In General, Structure > s.a. history
of physics; macroscopic quantum
* Idea: Condensed-matter physics studies macroscopic matter with strong interactions among constituent parts; The most common forms of condensed phases are solids and liquids, but granular solids are now recognized by scientists as a different state of matter.
* 2D: Electron gases in the quantum Hall effect; Planar sprinklings of atoms at the surface of a superfluid have been studied; 1998, 2D atom gas [@ Gauck et al PRL(98) + pn(98)dec].
@ General references: Cohen PRL(08) [history]; Falkenburg & Morrison ed-15 [conceptual issues]; news pw(16)mar [Leggett views on the field].
@ Books: Weinberg 83 [I]; Chaikin & Lubensky 95 [III]; Krieger 96 [modeling matter]; Marder 00 [PT(01)jun]; Taylor & Heinonen 02 [r PT(03)may]; de Gennes 03; Dove 03 [atomic view]; Annett 04; March & Angilella 09 [molecules, clusters]; Sander 09 [III, r PT(10)jan]; Mahan 10 [III]; Sidebottom 12 [II, r PT(13)may]; Cohen & Louie 16 [III]; > s.a. group theory.
@ Continuum mechanics: Murdoch 12 [physical foundations]; Chaves 13; Reddy 13; Clayton 14 [and differential geometry]; Ostoja-Starzewski & Malyarenko PRS(14) [small-scale, beyond the second law of thermodynamics].
@ Computational: LeSar 13; Romano & Marasco 14 [continuum mechanics using Mathematica].
@ And quantum field theory: Fradkin 13; Mudry 14; Wilczek PS(16)-a1604-in [intro]; > s.a. boundaries; Feynman Diagrams; quantum field theory; effective theories.
@ Holographic methods: Hartnoll CQG(09)-ln; Ross CQG(12); Zaanen et al 15; > s.a. holography in field theory.
@ Related topics: Bach et al LMP(95) [N electrons in molecule, with radiation]; Nicolis et al a1501 [abstract approach based on spacetime symmetries].
> Related topics: see Density Functional Method; duality [and gauge-gravity duality]; heat [thermal expansion]; phase transitions; Phonon; Transport.
> Properties: see Plasticity; specific heat; Tensile Strength.
Gaseous and Liquid Matter > s.a. atomic
physics; Extended Objects;
transitions [liquid-gas distinction]; statistical
* Solution: Molecule-sized particles are completely dissolved in a solvent, binding with it chemically.
* Colloid: Intermediate between solution and suspension, colloidal particles are about 10–6 cm in diameter.
* Suspension: Large particles float in a liquid medium, and would settle out if allowed to rest.
* Result: Liquids with expansive freezing resist turning into viscous solid-like configurations when squeezed.
@ Liquids: issue PW(96)apr; Granick PT(99)jul, Taylor pw(02)feb [lubricants]; Maris & Balibar PT(00)feb [negative p and cavitation]; Jagla PRL(02) [expansive freezing and viscosity]; March & Tosi 02; Dorbolo et al NJP(03) + pw(04)jan [antibubbles]; Plazanet et al JCP(04) + pw(04)sep [liquid that freezes when heated]; news pn(07)nov [spherical glass beads as zero-surface-tension liquids]; Cardoso Phy(08) [shapes of liquid drops]; Craster & Matar RMP(09) [thin films, dynamics and stability]; Das 11 [at freezing and beyond, r CP(12)#5]; blog bbc(14)dec [shapes of splashing, dripping liquids]; > s.a. helium [thermodynamics]; liquid crystals; non-equilibrium statistical mechanics; Surface Tension.
@ Supercooled liquids: Cavagna PRP(09); Yaida a1212-wd [effective field theory]; Dyer et al a1302-wd [critical exponents].
@ Quantum fluids: Ristig & Gernoth FP(10) [strongly correlated]; Disertori et al a1105 [interacting Fermi liquids, parametric cutoffs]; Imambekov et al RMP(12) [1D]; Coleman 16 [many-body physics]; McGreevy TASI(15)-a1606-ln.
@ Interfaces: Bonn et al RMP(09) [wetting and spreading]; > s.a. Cheerios Effect.
> Related topics: see Foam; Luttinger Liquid [1D]; Rayleigh Jets; Spin Liquid; superfluids; Water.
Other Types of Condensed Matter > s.a. Metals; solid
matter [including amorphous materials].
* Nanoparticles: They exhibit properties which can be very different from those of bulk matter, for two reasons, (i) quantum confinement effects of the crystal excitations (electrons, excitons, phonons), and (ii) surface effects.
* Soft matter: Polymers, colloids, surfactants (substances that tend to decrease the surface tension of liquids in which they are dissolved) and liquid crystals, a class of materials that has become increasingly important [@ APS(15)may]; Soft matter can be easily deformed by thermal fluctuations or an external stress, such as an electric or magnetic field, which can turn a disordered material into an ordered structure used to perform some function; For example, a small temperature change in liquid crystals can push randomly positioned molecules to align in one direction, and the ordered system can reflect light in useful ways.
@ Soft matter: Jones 02; Klinger PRP(10) [soft atomic motion modes in glass]; Powers RMP(10) [filaments and membranes in a viscous fluid]; Hu & Shi 10 [simulations]; Piazza 11 [r PT(11)dec]; Hirst 12 [r PT(13)nov]; Doi 13 [r AJP(14)jul]; news Guard(15)may [history]; news Phy(16) [Hexacorda mollia].
@ Dense matter: Heiselberg & Hjorth-Jensen PRP(00) [phases in neutron stars]; > s.a. nuclear physics; neutron stars.
@ Related topics: Berenbaum ThSc(95)sep [spider silk]; Kotliar & Vollhardt PT(04)mar [strongly correlated materials]; Ball Phy(13) [why red paints darkens over time].
> Related topics: see bose-einstein condensation; Continuous Media; Defects; Elasticity; Ice; Topological Materials.
Other Levels of Structure > see atomic physics; matter [including stability]; meta-materials [including granular and fibrous matter]; particle physics.
"God made solids, but surfaces are the work of the devil" – Wolfgang Pauli
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