|  Special Relativity | 
In General > s.a. minkowski spacetime;
modified classical mechanics [relationship to Newtonian mechanics].
  * Motivation: (E) If
    Galilean relativity is right, when I move at the speed of light I should see
    a static pattern, but Maxwell's equations do not admit such a solution!
  * Postulates: (i) All
    inertial observers are equivalent (including laws of electromagnetism);
    (ii) The speed of light c is constant, independent of the motion
    of the observer (or the source) – inconsistent with Galilean physics;
    > s.a. lorentz symmetry.
  * Particles / fields: Dynamical
    equations must be tensorial (Lorentz-covariant), a severe restriction on
    physical laws; > s.a. relativistic
    particles.
  * Remark: Not all coordinate systems
    are allowed; Hilbert used 1 timelike and 3 spacelike coordinates; More recently, 4
    null ones have also been used [@ Hilbert GN(17)].
   Particle-related concepts: see energy;
    force; momentum;
    particle models; special-relativistic kinematics.
 Particle-related concepts: see energy;
    force; momentum;
    particle models; special-relativistic kinematics.
Applications, Effects, Tests > s.a. causality violations;
  constants [speed of light]; electromagnetism.
  * Constancy of c:
    Michelson-Morley experiment; Ether-drift experiments based on the Mössbauer
    effect; 2000, Independence of vsource
    confirmed to 1 × 10−20, with
    γ-rays from GRBs; 2001, improved Kennedy-Thorndike Tests on
    independence of vlab; 2002,
    Experiments by University of Konstanz and Düsseldorf checked isotropy of
    c to 1.7 parts in 1015 with optical
    cavities; Precise tests are motivated in part by some versions of string theory.
  * Time dilation: High-speed
    electrons from certain radioactive decays, accelerated particles, cosmic rays and
    muons; Conceptually better than atomic clocks.
  * Properties of materials:
    Special relativity shifts around the energy levels of electrons in gold atoms,
    causing the metal to absorb blue light, and thereby making reflected light appear
    more yellow.
  @ General references: Holton AJP(62)jun [RL];
    Drell PhyA(79);
    Sherwin PRA(87);
    Pool Sci(90)nov [including antirelativity];
    Vetharaniam  & Stedman PLA(93);
    Will in(05)gq,
    Wolf et al LNP(06)phy/05 [rev];
    Varcoe CP(06) [with slow light];
    in Thorne & Blandford 15 [applications].
  @ Astrophysics, particle physics:
    Coleman & Glashow PLB(97) [cosmic rays and neutrinos];
    Fogli et al PRD(99)hp [violations and neutrino oscillations].
  @ Experiments: Zhang 97;
    Bonizzoni & Giuliani phy/00-wd [time dilation, history];
    Braxmaier et al PRL(02) [KT experiments];
    Dryzek & Singleton AJP(07)aug [constancy of c];
    Bertolami & Páramos a1212 [status];
    Ahmed et al a1310,
    Wojtsekhowski EPL(14)-a1409,
    a1509 [anisotropy of the speed of light];
    > s.a. lorentz-group phenomenology.
  @ In other fields: Van Bladel 84;
    Ghisellini ap/99-conf [astrophysics];
    Aloisio et al PRD(00)ap,
    Grillo & Aloisio ap/00-conf [cosmic rays].
  @ Paradoxes: Terletskii 68;
    Matsas PRD(03)gq,
    Vieira EPL(16)-a1611 [submarine paradox];
    García-Islas RMF-a1412 [four-particles paradox]. 
  @ Other effects: Wolf & Petit PRA(97) [GPS test];
    Low EJP(07);
    Werner a1904-MG15
      [Struble effect, de Sitter's binary star test].
  @ And technology: Mermin AJP(88)jul;
    Taylor AJP(89)jun [microcomputers];
    Ahuja et al PRL(11)
    + focus(11)jan [lead-acid batteries].
  > Related topics: see Kennedy-Thorndike Test;
    Lorentz-FitzGerald Contraction; mass
    [E = mc2, etc]; Rigid Body;
    Sagnac Effect.
References
  > s.a. clocks; determinism;
  history of special relativity; physics teaching;
  relativistic quantum mechanics; spacetime.
  @ General: Einstein AdP(05),
    AdP(05),
    JR(08);
    Lorentz et al 23.
  @ I: Durell 60;
    Mermin 68;
    Russell 69;
    in Lightman 86, 58-69;
    Fang & Chu 87;
    Mook & Vargish 87;
    Rohrlich 87;
    Fritzsch 94;
    Ellis & Williams 00;
    Mermin 05;
    Bais 07;
    Styer 11;
    Griffiths 13;
    Egdall 14.
  @ II: French 68;
  Rindler 80,
    91;
    Burke 80;
    Rosser 91;
    Resnick & Halliday 92;
    Taylor & Wheeler 92;
    Mould 94;
    Moore 95;
    Adams 97;
    McGlinn 02;
    Giulini 05;
    Ferraro 07;
    Woodhouse 07;
    Freund 08;
    Fayngold 08;
    Helliwell 09;
    Takeuchi 10 [pictorial];
    Hraskó 11;
    Dray 12 [geometrical];
    Faraoni 13;
    Christodoulides 16 [including tests and applications];
    Nolting 17;
    Susskind & Friedman 17.
  @ III: Das 93;
    Laurent 95 [geometrical];
    Robinson 96 [applications];
    Rindler 06;
    Gourgoulhon 13 [in general frames];
    Steane 12;
    Tsamparlis 19 [with problems].
  @ Books and reviews: Bolton 21;
    Synge 64;
    Bohm 65;
    Nevanlinna 68;
    Møller 72 [including fields];
    Dixon 78;
    Aharoni 85;
    Bowler 86;
    Stephenson & Kilmister 87;
    in Naber 88;
    Qadir 89;
    Schröder 90;
    Naber 92;
    Will in(06)gq/05 [intro, history];
    Müller-Kirsten 08 [and classical mechanics];
    Dragon 12.
  @ Axiomatic, conceptual: Reichenbach 24,
    57;
    Goldblatt 87;
    Field AJP(01)may [from spacetime exchange invariance];
    Lucas & Hodgson 90;
    Svozil FP(02)qp/01  [conventionalism];
    Balashov & Janssen BJPS(03) [and presentism];
    Brown & Pooley phy/04-ch ["constructive" formulation];
    Madarász et al FP(06)gq/05 [based on first-order logic];
    Feigenbaum a0806 [as extension of Galilean thinking];
    Andréka et al a1005,
    HPR-a1105 [and general relativity];
    Székely PhD(09)-a1005 [first-order logic, and accelerated observers];
    Frisch SHPMP(11) [special relativity as a principle theory];
    Van Camp PhSc(11) [kinematic vs dynamic approaches];
    Jizba & Scardigli PRD(12)-a1105,
    JPCS(12),
    EPJC(13)-a1301
      [emergent special relativity from coarse-graining average of small-scale Brownian motion];
    Gürel & Gürel a1107;
    Gomori & Szabó a1109;
    Sid-Ahmed a1112;
    Dotson SHPMP(12) [the Dingle-Popper debate and the issue of symmetry];
    Hartmann a1205 [based on measurements];
    Gillis a1210-FQXi
      [relativity is not about ontological features of spacetime];
    Andréka & Németi a1307-ch [first-order logic axiomatizations];
    Kim a1307 [2D, without linearity assumption];
    Drory a1408 [function of the second postulate];
    Galiautdinov a1701 [without the second postulate];
    Hertzberg & Sandora PRD(17)-a1704
      [from theories of massless spin-2 and spin-1 particles, and soft gravitons];
    Basu a1812 [without the second postulate].
  @ Related topics: Feynman TPT(64);
    Komar AJP(65)dec [and conformal mappings of the 2-sphere];
    Moreau AJP(94)may [wave fronts];
    Rindler AJP(94)oct [and general relativity];
    Brown & Pooley gq/99-ch [Lorentzian pedagogy];
    Giulini LNP(06)mp [algebraic and geometric structures];
    Baierlein AJP(06)mar [misconceptions];
    Kraus EJP(08) [visualizations];
    Weinstein a1205;
    Ungar a1302 [hyperbolic geometry viewpoint];
    Hartman et al a1706
      [origin, effective light cone from bound on diffusion].
  > Online resources:
    Einstein Light site (animations);
    Tatsu Takeuchi's lecture notes (Virginia Tech);
    Ute Kraus' Space-Time Travel site [visualizations];
    David Waite's modernrelativity.
Extensions, Variations
  > s.a. DSR [deformed or double]; finsler geometry;
  Fock-Lorentz Symmetry; modified lorentz symmetry;
  spacetime models.
  @ Limits of special relativity: Sidharth FP(08) [and the theory of the electron];
    Carmona Symm(18)-a1806 [scenarios].
  @ Poincaré's version:
    Arminjon www(02);
    Pierseaux PS(03).
  @ Based on SO(1, 4), de Sitter group: Aldrovandi et al CQG(07)gq/06;
    Cacciatori et al AdP(08)-a0807 [introduction];
    Aldrovandi & Pereira FP(09) [and quantum gravity],
    G&C(09)-a0812 [and cosmology],
    IJMPD(08);
    Gazeau et al Sigma(10)-a1001 [and Krein spaces];
    Beltrán Almeida et al G&C(12)-a1103 [and an evolving cosmological constant];
    Yan 15;
    Araujo et al CQG(17)-a1704 [and dark energy].
  @ Other formulations: Hsu & Hsu PLA(94) [only relativity postulate];
    Sorensen AJP(95)may [length contraction is physical];
    Klauber FPL(98)gq/01 [non time-orthogonal frames];
    Rizzi et al FP(05)gq/04-fs [different synchronizations];
    Sobczyk a0710-in [geometric algebra];
    Minguzzi a1412
      [as a limit of an Aristotelian universal friction theory];
    > s.a. clifford algebra.
  @ Different mathematical basis: De Leo JMP(96)ht/95 [quaternionic];
    Iovane et al CSF(04)mp [Fantappiè group and Cantorian spacetime].
  @ Other variations: Asaro AJP(96)apr [complex speeds];
    Svozil FP(00)phy/98 [2 limit speeds];
    Manida gq/99 [varying c];
    Unnikrishnan gq/04 ["cosmic relativity"];
    Friedman & Gofman PS(10) [acceleration effects];
    Mashhoon a1204-proc [non-local special relativity];
    Carmona et al PRD(12)-a1206 [deformations of kinematics consistent with the relativity principle];
    Madarász & Székely IJTP(13)-a1209 [over the field of rational numbers];
    Hill & Cox PRS(12) [relative speeds > c];
    Hoffman a1306 [with faster-than-light observers];
    > s.a. Perplex Numbers; projective structures;
      Very Special Relativity.
Antirelativity
  @ References: Marinov 82;
    Wesley ed-87;
    Maddox Nat(90)jul;
    Ipatova et al SPU(90);
    Raine EJP(05) [re crank science];
    Field a0805 [misunderstanding re plot];
    van Dongen SHPMP(10)-a1111 [and other crackpots].
  > Websites:
    Carel van der Togt's From Paradox to Paradigm;
    The General Science Journal website.
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  send feedback and suggestions to bombelli at olemiss.edu – modified 2 oct 2020