|  Solutions of Einstein's Equation with Matter | 
In General
  > s.a. einstein's equation; solutions / 3D
  gravity; black holes; higher-order gravity;
  kaluza-klein theory.
  * Geometrization of a matter field:
    Conditions on a spacetime metric for it to be part of a solution of the Einstein
    equation with the given type of matter.
  @ References: Jantzen PLB(87)gq/03 [cosmological];
    Rendall gq/95-GR14;
    Choquet-Bruhat et al PRD(00)gq/99 [asymptotically euclidean, existence];
    Kiosak & Matveev JGP(14)-a1302
      [there exist no 4D geodesically equivalent metrics with the same stress-energy tensor];
    Krongos & Torre a1503
      [geometrization conditions for perfect fluids, scalar fields, and  electromagnetic fields];
    Deser a1810 [matter covariantization];
    Kovtun & Shukla a1907 [effective equations in matter];
    Lin & Lalak a1911,
    Bini & Esposito a2101 [novel types of matter coupling];
    > s.a. gravitating matter; types
      of metrics.
With Maxwell Fields > s.a. gravitational collapse;
  multipole moments; phenomenology.
  * Results: A general 5-parameter family
    of solutions of the electrovac Einstein equation (= Einstein-Maxwell), including all
    stationary black holes, Taub-NUT and (anti)de Sitter was found by Carter in 1968;
    > s.a. Papapetrou-Majumdar Metrics.
  @ General references: Carter CMP(68);
    Esposito & Witten PRD(73);
    Moncrief CQG(90) [U(1) symmetry];
    Finster et al PLA(99)gq/98 [+ Dirac, particlelike solutions];
    Ivanov JMP(99)gq/01 [algebraically special];
    Socorro  & Cornejo gq/01 [axisymmetric];
    Ida & Uchida PRD(03)gq [D-dimensional stationary];
    Fischer gq/05 [similarity, 1 Killing vector];
    Bonnor GRG(06) [properties];
    Ernst et al JPCS(10)-a1006 [on Sibgatullin's and Alekseev's approaches];
    Hruška & Žofka CQG(11) [non-trivially conformally related solutions];
    Torre CQG(14)-a1308 [local geometric conditions for a null electrovacuum spacetime];
    Lysov a1310
      [from solutions of the equations of magnetohydrodynamics];
    Smolić et al CQG(16)-a1508 [3D, in spacetimes with symmetries].
  @ Waves: Ji et al IJTP(98),
    Schneiter et al CQG(18)-a1804 [laser beam];
    > s.a. gravitational wave solutions [colliding waves].
  @ Spherical solutions: Thiemann NPB(95)gq/99 [with cosmological constant, reduced phase space];
    Liu & Zhang JMP(02)gq [star and background radiation];
    Petri gq/03;
    Sarbach & Lehner PRD(04)ht/03 [(no) naked singularities];
    Díaz-Alonso & Rubiera-García PRD(10)-a0908 [non-linear electrodynamics];
    Burke & Hobill a0910 [physically realistic charged fluid];
    Costa et al CQG(15)-a1406 [with scalar and cosmological constant, well-posedness];
    > s.a. reissner-nordström solutions.
  @ Static solutions:
    Deser & Mazur CQG(85) [3D];
    Chandrasekhar PRS(89);
    Ocariz & Rago GRG(94)gq;
    Komathiraj & Maharaj GRG(07) [spherical].
  @ With dilaton fields: Gibbons NPB(82),
    & Maeda NPB(88) [black holes];
    Garfinkle et al PRD(91);
    Zloshchastiev PRD(01)ht;
    Dunajski CQG(06)gq;
    > s.a. black-hole solutions.
  @ Special types: Lu GRG(05) [with magnetic dipoles];
    Posada & Batic CEJP(14)-a1310 [with a cosmological constant];
    Füzfa PRD(16)-a1504
    + news IBT(16)jan [spacetimes around current loops and solenoids];
    Vancea a1911 [field lines];
    > s.a. Robinson-Bertotti [spherical];
    Melvin Solution; types of spacetimes.
With Other Matter > s.a. collapse;
  cosmological models; gravitating
  bodies; Lemaître-Tolman-Bondi; Vaidya.
  @ Einstein-Yang-Mills:
    Bartnik & McKinnon PRL(88) [asymptotically flat];
    Smoller & Wasserman JMP(95);
    Rudolph et al JMP(99) [+ Dirac];
    Breitenlohner et al CMP(06)gq/04 [static, spherical, Λ > 0];
    Ibadov et al PLB(05) [axisymmetric];
    > s.a. charges; Kundt Waves.
  @ Einstein-Yang-Mills, cosmological:
    Gal'tsov & Volkov PLB(91);
    Darian & Künzle JMP(97);
    Rudolph et al JMP(99) [+ Dirac];
    Breitenlohner et al PLB(00)gq [+ Higgs, static];
    Emoto et al PTP(02)ht [Einstein-electroweak];
    Füzfa CQG(03)gq [instability];
    Gal'tsov a0901-conf
      [non-abelian condensates and dark energy];
    Elizalde et al PAN(13)-a1201.
  @ Einstein-Yang-Mills + dilaton: 
    Brihaye & Radu PLB(06)gq [euclidean];
    > s.a. Kantowski-Sachs models.
  @ Einstein-Yang-Mills + Higgs: van der Bij & Radu NPB(00)ht;
    Forgács & Reuillon PRL(05) [static, spherical, spatially compact];
    > s.a. initial-value problem.
  @ Einstein-scalar: Christodoulou CPAM(93) [bounded-variation solutions];
    Saha & Shikin gq/01 [+ spinor, plane-symmetric];
    Gaudin et al IJMPD(06) [static];
    Pugliese & Valiente GRG(13)-a1301 [charged scalar field, evolution equations];
    Reiris a1507 [static];
    > s.a. Lichnerowicz Equation.
  @ Einstein-scalar, cosmological: Williams et al gq/04-in [isotropic and anisotropic];
    Cannata et al PLB(09) [with singularity at finite scale factor].
  @ Quintessence / dark energy:
    Gu & Hwang PLB(01)ap,
    PRD(06)ap/01;
    Wetterich SSR(02)ap/01;
    González-Díaz PRD(02)ht;
    Alam et al MNRAS(03)ap;
    Gruppuso & Finelli PRD(06)ht [dust + dark energy];
    > s.a. cosmological constant.
  @ Monopoles:
    Manko & Ruiz CQG(98) [multi-solitons];
    Maison & Liebling PRL(99);
    Lue & Weinberg PRD(00)ht,
    GRG(00)gq.
  @ Fluids: Coley PLA(89) [non-perfect];
    Ferrari & Ibáñez CQG(89) [effective fluid from null-field interaction];
    Bonnor CQG(94) [emitting null fluid];
    Sussman CQG(98)gq/97,
    & Triginer CQG(99)gq/98 [ideal gas];
    Perjés AdP(00)gq/99-conf [with perfect fluids, inhomogeneous];
    Bratek et al APPB(07)gq/06 [differentially rotating dust];
    Fang & Gao PRD(14)-a1311 [general proof of the entropy principle];
    Van den Bergh & Slobodeanu CQG(16)-a1510 [status of the shear-free fluid conjecture];
    > s.a. multipole moments; solution-generating
      methods [gravity-fluid correspondence]; Wahlquist Metric.
  @ Einstein-Vlasov system: Rendall gq/02-ln;
    > s.a. minkowski space [stability]; solutions with symmetries.
  @ Other extended matter: Gamboa Saraví GRG(09),
    IJMPA(09),
    Kamenshchik & Vardanyan PLB(19)-a1811 [static, plane-symmetric, constant-density slabs].
  @ Particles:
    Duan JETP(54)-a1705 [pointlike charge];
    Aichelburg & Sexl GRG(71);
    Fiziev gq/03,
    gq/04 [massive point particle?];
    Meissner a0901 [point mass in de Sitter spacetime];
    Katanaev GRG(13)-a1207 [massive point particle?];
    Bruneton a1303-MG13 [cubic lattice of spherical masses];
    > s.a. Bonnor-Swaminarayan Solutions; tachyons.
  > Other fields: see dilaton;
    dirac fields in curved spacetime; Chameleon Fields;
    klein-gordon fields; Phantom Fields.
  > Other types of solutions: see axisymmetry;
    black holes; solutions with symmetries;
    solution-generating methods; spherical symmetry.
With Distributional Sources > s.a. gravitating matter
  [shells, weak solutions]; metric matching; solutions
  [defects]; types of metrics.
  * Result: There is no
    solution corresponding to a matter stress-energy with support on a
    timelike line; This means that particles cannot be thought of as
    δ-function distributions of matter (maybe as black holes?).
  @ General references:
    Geroch & Traschen PRD(87) [strings];
    Pantoja & Rago IJMPD(02)gq/00;
    Steinbauer & Vickers CQG(06)gq [and other generalized functions];
    Gemelli IJTP(07)-a0704 [regular discontinuities];
    Gravanis & Willison JMP(09)-a0901.
  @ Planar matter shells: Dray & 't Hooft CQG(86).
Cosmological Solutions > s.a. bianchi models;
  cosmological models; generalized
  cosmological models; solutions with symmetries.
  @ Λ > 0: Andersson & Galloway ATMP(0)ht [topology];
    Rendall AHP(04)gq/03 [asymptotics];
    Chapline & Marecki a0709 [rotating].
  @ Λ < 0:
    Anderson et al JHEP(02) [vacuum, static];
    Chruściel & Delay AHP(07)gq/05 [vacuum, stationary].
  > Specific types of solutions:
    see anti-de sitter space; de sitter space;
    Robinson-Trautman Solutions; schwarzschild-de sitter
    spacetime.
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