|  Supersymmetry in Field Theory | 
General Features > s.a. modified quantum mechanics;
  supersymmetric theories; Supersymmetry.
  * Idea: Bosons and
    fermions are related by Qa
    B ~ Fa,
    with all known particles in supersymmetric multiplets.
  * Motivation: 2004,
    It provides a compelling solution to the gauge hierarchy problem by
    stabilizing the Higgs potential against divergent quantum corrections.
  * Particle content: The
    numbers of boson and fermion states must be equal, since Q
    |B\(\rangle\) = |F\(\rangle\) and Q
    |F\(\rangle\) = |B\(\rangle\); In gauge theories
    |s| < 1, so one considers only N ≤ 4, but
    with gravity N ≤ 8.
  * Non-renormalization theorems:
    Results in supersymmetric field theory say that some quantities are not
    renormalized because all terms in the renormalization series cancel exactly;
    Useful for the Hierarchy Problem.
General References > s.a. dark
  matter; monopoles; solitons;
  supergravity; supersymmetry phenomenology;
  symplectic structures.
  @ I: Fayet Rech(88);
    Kane 00.
  @ Intros:
    Łopuszański 90 [lecture notes];
    Lykken ht/96-ln;
    Martin hp/97;
    Kane ed-98;
    Van Proeyen ht/99-ln;
    Kane CP(00);
    Ketov ht/00 [motivation];
    Bilal ht/01-ln;
    Polonsky LNP(01)hp [phenomenology];
    Lindström ht/02-ln;
    Govaerts ht/04-proc;
    Kane ed-10;
    Vallejo a1205.
  @ Books and reviews:
    Fayet & Ferrara PRP(81);
    Nilles PRP(84);
    del Águila et al ed-85;
    Nanopoulos RNC(85);
    Sohnius PRP(85);
    Freund 86;
    Srivastava 86;
    West ed-86;
    Ferrara 87;
    West 90;
    Wess & Bagger 92;
    Piguet ht/96-ln;
    Seiberg ht/98-proc;
    West ht/98;
    Weinberg 00;
    Mavromatos & Sarkar ed-NJP(02);
    Duplij et al ed-03;
    Binétruy 06; Terning 06;
    Aitchison 07;
    Shifman a0708-proc;
    Wess EPJC(09)-a0902;
    Müller-Kirsten & Wiedemann 10 [III];
    Cecotti 15;
    Dine 16;
    Nath 16;
    Manoukian 16;
    Tachikawa a1812-ln.
  @ Comments: Kane & Shifman ed-00;
    Zumino in(00),
    FdP(06)ht/05-conf;
    > s.a. history of particle physics.
  @ Articles: Gol'fand & Likhtman JETPL(71);
    Volkov & Akulov PLB(73);
    Wess & Zumino NPB(74) [supergauge transformations].
  @ Books, advanced / mathematical: Cornwell 89;
    Buchbinder & Kuzenko 95;
    Freed 99.
  @ Non-renormalization theorems: Iliopoulos NPPS(01)ht.
  @ Approaches: Luckock IJTP(97) [boundary terms in the action];
    Buchholz LNP(00)ht/98 [in Hilbert space];
    Ichinose ht/03,
  a0710-proc [graphical representation];
    Baianu et al Sigma(09)-a0904 [algebraic-topology approach];
    Moriya AHP-a1001 [C*-algebra approach];
    Freedman et al FdP(17)-a1609 [geometric].
  @ Quantization: Batalin & Lavrov IJMPA(16)-a1603 [Hamiltonian, in terms of quantum antibrackets];
    > s.a. deformation quantization.
  @ Origin of supersymmetry:
    Allen ht/00-proc [random fields];
    Allen et al proc(08)-a0711 [Planck-scale statistical theory];
    > s.a. supersymmetric theories [emergent].
  @ Related topics: Fayet pr(80);
    Witten JDG(82);
    Di Stefano PLB(87);
    Ne'eman & Sternberg PNAS(90);
    De Jonghe et al PLB(95)ht [spin-1/2 particle around a monopole];
    Klinker CMP(05)-a2001 [supergeometry and supersymmetry];
    László a1801-proc [possible alternative].
  > Alternatives:
    see conformal invariance in physics.
Supersymmetry Breaking > s.a. anthropic principle;
  branes; gauge theories [emergent];
  supersymmetry phenomenology [cosmology].
  * Idea: Supersymmetry
    cannot be exact at low energies, because particles in a supermultiplet
    have different masses.
  * Result: Supersymmetry
    can only be broken by non-perturbative effects.
  * Mechanisms: Either
    spontaneously by a Higgs-type mechanism, or dynamically; The coupling
    to the supersymmetry-breaking sector could be gaugino-, gravity-, gauge-,
    or anomaly-mediated.
  * O'Raifeartaigh model:
    A model for spontaneous supersymmetry breaking using N
    interacting scalar superfields.
  @ Reviews: Skiba MPLA(97);
    Poppitz IJMPA(98);
    Thomas ht/98-proc;
    Shadmi & Shirman RMP(00)ht/99;
    Luty ht/05-ln;
    Shadmi ht/06-ln;
    Intriligator & Seiberg CQG(07)-ln;
    Dine & Mason RPP(11)-a1012;
    Dine a1102-ln.
  @ General references: Huang PLB(86)ht/03 [no-go theorem];
    Dine et al JHEP(05)ht [3 branches];
    de Alwis PLB(12)-a1110 [unified approach].
  @ Dynamical:
    Bertolami & Moniz gq/97-MG8 [and quantum cosmology];
    Bergamin & Minkowski ht/02 [effective description];
    Golubev ht/07 [non-spontaneous];
    Dine NPPS(09) [gauge mediation, and LHC].
  @ Metastable: Kaplunovsky AIP(07)-a0711 [and cosmology].
  @ Anomaly-mediated:
    Chacko et al JHEP(00) [superconformal];
    Roy MPLA(04);
    de Alwis PRD(08).
  @ Models: O'Raifeartaigh NPB(75);
    Navarro MPLA(03) [low-scale];
    Dine et al PRD(06)ht [simple];
    Nomura & Papucci PLB(08);
    Giveon et al NPB(09)-a0904 [in lower dimensions];
    Gies et al PRD(09)-a0906 [2D Wess-Zumino model, as a quantum phase transition];
    Ovchinnikov et al MPLB(16)-a1404 [topological];
    > s.a. Barbero-Immirzi Parameter.
  @ Related topics:
    Giudice & Rattazzi PRP(99) [gauge-mediated];
    Sauli ht/05 ["natural"];
    Chung et al PRP(05) [soft supersymmetry-breaking L];
    Falkowski et al JHEP(05)ht [6D, gravity-mediated];
    Intriligator & Seiberg JHEP(06)ht/05 [re string theory realizations];
    Gasperini IJMPD(09)-a0805-GRF [restoring at TeV scale];
    Chkareuli PLB(13)-a1212-conf [spontaneous breaking and emergent gauge theories].
 main page
  – abbreviations
  – journals – comments
  – other sites – acknowledgements
  send feedback and suggestions to bombelli at olemiss.edu – modified 14 jan 2020