In General > s.a. astrophysics;
cosmology; experimental
particle physics;
relativistic cosmology; types
of particles; unified
theories.
* Energy scales: Different
energy scales are characterized by different effective physics; < 100 GeV, four
distinct forces; 100–1016 GeV, standard
model, SU(3) ×
SU(2) × U(1); 103–1016 GeV, perhaps N =
1 supersymmetry; 1016–1019 GeV, grand
unified theory; > 1019 GeV, quantum
gravity? string theory?
* Idea: The present theory
is a beautiful framework based on quantum field theory, in which particles
are just described by their couplings; They are "nothing more" than
their couplings, and these are prescribed by their transformations under symmetry
groups, plus some free parameters (coupling constants, masses and mixing angles);
Another framework that has been used is the bootstrap
theory.
* Particles: Described
as (quantized) fields with values in some "internal" vector
spaces, which carry (irreducible) representations of some symmetry groups;
The choice of groups and spaces depends on the model,
and the spaces group (known and predicted) particles into multiplets corresponding
to preferred bases, the eigenvectors of the Hamiltonian or some other operator.
* Remark: Particle multiplets
are usually written down as if they were column vectors; They are not; They
are actually to be thought of as (orthonormal)
bases in some vector space that carries the representation of the group in
question; The column vectors are the states.
* Analogy: Fermions/matter and bosons/quanta is like hockey players
and puck.
General References and Related Topics > s.a. electroweak
theory; history
of physics; standard model.
@ Reviews: Caso et al EPJC(98);
Ellis pw(99)dec;
Govaerts ht/02-in
[and topology]; Álvarez-Gaumé & Lerche
PRP(04)
[at CERN]; Polchinski a0810-in.
@ Articles, I: Quigg SA(85)apr; Rubbia & Jacob AS(90);
Miller Nat(91)jan
[LEP year 1].
@ I: Zee 86; Close et al 87; Parker 87; Adair; Salam 90; Feldman & Steinberger
SA(91)feb; Kane 95; Lederman & Schramm 95; Ne'eman & Kirsh
95; 't Hooft 96; Han 99; Rolnick 03; Veltman 03; Ford & Hewitt 04;
Lincoln 04;
Schumm 04;
Fritzsch 05.
@ II: Okun 85; Close 86; Okun 87; Bowler 90; Icke
95; Das & Ferbel
03,
Coughlan et al 06; Henley & García 07 [and
nuclear]; Bettini 08.
@ III: Källen 64; Sakurai 64; Frazer 66; Gasiorowicz 66; Cheng & O'Neill
79; Lee 81; Domokos & Kovesi-Domokis 84; Halzen & Martin 84; Gottfried & Weisskopf
84, 86; Ryder 86; Zakrzewski 87; Kane 88; Collins et al 89; Nachtmann
89; Fayyazuddin & Riazuddin 92; Martin & Shaw
92; Shifman 99 [lectures];
Di Giacomo et al 04 [problems
and solutions]; Rolnick 94; Scheck 95; Roe 96; Mosel 99; Lim 00 [problems];
Shifman et al ed-05; Griffiths 08; Robinson et al a0810-ln
[gauge theory, algebraic],
a0908-ln [gauge
theory, geometric].
@ Status / remarks: issue PT(64)nov; Salam
CP(60),
reprint CP(09);
Weisskopf
Sci(79)jan,
pr(79); Gell-Mann pr(80);
Salam AIHP(88);
Waldrop Sci(90)mar;
Ross CP(93);
Wilczek
IJMPA(98)hp/97;
Kalmus CP(00);
Ahn & Cavaglià GRG(02)hp-GRF;
Schmidhuber ht/02;
Wilczek NPPS(03)hp/02,
EPJC(04)hp-in;
CzJP(04)hp-in,
NPPS(04);
Ellis & Jacob PRP(04);
Murayama IJMPA(04);
Mavromatos a0708-in
[and cosmology]; Perl PRL(08)
[last 33 years]; Quigg SA(08)feb [upcoming LHC];
Weinberg IJMPA(08)
[condensed matter and high energy]; Susskind IJMPA(08).
@ Conceptual: Marshak 93; Galison 97 [nature of discipline]; Grinbaum
a0806 [on the eve of the LHC].
@ Future: Bjorken IJMPA(01);
Wilczek IJMPA(01)hp-in;
Fleming et al hx/01-in;
Akesson et al EPJC(07)hp/06-rp
[in Europe]; Wilczek IJMPA(08).
> And quantum physics: see bell' inequality; entanglement.
> Other topics:
see areas of physics [applications].
> Online resources:
see Internet Encyclopedia of Science pages.
Beyond the Standard Model > s.a. composite
models; gravitation; GUTs; supersymmetric
theories; unified
theories.
* Idea: Unified models and extensions, requiring varying degrees of
theory overhaul.
* Hints: Neutrino oscillations
(
mu –
tau);
2001 & 2002, anomalous muon magnetic
moment (g–2) reported (supersymmetry?).
* Stückelberg extension: An extension of the electroweak gauge group with
an extra abelian U(1)X factor.
* Preon and other constituent
models: 1996, Evidence in high ET
jets at Fermilab? (> s.a. QCD).
* With extra dimensions:
Possibilities are Kaluza-Klein, supergravity, strings and branes,
non-compact extensions (with localization).
* Supergravity: Not to
be tested soon (> supergravity).
@ Reviews: Kane SA(03)jun, hp/04-in
[status]; Kazakov IJMPA(07);
Iliopoulos a0807;
Mangano IJMPA(08).
@ Experiments: Gallo IJMPA(07);
Grivaz IJMPA(08);
Brooijmans MPLA(09)
[and the LHC].
@ General references: Ramond 00; Dijkgraaf ht/97-ln
[conformal field theory, topological field theory, strings]; Chalmers ht/02 [M-theory
based general relativity + standard model]; Goldhaber IJMPA(04);
Körs & Nath PLB(04), JHEP(05)
[Stückelberg extension]; Pokosrki hp/05-ln;
van der Bij PLB(06);
Greenberg hp/06 [3-generation
model]; Jenkins PhD(06)ht
[and spontaneous Lorentz violation]; Ellis et al a0906 [fate
of standard model].
@ Mini-charged particles: Jaeckel PRL(09)
[Cavendish-type experiments]; Burrage et al a0909 [constrtaints
from late-time CMB anisotropies].
@ Conformality approach:
Frampton hp/06-in
[phenomenology]; Frampton & Kephart PRP(08)-a0706
[rev, quiver gauge theory].
@ Beyond three generations: Frampton et al PRP(00);
Belotsky et al ap/06-in
[and dark matter];
Holdom JHEP(06)
[what of 4th family?]; > s.a. types
of dark matter [many copies of standard
model].
@ Gauge theory and general relativity: Dell & Smolin in(86); Chang & Soo PRD(96)ht/94 [connection
variables]; Anandan PRL(98)ht/97 [global
topology and discrete symmetries]; Besprosvany IJTP(00)ht/02 [gauge
and spacetime symmetry]; Wu CTP(03)ht [?],
CTP(03)ht [with
massive graviton]; Anselmi PLB(04)ht [dimensional
regularization].
@ Other theories: Roepstorff ht/98 [in
terms of superconnections]; Ribaric & Sustersic Fiz(99)ht/98 [underlying
theory]; Maher & Beck CSF(08)-a0801
[larger theory, chaotic quantization].
> Other theories:
see branes; fifth
force; kaluza-klein theory and
phenomenology;
Leptoquark; modified
lorentz symmetry; nuclear physics;
physics [TOEs]; strings;
supergravity.
Based on Nonstandard Mathematics > s.a. non-commutative
field theory.
@ Non-associative geometry: Wulkenhaar PLB(97)ht/96 [standard
model], ht/96 [GUTs].
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send feedback and suggestions to bombelli at olemiss.edu – modified 17
oct
2009