| 80. | INTERDISCIPLINARY PHYSICS AND RELATED AREAS OF SCIENCE AND TECHNOLOGY | |
| 81. | Materials science | |
| S | 81.05.-t | Specific materials: fabrication, treatment, testing, and analysis |
| M | 81.05.-t | Specific materials: fabrication, treatment, testing, and analysis (for superconducting materials, see 74.70.-b, and 74.72.-h; for magnetic materials, see 75.50.-y; for optical materials, see 42.70.-a; for dielectric materials, see 77.84.-s; for disperse systems and complex fluids, see 82.70.-y; see also 82.75.-z Molecular sieves, zeolites, clathrates, and other complex solids; for materials properties, see sections 60 and 70) |
| ... ... ... | Superconducting materials, see 74.70.-b and 74.72.-h | |
| ... ... ... | Magnetic materials, see 75.50.-y | |
| ... ... ... | Optical materials, see 42.70.-a | |
| ... ... ... | Dielectric, piezoelectric, and ferroelectric materials, see 77.84.-s | |
| ... ... ... | Colloids, gels, and emulsions, see 82.70.Dd, Gg, Kj | |
| ... ... ... | Biomaterials, see 87.85.J- | |
| ... ... ... | Molecular sieves, zeolites, and other complex materials, see 82.75.-z | |
| 81.05.Bx | Metals, semimetals, and alloys | |
| 81.05.Cy | Elemental semiconductors (for semiconductors in electrochemistry, see 82.45.Vp) | |
| 81.05.Dz | II-VI semiconductors | |
| 81.05.Ea | III-V semiconductors | |
| N | 81.05.Fb | Organic semiconductors |
| 81.05.Gc | Amorphous semiconductors | |
| 81.05.Hd | Other semiconductors | |
| 81.05.Je | Ceramics and refractories (including borides, carbides, hydrides, nitrides, oxides, and silicides) (for ceramics in electrochemistry, see 82.45.Yz) | |
| 81.05.Kf | Glasses (including metallic glasses) | |
| 81.05.Lg | Polymers and plastics; rubber; synthetic and natural fibers; organometallic and organic materials (for polymers and organic materials in electrochemistry, see 82.45.Wx) | |
| 81.05.Mh | Cermets, ceramic and refractory composites | |
| 81.05.Ni | Dispersion-, fiber-, and platelet-reinforced metal-based composites | |
| 81.05.Pj | Glass-based composites, vitroceramics | |
| 81.05.Qk | Reinforced polymers and polymer-based composites | |
| 81.05.Rm | Porous materials; granular materials (for granular superconductors, see 74.81.Bd) | |
| D | 81.05.Tp | Fullerenes and related materials (Use 81.05.ub) |
| N | 81.05.U- | Carbon/carbon-based materials (for carbon-based superconductors, see 74.70.Wz) |
| N | 81.05.ub | Fullerenes and related materials |
| N | 81.05.ue | Graphene (for structure of graphene, see 61.48.Gh; for phonons in graphene, see 63.22.Rc; for thermal properties, see 65.80.Ck; for graphene films, see 68.65.Pq; for electronic transport, see 72.80.Vp; for electronic structure, see 73.22.Pr; for optical properties, see 78.67.Wj) |
| N | 81.05.uf | Graphite |
| N | 81.05.ug | Diamond |
| N | 81.05.uj | Diamond/nanocarbon composites |
| D | 81.05.Uw | Carbon, diamond, graphite (Use 81.05.U-) |
| N | 81.05.Xj | Metamaterials for chiral, bianisotropic and other complex media (see also 42.70.-a Optical materials; see also 78.67.Pt, Multilayers; superlattices; photonic structures; metamaterials) |
| 81.05.Zx | New materials: theory, design, and fabrication | |
| S | 81.07.-b | Nanoscale materials and structures: fabrication and characterization (for structure of nanoscale materials, see 61.46.−w; for nanostructured materials in electrochemistry, see 82.45.Yz; for nanoparticles in polymers, see 82.35.Np in physical chemistry and chemical physics; see also 62.23.−c Structural classes of nanoscale systems in mechanical properties of condensed matter) |
| M | 81.07.-b | Nanoscale materials and structures: fabrication and characterization (for structure of nanoscale materials, see 61.46.-w; for nanostructured materials in electrochemistry, see 82.45.Yz; see also 62.23.-c Structural classes of nanoscale systems in mechanical properties of condensed matter) |
| 81.07.Bc | Nanocrystalline materials | |
| 81.07.De | Nanotubes | |
| N | 81.07.Gf | Nanowires |
| 81.07.Lk | Nanocontacts | |
| 81.07.Nb | Molecular nanostructures | |
| N | 81.07.Oj | Nanoelectromechanical systems (NEMS) |
| 81.07.Pr | Organic-inorganic hybrid nanostructures | |
| 81.07.St | Quantum wells | |
| 81.07.Ta | Quantum dots | |
| 81.07.Vb | Quantum wires | |
| 81.07.Wx | Nanopowders | |
| S | 81.10.-h | Methods of crystal growth; physics of crystal growth (for crystal structure, see section 61) |
| M | 81.10.-h | Methods of crystal growth; physics and chemistry of crystal growth, crystal morphology, and orientation (see also 61.50.Lt Crystal binding, cohesive energy) |
| S | 81.10.Aj | Theory and models of crystal growth; physics of crystal growth, crystal morphology, and orientation |
| M | 81.10.Aj | Theory and models of crystal growth; physics and chemistry of crystal growth, crystal morphology, and orientation (see also 61.50.Nw Crystal stoichiometry) |
| 81.10.Bk | Growth from vapor | |
| 81.10.Dn | Growth from solutions | |
| 81.10.Fq | Growth from melts; zone melting and refining | |
| 81.10.Jt | Growth from solid phases (including multiphase diffusion and recrystallization) | |
| 81.10.Mx | Growth in microgravity environments | |
| N | 81.10.Pq | Growth in vacuum |
| N | 81.10.St | Growth in controlled gaseous atmospheres |
| S | 81.15.-z | Methods of deposition of films and coatings; film growth and epitaxy (for structure of thin films, see 68.55.−a; see also 85.40.Sz Deposition technology in microelectronics) |
| M | 81.15.-z | Methods of deposition of films and coatings; film growth and epitaxy (for structure of thin films, see 68.55.-a; see also 85.40.Sz Deposition technology in microelectronics; for epitaxial dielectric films, see 77.55.Px) |
| 81.15.Aa | Theory and models of film growth | |
| 81.15.Cd | Deposition by sputtering | |
| N | 81.15.Dj | E-beam and hot filament evaporation deposition |
| D | 81.15.Ef | Vacuum deposition (Use 81.15.-z) |
| S | 81.15.Fg | Laser deposition |
| M | 81.15.Fg | Pulsed laser ablation deposition |
| S | 81.15.Gh | Chemical vapor deposition (including plasma-enhanced CVD, MOCVD, etc.) (for chemistry of MOCVD, see 82.33.Ya in physical chemistry and chemical physics) |
| M | 81.15.Gh | Chemical vapor deposition (including plasma-enhanced CVD, MOCVD, ALD, etc.) (for chemistry of MOCVD, see 82.33.Ya in physical chemistry and chemical physics) |
| 81.15.Hi | Molecular, atomic, ion, and chemical beam epitaxy | |
| 81.15.Jj | Ion and electron beam-assisted deposition; ion plating (see also 52.77.Dq Plasma-based ion implantation and deposition in physics of plasmas) | |
| 81.15.Kk | Vapor phase epitaxy; growth from vapor phase | |
| 81.15.Lm | Liquid phase epitaxy; deposition from liquid phases (melts, solutions, and surface layers on liquids) | |
| 81.15.Np | Solid phase epitaxy; growth from solid phases | |
| 81.15.Pq | Electrodeposition, electroplating | |
| 81.15.Rs | Spray coating techniques | |
| S | 81.16.-c | Methods of nanofabrication and processing (for femtosecond probing of semiconductor nanostructures, see 82.53.Mj in physical chemistry and chemical physics) |
| M | 81.16.-c | Methods of micro- and nanofabrication and processing (for femtosecond probing of semiconductor nanostructures, see 82.53.Mj in physical chemistry and chemical physics) |
| 81.16.Be | Chemical synthesis methods | |
| 81.16.Dn | Self-assembly | |
| 81.16.Fg | Supramolecular and biochemical assembly | |
| 81.16.Hc | Catalytic methods | |
| 81.16.Mk | Laser-assisted deposition | |
| S | 81.16.Nd | Nanolithography |
| M | 81.16.Nd | Micro- and nanolithography |
| S | 81.16.Pr | Nanooxidation (see also 82.37.Np Single molecule reaction kinetics in physical chemistry and chemical physics) |
| M | 81.16.Pr | Micro- and nano-oxidation (see also 82.37.Np Single molecule reaction kinetics) |
| S | 81.16.Rf | Nanoscale pattern formation |
| M | 81.16.Rf | Micro- and nanoscale pattern formation |
| S | 81.16.Ta | Atom manipulation (see also 82.37.Gk STM and AFM manipulation of a single-molecule in physical chemistry; 37.10.Gh Atom traps and guides; 37.10.Pq Trapping of molecules; 87.80.Nj Single-molecule techniques in biological physics; 82.37.Rs Single-molecule manipulation of proteins and other biological molecules in physical chemistry) |
| M | 81.16.Ta | Atom manipulation (see also 82.37.Gk STM and AFM manipulation of a single-molecule; for atom and molecule traps, see 37.10.Gh, and 37.10.Pq, respectively; 87.80.Nj Single-molecule techniques in biological physics; 82.37.Rs Single-molecule manipulation of proteins and other biological molecules in physical chemistry) |
| S | 81.20.-n | Methods of materials synthesis and materials processing (for ion implantation and doping, see 61.72.U−) |
| M | 81.20.-n | Methods of materials synthesis and materials processing (see also 61.72.U- Doping and impurity implantation; for crystal growth, see 81.10.-h; for film growth, deposition and epitaxy, see 81.15.-z) |
| ... ... ... | Crystal growth, see 81.10.-h | |
| ... ... ... | Film deposition, film growth, and epitaxy, see 81.15.-z | |
| 81.20.Ev | Powder processing: powder metallurgy, compaction, sintering, mechanical alloying, and granulation | |
| S | 81.20.Fw | Sol–gel processing, precipitation |
| M | 81.20.Fw | Sol-gel processing, precipitation (for reactions in sol-gels, see 82.33.Ln; for sol-gels as disperse system, see 82.70.Gg) |
| S | 81.20.Hy | Forming; molding, extrusion etc. |
| M | 81.20.Hy | Forming; molding, extrusion, etc. [see also, 83.50.Uv Material processing (extension, molding, etc.)] |
| 81.20.Ka | Chemical synthesis; combustion synthesis (for electrochemical synthesis, see 82.45.Aa) | |
| ... ... ... | Chemical vapor deposition, see 81.15.Gh | |
| 81.20.Rg | Aerosols in materials synthesis and processing | |
| 81.20.Vj | Joining; welding | |
| 81.20.Wk | Machining, milling | |
| 81.20.Ym | Purification | |
| 81.30.-t | Phase diagrams and microstructures developed by solidification and solid-solid phase transformations (see also 64.70.K- Solid-solid transitions) | |
| S | 81.30.Bx | Phase diagrams of metals and alloys |
| M | 81.30.Bx | Phase diagrams of metals, alloys, and oxides |
| S | 81.30.Dz | Phase diagrams of other materials (for phase diagrams of superconductors, see 74.25.Dw) |
| M | 81.30.Dz | Phase diagrams of other materials (for superconductivity phase diagrams, see 74.25.Dw; for magnetic phase boundaries, see 75.30.Kz) |
| 81.30.Fb | Solidification | |
| 81.30.Hd | Constant-composition solid-solid phase transformations: polymorphic, massive, and order-disorder | |
| 81.30.Kf | Martensitic transformations | |
| S | 81.30.Mh | Solid-phase precipitation (see also 64.75.−g Phase equilibria) |
| M | 81.30.Mh | Solid-phase precipitation (for precipitation hardening, see 81.40.Cd) |
| S | 81.40.-z | Treatment of materials and its effects on microstructure and properties |
| M | 81.40.-z | Treatment of materials and its effects on microstructure, nanostructure, and properties |
| 81.40.Cd | Solid solution hardening, precipitation hardening, and dispersion hardening; aging (see also 64.75.Nx Phase separation and segregation in solid solutions) | |
| 81.40.Ef | Cold working, work hardening; annealing, post-deformation annealing, quenching, tempering recovery, and crystallization | |
| 81.40.Gh | Other heat and thermomechanical treatments | |
| 81.40.Jj | Elasticity and anelasticity, stress-strain relations | |
| 81.40.Lm | Deformation, plasticity, and creep (see also 83.50.-v Deformation and flow in rheology) | |
| 81.40.Np | Fatigue, corrosion fatigue, embrittlement, cracking, fracture, and failure (see also 62.20.M- Structural failure of materials) | |
| 81.40.Pq | Friction, lubrication, and wear | |
| S | 81.40.Rs | Electrical and magnetic properties (related to treatment conditions) |
| M | 81.40.Rs | Electrical and magnetic properties related to treatment conditions |
| S | 81.40.Tv | Optical and dielectric properties (related to treatment conditions) |
| M | 81.40.Tv | Optical and dielectric properties related to treatment conditions |
| S | 81.40.Vw | Pressure treatment (see also 62.50.−p High-pressure effects in solids and liquids) |
| M | 81.40.Vw | Pressure treatment (see also 62.50.-p High-pressure effects in solids and liquids; 61.50.Ks Crystallographic aspects of phase transformations; pressure effects; for pressure effects on superconducting transition temperature, see 74.62.Fj) |
| 81.40.Wx | Radiation treatment (particle and electromagnetic) (see also 61.80.-x Physical radiation effects, radiation damage) | |
| ... ... ... | Etching, corrosion, oxidation, and other surface treatments, see 81.65.-b | |
| S | 81.65.-b | Surface treatments (see also 85.40.−e Microelectronics: LSI, VLSI, ULSI; integrated circuit fabrication technology) |
| M | 81.65.-b | Surface treatments (for surface preparation and lithography in microelectronics, see 85.40.-e) |
| 81.65.Cf | Surface cleaning, etching, patterning (see also 52.77.Bn Etching and cleaning in physics of plasmas) | |
| 81.65.Kn | Corrosion protection (see also 82.45.Bb Corrosion and passivation in electrochemistry) | |
| 81.65.Lp | Surface hardening: nitridation, carburization, carbonitridation | |
| S | 81.65.Mq | Oxidation |
| M | 81.65.Mq | Oxidation (see also 64.75.Lm Phase separation and segregation in oxidation) |
| 81.65.Ps | Polishing, grinding, surface finishing | |
| 81.65.Rv | Passivation (see also 82.45.Bb Corrosion and passivation in electrochemistry) | |
| 81.65.Tx | Gettering | |
| S | 81.70.-q | Methods of materials testing and analysis (for specific chemical analysis methods, see 82.80.−d) |
| M | 81.70.-q | Methods of materials testing and analysis (see also 82.80.-d Chemical analysis and related physical methods of analysis) |
| S | 81.70.Bt | Mechanical testing, impact tests, static and dynamic loads |
| M | 81.70.Bt | Mechanical testing, impact tests, static and dynamic loads (see also 62.20.M- Structural failure of materials; 46.50.+a Fracture mechanics, fatigue, and cracks) |
| 81.70.Cv | Nondestructive testing: ultrasonic testing, photoacoustic testing | |
| 81.70.Ex | Nondestructive testing: electromagnetic testing, eddy-current testing | |
| 81.70.Fy | Nondestructive testing: optical methods | |
| 81.70.Ha | Testing in microgravity environments | |
| 81.70.Jb | Chemical composition analysis, chemical depth and dopant profiling | |
| 81.70.Pg | Thermal analysis, differential thermal analysis (DTA), differential thermogravimetric analysis | |
| 81.70.Tx | Computed tomography | |
| 81.90.+c | Other topics in materials science (restricted to new topics in section 81) | |
| S | 82. | Physical chemistry and chemical physics |
| M | 82. | Physical chemistry and chemical physics (for electronic structure calculations, see 31.15.-p, 71.15.-m, 87.10.-e, 74.20.Pq, and 36.20.Kd in atomic and molecular physics, bulk materials, biophysics, superconductivity, and macromolecules, respectively; for geochemistry, see 91.67.-y; for chemistry of the ocean, see 92.20.Cm; for chemistry of fresh water, see 92.40.Bc; for chemistry of the atmosphere, see 92.60.H- and 92.60.Ls; for chemical reactions in scattering of atoms and molecules, see 34.50.Lf) |
| 82.20.-w | Chemical kinetics and dynamics | |
| 82.20.Bc | State selected dynamics and product distribution | |
| 82.20.Db | Transition state theory and statistical theories of rate constants | |
| 82.20.Ej | Quantum theory of reaction cross section | |
| 82.20.Fd | Collision theories; trajectory models | |
| 82.20.Gk | Electronically non-adiabatic reactions | |
| 82.20.Hf | Product distribution (for state selected dynamics and product distribution, see 82.20.Bc) | |
| 82.20.Kh | Potential energy surfaces for chemical reactions (for potential energy surfaces for collisions, see 34.20.-b in atomic and molecular collisions and interactions) | |
| 82.20.Ln | Semiclassical theory of reactions and/or energy transfer | |
| 82.20.Nk | Classical theories of reactions and/or energy transfer | |
| 82.20.Pm | Rate constants, reaction cross sections, and activation energies | |
| 82.20.Rp | State to state energy transfer (see also 31.70.Hq Time-dependent phenomena—in atomic and molecular physics) | |
| 82.20.Sb | Correlation function theory of rate constants and its applications | |
| 82.20.Tr | Kinetic isotope effects including muonium | |
| 82.20.Uv | Stochastic theories of rate constants | |
| 82.20.Wt | Computational modeling; simulation | |
| 82.20.Xr | Quantum effects in rate constants (tunneling, resonances, etc.) | |
| 82.20.Yn | Solvent effects on reactivity | |
| S | 82.30.-b | Specific chemical reactions; reaction mechanisms |
| M | 82.30.-b | Specific chemical reactions; reaction mechanisms (for enzyme kinetics, see 82.39.Fk, and 87.15.R-; for protein folding dynamics, see 87.15.hm, and 87.15.Cc) |
| 82.30.Cf | Atom and radical reactions; chain reactions; molecule-molecule reactions | |
| 82.30.Fi | Ion-molecule, ion-ion, and charge-transfer reactions (see also 34.70.+e Charge transfer in atomic and molecular collisions) | |
| ... ... ... | Charge transfer in enzymes, see 82.39.Jn and 87.15.R- | |
| 82.30.Gg | Positronium chemistry (see also 36.10.Dr Positronium in atomic and molecular physics; 78.70.Bj Positron annihilation in interactions of particles and radiation with matter) | |
| 82.30.Hk | Chemical exchanges (substitution, atom transfer, abstraction, disproportionation, and group exchange) | |
| 82.30.Lp | Decomposition reactions (pyrolysis, dissociation, and fragmentation) | |
| 82.30.Nr | Association, addition, insertion, cluster formation | |
| 82.30.Qt | Isomerization and rearrangement | |
| 82.30.Rs | Hydrogen bonding, hydrophilic effects | |
| 82.30.Vy | Homogeneous catalysis in solution, polymers and zeolites (for heterogeneous catalysis in zeolites, see 82.75.Qt) | |
| 82.33.-z | Reactions in various media | |
| S | 82.33.De | Reactions in supercritical fluids |
| M | 82.33.De | Reactions in supercritical fluids (for optical properties of supercritical fluids, see 78.15.+e) |
| 82.33.Fg | Reactions in clusters (see also 36.40.Jn Reactivity of clusters in atomic and molecular physics) | |
| 82.33.Hk | Reactions on clusters | |
| 82.33.Jx | Reactions in zeolites | |
| 82.33.Ln | Reactions in sol gels, aerogels, porous media | |
| 82.33.Nq | Reactions in micells | |
| 82.33.Pt | Solid state chemistry | |
| ... ... ... | Reactions in complex biological systems, see 82.39.Rt and 87.15R- | |
| 82.33.Tb | Atmospheric chemistry (see also 92.60.H- in geophysics) | |
| 82.33.Vx | Reactions in flames, combustion, and explosions | |
| 82.33.Xj | Plasma reactions (including flowing afterglow and electric discharges) | |
| S | 82.33.Ya | Chemistry of MOCVD and other vapor deposition methods (for methods of vapor deposition of films and coatings, see 81.15.Gh, Kk in materials science) |
| M | 82.33.Ya | Chemistry of MOCVD and other vapor deposition methods (for methods of vapor deposition of films and coatings, see 81.15.Gh, and 81.15. Kk in materials science) |
| 82.35.-x | Polymers: properties; reactions; polymerization (for polymers in electrochemistry, see 82.45.Wx) | |
| 82.35.Cd | Conducting polymers | |
| 82.35.Ej | Nonlinear optics with polymers (see also 42.65.-k in nonlinear optics) | |
| 82.35.Gh | Polymers on surfaces; adhesion (see also 68.35.Np Adhesion in surfaces and interfaces) | |
| 82.35.Jk | Copolymers, phase transitions, structure | |
| 82.35.Lr | Physical properties of polymers | |
| 82.35.Np | Nanoparticles in polymers (see also 81.07.-b Nanoscale materials and structures: fabrication and characterization) | |
| 82.35.Pq | Biopolymers, biopolymerization (see also 87.15.rp Polymerization in biological and medical physics) | |
| 82.35.Rs | Polyelectrolytes | |
| 82.37.-j | Single molecule kinetics | |
| 82.37.Gk | STM and AFM manipulations of a single molecule (for atom manipulation see 37.10.Gh, Pq in atomic and molecular physics; see also 81.16.Ta Atom manipulation in methods of nanofabrication and processing; 87.80.Nj Single-molecule techniques in biological physics) | |
| 82.37.Np | Single molecule reaction kinetics, dissociation, etc. | |
| 82.37.Rs | Single molecule manipulation of proteins and other biological molecules | |
| 82.37.Vb | Single molecule photochemistry | |
| 82.39.-k | Chemical kinetics in biological systems (see also 87.15.R- Reactions and kinetics in biological and medical physics, and 82.45.Tv Bioelectrochemistry) | |
| 82.39.Fk | Enzyme kinetics (see also 87.14.ej Enzymes in biological physics) | |
| 82.39.Jn | Charge (electron, proton) transfer in biological systems | |
| S | 82.39.Pj | Nucleic acids, DNA and RNA bases |
| M | 82.39.Pj | Nucleic acids, DNA and RNA bases (for DNA, see 87.14.gk; for RNA, see 87.14.gn) |
| 82.39.Rt | Reactions in complex biological systems (see also 87.18.-h Biological complexity) | |
| 82.39.Wj | Ion exchange, dialysis, osmosis, electro-osmosis, membrane processes | |
| S | 82.40.-g | Chemical kinetics and reactions: special regimes and techniques |
| M | 82.40.-g | Chemical kinetics and reactions: special regimes and techniques (for chemically reactive flows, see 47.70.Fw; see also 82.20.Uv Stochastic theories of rate constants) |
| ... ... ... | Chemically reactive flows, see 47.70.Fw | |
| 82.40.Bj | Oscillations, chaos, and bifurcations | |
| 82.40.Ck | Pattern formation in reactions with diffusion, flow and heat transfer (see also 47.54.-r Pattern selection; pattern formation and 47.32.C- Vortex dynamics in fluid dynamics) | |
| 82.40.Fp | Shock wave initiated reactions, high-pressure chemistry (see also 47.40.Nm Shock wave interactions and shock effects in fluid dynamics, and 62.50.Ef Shock wave effects in solids and liquids) | |
| 82.40.Np | Temporal and spatial patterns in surface reactions | |
| S | 82.40.Qt | Complex chemical systems (for complex biological systems, see 82.39.Rt in physical chemistry; 87.18.−h in biological physics) |
| M | 82.40.Qt | Complex chemical systems (see also 82.39.Rt Reactions in complex biological systems and 87.18.-h Biological complexity) |
| 82.45.-h | Electrochemistry and electrophoresis | |
| 82.45.Aa | Electrochemical synthesis (see also 81.16.Be Chemical synthesis methods in nanofabrication and 81.20.Ka Chemical synthesis; combustion synthesis in materials science) | |
| 82.45.Bb | Corrosion and passivation (see also 81.65.Kn Corrosion protection and 81.65.Rv Passivation in surface treatments) | |
| 82.45.Cc | Anodic films | |
| 82.45.Fk | Electrodes | |
| 82.45.Gj | Electrolytes (for polyelectrolytes, see 82.35.Rs and 82.45.Wx; see also 66.30.H- Self-diffusion and ionic conduction in nonmetals) | |
| 82.45.Hk | Electrolysis | |
| 82.45.Jn | Surface structure, reactivity and catalysis (see also 82.65.+r Surface and interface chemistry; heterogeneous catalysis at surfaces) | |
| 82.45.Mp | Thin layers, films, monolayers, membranes (for anodic films, see 82.45.Cc; for surface double layers, see 73.30.+y in electronic structure of surfaces) | |
| 82.45.Qr | Electrodeposition and electrodissolution (see also 81.15.Pq Electrodeposition, electroplating in materials science) | |
| 82.45.Rr | Electroanalytical chemistry (see also 82.80.Fk Electrochemical methods in chemical analysis and related physical methods of analysis) | |
| 82.45.Tv | Bioelectrochemistry (see also 82.39.-k Chemical kinetics in biological systems; 87.15.Tt Electrophoresis in biological physics) | |
| 82.45.Un | Dielectric materials in electrochemistry (see also 77.84.-s Dielectric, piezoelectric, ferroelectric, and antiferroelectric materials) | |
| S | 82.45.Vp | Semiconductor materials in electrochemistry (see also 81.05.Cy, Dz, Ea, Gc, Hd in specific materials) |
| M | 82.45.Vp | Semiconductor materials in electrochemistry (see also 81.05.Cy Elemental semiconductors; 81.05.Dz II-VI semiconductors; 81.05.Ea III-V semiconductors; 81.05.Fb Organic semiconductors; 81.05.Gc Amorphous semiconductors in specific materials) |
| 82.45.Wx | Polymers and organic materials in electrochemistry (see also 82.35.-x Polymers: properties; reactions; polymerization) | |
| S | 82.45.Xy | Ceramics in electrochemistry (see also 81.05.Je, Mh in specific materials) |
| M | 82.45.Xy | Ceramics in electrochemistry (see also 81.05.Je Ceramics and refractories, and 81.05.Mh Cermets, ceramic and refractory composites in specific materials) |
| 82.45.Yz | Nanostructured materials in electrochemistry (for nanofabrication, see 81.16.-c in materials science) | |
| S | 82.47.-a | Applied electrochemistry |
| M | 82.47.-a | Applied electrochemistry (see also 88.30.G- Fuel cell systems, and 88.30.P- Types of fuel cells in renewable energy resources and applications) |
| 82.47.Aa | Lithium-ion batteries | |
| 82.47.Cb | Lead-acid, nickel-metal hydride and other batteries (for lithium-ion batteries, see 82.47.Aa) | |
| 82.47.Ed | Solid-oxide fuel cells (SOFC) | |
| 82.47.Gh | Proton exchange membrane (PEM) fuel cells | |
| S | 82.47.Jk | Photoelectrochemical cells, photoelectrochromic and other hybrid electrochemical energy storage devices (see also 84.60.Jt Photoelectric conversion, solar cells and arrays) |
| M | 82.47.Jk | Photoelectrochemical cells, photoelectrochromic and other hybrid electrochemical energy storage devices (see also 84.60.Jt Photoelectric conversion) |
| 82.47.Lh | Molten-carbonate fuel cells (MCFC) | |
| 82.47.Nj | Polymer-electrolyte fuel cells (PEFC) | |
| 82.47.Pm | Phosphoric-acid fuel cells (PAFC); other fuel cells | |
| 82.47.Rs | Electrochemical sensors | |
| 82.47.Tp | Electrochemical displays | |
| S | 82.47.Uv | Electrochemical capacitors; supercapacitors |
| M | 82.47.Uv | Electrochemical capacitors; supercapacitors (see also 88.80.fh Supercapacitors in renewable energy resources and applications; 84.60.Ve Energy storage systems, including capacitor banks in direct energy conversion and storage) |
| 82.47.Wx | Electrochemical engineering | |
| 82.50.-m | Photochemistry (for single molecule photochemistry, see 82.37.Vb) | |
| 82.50.Bc | Processes caused by infrared radiation | |
| 82.50.Hp | Processes caused by visible and UV light | |
| 82.50.Kx | Processes caused by X-rays or γ-rays | |
| 82.50.Nd | Control of photochemical reactions | |
| 82.50.Pt | Multiphoton processes | |
| S | 82.53.-k | Femtochemistry [see also 78.47.J− Ultrafast pump/probe spectroscopy (<1 psec) in condensed matter; 42.65.Re Ultrafast processes; optical generation and pulse compression in nonlinear optics] |
| M | 82.53.-k | Femtochemistry [see also 78.47.J-; Ultrafast spectroscopy (<1 psec) in condensed matter; 42.65.Re Ultrafast processes; optical generation and pulse compression in nonlinear optics] |
| 82.53.Eb | Pump probe studies of photodissociation | |
| 82.53.Hn | Pump probe experiments with bound states | |
| 82.53.Kp | Coherent spectroscopy of atoms and molecules | |
| S | 82.53.Mj | Femtosecond probing of semiconductor nanostructures (see also 81.16.−c Methods of nanofabrication and processing) |
| M | 82.53.Mj | Femtosecond probing of semiconductor nanostructures (see also 81.16.-c Methods of micro- and nanofabrication and processing) |
| 82.53.Ps | Femtosecond probing of biological molecules | |
| 82.53.St | Femtochemistry of adsorbed molecules (for adsorbate structure, see 68.43.Bc, Fg in chemisorption/physisorption: adsorbates on surfaces) | |
| 82.53.Uv | Femtosecond probes of molecules in liquids | |
| 82.53.Xa | Femtosecond probes of molecules in solids and of molecular solids | |
| 82.56.-b | Nuclear magnetic resonance (see also 33.25.+k Nuclear resonance and relaxation in atomic and molecular physics; 76.60.-k Nuclear magnetic resonance and relaxation; 76.70.-r Magnetic double resonances and cross effects in condensed matter) | |
| 82.56.Dj | High resolution NMR | |
| 82.56.Fk | Multidimensional NMR | |
| 82.56.Hg | Multinuclear NMR | |
| 82.56.Jn | Pulse sequences in NMR | |
| 82.56.Lz | Diffusion | |
| 82.56.Na | Relaxation | |
| 82.56.Pp | NMR of biomolecules | |
| 82.56.Ub | Structure determination with NMR | |
| S | 82.60.-s | Chemical thermodynamics |
| M | 82.60.-s | Chemical thermodynamics (see also 05.70.Ln Nonequilibrium and irreversible thermodynamics) |
| 82.60.Cx | Enthalpies of combustion, reaction, and formation | |
| 82.60.Fa | Heat capacities and heats of phase transitions | |
| 82.60.Hc | Chemical equilibria and equilibrium constants | |
| 82.60.Lf | Thermodynamics of solutions | |
| 82.60.Nh | Thermodynamics of nucleation (see also 64.60.Q- Nucleation—in equations of state, phase equilibria and phase transitions) | |
| 82.60.Qr | Thermodynamics of nanoparticles | |
| S | 82.65.+r | Surface and interface chemistry; heterogeneous catalysis at surfaces (for temporal and spatial patterns in surface reactions, see 82.40.Np; see also 82.45.Jn Surface structure, reactivity and catalysis in electrochemistry) |
| M | 82.65.+r | Surface and interface chemistry; heterogeneous catalysis at surfaces (for temporal and spatial patterns in surface reactions, see 82.40.Np; see also 82.45.Jn Surface structure, reactivity and catalysis in electrochemistry; see also 68.43.-h Chemisorption/physisorption: adsorbates on surfaces) |
| 82.70.-y | Disperse systems; complex fluids (see also 82.33.-z reactions in various media; for quantum optical phenomena in dispersive media, see 42.50.Nn) | |
| 82.70.Dd | Colloids | |
| 82.70.Gg | Gels and sols | |
| 82.70.Kj | Emulsions and suspensions | |
| 82.70.Rr | Aerosols and foams | |
| 82.70.Uv | Surfactants, micellar solutions, vesicles, lamellae, amphiphilic systems, (hydrophilic and hydrophobic interactions) (see also 82.30.Rs Hydrogen bonding, hydrophilic effects in specific chemical reactions) | |
| 82.75.-z | Molecular sieves, zeolites, clathrates, and other complex solids | |
| 82.75.Fq | Synthesis, structure determination, structure modeling | |
| 82.75.Jn | Measurements and modeling of molecule migration in zeolites | |
| 82.75.Mj | Measurements and simulation of properties (optical, structural) of molecules in zeolites | |
| 82.75.Qt | Mechanism and kinetics of catalysis in zeolites (measurements or simulations) | |
| 82.75.Vx | Clusters in zeolites | |
| 82.80.-d | Chemical analysis and related physical methods of analysis (for related instrumentation, see section 07; for spectroscopic techniques in biological physics, see 87.64.-t) | |
| 82.80.Bg | Chromatography | |
| 82.80.Dx | Analytical methods involving electronic spectroscopy | |
| 82.80.Ej | X-ray, Mössbauer, and other γ-ray spectroscopic analysis methods | |
| 82.80.Fk | Electrochemical methods (see also 82.45.Rr Electroanalytical chemistry; for electrochemical sensors, see 82.47.Rs) | |
| 82.80.Gk | Analytical methods involving vibrational spectroscopy | |
| 82.80.Ha | Analytical methods involving rotational spectroscopy | |
| 82.80.Jp | Activation analysis and other radiochemical methods | |
| 82.80.Kq | Energy-conversion spectro-analytical methods (e.g., photoacoustic, photothermal, and optogalvanic spectroscopic methods) | |
| 82.80.Ms | Mass spectrometry (including SIMS, multiphoton ionization and resonance ionization mass spectrometry, MALDI) | |
| 82.80.Nj | Fourier transform mass spectrometry | |
| 82.80.Pv | Electron spectroscopy (X-ray photoelectron (XPS), Auger electron spectroscopy (AES), etc.) | |
| 82.80.Qx | Ion cyclotron resonance mass spectrometry | |
| 82.80.Rt | Time of flight mass spectrometry | |
| 82.80.Yc | Rutherford backscattering (RBS), and other methods of chemical analysis | |
| 82.90.+j | Other topics in physical chemistry and chemical physics (restricted to new topics in section 82) | |
| 83. | Rheology (see also section 47 Fluid dynamics; for rheology of the Earth, see 91.32.-m; see also 87.19.rh Fluid transport and rheology in biological physics) | |
| 83.10.-y | Fundamentals and theoretical | |
| S | 83.10.Bb | Kinematics of deformation and flow |
| M | 83.10.Bb | Kinematics of deformation and flow (see also 47.50.-d Non-Newtonian fluid flows) |
| 83.10.Ff | Continuum mechanics (see also section 46 Continuum mechanics of solids) | |
| 83.10.Gr | Constitutive relations | |
| 83.10.Kn | Reptation and tube theories | |
| 83.10.Mj | Molecular dynamics, Brownian dynamics | |
| 83.10.Pp | Particle dynamics | |
| 83.10.Rs | Computer simulation of molecular and particle dynamics | |
| 83.10.Tv | Structural and phase changes | |
| 83.50.-v | Deformation and flow | |
| 83.50.Ax | Steady shear flows, viscometric flow | |
| 83.50.Ha | Flow in channels (see also 47.60.Dx Flows in ducts and channels in fluid dynamics) | |
| 83.50.Jf | Extensional flow and combined shear and extension | |
| 83.50.Lh | Slip boundary effects (interfacial and free surface flows) (see also 47.45.Gx Slip flows and accommodation in fluid dynamics) | |
| 83.50.Rp | Wall slip and apparent slip | |
| 83.50.Uv | Material processing (extension, molding, etc.) | |
| 83.50.Xa | Mixing and blending | |
| 83.60.-a | Material behavior | |
| 83.60.Bc | Linear viscoelasticity | |
| 83.60.Df | Nonlinear viscoelasticity | |
| 83.60.Fg | Shear rate dependent viscosity | |
| 83.60.Hc | Normal stress differences and their effects (e.g. rod climbing) | |
| 83.60.Jk | Extrudate swell | |
| 83.60.La | Viscoplasticity; yield stress | |
| 83.60.Np | Effects of electric and magnetic fields | |
| 83.60.Pq | Time-dependent structure (thixotropy, rheopexy) | |
| 83.60.Rs | Shear rate-dependent structure (shear thinning and shear thickening) | |
| 83.60.St | Non-isothermal rheology | |
| 83.60.Uv | Wave propagation, fracture, and crack healing | |
| 83.60.Wc | Flow instabilities | |
| 83.60.Yz | Drag reduction | |
| 83.80.-k | Material type (see also 82.70.-y Disperse systems; complex fluids and 82.35.-x Polymers: properties; reactions; polymerization in physical chemistry and chemical physics) | |
| 83.80.Ab | Solids: e.g., composites, glasses, semicrystalline polymers | |
| 83.80.Fg | Granular solids | |
| 83.80.Gv | Electro- and magnetorheological fluids | |
| 83.80.Hj | Suspensions, dispersions, pastes, slurries, colloids | |
| 83.80.Iz | Emulsions and foams | |
| 83.80.Jx | Reacting systems: thermosetting polymers, chemorheology, rheokinetics | |
| 83.80.Kn | Physical gels and microgels | |
| 83.80.Lz | Physiological materials (e.g. blood, collagen, etc.) | |
| 83.80.Mc | Other natural materials (e.g. wood and other vegetable materials) | |
| 83.80.Nb | Geological materials: Earth, magma, ice, rocks, etc. | |
| 83.80.Qr | Surfactant and micellar systems, associated polymers | |
| 83.80.Rs | Polymer solutions | |
| 83.80.Sg | Polymer melts | |
| 83.80.Tc | Polymer blends | |
| 83.80.Uv | Block copolymers | |
| 83.80.Va | Elastomeric polymers | |
| 83.80.Wx | Filled elastomers | |
| 83.80.Xz | Liquid crystals: nematic, cholesteric, smectic, discotic, etc. | |
| 83.80.Ya | Processed food | |
| 83.85.-c | Techniques and apparatus | |
| 83.85.Cg | Rheological measurements—rheometry | |
| 83.85.Ei | Optical methods; rheo-optics | |
| 83.85.Fg | NMR/magnetic resonance imaging (see also 76.60.Pc NMR imaging in condensed matter) | |
| 83.85.Hf | X-ray and neutron scattering | |
| 83.85.Jn | Viscosity measurements | |
| 83.85.Lq | Normal stress difference measurements | |
| S | 83.85.Ns | Data analysis (interconversion of data computation of relaxation and retardation spectra; time-temperature superposition, etc.) |
| M | 83.85.Ns | Data analysis (interconversion of data computation of relaxation and retardation spectra; time-temperature superposition, etc.) (see also 47.11.-j Computational methods in fluid dynamics) |
| 83.85.Rx | Extensional flow measurement | |
| 83.85.St | Stress relaxation | |
| 83.85.Tz | Creep and/or creep recoil | |
| 83.85.Vb | Small amplitude oscillatory shear (dynamic mechanical analysis) | |
| 83.90.+s | Other topics in rheology (restricted to new topics in section 83) | |
| 84. | Electronics; radiowave and microwave technology; direct energy conversion and storage | |
| 84.30.-r | Electronic circuits (for integrated circuits, see 85.40.-e, for microwave circuits, see 84.40.Dc) | |
| 84.30.Bv | Circuit theory | |
| 84.30.Jc | Power electronics; power supply circuits (see also 84.70.+p High-current and high-voltage technology; for superconducting high-power technology, see 84.71.-b) | |
| 84.30.Le | Amplifiers | |
| 84.30.Ng | Oscillators, pulse generators, and function generators | |
| 84.30.Qi | Modulators and demodulators; discriminators, comparators, mixers, limiters, and compressors | |
| 84.30.Sk | Pulse and digital circuits | |
| 84.30.Vn | Filters | |
| 84.32.-y | Passive circuit components (see also 07.50.-e Electrical and electronic instruments, and components) | |
| 84.32.Dd | Connectors, relays, and switches | |
| 84.32.Ff | Conductors, resistors (including thermistors, varistors, and photoresistors) | |
| 84.32.Hh | Inductors and coils; wiring | |
| 84.32.Tt | Capacitors (for electrochemical capacitors and supercapacitors, see 82.47.Uv) | |
| 84.32.Vv | Fuses | |
| 84.35.+i | Neural networks (for optical neural networks, see 42.79.Ta; see also 07.05.Mh Neural networks, fuzzy logic, artificial intelligence in computers in experimental physics; 87.18.Sn in biological complexity) | |
| 84.37.+q | Measurements in electric variables (including voltage, current, resistance, capacitance, inductance, impedance, and admittance, etc.) | |
| S | 84.40.-x | Radiowave and microwave (including millimeter wave) technology |
| M | 84.40.-x | Radiowave and microwave (including millimeter wave) technology (for microwave, submillimeter wave, and radiowave receivers and detectors, see 07.57.Kp; for microwave and radiowave spectrometers, see 07.57.Pt; for radiowave propagation, see 41.20.Jb) |
| 84.40.Az | Waveguides, transmission lines, striplines | |
| 84.40.Ba | Antennas: theory, components and accessories (for plasma interactions with antennas, see 52.40.Fd in plasma physics) | |
| 84.40.Dc | Microwave circuits | |
| 84.40.Fe | Microwave tubes (e.g., klystrons, magnetrons, traveling-wave, backward-wave tubes, etc.) | |
| 84.40.Ik | Masers; gyrotrons (cyclotron-resonance masers) | |
| 84.40.Lj | Microwave integrated electronics | |
| 84.40.Ua | Telecommunications: signal transmission and processing; communication satellites (for optical communications, see 42.79.Sz in optics) | |
| 84.40.Xb | Telemetry: remote control, remote sensing; radar | |
| 84.47.+w | Vacuum tubes (see also 85.45.-w Vacuum microelectronics) | |
| ... ... ... | Phototubes, see 85.60.Ha | |
| ... ... ... | Microwave tubes, see 84.40.Fe | |
| 84.50.+d | Electric motors | |
| S | 84.60.-h | Direct energy conversion and storage (see also 89.30.−g Energy resources; for electrochemical conversion, see 82.47.−a; for ocean energy extraction, see 92.05.Jn) |
| M | 84.60.-h | Direct energy conversion and storage (see also section 88.00.00 Renewable energy resources and applications; for electrochemical conversion, see 82.47.-a; for ocean energy extraction, see 92.05.Jn) |
| 84.60.Bk | Performance characteristics of energy conversion systems; figure of merit | |
| S | 84.60.Jt | Photoelectric conversion: solar cells and arrays (for solar collectors and concentrators, see 42.79.Ek in optics) |
| M | 84.60.Jt | Photoelectric conversion (for solar cells, see 88.40.H- and 88.40.J- in renewable energy resources; for solar collectors and concentrators, see 42.79.Ek in optics and 88.40.F- in renewable energy resources) |
| 84.60.Lw | Magnetohydrodynamic conversion (for MHD generators, see 52.75.Fk—in plasma physics) | |
| 84.60.Ny | Thermionic conversion (for thermionic generators, see 52.75.Fk—in plasma physics) | |
| 84.60.Rb | Thermoelectric, electrogasdynamic and other direct energy conversion | |
| S | 84.60.Ve | Energy storage systems, including capacitor banks |
| M | 84.60.Ve | Energy storage systems, including capacitor banks (see also 82.47.Uv Electrochemical capacitors; supercapacitors, and 88.80.F- Energy storage technologies) |
| 84.70.+p | High-current and high-voltage technology: power systems; power transmission lines and cables (for superconducting cables, see 84.71.Fk) | |
| 84.71.-b | Superconducting high-power technology (see also 84.30.Jc Power electronics; power supply circuits) | |
| 84.71.Ba | Superconducting magnets; magnetic levitation devices | |
| 84.71.Fk | Superconducting cables | |
| 84.71.Mn | Superconducting wires, fibers, and tapes | |
| 84.90.+a | Other topics in electronics, radiowave and microwave technology, and direct energy conversion and storage (restricted to new topics in section 84) | |
| S | 85. | Electronic and magnetic devices; microelectronics |
| M | 85. | Electronic and magnetic devices; microelectronics (for vacuum tubes, see 84.47.+w; for microwave tubes, see 84.40.Fe, for conductors, and resistors, see 84.32.Ff; for wiring, inductors and coils, see 84.32.Hh) |
| 85.25.-j | Superconducting devices | |
| 85.25.Am | Superconducting device characterization, design, and modeling | |
| 85.25.Cp | Josephson devices | |
| 85.25.Dq | Superconducting quantum interference devices (SQUIDs) | |
| 85.25.Hv | Superconducting logic elements and memory devices; microelectronic circuits | |
| 85.25.Oj | Superconducting optical, X-ray, and γ-ray detectors (SIS, NIS, transition edge) | |
| S | 85.25.Pb | Superconducting infrared, submillimeter and millimeter wave detectors |
| M | 85.25.Pb | Superconducting infrared, submillimeter and millimeter wave detectors (see also 84.71.-b Superconducting high-power technology) |
| 85.25.Qc | Superconducting surface acoustic wave devices and other superconducting devices | |
| S | 85.30.-z | Semiconductor devices (for photodiodes, phototransistors, and photoresistors, see 85.60.Dw; for laser diodes, see 42.55.Px) |
| M | 85.30.-z | Semiconductor devices (for photodiodes, phototransistors, and photoresistors, see 85.60.Dw; for laser diodes, see 42.55.Px; for semiconductor-based solar cells, see 88.40.-j; for applications of dielectric films in silicon electronics, see 77.55.df) |
| 85.30.De | Semiconductor-device characterization, design, and modeling | |
| 85.30.Fg | Bulk semiconductor and conductivity oscillation devices (including Hall effect devices, space-charge-limited devices, and Gunn effect devices) | |
| 85.30.Hi | Surface barrier, boundary, and point contact devices | |
| 85.30.Kk | Junction diodes | |
| 85.30.Mn | Junction breakdown and tunneling devices (including resonance tunneling devices) | |
| 85.30.Pq | Bipolar transistors | |
| 85.30.Rs | Thyristors | |
| 85.30.Tv | Field effect devices | |
| 85.35.-p | Nanoelectronic devices | |
| 85.35.Be | Quantum well devices (quantum dots, quantum wires, etc.) | |
| 85.35.Ds | Quantum interference devices | |
| 85.35.Gv | Single electron devices | |
| 85.35.Kt | Nanotube devices | |
| S | 85.40.-e | Microelectronics: LSI, VLSI, ULSI; integrated circuit fabrication technology (see also 85.45.−w Vacuum microelectronics) |
| M | 85.40.-e | Microelectronics: LSI, VLSI, ULSI; integrated circuit fabrication technology (see also 85.45.-w Vacuum microelectronics; 84.40.Lj Microwave integrated electronics; 42.82.-m Integrated optics; 85.25.Hv Superconducting logic elements and memory devices; microelectronic circuits) |
| 85.40.Bh | Computer-aided design of microcircuits; layout and modeling | |
| 85.40.Hp | Lithography, masks and pattern transfer | |
| ... ... ... | Micro- and nano-electromechanical systems (MEMS/NEMS) and devices, see 85.85.+j | |
| 85.40.Ls | Metallization, contacts, interconnects; device isolation | |
| 85.40.Qx | Microcircuit quality, noise, performance, and failure analysis | |
| 85.40.Ry | Impurity doping, diffusion and ion implantation technology | |
| 85.40.Sz | Deposition technology (for plasma applications in deposition technology, see 52.77.Dq) | |
| 85.40.Xx | Hybrid microelectronics; thick films | |
| 85.45.-w | Vacuum microelectronics | |
| 85.45.Bz | Vacuum microelectronic device characterization, design, and modeling | |
| 85.45.Db | Field emitters and arrays, cold electron emitters | |
| 85.45.Fd | Field emission displays (FEDs) | |
| 85.50.-n | Dielectric, ferroelectric, and piezoelectric devices | |
| 85.50.Gk | Non-volatile ferroelectric memories | |
| 85.60.-q | Optoelectronic devices (see also 42.79.-e Optical elements, devices and systems) | |
| 85.60.Bt | Optoelectronic device characterization, design, and modeling | |
| 85.60.Dw | Photodiodes; phototransistors; photoresistors | |
| 85.60.Gz | Photodetectors (including infrared and CCD detectors) (for superconducting infrared detectors, see 85.25.Pb; for superconducting optical, x-ray and γ-ray detectors, see 85.25.Oj; see also 07.57.Kp in instruments) | |
| 85.60.Ha | Photomultipliers; phototubes and photocathodes | |
| 85.60.Jb | Light-emitting devices | |
| 85.60.Pg | Display systems (for field emission display, see 85.45.Fd, for optical display devices, see 42.79.Kr; for electrochemical displays, see 82.47.Tp; see also 07.07.Hj Display and recording equipment, oscilloscopes, TV cameras, etc.) | |
| 85.65.+h | Molecular electronic devices | |
| S | 85.70.-w | Magnetic devices |
| M | 85.70.-w | Magnetic devices (for magnets, see 07.55.Db; for molecular magnets, see 75.50.Xx; for beam bending magnets, see 41.85.Lc; see also 84.71.Ba Superconducting magnets and magnetic levitation devices; 75.50.Ss Magnetic recording materials) |
| 85.70.Ay | Magnetic device characterization, design, and modeling | |
| 85.70.Ec | Magnetostrictive, magnetoacoustic, and magnetostatic devices (for magnetostrictive transducers, see 43.38.Ct—in Acoustics Appendix) | |
| 85.70.Ge | Ferrite and garnet devices | |
| 85.70.Kh | Magnetic thin film devices: magnetic heads (magnetoresistive, inductive, etc.); domain-motion devices, etc. | |
| 85.70.Li | Other magnetic recording and storage devices (including tapes, disks, and drums) | |
| S | 85.70.Rp | Magnetic levitation, propulsion and control devices (for superconducting magnetic levitation devices, see 84.71.Ba) |
| M | 85.70.Rp | Magnetic levitation, propulsion and control devices |
| 85.70.Sq | Magnetooptical devices | |
| 85.75.-d | Magnetoelectronics; spintronics: devices exploiting spin polarized transport or integrated magnetic fields | |
| 85.75.Bb | Magnetic memory using giant magnetoresistance | |
| 85.75.Dd | Magnetic memory using magnetic tunnel junctions | |
| 85.75.Ff | Reprogrammable magnetic logic | |
| 85.75.Hh | Spin polarized field effect transistors | |
| 85.75.Mm | Spin polarized resonant tunnel junctions | |
| 85.75.Nn | Hybrid Hall devices | |
| 85.75.Ss | Magnetic field sensors using spin polarized transport | |
| 85.80.-b | Thermoelectromagnetic and other devices (for acoustoelectric devices, see 43.38.-p in Acoustics Appendix; for electrochemical devices, see 82.47.-a) | |
| 85.80.Fi | Thermoelectric devices | |
| 85.80.Jm | Magnetoelectric devices | |
| 85.80.Lp | Magnetothermal devices | |
| 85.85.+j | Micro- and nano-electromechanical systems (MEMS/NEMS) and devices | |
| 85.90.+h | Other topics in electronic and magnetic devices and microelectronics (restricted to new topics in section 85) | |
| 87. | Biological and medical physics | |
| 87.10.-e | General theory and mathematical aspects | |
| 87.10.Ca | Analytical theories | |
| 87.10.Ed | Ordinary differential equations (ODE), partial differential equations (PDE), integrodifferential models | |
| 87.10.Hk | Lattice models | |
| 87.10.Kn | Finite element calculations | |
| 87.10.Mn | Stochastic modeling | |
| 87.10.Pq | Elasticity theory | |
| 87.10.Rt | Monte Carlo simulations | |
| 87.10.Tf | Molecular dynamics simulation | |
| 87.10.Vg | Biological information | |
| 87.14.-g | Biomolecules: types | |
| 87.14.Cc | Lipids | |
| 87.14.Df | Carbohydrates | |
| 87.14.E- | Proteins | |
| 87.14.ef | Peptides | |
| 87.14.ej | Enzymes | |
| 87.14.em | Fibrils (amyloids, collagen, etc.) | |
| 87.14.ep | Membrane proteins | |
| 87.14.et | Generic models (lattice, HP, etc.) | |
| 87.14.G- | Nucleic acids | |
| 87.14.gf | Nucleotides | |
| 87.14.gk | DNA | |
| 87.14.gn | RNA | |
| 87.14.Lk | Hormones | |
| 87.14.Pq | Vitamins | |
| S | 87.15.-v | Biomolecules: structure and physical properties |
| M | 87.15.-v | Biomolecules: structure and physical properties (for NMR of biomolecules, see 82.56.Pp) |
| 87.15.A- | Theory, modeling, and computer simulation | |
| 87.15.ad | Analytical theories | |
| 87.15.ag | Quantum calculations | |
| 87.15.ak | Monte Carlo simulations | |
| 87.15.ap | Molecular dynamics simulation | |
| 87.15.B- | Structure of biomolecules | |
| 87.15.bd | Secondary structure | |
| 87.15.bg | Tertiary structure | |
| 87.15.bk | Structure of aggregates | |
| 87.15.Cc | Folding: thermodynamics, statistical mechanics, models, and pathways (see also 87.15.hm Folding dynamics) | |
| 87.15.Fh | Bonding; mechanisms of bond breakage | |
| 87.15.H- | Dynamics of biomolecules | |
| 87.15.hg | Dynamics of intermolecular interactions | |
| 87.15.hj | Transport dynamics | |
| 87.15.hm | Folding dynamics | |
| 87.15.hp | Conformational changes | |
| 87.15.ht | Ultrafast dynamics; charge transfer | |
| 87.15.K- | Molecular interactions; membrane-protein interactions | |
| 87.15.kj | Protein-polynucleotide interactions | |
| 87.15.km | Protein-protein interactions | |
| 87.15.kp | Protein-ligand interactions | |
| 87.15.kr | Protein-solvent interactions | |
| 87.15.kt | Protein-membrane interactions | |
| 87.15.La | Mechanical properties | |
| 87.15.M- | Spectra of biomolecules | |
| 87.15.mk | Photodissociation | |
| 87.15.mn | Photoionization | |
| 87.15.mq | Luminescence | |
| 87.15.N- | Properties of solutions of macromolecules | |
| 87.15.np | Dissolution | |
| 87.15.nr | Aggregation | |
| 87.15.nt | Crystallization | |
| 87.15.Pc | Electronic and electrical properties | |
| 87.15.Qt | Sequence analysis | |
| 87.15.R- | Reactions and kinetics (see also 82.39.-k Chemical kinetics in biological systems in physical chemistry) | |
| 87.15.rp | Polymerization (see also 82.35.Pq Biopolymers, biopolymerization in physical chemistry) | |
| 87.15.rs | Dissociation | |
| 87.15.Tt | Electrophoresis (see also 82.45.-h Electrochemistry and electrophoresis) | |
| 87.15.Vv | Diffusion | |
| 87.15.Ya | Fluctuations | |
| 87.15.Zg | Phase transitions | |
| 87.16.-b | Subcellular structure and processes | |
| 87.16.A- | Theory, modeling, and simulations | |
| 87.16.ad | Analytical theories | |
| 87.16.af | Monte Carlo calculations | |
| 87.16.aj | Lattice models | |
| 87.16.D- | Membranes, bilayers, and vesicles | |
| 87.16.dj | Dynamics and fluctuations | |
| 87.16.dm | Mechanical properties and rheology | |
| 87.16.dp | Transport, including channels, pores, and lateral diffusion | |
| 87.16.dr | Assembly and interactions | |
| 87.16.dt | Structure, static correlations, domains, and rafts | |
| 87.16.Gj | Cell walls | |
| 87.16.Ka | Filaments, microtubules, their networks, and supramolecular assemblies | |
| 87.16.Ln | Cytoskeleton | |
| 87.16.Mq | Morphology of nerve cells | |
| 87.16.Nn | Motor proteins (myosin, kinesin dynein) | |
| 87.16.Qp | Pseudopods, lamellipods, cilia, and flagella | |
| 87.16.Sr | Chromosomes, histones | |
| 87.16.Tb | Mitochondria and other organelles | |
| 87.16.Uv | Active transport processes | |
| 87.16.Vy | Ion channels | |
| 87.16.Wd | Intracellular trafficking | |
| 87.16.Xa | Signal transduction and intracellular signaling | |
| 87.16.Yc | Regulatory genetic and chemical networks | |
| 87.16.Zg | Nuclear morphology | |
| 87.17.-d | Cell processes | |
| 87.17.Aa | Modeling, computer simulation of cell processes | |
| 87.17.Ee | Growth and division | |
| 87.17.Jj | Cell locomotion, chemotaxis | |
| 87.17.Pq | Morphogenesis | |
| 87.17.Rt | Cell adhesion and cell mechanics | |
| 87.17.Uv | Biotechnology of cell processes | |
| 87.18.-h | Biological complexity (see also 82.39.Rt Reactions in complex biological systems in physical chemistry) | |
| 87.18.Cf | Genetic switches and networks | |
| 87.18.Ed | Cell aggregation | |
| 87.18.Fx | Multicellular phenomena, biofilms | |
| 87.18.Gh | Cell-cell communication; collective behavior of motile cells | |
| 87.18.Hf | Spatiotemporal pattern formation in cellular populations | |
| 87.18.Mp | Signal transduction networks | |
| 87.18.Nq | Large-scale biological processes and integrative biophysics | |
| 87.18.Sn | Neural networks and synaptic communication | |
| 87.18.Tt | Noise in biological systems | |
| 87.18.Vf | Systems biology | |
| 87.18.Wd | Genomics | |
| 87.18.Xr | Proteomics | |
| 87.18.Yt | Circadian rhythms | |
| 87.19.-j | Properties of higher organisms | |
| 87.19.Ff | Muscles | |
| 87.19.Hh | Cardiac dynamics | |
| 87.19.L- | Neuroscience | |
| 87.19.lb | Action potential propagation and axons | |
| 87.19.lc | Noise in the nervous system | |
| 87.19.ld | Electrodynamics in the nervous system | |
| 87.19.le | EEG and MEG | |
| 87.19.lf | MRI: anatomic, functional, spectral, diffusion | |
| 87.19.lg | Synapses: chemical and electrical (gap junctions) | |
| 87.19.lh | Optical imaging of neuronal activity | |
| 87.19.lj | Neuronal network dynamics | |
| 87.19.lk | Glia | |
| 87.19.ll | Models of single neurons and networks | |
| 87.19.lm | Synchronization in the nervous system | |
| 87.19.ln | Oscillations and resonance | |
| 87.19.lo | Information theory | |
| 87.19.lp | Pattern formation: activity and anatomic | |
| 87.19.lq | Neuronal wave propagation | |
| 87.19.lr | Control theory and feedback | |
| 87.19.ls | Encoding, decoding, and transformation | |
| 87.19.lt | Sensory systems: visual, auditory, tactile, taste, and olfaction (for Neurophysiology of speech perception, see 43.71.Qr and 43.72.Qr Auditory synthesis and recognition in Acoustics Appendix; 42.66.-p Physiological optics) | |
| 87.19.lu | Motor systems: Locomotion, flight, vocalization | |
| 87.19.lv | Learning and memory | |
| 87.19.lw | Plasticity | |
| 87.19.lx | Development and growth | |
| 87.19.ly | Energetics | |
| 87.19.Pp | Biothermics and thermal processes in biology | |
| 87.19.R- | Mechanical and electrical properties of tissues and organs | |
| 87.19.rd | Elastic properties | |
| 87.19.rf | Dielectric properties | |
| 87.19.rh | Fluid transport and rheology | |
| 87.19.rj | Contraction | |
| 87.19.rm | Structure | |
| 87.19.rp | Impulse propagation | |
| 87.19.rs | Movement | |
| 87.19.ru | Locomotion | |
| 87.19.U- | Hemodynamics | |
| 87.19.ug | Heart and lung dynamics | |
| 87.19.uj | Peripheral vascular dynamics | |
| 87.19.um | Blood-brain barrier | |
| 87.19.Wx | Pneumodyamics, respiration | |
| 87.19.X- | Diseases | |
| 87.19.xb | Bacterial diseases | |
| 87.19.xd | Viral diseases | |
| 87.19.xe | Parasitic diseases | |
| 87.19.xg | Fungal diseases | |
| 87.19.xh | Prion diseases | |
| 87.19.xj | Cancer | |
| 87.19.xk | Genetic diseases | |
| 87.19.xm | Epilepsy | |
| 87.19.xn | Musculoskeletal diseases | |
| 87.19.xp | Motor system disease (Parkinson's, etc.) | |
| 87.19.xq | Stroke | |
| 87.19.xr | Degenerative diseases (Alzheimer's, ALS, etc) | |
| 87.19.xt | Developmental diseases | |
| 87.19.xu | Gastrointestinal diseases | |
| 87.19.xv | Endocrine diseases | |
| 87.19.xw | Immune system diseases | |
| 87.23.-n | Ecology and evolution | |
| 87.23.Cc | Population dynamics and ecological pattern formation | |
| 87.23.Ge | Dynamics of social systems | |
| 87.23.Kg | Dynamics of evolution | |
| 87.50.-a | Effects of electromagnetic and acoustic fields on biological systems | |
| 87.50.C- | Static and low-frequency electric and magnetic fields effects | |
| 87.50.cf | Biophysical mechanisms of interaction | |
| 87.50.ch | Electrophoresis/dielectrophoresis and other mechanical effects (see also 87.15.Tt Electrophoresis) | |
| 87.50.cj | Electroporation/membrane effects | |
| 87.50.cm | Dosimetry/exposure assessment | |
| 87.50.ct | Therapeutic applications | |
| 87.50.S- | Radiofrequency/microwave fields effects | |
| 87.50.sg | Biophysical mechanisms of interaction | |
| 87.50.sj | Dosimetry/exposure assessment | |
| 87.50.st | Therapeutic applications | |
| 87.50.U- | Millimeter/terahertz fields effects | |
| 87.50.uj | Biophysical mechanisms of interaction | |
| 87.50.up | Dosimetry/exposure assessment | |
| 87.50.ux | Therapeutic applications | |
| 87.50.W- | Optical/infrared radiation effects | |
| 87.50.wf | Biophysical mechanisms of interaction | |
| 87.50.wj | Dosimetry/exposure assessment | |
| 87.50.wp | Therapeutic applications | |
| 87.50.Y- | Biological effects of acoustic and ultrasonic energy | |
| 87.50.yg | Biophysical mechanisms of interaction | |
| 87.50.yk | Dosimetry/exposure assessment | |
| 87.50.yt | Therapeutic applications | |
| 87.53.-j | Effects of ionizing radiation on biological systems | |
| 87.53.Ay | Biophysical mechanisms of interaction | |
| 87.53.Bn | Dosimetry/exposure assessment | |
| 87.53.Jw | Therapeutic applications, including brachytherapy | |
| 87.53.Kn | Conformal radiation treatment | |
| 87.53.Ly | Stereotactic radiosurgery | |
| 87.55.-x | Treatment strategy | |
| 87.55.D- | Treatment planning | |
| 87.55.de | Optimization | |
| 87.55.dh | Tissue response | |
| 87.55.dk | Dose-volume analysis | |
| 87.55.Gh | Simulation | |
| 87.55.K- | Monte Carlo methods | |
| 87.55.kd | Algorithms | |
| 87.55.kh | Applications | |
| 87.55.km | Verification | |
| 87.55.N- | Radiation monitoring, control, and safety | |
| 87.55.ne | Therapeutic applications | |
| 87.55.Qr | Quality assurance in radiotherapy | |
| 87.55.T- | Record and verify systems and applications | |
| 87.55.tg | Design | |
| 87.55.tm | Applications | |
| 87.56.-v | Radiation therapy equipment | |
| 87.56.B- | Radiation sources | |
| 87.56.bd | Accelerators | |
| 87.56.bg | Radioactive sources | |
| 87.56.Da | Ancillary equipment | |
| 87.56.Fc | Quality assurance equipment | |
| 87.56.J- | Collimation | |
| 87.56.jf | Field size | |
| 87.56.jk | Field shaping | |
| 87.56.N- | Beam intensity modifications | |
| 87.56.ng | Wedges and compensators | |
| 87.56.nk | Collimators | |
| 87.57.-s | Medical imaging | |
| 87.57.C- | Image quality | |
| 87.57.cf | Spatial resolution | |
| 87.57.cj | Contrast | |
| 87.57.cm | Noise | |
| 87.57.cp | Artifacts and distortion | |
| 87.57.N- | Image analysis | |
| 87.57.nf | Reconstruction | |
| 87.57.nj | Registration | |
| 87.57.nm | Segmentation | |
| 87.57.np | Smoothing | |
| 87.57.nt | Edge enhancement | |
| 87.57.Q- | Computed tomography | |
| 87.57.qh | Single-slice | |
| 87.57.qp | Multislice | |
| 87.57.R- | Computer-aided diagnosis | |
| 87.57.rh | Mammography | |
| 87.57.U- | Nuclear medicine imaging | |
| 87.57.ue | Conventional nuclear medicine imaging | |
| 87.57.uh | Single photon emission computed tomography (SPECT) | |
| 87.57.uk | Positron emission tomography (PET) | |
| 87.57.un | Radiopharmaceuticals | |
| 87.57.uq | Dosimetry | |
| N | 87.57.Va | Neutron imaging; neutron tomography |
| 87.59.-e | X-ray imaging | |
| 87.59.B- | Radiography | |
| 87.59.bd | Computed radiography | |
| 87.59.bf | Digital radiography | |
| 87.59.C- | Fluoroscopy | |
| 87.59.cf | Digital fluoroscopy | |
| 87.59.Dj | Angiography | |
| 87.59.E- | Mammography | |
| 87.59.eg | Film mammography | |
| 87.59.ej | Digital mammography | |
| 87.61.-c | Magnetic resonance imaging | |
| 87.61.Bj | Theory and principles | |
| 87.61.Ff | Instrumentation | |
| 87.61.Hk | Pulse sequences | |
| 87.61.Jc | Anatomic imaging | |
| 87.61.Np | Flow imaging | |
| 87.61.Qr | Functional imaging | |
| 87.61.Tg | Clinical applications | |
| 87.63.-d | Non-ionizing radiation equipment and techniques | |
| 87.63.D- | Ultrasonography | |
| 87.63.dh | Ultrasonographic imaging | |
| 87.63.dk | Doppler | |
| 87.63.Hg | Thermography | |
| 87.63.L- | Visual imaging | |
| 87.63.lg | Principles of visualization | |
| 87.63.lj | Image perception | |
| 87.63.lm | Image enhancement | |
| 87.63.lp | Transillumination | |
| 87.63.lt | Laser imaging | |
| 87.63.Pn | Electrical impedance tomography (EIT) | |
| 87.63.St | Bone densitometry | |
| 87.64.-t | Spectroscopic and microscopic techniques in biophysics and medical physics | |
| 87.64.Aa | Computer simulation | |
| 87.64.Bx | Electron, neutron and x-ray diffraction and scattering | |
| 87.64.Cc | Scattering of visible, uv, and infrared radiation | |
| 87.64.Dz | Scanning tunneling and atomic force microscopy | |
| 87.64.Ee | Electron microscopy | |
| 87.64.K- | Spectroscopy | |
| 87.64.kd | X-ray and EXAFS | |
| 87.64.kh | EPR | |
| 87.64.kj | NMR | |
| 87.64.km | Infrared | |
| 87.64.kp | Raman | |
| 87.64.ks | Electron and photoelectron | |
| 87.64.ku | Magnetic circular dichroism | |
| 87.64.kv | Fluorescence | |
| 87.64.kx | Mössbauer | |
| 87.64.M- | Optical microscopy | |
| 87.64.mc | Bright field | |
| 87.64.mf | Dark field | |
| 87.64.mh | Phase contrast and DIC | |
| 87.64.mk | Confocal | |
| 87.64.mn | Multiphoton | |
| 87.64.mt | Near-field scanning | |
| 87.80.-y | Biophysical techniques (research methods) | |
| 87.80.Cc | Optical trapping (see also 42.50.Wk Mechanical effects of light on material media, microstructure and particles in optics; 37.10.-x Atom, molecule, and ion cooling methods) | |
| 87.80.Dj | Spectroscopies | |
| 87.80.Ek | Mechanical and micromechanical techniques | |
| 87.80.Fe | Micromanipulation of biological structures | |
| 87.80.Jg | Patch clamping and other physiological measurements | |
| 87.80.Kc | Electrochemical techniques | |
| 87.80.Lg | Magnetic and paramagnetic resonance | |
| 87.80.Nj | Single-molecule techniques (see also 82.37.Rs Single molecule manipulation of proteins and other biological molecules in physical chemistry) | |
| 87.80.Qk | Biochemical separation processes | |
| 87.80.St | Genomic techniques | |
| 87.80.Un | Proteomic techniques | |
| 87.85.-d | Biomedical engineering | |
| 87.85.D- | Applied neuroscience | |
| 87.85.dd | Brain-machine interfaces | |
| 87.85.dh | Cells on a chip | |
| 87.85.dm | Physical models of neurophysiological processes | |
| 87.85.dq | Neural networks | |
| 87.85.E- | Neural prosthetics | |
| 87.85.eg | Electrode stimulation | |
| 87.85.ej | Safe limits of charge injection | |
| 87.85.em | Tissue damage | |
| 87.85.F- | Smart prosthetics | |
| 87.85.ff | Feedback | |
| 87.85.fh | Feedforward | |
| 87.85.fk | Biosensors | |
| 87.85.fp | Bidirectional communication | |
| 87.85.G- | Biomechanics | |
| 87.85.gf | Fluid mechanics and rheology | |
| 87.85.gj | Movement and locomotion | |
| 87.85.gp | Mechanical systems | |
| 87.85.J- | Biomaterials | |
| 87.85.jc | Electrical, thermal, and mechanical properties of biological matter | |
| 87.85.jf | Bio-based materials | |
| 87.85.jj | Biocompatibility | |
| 87.85.Lf | Tissue engineering | |
| 87.85.M- | Biotechnology (for biotechnology of cell processes, see 87.17.Uv) | |
| 87.85.md | Genetic engineering | |
| 87.85.mg | Genomics | |
| 87.85.mk | Proteomics | |
| 87.85.Ng | Biological signal processing | |
| 87.85.Ox | Biomedical instrumentation and transducers, including micro-electro-mechanical systems (MEMS) | |
| 87.85.Pq | Biomedical imaging | |
| 87.85.Qr | Nanotechnologies-design | |
| 87.85.Rs | Nanotechnologies-applications | |
| 87.85.St | Robotics | |
| 87.85.Tu | Modeling biomedical systems | |
| 87.85.Uv | Micromanipulators | |
| 87.85.Va | Micromachining | |
| 87.85.Wc | Neural engineering (for neural prosthetics, see 87.85.E-) | |
| 87.85.Xd | Dynamical, regulatory, and integrative biology | |
| 87.90.+y | Other topics in biological and medical physics (restricted to new topics in section 87) | |
| N | 88. | Renewable energy resources and applications (for nuclear power see 89.30.Gg and 89.30.Jj) |
| N | 88.05.-b | Energy analysis |
| N | 88.05.Bc | Energy efficiency; definitions and standards |
| N | 88.05.De | Thermodynamic constraints on energy production (see also 05.70.-a Thermodynamics) |
| N | 88.05.Ec | Renewable energy targets |
| N | 88.05.Gh | Energy conservation; electricity demand reduction |
| N | 88.05.Hj | Energy content issues; life cycle analysis |
| N | 88.05.Jk | Policy issues; resource assessment |
| N | 88.05.Lg | Economic issues; sustainability; cost trends |
| N | 88.05.Np | Environmental aspects |
| N | 88.05.Pq | Emissions trading and CDM |
| N | 88.05.Qr | Energy use in agriculture (see also 91.62.Bf Agricultural systems in Geophysics Appendix) |
| N | 88.05.Rt | Energy use in appliances and electronic equipment |
| N | 88.05.Sv | Energy use in heating and cooling of residential and commercial buildings (for solar heating and cooling of residential and commercial buildings, see 88.40.me; for geothermal energy use in heating and cooling of buildings, see 88.10.cn) |
| N | 88.05.Tg | Energy use in lighting (for solar energy use in lighting, see 88.40.mx, and 88.40.my) |
| N | 88.05.Vx | Energy use in industry and manufacturing (see also 89.20.Bb Industrial and technological research and development) |
| N | 88.05.Xj | Energy use in transportation (see also 88.85.-r Advanced vehicles) |
| N | 88.10.-g | Geothermal energy (see also 91.35.Dc Heat flow; geothermy) |
| N | 88.10.C- | Ground heat |
| N | 88.10.cd | Geothermal heat pumps |
| N | 88.10.cf | Global geothermal flux |
| N | 88.10.ch | Continental geothermal energy |
| N | 88.10.cj | Oceanic geothermal energy |
| N | 88.10.cn | Heating and cooling of buildings; space heating (for solar heating and cooling of residential and commercial buildings, see 88.40.me) |
| N | 88.10.Eb | Hot dry rock (igneous systems) |
| N | 88.10.F- | Hydrothermal reservoirs (see also 92.05.Lf Hydrothermal systems in oceanography; 91.40.Ge Hydrothermal systems in volcanology) |
| N | 88.10.fb | Hot springs |
| N | 88.10.fe | Hot water from wells |
| N | 88.10.fh | Down hole pumps |
| N | 88.10.G- | Reservoir engineering (enhanced geothermal systems) |
| N | 88.10.gc | Simulation; prediction models |
| N | 88.10.gf | Imaging fluid flow |
| N | 88.10.gk | High-temperature logging tools and sensors |
| N | 88.10.gn | Fracture characterization of rocks |
| N | 88.10.gp | Site characterization; zonal isolation |
| N | 88.10.H- | Geothermal electricity production |
| N | 88.10.hd | Dry steam plants |
| N | 88.10.hf | Flash steam plants |
| N | 88.10.hh | Binary-cycle steam plants |
| N | 88.10.J- | Brines and their dissolved matter |
| N | 88.10.jj | Mineral extraction |
| N | 88.10.jn | Metals extraction |
| N | 88.10.jp | Combined minerals and metals extraction |
| N | 88.20.-j | Biomass energy |
| N | 88.20.D- | Biomass energy sources |
| N | 88.20.dd | Wood |
| N | 88.20.df | Food crops |
| N | 88.20.dh | Grassy and woody plants |
| N | 88.20.dj | Agriculture/forestry residues |
| N | 88.20.dm | Aquatic/marine sources |
| N | 88.20.dp | Cellolusic materials |
| N | 88.20.dr | Food wastes |
| N | 88.20.dt | Municipal and industrial wastes |
| N | 88.20.dv | Methane from landfills |
| N | 88.20.F- | Renewable alternative fuels from biomass energy (for fossil fuels, see 89.30.A-) |
| N | 88.20.ff | Ethanol (see also 88.85.mj ethanol in alternative fuels for advanced vehicles) |
| N | 88.20.fg | Methanol |
| N | 88.20.fh | Butanol |
| N | 88.20.fj | Mixed alcohols |
| N | 88.20.fk | Biodiesel (see also 88.85.mb Biodiesel in alternative fuels for advanced vehicles) |
| N | 88.20.fn | Hydrogen (see also 88.85.mh Hydrogen in alternative fuels for advanced vehicles) |
| N | 88.20.fq | Methane |
| N | 88.20.fr | Solid pelletized fuel |
| N | 88.20.fs | Syngas |
| N | 88.20.ft | Vegetable oils |
| N | 88.20.fv | Bioethers |
| N | 88.20.fw | Bioaviation fuel |
| N | 88.20.G- | Methane production |
| N | 88.20.gc | Fischer-Tropsch (F-T) liquids (hydrocarbons) |
| N | 88.20.gf | Decaying organic matter |
| N | 88.20.gh | Anaerobic digestion |
| N | 88.20.H- | Biomass processing routes |
| N | 88.20.hh | Biochemical route |
| N | 88.20.hj | Thermochemical route |
| N | 88.20.J- | Biomass conversion methods |
| N | 88.20.jj | Combustion |
| N | 88.20.jm | Hydrolysis and fermentation |
| N | 88.20.jp | Extraction and esterification |
| N | 88.20.jr | Alternate photosynthetic pathways |
| N | 88.20.M- | Biopower systems |
| N | 88.20.mn | Direct-firing systems |
| N | 88.20.mp | Cofiring systems |
| N | 88.20.mr | Gasification systems; syngas |
| N | 88.20.mt | Pyrolysis to liquids |
| N | 88.20.mv | Paper mills |
| N | 88.20.R- | Bioproducts from biomass |
| N | 88.20.rb | Plastics |
| N | 88.20.rg | Glues |
| N | 88.20.rm | Acids |
| N | 88.20.rp | Wood adhesives |
| N | 88.20.rr | Foam insulation |
| N | 88.20.T- | Markets for renewable alternative fuels (for alternative fuels for advanced vehicles, see 88.85.M-) |
| N | 88.20.td | Heat |
| N | 88.20.tf | Combined heat and power |
| N | 88.20.th | Transportation fuels |
| N | 88.20.tk | Chemicals |
| N | 88.20.Y- | Social issues |
| N | 88.20.yq | Food versus fuel debate |
| N | 88.30.-k | Hydrogen and fuel cell technology (for hydrogen as a renewable alternative fuel, see 88.20.fn; for hydrogen as an alternative fuel in advanced vehicles, see 88.85.mh) |
| N | 88.30.E- | Hydrogen production with renewable energy |
| N | 88.30.ej | Thermochemical hydrogen |
| N | 88.30.em | Electrolytic hydrogen |
| N | 88.30.ep | Electrochemical photolytic hydrogen |
| N | 88.30.er | Biological photolytic hydrogen |
| N | 88.30.et | Reforming biomass and wastes |
| N | 88.30.ew | Water-gas-shift (WGS) reaction |
| N | 88.30.G- | Fuel cell systems |
| N | 88.30.gg | Design and simulation |
| N | 88.30.J- | Fuel cell components |
| N | 88.30.jn | Fuel cell stack |
| N | 88.30.jp | Fuel processor |
| N | 88.30.jr | Current converter |
| N | 88.30.jt | Heat recovery system |
| N | 88.30.M- | Fuel cell component materials |
| N | 88.30.mg | Inorganic proton conductors |
| N | 88.30.mj | Composite materials |
| N | 88.30.Nn | Corrosion protection |
| N | 88.30.P- | Types of fuel cells (see also 82.47.-a Applied electrochemistry) |
| N | 88.30.pd | Proton exchange membrane fuel cells (PEM) |
| N | 88.30.pf | Direct methanol fuel cells |
| N | 88.30.ph | Alkaline fuel cells |
| N | 88.30.pj | Phosphoric acid fuel cells |
| N | 88.30.pm | Molten carbonate fuel cells |
| N | 88.30.pn | Solid oxide fuel cells |
| N | 88.30.pp | Regenerative fuel cells |
| N | 88.30.R- | Hydrogen storage |
| N | 88.30.rd | Inorganic metal hydrides |
| N | 88.30.rf | Organics |
| N | 88.30.rh | Carbon nanotubes |
| N | 88.30.rj | Hydrocarbons and alcohols liquid systems |
| N | 88.40.-j | Solar energy |
| N | 88.40.F- | Solar concentrators (see also 42.79.Ek Solar collectors and concentrators in optics) |
| N | 88.40.fc | Modeling and analysis |
| N | 88.40.ff | Performance testing |
| N | 88.40.fh | Advanced materials development |
| N | 88.40.fj | Parabolic-trough mirrors |
| N | 88.40.fm | Dish/engine systems |
| N | 88.40.fp | Power tower systems |
| N | 88.40.fr | Concentrating collectors |
| N | 88.40.H- | Solar cells (photovoltaics) |
| N | 88.40.hj | Efficiency and performance of solar cells |
| N | 88.40.hm | Cost of production of solar cells |
| N | 88.40.J- | Types of solar cells |
| N | 88.40.jj | Silicon solar cells |
| N | 88.40.jm | Thin film III-V and II-VI based solar cells |
| N | 88.40.jn | Thin film Cu-based I-III-VI2 solar cells |
| N | 88.40.jp | Multijunction solar cells |
| N | 88.40.jr | Organic photovoltaics |
| N | 88.40.M- | Residential and commercial buildings |
| N | 88.40.me | Solar heating and cooling systems |
| N | 88.40.mg | Active space/water heating |
| N | 88.40.mj | Passive space/water heating |
| N | 88.40.mm | Pool heating systems |
| N | 88.40.mp | Grid-tied solar electric systems |
| N | 88.40.mr | Building-integrated photovoltaics |
| N | 88.40.mt | Roof top shingles |
| N | 88.40.mv | Building facades |
| N | 88.40.mx | Day lighting/natural lighting of buildings |
| N | 88.40.my | Outdoor solar lights |
| N | 88.50.-k | Wind energy |
| N | 88.50.G- | Wind turbines |
| N | 88.50.gg | Research and development |
| N | 88.50.gj | Modeling, design |
| N | 88.50.gm | Components |
| N | 88.50.gp | Testing |
| N | 88.50.J- | Wind farms |
| N | 88.50.jj | Small-scale wind farms |
| N | 88.50.jn | Large-scale wind farms |
| N | 88.50.jp | Off-shore wind farms |
| N | 88.50.Mp | Electricity generation, grid integration from wind (see also 84.70.+p High-current and high-voltage technology: power systems; power transmission lines and cables; see also 88.80.-q Energy delivery and storage) |
| N | 88.50.Xy | Social issues regarding wind energy |
| N | 88.60.-m | Hydroelectric power (see also 84.70.+p High-current and high-voltage technology: power systems; power transmission lines and cables) |
| N | 88.60.J- | Conventional hydropower |
| N | 88.60.jb | Impoundment facilities, dams |
| N | 88.60.je | Diversion facilities |
| N | 88.60.jg | Pumped storage facilities |
| N | 88.60.K- | Hydroturbines |
| N | 88.60.kc | Cross-flow turbines |
| N | 88.60.kf | Francis hydropower turbines |
| N | 88.60.kj | Free-flow turbines |
| N | 88.60.km | Impulse turbines |
| N | 88.60.kp | Pelton hydropower turbines |
| N | 88.60.kr | Propeller turbines |
| N | 88.60.kt | Reaction turbines |
| N | 88.60.N- | Emerging hydropower technologies |
| N | 88.60.nf | Energy from ocean waves (see also 92.05.Jn Ocean energy extraction in oceanography) |
| N | 88.60.nh | Tidal energy |
| N | 88.60.nj | Marine thermal gradients |
| N | 88.60.nm | Energy from ocean currents |
| N | 88.60.np | Natural water flow in rivers |
| N | 88.60.nr | Ocean thermal energy |
| N | 88.80.-q | Energy delivery and storage |
| N | 88.80.Cd | Grid-connected distributed energy resources |
| N | 88.80.F- | Energy storage technologies (see also 84.60.Ve Energy storage systems, including capacitor banks) |
| N | 88.80.ff | Batteries (for lithium-ion batteries, see 82.47.Aa; for lead-acid, nickel-metal hydride batteries, see 82.47.Cb; see also 88.85.jk, and 88.85.jm in advanced vehicles) |
| N | 88.80.fh | Supercapacitors (see also 82.47.Uv Electrochemical capacitors; supercapacitors) |
| N | 88.80.fj | Superconducting magnetic energy storage (see also 84.71.-b Superconducting high-power technology) |
| N | 88.80.H- | Electric power transmission (see also 84.70.+p High-current and high-voltage technology: power systems; power transmission lines and cables; and 84.71.-b Superconducting high-power technology) |
| N | 88.80.hh | Transmission grids |
| N | 88.80.hj | High-voltage direct current transmission |
| N | 88.80.hm | ac power transmission |
| N | 88.80.hp | Radio-frequency power transmission |
| N | 88.80.hr | Superconducting cables (see also 84.71.Fk Superconducting cables in superconducting high power technology) |
| N | 88.80.ht | Wireless power transmission |
| N | 88.80.Kg | Energy delivery infrastructure |
| N | 88.85.-r | Advanced vehicles |
| N | 88.85.Cd | Fuel cell vehicles (FCVs) |
| N | 88.85.Fg | Plug-in hybrid vehicles (HEVs) |
| N | 88.85.Hj | Electric vehicles (EVs) |
| N | 88.85.J- | Vehicle energy storage |
| N | 88.85.jk | Lead-acid batteries (for lead-acid batteries in applied electrochemistry, see 82.47.Cb) |
| N | 88.85.jm | Nickel-metal hydride batteries (for nickel-metal hydride batteries in applied electrochemistry, see 82.47.Cb) |
| N | 88.85.jp | Ultracapacitors |
| N | 88.85.M- | Alternative fuels for advanced vehicles |
| N | 88.85.mb | Biodiesel (see also 88.20.fk Biodiesel in renewable alternative fuels) |
| N | 88.85.md | Propane |
| N | 88.85.mf | Natural gas |
| N | 88.85.mh | Hydrogen (see also 88.20.fn Hydrogen in renewable alternative fuels) |
| N | 88.85.mj | Ethanol (see also 88.20.ff Ethanol in renewable alternative fuels) |
| N | 88.85.mn | Fuel blends |
| N | 88.85.Pq | Fueling stations for advanced vehicles |
| N | 88.90.+t | Other topics in renewable energy and applications (restricted to new topics in section 88) |
| S | 89. | Other areas of applied and interdisciplinary physics |
| M | 89. | Other areas of applied and interdisciplinary physics (for materials science, see section 81; for physical chemistry, see section 82; for rheology, see section 83; for electrical, radiowave and microwave technology, see section 84; for electronic and magnetic devices and microelectronics, see section 85; for biological and medical physics, see section 87) |
| 89.20.-a | Interdisciplinary applications of physics | |
| 89.20.Bb | Industrial and technological research and development | |
| 89.20.Dd | Military technology and weapons systems; arms control | |
| 89.20.Ff | Computer science and technology | |
| 89.20.Hh | World Wide Web, Internet | |
| S | 89.20.Kk | Engineering (for electrochemical engineering, see 82.47.Wx; for biomedical engineering, see 87.80.−y) |
| M | 89.20.Kk | Engineering (for electrochemical engineering, see 82.47.Wx; for biomedical engineering, see 87.85.-d; for reservoir engineering in geothermal energy, see 88.10.G-; for nuclear engineering, see 28.00.00) |
| S | 89.20.Mn | Forensic science |
| M | 89.20.Mn | Forensic science (for forensic acoustics, see 43.72.Uv—in Acoustics Appendix) |
| S | 89.30.-g | Energy resources (see also 84.60.−h Direct energy conversion and storage) |
| M | 89.30.-g | Fossil fuels and nuclear power (for renewable energy resources, see section 88) |
| N | 89.30.A- | Fossil fuels |
| D | 89.30.Aa | Fossil fuels (Use 89.30.A-) |
| N | 89.30.ag | Coal |
| N | 89.30.aj | Oil, petroleum |
| N | 89.30.an | Natural gas |
| D | 89.30.Cc | Solar power (Use 88.40.-j) |
| D | 89.30.Ee | Hydroelectric, hydrothermal, geothermal and wind power (Use 88.60.-m, and 8810-g, and 8850-k) |
| 89.30.Gg | Nuclear fission power (for fission reactors, see 28.41.-i and 28.50.-k in nuclear physics) | |
| 89.30.Jj | Nuclear fusion power (for fusion reactors, see 28.52.-s in nuclear physics) | |
| 89.40.-a | Transportation | |
| 89.40.Bb | Land transportation | |
| 89.40.Cc | Water transportation | |
| 89.40.Dd | Air transporation | |
| S | 89.60.-k | Environmental studies (for ecology, see 87.23.−n) |
| M | 89.60.-k | Environmental studies (for ecology, see 87.23.-n; for environmental impacts of renewable energy, see 88.05.Np) |
| S | 89.60.Ec | Environmental safety |
| M | 89.60.Ec | Environmental safety (for air quality, see 92.60.Sz; for water quality, see 92.40.kc, and 92.40.qc in Geophysics Appendix) |
| S | 89.60.Fe | Environmental regulations |
| M | 89.60.Fe | Environmental regulations (see also 01.78.+p Science and government) |
| S | 89.60.Gg | Impact of natural and man-made disasters |
| M | 89.60.Gg | Impact of natural and man-made disasters (for volcanic eruption effects on the atmosphere, see 92.60.Zc; for landslides, see 92.40.Ha; for floods, see 92.40.qp in Geophysics Appendix; for avalanches, see 92.40.vw in Geophysics Appendix; for global warming, see 92.70.Mn, for sea level change, see 92.70.Jw; for cryospheric change, see 92.70.Ha) |
| 89.65.-s | Social and economic systems | |
| 89.65.Cd | Demographic studies | |
| 89.65.Ef | Social organizations; anthropology | |
| S | 89.65.Gh | Economics; econophysics, financial markets, business and management |
| M | 89.65.Gh | Economics; econophysics, financial markets, business and management (for economic issues regarding production and use of renewable energy, see 88.05.Lg) |
| S | 89.65.Lm | Urban planning and construction |
| M | 89.65.Lm | Urban planning and construction (for energy efficient buildings utilizing solar power, see 88.40.M-) |
| 89.70.-a | Information and communication theory (for telecommunications, see 84.40.Ua; for optical communications, see 42.79.Sz; for quantum information, see 03.67.-a; for applications to neuroscience, see 87.19.lo) | |
| 89.70.Cf | Entropy and other measures of information | |
| 89.70.Eg | Computational complexity | |
| 89.70.Hj | Communication complexity | |
| 89.70.Kn | Channel capacity and error-correcting codes | |
| S | 89.75.-k | Complex systems |
| M | 89.75.-k | Complex systems (for complex chemical systems, see 82.40.Qt; for biological complexity, see 87.18.-h) |
| 89.75.Da | Systems obeying scaling laws | |
| 89.75.Fb | Structures and organization in complex systems | |
| 89.75.Hc | Networks and genealogical trees | |
| 89.75.Kd | Patterns | |
| 89.90.+n | Other topics in areas of applied and interdisciplinary physics (restricted to new topics in section 89) | |