 52.58.Qv |
| High-pressure effects |
| in solids and liquids, 62.50.-p |
| structural properties of materials, 81.40.Vw |
| High pressure production and techniques, 07.35.+k |
| High resolution transmission electron microscopy
(HRTEM), 68.37.Og |
| High-speed techniques, 06.60.Jn |
| High-Tc superconductors |
| cuprates, 74.72.-h |
| devices, 85.25.-j |
| general properties, 74.25.-q |
| theory of, 74.20.-z |
| transition temperature, 74.10.+v, 74.62.-c |
| High-temperature techniques and instrumentation,
07.20.Ka |
| High-voltage diodes, 52.59.Mv |
| High-voltage technology, 84.70.+p |
| H I shells, 98.58.Nk |
| Histones, 87.16.Sr |
| History of science, 01.65.+g |
| acoustics, *43.10.Mq |
| Hole burning |
| atomic spectra, 32.30.-r |
| condensed matter spectra, 78.40.-q |
| molecular spectra, 33.20.-t |
| Hole burning spectroscopy |
| nonlinear optical spectroscopy, 78.47.nd |
| Hole doped materials (cuprate superconductors),
74.72.Gh |
| Holograms |
| computer generated, 42.40.Jv |
| volume, 42.40.Pa |
| Holographic optical elements, 42.40.Eq |
| Holography |
| acoustical, *43.35.Sx, *43.60.Sx |
| electron, 61.05.jp |
| optical, 42.40.-i |
| recording materials for, 42.70.Ln |
| Hooke's law |
| mechanical properties of solids, 62.20.D- |
| Hopping transport, 72.20.Ee |
| Hormones, 87.14.Lk |
| Hot atom reactions, 82.30.Cf |
| Hot carriers, 72.20.Ht, 73.50.Fq |
| Hot working, 81.40.Gh |
| Hubbard model |
| electronic structure, 71.10.Fd |
| magnetic ordering (quantized spin model), 75.10.Jm |
| superconductivity, 74.20.-z |
| Hubble constant, 98.80.Es |
| Hubble Space Telescope, 95.55.Fw |
| Hückel method (atomic and molecular physics),
31.15.bu |
| Humidity, 92.60.Jq, *92.60.jk |
| Hybrid integrated circuits |
| electronic, 85.40.Xx |
| optical, 42.82.Fv |
| Hydraulic machinery, 47.85.Kn |
| Hydraulics, 47.85.Dh |
| Hydrodynamic instability |
| laser inertial confinement, 52.57.Fg |
| Hydrodynamic models, nuclear reactions, 24.10.Nz |
| Hydrodynamics |
| applied fluid mechanics, 47.85.Dh |
| astrophysical applications, 95.30.Lz |
| fluids, 47.35.-i |
| in normal phase helium-3, 67.30.eh |
| in normal phase helium-4, 67.25.bf |
| in quantum fluids, 67.10.Jn |
| superfluidity, 47.37.+q |
| in superfluid phase helium-3, 67.30.hb |
| in superfluid phase helium-4, 67.25.dg |
| Hydroelasticity, 46.40.Jj |
| Hydroelectric power |
| conventional hydropower, 88.60.J- |
| dams, 88.60.jb |
| diversion facilities, 88.60.je |
| impoundment facilities, 88.60.jb |
| pumped storage facilities, 88.60.jg |
| emerging hydropower technologies, 88.60.N- |
| energy from ocean currents, 88.60.nm |
| energy from ocean waves, 88.60.nf |
| marine thermal gradients, 88.60.nj |
| natural water flow in rivers, 88.60.np |
| ocean thermal energy, 88.60.nr |
| tidal energy, 88.60.nh |
| hydroturbines, 88.60.K- |
| cross-flow turbines, 88.60.kc |
| Francis hydropower turbines, 88.60.kf |
| free-flow turbines, 88.60.kj |
| impulse turbines, 88.60.km |
| Pelton turbines, 88.60.kp |
| propeller turbines, 88.60.kr |
| reaction turbines, 88.60.kt |
| Hydrogen |
| 21-cm lines |
| external galaxies, 98.58.Ge |
| Milky Way, 98.38.Gt |
| burning in stars, 26.20.Cd |
| fuel in advanced vehicles, 88.85.mh |
| fuel from biomass, 88.20.fn |
| isotopes, 67.63.-r, 67.80.F- |
| atomic hydrogen, 67.63.Gh, 67.80.fh |
| molecular hydrogen, 67.63.Cd, 67.80.ff |
| solid, 67.80.F- |
| Hydrogen-antihydrogen quasimolecules, 31.30.jz |
| Hydrogen bonding |
| in biomolecules, 87.15.Fh |
| in chemical reactions, 82.30.Rs |
| in molecules, 33.15.Fm |
| Hydrogen in fuel cell technology |
| corrosion protection (in hydrogen energy systems),
88.30.Nn |
| fuel cells |
| components, 88.30.J- |
| current converters, 88.30.jr |
| stacks, 88.30.jn |
| fuel processor, 88.30.jp |
| heat recovery system, 88.30.jt |
| component materials, 88.30.M- |
| composite materials, 88.30.mj |
| inorganic proton conductors, 88.30.mg |
| systems, 88.30.G- |
| design and simulation, 88.30.gg |
| types of |
| alkaline fuel cells, 88.30.ph |
| direct methanol fuel cells, 88.30.pf |
| molten carbonate fuel cells, 88.30.pm |
| phosphoric acid fuel cells, 88.30.pj |
| proton exchange membrane fuel cells (PEM), 88.30.pd |
| regenerative fuel cells, 88.30.pp |
| solid oxide fuel cells, 88.30.pn |
| hydrogen production, 88.30.E- |
| biological photolytic hydrogen, 88.30.er |
| electrochemical photolytic hydrogen, 88.30.ep |
| electrolytic hydrogen, 88.30.em |
| reforming biomass and wastes, 88.30.et |
| thermochemical hydrogen, 88.30.ej |
| water-gas-shift (WGS) reaction, 88.30.ew |
| hydrogen storage, 88.30.R- |
| carbon nanotubes, 88.30.rh |
| inorganic metal hydrides, 88.30.rd |
| liquid hydrocarbons and alcohols, 88.30.rj |
| organic materials, 88.30.rf |
| Hydrography, 92.10.Yb |
| Hydrology, 92.40.-t |
| Hydromagnetic plasma instability, 52.35.Py |
| Hydrometeorology, 92.40.Zg |
| Hydrophilic effects, 82.70.Uv |
| chemical reactions, 82.30.Rs |
| Hydrophones, *43.38.Pf |
| Hydrosphere |
| chemical composition, *91.67.gh |
| Hydrostatics, 47.85.Dh |
| Hydrothermal systems |
| geochemistry of, 91.67.Jk |
| oceanography, 92.05.Lf |
| volcanology of, 91.40.Ge |
| Hygrometry, 07.07.Vx |
| Hyperfine interactions, 31.30.Gs |
| Hyperfine structure |
| atoms, 32.10.Fn |
| molecules, 33.15.Pw |
| Hypernuclei, 21.80.+a |
| Hyperonic atoms and molecules, 36.10.Gv |
| Hyperon-induced reactions, 25.80.Pw |
| Hyperon-nucleon reactions, 13.75.Ev |
| Hyperons, 14.20.Jn |
| Hypersonic flows, 47.40.Ki |
| Hyperspherical methods (atomic physics), 31.15.xj |
| Hysteresis |
| in ferroelectricity, 77.80.Dj |
| in magnetism, 75.60.-d |
| magnetic annealing, 75.60.Nt |
| magnetization curves, Barkhausen effects, 75.60.Ej |
| Ice |
| atmospheric, 42.68.Ge |
| rheology of, 83.80.Nb |
| sea, 92.10.Rw, *92.40.vx |
| Icebergs, 92.40.Vq, *92.40.vr |
| ICR plasma heating, 52.50.Qt |
| Image convertors, 42.79.Ls |
| Image forming, 42.30.Va |
| atmospheric optics, 42.68.Sq |
| Image intensifiers, 42.79.Ls |
| Image processing |
| algorithms, 07.05.Pj |
| in astronomy, 95.75.Mn |
| flow visualization, 47.80.Jk |
| in medical imaging, 87.57.C-, 87.57.N- |
| in optics, 42.30.-d |
| Image reconstruction |
| in medical imaging, 87.57.nf |
| in optics, 42.30.Wb |
| Imaging detectors |
| in astronomy, 95.55.Aq |
| optical devices, 42.79.Pw |
| Immune system diseases, 87.19.xw |
| Impedance |
| acoustic, *43.20.Rz, *43.28.En |
| measurement of, *43.58.Bh |
| electrical, 84.37.+q |
| Implosions, inertial confinement, 52.57.Fg |
| Impurities |
| absorption spectra of, 78.40.-q |
| in crystals, 61.72.S- |
| impurity concentration, 61.72.sd |
| impurity distribution, 61.72.sh |
| impurity gradients, 61.72.sm |
| impurity implantation, 61.72.U- |
| diffusion of, 66.30.J- |
| effects on superconductivity, 74.62.Dh |
| electronic structure, 71.55.-i |
| at surfaces and interfaces, 73.20.Hb |
| EPR spectra, 76.30.-v |
| implantation, 61.72.uf, 61.72.uj, 61.72.up |
| magnetic, 75.30.Hx |
| in plasma, 52.25.Vy |
| in solid 3He, 67.80.dj |
| in solid surfaces and solid-solid interfaces,
68.35.Dv |
| in superfluid 3He, 67.30.hm |
| in thin films, 68.55.Ln |
| Inclusions, 61.72.Qq |
| Incommensurate solids, 61.44.Fw |
| Indian Ocean, 93.30.Nk |
| INDO calculations, 31.15.bu |
| Inductance measurement, 84.37.+q |
| Inductors, 84.32.Hh |
| Industry |
| energy use in, 88.05.Vx |
| laser applications in, 42.62.Cf |
| material processing flows in, 47.85.M- |
| research and development, 89.20.Bb |
| Inelastic scattering |
| of atoms and molecules, 34.50.-s |
| in deuteron-induced reactions, 25.45.De |
| in hadron-induced reactions, 13.85.-t |
| in lepton-induced reactions, 25.30.-c |
| in meson-induced reactions, 25.80.Ek |
| in nucleon-induced reactions, 25.40.Fq |
| in triton-, 3He-, and 4He-induced reactions, 25.55.Ci |
| Inertial confinement |
| heavy-ion, 52.58.Hm |
| laser, 52.57.-z |
| light-ion, 52.58.Ei |
| Inference methods, 02.50.Tt |
| Inflationary universe, 98.80.Cq |
| Information theory, 89.70.-a |
| channel capacity in, 89.70.Kn |
| communication complexity in, 89.70.Hj |
| computational complexity in, 89.70.Eg |
| entropy in, 89.70.Cf |
| general biological information, 87.10.Vg |
| in neuroscience, 87.19.lo |
| Infrared detectors, 07.57.Kp |
| astronomy instrumentation, 95.55.Aq |
| optoelectronic, 85.60.Gz |
| superconducting, 85.25.Pb |
| Infrared excess (extrasolar planets), 97.82.Jw |
| Infrared optical materials, 42.70.Km |
| Infrared radiation |
| astronomical observations, 95.85.-e |
| effects on biological systems, 87.50.W- |
| galactic and extragalactic, 98.70.Lt |
| interstellar, 98.38.Jw, 98.58.Jg |
| irradiation effects of, 61.80.Ba |
| in photochemistry, 82.50.Bc |
| scattering of, in biophysics, 87.64.Cc |
| sources of, 07.57.Hm, 42.72.Ai |
| Infrared spectra |
| of atoms, 32.30.Bv |
| in biophysics, 87.64.km |
| of disordered solids, 78.30.Ly |
| of fullerenes, 78.30.Na |
| of insulators, 78.30.Am |
| of liquids, 78.30.C- |
| inorganic liquids, 78.30.cc |
| ionic liquids, 78.30.cd |
| organic liquids, 78.30.cb |
| solutions, 78.30.cd |
| of macro- and polymer molecules, 36.20.Ng |
| of metals and alloys, 78.30.Er |
| of molecules, 33.20.Ea |
| of nonmetallic inorganics, 78.30.Hv |
| of organic solids, 78.30.Jw |
| of polymers, 78.30.Jw |
| of semiconductors |
| III-V, and II-VI semiconductors, 78.30.Fs |
| elemental semiconductors, 78.30.Am |
| Infrared spectrometers, 07.57.Ty |
| Infrared spectroscopy |
| in biophysics, 87.64.km |
| in chemical analysis, 82.80.Gk |
| Infrasound, *43.28.Dm |
| Inhomogeneous superconductors, 74.81.-g |
| amorphous superconductors, 74.81.Bd |
| granular superconductors, 74.81.Bd |
| Josephson junction arrays, 74.81.Fa |
| Initial value problem, 04.20.Ex |
| Injection lasers, 42.55.Px |
| Injection molding, 83.50.Uv |
| Inner-shell ionization, 32.80.Hd |
| Inorganic compounds |
| band structure, 71.20.Ps |
| crystal structure, 61.66.Fn |
| Instruments |
| acoustical, *43.58.-e, 43.58.+z |
| for astronomy, 95.55.-n |
| for atomic and molecular physics, 07.77.-n |
| for biophysics, 87.80.-y |
| common to several branches of physics and astronomy
(see 07) |
| for elementary particle and nuclear physics (see 29) |
| environmental effects on, 07.89.+b |
| for environmental pollution measurements, 07.88.+y |
| for fluid dynamics, 47.80.-v |
| for geophysics, 93.85.-q |
| musical, 43.75.+a, *43.75.-z |
| for plasma diagnostics, 52.70.-m |
| spaceborne and space research, 07.87.+v |
| for space plasma physics, ionosphere, and
magnetosphere, 94.80.+g |
| Insulating parent compounds (cuprate
superconductors), 74.72.Cj |
| Insulation (foam) as a bioproduct from biomass,
88.20.rr |
| Insulator-metal transitions, 71.30.+h |
| Insulators |
| absorption spectra, 78.40.Ha |
| band structure, 71.20.Ps |
| conductivity of, 72.20.-i |
| specific insulators, 72.80.Sk |
| dielectric devices, 85.50.-n |
| film growth, 68.55.aj |
| photoemission and photoelectron spectra of, 79.60.Bm |
| radiation effects of, 61.82.Ms |
| thin films (conductivity), 73.61.Ng |
| Integrable systems, 02.30.Ik |
| Integral equations, 02.30.Rz |
| Integral transforms, 02.30.Uu |
| Integrated circuits, 85.40.-e |
| superconducting, 85.25.Hv |
| Integrated optics, 42.82.-m |
| Integrative biology |
| in biomedical engineering, 87.85.Xd |
| Integrative biophysics, 87.18.Nq |
| Integrodifferential equations, 02.60.Nm |
| in mathematical aspects of biological physics,
87.10.Ed |
| Interatomic distances and angles, 33.15.Dj |
| Interatomic potentials and forces, 34.20.Cf |
| Intercalation compounds, 71.20.Tx |
| Interconnects |
| electrical, 84.32.Dd |
| integrated electronics, 85.40.Ls |
| integrated optics, 42.82.Ds |
| optical, 42.79.Ta |
| Interdiffusion, chemical, 66.30.Ny |
| Interdisciplinary physics, see section 89 |
| new topics in, 89.90.+n |
| Interfaces |
| electronic transport, 73.40.-c |
| electron states, 73.20.-r |
| gas-liquid, 68.03.-g |
| liquid-liquid, 68.05.-n |
| liquid-solid, 68.08.-p |
| magnetic properties of, 75.70.Cn |
| microscopy of, 68.37.-d |
| solid-solid, 68.35.-p |
| spin polarized transport through, 72.25.Mk |
| structure and roughness of, 68.35.Ct |
| thermodynamic properties of, 05.70.Np, 68.35.Md |
| Interfacial flows |
| general, 47.55.N- |
| liquid bridges, 47.55.nk |
| rheology, 83.50.Lh |
| spreading films, 47.55.nd |
| Interference, optical, 42.25.Hz |
| Interferometers, 07.60.Ly |
| Interferometry |
| in astronomy, 95.55.Br, 95.75.Kk |
| atomic, 03.75.Dg |
| holographic, 42.40.Kw |
| neutron, 03.75.Dg |
| nonclassical, 42.50.St |
| phase-shifting, 42.87.Bg |
| Intergalactic matter, 98.62.Ra |
| Intermediate bosons, decays of, 13.38.-b |
| Intermediate-valence solids |
| diamagnetism and paramagnetism of, 75.20.Hr |
| electron states of, 71.28.+d |
| magnetic ordering of, 75.30.Mb |
| Intermetallic compounds, electronic structure of,
71.20.Lp |
| Intermolecular potentials and forces, 34.20.Gj |
| Internal conversion, nuclei, 23.20.Nx |
| Internal friction |
| evidence of dislocations by, 61.72.Hh |
| mechanical properties of solids, 62.40.+i |
| International laboratory facilities, 01.52.+r |
| International programs, geophysics, 93.55.+z |
| Internet, *43.10.Pr, 89.20.Hh |
| Interplanetary dust and gas, 96.50.Dj |
| Interplanetary space |
| cosmic rays, 96.50.S- |
| driver gases and magnetic clouds, 96.50.Uv |
| energetic particles, 96.50.Vg |
| neutral particles, 96.50.Zc |
| pickup ions, 96.50.Ya |
| solar wind plasma, 96.50.Ci |
| Interpolation methods, 02.60.Ed |
| Interstellar matter |
| external galaxies, 98.58.-w |
| Milky Way, 98.38.-j |
| Interstitials, 61.72.jj |
| Intracluster matter (galaxy clusters), 98.65.Hb |
| Intramolecular dynamics, 33.15.Hp |
| Inverse photoemission spectroscopy, 78.70.-g |
| Inverse problems, 02.30.Zz |
| acoustical, *43.60.Pt |
| Inversion layers, 73.20.-r, 73.40.-c |
| Inviscid flows, 47.15.K- |
| Inviscid instability, 47.20.Cq |
| Io, 96.30.lb |
| Ion-acoustic waves (plasma), 52.35.Fp, 52.35.Qz |
| Ion beam-assisted deposition, 81.15.Jj |
| Ion beam epitaxy, 81.15.Hi |
| Ion beam lithography, 85.40.Hp |
| Ion beams |
| negative, 41.75.Cn |
| positive, 41.75.Ak |
| Ion channeling |
| crystals, 61.85.+p |
| in subcellular transport processes, 87.16.Vy |
| Ion-cyclotron resonance plasma heating, 52.50.Qt |
| Ion-cyclotron waves (plasma), 52.35.Hr, 52.35.Qz |
| Ion emission |
| by liquids and solids, general and overall aspects
of, 79.00.00 |
| new topics in, 79.90.+b |
| secondary, 79.20.Rf |
| Ion exchange |
| biological systems, 82.39.Wj |
| chromatography, 82.80.Bg |
| resins, 83.80.-k |
| Ionic conduction |
| in liquids, 66.10.Ed |
| nonmetals, 66.30.H- |
| solids, 66.30.Dn |
| Ionic interactions, atmospheric, 92.60.Ls |
| Ion implantation |
| germanium and silicon, 61.72.uf |
| III-V and II-VI semiconductors, 61.72.uj |
| plasma-based, 52.77.Dq |
| thin films, 68.55.Ln |
| VLSI technology, 85.40.Ry |
| Ionization |
| of atoms |
| by atom, molecule, and ion impact, 34.50.Fa |
| by electron impact, 34.80.Dp |
| field, 79.70.+q |
| of molecules |
| by atom, molecule, and ion impact, 34.50.Gb |
| by electron impact, 34.80.Gs |
| in photochemistry, 82.50.-m |
| in plasma, 52.25.Jm |
| Ionization chambers, 29.40.Cs |
| Ionization potentials |
| atoms, 32.10.Hq |
| molecules, 33.15.Ry |
| Ionizing radiations |
| effects on biological systems, 87.53.-j |
| Ion microscopes, 07.78.+s |
| in structure determination, 68.37.Vj |
| Ion-molecule collisions, 34.50.-s |
| Ion-molecule reactions, 82.30.Fi |
| Ionoluminescence, 78.60.Hk |
| Ion optics, 41.85.-p |
| Ionosphere |
| comets, *96.25.J-, 96.25.Jz |
| Earth, 94.20.-y |
| configuration, 94.20.D- |
| disturbances, 94.20.Vv |
| ionosphere/atmosphere interactions, 94.20.wg |
| ionosphere/magnetosphere interactions, 94.20.wh |
| modeling and forecasting, 94.20.Cf |
| wave/particle interactions, 94.20.wj |
| fluid planets, 96.15.Hy, *96.15.hk |
| instrumentation for, 94.80.+g |
| solid surface planets, 96.12.Jt, *96.12.ji |
| Ion plating, 81.15.Jj |
| Ion propulsion, 52.75.Di |
| Ion rings (magnetic confinement), 52.55.Lf |
| Ions |
| atomic |
| electronic structure (see 31) |
| photodetachment, 32.80.Gc |
| photoionization, 32.80.Fb |
| properties of, 32.10.-f |
| in cavities, 37.30.+i |
| molecular |
| electronic structure (see 31) |
| properties of, 33.15.-e |
| surface neutralization, 34.35.+a |
| Ion scattering, 34.50.-s |
| in structure determination, 61.05.Np |
| from surfaces, 34.35.+a, 68.49.Sf, 79.20.Rf |
| Ion sources, 07.77.Ka |
| in nuclear physics, 29.25.Lg, 29.25.Ni |
| Ion spectrometers, 07.81.+a |
| Ion-surface impact, 34.35.+a, 79.20.Rf |
| Ion traps, 37.10.Ty |
| Iron and its alloys, ferromagnetism of, 75.50.Bb |
| Irradiation effects |
| on instruments, 07.89.+b |
| on optical devices, 42.88.+h |
| in solids, 61.80.-x |
| Irreversible thermodynamics, 05.70.Ln |
| Irrigation, 92.40.Xx |
| Ising model |
| lattice theory, 05.50.+q |
| magnetic ordering, 75.10.Hk |
| Islands, geographical regions, 93.30.Kh |
| Isobaric analog resonances, 24.30.Gd |
| Isobaric spin, 21.10.Hw |
| Isomer decay (radioactive decay), 23.35.+g |
| Isomerism |
| of biomolecules, 87.15.hp |
| macromolecules and polymer molecules, 36.20.Ey |
| rotational, 33.15.Hp |
| Isomerization reactions, 82.30.Qt |
| Isostasy |
| crustal movements, 91.45.Ga |
| in marine geology, 91.50.Kx |
| Isotope effects |
| atoms and molecules, 31.30.Gs |
| chemical reactions, 82.20.Tr |
| Isotopes, 32.10.Bi |
| abundances and evolution (astronomy), 98.80.Ft |
| of hydrogen, 67.63.-r, 67.80.F- |
| radioactive, sources of, 29.25.Rm |
| separation and enrichment, 28.60.+s |
| Isotopic dating (geochronology), *91.80.Hj |
| Jahn-Teller effect |
| in atoms and molecules, 31.30.-i |
| in condensed matter, 71.70.Ej |
| Jets |
| galactic, 98.62.Nx |
| interstellar matter, 98.38.Fs, 98.58.Fd |
| in laminar flows, 47.15.Uv |
| in large-Q2 scattering, 13.87.-a |
| oceanic, 92.10.Ty |
| through nozzles, 47.60.Kz |
| in turbulent flows, 47.27.wg |
| Joining, 81.20.Vj |
| Josephson devices, 85.25.Cp |
| Josephson effect |
| quantum mechanics, 03.75.Lm |
| tunneling phenomena (superconductivity), 74.50.+r |
| Josephson junction arrays, 74.81.Fa |
| Joule-Thomson effect, 51.30.+i |
| Jovian satellites, 96.30.Kf |
| Junction breakdown devices, 85.30.Mn |
| Junction diodes, 85.30.Kk |
| Jupiter, 96.30.Kf |
| Jovian satellites, 96.30.L- |
| Jurassic period, *91.70.de |
| Kaluza-Klein theory (higher-dimensional gravity),
04.50.Cd |
| Kaluza-Klein excitations (particle physics),
14.80.Rt |
| Kaon-baryon interactions, 13.75.Jz |
| Kaon decays |
| hadronic, 13.25.Es |
| leptonic and semileptonic, 13.20.Eb |
| Kaon-induced reactions and scattering, 25.80.Nv |
| KDP crystals (dielectric materials), 77.84.Fa |
| Kelvin-Helmholtz instability (fluid flow), 47.20.Ft |
| Kelvin waves (ocean waves), *92.10.hh |
| Kerr effect |
| atoms and molecules, 33.57.+c |
| condensed matter, 78.20.Jq |
| nonlinear optics, 42.65.Hw |
| Kinematics |
| of deformation and flow, 83.10.Bb |
| of particles, 45.50.-j, 83.10.Pp |
| of rigid bodies, 45.40.-f |
| rotational, 45.40.Bb |
| translational, 45.40.Aa |
| Kinetic modes (magnetic confinement), 52.55.Tn |
| Kinetic theory |
| gases, 47.45.Ab, 51.10.+y |
| plasma, 52.25.Dg |
| statistical mechanics, 05.20.Dd |
| Klystrons, 84.40.Fe |
| Knight shift, 76.60.Cq |
| Knot theory, 02.10.Kn |
| Knudsen flow, 47.45.-n |
| Kobayashi-Maskawa matrix, 12.15.Hh |
| Kondo effect |
| diamagnetism and paramagnetism, 75.20.Hr |
| electronic conduction in metals and alloys, 72.15.Qm |
| electronic transport, theory of, 72.10.Fk |
| Kondo lattice, 75.30.Mb |
| Kosterlitz-Thouless transition |
| liquid crystals, 64.70.mf |
| magnetic systems, 75.30.Kz |
| Krönig-Penney model, 71.15.Ap |
| Kuiper belt, 96.30.Xa |
| Laboratory |
| computer use in, 01.50.Lc |
| course design, 01.50.Qb |
| experiments and apparatus, 01.50.Pa |
| procedures, 06.60.-c |
| Laboratory facilities, national and international,
01.52.+r |
| Laboratory-scale study of astrophysical-plasmas,
52.72.+v |
| Lagrangian mechanics, 45.20.Jj |
| Lagrangians |
| chiral (quark models), 12.39.Fe |
| field theory, 11.10.Ef |
| general relativity, 04.20.Fy |
| Lakes, 92.40.Qk, *92.40.qj |
| Lamallipods, 87.16.Qp |
| Lamb shift, 31.30.jf |
| in muonic hydrogen and deuterium, 31.30.jr |
| Lamellae, 82.70.Uv |
| Laminar flows, 47.15.-x, 83.50.-v |
| inviscid, 47.15.K- |
| Laminar to turbulent transition, 47.15.Fe, 47.27.Cn |
| Landau levels, 71.70.Di |
| Landslides, 92.40.Ha |
| Land transportation, 89.40.Bb |
| Langevin method, 05.10.Gg |
| Langmuir-Blodgett films |
| deposition of, 81.15.Lm |
| on liquids, 68.18.-g |
| liquid thin film structure, 68.18.Fg |
| phase transitions in, 68.18.Jk |
| on solids, 68.47.Pe |
| Laplace equation, 41.20.Cv |
| Larynx, 43.70.Gr |
| Laser ablation |
| laser-plasma interactions, 52.38.Mf |
| of solids, 79.20.Eb |
| Laser beam annealing, 61.80.Ba |
| Laser beam machining, 42.62.Cf |
| Laser deposition, 81.15.Fg |
| nanofabrication, 81.16.Mk |
| Laser diodes, 42.55.Px |
| Laser Doppler velocimeters, 42.79.Qx |
| Laser-driven acceleration, 41.75.Jv |
| Laser imaging, medical, 42.62.Be, 87.63.lt |
| Laser impact phenomena on surfaces, 79.20.Ds |
| laser ablation, 79.20.Eb |
| multiphoton absorption, 79.20.Ws |
| Laser inertial confinement, 52.57.-z |
| Laser materials, 42.70.Hj |
| Laser-modified scattering |
| of atoms and molecules, 34.50.Rk |
| of electrons, 34.80.Qb |
| Laser operation |
| continuous, 42.60.Pk |
| long-pulse, 42.60.Rn |
| Laser-plasma interactions, 52.38.-r |
| Laser-produced plasma, 52.50.Jm |
| Laser radiation |
| characteristics, 42.60.Jf |
| propagation (atmospheric optics), 42.68.-w |
| surface irradiation effects, 61.80.Ba |
| Laser range finders, 06.30.Gv, 42.79.Qx |
| Lasers, 42.55.-f |
| applications of, 42.62.-b |
| general theory of, 42.55.Ah |
| optical systems for, 42.60.-v |
| Laser spectroscopy, 42.62.Fi |
| Laser targets (inertial confinement), 52.57.Bc |
| Laser velocimeters, 06.30.Gv, 42.79.Qx |
| Latent heat, 05.70.Ce, 65.40.G- |
| Latex rubber, 83.80.Va |
| Lattice dynamics |
| crystals (see 63) |
| of solid helium-3, 67.80.de |
| Lattice fermion models, 71.10.Fd |
| Lattice gas (fluid dynamics), 47.11.Qr |
| Lattice gauge theory, 11.15.Ha |
| Lattice models |
| in biological physics, 87.10.Hk, 87.16.aj |
| Lattice QCD calculations, 12.38.Gc |
| Lattice theory and statistics, 05.50.+q |
| Lattice vibrations |
| statistical mechanics of, 63.70.+h |
| Lava, 91.40.Hw |
| Laves phases (superconductivity), 74.70.Ad |
| Layered structures |
| phonons in, 63.22.Np |
| semiconductors, III-V |
| electrical properties of, 73.61.Ey |
| optical properties of, 78.66.Fd |
| semiconductors, II-VI |
| electrical properties of, 73.61.Ga |
| optical properties of, 78.66.Hf |
| Leak detectors (vacuum technology), 07.30.Hd |
| Learning |
| in education, 01.40.Ha |
| neuroscience of, 87.19.lv |
| Least square approximation, 02.60.Ed |
| Lectures |
| announcements, 01.10.Fv |
| publications, 01.30.Bb |
| LEED |
| in structure determination, 61.05.jh |
| Length measurement, 06.30.Bp |
| Lenses |
| acoustical, *43.58.Ls |
| electrostatic, 41.85.Ne |
| gravitational, 95.30.Sf |
| optical design of, 42.15.Eq |
| in optical systems, 42.79.Bh |
| Lepton-lepton interactions, 13.66.-a |
| Lepton number, 11.30.Fs |
| Leptoquarks, 14.80.Sv |
| Leptons |
| beta decay, 23.40.-s |
| charged heavy leptons, 14.60.Hi |
| decays, 13.35.-r |
| electrons, 14.60.Cd |
| in decays |
| of baryons, 13.30.Ce |
| of mesons, 13.20.-v |
| -induced nuclear reactions, 25.30.-c |
| interactions with hadrons, 13.60.-r |
| masses and mixing, 12.15.Ff |
| muons, 14.60.Ef |
| neutrinos, 14.60.Lm, 14.60.St |
| positrons, 14.60.Cd |
| production |
| in electron-positron interactions, 13.66.De |
| in hadronic interactions, 13.85.Qk |
| in relativistic heavy-ion collisions, 25.75.Cj |
| properties of, 14.60.-z |
| taus, 14.60.Fg |
| Level crossing |
| in atoms, 32.80.Xx |
| in molecules, 33.80.Be |
| Level splitting |
| in atoms, 32.60.+i |
| in molecules, 33.57.+c |
| in solids, 71.70.-d |
| Levitation, acoustic, *43.25.Uv |
| Levitation devices |
| magnetic, 85.70.Rp |
| superconducting, 84.71.Ba |
| Levy flights, 05.40.Fb |
| LIDAR, 42.68.Wt, 42.79.Qx |
| Lie algebra, 02.20.Sv |
| Lie groups, 02.20.Tw |
| Lifetimes |
| atomic spectra, 32.70.Cs |
| molecular spectra, 33.70.Ca |
| nuclear energy levels, 21.10.Tg |
| Ligand fields, 71.70.Ch |
| Light |
| effects on biological systems, 87.50.W- |
| interaction with matter, 42.50.Ct |
| mechanical effects on atoms and molecules, 37.10.Vz,
42.50.Wk |
| zodiacal, 96.50.Dj |
| Light absorption and transmission, 42.25.Bs |
| effects of atomic coherence on, 42.50.Gy |
| Light-emitting diodes, 85.60.Jb |
| Lightning, 52.80.Mg, 92.60.Pw |
| Light mesons, 14.40.Be |
| Light pressure, 42.50.Wk |
| Light quarks, 14.65.Bt |
| Light scattering |
| in atmospheric optics, 42.68.Mj, 92.60.Ta |
| in condensed matter, 78.35.+c |
| in plasma, 52.25.Os |
| wave optics, 42.25.Fx |
| Light-sensitive materials, 42.70.Gi |
| Lighting |
| day lighting/natural lighting of buildings, 88.40.mx |
| energy use in, 88.05.Tg |
| outdoor solar lights, 88.40.my |
| Light sources, 42.72.-g |
| Limiters, electronic, 84.30.Qi |
| Limnology, 92.40.Qk, *92.40.qj |
| Linear accelerators, 29.20.Ej |
| Line shape and width, 32.70.Jz, 33.70.Jg |
| Lipids, 87.14.Cc |
| Liquid crystals |
| anchoring, 61.30.Hn |
| defects in, 61.30.Jf |
| dielectric properties of, 77.84.Nh |
| displays, 42.79.Kr |
| flow of, 47.57.Lj |
| glass transitions in, 64.70.pp |
| microconfined, 61.30.Pq |
| in optical devices, 42.79.Kr |
| optical materials, 42.70.Df |
| optical properties of, 78.15.+e |
| orientation of, 61.30.Gd |
| phase transitions in, 64.70.M- |
| polymer, 61.30.Vx |
| polymer dispersed, 61.30.Pq |
| rheology of, 83.80.Xz |
| structure of, 61.30.Cz, 61.30.Eb |
| Liquid drops, 47.55.D- |
| Liquid helium. see 67 |
| Liquid-liquid transitions, 64.70.Ja |
| Liquid metals and alloys |
| electrical and thermal conduction, 72.15.Cz |
| electronic structure, 71.22.+i |
| structure of, 61.25.Mv |
| Liquid-phase epitaxy, 81.15.Lm |
| Liquids |
| acoustical properties, 62.60.+v |
| associated, 61.20.Qg |
| dielectric properties, 77.84.Nh, 77.22.-d |
| diffusion in, 66.10.C- |
| diffusive momentum transport in, 66.20.Gd |
| electric discharge in, 52.80.Wq |
| glass transitions in, 64.70.pm |
| heat capacities, 65.20.Jk |
| high pressure effects, 62.50.-p |
| infrared spectra, 78.30.C- |
| inorganic liquids, 78.30.cc |
| organic liquids, 78.30.cb |
| solutions and ionic liquids, 78.30.cd |
| ionic conduction in, 66.10.Ed |
| magnetic, 75.50.Mm |
| mass diffusion in, 66.10.cg |
| mechanical properties, 62.10.+s |
| metallic |
| thermal conduction in, 72.15.Cz |
| molecular |
| structure of, 61.25.Em |
| noble gas |
| structure of, 61.25.Bi |
| nonmetallic |
| thermal conduction in, 66.25.+g |
| osmosis in, 66.10.cg |
| photoluminescence, 78.55.Bq |
| Raman spectra, 78.30.C- |
| structure of, 61.20.-p, 61.25.-f |
| ultraviolet spectra, 78.40.Dw |
| viscosity of, 66.20.-d |
| visible spectra, 78.40.Dw |
| Liquid semiconductors |
| conductivity, 72.80.Ph |
| electron density of states, 71.22.+i |
| Liquid-solid transitions, 64.70.D- |
| Liquid thin films, 68.15.+e, 68.18.-g |
| Liquid-vapor transitions, 64.70.F- |
| Lithography |
| in integrated electronics, 85.40.Hp |
| in integrated optics, 42.82.Cr |
| nanolithography, 81.16.Nd |
| subwavelength, 42.50.St |
| Lithosphere |
| rheology of, 91.32.De |
| seismology of, 91.30.Wx |
| Local-density approximation |
| atomic and molecular physics, 31.15.E- |
| condensed matter, 71.15.Mb |
| Local group, 98.56.-p |
| Localization |
| conductivity in metals and alloys, 72.15.Rn |
| disordered structures, 71.23.-k, 71.55.Jv |
| mobility edges, 72.20.Ee |
| sound sources, *43.66.Qp |
| surface and interface states, 73.20.Fz |
| weak, 72.15.Rn, 73.20.Fz |
| Localized modes, 63.20.Pw |
| Locomotion (motor systems), 87.19.lu |
| Logic, mathematical, 02.10.Ab |
| Logic devices |
| optical, 42.79.Ta |
| superconducting, 85.25.Hv |
| Lorentz invariance, 11.30.Cp |
| Lorentz transformation, 03.30.+p |
| Loudspeakers, *43.38.Ja |
| Low-dimensional structures |
| devices, 85.35.Be |
| electrical properties, 73.63.-b |
| electron states and collective excitations in,
73.21.-b |
| optical properties, 78.67.-n |
| phonons in, 63.22.-m |
| structure and nonelectronic properties of, 68.65.-k |
| superconducting, 74.78.-w |
| Low energy electron diffraction (LEED), 61.05.jh |
| Low energy electron microscopy, 68.37.Nq |
| Low mass nuclear reactions, 25.10.+s |
| Low temperature techniques, 07.20.Mc |
| LSI, 85.40.-e |
| Lubrication |
| effects of materials treatment, 81.40.Pq |
| flows, 47.85.mf |
| rheology, 83.50.-v |
| Luminescence |
| of atoms, 32.50.+d |
| of biomolecules, 87.15.mq |
| cathodoluminescence, 78.60.Hk |
| chemiluminescence, 78.60.Ps |
| electroluminescence, 78.60.Fi |
| ionoluminescence, 78.60.Hk |
| optically stimulated, 78.60.Lc |
| sonoluminescence, 78.60.Mq |
| thermoluminescence, 78.60.Kn |
| triboluminescence, 78.60.Mq |
| of molecules, 33.50.-j |
| photoluminescence |
| of alkali halides, 78.55.Fv |
| of amorphous and disordered materials, 78.55.Qr |
| of glasses, 78.55.Qr |
| of inorganic solids (excluding compound
semiconductors and alkali halides), 78.55.Hx |
| of liquids, 78.55.Bq |
| of organic solids, 78.55.Kz |
| of porous materials, 78.55.Mb |
| of semiconductors |
| elemental semiconductors, 78.55.Ap |
| II-VI semiconductors, 78.55.Et |
| III-V semiconductors, 78.55.Cr |
| Luminosity |
| galaxies, 98.62.Qz, 98.62.Ve |
| stars, 97.10.Ri, 97.10.Xq |
| Lunar probes, 95.55.Pe |
| Lungs, hemodynamics of, 87.19.ug |
| Luttinger liquid, 71.10.Pm |
| superconductivity, 74.20.Mn |
| Lyman forest (quasars), 98.62.Ra |
| Lyotropic phases, 61.30.St |
| Machining |
| materials processing, 81.20.Wk |
| micromachining |
| biomedical engineering, 87.85.Va |
| microelectronics, 85.40.Hp |
| workshop techniques, 06.60.Vz |
| Mach number, 47.40.-x |
| Macromolecules |
| biological, 87.15.-v |
| liquid solutions, properties of, 87.15.N- |
| liquid solutions, structure of, 61.25.H- |
| properties of, 36.20.-r |
| Macroscopic quantum tunneling (magnetic systems),
75.45.+j |
| Magellanic stream, 98.56.Tj |
| Magma |
| migration, 91.40.Jk |
| rheology, 83.80.Nb |
| Magnesium diboride, superconductivity of, 74.70.Ad |
| Magnetic aftereffects, 75.60.Lr |
| Magnetic anisotropy, 75.30.Gw |
| Magnetic annealing, 75.60.Nt |
| Magnetic bubbles, 75.70.Kw |
| Magnetic circular dichroism |
| in biophysics, 87.64.ku |
| in condensed matter, 78.20.Ls |
| of molecules, 33.55.+b |
| Magnetic confinement and equilibrium, 52.55.-s |
| Magnetic cooling |
| cryogenics, 07.20.Mc |
| magnetocaloric effect, 75.30.Sg |
| Magnetic coordinate systems, 94.30.Bg |
| Magnetic cores, 85.70.-w |
| Magnetic devices, 85.70.-w |
| spin polarized transport devices, 85.75.-d |
| Magnetic domains, 75.60.Ch |
| in thin films, 75.70.Kw |
| in nanoparticles, 75.75.Fk |
| Magnetic fields |
| astronomical observations of, 95.85.Sz |
| of comets, 96.25.Ln |
| effects on biological systems, 87.50.C- |
| effects on material flow, 83.60.Np |
| in electromagnetism, 41.20.-q |
| of external galaxies, 98.62.En |
| generation of, 07.55.Db |
| interplanetary, 96.50.Bh |
| lunar, 96.20.Jz |
| magnetospheric, 94.30.Ms |
| measurement of, 07.55.Ge |
| of Milky Way, 98.35.Eg |
| planetary |
| fluid planets, 96.15.Gh |
| solid surface planets, 96.12.Hg |
| solar, 96.60.Hv |
| stellar, 97.10.Ld |
| terrestrial, 91.25.-r |
| Magnetic films |
| devices, 85.70.Kh |
| properties of, 75.70.-i |
| Magnetic fluids, 47.65.Cb |
| Magnetic force microscopy, 68.37.Rt |
| instrumentation of, 07.79.Pk |
| Magnetic heads, 85.70.Kh |
| Magnetic hysteresis, 75.60.-d, 75.60.Ch, 75.60.Nt |
| Magnetic impurity interactions, 75.30.Hx |
| Magnetic induction, 41.20.Gz |
| Magnetic instruments, 07.55.-w |
| Magnetic lenses, 41.85.Lc |
| Magnetic levitation devices, 85.70.Rp |
| superconducting magnets, 84.71.Ba |
| Magnetic liquids, 47.65.Cb, 75.50.Mm |
| Magnetic logic, reprogrammable, 85.75.Ff |
| Magnetic materials, 75.50.-y |
| amorphous magnetic materials, 75.50.Kj |
| antiferromagnetic materials, 75.50.Ee |
| ferrimagnetic materials, 75.50.Gg |
| ferromagnetic materials |
| Fe and its alloys, 75.50.Bb |
| other ferromagnetic metals and alloys, 75.50.Cc |
| nonmetallic ferromagnetic materials, 75.50.Dd |
| high coercivity materials, 75.50.Vv |
| magnetic liquids, 75.50.Mm |
| magnetic recording materials, 75.50.Ss |
| magnetic semiconductors, 75.50.Pp |
| magnetotransport materials, 75.47.-m |
| magnetic oxides, 75.47.Lx |
| metals and alloys, 75.47.Np |
| multiferroics, 75.85.+t |
| nanocrystalline magnetic materials, 75.50.Tt |
| new topics in, 75.90.+w |
| Magnetic memory |
| using giant magnetoresistance, 85.75.Bb |
| using magnetic tunnel junctions, 85.75.Dd |
| Magnetic mirrors, 52.55.Jd |
| Magnetic moments |
| of atoms, 32.10.Dk |
| of hadrons, 13.40.Em |
| local, in compounds and alloys, 75.20.Hr |
| magnetometers for, 07.55.Jg |
| of molecules, 33.15.Kr |
| Magnetic monopoles, 14.80.Hv |
| Magnetic multilayers, 75.70.Cn |
| Magnetic nanoparticles |
| domain structures in, 75.75.Fk |
| dynamics of, 75.75.Jn |
| electronic structure of, 75.75.Lf |
| Magnetic ordering |
| general theory and models of, 75.10.-b |
| band and itinerant models, 75.10.Lp |
| classical spin models, 75.10.Hk |
| crystal field theory; spin Hamiltonians, 75.10.Dg |
| quantized spin models, 75.10.Jm |
| quantum spin frustration, 75.10.Jm |
| quantum spin liquids, 75.10.Kt |
| spin chain models, 75.10.Pq |
| spin-glass models, 75.10.Nr |
| valence bond phases, 75.10.Kt |
| spin arrangements in, 75.25.-j |
| orbital, charge and other orders in, 75.25.Dk |
| Magnetic oxides (magnetotransport materials),
75.47.Lx |
| Magnetic permeability measurement, 07.55.-w |
| Magnetic phase transitions, 75.30.Kz |
| Magnetic phenomena in gases, 51.60.+a |
| Magnetic properties |
| of clusters, 36.40.Cg |
| of gases, 51.60.+a |
| of magnetically ordered materials, 75.30.-m |
| exchange interactions, 75.30.Et |
| magnetic anisotropy, 75.30.Gw |
| magnetic impurity interactions, 75.30.Hx |
| magnetic phase boundaries, 75.30.Kz |
| magnetic susceptibility, 75.30.Cr |
| magnetocaloric effect, 75.30.Sg |
| saturation moments, 75.30.Cr |
| spin cross over, 75.30.Wx |
| spin-density waves, 75.30.Fv |
| spin waves, 75.30.Ds |
| dynamic critical point effects, 75.40.Gb |
| materials treatment effects on, 81.40.Rs |
| of nanostructures, 75.75.-c |
| domain structure in nanoparticles, 75.75.Fk |
| dynamics of magnetic nanoparticles, 75.75.Jn |
| electronic structure of magnetic nanoparticles,
75.75.Lf |
| new topics in, 75.90.+w |
| of rocks and minerals, 91.60.Pn |
| of solid 3He, 67.80.dk |
| of superconductors, 74.25.Ha |
| of superfluid 3He, 67.30.er |
| of thin films, surfaces, and interfaces 75.70.-i |
| domain structure, 75.70.Kw |
| interfaces, 75.70.Cn |
| monolayers, 75.70.Ak |
| spin-orbit effects, 75.70.Tj |
| surfaces (surface magnetism), 75.70.Rf |
| Magnetic propulsion devices, 85.70.Rp |
| Magnetic reconnection |
| in magnetosphere, 94.30.cp |
| in plasmas, 52.35.Vd |
| in solar physics, 96.60.Iv |
| Magnetic recording devices, 85.70.Kh, 85.70.Li |
| for sound recording, *43.38.Qg |
| Magnetic recording materials, 75.50.Ss |
| Magnetic resonance imaging (MRI) |
| in condensed matter, 76.60.Pc |
| instrumentation for, 87.61.Ff |
| in medical physics, 87.61.-c |
| in neuroscience, 87.19.lf |
| rheological applications of, 83.85.Fg |
| Magnetic resonance spectra |
| of atoms, 32.30.Dx |
| in condensed matter, 76.30.-v, 76.60.-k, 76.70.-r |
| of molecules, 33.25.+k |
| Magnetic resonance spectrometers, 07.57.Pt |
| Magnetic semiconductors |
| conductivity of, 72.20.-i |
| magnetic properties of, 75.50.Pp |
| Magnetic shielding, 41.20.Gz |
| in instruments, 07.55.Nk |
| Magnetic storms, 94.30.Lr |
| Magnetic susceptibility |
| magnetically ordered materials, 75.30.Cr |
| magnetometers for, 07.55.Jg |
| of molecules, 33.15.Kr |
| Magnetic tail (magnetosphere), 94.30.cl |
| Magnetic transitions (classical and quantum),
75.30.Kz |
| Magnetic traps, 52.55.Jd, 52.55.Lf |
| Magnetic variables measurement, 07.55.-w |
| Magnetization |
| dynamics of, 75.78.-n |
| in magnetic materials, 75.60.Ej |
| magnetometers for, 07.55.Jg |
| reversal mechanisms, 75.60.Jk |
| of superconductors, 74.25.Ha |
| dynamics, 75.78.-n |
| dynamics of domain structures, 75.78.Fg |
| micromagnetic simulations, 75.78.Cd |
| ultrafast magnetization dynamics, 75.78.Jp |
| reversal, 75.60.Jk |
| Magnetized target fusion, 52.55.Lf |
| Magnetoacoustic devices, 85.70.Ec |
| Magnetoacoustic effects, *43.35.Rw |
| bulk matter, 72.55.+s |
| thin films, 73.50.Rb |
| Magnetoactive discharges, 52.80.Sm |
| Magnetocaloric effect, 75.30.Sg |
| Magnetoelastic effects, 75.80.+q |
| Magnetoelasticity (continuum mechanics), 46.25.Hf |
| Magnetoelectric devices, 85.80.Jm |
| Magnetoelectric effects, 75.85.+t |
| Magnetoelectric films, 77.55.Nv |
| Magnetoelectronics, 85.75.-d |
| spin transport effects, 75.76.+j |
| Magnetoexcitons, 71.35.Ji |
| Magnetohydrodynamic energy conversion, 52.75.Fk,
84.60.Lw |
| Magnetohydrodynamics |
| in astrophysics, 95.30.Qd |
| in fluids, 47.35.Tv, 47.65.-d |
| in plasma dynamics and flow, 52.30.Cv |
| in plasma simulation, 52.65.Kj |
| Magnetomechanical effects, 75.80.+q |
| Magnetometers, 07.55.Ge, 07.55.Jg |
| superconducting, 85.25.Dq |
| Magneto-optical devices, 85.70.Sq |
| Magneto-optical effects, 78.20.Ls |
| Magnetopause, 94.30.ch |
| Magnetoresistance |
| colossal, 75.47.Gk |
| giant, 75.47.De |
| in magnetic memory, 85.75.Bb |
| of metals and alloys, 72.15.Gd |
| in quantum Hall effects, 73.43.Qt |
| of semiconductors, 72.20.My |
| of thin films, 73.50.Jt |
| Magnetorheological fluids, 83.80.Gv |
| Magnetosheath, 94.30.cj |
| Magnetosphere |
| Earth |
| configuration, 94.30.C- |
| magnetospheric cusp, 94.30.cg |
| plasma sheet, 94.30.ct |
| interactions with ionosphere, 94.20.wh, 94.30.Va,
*94.30.vb |
| magnetic reconnection, 94.30.cp |
| MHD waves, 94.30.cq |
| ring currents in, 94.30.Kq |
| Magnetospheric cusp, 94.30.cg |
| Magnetostatic devices, 85.70.Ec |
| Magnetostatics, 41.20.Gz |
| Magnetostratigraphy, 91.25.Ph |
| Magnetostriction, 75.80.+q |
| Magnetostrictive devices, 85.70.Ec |
| Magnetotelluric effects (geomagnetism), 91.25.Qi |
| Magnetothermal devices, 85.80.Lp |
| Magnetotransport |
| materials for, 75.47.-m |
| magnetic oxides, 75.47.Lx |
| metals and alloys, 75.47.Np |
| phenomena, 75.47.-m |
| colossal magnetoresistance, 75.47.Gk |
| giant magnetoresistance, 75.47.De |
| Magnetrons, 84.40.Fe |
| Magnets, 07.55.Db |
| molecular magnets (magnetic materials), 75.50.Xx |
| particle beam focusing, 41.85.Lc |
| permanent magnets (magnetic materials), 75.50.Ww |
| superconducting, 84.71.Ba |
| Magnons, 75.30.Ds |
| photon-magnon interactions, 71.36.+c |
| scattering by (electronic transport), 72.10.Di |
| Majorana-Weyl fields, 04.50.-h |
| Majorons, 14.80.Va |
| Malleability, 62.20.fk |
| Mammography |
| in computer-aided diagnosis, 87.57.rh |
| in x-ray imaging, 87.59.E- |
| digital mammography, 87.59.ej |
| film mammography, 87.59.eg |
| Manganites (magnetotransport materials), 75.47.Lx |
| Manifolds, 02.40.Sf, 02.40.Tt |
| Manipulators, 06.60.Sx |
| Mantle, Earth's, 91.35.Gf |
| rheology of, 91.32.Gh |
| seismology of, 91.30.Uv |
| Many-body theory |
| in nuclear reaction models, 24.10.Cn |
| relativistic scattering theory, 11.80.Jy |
| Many-electron systems, theories of, 71.10.-w |
| Map lattices, coupled, 05.45.Ra |
| Marangoni convection (fluid dynamics), 47.55.pf |
| Marine chemistry, *92.20.cf, *92.20.cg |
| Marine geology, 91.50.-r |
| bathymetry, seafloor topology, 91.50.Ga |
| beach and coastal processes, 91.50.Cw |
| continental shelf processes, 91.50.Bd |
| gas and hydrate systems, 91.50.Hc |
| littoral processes, 91.50.Nc |
| seafloor morphology, 91.50.Ey |
| Marine life, acoustical detection of, *43.30.Sf |
| Marine magnetics, 91.50.Iv |
| Marine organisms |
| bacteria, 92.20.Jt, *92.20.jb |
| plankton, 92.20.Jt, *92.20.jf, *92.20.jh |
| Marine pollution, 92.20.Ny |
| Marine sediments, 91.50.Jc |
| Markets for biofuels, 88.20.T- |
| chemicals, 88.20.tk |
| combined heat and power, 88.20.tf |
| heat, 88.20.td |
| transportation fuels, 88.20.th |
| Markov processes, 02.50.Ga |
| Mars, 96.30.Gc |
| Martian satellites, 96.30.Hf |
| Martensitic transformations, 81.30.Kf |
| Masers, 84.40.Ik |
| circumstellar, 97.10.Fy |
| interstellar |
| in external galaxies, 98.58.Ec |
| in Milky Way, 98.38.Er |
| Masking |
| psychological acoustics, *43.66.Dc |
| Masks |
| in integrated electronics, 85.40.Hp |
| in integrated optics, 42.82.Cr |
| Mass |
| galactic, 98.35.Ce, 98.62.Ck |
| measurement of, 06.30.Dr |
| nuclear, 21.10.Dr, 21.10.Gv |
| solar, 96.60.Bn |
| stellar, 97.10.Nf, 97.10.Xq |
| Mass differences, electromagnetic, 13.40.Dk |
| Mass diffusion |
| in liquids, 66.10.cg |
| Mass ejection (corona), 96.60.ph |
| Mass spectra, 32.10.Bi, 33.15.Ta |
| Mass spectrometers, 07.75.+h |
| Mass spectrometry |
| Fourier transform, 82.80.Nj |
| ion cyclotron resonance, 82.80.Qx |
| SIMS, 68.49.Sf, 82.80.Ms |
| time-of-flight, 82.80.Rt |
| Mass-to-light ratio (galaxies), 98.62.Ve |
| Material flow, 83.50.-v |
| rock mechanics, 91.60.Ba |
| Materials synthesis and processing |
| material processing flows, 47.85.M-, 83.50.Uv |
| methods of, 81.20.-n |
| aerosols in materials synthesis, 81.20.Rg |
| chemical synthesis, 81.20.Ka |
| forming, molding, extrusion, 81.20.Hy, 83.50.Uv |
| joining; welding, 81.20.Vj |
| micro- and nanofabrication, 81.16.-c |
| atom manipulation, 81.16.Ta |
| catalytic methods, 81.16.Hc |
| chemical synthesis, 81.16.Be |
| laser-assisted deposition, 81.16.Mk |
| micro- and nano-oxidation, 81.16.Pr |
| micro- and nanolithography, 81.16.Nd |
| self-assembly, 81.16.Dn |
| supramolecular assembly, 81.16.Fg |
| machining, milling, 81.20.Wk |
| purification, 81.20.Ym |
| sol-gel processing, 81.20.Fw |
| Materials science (see section 81) |
| new topics in, 81.90.+c |
| Materials |
| specific materials, 81.05.-t |
| carbon/carbon-based materials, 81.05.U- |
| diamond/nanocarbon composites, 81.05.uj |
| diamond, 81.05.ug |
| fullerenes, 81.05.ub |
| graphene, 81.05.ue |
| graphite, 81.05.uf |
| ceramics, 81.05.Je |
| ceramic composites, 81.05.Mh |
| composite materials |
| ceramic composites |
| diamond/nanocarbon composites, 81.05.uj |
| glass-based composites, 81.05.Pj |
| metal-based composites, 81.05.Ni |
| polymer-based composites, 81.05.Qk |
| refractory composites, 81.05.Mh |
| glasses, 81.05.Kf |
| granular materials, 81.05.Rm |
| metamaterials, 81.05.Xj, 78.67.Pt |
| metals and alloys, 81.05.Bx |
| nanoscale materials |
| molecular nanostructures, 81.07.Nb |
| nanocontacts, 81.07.Lk |
| nanocrystalline materials, 81.07.Bc |
| nanoelectromechanical systems, 81.07.Oj |
| nanopowders, 81.07.Wx |
| nanowires, 81.07.Gf |
| organic-inorganic hybrid nanostructures, 81.07.Pr |
| quantum dots, 81.07.Ta |
| quantum wells, 81.07.St |
| quantum wires, 81.07.Vb |
| new materials, theory, and design, 81.05.Zx |
| organic and organometallic materials, 81.05.Lg |
| polymers and plastics, 81.05.Lg |
| porous materials, 81.05.Rm |
| reinforced materials |
| fiber-, and platelet-reinforced (metal-based),
81.05.Ni |
| polymers, 81.05.Qk |
| refractories, 81.05.Je |
| refractory composites, 81.05.Mh |
| semiconductors |
| amorphous semiconductors, 81.05.Gc |
| elemental semiconductors, 81.05.Cy |
| II-VI semiconductors, 81.05.Dz |
| III-V semiconductors, 81.05.Ea |
| semiconductors (excluding II-VI, III-V, elemental,
and amorphous), 81.05.Hd |
| effects on transition temperature
(superconductivity), 74.62.Bf |
| Materials testing and analysis, 81.70.-q |
| Matrix theory, 02.10.Yn |
| Matter waves, 03.75.-b |
| Mean free path, electron |
| in bulk matter, 72.15.Lh |
| in thin films, 73.50.Gr |
| Measurements common to several branches of physics
and astronomy, 06.30.-k |
| Measurement theory (quantum mechanics), 03.65.Ta |
| Measurement units and standards, 06.20.F- |
| Mechanical alloying, 81.20.Ev |
| Mechanical and micromechanical techniques |
| biophysical techniques, 87.80.Ek |
| Mechanical contacts, 46.55.+d |
| Mechanical effects of light, 37.10.Vz, 42.50.Wk |
| Mechanical energy, 45.20.dg |
| Mechanical instability, 46.32.+x |
| Mechanical instruments, 07.10.-h |
| Mechanical properties |
| beams, plates, and shells, 46.70.De |
| biomolecules, 87.15.La |
| deformation and flow, 83.50.-v |
| of gases, 51.35.+a |
| of liquids, 62.10.+s |
| materials treatment effects on, 81.40.-z |
| of nanoscale systems, 62.25.-g |
| of rocks and minerals, 91.60.Ba, 91.60.Dc |
| of solids, 62.20.-x |
| of solid surfaces and interfaces, 68.35.Gy |
| of superconductors, 74.25.Ld |
| of thin films, 68.60.Bs |
| of tissues and organs, 87.19.R- |
| Mechanical resonance, 62.40.+i |
| Mechanical systems, control of, 45.80.+r |
| Mechanical testing, 81.70.Bt |
| Mechanical variables measurement, 07.10.-h |
| Mechanical vibrations, 46.40.-f |
| Mechanical waves |
| propagation of, 46.40.Cd |
| resonance and damping of, 46.40.Ff |
| Mechanical work, 45.20.dg |
| Mechanics |
| celestial, 45.50.Pk, 95.10.Ce |
| continuum, 46, 83.10.Ff |
| Lagrangian and Hamiltonian, 45.20.Jj |
| Newtonian, 45.20.D- |
| quantum, 03.65.-w |
| quantum statistical, 05.30.-d |
| statistical, 05.20.-y |
| structural, 46.70.-p |
| Medical imaging, 87.57.-s |
| bone densitometry, 87.63.St |
| computed tomography, 87.57.Q- |
| multislice, 87.57.qp |
| single-slice, 87.57.qh |
| computer-aided diagnosis, 87.57.R- |
| mammography, 87.57.rh |
| electrical impedance tomography, 87.63.Pn |
| image analysis, 87.57.N- |
| edge enhancement, 87.57.nt |
| image reconstruction, 87.57.nf |
| image registration, 87.57.nj |
| segmentation, 87.57.nm |
| smoothing techniques, 87.57.np |
| image quality, 87.57.C- |
| image contrast, 87.57.cj |
| image distortion, 87.57.cp |
| noise in, 87.57.cm |
| spatial resolution, 87.57.cf |
| magnetic resonance imaging, 87.61.-c |
| anatomic imaging, 87.61.Jc |
| clinical applications, 87.61.Tg |
| flow imaging, 87.61.Np |
| functional MRI, 87.19.lf, 87.61.Qr |
| instrumentation for, 87.61.Ff |
| in neuroscience, 87.19.lf |
| pulse sequences in, 87.61.Hk |
| theory of, 87.61.Bj |
| nuclear medicine imaging, 87.57.U- |
| conventional imaging, 87.57.ue |
| dosimetry in, 87.57.uq |
| PET, 87.57.uk |
| radiopharmaceuticals in, 87.57.uk |
| SPECT, 87.57.uh |
| optical, of neuronal activity, 87.19.lh |
| thermography, 87.63.Hg |
| ultrasonography, 87.63.D- |
| Doppler imaging, 87.63.dk |
| ultrasonographic imaging, 87.63.dh |
| visual imaging, 87.63.L- |
| image enhancement, 87.63.lm |
| image perception, 87.63.lj |
| laser imaging in, 87.63.lt |
| transillumination in, 87.63.lp |
| x-ray imaging, 87.59.-e |
| angiography, 87.59.Dj |
| fluoroscopy, 87.59.C- |
| mammography, 87.59.E- |
| x-ray radiography, 87.59.B- |
| MEG, in neuroscience, 87.19.le |
| Meissner effect, 74.25.Ha |
| Melting, 64.70.dj |
| Melts |
| crystal growth from, 81.10.Fq |
| film deposition from, 81.15.Lm |
| Melt-textured superconductors, 74.81.Bd |
| Membrane proteins, 87.14.ep |
| Membranes |
| in electrochemistry, 82.45.Mp |
| structural acoustics of, *43.40.Dx |
| structural mechanics of, 46.70.Hg |
| in subcellular structure, 87.16.D- |
| assembly of, 87.16.dr |
| domains and rafts, 87.16.dt |
| dynamics and fluctuations, 87.16.dj |
| mechanical properties and rheology of, 87.16.dm |
| structure of, 87.16.dt |
| transport processes, 87.16.dp |
| Memory, neuroscience of, 87.19.lv |
| Memory devices |
| magnetic, 85.70.-w, 85.75.-d |
| optical, 42.79.Vb |
| superconducting, 85.25.Hv |
| MEMS, 85.85.+j |
| in biomedical engineering, 87.85.Ox |
| flows in, 47.61.Fg |
| Mercury (planet), 96.30.Dz |
| Mergers (galaxies), 98.65.Fz |
| MESFET, 85.30.Tv |
| Mesic nuclei, 21.85.+d |
| Mesonic atoms and molecules, 36.10.Gv |
| Meson-meson interactions, 13.75.Lb |
| Mesons |
| bottom mesons, 14.40.Nd |
| charmed mesons, 14.40.Lb |
| hadronic decays of, 13.25.-k |
| exotic mesons, 14.40.Rt |
| leptonic decays of, 13.20.-v |
| light mesons, 14.40.Be |
| in nuclear matter, 21.65.Jk |
| production by photons and leptons, 13.60.Le |
| properties of, 14.40.-n |
| reactions and scattering induced by, 25.80.-e |
| strange mesons, 14.40.Df |
| Mesophase rheology (liquid crystals), 83.80.Xz |
| Mesoscopic systems |
| electronic transport in, 73.23.-b, 73.63.-b |
| electron states and collective excitations in,
73.21.-b |
| optical properties of, 78.67.-n |
| structure and nonelectronic properties of, 68.65.-k |
| superconducting, 74.78.Na |
| Mesosphere, 92.60.hc |
| Mesozoic period, *91.70.D-, 91.70.Dh |
| Metal-based composites, 81.05.Ni |
| Metal-insulator-metal structures, 73.40.Rw |
| Metal-insulator-semiconductor structures, 73.40.Qv |
| Metal-insulator transition, 71.30.+h |
| Metallic glasses |
| electronic structure of, 71.23.Cq |
| synthesis of, 81.05.Kf |
| Metallization, integrated circuits, 85.40.Ls |
| Metal-metal contacts, 73.40.Jn |
| Metal-nonmetal contacts, 73.40.Ns |
| Metals |
| amorphous (transport properties), 72.15.Cz |
| band structure of, 71.20.Be, 71.20.Dg, 71.20.Eh,
71.20.Gj |
| diamagnetism and paramagnetism in, 75.20.En |
| equations of state, 64.30.Ef |
| impurity and defect absorption in, 78.40.Kc |
| impurity and defect levels in, 71.55.Ak |
| infrared spectra, 78.30.Er |
| liquid |
| electrical and thermal conduction, 72.15.Cz |
| electronic structure, 71.22.+i |
| structure of, 61.25.Mv |
| mass renormalization in, 71.38.Cn |
| in material science, 81.05.Bx |
| materials for magnetotransport, 75.47.Np |
| metallic surfaces, 68.47.De |
| nonelectronic thermal conduction in, 66.70.Df |
| phase diagrams of, 81.30.Bx |
| photoemission and photoelectron spectra, 79.60.Bm |
| radiation effects on, 61.82.Bg |
| Raman spectra of, 78.30.Er |
| self-diffusion in, 66.30.Fq |
| solid-solid transitions, 64.70.kd |
| spin polarized transport in, 72.25.Ba |
| structure of |
| amorphous, 61.43.Dq |
| crystalline, 61.66.Bi |
| superconducting, 74.70.Ad |
| surface structure of, 68.35.bd |
| thin films |
| electrical conductivity of, 73.61.At |
| optical properties of, 78.66.Bz |
| transport processes in, 72.15.-v |
| visible and ultraviolet spectra of, 78.40.Kc |
| Metal-semiconductor-metal structures, 73.40.Sx |
| Metal vapor lasers, 42.55.Lt |
| Metamagnetism, 75.30.Kz |
| Metamaterials, 81.05.Xj, 78.67.Pt |
| Metastable phases, 64.60.My |
| Meteorites, 96.30.Za |
| Meteorological factors |
| in acoustical noise propagation, *43.50.Vt |
| in atmospheric optics, 42.68.Bz, 42.68.Ge, 42.68.Jg |
| in atmospheric sound, *43.28.Fp |
| Meteorology, 92.60.-e |
| hydrometeorology, 92.40.Zg |
| polar, 92.60.Uy |
| tropical, 92.60.Ox |
| volcanic effects, 92.60.Zc |
| Meteors, 96.30.Za |
| meteor-trail physics, 94.20.Xa |
| Methane |
| as natural gas fuel for advanced vehicles, 88.85.mf |
| from landfills, 88.20.dv |
| fuel from biomass, 88.20.fq |
| methane production |
| from anaerobic digestion, 88.20.gh |
| from decaying organic matter, 88.20.gf |
| from Fischer-Tropsch liquids, 88.20.gc |
| Methanol (fuel from biomass), 88.20.fg |
| Metrology, 06.20.-f |
| laser applications, 42.62.Eh |
| MHD modes (magnetic confinement), 52.55.Tn |
| Micelles, 82.70.Uv |
| reactions in, 82.33.Nq |
| rheology of, 83.80.Qr |
| Microcavity and microdisk lasers, 42.55.Sa |
| Microdosimetry, 87.53.Bn |
| Microelectromechanical systems (MEMS), 85.85.+j |
| in biomedical engineering, 87.85.Ox |
| flows in, 47.61.Fg |
| Microelectronics, 85.40.-e |
| superconducting circuits, 85.25.Hv |
| vacuum, 85.45.-w |
| Microemulsions |
| complex fluids, 47.57.jb |
| interfacial properties of, 68.05.Gh |
| Microgels (rheology), 83.80.Kn |
| Microgravity environments |
| for crystal growth, 81.10.Mx |
| materials testing in, 81.70.Ha |
| Microlensing techniques (astronomy), 95.75.De |
| Micromachining |
| in biomedical engineering, 87.85.Va |
| in microelectronics, 85.40.Hp |
| Micromanipulators |
| in biophysics and biomedical engineering, 87.80.Fe,
87.85.Uv |
| Micromasers, 42.50.Pq |
| Micromechanical devices, 07.10.Cm |
| Micromixing (micro- and nanoscale flow), 47.61.Ne |
| Microorganisms |
| bacterial diseases, 87.19.xb |
| in sea water, 92.20.Jt, *92.20.jb |
| swimming of, 47.63.Gd |
| Microparticles |
| magnetic materials, 75.50.Tt |
| optical properties of, 78.66.Vs |
| Microphones, 43.38.Kb |
| Microscopy |
| acoustical, *43.35.Sx, *43.58.Ls |
| atomic force |
| in biophysics, 87.64.Dz |
| instrumentation for, 07.79.Lh |
| in structure determination, 68.37.Ps |
| electron |
| in biophysics, 87.64.Ee |
| in dislocation observations, 61.72.Ff |
| instrumentation for, 07.78.+s |
| in structure determination, 68.37.Ef, 68.37.Hk,
68.37.Lp, 68.37.Nq |
| field-ion and field emission |
| instrumentation for, 07.78.+s |
| in structure determination, 68.37.Vj |
| friction force, 07.79.Sp |
| magnetic force |
| instrumentation for, 07.79.Pk |
| in structure determination, 68.37.Rt |
| optical |
| in biophysics, 87.64.M- |
| conventional, 07.60.Pb |
| near-field scanning, 07.79.Fc |
| scanning tunneling |
| in biophysics, 87.64.Dz |
| instrumentation for, 07.79.Fc |
| in structure determination, 68.37.Ef |
| x ray |
| instrumentation for, 07.85.Tt |
| of surfaces, interfaces, and thin films, 68.37.Yz |
| Microstructure |
| crystals, 61.72.-y |
| liquid crystals, 61.30.Cz |
| materials treatment effects on, 81.40.-z |
| by solidification, 81.30.-t |
| Microtubules |
| in subcellular structure and processes, 87.16.Ka |
| Microwave circuits, 84.40.Dc |
| integrated, 84.40.Lj |
| Microwave optical double resonance spectroscopy,
33.40.+f |
| Microwave radiation |
| effects on biological systems, 87.50.S- |
| interactions with condensed matter, 78.70.Gq |
| in plasma, 52.25.Os |
| plasma heating by, 52.50.Sw |
| receivers and detectors, 07.57.Kp |
| sources of, 07.57.Hm |
| therapeutic applications, 87.50.ux |
| wave propagation, 41.20.Jb, 84.40.-x |
| Microwave spectra |
| astronomical observations, 95.85.Bh |
| of atoms, 32.30.Bv |
| of molecules, 33.20.Bx |
| in chemical analysis, 82.80.Ha |
| Microwave spectrometers, 07.57.Pt |
| Microwave technology, 84.40.-x |
| Microwave tubes, 84.40.Fe |
| Mid-ocean ridges |
| geochemical processes in, *91.67.ff |
| in marine geology, 91.50.Rt |
| seismology of, 91.30.Hc |
| in volcanology, 91.40.St |
| Mie scattering, 42.25.Fx, 42.68.Mj |
| Military technology, 89.20.Dd |
| Milky Way, 98.35.-a |
| solar neighborhood, 98.35.Pr |
| Millimeter wave technology, 84.40.-x |
| Milling, 81.20.Wk |
| Mineralogy, 91.65.-n |
| fluid flow, 91.65.My |
| metamorphism, 91.65.Pj, 91.65.Qr |
| Moon, 96.20.Dt |
| pressure-temperature-time paths, 91.65.Lc |
| Minerals |
| biogenic magnetic, 91.25.fa |
| crystal chemistry, 91.65.An |
| isotopic composition, 91.65.Dt |
| magnetic and electrical properties, 91.25.F-,
91.60.Pn |
| major element composition, 91.67.Pq |
| occurrences and deposits, 91.65.Rg |
| permeability, 91.60.Np |
| physical properties of, 91.60.-x |
| trace elements, 91.67.Pq |
| Minisuperspace models, 04.60.Kz |
| Minor planets, 96.30.Ys |
| Mirrors |
| magnetic (plasma), 52.55.Jd |
| optical, 42.79.Bh |
| design, 42.15.Eq |
| Mitochondria, 87.16.Tb |
| Mixed conductivity, 72.60.+g |
| Mixed state (superconductivity), 74.25.Op |
| Mixed-valence solids, 71.28.+d, 75.20.Hr, 75.30.Mb |
| Mixers, electronic, 84.30.Qi |
| Mixing |
| fluids, 47.51.+a |
| granular systems, 45.70.Mg |
| materials processing (rheology), 83.50.Xa |
| microscale flows, 47.61.Ne |
| phase equilibria (condensed matter), 64.75.Ef |
| turbulent flow, 47.27.wj |
| Mixtures |
| Bose-Fermi mixtures, 67.60.Fp, 67.85.Pq |
| boson mixtures, 67.60.Bc |
| of helium-3 and helium-4, 67.60.-g |
| Mobility edges, 72.20.Ee |
| MOCVD, 81.15.Gh |
| chemistry of, 82.33.Ya |
| Mode coupling, in plasmas, 52.35.Mw |
| Mode locking, 42.60.Fc |
| Moderators (nuclear reactors), 28.41.Pa |
| Modulation doped field effect transistors (MODFET),
85.30.Tv |
| Modulation transfer functions |
| atmospheric optics, 42.68.-w |
| imaging and optical processing, 42.30.Lr |
| Modulators |
| electronic, 84.30.Qi |
| lasers, 42.60.Fc |
| optical, 42.79.Hp |
| MoirŽ patterns, 42.30.Ms |
| Moisture |
| in atmosphere, *92.60.J-, 92.60.Jq |
| measurement of, 07.07.Vx |
| in soil, 92.40.Lg |
| Molding, 81.20.Hy |
| Molecular beam epitaxy, 81.15.Hi |
| Molecular beams |
| in chemical reactions, 34.50.Lf |
| interactions with solids, 79.20.Rf |
| irradiation effects of, 61.80.Lj |
| sources and detectors of, 07.77.Gx, 37.20.+j |
| Molecular biophysics, 87.15.-v |
| Molecular clouds |
| in external galaxies, 98.58.Db |
| in the Milky Way, 98.38.Dq |
| Molecular clusters, 36.40.-c |
| Molecular collisions. see 34 |
| Molecular conformation, 33.15.Bh |
| of biomolecules, 87.15.hp |
| of macromolecules and polymers, 36.20.Ey |
| Molecular dynamics |
| correlation times in, 33.15.Vb |
| of macromolecules and polymers, 36.20.Ey |
| in rheology, 83.10.Mj |
| computer simulation of, 83.10.Rs |
| Molecular dynamics calculations |
| in atomic and molecular physics, 31.15.xv |
| in biological physics, 87.10.Tf, 87.15.ap |
| in electronic structure of solids, 71.15.Pd |
| in fluid dynamics, 47.11.Mn |
| in liquid structure modeling, 61.20.Ja |
| in mathematical physics, 02.70.Ns |
| in plasmas, 52.65.Yy |
| in structural modeling of disordered solids,
61.43.Bn |
| Molecular electronic devices, 85.65.+h |
| Molecular flows, 47.45.Dt |
| Molecular interactions |
| in astrophysics, 95.30.Ft |
| in biomolecules, 87.15.K- |
| Molecular liquids |
| structure of, 61.25.Em |
| Molecular moments, 33.15.Kr |
| Molecular nanostructures, fabrication of, 81.07.Nb |
| Molecular-orbital methods applied to |
| atoms and molecules, 31.15.xr |
| solids, 71.15.Ap |
| Molecular sieves, 82.75.-z |
| Molecular solids, 31.70.Ks |
| Molecular spectra, 33.20.-t |
| in astrophysics, 95.30.Ky |
| Molecular structure, 33.15.-e |
| Molecular weights (macromolecules and polymers),
36.20.Cw |
| Molecule manipulation |
| proteins and other biological molecules, 82.37.Rs |
| STM and AFM studies, 82.37.Gk |
| Molecule-molecule reactions, 82.30.Cf |
| Molecule-surface collisions, 34.35.+a, 79.20.Rf |
| Coulomb explosion, 79.77.+g |
| Molecules |
| in cavities, 37.30.+i |
| cooling and trapping of, 37.10.Mn, 37.10.Pq |
| scattering, 34.50.-s |
| from surfaces, 34.35.+a |
| surface characterization, 68.49.Df, |
| Molten-carbonate fuel cells (MCFC), 82.47.Lh |
| Molten salts, structure of, 61.20.Qg |
| Momentum conservation, 45.20.df |
| Monochromators, charged-particle, 41.85.Si |
| Monographs, 01.30.Ee |
| Monolayers, 68.18.-g, 68.47.Pe |
| in electrochemistry, 82.45.Mp |
| magnetic properties of, 75.70.Ak |
| Monolytic integrated circuits, 85.40.-e |
| Monopoles, magnetic, 14.80.Hv |
| Monte Carlo methods |
| in biological physics, 87.10.Rt, 87.15.ak, 87.16.af |
| disordered solids, 61.43.Bn |
| liquid structure, 61.20.Ja |
| in mathematical physics |
| applications of, 02.70.Uu |
| modifications of, 02.70.Tt |
| quantum Monte Carlo, 02.70.Ss |
| nuclear-reaction models, 24.10.Lx |
| nuclear structure, 21.60.Ka |
| plasma simulation, 52.65.-y |
| in probability theory and statistics, 02.50.Ng |
| radiation therapy, 87.55.K- |
| statistical physics and nonlinear dynamics, 05.10.Ln |
| in treatment strategy (medical physics), 87.55.K- |
| algorithms, 87.55.kd |
| applications, 87.55.kh |
| verification, 87.55.km |
| Moon, 96.20.-n |
| Morphogenesis, 87.17.Pq |
| MOS devices, 85.30.Tv |
| MOSFET, 85.30.Tv |
| Mšssbauer spectroscopy |
| in biophysics, 87.64.kx |
| in chemical analysis, 82.80.Ej |
| of molecules, 33.45.+x |
| of solids, 76.80.+y |
| in structure determination, 61.05.Qr |
| Motion (classical mechanics), 45.50.Dd |
| Motion sensors, 07.07.Df |
| Motor proteins, 87.16.Nn |
| Motors, 84.50.+d |
| Motor system diseases, 87.19.xe |
| MRI |
| in condensed matter, 76.60.Pc |
| in medical imaging, 87.61.-c |
| in neuroscience, 87.19.lf |
| M theory |
| strings and branes, 11.25.Yb |
| Multicellular phenomena, 87.18.Fx |
| Multicomponent plasmas, 52.27.Cm |
| Multidimensional NMR, 82.56.Fk |
| Multiferroics, 75.85.+t |
| multiferroic dielectric films, 77.55.Nv |
| Multilayers |
| electron states and collective excitations in,
73.21.Ac |
| magnetic properties of, 75.70.Cn |
| optical properties of, 78.67.Pt |
| structure and nonelectronic properties of, 68.65.Ac |
| superconducting, 74.78.Fk |
| Multinuclear NMR, 82.56.Hg |
| Multiphase flows, 47.55.-t |
| micro- and nanoscale flows, 47.61.Jd |
| Multiphoton absorption by surfaces, 79.20.Ws |
| Multiphoton ionization and excitation |
| atomic spectra, 32.80.Rm |
| molecular spectra, 33.80.Rv |
| in quantum optics, 42.50.Hz |
| Multiphoton microscopy in biophysics, 87.64.mn |
| Multiphoton processes, in photochemistry, 82.50.Pt |
| Multiple resonances (molecular spectroscopy),
33.40.+f |
| Multiple scattering (relativistic theory), 11.80.La |
| Multiplexers, 42.79.Sz |
| Multivariate analysis, 02.50.Sk |
| Muon-hadron scattering, 13.60.-r |
| Muonic atoms and molecules, 36.10.Ee |
| QED corrections, 31.30.jr |
| Muon-induced nuclear reactions, 25.30.Mr |
| Muonium, 36.10.Ee |
| chemical reactions, 82.20.Tr |
| Muons |
| in astronomical observations, 95.85.Ry |
| capture by nuclei, 23.40.-s |
| decays, 13.35.Bv |
| properties of, 14.60.Ef |
| scattering, 25.30.Mr |
| Muon spin rotation and relaxation, 76.75.+i |
| Muscles, 87.19.Ff |
| Musculoskeletal diseases, 87.19.xn |
| Musical sounds, analysis, synthesis and processing,
*43.75.Zz |
| Music and musical instruments, 43.75.+a, *43.75.-z |
| electronic, computer music, *43.75.Wx |
| wind instruments, *43.75.Pq, *43.75.Qr |
| Music recognition and classification (automatic),
*43.75.Xz |
| Nambu-Goldstone bosons, 14.80.Va |
| Nanoaggregates, optical properties of, 78.67.Sc |
| Nanocontacts |
| electronic transport in, 73.63.Rt |
| fabrication of, 81.07.Lk |
| Nanocrystalline materials |
| diffusion in, 66.30.Pa |
| in electrochemistry, 82.45.Yz |
| electronic structure of, 73.22.-f |
| electronic transport in, 73.63.Bd |
| fabrication, 81.07.Bc |
| magnetic, 75.50.Tt |
| mechanical properties of, 62.25.-g |
| optical properties of, 78.67.Bf |
| phase transitions in, 64.70.Nd |
| phonons or vibrational states, 63.22.Kn |
| radiation effects, 61.82.Rx |
| thermal properties of, 65.80.-g |
| Nanocrystals |
| optical properties, 78.67.Bf |
| phonons in, 63.22.Kn |
| structure of, 61.46.Hk |
| thermal properties, 65.80.-g |
| Nanodiffraction, 61.05.jm |
| Nanodots, 62.23.Eg |
| Nanodroplets, optical properties of, 78.67.Tf |
| Nanoelectromechanical systems, 85.85.+j |
| Nanoelectronic devices, 85.35.-p |
| Nanofabrication, methods of, 81.16.-c |
| Nanolithography, 81.16.Nd |
| Nanomicelles, optical properties of, 78.67.Ve |
| Nano-oxidation, 81.16.Pr |
| Nanoparticles |
| electronic structure of, 73.22.-f |
| magnetic properties of, 75.75.Fk |
| optical properties of, 78.67.Bf |
| phonons in, 63.22.-m |
| structure of, 61.46.Df |
| thermal properties of, 65.80.-g, 82.60.Qr |
| Nanoporous materials, optical properties of,
78.67.Rb |
| Nanopowders, 81.07.Wx |
| Nanorods |
| structure of, 61.46.Km |
| optical properties of, 78.67.Qa |
| Nanoscale flows, 47.61.-k |
| flows in MEMS and NEMS, 47.61.Fg |
| multiphase flows, 47.61.Jd |
| Nanoscale materials |
| electronic transport, 73.63.-b |
| fabrication and characterization, 81.07.-b |
| phonons in, 63.22.-m |
| structural transitions in, 64.70.Nd |
| structure of, 61.46.-w |
| Nanoscale pattern formation, 81.16.Rf |
| Nanoscale systems |
| brittleness, 62.25.Mn |
| electron states and collective excitations in,
73.21.-b |
| fracture, 62.25.Mn |
| mechanical properties, 62.25.-g |
| high-frequency properties, 62.25.Fg |
| low-frequency properties, 62.25.De |
| mechanical modes of vibration, 62.25.Fg |
| phase separation and segregation in, 64.75.Jk |
| structural classes of, 62.23.-c |
| in superconductivity, 74.78.Na |
| Nanosecond techniques, 06.60.Jn |
| Nanosheets, 62.23.Kn |
| Nanostructures |
| complex, 62.23.St |
| electronic transport in, 73.63.-b |
| electron states and collective excitations in,
73.21.-b |
| embedded in larger structures, 62.23.Pq |
| fabrication of, 81.07.-b |
| magnetic nanostructures fabrication , 75.75.Cd |
| femtochemistry of, 82.53.Mj |
| magnetic properties of, 75.75.-c |
| domain structures in nanoparticles, 75.75.Fk |
| dynamics of magnetic nanoparticles, 75.75.Jn |
| electronic structure of magnetic nanoparticles,
75.75.Lf |
| materials treatment effects on, 81.40.-z |
| optical properties of, 78.67.-n |
| patterned, 62.23.St |
| photoemission and photoelectron spectra of, 79.60.Jv |
| structure and nonelectronic properties of, 68.65.-k |
| superconducting, 74.78.Na |
| Nanotechnology |
| biomedical applications, 87.85.Qr, 87.85.Rs |
| methods of nanofabrication and processing, 81.16.-c |
| nanoelectromechanical systems, 85.85.+j |
| nanoelectronic devices, 85.35.-p |
| nanoscale materials and structures, 81.07.-b |
| Nanotubes |
| boron, 61.48.De |
| carbon, 61.48.De |
| devices, 85.35.Kt |
| electronic structure of, 73.22.-f |
| electronic transport in, 73.63.Fg |
| fabrication of, 81.07.De |
| optical properties of, 78.67.Ch |
| phonons in, 63.22.Gh |
| structure of, 61.46.Np, 61.48.De |
| thermal properties of, 65.80.-g |
| Nanowires, 62.23.Hj |
| fabrication, 81.07.Gf |
| phonons in, 63.22.Gh |
| structure of, 61.46.Km |
| optical properties of, 78.67.Uh |
| Narrow-band semiconductors (electron states),
71.28.+d |
| National laboratory facilities, 01.52.+r |
| Natural gas, 89.30.an |
| as fuel for advanced vehicles, 88.85.mf |
| Natural materials, rheology of, 83.80.Mc |
| Navier-Stokes equations, 47.10.ad |
| (n,d) reactions, 25.40.Hs |
| Near-field scanning optical microscopy, 68.37.Uv |
| in biophysics, 87.64.mt |
| instrumentation for, 07.79.Fc |
| Nebulae |
| in external galaxies, 98.58.-w |
| in Milky Way, 98.38.-j |
| solar, 96.10.+i |
| Negative-ion plasmas, 52.27.Cm |
| Negative resistance, 72.20.Ht, 73.50.Fq |
| Nematic liquid crystals |
| phase transitions in, 64.70.M- |
| rheology of, 83.80.Xz |
| structure of, 61.30.-v |
| NEMS |
| nanoelectronic devices, 85.85.+j |
| fabrication of, 81.07.Oj |
| flows in, 47.61.Fg |
| Neogene period, *91.70.bc |
| Neptune, 96.30.Rm |
| Neptunian satellites, 96.30.Td |
| trans-Neptunian objects, 96.30.Xa |
| Neutralinos, 14.80.Nb |
| Nerve cells, morphology of, 87.16.Mq |
| Networks |
| in phase transitions, 64.60.aq |
| Neural engineering, 87.85.Wc |
| Neural networks, 84.35.+i |
| acoustical, *43.60.Np |
| in applied neuroscience, 87.85.dq |
| in biological complexity, 87.18.Sn |
| in computers, 07.05.Mh |
| in neuroscience, 87.19.ll |
| optical, 42.79.Ta |
| for speech recognition, *43.72.Bs |
| Neural prosthetics, 87.85.E- |
| charge injection in, 87.85.ej |
| electrode stimulation in, 87.85.eg |
| tissue damage, 87.85.em |
| Neurons, 87.19.ll |
| Neurophysiology |
| of speech perception, *43.71.Qr |
| Neuroscience, 87.19.L- |
| applied, in biomedical engineering |
| brain-machine interface, 87.85.dd |
| cells on a chip, 87.85.dh |
| neural networks, 87.85.dq |
| physical models of neurophysiological processes,
87.85.dm |
| control theory and feedback in, 87.19.lr |
| of development and growth, 87.19.lx |
| EEG and MEG in, 87.19.le |
| encoding and decoding in, 87.19.ls |
| imaging in |
| MRI, anatomic and functional, 87.19.lf |
| optical imaging of neuronal activity, 87.19.lh |
| learning and memory, 87.19.lv |
| motor systems in, 87.19.lu |
| nervous system |
| axons, action potential propagation in, 87.19.lb |
| electrodynamics in, 87.19.ld |
| glia, 87.19.lk |
| neurons, models of, 87.19.ll |
| noise in, 87.19.lc |
| synapses, 87.18.Sn, 87.19.lg |
| synchronization in, 87.19.lm |
| neuronal network dynamics, 87.19.lj |
| neuronal wave propagation, 87.19.lq |
| pattern formation in, 87.19.lp |
| plasticity in, 87.19.lw |
| of sensory systems, 87.19.lt |
| Neutral currents, 12.15.Mm |
| Neutral Higgs bosons, 14.80.Ec |
| Neutrino oscillations, 14.60.Pq |
| Neutrinos |
| in astronomical observations, 95.85.Ry |
| cosmic rays |
| galactic, 98.70.Sa |
| decays of, 13.35.Hb |
| interactions, 13.15.+g |
| mass and mixing, 14.60.Pq |
| in nonstandard model, 14.60.St |
| in nuclear scattering, 25.30.Pt |
| ordinary, 14.60.Lm |
| right-handed, 14.60.St |
| solar, 26.65.+t, 96.60.Jw |
| Neutron diffraction |
| in biophysics, 87.64.Bx |
| in structure determination, 61.05.fm |
| Neutron dosimetry, 87.53.Bn |
| Neutron-hyperon interactions, 13.75.Ev |
| Neutron-induced fission, 25.85.Ec |
| Neutron imaging |
| neutron physics, 28.20.Pr |
| in solid state structure determination, 61.05.Tv |
| in medical imaging, 87.57.Va |
| Neutron interferometry, 03.75.Dg |
| Neutron matter |
| nuclear matter, 21.65.Cd |
| Neutron-meson interactions, 13.75.-n, 13.85.-t |
| Neutron-neutron interactions, 13.75.Cs, 13.85.-t |
| Neutron optics, 03.75.Be |
| Neutron-pion interactions, 13.75.Gx, 13.85.-t |
| Neutron-proton interactions, 13.75.Cs, 13.85.-t |
| Neutron reflectometry |
| in structure determination, 61.05.fj |
| Neutrons |
| absorption, 28.20.Fc |
| diffusion and moderation, 28.20.Gd |
| distribution in nuclei, 21.10.Gv |
| properties of, 14.20.Dh |
| radiation damage by, 61.80.Hg |
| sources of, 29.25.Dz |
| Neutron scattering, 28.20.Cz |
| elastic, 25.40.Dn |
| inelastic |
| condensed matter, 78.70.Nx |
| in nuclear reactions, 25.40.Fq |
| radiative capture, 25.40.Lw |
| spin arrangements determination, 75.25.-j |
| in structure determination, 61.05.fg |
| Neutron shielding |
| in medical physics, 87.55.N- |
| nuclear engineering, 28.20.Fc |
| Neutron spectroscopy, 29.30.Hs |
| Neutron stars, 97.60.Jd |
| core, 26.60.Dd |
| crust, 26.60.Gj |
| equations of state, 26.60.Kp |
| nuclear matter aspects of, 26.60.-c |
| Newtonian mechanics, 45.20.D- |
| NEXAFS |
| in structure determination, 61.05.cj |
| Nightglow, 92.60.hw |
| Niobates |
| dielectric materials, 77.84.Bw |
| niobate-based dielectric films, 77.55.fj |
| superconductors, 74.70.Ad |
| Nitrides |
| dielectric materials, 77.84.Bw |
| refractories, 81.05.Je |
| superconductors, 74.70.Ad |
| Nitrogen cycling (biogeosciences), *91.62.La |
| NMR imaging |
| in condensed matter, 76.60.Pc |
| in medical imaging, 87.61.-c |
| in neuroscience, 87.19.lf |
| Noise |
| acoustic, *43.50.-x, 43.50.+y |
| underwater, *43.30.Nb |
| in biological complexity, 87.18.Tt |
| electrical circuits, 07.50.Hp |
| electronic |
| bulk matter, 72.70.+m |
| thin films, 73.50.Td |
| fluctuation phenomena, 05.40.Ca |
| in integrated circuits, 85.40.Qx |
| in lasers, 42.60.Mi |
| quantum, 42.50.Lc |
| superconductivity fluctuations, 74.40.De |
| turbulence-generated, 47.27.Sd |
| Nondestructive testing |
| of materials, 81.70.-q |
| in structural acoustics, *43.40.Le |
| Nonequilibrium processes |
| chemical reaction kinetics, 82.40.Bj |
| gas dynamics, 47.70.Nd |
| in superconductivity, 74.40.Gh |
| thermodynamics, 05.70.Ln |
| Non-Fermi-liquid ground states, 71.10.Hf |
| Nonhomogeneous flows, 47.55.-t |
| Nonlinear acoustics, *43.25.-x, 43.25.+y |
| Nonlinear dynamics, 05.45.-a |
| Nonlinear guided waves, 42.65.Tg |
| Nonlinear (nonlocal) field theory, 11.10.Lm |
| Nonlinear optical materials, 42.70.Mp, 42.70.Nq |
| Nonlinear optical spectroscopy |
| coherent, 78.47.jh |
| four-wave mixing spectroscopy, 78.47.nj |
| high resolution, 78.47.N- |
| hole burning spectroscopy, 78.47.nd |
| Nonlinear optics, 42.65.-k |
| with polymers, 82.35.Ej |
| Nonlinear symmetries, 11.30.Na |
| Nonlinear waveguides, optical, 42.65.Wi |
| Nonmetals |
| equations of state, 64.30.Jk |
| diamagnetism and paramagnetism in, 75.20.Ck |
| ferromagnetic materials, 75.50.Dd |
| Non-neutral plasmas, 52.27.Jt |
| Non-Newtonian fluid flows, 47.50.-d |
| Nonradiative transitions, 32.50.+d, 33.50.-j |
| Non-standard-model particles |
| Higgs bosons |
| charged, 14.80.Fd |
| neutral, 14.80.Ec |
| supersymmetric, 14.80.Da |
| neutrinos, 14.60.St |
| production in electron-positron interactions,
13.66.Hk |
| Normalization coefficients, asymptotic, 21.10.Jx |
| North America, 93.30.Hf |
| Novae, 97.30.Qt, 97.80.Gm |
| nuclear physics aspects of, 26.50.+x |
| nucleosynthesis in, 26.30.-k |
| Nozzle flow, 47.60.Kz |
| (n,p) reactions, 25.40.Kv |
| (N,t) and (N,3He), reactions, 25.40.Hs |
| Nuclear astrophysics |
| Big Bang nucleosynthesis, 26.35.+c |
| cosmic ray nucleosynthesis, 26.40.+r |
| hydrostatic stellar nucleosynthesis, 26.20.-f |
| nuclear matter aspects of neutron stars, 26.60.-c |
| nucleosynthesis in novae and supernovae, 26.30.-k |
| solar neutrinos, 26.65.+t |
| Nuclear binding energy, 21.10.Dr |
| Nuclear charge, 21.10.Ft |
| Nuclear collective resonances, 24.30.Cz, 24.30.Gd |
| Nuclear Coulomb effects, 21.10.Sf |
| Nuclear data analysis, 29.85.-c |
| Nuclear decay. See 23 |
| Nuclear deformation |
| nucleon distribution, 21.10.Gv |
| Nuclear emulsions, 29.40.Rg |
| Nuclear energy levels, 21.10.-k |
| collective levels, 21.10.Re |
| electromagnetic transitions |
| level energies, 23.20.Lv |
| level density, 21.10.Ma |
| lifetimes, widths, 21.10.Tg |
| single-particle levels, 21.10.Pc |
| Nuclear engineering |
| fission reactors, 28.41.-i, 28.50.-k |
| fusion reactors, 28.52.-s |
| isotope separation and enrichment, 28.60.+s |
| neutron capture gamma rays, 28.20.Np |
| neutron shielding, 28.20.Fc |
| thermal neutron cross sections, 28.20.Ka |
| Nuclear explosions, 28.70.+y |
| Nuclear fission, 24.75.+i, 25.85.-w |
| Nuclear fission power, 89.30.Gg |
| Nuclear forces, 21.30.-x |
| Nuclear form factors, 13.40.Gp, 21.10.Ft |
| Nuclear fusion power, 89.30.Jj |
| Nuclear g-factors, 21.10.Ky |
| Nuclear giant resonances, 24.30.Cz |
| Nuclear hole states, 21.10.Pc |
| Nuclear magnetic resonance (NMR) |
| in biophysics, 87.64.kj, 87.80.Lg |
| in chemical physics, 82.56.-b |
| in condensed matter, 76.60.-k |
| defect structure determinations by, 61.72.Hh |
| in molecules, 33.25.+k |
| in structure determination, 61.05.Qr, 82.56.Ub |
| in superconductors, 74.25.nj |
| Nuclear mass, 21.10.Dr |
| Nuclear matter, 21.65.-f |
| asymmetric matter, 21.65.Cd |
| equations of state, 21.65.Mn |
| mesons in, 21.65.Jk |
| neutron matter, 21.65.Cd |
| quark matter, 21.65.Qr |
| Nuclear models, 21.60.-n |
| cluster models, 21.60.Gx |
| collective models, 21.60.Ev |
| shell model, 21.60.Cs |
| Nuclear moments, 21.10.Ky |
| Nuclear morphology |
| in subcellular structure and processes, 87.16.Zg |
| Nuclear orientation devices, 29.30.Lw |
| Nuclear Overhauser effect, 33.35.+r |
| Nuclear parity, 21.10.Hw |
| Nuclear power |
| nuclear reactors |
| fission reactors, 28.41.-i |
| accidents, 28.41.Te |
| cooling and heat recovery, 28.41.Fr |
| decommissioning, dismantling, 28.41.Te |
| design, 28.41.Ak |
| fuel cycles, 28.41.Vx |
| fuel elements, 28.41.Bm |
| instrumentation, 28.41.Rc |
| moderators, 28.41.Pa |
| reactor coolants, 28.41.Fr |
| reactor control systems, 28.41.My |
| radiation monitoring, 28.41.Te |
| radioactive wastes, 28.41.Kw |
| safety, 28.41.Te |
| shielding, 28.41.Qb |
| waste disposal, 28.41.Kw |
| theory, and simulation, 28.41.Ak |
| types of |
| auxiliary generators, 28.50.Ma |
| breeder reactors, 28.50.Ft |
| power reactors, 28.50.Hw |
| propulsion reactors, 28.50.Ky |
| research reactors, 28.50.Dr |
| fusion reactors, 28.52.-s |
| components, 28.52.Lf |
| fueling, 28.52.Cx |
| heating and ignition, 28.52.Cx |
| instrumentation, 28.52.Lf |
| materials for, 28.52.Fa |
| safety, 28.52.Nh |
| Nuclear properties, 21.10.-k |
| binding energies, 21.10.Dr |
| charge distribution, 21.10.Ft |
| nucleon distribution and halo features, 21.10.Gv |
| of specific nuclei (see 27) |
| spin and parity, 21.10.Hw |
| Nuclear quadrupole resonance |
| in condensed matter, 76.60.Gv |
| in molecules, 33.25.+k |
| Nuclear reactions |
| 2H-induced reactions,
25.45.-z |
| 3H-, 3He -, and 4He -induced reactions,
25.55.-e |
| antiproton-induced, 25.43.+t |
| direct, 24.50.+g |
| fission reactions |
| charged-particle-induced, 25.85.Ge |
| general properties of, 24.75.+i |
| neutron-induced, 25.85.Ec |
| photofission, 25.85.Jg |
| spontaneous, 25.85.Ca |
| fusion-fission reactions, 25.70.Jj |
| fusion reactions |
| 2H-induced, 25.45.-z |
| low energy heavy-ion reactions, 25.70.Jj |
| unstable-nuclei-induced, 25.60.Pj |
| heavy-ion reactions |
| low and intermediate energy, 25.70.-z |
| involving few nucleons, 25.10.+s |
| lepton-induced, 25.30.-c |
| electron scattering |
| elastic, 25.30.Bf |
| inelastic, 25.30.Dh, 25.30.Fj |
| electroproduction, 25.30.Rw |
| muon-induced, 25.30.Mr |
| neutrino-induced, 25.30.Pt |
| positron-induced, 25.30.Hm |
| meson- and hyperon-induced, 25.80.-e |
| models of, 24.10.-i |
| nucleon-induced, 25.40.-h |
| photonuclear reactions, 25.20.-x |
| polarization in, 24.70.+s |
| resonance reactions, 24.30.-v |
| surrogate reactions, 24.87.+y |
| unstable-nuclei-induced, 25.60.-t |
| charge-exchange reactions, 25.60.Lg |
| fusion reactions, 25.60.Pj |
| radiative capture in, 25.60.Tv |
| Nuclear reactors |
| fission reactors, 28.41.-i |
| accidents, 28.41.Te |
| cooling and heat recovery, 28.41.Fr |
| decommissioning, dismantling, 28.41.Te |
| design, 28.41.Ak |
| fuel cycles, 28.41.Vx |
| fuel elements, 28.41.Bm |
| instrumentation, 28.41.Rc |
| moderators, 28.41.Pa |
| reactor coolants, 28.41.Fr |
| reactor control systems, 28.41.My |
| radiation monitoring, 28.41.Te |
| radioactive wastes, 28.41.Kw |
| safety, 28.41.Te |
| shielding, 28.41.Qb |
| waste disposal, 28.41.Kw |
| theory, and simulation, 28.41.Ak |
| types of |
| auxiliary generators, 28.50.Ma |
| breeder reactors, 28.50.Ft |
| power reactors, 28.50.Hw |
| propulsion reactors, 28.50.Ky |
| research reactors, 28.50.Dr |
| fusion reactors, 28.52.-s |
| components, 28.52.Lf |
| fueling, 28.52.Cx |
| heating and ignition, 28.52.Cx |
| instrumentation, 28.52.Lf |
| materials for, 28.52.Fa |
| safety, 28.52.Nh |
| Nuclear shell model, 21.60.Cs |
| Nuclear tests of fundamental interactions and
symmetries, 24.80.+y |
| Nuclear wastes |
| waste disposal, 28.41.Kw |
| Nucleation |
| chemical thermodynamics of, 82.60.Nh |
| in crystal growth, 81.10.Aj |
| in film growth, 68.55.A- |
| in phase transitions, 64.60.Q- |
| Nucleic acids, 87.14.G- |
| DNA, 87.14.gk |
| nucleotides, 87.14.gf |
| RNA, 87.14.gn |
| Nucleon decays, 13.30.-a, 14.20.Dh |
| Nucleon distribution (nuclear structure), 21.10.Gv |
| Nucleon-hyperon interactions, 13.75.Ev |
| Nucleon-induced reactions, 25.40.-h |
| Nucleon-kaon interactions, 13.75.Jz |
| Nucleon-meson interactions, 13.75.Gx, 13.85.-t |
| Nucleon-nucleon interactions, 13.75.Cs, 13.85.-t |
| Nucleon-pion interactions, 13.75.Gx, 13.85.-t |
| Nucleons, 14.20.Dh |
| Nucleosynthesis |
| Big Bang, 26.35.+c |
| cosmic ray, 26.40.+r |
| in cosmology, 98.80.Ft |
| in late stellar evolution, 26.20.Np |
| stellar, 97.10.Cv |
| hydrostatic, 26.20.-f |
| in novae, supernovae, 26.30.-k |
| Nucleotides, 87.14.gf |
| Nucleus, compound |
| in heavy-ion reactions, 25.70.Gh |
| statistical theory of, 24.60.Dr |
| Number theory, 02.10.De |
| Numerical methods (mathematics), 02.60.-x |
| Obduction zones (tectonophysics), 91.45.Hc |
| Obituaries, 01.60.+q, *43.05.Sf |
| Observatories, 95.45.+i |
| Occultations, 95.10.Gi |
| Ocean basin thermometry, *43.30.Qd |
| Ocean biology, *92.20.J-, 92.20.Jt |
| Ocean bottom processes, 92.10.Oc, 92.20.Iv |
| Ocean chemistry, *92.20.C-, 92.20.Cm |
| Ocean drilling, 91.50.Sn |
| Ocean/Earth/atmosphere interaction, 91.10.Vr |
| Oceanic crust |
| chemical composition, *91.67.gf |
| seismology of, 91.30.Ye |
| Oceanic plateaus, 91.50.Uv |
| Oceanographic regions, 93.30.-w |
| Oceanography |
| acoustical methods in, *43.30.Pc |
| circulation and currents, 92.10.A- |
| Eastern and Western boundary currents, 92.10.ah |
| coastal, 92.10.Sx |
| eddies, 92.10.ak |
| El Nino Southern Oscillation, 92.10.am |
| jets, 92.10.Ty |
| overflows, 92.10.Ua |
| upwelling, 92.10.Zf |
| Ocean optics, 42.68.Xy |
| Oceans |
| biology of, *92.20.J-, 92.20.Jt |
| anoxic environments, 92.20.Hs |
| bacteria, 92.20.Jt, *92.20.jb |
| hypoxic environments, 92.20.Ox |
| nutrients and nutrient cycling, 92.20.Jt, *92.20.ju |
| plankton, 92.20.Jt, *92.20.jf, *92.20.jh |
| symbiosis, 92.20.Jt, *92.20.jd |
| chemistry of, *92.20.C-, 92.20.Cm |
| trace elements, 92.20.Wx |
| energy extraction, 92.05.Jn |
| fine structure and microstructure of, 92.10.Ns |
| fog, 92.10.Xc |
| global changes in, 92.70.Jw |
| long term variability, 92.05.Ek |
| ocean/atmosphere interactions, 92.60.Cc |
| optics of, 42.68.Xy |
| radioactivity, 92.20.Td |
| sedimentation, 92.20.Vn |
| Ocean waves, *92.10.H-, 92.10.Hm |
| capillary waves, *92.10.hd |
| Kelvin waves, *92.10.hh |
| Rossby waves, *92.10.hf |
| tsunamis, *92.10.hl |
| ODMR, 76.70.Hb |
| Ohmic contacts, 73.40.Cg |
| Oil (fossil fuel), 89.30.aj |
| Oil prospecting, 93.85.Tf |
| Olfaction (sensory systems), 87.19.lt |
| One-dimensional conductivity, 72.15.Nj |
| Oort cloud, 96.50.Hp |
| Operational calculus, 02.30.Vv |
| Operator theory, 02.30.Tb |
| Ophiolites (marine geology), 91.50.Vx |
| Ophthalmic optics, 42.66.Ct |
| Optical absorption |
| in atmosphere, 42.68.Ay, 92.60.Ta |
| in atoms, 32.30.Jc |
| in biomolecules, 87.15.M- |
| in condensed matter, 78.20.Ci |
| in molecules, 33.20.Kf |
| in plasma, 52.25.Os |
| wave propagation, 42.25.Bs |
| Optical activity |
| in bulk materials and thin films, 78.20.Ek |
| in molecules, 33.55.+b |
| Optical angular momentum (quantum optics), 42.50.Tx |
| Optical beam splitters, 42.79.Fm |
| Optical bistability, 42.65.Pc |
| Optical coatings, 42.79.Wc |
| Optical collimators, 42.79.Ag |
| Optical communication systems, 42.79.Sz |
| Optical computers, 42.79.Ta |
| Optical constants, 78.20.Ci |
| Optical cooling and trapping |
| of atoms, 37.10.Jk |
| in biophysics, 87.80.Cc |
| of molecules, 37.10.Mn, 37.10.Pq |
| Optical correlators, 42.79.Hp |
| Optical couplers, 42.82.Et |
| fiber-optical, 42.81.Qb |
| non-fiber-optical, 42.79.Gn |
| Optical design, 42.15.Eq |
| Optical devices, 42.79.-e |
| Optical disks, 42.79.Vb |
| Optical double-resonance spectroscopy, 33.40.+f |
| Optical elements, 42.79.-e |
| Optical fibers, 42.81.-i |
| fiber networks, 42.81.Uv |
| Optical filters, 42.79.Ci |
| Optical frequency converters, 42.79.Nv |
| Optical frequency synthesizers, 42.62.Eh |
| Optical instabilities (quantum optics), 42.65.Sf |
| Optical instruments, 07.60.-j |
| Optically detected magnetic resonance (ODMR),
76.70.Hb |
| Optical materials, 42.70.-a |
| Optical methods in rheology, 83.85.Ei |
| Optical mixing, 42.65.Hw |
| Optical models (nuclear reactions), 24.10.Ht |
| Optical modulators, 42.79.Hp |
| Optical nutation |
| in quantum optics, 42.50.Md |
| in ultrafast spectroscopy, 78.47.jp |
| Optical processors, 42.79.Hp |
| Optical properties |
| of bulk materials and thin films, 78.20.-e |
| birefringence, 78.20.Fm |
| electro-optical effects, 78.20.Jq |
| magneto-optical effects, 78.20.Ls |
| piezo-, elasto-optical effects |
| acousto-optical effects, 78.20.hb |
| elasto-optical effects, 78.20.hb |
| photoelastic effects, 78.20.hb |
| piezo-optical effects, 78.20.hb |
| optical activity, 78.20.Ek |
| optical constants, 78.20.Ci |
| theory and models of, 78.20.Bh |
| thermo-optic effects, 78.20.N- |
| photopyroelectric effects, 78.20.nc |
| photothermal effects, 78.20.nb |
| thermophotonic effects, 78.20.nd |
| of clusters, 36.40.Vz |
| of fluid materials, 78.15.+e |
| of gases, 51.70.+f |
| of graphene, 78.67.Wj |
| of liquid crystals, 78.15.+e |
| materials treatment effects on, 81.40.Tv |
| of multilayers, 78.67.Pt |
| of nanoscale materials and structures |
| nanoaggregates, 78.67.Sc |
| nanoclusters, 78.67.Bf |
| nanocrystals, 78.67.Bf |
| nanodroplets, 78.67.Tf |
| nanomicelles, 78.67.Ve |
| nanoparticles, 78.67.Bf |
| nanoporous materials, 78.67.Rb |
| nanotubes, 78.67.Ch |
| nanowires, 78.67.Uh |
| quantum dots, 78.67.Hc |
| quantum wells, 78.67.De |
| quantum wires, 78.67.Lt |
| new topics in, 78.90.+t |
| of photonic structures, 78.67.Pt |
| of plasma, 52.70.Kz |
| of rocks and minerals, 91.60.Mk |
| of superconductors, 74.25.Gz |
| of supercritical fluids, 78.15.+e |
| of superlattices, 78.67.Pt |
| of surfaces, 78.68.+m |
| Optical pumping |
| of atoms, 32.80.Xx |
| of molecules, 33.80.Be |
| Optical radars, 42.79.Qx |
| Optical scanners, 42.79.Ls |
| Optical sensors, 07.07.Df, 42.79.Pw |
| Optical storage |
| devices, 42.79.Vb |
| media, 42.70.Ln |
| Optical switches, 42.79.Ta |
| Optical systems, 42.79.-e |
| design of, 42.15.Eq |
| Optical testing, 42.87.-d |
| Optical tomography, 42.30.Wb |
| Optical transfer function, 42.30.Lr |
| Optical waveguides, 42.82.Et |
| fiber, 42.81.Qb |
| nonfiber, 42.79.Gn |
| nonlinear, 42.65.Wi |
| Optical workshop techniques, 42.86.+b |
| Optic nerve, 42.66.Ew |
| Optics. See 42 |
| Optoelectronic devices, 85.60.-q |
| Optogalvanic spectroscopic methods, 82.80.Kq |
| Orbits (astronomy) |
| comets, 96.25.De |
| determination of, 95.10.Eg |
| fluid planets, 96.15.De |
| solid surface planets, 96.12.De |
| Order-disorder transitions, 64.60.Cn, 81.30.Hd |
| crystallographic aspect, 61.50.Ks |
| materials science aspects, 81.30.Hd |
| at surfaces and interfaces, 68.35.Rh |
| Ordovician period, *91.70.fk |
| Organelles, 87.16.Tb |
| Organic-inorganic hybrid nanostructures, 81.07.Pr |
| Organic materials |
| absorption and reflection spectra, 78.40.Me |
| dielectric properties, 77.84.Jd |
| in electrochemistry, 82.45.Wx |
| electronic structure, 71.20.Rv |
| EPR spectra, 76.30.-v |
| fabrication, 81.05.Lg |
| infrared and Raman spectra, 78.30.Jw |
| noncuprate superconductors, 74.70.Kn |
| optical materials, 42.70.Jk |
| photoemission and photoelectron spectra, 79.60.Fr |
| photoluminescence, 78.55.Kz |
| radiation effects, 61.82.Pv |
| semiconductors, 81.05.Fb |
| superconductors, 74.70.Kn |
| structure, 61.66.Hq |
| thin films |
| conductivity, 73.61.Ph |
| optical properties, 78.66.Qn |
| Organic semiconductors |
| conductivity of, 72.80.Le |
| in materials science, 81.05.Fb |
| Organic superconductors, 74.70.Kn |
| Organisms |
| properties of, 87.19.-j |
| Oscillations |
| laser, 42.60.Rn |
| plasma, 52.35.-g |
| and resonance in neuroscience, 87.19.ln |
| seismological, 91.30.Fn |
| solar, 96.60.Ly |
| stellar, 97.10.Sj |
| Oscillators |
| coupled, 05.45.Xt |
| electronic, 84.30.Ng |
| optical parametric, 42.65.Yj |
| Oscillator strengths |
| atomic spectra, 32.70.Cs |
| molecular spectra, 33.70.Ca |
| Oscilloscopes, 07.07.Hj |
| Osmosis, in biological systems, 82.39.Wj |
| Oxidation |
| micro- and nano-oxidation, 81.16.Pr |
| phase separation and segregation in, 64.75.Lm |
| in surface treatments, 81.65.Mq |
| Oxides |
| dielectric materials, 77.84.Bw |
| magnetotransport materials, 75.47.Lx |
| phase diagrams of, 81.30.Bx |
| refractories, 81.05.Je |
| surfaces of, 68.47.Gh |
| clusters on oxide surfaces, 68.47.Jn |
| Ozone layer |
| atmospheric chemistry, 82.33.Tb |
| global change, 92.70.Cp |
| Pacific Ocean, 93.30.Pm |
| Pairing interactions (electronic structure),
71.10.Li |
| Pairing symmetries (superconductivity), 74.20.Rp |
| Pair production, 23.20.Ra |
| Paleoceanography, 92.30.+m, *92.30.-m |
| Paleoclimatology, 92.60.Iv |
| Paleogene period, *91.70.bg |
| Paleomagnetism, 91.25.N-, 91.25.Ng |
| Paleoseismology, 91.30.Za |
| Paleozoic period, *91.70.F-, 91.70.Fj |
| Palynology (paleoceanography), *92.30.Wx |
| Paraelectric films, 77.55.fb |
| Parallaxes (stellar), 97.10.Vm |
| Paramagnetic resonance, 76.30.-v |
| Paramagnetism, 75.20.-g |
| local moment in compounds and alloys, 75.20.Hr |
| in metals and alloys, 75.20.En |
| in nonmetals, 75.20.Ck |
| Parametric oscillators and amplifiers, optical,
42.65.Yj |
| Parasitic diseases, 87.19.xe |
| Pariser-Parr-Pople (PPP) method, (atomic and
molecular physics), 31.15.bu |
| Parity |
| nonconserving transitions (atomic physics), 31.30.jg |
| nuclear properties, 21.10.Hw |
| symmetry (fields and particles), 11.30.Er |
| Parkinson's disease, 87.19.xe |
| Partial differential equations, 02.30.Jr |
| in mathematical aspects of biological physics,
87.10.Ed |
| Particle acceleration |
| classical mechanics, 45.50.Dd |
| interplanetary space, 96.50.Pw |
| Particle beams |
| intense beams in plasma, 52.59.-f |
| plasma heating by, 52.50.Gj |
| Particle correlations, relativistic collisions,
25.75.Gz |
| Particle generation (laser-plasma interactions),
52.38.Ph |
| Particle-in-cell method (plasma simulation),
52.65.Rr |
| Particle-laden flows, 47.55.Kf |
| Particle orbits |
| classical mechanics, 45.50.Pk |
| plasma, 52.20.Dq |
| plasma simulation, 52.65.Cc |
| Particle production (relativistic collisions),
25.75.Dw |
| Particle-theory models (Early Universe), 98.80.Cq |
| Passivation |
| electrochemistry, 82.45.Bb |
| surface treatment, 81.65.Rv |
| Pastes, 83.80.Hj |
| Patch clamping in biophysics, 87.80.Jg |
| Path-integral methods (atomic physics), 31.15.xk |
| Pattern formation |
| in cellular populations, 87.18.Hf |
| in chemical kinetics, 82.40.Ck |
| in complex systems, 89.75.Kd |
| ecological, 87.23.-n |
| in fluid dynamics, 47.54.-r |
| in granular systems, 45.70.Qj |
| in neuroscience, 87.19.lp |
| Pattern recognition |
| acoustics, *43.60.Lq |
| optics, 42.30.Sy |
| Pattern selection (fluid dynamics), 47.54.-r |
| Pattern transfer techniques |
| integrated electronics, 85.40.Hp |
| integrated optics, 42.82.Cr |
| Peierls instability |
| electronic conduction, 72.15.Nj |
| metal-insulator transitions, 71.30.+h |
| Penetration depth (superconductivity), 74.25.Ha |
| Penning discharges, 52.80.Sm |
| Peptides, 87.14.ef |
| Perception |
| speech, *43.71.-k, 43.71.+m |
| visual, 42.66.Si |
| Percolation |
| in phase transitions, 64.60.ah |
| Peripheral vascular system |
| hemodynamics in, 87.19.uj |
| Permafrost, 92.40.Vq, *92.40.vs |
| Permanent magnets, 75.50.Ww |
| Permian period, *91.70.fb |
| Permittivity, 77.22.Ch |
| low-permittivity dielectric films, 77.55.Bh |
| high-permittivity capacitive films, 77.55.F- |
| high-permittivity gate dielectric films, 77.55.D- |
| Persistent currents (mesoscopic systems), 73.23.Ra |
| Personal notes |
| in acoustics appendix, *43.10.Eg |
| in PACS, 01.60.+q |
| Perturbation theory, applied to |
| atomic physics, 31.15.xp |
| classical mechanics, 45.10.Hj |
| continuum mechanics, 46.15.Ff |
| electronic structure of solids, 71.15.-m |
| gauge field theories, 11.15.Bt |
| plasma simulation, 52.65.Vv |
| quantum chromodynamics, 12.38.Bx, 12.38.Cy |
| PET, 87.57.uk |
| Petroleum, 89.30.aj |
| Petrology, 91.65.-n |
| igneous, 91.65.Cq |
| metamorphic, 91.65.Kf |
| meteorite, 91.65.Sn |
| of Moon, 96.20.Dt |
| sedimentary, 91.65.Ti |
| Phase (electromagnetic fields), 42.50.Dv |
| Phase coherence |
| quantum optics, 42.50.Gy |
| Phase conjugation, 42.65.Hw |
| Phase contrast microscopy in biophysics, 87.64.mh |
| Phase diagrams |
| many-electron systems, 71.10.Hf |
| metals and alloys, 81.30.Bx |
| nonmetallic systems, 81.30.Dz |
| superconductivity, 74.25.Dw |
| transition temperature variations, 74.62.-c |
| Phase equilibria, 64.75.-g |
| of fluid mixtures, 64.75.Cd |
| Phase identification (thin films), 68.55.Nq |
| Phase retrieval (optics), 42.30.Rx |
| Phase separation and segregation |
| in colloids, 64.75.Xc |
| in nanoscale systems, 64.75.Jk |
| in oxidation, 64.75.Lm |
| in polymer blends, 64.75.Va |
| in semiconductors, 64.75.Qr |
| in solid solutions, 64.75.Nx |
| in thin films, 64.75.St |
| Phase transitions |
| in biological systems, 87.15.Zg |
| chemical thermodynamics of, 82.60.Fa |
| in clusters, 36.40.Ei |
| crystallographic aspects of, 61.50.Ks |
| displacive, 63.70.+h |
| excitonic, 71.35.Lk |
| ferroelectric, 77.80.B- |
| in finite-size systems, 64.60.an |
| fractals in, 64.60.al |
| general theory of, 64.60.Bd |
| in Langmuir-Blodgett films, 68.18.Jk |
| liquid-liquid, 64.70.Ja |
| liquid-vapor |
| boiling, 64.70.fh |
| evaporation/condensation, 64.70.fm |
| magnetic, 75.30.Kz |
| in nanoscale materials, 64.70.Nd |
| networks in, 64.60.aq |
| percolation in, 64.60.ah |
| quantum Hall effects, 73.43.Nq |
| quantum phase transitions, 05.30.Rt |
| renormalization-group theory in, 64.60.ae |
| rheology, 83.10.Tv |
| rocks and minerals, 91.60.Hg |
| solid-liquid, 64.70.D- |
| crystallization, 64.70.dg |
| melting, 64.70.dj |
| solid-solid, 64.70.K-, 81.30.-t |
| solid-vapor, 64.70.Hz |
| in statistical mechanics and thermodynamics,
05.70.Fh |
| at surfaces and interfaces, 68.35.Rh |
| Philosophy of science, 01.70.+w, *43.10.Mq |
| pH measurement, 82.80.Yc |
| Phonon-defect interactions, 63.20.kp |
| Phonon-exciton interactions, 63.20.kk |
| Phonon-magnon interactions, 63.20.kk |
| Phonon-phonon interactions, 63.20.kg |
| Phonons |
| in clusters, 63.22.Kn |
| dispersion, 63.20.D- |
| first-principle theory, 63.20.dk |
| in free films, 63.22.Dc |
| in graphene, 63.22.Rc |
| measurements, 63.20.dd |
| in nanoscale materials, 63.22.-m |
| in superconductors, 74.25.Kc |
| normal modes, 63.20.D- |
| photon-phonon interactions, 71.36.+c |
| scattering by, 72.10.Di |
| Phosphorescence |
| of atoms, 32.50.+d |
| in condensed matter, 78.55.-m |
| of molecules, 33.50.Dq |
| Phosphoric-acid fuel cells (PAFC), 82.47.Pm |
| Photoacoustic effects, *43.35.Ud, 78.20.Pa |
| Photoacoustic spectroscopy |
| in chemical analysis, 82.80.Kq |
| in materials testing, 81.70.Cv |
| Photocarrier radiometry, 78.56.Cd |
| Photocathodes, 85.60.Ha |
| Photochemistry, 82.50.-m |
| control of, 82.50.Nd |
| in oceanography, *92.20.ch |
| single molecule, 82.37.Vb |
| Photoconductivity |
| bulk matter, 72.40.+w |
| thin films, 73.50.Pz |
| Photodetachment |
| atomic ions, 32.80.Gc |
| molecules, 33.80.Eh |
| Photodetectors, 42.79.Pw, 85.60.Gz |
| in astronomy, 95.55.Aq |
| infrared, 07.57.Kp |
| superconducting, 85.25.Oj |
| Photodiodes, 85.60.Dw |
| Photodissociation |
| of biomolecules, 87.15.mk |
| of molecules, 33.80.Gj |
| in photochemistry, 82.50.-m |
| pump-probe studies (femtochemistry), 82.53.Eb |
| Photodynamic therapy, 87.50.wp |
| Photoelastic effects, 78.20.hb |
| Photoelectric energy conversion, 84.60.Jt |
| Photoelectrochemical cells, 82.47.Jk |
| Photoelectrochromic storage devices, 82.47.Jk |
| Photoelectron microscopy, 68.37.Xy |
| Photoelectron spectroscopy |
| in biophysics, 87.64.ks |
| in chemical analysis, 82.80.Pv |
| of molecules, 33.60.+q |
| of solids and liquids, 79.60.-i |
| Photoemission |
| adsorbed layers, 79.60.Dp |
| disordered structures, 79.60.Ht |
| heterostructures, 79.60.Jv |
| insulators, 79.60.Bm |
| interfaces, 79.60.Jv |
| liquids, 79.60.Cn |
| nanostructures, 79.60.Jv |
| organic materials, 79.60.Fr |
| polymers, 79.60.Fr |
| semiconductors, 79.60.Bm |
| thin films, 79.60.Dp |
| Photofission, 25.85.Jg |
| Photogrammetry, 91.10.Lh |
| Photography, 07.68.+m |
| astronomical applications of, 95.75.De |
| Photoionization |
| of atoms, 32.80.Fb |
| inner-shell ionization, 32.80.Aa |
| multiphoton ionization, 32.80.Rm |
| of biomolecules, 87.15.mn |
| of molecules, 33.80.Eh |
| multiphoton ionization, 33.80.Rv |
| photochemical reactions, 82.50.-m |
| Photolithography, 85.40.Hp |
| Photoluminescence |
| of alkali halides, 78.55.Fv |
| of amorphous and disordered materials, 78.55.Qr |
| of glasses, 78.55.Qr |
| of inorganic solids, 78.55.Hx |
| of liquids, 78.55.Bq |
| of organic solids, 78.55.Kz |
| of porous materials, 78.55.Mb |
| of semiconductors |
| elemental semiconductors, 78.55.Ap |
| II-VI semiconductors, 78.55.Et |
| III-V semiconductors, 78.55.Cr |
| Photolysis, 82.50.-m |
| Photometers, 07.60.Dq |
| in astronomy, 95.55.Qf, 95.75.De |
| Photomultipliers, 85.60.Ha |
| in nuclear physics, 29.40.-n |
| Photon-atom interactions, 32.80.-t |
| coherent control of, 37.10.Jk |
| effects of atomic coherence, 42.50.Gy |
| Photon counting and statistics, 42.50.Ar |
| Photon echoes |
| in quantum optics, 42.50.Md |
| in ultrafast pump/probe spectroscopy, 78.47.jf |
| Photon-hadron scattering, 13.60.-r |
| Photonic band gap materials, 42.70.Qs |
| Photonic crystal lasers, 42.55.Tv |
| Photonic switching, 42.65.Pc |
| Photon molecule interactions, 33.80.-b |
| Photons |
| interactions with hadrons, 13.60.-r |
| nonclassical states, 42.50.Dv |
| photon-magnon interactions, 71.36.+c |
| production |
| in hadron-induced high-energy interactions, 13.85.Qk |
| in relativistic heavy-ion collisions, 25.75.Cj |
| properties of, 14.70.Bh |
| solar, 96.60.Tf |
| Photon statistics, 42.50.Ar |
| Photon-stimulated desorption, 68.43.Tj, 79.20.La |
| Photonuclear reactions, 25.20.-x |
| Photoproduction |
| of baryons, 13.60.Rj |
| of mesons, 13.60.Le |
| nuclear, 25.20.Lj |
| Photopyroelectric effects, 78.20.nc |
| Photorefractive effect |
| in nonlinear optics, 42.65.Hw |
| in optical properties, 78.20.Mg |
| optical materials for, 42.70.Nq |
| Photoresistors, 84.32.Ff, 85.60.Dw |
| Photoresists, 85.40.Hp |
| Photosphere |
| solar, 96.60.Mz |
| stellar, 97.10.Ex |
| Photosynthesis |
| in biomass conversion, 88.20.jr |
| in oceanography, 92.20.Cm, *92.20.ch |
| in photochemistry, 82.50.-m |
| Photothermal effects, 78.20.nb |
| deep-level photothermal spectroscopy, 79.10.na |
| Phototransistors, 85.60.Dw |
| Phototubes, 85.60.Ha |
| Photovoltaic conversion, 84.60.Jt |
| Photovoltaic effect |
| bulk matter, 72.40.+w |
| thin films, 73.50.Pz |
| Photovoltaics |
| cost of production, 88.40.hm |
| efficiency and performance of, 88.40.hj |
| types of |
| multijunction solar cells, 88.40.jp |
| organic photovoltaics, 88.40.jr |
| silicon solar cells, 88.40.jj |
| thin film III-V and II-VI solar cells, 88.40.jm |
| thin film Cu-based I-III-V12, 88.40.jn |
| Physics careers, 01.85.+f |
| Physics education, 01.40.-d |
| classroom materials, errors in, 01.50.Zv |
| curricula and evaluation, 01.40.G- |
| educational aids, 01.50.-i |
| audio and visual aids, 01.50.F- |
| computers in education, 01.50.H-, 01.50.Lc |
| demonstration experiments, 01.50.My |
| laboratory experiments, 01.50.Pa |
| teacher training, 01.40.J- |
| teaching methods, 01.40.gb |
| Physics laboratory manuals |
| secondary schools, 01.30.la |
| undergraduate schools, 01.30.lb |
| Physics literature and publications, 01.30.-y |
| Physics organizational activities, 01.10.Hx |
| Physics tournaments, 01.50.Rt |
| Physiological acoustics, *43.64.-q, 43.64.+r |
| Physiological materials and systems |
| rheology of, 83.80.Lz, 87.19.rh |
| Physiological optics, 42.66.-p |
| Physisorption, 68.43.-h |
| Picosecond techniques |
| in laboratory procedures, 06.60.Jn |
| in nonlinear optics, 42.65.Re |
| in spectroscopy of solid state dynamics, 78.47.D- |
| Piezoelectric films, 77.55.H- |
| AlN films, 77.55.hd |
| PZT films, 77.55.hj |
| ZnO films, 77.55.hf |
| Piezoelectricity, 77.65.-j |
| piezoelectric constants, 77.65.Bn |
| piezoelectric devices, 85.50.-n |
| piezoelectric materials, 77.84.-s |
| piezoelectric films, 77.55.H- |
| strain-induced fields, 77.65.Ly |
| Piezo-optical effects, 78.20.H-, 78.20.hb |
| laser ultrasonics in study of, 78.20.hc |
| Piezoresistance |
| in semiconductors and insulators, 72.20.Fr |
| in thin films, 73.50.Dn |
| Pinch devices, 52.58.Lq |
| Pion absorption and capture, 25.80.Gn, 25.80.Ls |
| Pion decays, 13.20.Cz, 13.25.Cq |
| Pions |
| in astronomical observations, 95.85.Ry |
| detectors (astronomy), 95.55.Vj |
| pion-baryon reactions, 13.75.Gx |
| pion-induced nuclear reactions, 25.80.-e |
| Pipe flow, 47.60.-i |
| Pipelines, 93.85.Tf |
| Pitch, *43.66.Hg |
| Planetary bow shocks, 96.50.Fm |
| Planetary nebulae, 98.38.Ly, 98.58.Li |
| Planetary rings, 96.30.Wr |
| fluid planets, 96.15.Uv |
| solid surface planets, 96.12.Uv |
| Planets |
| dwarf, 96.30.Iz |
| extrasolar, 97.82.-j |
| fluid planets |
| atmosphere, *96.15.H-, 96.15.Hy |
| interiors, 96.15.Nd |
| orbits and rotation, 96.15.De |
| origin and evolution, 96.15.Bc |
| polar regions, 96.15.Xy |
| rings, 96.15.Uv |
| surfaces, 96.15.Lb |
| tidal forces, 96.15.Wx |
| interaction with solar wind, 96.50.Ek |
| Jupiter, 96.30.Kf |
| Mars, 96.30.Gc |
| Mercury, 96.30.Dz |
| Neptune, 96.30.Rm |
| Pluto, 96.30.Sn |
| probes for, 95.55.Pe |
| Saturn, 96.30.Mh |
| solid surface planets |
| atmosphere, *96.12.J-, 96.12.Jt |
| formation of, 96.12.Bc |
| interiors, 96.12.Pc |
| orbits and rotation, 96.12.De |
| polar regions, 96.12.Qr |
| rings, 96.12.Uv |
| surfaces, *96.12.K-, 96.12.Kz |
| volcanism, 96.12.Xy |
| Uranus, 96.30.Pj |
| Venus, 96.30.Ea |
| Plane-wave method, 71.15.Ap |
| Plankton, 92.20.Jt, *92.20.jf, *92.20.jh |
| Plant ecology, 92.40.Oj |
| biogeosciences, *91.62.Mn |
| hydrology, 92.40.Oj |
| Plasma antennas, 52.40.Fd |
| Plasma applications, 52.77.-j |
| Plasma confinement |
| magnetic, 52.55.-s |
| nonmagnetic, 52.58.-c |
| Plasma crystals, 52.27.Lw |
| Plasma density, 52.25.-b |
| ionosphere, 94.20.Fg |
| Plasma devices, 52.75.-d |
| Plasma diagnostics, 52.70.-m |
| Plasma diodes, 52.75.Fk |
| Plasma dynamics, 52.30.-q |
| Plasma dynamos, 47.65.Md |
| Plasma etching, 52.77.Bn |
| Plasma flow, 52.30.-q |
| ionospheric, 94.20.wc |
| Plasma focus devices, 52.58.Lq |
| Plasma gyrokinetics, 52.30.Gz |
| Plasma heating, 52.50.-b |
| Plasma impurities, 52.25.Vy |
| Plasma instabilities, 52.35.-g |
| Plasma interactions, nonlaser, 52.40.-w |
| Plasma-material interactions, 52.40.Hf |
| ion implantation and deposition, 52.77.Dq |
| Plasma production, 52.50.-b |
| Plasma propulsion, 52.75.Di |
| Plasma reactions, 82.33.Xj |
| Plasmas |
| astrophysical, 95.30.Qd |
| dusty, 52.27.Lw |
| electron-positron, 52.27.Ep |
| elementary processes in, 52.20.-j |
| high-current, 52.77.Fv |
| high-pressure, 52.77.Fv |
| ionospheric, 94.20.wc, 94.20.wf |
| magnetized, 52.25.Xz |
| magnetohydrodynamics of, 52.30.-q |
| magnetospheric, 94.30.cq, 94.30.cs |
| multicomponent, 52.27.Cm |
| neutrals in, 52.25.Ya |
| non-neutral, 52.27.Jt |
| quark-gluon, 12.38.Mh |
| relativistic, 52.27.Ny |
| sheaths, 52.40.Kh |
| single-component, 52.27.Aj |
| solid-state, 72.30.+q, 73.50.Mx |
| Plasma simulation, 52.65.-y |
| Plasma sources, 52.50.Dg |
| Plasmasphere, 94.30.cv |
| Plasma spraying, 81.15.Rs |
| Plasma switches, 52.75.Kq |
| Plasma torches, 52.75.Hn |
| Plasma turbulence, 52.35.Ra |
| space plasma, 94.05.Lk |
| Plasma waves, 52.35.-g |
| drift waves, 52.35.Kt |
| electrostatic waves and oscillations, 52.35.Fp |
| in interplanetary space, 96.50.Tf |
| in ionosphere, 94.20.wf |
| in magnetosphere, 94.30.cq |
| shock waves, 52.35.Tc |
| Plasmons |
| in bulk matter, 71.45.Gm |
| in clusters, 36.40.Gk |
| on surfaces and interfaces, 73.20.Mf |
| Plasticity, 62.20.fq |
| continuum mechanics of, 46.35.+z |
| materials treatment effects on, 81.40.Lm |
| in neuroscience, 87.19.lw |
| rheology of, 83.50.-v |
| Plastics |
| bioproduct from biomass, 88.20.rb |
| preparation of, 81.05.Lg |
| structure of, 61.41.+e |
| Plates |
| structural acoustics of, *43.40.Dx |
| structural mechanics of, 46.70.De |
| Plate tectonics, *91.45.D-, 91.45.Dh |
| dynamics and mechanics of, *91.45.G-, 91.45.Ga |
| lithospheric dynamics, *91.45.gf |
| seismotectonics, *91.45.gd |
| plate motions, past, *91.45.dg |
| plate motions, recent, *91.45.dk |
| Pluto, 96.30.Sn |
| Plutonian satellites, 96.30.Up |
| Pluton emplacement (structural geology), 91.55.Sn |
| Plutonium generation, 28.50.Ft |
| Pneumatic machinery, 47.85.Kn |
| Pneumodynamics, 87.19.Wx |
| p-n junctions, 73.40.-c |
| (p,n)
reactions, 25.40.Kv |
| Pnictides (non-cuprate superconductors), 74.70.Xa |
| Pockels effect, 78.20.Jq |
| PoincarŽ invariance, 11.30.Cp |
| Point contacts |
| nanocontacts, fabrication of, 81.07.Lk |
| point contact devices, 85.30.Hi |
| Point defects, 61.72.J- |
| Poiseuille flow, 83.50.-v |
| Poisson equation, 41.20.Cv |
| Poisson ratio |
| effects of materials treatments on, 81.40.Jj |
| in mechanical properties of solids, 62.20.dj |
| Polar cap |
| ionosphere, 94.20.dk |
| magnetosphere, 94.30.cx |
| Polarimeters, 07.60.Fs |
| in astronomy, 95.55.Qf, 95.75.Hi |
| Polaritons, 71.36.+c |
| Polarizability |
| of atoms, 32.10.Dk |
| of molecules, 33.15.Kr |
| Polarization |
| in atmospheric optics, 42.68.Mj |
| dielectric properties, 77.22.Ej |
| dynamic nuclear, 76.70.Fz |
| in nuclear reactions, 24.70.+s |
| in optical fibers, 42.81.Gs |
| in particle interactions, 13.88.+e |
| of starlight, 97.10.Ld |
| in wave optics, 42.25.Ja |
| Polarized beams |
| electron and positron (atomic collisions), 34.80.Nz |
| in particle accelerators, 29.27.Hj |
| Polarized ion sources, 29.25.Lg |
| Polarized targets, 29.25.Pj |
| Polarizers, optical, 42.79.Ci |
| Polarons |
| in electronic structure of solids, 71.38.-k |
| nonconventional mechanisms in superconductivity,
74.20.Mn |
| Polar regions, 93.30.Sq |
| meteorology, 92.60.Uy |
| Polar wobble, 91.10.Nj |
| Polishing |
| in optical workshop techniques, 42.86.+b |
| in surface treatments, 81.65.Ps |
| Pollen and spores, *92.30.Wx |
| Pollution |
| atmospheric, 92.60.Sz |
| effects on instruments, 07.89.+b |
| environmental regulations of, 89.60.Fe |
| instruments for measurement of, 07.88.+y |
| land (biogeosciences), *91.62.Rt |
| marine, 92.20.Ny |
| Polyatomic molecules, electron correlation in,
31.15.vq |
| Polyelectrolytes, 82.35.Rs |
| in electrochemistry, 82.45.Wx |
| Polymer blends |
| structure of, 61.25.hk |
| Polymer blends (rheology), 83.80.Tc |
| Polymer cross linking, 61.25.hp |
| Polymer-electrolyte fuel cells (PEFC), 82.47.Nj |
| Polymerization, 82.35.-x |
| of biomolecules, 82.35.Pq, 87.15.rp |
| Polymer melts |
| structure of, 61.25.hk |
| Polymer molecules, 36.20.-r |
| Polymer processing flows, 47.85.md |
| Polymer reactions, 82.35.-x |
| Polymers |
| absorption and reflection spectra of, 78.40.Me |
| chemical reactions of, 82.35.-x |
| dielectric properties of, 77.84.Jd |
| elastomeric, 83.80.Va |
| electrical conductivity of, 72.80.Le |
| in electrochemistry, 82.45.Wx |
| electronic structure of |
| condensed matter, 71.20.Rv |
| molecules, 36.20.Kd |
| film growth, 68.55.am |
| flow properties, 47.57.Ng |
| glass transitions in, 64.70.pj |
| infrared and Raman spectra of, 78.30.Jw |
| nanoparticles in, 82.35.Np |
| nonelectronic thermal conduction in, 66.70.Hk |
| nonlinear optics with, 82.35.Ej |
| as optical materials, 42.70.Jk |
| photoemission and photoelectron spectra of, 79.60.Fr |
| physical properties of, 82.35.Lr |
| preparation of, 81.05.Lg |
| radiation effects of, 61.82.Pv |
| reinforced, 81.05.Qk |
| rheology of, 83.80.-k |
| self-diffusion and ionic conduction in, 66.30.hk |
| solid-solid transitions, 64.70.km |
| solid surfaces of, 68.47.Mn |
| structure of |
| condensed phase, 61.41.+e |
| molecular, 36.20.-r |
| on surfaces, 68.47.Pe, 82.35.Gh |
| surface structure of, 68.35.bm |
| thin films |
| electrical properties of, 73.61.Ph |
| optical properties of, 78.66.Qn |
| Polymer solutions |
| flow properties, 47.57.Ng |
| rheology of, 83.80.Rs |
| structure of, 61.25.he |
| Polymer swelling, 61.25.hp |
| Polymorphic transformations |
| crystallographic aspects of, 61.50.Ks |
| materials science aspects of, 81.30.Hd |
| Pomeranchuk poles, 11.55.Jy, 12.40.Nn |
| Ponderomotive effects, in plasmas, 52.35.Mw |
| Population dynamics (ecology), 87.23.Cc |
| Population inversion, 32.80.Xx, 33.80.Be, 42.50.-p |
| Porous materials |
| chemical reactions in, 82.33.Ln |
| fabrication of, 81.05.Rm |
| flow through, 47.56.+r |
| heat transfer in, 44.30.+v |
| photoluminescence of, 78.55.Mb |
| structure of, 61.43.Gt |
| Position-sensitive detectors, 29.40.Gx |
| Positron annihilation, 78.70.Bj |
| Positron-atom interactions, 34.80.-i |
| Positron beams |
| nonrelativistic, 41.75.Fr |
| relativistic, 41.75.Ht |
| Positron emission, 79.20.Mb |
| Positron emission tomography (PET), 87.57.uk |
| Positronium, 36.10.Dr |
| in chemical reactions, 82.30.Gg |
| formation in atomic and molecular collisions,
34.80.Lx |
| Positron microscopes, 07.78.+s |
| Positron-molecule interactions, 34.80.-i |
| Positrons |
| properties of, 14.60.Cd |
| radiation damage by, 61.80.Fe |
| states (electronic structure of solids), 71.60.+z |
| Positron scattering |
| in atomic and molecular collisions, 34.80.Uv |
| positronium formation, 34.80.Lx |
| in nuclear reactions, 25.30.Hm |
| Posters, educational, 01.50.fh |
| Potential energy surfaces |
| for chemical kinetics, 82.20.Kh |
| of excited electronic states, 31.50.Df |
| of ground electronic states, 31.50.Bc |
| in molecular collisions, 34.20.-b |
| surface crossings in, 31.50.Gh |
| Potential flows, 47.15.km |
| Potential models, 12.39.Pn |
| Potentials |
| atom molecule, 34.20.Gj |
| interatomic, 34.20.Cf |
| intermolecular, 34.20.Gj |
| Potential theory (mathematics), 02.30.Em |
| Potts models |
| in lattice theory and statistics, 05.50.+q |
| in magnetism (classical spin models), 75.10.Hk |
| Powder diffraction |
| neutron, 61.05.fm |
| x-ray, 61.05.cp |
| Powder metallurgy, 81.20.Ev |
| Powders |
| processing of, 81.20.Ev |
| structure of, 61.43.Gt |
| superconducting, 74.81.Bd |
| Power reactors, 28.50.Hw |
| Power supply circuits, 84.30.Jc |
| Power systems |
| biopower systems, 88.20.M- |
| high-current and high-voltage systems, 84.70.+p |
| power electronics, 84.30.Jc |
| superconducting high-power technology, 84.71.-b |
| transmission lines and cables, 84.70.+p |
| effects on biological systems, 87.50.C- |
| (p,¹)
reactions, 25.40.Qa |
| Precambrian period, *91.70.H-, 91.70.Hm |
| Precipitation |
| of energetic particles (magnetosphere), 94.30.Ny |
| hydrology of, *92.40.E-, 92.40.Ea |
| in materials synthesis, 81.20.Fw |
| in meteorology, 92.60.Jq, *92.60.jf |
| of particles (ionosphere), 94.20.Qq |
| in phase transformations, 81.30.Mh |
| in solidification, 81.30.Mh |
| Precipitation hardening, 81.40.Cd |
| Predissociation, 33.80.Gj |
| Pressure effects |
| on crystal structure, 61.50.Ks |
| in materials treatment, 81.40.Vw |
| on rocks and minerals, 91.60.Gf |
| in solids and liquids, 62.50.-p |
| on superconducting transition temperature, 74.62.Fj |
| Pressure sensors, 07.07.Df |
| Pressure treatment of materials, 81.40.Vw |
| Primordial galaxies, 98.54.Kt |
| Prisms, 42.79.Bh |
| Probability theory, 02.50.Cw |
| Probes, lunar and planetary, 95.55.Pe |
| Projective geometries, 02.40.Dr |
| Prominence eruptions, solar, 96.60.qf |
| Propane as fuel for advanced vehicles, 88.85.md |
| Proportional counters, 29.40.Cs |
| Propulsion |
| magnetic devices for, 85.70.Rp |
| plasma, 52.75.Di |
| reactors, 28.50.Ky |
| Protein-ligand interactions, 87.15.kp |
| Protein-membrane interactions, 87.15.kt |
| Protein-nucleotide interactions, 87.15.kj |
| Protein-protein interactions, 87.15.km |
| Proteins, 87.14.E- |
| enzymes, 87.14.ej |
| fibrils, 87.14.em |
| membrane proteins, 87.14.ep |
| models of, 87.14.et |
| motor, 87.16.Nn |
| peptides, 87.14.ef |
| Protein-solvent interactions, 87.15.kr |
| Proteomics, 87.18.Xr |
| techniques in biotechnology, 87.80.Un, 87.85.mk |
| Proteomic techniques, 87.80.Un |
| Proterozoic period, *91.70.hc |
| Protogalaxies, 98.54.Kt |
| Proton absorption, 25.40.Lw |
| Proton dosimetry, 87.53.Bn |
| Proton exchange membrane (PEM) fuel cells, 82.47.Gh |
| Proton-hyperon interactions, 13.75.Ev, 13.85.-t |
| Proton-neutron interactions, 13.75.Cs, 13.85.-t |
| Proton-nucleus reactions, 25.40.-h |
| Proton-pion interactions, 13.75.Gx, 13.85.-t |
| Proton-proton interactions, 13.75.Cs, 13.85.-t |
| Proton radiative capture, 25.40.Lw |
| Protons, properties of, 14.20.Dh |
| Proton scattering (nuclear reactions) |
| elastic, 25.40.Cm |
| inelastic, 25.40.Ep |
| Protostars, 97.21.+a |
| Proximity effects (superconductivity), 74.45.+c |
| Pseudopods, 87.16.Qp |
| Pseudopotential method (electronic structure of
solids), 71.15.Dx |
| Psychological acoustics, *43.66.-x, 43.66.+y |
| Publications in electronic media, 01.30.Xx |
| Publisher's note, 99.10.Fg |
| Pulmonary fluid mechanics, 47.63.Ec |
| hemodynamics and pneumodynamics, 87.19.U-, 87.19.Wx |
| Pulsars, 97.60.Gb |
| Pulse circuits, 84.30.Sk |
| Pulse compression (optical), 42.65.Re |
| Pulse generators, 84.30.Ng |
| Pulse sequences, in NMR, 82.56.Jn |
| Pulse sequences in MRI, 87.61.Hk |
| Pump-probe spectroscopy |
| in femtochemistry, 82.53.Eb, 82.53.Hn |
| in ultrafast solid state dynamics, 78.47.J- |
| Pumps, vacuum, 07.30.Cy |
| Purification (materials), 81.20.Ym |
| Pyroelectric devices, 85.50.-n |
| Pyroelectric effects, 77.70.+a |
| Pyroelectric films, 77.55.Kt |
| Pyrolysis, 82.30.Lp |
| Pyrometers, 07.20.Ka |
| PZT ceramics, 77.84.Cg |
| PZT films (dielectric films), 77.55.fg, 77.55.hj |
| QED corrections |
| to electronic structure of atoms and molecules |
| electric dipole moments, 31.30.jn |
| long-range interactions, 31.30.jh |
| muonic hydrogen and deuterium, 31.30.jr |
| parity nonconserving transitions, 31.30.jg |
| Q-switching, 42.60.Gd |
| Quadrupole magnets |
| particle beam focusing, 41.85.Lc |
| Quadrupole moments, 21.10.Ky, 33.15.Kr |
| Quadrupole resonance, 76.60.Gv |
| Quality assurance |
| for radiation therapy equipment, 87.56.Fc |
| in treatment strategy, 87.55.Qr |
| Quantized fields, 03.70.+k |
| Quantized spin models, 75.10.Jm |
| Quantum acoustics, *43.35.-c, 43.35.+d |
| Quantum algorithms and protocols |
| quantum information, 03.67.Ac |
| Quantum beats |
| in quantum optics, 42.50.Md |
| in ultrafast pump/probe spectroscopy, 78.47.jm |
| Quantum chromodynamics, 12.38.-t |
| in nuclei, 24.85.+p |
| Quantum communication, 03.67.Hk |
| Quantum computation, 03.67.Lx |
| Quantum cosmology, 98.80.Qc |
| Quantum critical phenomena (superconductivity),
74.40.Kb |
| Quantum cryptography, 03.67.Dd |
| Quantum crystals, 67.80.-s |
| Quantum dots |
| devices, 85.35.Be |
| electronic transport in, 73.63.Kv |
| electron states and collective excitations in,
73.21.La |
| fabrication of, 81.07.Ta |
| magnetic properties of, 75.75.-c |
| structure and nonelectronic properties of, 68.65.Hb |
| Quantum electrodynamics (QED) |
| of cavities (quantum optics), 42.50.Pq |
| corrections to electronic structure of atoms and
molecules, 31.30.J- |
| in particle physics, 12.20.-m |
| Quantum ensemble theory, 05.30.Ch |
| Quantum entanglement, 03.65.Ud |
| Quantum field theory, 03.70.+k, 11.10.-z |
| Quantum fluctuations, 42.50.Lc |
| Quantum fluids |
| boson degeneracy in, 67.10.Ba |
| fermion degeneracy in, 67.10.Db |
| hydrodynamics in, 67.10.Jn |
| structure and dynamics of, 67.10.Hk |
| transport processes in, 67.10.Jn |
| Quantum geometry, 04.60.Pp |
| Quantum gravity, 04.60.-m |
| Quantum groups, 02.20.Uw |
| Quantum Hall effects, 73.43.-f |
| Quantum information, 03.67.-a |
| entanglement production, 03.67.Bg |
| optical implementations, 42.50.Ex |
| quantum algorithms and protocols, 03.67.Ac |
| Quantum interference devices |
| semiconductor, 85.35.Ds |
| superconducting, 85.25.Dq |
| Quantum jumps, 42.50.Lc |
| Quantum localization |
| in metals and alloys, 72.15.Rn |
| on surfaces and interfaces, 73.20.Fz |
| Quantum mechanics, 03.65.-w |
| optical tests of, 42.50.Xa |
| Quantum noise, 42.50.Lc |
| Quantum nonlocality, 03.65.Ud |
| Quantum optics, 42.50.-p |
| Quantum phase transitions, 64.70.Tg, 05.30.Rt |
| Quantum solids |
| diffusion in, 66.30.Ma |
| solid 3He, 67.80.D- |
| solid 4He, 67.80.B- |
| interfaces, 67.80.bf |
| solid hydrogen, 67.80.F- |
| supersolids, 67.80.K- |
| Quantum statistical mechanics, 05.30.-d |
| of quantum fluids, 67.10.Fj |
| Quantum tomography, 03.65.Wj |
| Quantum tunneling |
| of defects, 66.35.+a |
| macroscopic in magnetic systems, 75.45.+j |
| Quantum systems with finite Hilbert space, 03.65.Aa |
| Quantum wells |
| devices, 85.35.Be |
| electronic transport in, 73.63.Hs |
| electron states and collective excitations in,
73.21.Fg |
| fabrication of, 81.07.St |
| magnetic properties of, 75.75.-c |
| optical properties of, 78.67.De |
| structure and nonelectronic properties of, 68.65.Fg |
| Quantum wires |
| devices, 85.35.Be |
| electronic transport in, 73.63.Nm |
| electron states and collective excitations in,
73.21.Hb |
| fabrication of, 81.07.Vb |
| optical properties of, 78.67.Lt |
| structure and nonelectronic properties of, 68.65.La |
| Quantum Zeno dynamics, 03.65.Xp |
| Quark confinement, 12.38.Aw |
| Quark deconfinement, 25.75.Nq |
| Quark-gluon plasma, 12.38.Mh |
| phase transitions in, 25.75.Nq |
| production of, 25.75.Nq |
| Quark matter |
| nuclear matter, 21.65.Qr |
| Quark models, 12.39.-x |
| Quarkonia |
| heavy quarkonia, 14.40.Pq |
| decays of |
| hadronic, 13.25.Gv |
| leptonic and semileptonic, 13.20.Gd |
| Quarks |
| bottom quarks, 14.65.Fy |
| charmed quarks, 14.65.Dw |
| fourth generation quarks, 14.65.Jk |
| in nuclei and nuclear processes, 24.85.+p |
| light quarks, 14.65.Bt |
| masses and mixing (electroweak interactions),
12.15.Ff |
| top quarks, 14.65.Ha |
| Quartz, optical material, 42.70.Ce |
| Quartz resonator, 77.65.Fs |
| Quasars, 98.54.Aj |
| absorption- and emission-line systems, 98.62.Ra |
| Quasicrystals |
| electronic structure of, 71.23.Ft |
| in magnetic materials, 75.50.Kj |
| structure of, 61.44.Br |
| Quasiparticle methods (atomic physics), 31.15.xm |
| Quenching (fluorescence) |
| atoms, 32.50.+d |
| condensed matter, 78.55.-m |
| molecules, 33.50.Hv |
| Quenching (thermal), 81.40.Gh |
| Quantum information |
| quantum algorithms and protocols, 03.67.Ac |
| Radar, 84.40.Xb |
| Radiation belts, 94.30.Xy |
| Radiation chemistry, 82.50.-m |
| Radiation detectors, 07.57.Kp, 29.40.-n, 85.25.Pb |
| Radiation effects |
| on biological systems, 87.50.-a, 87.53.-j |
| on instruments, 07.89.+b |
| on optical elements, devices and systems, 42.88.+h |
| in solids, 61.80.-x |
| Radiation fields, 04.40.Nr |
| Radiation hardening, 81.40.Wx |
| Radiation monitoring in |
| in treatment strategy (medical physics), 87.55.N- |
| Radiation pressure |
| acoustical, *43.25.Qp |
| on atoms and molecules, 37.10.Vz, 42.50.Wk |
| optical, 42.50.Wk |
| Radiation sources (medical physics), 87.56.B- |
| accelerators, 87.56.bd |
| radioactive sources, 87.56.bg |
| Radiation therapy |
| electromagnetic and acoustic fields in, 87.50.-a |
| equipment for, 87.56.-v |
| ionizing radiations in, 87.53.-j |
| treatment strategy in, 87.55.-x |
| Radiation therapy equipment, 87.56.-v |
| for beam intensity modifications, 87.56.N- |
| collimators, 87.56.nk |
| wedges and compensators, 87.56.ng |
| for collimation, 87.56.J- |
| field shaping, 87.56.jk |
| field size, 87.56.jf |
| radiation sources for, 87.56.B- |
| accelerators, 87.56.bd |
| radioactive sources, 87.56.bg |
| Radiation treatment |
| of materials, 81.40.Wx |
| in medical physics, 87.55.-x |
| Radiative capture of nucleons, 25.40.Lw |
| Radiative corrections |
| atoms and molecules, 31.30.jf |
| electromagnetic, 13.40.Ks |
| electroweak, 12.15.Lk |
| Radiative flows, 47.70.-n |
| Radiative recombination, 78.60.-b |
| Radiative transfer |
| in astrophysics, 95.30.Jx |
| in atmosphere, 42.68.Ay, 92.60.Vb |
| in heat transfer, 44.40.+a |
| stellar, 97.10.Ex |
| Radioactive beams, 29.38.-c |
| Radioactive dating, 93.85.Np |
| Radioactive decay. See 23 |
| Radioactive pollution, 89.60.-k |
| Radioactive sources, 29.25.Rm |
| in medical physics, 87.56.bg |
| Radioactive wastes, 28.41.Kw |
| accelerator-driven transmutation of, 28.65.+a |
| Radioactivity |
| methods in exploration geophysics, 93.85.Np |
| in minerology and petrology, 91.65.Dt |
| oceanic, 92.20.Td |
| radiogenic isotope geochemistry, 91.67.Qr |
| Radioastronomy, 95.85.Bh, 95.85.Fm |
| Radiochemical activation analysis, 82.80.Jp |
| Radio-frequency spectra |
| atoms, 32.30.Bv |
| molecules, 33.20.Bx |
| Radio galaxies, 98.54.Gr |
| Radiolysis, 82.50.Kx |
| Radiometers, 07.60.Dq |
| Radiopharmaceuticals, 87.57.un |
| Radiosurgery, 87.53.Ly |
| Radio telescopes, 95.55.Jz |
| Radiowave radiation |
| astronomical observations, 95.85.Bh |
| effects on biological systems, 87.50.S- |
| interactions with condensed matter, 78.70.Gq |
| in plasma, 52.25.Os |
| in plasma diagnostics, 52.70.Gw |
| plasma heating with, 52.50.Qt |
| sources, galactic and extragalactic, 98.70.Dk |
| wave propagation of, 41.20.Jb, 84.40.-x |
| Radiowave receivers and detectors, 07.57.Kp |
| Radiowave sources, nonastronomical, 07.57.Hm |
| Radiowave spectrometers, 07.57.Pt |
| Radiowave technology, 84.40.-x |
| Rain, 92.40.Ea, *92.40.eg, *92.60.jf |
| Raman lasers, 42.55.Ye |
| Raman scattering, in plasmas, 52.38.Bv |
| Raman spectra |
| of disordered solids, 78.30.Ly |
| of fullerenes, 78.30.Na |
| of insulators, 78.30.Am |
| of liquids, 78.30.C- |
| inorganic liquids, 78.30.cc |
| ionic liquids, 78.30.cd |
| organic liquids, 78.30.cb |
| solutions, 78.30.cd |
| of macro- and polymer molecules, 36.20.Ng |
| of metals and alloys, 78.30.Er |
| of molecules, 33.20.Fb |
| of nonmetallic inorganics, 78.30.Hv |
| of organic solids, 78.30.Jw |
| of polymers, 78.30.Jw |
| of semiconductors |
| III-V, and II-VI semiconductors, 78.30.Fs |
| elemental semiconductors, 78.30.Am |
| Raman spectroscopy |
| in biophysics, 87.64.kp |
| CARS, 42.65.Dr |
| in chemical analysis, 82.80.Gk |
| Raman lasers, 42.55.Ye |
| stimulated Raman scattering, 42.65.Dr |
| Random lasers, 42.55.Zz |
| Random media (continuum mechanics), 46.65.+g |
| Random-phase approximation (nuclear structure),
21.60.Jz |
| Random processes, 05.40.-a |
| Random walks, 05.40.Fb |
| Range finders |
| acoustical (sonar), *43.30.Vh, *43.30.Wi |
| optical, 42.79.Qx |
| Rare earth metals and alloys |
| electric conductivity of, 72.15.Eb |
| electronic structure of, 71.20.Eh |
| Rarefied gas dynamics, 47.45.-n |
| Rate constants (chemical kinetics), 82.20.Pm |
| correlation function theory of, 82.20.Sb |
| quantum effects in, 82.20.Xr |
| stochastic theories of, 82.20.Uv |
| Rayleigh scattering |
| in condensed matter, 78.35.+c |
| in molecules, 33.20.Fb |
| in plasmas, 52.38.Bv |
| stimulated Rayleigh scattering, 42.65.Es |
| Rayleigh-Taylor instabilities, 52.35.Py |
| Ray tracing |
| acoustical, *43.20.Dk |
| in water, *43.30.Cq |
| optical, 42.15.Dp |
| Reaction kinetics |
| of biomolecular reactions, 87.15.R- |
| chemical reactions, 82.20.-w |
| single molecule reactions, 82.37.-j |
| of biological systems, 82.39.-k |
| special regimes in chemical reactions, 82.40.-g |
| Reactive flows, 47.70.-n |
| Reactor materials |
| for fusion reactors, 28.52.Fa |
| structural and shielding materials |
| fission reactors, 28.41.Qb |
| Reactors |
| chemical, 82.40.Bj |
| fission, 28.41.-i, 28.50.-k |
| fusion, 28.52.-s |
| Reactor safety |
| fission reactors, 28.41.Te |
| fusion reactors, 28.52.Nh |
| Recombination |
| radiative, 78.60.-b |
| in semiconductors, 72.20.Jv |
| in thin films, 73.50.Gr |
| Record and verify systems |
| in treatment strategy (medical physics) |
| applications of, 87.55.tm |
| design of, 87.55.tg |
| Recording media |
| holographic, 42.40.Ht |
| magnetic, 85.70.Kh, 85.70.Li |
| Recrystallization |
| in crystal growth, 81.10.Jt |
| materials treatment effects on, 81.40.Ef |
| Red shift, 98.62.Py |
| Reflection and refraction, 42.25.Gy |
| Reflection coefficients, 78.20.Ci |
| Reflection high energy electron diffraction (RHEED) |
| in structure determination, 61.05.jh |
| Reflection spectra, 78.40.-q |
| Reflectometers, 07.60.Hv |
| Reflectors, optical, 42.79.Fm |
| Refractive index, 78.20.Ci |
| Refractometers, 07.60.Hv |
| Refractories (materials synthesis), 81.05.Je,
81.05.Mh |
| Refrigeration, 07.20.Mc |
| Regge theory |
| S-matrix theory, 11.55.Jy |
| strong interactions, 12.40.Nn |
| Regulatory biology |
| in biomedical engineering, 87.85.Xd |
| Regulatory issues |
| in radiation safety, 87.55.N- |
| Regulatory networks |
| in subcellular structure and processes, 87.16.Yc |
| R-hadrons, 14.80.Pq |
| Reinforced materials |
| composites, 81.05.Ni |
| polymers, 81.05.Qk |
| Relativistic astrophysics, 95.30.Sf, 98.80.Jk |
| Relativistic corrections |
| to atomic structure, 31.30.jc |
| in band structure calculations, 71.15.Rf |
| due to negative-energy states, 31.30.jd |
| Relativistic electron beams, 41.75.Ht |
| Relativistic fluid dynamics, 47.75.+f |
| Relativistic heavy-ion collisions, 25.75.-q |
| global features in, 25.75.Ag |
| hard scattering in, 25.75.Bh |
| heavy quark production in, 25.75.Cj |
| Relativistic models (nuclear reactions), 24.10.Jv |
| Relativistic plasmas, 52.27.Ny |
| Relativistic scattering theory, 11.80.-m |
| Relativistic stars, 04.40.Dg |
| Relativistic wave equations, 03.65.Pm |
| Relativity |
| general relativity |
| approximation methods, equations of motion, 04.25.-g |
| numerical relativity, 04.25.D- |
| classical, 04.20.-q |
| special relativity, 03.30.+p |
| Relaxation processes |
| in chemical kinetics, 82.20.Rp |
| in dielectrics, 77.22.Gm |
| in electrical conductivity (metals and alloys),
72.15.Lh |
| in electron spin resonance, 76.30.-v |
| in muon spin rotation, 76.75.+i |
| in nuclear magnetic resonance |
| molecules, 33.25.+k |
| condensed matter, 76.60.-k |
| physical chemistry, 76.60.-k |
| in quantum optics, 42.50.Hz |
| ultrasonic, *43.35.Fj |
| Relaxor ferroelectrics, 77.80.Jk |
| Relays, 84.32.Dd |
| Remagnetization (geomagnetism), 91.25.Ux |
| Remote sensing, 07.07.Df |
| acoustic, *43.30.Pc, *43.60.Rw |
| in astronomy, 95.75.Rs |
| in atmospheric optics, 42.68.Wt |
| in exploration geophysics, 93.85.Pq |
| optical devices for, 42.79.Qx |
| by radar, 84.40.Xb |
| in structural geology, 91.55.Uv |
| Renewable energy resources (see section 88) |
| new topics in renewable energy resources, 88.90.+t |
| Renner-Teller effects, 33.20.Wr |
| Renormalization |
| in field theory, 11.10.Gh, 11.10.Hi |
| in statistical physics and nonlinear dynamics,
05.10.Cc |
| Renormalization-group theory |
| in phase transitions, 64.60.ae |
| Reptation, 83.10.Kn |
| Resins, ion-exchange, 83.80.-k |
| Resistance measurement, 84.37.+q |
| Resistors, 84.32.Ff |
| Resists, 85.40.Hp |
| Resonance reactions, nucleon-induced, 25.40.Ny |
| Resonances |
| baryon, 14.20.Gk |
| heavy-ion induced, 25.70.Ef |
| in nuclear reactions, 24.30.-v |
| in relativistic heavy-ion collisions, 25.75.Gz |
| Resonant tunneling, 73.40.Gk |
| Resonant tunneling devices, 85.30.Mn |
| spin polarized, 85.75.Mm |
| Resonators, laser, 42.60.Da |
| Resource letters, 01.30.Rr |
| Respiration, 87.19.Wx |
| Retraction (of a paper), 99.10.Ln |
| Reverberation, *43.55.Br, *43.55.Nd |
| Reversals, geomagnetic field, 91.25.Mf |
| Reviews, 01.30.Rr |
| Reynolds-number |
| high |
| biopropulsion, 47.63.mc |
| turbulent flows, 47.27.Jv |
| low |
| biopropulsion, 47.63.mf |
| laminar flows, 47.15.G- |
| Reynolds stress modeling (turbulent flows), 47.27.em |
| rf discharges, 52.80.Pi |
| RHEED, 61.05.jh |
| Rheology. See 83 |
| of body fluids, 87.19.rh |
| of complex fluids, 47.57.Qk |
| of the Earth, 91.32.-m |
| Rheopexy, 83.60.Pq |
| Riemannian geometries, 02.40.Ky |
| Rigid bodies, dynamics and kinematics of, 45.40.-f |
| Ring currents (magnetosphere), 94.30.Kq |
| Ring galaxies, 98.52.Sw |
| Ring lasers, 42.55.Wd |
| Rings, planetary, 96.30.Wr |
| Risk/benefit analysis (radiation safety), 87.55.N- |
| Rivers, 92.40.Qk, *92.40.qh |
| RNA, 82.39.Pj, 87.14.gn |
| Robotics |
| in biomedical engineering, 87.85.St |
| kinematics of rigid bodies, 45.40.Ln |
| Robotic vision, 42.30.Tz |
| Rocks |
| magnetic and electrical properties, 91.25.F-,
91.60.Pn |
| permeability, 91.60.Np |
| physical properties of, 91.60.-x |
| rheology of, 83.80.Nb |
| Rods |
| structural acoustics of, *43.40.Cw |
| structural mechanics of, 46.70.Hg |
| Room acoustics, *43.55.-n, 43.55.+p |
| Rossby waves (ocean waves), *92.10.hf |
| Rotamaks, 52.55.Lf |
| Rotating flows, 47.32.Ef |
| Rotation, measurement of, 06.30.Gv |
| Rotational constants, molecular, 33.15.Mt |
| Rotational dynamics, 45.20.dc |
| Rotational energy transfer, 34.50.Ez |
| Rotational isomerism, 33.15.Hp |
| Rotational levels |
| macromolecular, 36.20.Ng |
| molecular, 33.20.Sn |
| nuclear, 21.10.Re |
| Rovibronic states, 33.20.Wr |
| r-process (nuclear astrophysics), 26.30.Hj |
| Rubber, 81.05.Lg |
| Ruthenates (superconducting materials), 74.70.Pq |
| Rutherford backscattering spectroscopy, 82.80.Yc |
| Rydberg states |
| excitation and ionization |
| of atoms, 32.80.Rm |
| of molecules, 33.80.Rv |
| Safety |
| fission reactor, 28.41.Te |
| fusion reactor, 28.52.Nh |
| laboratory, 06.60.Wa |
| laser systems, 42.60.By |
| in treatment strategy (medical physics), 87.55.N- |
| Sagnac effect, fiber gyros, 42.81.Pa |
| Sample preparation, 06.60.Ei |
| Sandpile models, 45.70.Cc |
| Sand piles |
| phase transitions in, 64.60.av |
| Satellites |
| artificial, Earth, 07.87.+v, 95.40.+s |
| communication, 84.40.Ua |
| interaction with solar wind, 96.50.Ek |
| lunar and planetary probes, 95.55.Pe |
| Moon, 96.20.-n |
| orbits of, 91.10.Sp |
| Saturn, 96.30.Mh |
| Saturnian satellites, 96.30.N- |
| Scaling effects in ferroelectric phase transitions,
77.80.bj |
| Scaling phenomena |
| in complex systems, 89.75.Da |
| in field theory, 11.10.Jj |
| Scanners, optical, 42.79.Ls |
| Scanning Auger microscopy, 68.37.Xy |
| Scanning electron microscopy, 68.37.Hk |
| Scanning transmission electron microscopy (STEM),
68.37.Ma |
| Scanning tunneling microscopes, 07.79.Fc |
| Scanning tunneling microscopy (STM) |
| in biophysics, 87.64.Dz |
| instrumentation for, 07.79.Cz |
| single particle tunneling (superconductivity),
74.55.+v |
| in study of surface structure, 68.37.Ef |
| Scattering |
| acoustical, *43.20.Fn, *43.25.Jh |
| ultrasound, *43.35.Bf, *43.35.Cg |
| underwater, *43.30.Ft, *43.30.Gv, *43.30.Hw |
| Brillouin |
| in condensed matter, 78.35.+c |
| stimulated Brillouin scattering, 42.65.Es |
| in laser-plasma interactions, 52.38.Bv |
| elastic |
| atomic and molecular, 34.50.-s |
| pion-nucleus, 25.80.Dj |
| of electromagnetic radiation in plasmas, 52.25.Os |
| electron |
| in atomic and molecular collisions, 34.80.-i |
| in magnetic structure determinations, 75.25.-j |
| in nuclear reactions, 25.30.-c |
| in structure determination, 61.05.J-, 61.05.jd |
| in electronic transport |
| metals and alloys, 72.15.Qm |
| semiconductors and insulators, 72.20.Dp |
| thin films, 73.50.Bk |
| hadron-induced |
| high-energy, 13.85.-t |
| low-energy, 13.75.-n |
| hyperon-induced, 25.80.Pw |
| inelastic |
| atomic and molecular, 34.50.-s |
| neutron, 25.40.Fq |
| pion, 25.80.Ek |
| laser-modified, 34.50.Rk, 34.80.Qb |
| muon-nucleus, 25.30.Mr |
| neutrino-nucleus, 25.30.Pt |
| neutron, 28.20.Cz |
| in structure determination, 61.05.fg |
| nonrelativistic theory of, 03.65.Nk |
| by phonons and magnons, 72.10.Di |
| pion inclusive, 25.80.Ls |
| positron-nucleus, 25.30.Hm |
| relativistic theory of, 11.80.-m |
| x-ray |
| in condensed matter, 78.70.Ck |
| in structure determination, 61.05.cf |
| Scattering matrix, 11.55.-m |
| Scattering methods (electronic structure), 71.15.Ap |
| Scattering theory (quantum mechanics), 03.65.Nk |
| Schlieren devices, 42.79.Mt |
| Schottky barrier diodes, 85.30.Hi, 85.30.Kk |
| Schottky barriers, 73.30.+y |
| Schottky defects, 61.72.J- |
| Science |
| in elementary school, 01.40.eg |
| in government policy, 01.78.+p |
| history of, 01.65.+g |
| philosophy of, 01.70.+w |
| in secondary school, 01.40.ek |
| and society, 01.75.+m |
| Scintillation, 78.70.Ps |
| Scintillation detectors, 29.40.Mc |
| Seafloor spreading, geomagnetism variations, 91.25.gj |
| Sea ice, 92.10.Rw, *92.40.vx |
| Sea level |
| global change, 92.70.Jw |
| oceanography, *92.10.hp |
| Seas, regional, 93.30.Rp |
| Seasonal cycles (oceanography), 92.05.Fg |
| Sea surface temperature |
| paleoceanography, *92.30.Tq |
| Seawater |
| physical properties of, 92.05.Hj |
| Secondary electron emission, 79.20.Hx |
| Secondary-ion mass spectrometry (SIMS), 68.49.Sf, 82.80.Ms |
| Second harmonic generation, 42.65.Ky |
| Sedimentary petrology, 91.65.Ti |
| Sedimentation |
| in chemical and biological oceanography, 92.20.Vn |
| complex fluids, 47.57.ef |
| in marine geology, 91.50.Jc |
| Sediment transport |
| hydrologic, 92.40.Gc |
| oceanic, 92.10.Wa |
| Segregation. See phase separation |
| in granular systems, 45.70.Mg |
| Seismicity, 91.30.Dk |
| Seismographs, *43.40.Ph |
| Seismology, 91.30.-f |
| core and mantle, 91.30.Uv |
| free oscillations in, 91.30.Fn |
| lithosphere, 91.30.Wx |
| seismic sources, 91.30.Bi |
| tomography in, 91.30.Jk |
| transform faults, 91.30.Iv |
| underwater acoustics of, *43.30.Ma |
| Seismotectonics, *91.45.gd |
| Selected-area electron diffraction, 61.05.jm |
| Selenodesy (Moon), 96.20.Jz |
| Self-assembly, 64.75.Yz |
| Self-assembly (nanofabrication), 81.16.Dn |
| Self-consistent field calculations |
| for atoms and molecules, 31.15.xr |
| in nuclear structure, 21.60.Jz |
| for solids, 71.15.Mb |
| Self-diffusion |
| in liquids (mass diffusion), 66.10.cg |
| in metals and alloys, 66.30.Fq |
| in nonmetals, 66.30.H- |
| Self-focusing |
| in laser-plasma interactions, 52.38.Hb |
| in nonlinear optics, 42.65.Jx |
| Self-gravitating systems, 04.40.-b |
| Self-induced transparency, 42.50.Md |
| Self-organization |
| complex systems, 89.75.Fb |
| statistical physics, 05.65.+b |
| Self-phase modulation (nonlinear optics), 42.65.Jx |
| Semiclassical theories |
| in atomic physics, 31.15.xg |
| in gauge fields, 11.15.Kc |
| in quantum mechanics, 03.65.Sq |
| Semiconductor detectors |
| for nuclear physics, 29.40.Wk |
| optoelectronic, 85.60.-q |
| Semiconductor devices, 85.30.-z |
| Semiconductor lasers, 42.55.Px |
| Semiconductors |
| absorption and reflection spectra of, 78.40.Fy |
| amorphous (conductivity), 72.80.Ng |
| thin films, 73.61.Jc |
| band structure of, 71.20.Mq, 71.20.Nr |
| conductivity of, 72.20.-i |
| doping of, 61.72.uf, 61.72.uj |
| in electrochemistry, 82.45.Vp |
| fabrication of, 81.05.Cy, 81.05.Dz, 81.05.Ea, 81.05.Gc, 81.05.Hd |
| film growth, 68.55.ag |
| impurity levels of, 71.55.-i |
| infrared and Raman spectra of, 78.30.Am, 78.30.Fs |
| liquid |
| conductivity of, 72.80.Ph |
| electronic structure of, 71.22.+i |
| magnetic, 75.50.Pp |
| nonelectronic thermal conduction in, 66.70.Df |
| as nonlinear optical materials, 42.70.Nq |
| organic, 81.05.Fb |
| phase separation and segregation in, 64.75.Qr |
| photoluminescence of, 78.55.-m |
| radiation effects in, 61.82.Fk |
| semiconductor-electrolyte contacts, 73.40.Mr |
| semiconductor-insulator-semiconductor structures, 73.40.Ty |
| semiconductor-metal-semiconductor structures, 73.40.Vz |
| semiconductor-to-insulator structure, 73.40.Qv |
| semiconductor-to-semiconductor contacts, 73.40.-c |
| solid-solid transitions, 64.70.kg |
| solid surfaces of, 68.47.Fg |
| spin polarized transport in, 72.25.Dc |
| surface structure of, 68.35.bg, 68.35.bj |
| thin films |
| optical properties of, 78.66.-w |
| transport processes in, 73.50.-h, 73.61.-r |
| Semiconductors, elemental |
| band structure of, 71.20.Mq |
| conductivity of, 72.80.Cw |
| impurity and defect levels in, 71.55.Ak |
| infrared and Raman spectra of, 78.55.Ap |
| photoluminescence of, 78.55.Ap |
| processing of, 81.05.Cy |
| thin films |
| conductivity of, 73.61.Cw |
| optical properties of, 78.66.Db |
| photoemission and photoelectron spectra of, 79.60.Bm |
| Semiconductors, III-V |
| doping and ion implantation of, 61.72.uj |
| electrical conductivity of, 72.80.Ey |
| fabrication of, 81.05.Ea |
| impurity and defect levels in, 71.55.Eq |
| infrared and Raman spectra of, 78.30.Fs |
| photoluminescence of, 78.55.Et |
| thin films and layered structures |
| electrical properties of, 73.61.Ey |
| optical properties of, 78.66.Fd |
| Semiconductors, II-VI |
| doping and ion implantation of, 61.72.uj |
| electrical conductivity of, 72.80.Ey |
| fabrication of, 81.05.Dz |
| impurity and defect levels in, 71.55.Gs |
| infrared and Raman spectra of, 78.30.Fs |
| photoluminescence of, 78.55.Cr |
| thin films and layered structures |
| electrical properties of, 73.61.Ga |
| optical properties of, 78.66.Hf |
| Semi-empirical methods (atomic physics), 31.15.bu |
| Semimetals |
| electronic structure of, 71.20.Gj |
| impurity and defect absorption of, 78.40.Kc |
| impurity and defect levels in, 71.55.Ak |
| processing of, 81.05.Bx |
| self-diffusion in, 66.30.Fq |
| visible and ultraviolet spectra of, 78.40.Kc |
| Sensors |
| biosensors, 87.85.fk |
| chemical, 07.07.Df |
| electrical, 07.07.Df |
| electrochemical, 82.47.Rs |
| fiber-optical, 42.81.Pa |
| gas, 07.07.Df |
| magnetic field, 85.75.Ss |
| motion, 07.07.Df |
| optical, 42.79.Pw, 42.79.Qx |
| pressure, 07.07.Df |
| Sensory systems (neuroscience), 87.19.lt |
| Separated flows, 47.32.Ef |
| Septa (beam optics), 41.85.Ne |
| Sequences and series, 02.30.Lt |
| Servo devices, 07.07.Tw |
| Set theory, 02.10.Ab |
| Seyfert galaxies, 98.54.Cm |
| Shape memory effects |
| deformation and plasticity, 62.20.fg |
| Shear flows |
| boundary-free, 47.27.W- |
| free layers, 47.15.St |
| instability of, 47.20.Ft |
| rheological measurements of, 83.85.Vb |
| steady (rheology), 83.50.Ax |
| wall-bounded, 47.27.N- |
| Shear modulus, 62.20.de, 81.40.Jj |
| Shear stress, 83.10.-y |
| Shear thinning and shear thickening, 83.60.Rs |
| Shear turbulence, 47.27.nb |
| Shear waves (fluids), 47.35.De |
| Shelf processes, 91.50.Cw |
| Shell model (nuclear structure), 21.60.Cs |
| Shells |
| in structural acoustics, *43.40.Ey |
| in structural mechanics, 46.70.De |
| Shielding (nuclear technology), 28.41.Qb |
| Shock tubes, 07.35.+k |
| Shock wave effects |
| in solids and liquids, 62.50.Ef |
| Shock waves, *43.25.Cb, *43.40.Jc |
| aeroacoustics, *43.28.Mw |
| in chemical reaction kinetics, 82.40.Fp |
| in fluid dynamics, 47.40.Nm |
| interplanetary, 96.50.Fm |
| in plasma, 52.35.Tc |
| plasma production and heating by, 52.50.Lp |
| in seismology, 91.30.Mv |
| in structural mechanics, 46.40.Cd |
| Short-range order |
| in amorphous materials, 61.43.-j |
| in magnetically ordered materials, 75.40.-s |
| Shutters, optical, 42.79.Ag |
| Signal processing |
| in acoustics, *43.60.-c, 43.60.+d |
| in biomedical engineering, 87.85.Ng |
| electronic circuits for, 07.50.Qx |
| in optics, 42.79.Sz, 42.79.Ta |
| Silicon, doping and ion implantation of, 61.72.uf |
| Silurian period, *91.70.fh |
| Single-electron devices, 85.35.Gv |
| Single-electron tunneling, 73.23.Hk |
| Single-molecule kinetics, 82.37.-j |
| Single-molecule techniques |
| biophysical techniques, 87.80.Nj |
| Single-particle states (nanoscale materials), 73.22.Dj |
| Single-photon emission computed tomography (SPECT), 87.57.uh |
| Singularity theory, 02.40.Xx |
| Sintering, 81.20.Ev |
| Skin effect, 72.30.+q |
| Skyrmions, 12.39.Dc |
| Sky surveys, 95.80.+p |
| Slip (dislocations), 61.72.Hh |
| Slip flows |
| in gas dynamics, 47.45.Gx |
| in rheology |
| boundary effects, 83.50.Lh |
| wall slip, 83.50.Rp |
| Slurries, 83.80.Hj |
| Small-angle scattering |
| neutron |
| in structure determination, 61.05.fg |
| x-ray |
| in structure determination, 61.05.cf |
| Smart prosthetics, 87.85.F- |
| bidirectional communication in, 87.85.fp |
| biosensors in, 87.85.fk |
| feedback in, 87.85.ff |
| feedforward in, 87.85.fh |
| S-matrix theory, 11.55.-m |
| Snow, 92.40.Ea, *92.40.ed |
| avalanches, snow melt, 92.40.Ea, *92.40.vw |
| SN and SNS junctions (superconductivity), 74.45.+c |
| Social systems, 89.65.-s |
| anthropology, 89.65.Ef |
| demographic studies, 89.65.Cd |
| social organizations, 89.65.Ef |
| in ecology and evolution, 87.23.Ge |
| Social issues |
| biomass energy production, 88.20.Y- |
| food versus fuel debate, 88.20.Yq |
| wind energy production, 88.50.Xy |
| Soil moisture and temperature, 92.40.Lg |
| Solar absorbers, 42.79.Ek |
| Solar activity, 96.60.Q- |
| Solar cells |
| cost of production, 88.40.hm |
| efficiency and performance of, 88.40.hj |
| types of |
| multijunction solar cells, 88.40.jp |
| organic photovoltaics, 88.40.jr |
| silicon solar cells, 88.40.jj |
| thin film III-V and II-VI solar cells, 88.40.jm |
| thin film Cu-based I-III-V12, 88.40.jn |
| Solar collectors and concentrators, 42.79.Ek |
| Solar emission |
| electromagnetic waves, *96.60.T-, 96.60.Tf |
| radio emission, 96.60.Tf, *96.60.tg |
| ultraviolet emission, 96.60.Tf, *96.60.tj |
| visible emission, 96.60.Tf, *96.60.th |
| x-ray and gamma-ray emission, 96.60.Tf, *96.60.tk |
| particle emission, solar wind, 96.60.Vg |
| Solar energy |
| residential and commercial buildings, 88.40.M- |
| active space/water heating, 88.40.mg |
| building facades, 88.40.mv |
| building-integrated photovoltaics, 88.40.mr |
| day lighting/natural lighting of, 88.40.mx |
| grid-tied solar electric systems, 88.40.mp |
| outdoor solar lights, 88.40.my |
| passive space/water heating, 88.40.mj |
| pool heating systems, 88.40.mm |
| roof top shingles, 88.40.mt |
| solar cells, 88.40.H- |
| cost of production, 88.40.hm |
| efficiency and performance of, 88.40.hj |
| types of |
| multijunction solar cells, 88.40.jp |
| organic photovoltaics, 88.40.jr |
| silicon solar cells, 88.40.jj |
| thin film III-V and II-VI solar cells, 88.40.jm |
| thin film Cu-based I-III-V12, 88.40.jn |
| solar concentrators, 88.40.F- |
| advanced materials development, 88.40.fh |
| concentrating collectors, 88.40.fr |
| dish/engine systems, 88.40.fm |
| modeling and analysis of, 88.40.fc |
| parabolic-trough mirrors, 88.40.fj |
| performance testing of, 88.40.ff |
| power tower systems, 88.40.fp |
| Solar flares, 96.60.qe |
| Solar instruments, 95.55.Ev |
| Solar interior, 96.60.Jw |
| Solar irradiance, 96.60.Ub |
| Solar nebula, 96.10.+i |
| Solar neighborhood (Milky Way), 98.35.Pr |
| Solar neutrinos, 26.65.+t |
| Solar particles and photons (cosmic rays), 96.50.Vg |
| Solar physics, 96.60.-j |
| Solar pulsations, 96.60.Ly |
| Solar radiation |
| in atmosphere, 92.60.Vb |
| in ionosphere, 94.20.wq |
| Solar streamers, 96.60.pf |
| Solar system. See 96 |
| Solar wind, 96.60.Vg |
| sources of, 96.50.Ci |
| termination, 96.50.Ek |
| Soldering, 06.60.Vz |
| Solenoids, 84.32.Hh |
| Sol-gels |
| as disperse system, 82.70.Gg |
| materials processing, 81.20.Fw |
| reactions in, 82.33.Ln |
| Sol-gel transition, 83.80.Jx |
| Solid 3He, 67.80.D- |
| films in, 67.80.dm |
| impurities in, 67.80.dj |
| lattice dynamics of, 67.80.de |
| magnetic properties of, 67.80.dk |
| Solid 4He, 67.80.B- |
| interfaces, 67.80.bf |
| superfluidity in, 67.80.bd |
| Solid hydrogen, 67.80.F- |
| Solidification, 64.70.D-, 81.30.Fb |
| Solid-liquid transitions, 64.70.D- |
| Solid-oxide fuel cells (SOFC), 82.47.Ed |
| Solid-phase epitaxy and growth, 81.15.Np |
| Solid-solid interfaces, 68.35.-p |
| Solid-solid transitions, 64.70.K-, 81.30.-t |
| glasses, 64.70.kj |
| metals, 64.70.kd |
| phase diagrams of, 81.30.-t |
| polymers, 64.70.km |
| semiconductors, 64.70.kg |
| Solid-solution hardening, 81.40.Cd |
| Solid solutions |
| phase separation and segregation in, 64.75.Nx |
| Solid state chemistry, 82.33.Pt |
| Solid state dynamics, spectroscopy of, 78.47.-p |
| Solid-state lasers, 42.55.Px, 42.55.Rz |
| Solid-state plasma |
| in bulk matter, 72.30.+q |
| in thin films, 73.50.Mx |
| Solid surface planets |
| atmosphere, *96.12.J-, 96.12.Jt |
| glaciation, 96.12.Kz, *96.12.ki |
| hydrology, 96.12.Kz, *96.12.ka |
| ionosphere, 96.12.Jt, *96.12.ji |
| surfaces, *96.12.K-, 96.12.Kz |
| Solid-vapor transitions, 64.70.Hz |
| Solitons |
| acoustical, *43.25.Rq |
| in Bose-Einstein condensates, 03.75.Lm |
| fluids, 47.35.Fg |
| nonlinear dynamics of, 05.45.Yv |
| optical, 42.65.Tg |
| in optical fibers, 42.81.Dp |
| in plasma, 52.35.Sb |
| in space plasma, 94.05.Fg |
| Sols, 82.70.Gg |
| Solubility, 64.75.Bc |
| Solutions (mixtures) |
| of biomolecules, 87.15.N- |
| of 3He in liquid 4He, 67.60.G- |
| films in, 67.60.gj |
| spin polarized, 67.60.gc |
| macromolecular and polymer |
| structure of, 61.25.H- |
| thermodynamics of, 82.60.Lf |
| Solvated electrons, 79.05.+c |
| Solvent effects |
| in atomic and molecular interactions, 31.70.Dk |
| in chemical reactions, 82.20.Yn |
| Sonar |
| active systems, *43.30.Vh |
| passive systems, *43.30.Wi |
| Sonic boom, *43.28.Mw |
| Sonography (rheology), 83.85.Ei |
| Sonoluminescence |
| in acoustics, *43.35.Hl |
| in condensed matter, 78.60.Mq |
| Sorption, 68.43.-h |
| Sound |
| atmospheric, *43.28.-g, 43.28.+h |
| effects on biological systems, 87.50.Y- |
| in fluids, 47.35.Rs |
| generation and reproduction devices for, 43.38.+n, *43.38.-p |
| generation by fluid flow, *43.28.Ra |
| physical effects of, *43.35.-c, 43.35.+d |
| in plasma, 52.35.Dm |
| propagation of, *43.20.Bi |
| macrosonic, *43.25.Cb |
| recording and reproducing systems for, *43.38.Md, *43.38.Ne, *43.38.Qg |
| reflection, refraction, and diffraction of, *43.20.El |
| reinforcement systems for, *43.38.Tj |
| in superfluid helium-4, 67.25.dt |
| underwater, *43.30.-k, 43.30.+m |
| velocity, *43.20.Hq |
| measurement of, *43.58.Dj |
| wall transmission through, *43.55.Rg |
| Soundings, ionospheric, 94.20.Tt |
| Sound sources |
| intense, *43.25.Vt |
| localization of, *43.66.Qp |
| outdoor, *43.28.Hr |
| South America, 93.30.Jg |
| Southern Ocean, 93.30.Qn |
| Southern Oscillation, 92.10.-c, 92.60.-e |
| Spaceborne and space-research instruments, 07.87.+v, 95.55.-n |
| Space-charge-dominated beams (plasmas), 52.59.Sa |
| Space charge effects (dielectric properties), 77.22.Jp |
| Space charge-limited devices, 85.30.Fg |
| Spacecraft |
| interactions with atmosphere, 94.05.Hk |
| sheaths and wakes, 94.05.Jq |
| Space geodetic surveys, 91.10.Fc |
| Space groups (crystal symmetry), 61.50.Ah |
| Space plasma, 94.05.-a |
| radiation processes, 94.05.Dd |
| solitons in, 94.05.Fg |
| wave-wave, wave-particle interactions, 94.05.Pt |
| Spacetime |
| curved |
| Einstein-Maxwell, 04.40.Nr |
| quantum fields in, 04.62.+v |
| self-gravitating systems in, 04.40.-b |
| topology of, 04.20.Gz |
| Space weather, *94.05.S-, 94.05.Sd |
| forecasting, 94.05.Sd, *94.05.sx |
| solar effects, 94.05.Sd, *94.05.sp |
| Spallation breeder reactors, 28.50.Ft |
| Spallation reactions, 25.40.Sc |
| Sparks, 52.80.Mg |
| Spatial dimensions, measurement of, 06.30.Bp |
| Spatial filters, optical, 42.79.Ci |
| Special relativity, 03.30.+p |
| Specific heat |
| of liquids, 65.20.Jk |
| of magnetic materials, 75.40.-s |
| of solids, 65.40.Ba, 65.60.+a |
| of superconductors, 74.25.Bt |
| Speckles, 42.30.Ms |
| SPECT, 87.57.uh |
| Spectral classification, stellar, 97.10.Ri |
| Spectral filters, 42.79.Ci |
| Spectral lines |
| intensity of, 32.70.Fw, 33.70.Fd |
| shape and shift of, 32.70.Jz, 33.70.Jg |
| Spectral methods |
| computational techniques, 02.70.Hm |
| in fluid dynamics, 47.11.Kb, 47.27.er |
| Spectral MRI (in neuroscience), 87.19.lf |
| Spectral sources, electric-discharge, 52.80.Yr |
| Spectra of biomolecules, 87.15.M- |
| Spectrochemical analysis, 82.80.Dx, 82.80.Ej, 82.80.Gk, 82.80.Ha |
| Spectrometers |
| electron, 07.81.+a |
| gamma-ray, 07.85.Nc |
| infrared, 07.57.Ty |
| ion, 07.81.+a |
| magnetic resonance, 07.57.Pt |
| microwave and radiowave, 07.57.Pt |
| for nuclear physics, 29.30.-h |
| visible and ultraviolet, 07.60.Rd |
| x-ray, 07.85.Nc |
| Spectrophotometry |
| in astronomy, 95.75.Fg |
| in chemical analysis, 82.80.Dx |
| Spectroscopy |
| in astronomy, 95.55.Qf, 95.75.Fg |
| in chemical analysis, 82.80.-d |
| in-beam (see 23) |
| instrumentation |
| in atomic and molecular physics, 07.57.-c |
| laser, 42.62.Fi |
| of solid state dynamics, 78.47.-p |
| nonlinear optical spectroscopy, 78.47.N- |
| four-wave mixing spectroscopy, 78.47.nj |
| hole burning spectroscopy, 78.47.nd |
| coherent nonlinear optical spectroscopy, 78.47.jh |
| time resolved spectroscopy |
| >1psec, 78.47.D- |
| of conduction electrons, 78.47.db |
| excited states, 78.47.da |
| of radicals, 78.47.dc |
| <1psec |
| reflection spectroscopy, 78.47.jg |
| light scattering spectroscopy, 78.47.je |
| luminescence, 78.47.jd |
| ultrafast spectroscopy <1psec |
| coherent spectroscopy (femtochemistry), 82.53.Kp |
| free polarization decay, 78.47.js |
| optical nutation, 78.47.jp |
| photon echoes, 78.47.jf |
| pump probe studies (femtochemistry), 82.53.Eb, 82.53.Hn |
| quantum beats, 78.47.jm |
| transient absorption, 78.47.jb |
| transient grating spectroscopy, 78.47.jj |
| Speech |
| perception, *43.71.-k, 43.71.+m |
| processing, *43.72.-p, 43.72.+q |
| production, *43.70.-h, 43.70.+i |
| cross-linguistic, *43.70.Kv |
| Spheromaks, 52.55.Ip |
| Spicules, 96.60.Na |
| Spin chain models, 75.10.Pq |
| Spin crossover, 75.30.Wx |
| Spin-density waves, 75.30.Fv |
| Spin diffusion, 75.40.Gb |
| Spin dynamics |
| of superfluid helium-3, 67.30.hj |
| Spin echo, 76.60.Lz |
| Spin fluctuations (superconductivity), 74.20.Mn |
| Spin foams, 04.60.Pp |
| Spin glasses, magnetic properties of, 75.50.Lk |
| Spin-glass models, 75.10.Nr |
| Spin Hamiltonians, 75.10.Dg |
| Spin-lattice relaxation, 76.60.Es |
| Spinodal decomposition, 64.75.-g, 81.30.-t |
| Spin-orbit coupling |
| atomic, 32.10.Fn, 33.60.+q |
| in condensed matter, 71.70.Ej |
| molecular, 33.15.Pw, 33.57.+c |
| in magnetic thin films, 75.70.Tj |
| Spin ordering, 75.25.-j |
| Spinor structure, 04.20.Gz |
| Spin polarized 3He, 67.30.ep |
| Spin-polarized transport |
| field effect transistors, 85.75.Hh |
| magnetic field sensors, 85.75.Ss |
| resonant tunnel junctions, 85.75.Mm |
| Spin pumping, current-driven, 72.25.Pn |
| Spin transport (magnetoelectronics), 75.76.+j |
| Spintronics, 85.75.-d |
| spin transport effects, 75.76.+j |
| Spin waves, 75.30.Ds |
| and magnetic critical points, 75.40.Gb |
| resonance, 76.50.+g |
| Spiral galaxies, 98.52.Nr, 98.56.Ne |
| Spoken languages, processing of, *43.71.Sy |
| Spontaneous symmetry breaking, 11.30.Qc |
| of gauge symmetries, 11.15.Ex |
| Sports, physics of, 01.80.+b |
| Spray coating techniques, 52.77.Fv, 81.15.Rs |
| s-process (nuclear astrophysics), 26.20.Kn |
| Sputtering |
| by atom, molecule, and ion impact, 79.20.Rf |
| in etching, 81.65.Cf |
| film deposition by, 81.15.Cd |
| Squeezed states, 42.50.Dv |
| SQUID devices, 85.25.Dq |
| Stacking faults, 61.72.Nn |
| Stalagmites, stalactites, *92.30.Xy |
| Standards |
| acoustical, *43.15.+s |
| frequency (astronomy), 95.55.Sh |
| metrology, 06.20.F-, 06.20.fb |
| optical, 42.72.-g |
| in physiological optics, 42.66.Qg |
| Standing waves, acoustic |
| linear, *43.20.Ks |
| nonlinear, *43.25.Gf |
| Stark effect |
| in atoms, 32.60.+i |
| in condensed matter, 71.70.Ej |
| in molecules, 33.57.+c |
| Stark shift, dynamic, 42.50.Hz |
| Stars |
| binary and multiple, 97.80.-d |
| characteristics and properties of, 97.10.-q |
| formation of, 97.10.Bt |
| late stages of evolution of, 97.60.-s |
| normal, 97.20.-w |
| relativistic, 04.40.Dg |
| types of, 97.20.-w |
| variable and peculiar, 97.30.-b |
| Starspots, 97.10.Qh |
| State reconstruction (quantum mechanics), 03.65.Wj |
| State selected dynamics (chemical reactions), 82.20.Bc |
| State-to-state energy transfer (chemical reactions), 82.20.Rp |
| State-to-state scattering analysis |
| atoms and molecules, 34.50.-s |
| Static elasticity, 46.25.-y |
| theory in biological physics, 87.10.Pq |
| Static electrification, 41.20.Cv, 73.40.-c |
| Statistical mechanics |
| of adsorbates, 68.43.De |
| classical, 05.20.-y |
| of displacive phase transitions, 63.70.+h |
| of lattice vibrations, 63.70.+h |
| of phase transitions in model systems, 64.60.De |
| quantum, 05.30.-d |
| Statistical models |
| in atomic physics, 31.15.bt |
| of nuclear reactions, 24.10.Pa |
| of strong interactions, 12.40.Ee |
| Statistical physics. See 05 |
| Statistical theories |
| of atomic and molecular collisions, 34.10.+x |
| in chemical kinetics, 82.20.Db |
| of nuclear reactions, 24.60.-k |
| Statistics, 02.50.-r |
| Stellarators, 52.55.Hc |
| Stellar clusters and associations, 98.20.-d |
| Stellar motion, 97.10.-q |
| Stellar seismology, 97.10.Sj |
| Stellar systems, 98.52.-b |
| Stellar winds, 97.10.Me |
| Stereochemistry |
| of molecules, 33.15.Bh |
| Stereotactic radiosurgery, 87.53.Ly |
| Stimulated emission |
| condensed matter, 78.45.+h |
| laser theory, 42.55.Ah |
| Stimulated scattering |
| Brillouin and Raman (plasma), 52.38.Bv |
| Brillouin and Rayleigh, 42.65.Es |
| Raman, 42.65.Dr |
| Raman lasers, 42.55.Ye |
| STM (scanning tunneling microscopy) |
| in biophysics, 87.64.Dz |
| instrumentation for, 07.79.Cz |
| single particle tunneling (superconductivity), 74.55.+v |
| in study of surface structure, 68.37.Ef |
| Stochastic analysis, 02.50.Fz |
| Stochastic models |
| of atomic and molecular collisions, 34.10.+x |
| in biological physics, 87.10.Mn |
| of chemical kinetics, 82.20.Fd |
| in statistical physics and nonlinear dynamics, 05.10.Gg |
| Stochastic processes, 05.40.-a |
| Stoichiometry, 61.50.Nw |
| Stokes flow, 83.10.-y |
| Stopping power, 34.50.Bw, 61.85.+p |
| Storage rings, 29.20.db |
| Storage tubes, 84.47.+w |
| Storms |
| atmospheric, 92.60.Qx |
| ionospheric, 94.20.Vv |
| Strain-induced level splitting, 71.70.Fk |
| Strain-induced piezoelectric fields, 77.65.Ly |
| Strain effects in ferroelectric transitions, 77.80.bn |
| Strains |
| measurement of, 07.10.Pz |
| in solids, 62.20.-x |
| in thin films, 68.60.Bs |
| Strange particles, 14.20.Jn, 14.40.-n |
| Stratification |
| in granular flow, 45.70.Mg |
| in nonhomogeneous flows, 47.55.Hd |
| Stratosphere, 92.60.hd |
| stratosphere/troposphere interactions, 92.60.Xg |
| Streamflow, 92.40.Qk, *92.40.qp |
| Streams, corotating (interplanetary space), 96.50.Qx |
| Stress corrosion cracking, 62.20.mt |
| Stress measurement, 07.10.Lw |
| Stress relaxation |
| mechanical properties of solids, 62.40.+i |
| in rheology, 83.85.St |
| Stress-strain relations, 62.20.D-, 81.40.Jj |
| Strings |
| black |
| in general relativity, 04.50.Gh |
| cosmic |
| field theory aspects of, 11.27.+d |
| in models of early Universe, 98.80.Cq |
| in general theory of fields and particles, 11.25.-w |
| in structural acoustics, *43.40.Cw |
| in structural mechanics, 46.70.Hg |
| String theory |
| gravitational aspects of, 04.60.Cf |
| M theory, 11.25.Yb |
| particles and fields, 11.25.-w |
| Strip lines, 84.40.Az |
| Stroke, 87.19.xq |
| Strong-field excitation (quantum optics), 42.50.Hz |
| Strong interactions |
| electromagnetic corrections, 13.40.Ks |
| models of, 12.40.-y |
| in quantum chromodynamics, 12.38.-t |
| quark models, 12.39.-x |
| in unified theories, 12.10.Dm |
| Strongly correlated electron systems, 71.27.+a |
| Strongly coupled plasmas, 52.27.Gr |
| Structural acoustics, *43.40.-r, 43.40.+s |
| Structural geology |
| crustal deformation kinematics, 91.55.Ln |
| folds, 91.55.Hj |
| fractures and faults, 91.55.Fg, 91.55.Jk |
| local and regional crustal structure, 91.55.Nc |
| melanges, 91.55.Pq |
| mesoscopic fabrics, 91.55.Qr |
| pluton emplacement, 91.55.Sn |
| role of fluids in, 91.55.Tt |
| Structure |
| of amorphous metals and semiconductors, 61.43.Dq |
| of atoms and molecules, 32.10.-f, 33.15.-e |
| of biomolecular aggregates, 87.15.bk |
| of biomolecules, 87.15.B- |
| secondary structure, 87.15.bd |
| tertiary structure, 87.15.bg |
| of clean solid surfaces, 68.35.B- |
| of clusters, 36.40.Mr, 61.46.Bc |
| of crystalline solids, 61.66.-f |
| of dendrites, 68.70.+w |
| of disordered solids, 61.43.-j |
| of fractals, 61.43.-j |
| of fullerenes, 61.48.-c |
| of galaxies, 98.62.Lv |
| of glasses, 61.43.Fs |
| of graphene, 61.48.Gh |
| irradiation effects on, 61.80.-x |
| of liquid crystals, 61.30.-v |
| of liquids, 61.20.-p, 61.25.-f |
| of multilayers, 68.65.Ac |
| of nanoparticles, 61.46.Df |
| of quasicrystals, 61.44.-n |
| stellar, 97.10.Cv |
| of superlattices, 68.65.Cd |
| of thin films, 68.55.-a, 68.55.J- |
| of whiskers, 68.70.+w |
| Structures, mechanical, 46.70.-p |
| Subcellular structure and processes, 87.16.-b |
| cell walls, 87.16.Gj |
| chromosomes in, 87.16.Sr |
| cytoskeleton, 87.16.Ln |
| filaments in, 87.16.Ka |
| intracellular signaling, 87.16.Xa |
| intracellular trafficking, 87.16.Wd |
| membranes in, 87.16.D- |
| microtubules in, 87.16.Ka |
| mitochondria in, 87.16.Tb |
| morphology of nerve cells, 87.16.Mq |
| motor proteins in, 87.16.Nn |
| nuclear morphology, 87.16.Zg |
| regulatory networks, 87.16.Yc |
| theory and modeling of, 87.16.A- |
| transport processes in, 87.16.dp, 87.16.Uv, 87.16.Vy |
| Subduction zones |
| geochemistry of, *91.67.fc |
| in marine geology, 91.50.Wy |
| seismology of, 91.30.Ga |
| in tectonophysics, 91.45.Hc |
| in volcanology, 91.40.Rs |
| Sublimation, 64.70.Hz |
| Submarine landslides, 91.50.Xz |
| Submersible ocean observatories, 91.50.Yf |
| Submillimeter waves |
| astronomical observations, 95.85.-e |
| receivers and detectors, 07.57.Kp |
| sources, 07.57.Hm |
| Subsonic flows, 47.40.Dc |
| SU groups |
| in nuclear physics, 21.60.Fw |
| in particle physics, 11.30.Hv, 11.30.Ly |
| Summer schools, 01.30.Bb |
| Sum rules (S-matrix theory), 11.55.Hx |
| Sun |
| characteristic and properties of, 96.60.-j |
| cosmic rays, 96.50.S- |
| helioseismology, 96.60.Ly |
| radiation (meteorology), 92.60.Vb |
| solar magnetism, 96.60.Hv |
| Sunspots, 96.60.qd |
| Superconducting cables, 84.71.Fk |
| Superconducting devices, 85.25.-j |
| Superconducting films, 74.78.-w |
| Superconducting high-power technology, 84.71.-b |
| Superconducting integrated circuits, 85.25.Hv |
| Superconducting junctions (SN and SNS), 74.45.+c |
| Superconducting low-dimensional structures, 74.78.-w |
| Superconducting magnets, 84.71.Ba |
| Superconducting materials |
| noncuprate materials, 74.70.-b |
| binary compounds, 74.70.Ad |
| borocarbides, 74.70.Dd |
| chalcogenides, 74.70.Xa |
| carbon-based materials, 74.70.Wz |
| heavy-fermion materials, 74.70.Tx |
| magnesium diboride, 74.70.Ad |
| metals and alloys, 74.70.Ad |
| multinary compounds, 74.70.Dd |
| organic compounds, 74.70.Kn |
| pnictides, 74.70.Xa |
| ruthenates, 74.70.Pq |
| cuprates, 74.72.-h |
| electron doped compounds, 74.72.Ek |
| hole doped compounds, 74.72.Gh |
| insulating parent compounds, 74.72.Cj |
| pseudogap regime materials, 74.72.Kf |
| Superconducting wire networks, 74.81.Fa |
| Superconducting wires, fibers, and tapes, 84.71.Mn |
| Superconductivity |
| new topics in, 74.90.+n |
| potential candidates, 74.10.+v |
| theories and models of, 74.20.-z |
| BCS theory, 74.20.Fg |
| electronic structure calculations, 74.20.Pq |
| Ginzburg-Landau theory, 74.20.De |
| nonconventional mechanisms in, 74.20.Mn |
| pairing symmetries, 74.20.Rp |
| two-fluid theory, 74.20.De |
| Superconductors |
| nuclear magnetic resonance (NMR), 74.25.nj |
| optical spectra, 74.25.nd |
| phonons in, 74.25.Kc |
| Raman spectra, 74.25.nd |
| properties of, 74.25.-q |
| acoustical properties, 74.25.Ld |
| critical currents, 74.25.Sv |
| critical fields, 74.25.Op |
| energy levels (electronic structure), 74.25.Jb |
| magnetic properties, 74.25.Ha |
| mechanical properties, 74.25.Ld |
| optical properties, 74.25.Gz |
| photoemission, 74.25.Jb |
| surface impedance, 74.25.nn |
| surface sheaths, 74.25.Op |
| transport properties, 74.25.F- |
| vortex phases, 74.25.Uv |
| vortex pinning, 74.25.Wx |
| Supercritical fluids |
| chemical reactions in, 82.33.De |
| optical properties of, 78.15.+e |
| Superexchange interactions, 75.30.Et |
| Superfluidity |
| hydrodynamic aspects of, 47.37.+q |
| of mixed systems, 67.60.-g |
| Superfluorescence, 42.50.Nn |
| Supergiant stars, 97.20.Pm |
| Supergravity, 04.65.+e |
| Superheavy elements |
| properties of, 27.90.+b |
| reactions and scattering of, 25.70.-z, 25.75.-q |
| Superionic conductors, 66.30.H- |
| Superlattices |
| dielectric films, 77.55.Px |
| electron states and collective excitations in, 73.21.Cd |
| magnetic properties of, 75.70.Cn |
| optical properties of, 78.67.Pt |
| photoemission and photoelectron spectra of, 79.60.Jv |
| structure and nonelectronic properties of, 68.65.Cd |
| superconducting, 74.78.Fk |
| Supermagnetism, 75.50.Vv |
| Supernovae, 97.60.Bw |
| evolution, nuclear physics aspects of, 26.50.+x |
| explosive burning in shock fronts, 26.30.Ef |
| nucleosynthesis in, 26.30.-k |
| Supernova remnants |
| in external galaxies, 98.58.Mj |
| in Milky Way, 98.38.Mz |
| Superplasticity, 62.20.fq |
| Super-radiance, 42.50.Nn |
| Supersaturation measurement, 82.20.-w |
| Supersolids |
| 4He, 67.80.bd |
| quantum solids, 67.80.K- |
| Supersonic flows, 47.40.Ki |
| Supersymmetric Higgs bosons, 14.80.Da |
| Supersymmetric models, 12.60.Jv |
| Supersymmetric partners of known particles, 14.80.Ly |
| Supersymmetry, 11.30.Pb |
| Supramolecular assembly, 81.16.Fg |
| Surface acoustic wave devices, 85.50.-n |
| superconducting, 85.25.Qc |
| transducers for, *43.38.Rh |
| Surface acoustic waves |
| effect of nonlinearity on, *43.25.Fe |
| in piezoelectrics, 77.65.Dq |
| in solids and liquids, *43.35.Pt, 68.35.Iv |
| Surface barrier devices, 85.30.Hi |
| Surface cleaning, 81.65.Cf |
| plasma-assisted, 52.77.Bn |
| Surface conductivity, 73.25.+i |
| Surface crossings (electronic structure), 31.50.Gh |
| Surface diffusion, 68.35.Fx |
| Surface double layers, 73.30.+y, 82.45.Mp |
| Surface dynamics, 68.35.Ja |
| Surface-enhanced Raman scattering (SERS), 78.30.-j |
| Surface energy |
| of solid surfaces, 68.35.Md |
| thermal properties of crystalline solids, 65.40.gp |
| Surface flows, 83.50.Lh |
| Surface hardening, 81.65.Lp |
| Surface impedance (superconductivity), 74.25.nn |
| Surface magnetism, 75.70.Rf |
| Surface patterning, 81.65.Cf |
| Surface phase transitions, 68.35.Rh |
| Surface plasmons, 73.20.Mf |
| Surface reconstruction, 68.35.B- |
| Surfaces |
| adsorption on, 68.43.-h |
| grinding of (optical elements), 42.86.+b |
| microscopy of, 68.37.-d |
| optical properties of, 78.68.+m |
| reactions on, 82.40.-g, 82.65.+r |
| scattering from, 68.49.-h |
| structure of, 68.35.B-, 68.35.-p |
| thermodynamics of, 05.70.Np, 68.35.Md |
| Surface sheath (superconductivity), 74.25.Op |
| Surface states, 73.20.-r |
| Surface strains, 68.35.Gy |
| Surface tension, 68.03.Cd |
| Surface treatments, 81.65.-b |
| Surface water, *92.40.Q-, 92.40.Qk |
| Surface waves |
| in seismology, 91.30.Fn |
| Surfactants |
| effects on bubbles and drops, 47.55.dk |
| physical chemistry of, 82.70.Uv |
| rheology of, 83.80.Qr |
| Surveys, 01.30.Rr |
| Susceptibility, magnetic |
| dynamic, at magnetic critical points, 75.40.Gb |
| of magnetically ordered materials, 75.30.Cr |
| static, at magnetic critical points, 75.40.Cx |
| Susceptibility, optical, 42.65.An |
| Suspensions, 82.70.Kj |
| complex fluids, 47.57.E- |
| dielectric properties of, 77.84.Nh |
| rheology of, 83.80.Hj |
| Sustainability (renewable energy), 88.05.Lg |
| Swelling |
| of extrudate, 83.60.Jk |
| of polymers, 61.25.hp |
| Swirling flows, 47.32.Ef |
| Switches |
| electrical, 84.32.Dd |
| optical, 42.79.Ta |
| plasma, 52.75.Kq |
| Switching |
| in ferroelectrics, 77.80.Fm |
| in nonlinear optics, 42.65.Pc |
| ultrafast magnetization dynamics, 75.78.Jp |
| Symbiosis (ocean biology), *92.20.jd |
| Symbolic computation, 02.70.Wz |
| Symmetry |
| crystal, 61.50.Ah |
| molecular, 33.15.Bh |
| in nuclear processes, 24.80.+y |
| nuclear tests of, 24.80.+y |
| in theory of fields and particles, 11.30.-j |
| Symmetry breaking, 11.30.Qc |
| flow instabilities, 47.20.Ky |
| gauge field theory, 11.15.Ex |
| Synchronization, nonlinear dynamics, 05.45.Xt |
| Synchrotron radiation |
| instrumentation for, 07.85.Qe |
| by moving charges, 41.60.Ap |
| in spin-arrangement determination, 75.25.-j |
| Synchrotrons, 29.20.dk |
| Syngas |
| biopower systems, 88.20.mr |
| as fuel from biomass, 88.20.fs |
| Synthetic aperture radar (SAR), 84.40.Xb |
| Systems biology, 87.18.Vf |
| Tandem mirrors, 52.55.Jd |
| Tantalates, 77.84.Ek |
| tantalite-based dielectric films, 77.55.fj |
| Taste (sensory systems), 87.19.lt |
| Taus |
| decays of, 13.35.Dx |
| properties of, 14.60.Fg |
| Taylor-Couette flow, 47.20.Qr |
| Teacher training, 01.40.J- |
| Teaching methods, 01.40.gb |
| Technicolor models, 12.60.Nz |
| Technicolor particles, 14.80.Tt |
| Technological research and development, 89.20.Bb |
| Tectonophysics, 91.45.-c |
| evolution of the Earth, 91.45.Nc |
| heat generation and transport, 91.45.Rg |
| hot spots, 91.45.Jg |
| planetary interiors, 91.45.Bg |
| stresses in, *91.45.X-, 91.45.Xz |
| volcanic arcs, 91.45.Wa |
| Tektites, 96.30.Za |
| Telecommunications, 84.40.Ua |
| Telemetry, 84.40.Xb |
| Telescopes, 95.55.-n |
| Television cameras, 07.07.Hj |
| Telluric currents (geomagnetism), 91.25.Qi |
| Temperate regions, 93.30.Tr |
| Temperature |
| atmospheric, 92.60.hv |
| measurement of, 07.20.Dt |
| stellar, 97.10.Ri |
| Tensile machines, 07.10.Lw |
| Tensile strength |
| materials treatment effects on, 81.40.Lm |
| of solids, 62.20.M- |
| Tension measurement, 07.10.Lw |
| Tephrochronology |
| geochronology of, *91.80.St |
| volcanology of, 91.40.Bp |
| Terrestrial atmosphere, 92.60.-e |
| Terrestrial electricity, 91.25.Qi |
| Terrestrial heat, 91.35.Dc |
| Terrestrial magnetism, 91.25.-r |
| Textbooks |
| for graduates and researchers, 01.30.mm |
| for students in grades 9-12, 01.30.mr |
| for students in grades K-8, 01.30.mt |
| for undergraduates, 01.30.mp |
| Texture |
| materials treatment effects on, 81.40.Ef |
| of superconductors, 74.81.Bd |
| of thin films, 68.55.jm |
| TGS crystals (dielectric materials), 77.84.Fa |
| Therapeutic applications |
| of acoustic and ultrasonic radiation, 87.50.yt |
| of electric and magnetic fields, 87.50.ct |
| of ionizing radiations, 87.53.Jw |
| of millimeter and terahertz radiation, 87.50.ux |
| of optical and infrared radiation, 87.50.wp |
| of radiofrequency and microwave radiation, 87.50.st |
| Thermal analysis, 81.70.Pg |
| Thermal blooming, 42.65.Jx |
| Thermal conduction |
| in amorphous and liquid metals and alloys, 72.15.Cz |
| in crystalline metals and alloys, 72.15.Eb |
| in gases, 51.20.+d |
| in glasses and polymers, 66.70.Hk |
| in metals and alloys and semiconductors, 66.70.Df |
| in ionic crystals, 66.70.Lm |
| in nonmetallic liquids, 66.25.+g |
| in superconductors, 74.25.fc |
| Thermal convection (fluid dynamics), 47.55.pb |
| Thermal diffusion |
| in gases, 51.20.+d |
| in liquids, 66.10.cd |
| Thermal diffusivity, 66.30.Xj |
| Thermal expansion, 65.40.De, 65.60.+a |
| Thermal instruments and techniques, 07.20.-n |
| Thermally stimulated currents |
| in dielectrics, 77.22.Ej |
| in thin films, 73.50.Gr |
| Thermal models, nuclear reactions, 24.10.Pa |
| Thermal neutron cross sections |
| nuclear engineering, 28.20.Ka |
| Thermal processes in biology, 87.19.Pp |
| Thermal properties |
| of amorphous solids and glasses, 65.60.+a |
| of crystalline solids, 65.40.-b |
| electrochemical properties, 65.40.gk |
| of gases, 51.30.+i |
| of graphene, 65.80.Ck |
| of liquids, 65.20.-w |
| of nanocrystals, and nanotubes 65.80.-g |
| of rocks and minerals, 91.60.Ki |
| of small particles, 65.80.-g |
| Thermal radiation, 44.40.+a |
| Thermal stability (thin films), 68.60.Dv |
| Thermal waves in solids, 66.70.-f |
| Thermionic emission, 79.40.+z |
| Thermionic energy conversion, 52.75.Fk, 84.60.Ny |
| Thermionic plasma devices, 52.75.Xx |
| Thermistors, 84.32.Ff |
| Thermocapillary effects |
| drops and bubbles, 47.55.dm |
| interfacial flows, 47.55.nb |
| Thermocouples, 07.20.Dt |
| Thermodynamic properties |
| of condensed matter, 65 |
| of gases, 51.30.+i |
| of normal 3He, 67.30.ef |
| of normal 4He, 67.25.bd |
| of plasma, 52.25.Kn |
| of solutions, 82.60.Lf |
| of superconductors, 74.25.Bt |
| of superfluid 4He, 67.25.de |
| of surfaces and interfaces, 05.70.Np, 68.35.Md |
| Thermodynamics, 05.70.-a |
| in astrophysics, 95.30.Tg |
| of black holes, 04.70.Dy |
| chemical, 82.60.-s |
| nonequilibrium, 05.70.Ln |
| of nucleation, 82.60.Nh |
| thermodynamic constraints (renewable energy resources), 88.05.De |
| Thermoelasticity, 46.25.Hf, 62.20.D-, 81.40.Jj |
| Thermoelectrets, 77.22.Ej |
| Thermoelectric devices, 85.80.Fi |
| Thermoelectric effects |
| in metals and alloys, 72.15.Jf |
| in semiconductors and insulators, 72.20.Pa |
| in superconductors, 74.25.fg |
| thin films, 73.50.Lw |
| Thermoelectric energy conversion, 84.60.Rb |
| Thermoelectromagnetic devices, 85.80.-b |
| Thermoelectronic phenomena, 79.10.N- |
| Thermoforming, 83.50.-v |
| Thermography, 87.63.Hg |
| Thermogravimetric analysis, 81.70.Pg |
| Thermohaline convection |
| oceanography, 92.10.af |
| paleoceanography, *92.30.Uv |
| Thermoluminescence, 78.60.Kn |
| Thermomagnetic effects |
| of metals and alloys, 72.15.Jf |
| of semiconductors and insulators, 72.20.Pa |
| of thin films, 73.50.Jt |
| Thermomechanical effects, 65.40.De |
| Thermomechanical treatment of materials, 81.40.Gh |
| Thermometers, 07.20.Dt |
| Thermonuclear technology, 28.52.-s |
| Thermo-optic effects, 78.20.N- |
| photothermal effects, 78.20.nb |
| photopyroelectric effects, 78.20.nc |
| thermophotonic effects, 78.20.nd |
| Thermopiles, 07.20.Dt |
| Thermoreversible gels, 83.80.Kn |
| Thermorheological properties, 83.60.St |
| Thermosetting polymers, 83.80.Jx |
| Thermosphere, 92.60.hb |
| Theta pinch, 52.55.Ez |
| Thickening flows, 83.60.Pq |
| Thick films, 85.40.Xx |
| Thin film flows, 47.15.gm |
| Thin films |
| acoustical properties, *43.35.Ns, 68.60.Bs |
| conductivity of, 73.61.-r |
| deposition methods of, 81.15.-z |
| devices, magnetic, 85.70.Kh |
| dielectric, 77.55.-g |
| in electrochemistry, 82.45.Mp |
| growth, structure, and epitaxy of, 68.55.-a, 81.15.Aa |
| in integrated optics, 42.82.-m |
| Langmuir-Blodgett, 68.18.-g, 68.47.Pe |
| liquid, 68.15.+e, 68.18.-g |
| magnetic, 75.70.-i |
| mechanical properties of, 68.60.Bs |
| microscopy of, 68.37.-d |
| morphology of, 68.55.J- |
| texture, 68.55.jm |
| thickness, 68.55.jd |
| optical properties of, 78.20.-e |
| of specific thin films, 78.66.-w |
| phase separation and segregation in, 64.75.St |
| photoemission and photoelectron spectra of, 79.60.Dp |
| semiconductors, III-V |
| electrical properties of, 73.61.Ey |
| optical properties of, 78.66.Fd |
| semiconductors, II-VI |
| electrical properties of, 73.61.Ga |
| optical properties of, 78.66.Hf |
| superconducting, 74.78.-w |
| thermal effects in, 68.60.Dv |
| transport phenomena in, 73.50.-h |
| Thixotropy, 83.60.Pq |
| Thomas-Fermi model |
| of atoms and molecules, 31.15.bt |
| electron gas, 71.10.Ca |
| in nuclear structure, 21.60.-n |
| Thyristors, 85.30.Rs |
| Tidal interactions (galaxies), 98.65.Fz |
| Tides |
| atmospheric, 92.60.hh |
| Earth, 91.10.Tq |
| oceanic, *92.10.hb |
| Tight-binding methods (atomic physics), 31.15.aq |
| Time, measurement of, 06.30.Ft |
| Time-of-flight mass spectrometry |
| in chemical analysis, 82.80.Rt |
| instrumentation for, 07.75.+h |
| Time resolved spectroscopy, 78.47.jd, 78.47.D- |
| Time series analysis |
| in astronomy, 95.75.Wx |
| in nonlinear dynamics, 05.45.Tp |
| Tissue engineering, 87.85.Lf |
| Tissue response factors in treatment planning, 87.55.dh |
| Tissues, biological |
| flow through, 47.63.Jd |
| Tissues and organs |
| dielectric properties of, 87.19.rf |
| fluid transport in, 87.19.rh |
| impulse propagation in, 87.19.rp |
| mechanical properties of, 87.19.R- |
| contraction, 87.19.rj |
| elastic properties, 87.19.rd |
| structure of, 87.19.rm |
| Titan, 96.30.nd |
| Titanates, 77.84.Cg |
| T-J model, 74.20.-z |
| Tokamaks, 52.55.Fa |
| Tomography |
| acoustic, *43.35.Wa, *43.60.Rw |
| of Earth's interior, 91.35.Pn |
| electrical impedance, 87.63.Pn |
| in materials testing, 81.70.Tx |
| in medical physics, 87.57.Q- |
| neutron tomography |
| neutron physics, 28.20.Pr |
| in solid state structure determination, 61.05.Tv |
| in medical imaging, 87.57.Va |
| quantum, 03.65.Wj |
| in seismology, 91.30.Jk |
| SPECT, 87.57.uh |
| ultrasonic, *43.35.Wa |
| Top quarks, 14.65.Ha |
| Topography |
| Earth, 91.10.Jf |
| Moon, 96.20.Dt |
| Topological excitations (Bose-Einstein condensation), 03.75.Lm |
| Topological phases (quantum mechanics), 03.65.Vf |
| Topology, 02.40.Pc |
| algebraic, 02.40.Re |
| Topside region, ionosphere, 94.20.dl |
| Toroidal confinement devices, 52.55.Hc |
| Torque |
| measurement of, 07.10.Pz |
| in Newtonian mechanics, 45.20.da |
| Torsatrons, 52.55.Hc |
| Total energy calculations (condensed matter), 71.15.Nc |
| Touch (sensory systems), 87.19.lt |
| Townsend discharge, 52.80.Dy |
| Toys, physics of, 01.50.Wg |
| Trajectory models |
| for atomic and molecular collisions, 34.10.+x |
| for chemical kinetics, 82.20.Fd |
| Transducers |
| acoustic, 43.38.+n, *43.38.-p |
| general instrumentation for, 07.07.Mp |
| for underwater sound, *43.30.Yj |
| Transfer functions, optical, 42.30.Lr |
| Transfer reactions |
| deuterium-induced, 25.45.Hi |
| heavy-ion-induced, 25.70.Hi |
| nucleon-induced, 25.40.Hs |
| unstable-nuclei-induced, 25.60.Je |
| Transient grating spectroscopy, 78.47.jj |
| Transistors |
| bipolar, 85.30.Pq |
| field effect, 85.30.Tv |
| Transition-metal compounds, electrical conductivity of, 72.80.Ga |
| Transition metals and alloys |
| electric conductivity of, 72.15.Eb |
| electronic structure of, 71.20.Be |
| Transition probabilities |
| atomic, 32.70.Cs |
| molecular, 33.70.Ca |
| nuclear, 23.20.-g |
| Transition radiation |
| by relativistic moving charges, 41.60.Dk |
| Transition state theory (chemical kinetics), 82.20.Db |
| Transition temperature variations (superconductivity), 74.62.-c |
| chemical composition effects on, 74.62.Bf |
| crystal defects effects on, 74.62.Dh |
| disorder effects on, 74.62.En |
| doping and substitution effects on, 74.62.Dh |
| material synthesis effects on, 74.62.Bf |
| pressure effects on, 74.62.Fj |
| Transmission coefficients, optical, 78.20.Ci |
| Transmission electron microscopy (TEM), 68.37.Lp |
| high-resolution transmission electron microscopy (HRTEM), 68.37.Og |
| scanning transmission electron microscopy (STEM), 68.37.Ma |
| Transmission lines, 84.40.Az |
| Transonic flows, 47.40.Hg |
| Transportation, 89.40.-a |
| Transport dynamics |
| of biomolecules, 87.15.hj |
| Transport processes |
| classical, 05.60.Cd |
| in gases, 51.10.+y |
| in interfaces, 73.40.-c |
| in metals and alloys, 72.15.-v, 72.25.Ba |
| neutron, 28.20.Gd |
| nonelectronic (see 66) |
| in normal phase 3He, 67.30.eh |
| in normal phase 4He, 67.25.bf |
| in plasma, 52.25.Fi |
| quantum, 05.60.Gg |
| in quantum fluids, 67.10.Jn |
| in semiconductors and insulators, 72.20.-i, 72.25.-b |
| specific materials, 72.80.-r |
| spin-polarized, 72.25.-b |
| subcellular, 87.16.dp, 87.16.Uv, 87.16.Vy |
| in superconductors, 74.25.F- |
| in superfluid phase 3He, 67.30.hb |
| in superfluid phase 4He, 67.25.dg |
| in thin films, 73.50.-h, 73.61.-r |
| Trapped particles (magnetosphere), 94.30.Hn |
| Trapping, charge carriers |
| in bulk matter, 72.20.Jv |
| in thin films, 73.50.Gr |
| Traps, ion, 37.10.Ty |
| Traveling-wave tubes, 84.40.Fe |
| Traversal time (quantum mechanics), 03.65.Xp |
| Treatment planning, 87.55.D- |
| dose-volume analysis in, 87.55.dk |
| optimization techniques in, 87.55.de |
| tissue response in, 87.55.dh |
| Treatment strategy (medical physics), 87.55.-x |
| Monte Carlo methods in, 87.55.K- |
| quality assurance in, 87.55.Qr |
| radiation monitoring in, 87.55.N- |
| record and verify systems in, 87.55.T- |
| safety in, 87.55.N- |
| simulation of, 87.55.Gh |
| treatment planning, 87.55.D- |
| Triassic period, *91.70.dg |
| Triboelectricity, 41.20.Cv |
| Tribology |
| rheology of, 83.50.Lh |
| of solids, 62.20.Qp |
| in structural mechanics, 46.55.+d |
| Triboluminescence, 78.60.Mq |
| Trions, 71.35.Pq |
| Triple points, 64.60.Kw |
| Triplet state, 31.50.Df, 33.50.-j |
| Triton-induced reactions, 25.55.-e |
| Tritons, 27.10.+h |
| Tropical regions, 93.30.Vs |
| meteorology of, 92.60.Ox |
| Troposphere, 92.60.hf |
| Tsunamis, 91.30.Nw, *92.10.hl |
| Tube flow, 47.60.-i |
| Tube theories (rheology), 83.10.Kn |
| Tully-Fisher relationship (astrophysics), 98.62.Ve |
| Tundra, 92.40.Vq, *92.40.vt |
| Tunneling |
| in Bose-Einstein condensation, 03.75.Lm |
| of defects, 66.35.+a |
| in interface structures, 73.40.Gk |
| macroscopic, in magnetic systems, 75.45.+j |
| in quantum Hall effects, 73.43.Jn |
| quantum mechanics of, 03.65.Xp, 03.75.Lm |
| single particle tunneling (superconductors), 74.55.+v |
| Josephson effects, 74.50.+r |
| Tunnel junction devices, 85.30.Mn |
| Turbidity currents (marine geology), 91.50.Jc |
| Turbines |
| hydroturbines, 88.60.K- |
| cross-flow turbines, 88.60.kc |
| Francis hydropower turbines, 88.60.kf |
| free-flow turbines, 88.60.kj |
| impulse turbines, 88.60.km |
| Pelton turbines, 88.60.kp |
| propeller turbines, 88.60.kr |
| reaction turbines, 88.60.kt |
| wind turbines, 88.50.G- |
| components, 88.50.gm |
| modeling, design, 88.50.gj |
| research and development, 88.50.gg |
| testing of, 88.50.gp |
| Turbulence |
| atmospheric, 92.60.hk |
| atmospheric optics, 42.68.Bz |
| fluid, 47.27.-i |
| meteorological, 92.60.hk |
| oceanic, 92.10.Lq |
| plasma, 52.35.Ra |
| space plasma, 94.05.Lk |
| Turbulent diffusion, 47.27.tb |
| Turbulent flows, 47.27.-i |
| boundary-free, 47.27.W- |
| boundary layer, 47.27.nb |
| channel flow, 47.27.nd |
| coherent structures, 47.27.De |
| mixing layers, 47.27.wj |
| simulation and modeling, 47.27.E- |
| transition to turbulence, 47.27.Cn |
| wall-bounded, 47.27.N- |
| Tutorial papers, 01.30.Rr |
| Twinning, 61.72.Mm |
| Two-fluid theory (superconductivity), 74.20.De |
| ULSI, 85.40.-e |
| Ultracold gases, 67.85.-d |
| degenerate Fermi gases, 67.85.Lm |
| mixtures of Bose and Fermi gases, 67.85.Pq |
| trapped gases, 67.85.-d |
| Ultrafast processes |
| in dynamics of biomolecules, 87.15.ht |
| in femtochemistry, 82.53.-k |
| magnetization dynamics, 75.78.Jp |
| in nonlinear optics, 42.65.Re |
| in solid state dynamics, 78.47.J- |
| Ultrafast spectroscopy (<1psec), 78.47.J- |
| in femtochemistry, 82.53.-k |
| free polarization decay in, 78.47.js |
| optical nutation in, 78.47.jp |
| photon echoes in, 78.47.jf |
| quantum beats in, 78.47.jm |
| time-resolved spectroscopy in, 78.47.D- |
| transient grating spectroscopy in, 78.47.jj |
| Ultrasonic relaxation, 62.80.+f |
| superconductors, 74.25.Ld |
| Ultrasonic testing, *43.35.Zc, 81.70.Cv |
| Ultrasonic tomography, *43.35.Wa |
| Ultrasonic velocity measurement, *43.35.Ae, *43.35.Bf, *43.35.Cg |
| Ultrasonography |
| Doppler imaging, 87.63.dk |
| ultrasonographic imaging, 87.63.dh |
| Ultrasound, *43.35.-c, 43.35.+d |
| application to biology, *43.80.-n, 43.80.+p |
| effects on biological systems, 87.50.Y- |
| medical uses of, *43.35.Wa, *43.80.Qf, 87.50.yt, 87.63.D- |
| Ultraviolet detectors, 42.79.Pw, 85.60.Gz |
| Ultraviolet radiation |
| in astronomical observations, 95.85.-e |
| effects on biological systems, 87.50.W- |
| in photochemistry, 82.50.Hp |
| in plasma, 52.25.Os |
| scattering of, in biophysics, 87.64.Cc |
| surface irradiation effects of, 61.80.Ba |
| Ultraviolet spectroscopy |
| atomic, 32.30.Jc |
| in chemical analysis, 82.80.Dx |
| instruments for, 07.60.Rd |
| molecular, 33.20.Lg, 33.20.Ni |
| in solids and liquids, 78.40.-q |
| Underwater |
| acoustics, *43.30.-k, 43.30.+m, 92.10.Vz |
| morphology, 91.50.Ga |
| Undulator radiation, 41.60.-m |
| Unified field theories |
| gravity in more than four dimensions, 04.50.-h |
| models beyond the standard models, 12.60.-i |
| Units and standards, 06.20.F- |
| Universe |
| Early, 98.80.Cq |
| origin and formation of, 98.80.Bp |
| Upsilon mesons, 14.40.Nd |
| Uranus, 96.30.Pj |
| Uranian satellites, 96.30.Qk |
| Urban planning and development, 89.65.Lm |
| Vacancies, in crystals, 61.72.jd |
| Vacuum chambers, 07.30.Kf |
| Vacuum gauges, 07.30.Dz |
| Vacuum microelectronics, 85.45.-w |
| Vacuum production, 07.30.-t |
| Vacuum tubes, 84.47.+w |
| Valence-bond method |
| in electronic structure of atoms and molecules, 31.15.xw |
| in electronic structure of solids, 71.15.Ap |
| Valence fluctuation |
| in diamagnetism and paramagnetism, 75.20.Hr |
| in magnetically ordered materials, 75.30.Mb |
| Vapor-liquid transitions, 64.70.F- |
| Vapor phase epitaxy, 81.15.Kk |
| Vapor-solid transitions, 64.70.Hz |
| Variable stars, 97.30.-b |
| Variational methods |
| in atomic physics, 31.15.xt |
| in classical mechanics, 45.10.Db |
| in continuum mechanics, 46.15.Cc |
| in elementary particle physics, 11.80.Fv |
| in general relativity, 04.20.Fy |
| Varistors, 84.32.Ff |
| Vegetable oils as fuels from biomass, 88.20.ft |
| Velocimeters, laser Doppler, 42.79.Qx |
| Velocity, measurement of, 06.30.Gv |
| Veneziano model, 11.55.Jy, 12.40.Nn |
| Venus, 96.30.Ea |
| Very large scale integration (VLSI), 85.40.-e |
| Vesicles, 82.70.Uv, 87.16.D- |
| VHF radiation |
| atmospheric emissions, 92.60.hx |
| Vibrating structures, *43.20.Tb |
| Vibrational constants, molecular, 33.15.Mt |
| Vibrational energy transfer, 34.50.Ez |
| Vibrational levels |
| macromolecular, 36.20.Ng |
| molecular, 33.20.Tp |
| nuclear, 21.60.Ev |
| Vibration and tactile senses, *43.64.Vm, *43.66.Wv |
| Vibration isolation, 07.10.Fq |
| Vibration measurement, 07.10.-h, 46.40.-f |
| Vibration-rotational analysis, 33.20.Vq |
| Vibration-rotation constants, 33.15.Mt |
| Vibrations |
| of adsorbates, 68.43.Pq |
| in crystal lattices, 63.70.+h |
| in disordered systems, 63.50.-x |
| mechanical, 46.40.-f |
| in mechanical properties of solids, 62.30.+d |
| at solid surfaces and interfaces, 68.35.Ja |
| in structural acoustics, *43.40.-r, 43.40.+s |
| Vibronic interactions, 33.20.Wr |
| Video coding, 42.30.Va |
| Video devices, educational, 01.50.ff |
| Viral diseases, 87.19.xd |
| Viscoelasticity |
| in continuum mechanics of solids, 46.35.+z |
| in rheology, 83.60.Bc, 83.60.Df |
| Viscometers, 47.80.-v |
| Viscometry, 83.85.Jn |
| Viscoplasticity |
| in continuum mechanics, 46.35.+z |
| in rheology, 83.60.La |
| Viscosity, 66.20.-d |
| experimental studies of, 66.20.Ej |
| of gases, 51.20.+d |
| shear rate dependent, 83.60.Fg |
| theory and modeling of, 66.20.Cy |
| Viscous instability, 47.20.Gv |
| Visible and ultraviolet spectrometers, 07.60.Rd |
| Visible radiation |
| in astronomical observations, 95.85.Kr |
| effects on biological systems, 87.50.W- |
| in plasma, 52.25.Os |
| scattering of, in biophysics, 87.64.Cc |
| surface irradiation effects of, 61.80.Ba |
| Visible spectra |
| of atoms, 32.30.Jc |
| of molecules, 33.20.Kf |
| of solids and liquids, 78.40.-q |
| Vision |
| computer, robotic, 42.30.Tz |
| information processing in, 87.19.lt |
| physiological, 42.66.-p |
| Visual imaging, 87.63.L- |
| Visual perception, 42.66.Si |
| Vitamins, 87.14.Pq |
| Vitroceramics, 81.05.Pj |
| Vlasov equation, 52.20.-j, 52.25.Fi, 52.65.Ff |
| VLSI, 85.40.-e |
| Vocalization (motor systems), 87.19.lu |
| Voids (crystal defects), 61.72.Qq |
| Volcanoclastic deposits, 91.40.Uc |
| Volcanoes |
| hazards and risks, 91.40.Zz |
| remote sensing of, 91.40.Yt |
| seismology of, 91.30.Tb |
| Volcanology, 91.40.-k |
| atmospheric effects, 91.40.Dr, 92.60.Zc |
| intraplate processes, 91.40.Ta |
| lava rheology, 91.40.Hw |
| magma bodies, 91.40.La |
| thermodynamics in, 91.40.Pc |
| volcanic gases, 91.40.Vg |
| Voltage measurement, 84.37.+q |
| high-voltage technology, 84.70.+p |
| Volume measurement, 06.30.Bp |
| Vortex dynamics (fluid flow), 47.32.C- |
| Vortex phases (superconductivity), 74.25.Uv |
| Vortex pinning (superconductivity), 74.25.Wx |
| Vortices |
| in Bose-Einstein condensation, 03.75.Lm |
| in inviscid laminar flows, 47.15.ki |
| in magnetic thin films, 75.70.Kw |
| in plasma, 52.35.We |
| in rotational flows, 47.32.C- |
| in superconductivity |
| vortex phases, 74.25.Uv |
| vortex pinning, 74.25.Wx |
| in superfluid helium-3, 67.30.he |
| in superfluid helium-4, 67.25.dk |
| W bosons, 14.70.Fm |
| Wakes |
| laminar, 47.15.Tr |
| spacecraft, 94.05.Jq |
| turbulent flows, 47.27.wb |
| Water cycles, global, 92.70.Ly |
| Water pollution, 89.60.-k, 92.20.Ny |
| Water quality |
| ground water, 92.40.Kf, *92.40.kc |
| surface water, 92.40.Qk, *92.40.qc |
| Water resources, 92.40.Qk |
| Water supply, 92.40.Qk, *92.40.qf |
| Water transportation, 89.40.Cc |
| Wave equations |
| bound states, 03.65.Ge |
| relativistic, 03.65.Pm |
| Wave fronts, 42.15.Dp |
| Waveguides |
| acoustical, *43.20.Mv |
| optical (see Optical waveguides) |
| plasma-filled, 52.40.Fd |
| radiowave and microwave, 84.40.Az |
| Wave optics, 42.25.-p |
| Weak interactions |
| in beta decay, 23.40.Bw |
| electromagnetic corrections, 13.40.Ks |
| models of, 12.15.-y |
| Weak localization |
| in electronic conduction, 72.15.Rn |
| electron states, 73.20.Fz |
| Weapons systems, 89.20.Dd |
| Wear |
| materials treatment effects on, 81.40.Pq |
| mechanics, 46.55.+d |
| Weather analysis and prediction, 92.60.Wc |
| Wedges and compensators |
| for beam intensity modifications (medical physics), 87.56.ng |
| Wedges (radiation therapy), 87.56.ng |
| Weighing, 06.30.Dr |
| Weinberg-Salam model, 12.15.-y |
| Weissenberg effect (rheology), 83.60.Hc |
| Welding, 81.20.Vj |
| workshop techniques, 06.60.Vz |
| Westheimer method, 31.15.bu |
| Wetlands, 92.40.Yy |
| Wetting |
| in liquid crystals, 61.30.Hn |
| in liquid-solid interfaces, 68.08.Bc |
| Whiskers, 68.70.+w |
| Whistler waves |
| in magnetosphere, 94.30.Tz |
| in plasma, 52.35.Hr |
| White dwarfs, 97.20.Rp |
| Wiberg method, 31.15.bu |
| Wiggler magnets |
| particle beam focusing, 41.85.Lc |
| Wind energy |
| electricity generation, 88.50.Mp |
| social issues, 88.50.Xy |
| wind farms, 88.50.J- |
| large-scale wind farms, 88.50.jn |
| off-shore wind farms, 88.50.jp |
| small-scale wind farms, 88.50.jj |
| wind turbines, 88.50.G- |
| components, 88.50.gm |
| modeling, design, 88.50.gj |
| research and development, 88.50.gg |
| testing of, 88.50.gp |
| Winds, 92.60.Gn |
| Wiring, 84.32.Hh |
| Wood (rheology), 83.80.Lz |
| Work functions |
| electronic structure (thin films), 73.30.+y |
| thermal properties of solids, 65.40.gh |
| Work hardening, 81.40.Ef |
| Workshop techniques |
| laboratory, 06.60.Vz |
| optical, 42.86.+b |
| World Wide Web, 89.20.Hh |
| XANES |
| in structure determination, 61.05.cj |
| Xerography, 07.68.+m |
| X-ray absorption spectroscopy, 78.70.Dm |
| in structure determination, 61.05.cj |
| X-ray beams, 41.50.+h |
| X-ray binary stars, 97.80.Jp |
| X-ray bursts, 98.70.Qy |
| X-ray crystallography, 61.05.C- |
| X-ray detectors, 07.85.Fv |
| superconducting, 85.25.Oj |
| X-ray diffraction |
| in biophysics, 87.64.Bx |
| in crystal structure, 61.05.cp |
| in defect structure, 61.72.Dd |
| X-ray diffractometers, 07.85.Nc |
| X-ray dosimetry, 87.53.Bn |
| X-ray emission spectra, 78.70.En |
| X-ray fluorescence, 78.70.En |
| X-ray gratings, 07.85.Fv |
| X-ray imaging, 87.59.-e |
| angiography, 87.59.Dj |
| fluoroscopy, 87.59.C- |
| mammography, 87.59.E- |
| x-ray radiography, 87.59.B- |
| X-ray lasers, 42.55.Vc |
| X-ray lithography, 85.40.Hp |
| X-ray microscopes, 07.85.Tt |
| X-ray microscopy, 68.37.Yz |
| X-ray mirrors, 07.85.Fv |
| X-ray optics, 41.50.+h |
| X-ray photoelectron diffraction, 61.05.js |
| X-ray photoelectron spectra |
| of molecules, 33.60.+q |
| in surface analysis, 79.60.-i |
| X-ray radiation effects, 61.80.Cb |
| in biology, 87.53.-j |
| in photochemistry, 82.50.Kx |
| X-ray radiography, 87.59.B- |
| computed radiography, 87.59.bd |
| digital radiography, 87.59.bf |
| X-ray reflectometry |
| in crystal structure, 61.05.cm |
| X rays |
| emission, absorption, and scattering in plasmas, 52.25.Os |
| in plasma diagnostics, 52.70.La |
| radiation monitoring and safety of, 87.55.N- |
| spin arrangement determinations with, 75.25.-j |
| X-ray scattering |
| interactions with matter, 78.70.Ck |
| in structure determination, 61.05.cf |
| X-ray sources |
| galactic and stellar, 97.80.Jp, 98.70.Qy |
| hard, 52.59.Px |
| instrumentation for, 07.85.Fv |
| from laser-plasma interactions, 52.38.Ph |
| X-ray spectrometers, 07.85.Nc |
| X-ray spectroscopy |
| in astronomical observations, 95.85.Nv |
| in atoms, 32.30.Rj |
| in biophysics, 87.64.kd |
| in chemical analysis, 82.80.Ej |
| EXAFS |
| in biophysics, 87.64.kd |
| in structure determination, 61.05.cj |
| molecules, 33.20.Rm |
| nuclear physics, 29.30.Kv |
| X-ray standing waves, 68.49.Uv |
| X-ray telescopes, 95.55.Ka |
| X-ray topography (crystal defects), 61.72.Ff |
| Yang-Mills fields, 12.10.-g, 12.15.-y |
| Yield stress, 62.20.fg |
| Yield stress (rheology), 83.60.La |
| Young's modulus, 62.20.de, 81.40.Jj |
| Yrast states, 21.10.Re |
| Z bosons, 14.70.Hp |
| Zeeman effect |
| in atoms, 32.60.+i |
| in condensed matter, 71.70.Ej |
| in molecules, 33.57.+c |
| Zener diodes, 85.30.Mn |
| Zeolites |
| catalysis in, 82.75.Qt |
| clusters in, 82.75.Vx |
| molecule migration in, 82.75.Jn |
| properties of molecules in, 82.75.Mj |
| reactions in, 82.33.Jx |
| Zero gravity experiments (materials testing), 81.70.Ha |
| ZnO films (dielectric films), 77.55.hf |
| Zodiacal light, 96.50.Dj |
| Zone melting and refining, 81.10.Fq |
| Zone plates, 42.79.Ci |
| Z-pinches |
| devices, 52.58.Lq |
| wire array, 52.59.Qy |
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