|  Star Formation and Evolution | 
In General > s.a. astrophysics; dark-matter
  phenomenology; star properties [age].
  * Energy source: The
    sequence of nuclear reactions in stars was proposed by Bethe (1938).
  * Observational puzzles:
    The neutrino problem and solar pulsations.
  @ General references: Eddington 26;
    Smart 38 [classic];
    Chandrasekhar 42,
    RMP(84);
    Saslaw 85;
    Dejonghe PRP(86);
    Gurzadyan in(94)-a1407 [10 key theoretical problems];
    Binney & Merrifield 98;
    Ray SA(00)aug [early life];
    Gurzadyan ap/03-IAU [dynamics and stability];
    Cassisi a0909-IAU [stellar models, rev];
    Benacquista 13 [II];
    Srinivasan 14 [II];
    Beccari & Carraro ch(14)-a1406 [rev].
  @ Fate of stars:
    Frohlich Phys(19)dec [intermediate-mass stars]. 
  @ Related topics: Giannotti a1611-proc [hints of new physics, axion-like particles].
  @ Non-technical: Greene AS(01) [protostars];
    Heavens AS(05) [and galaxy history];
    Narlikar 12;
    Lequeux 13.
Star Formation in General and in the Local Universe
  > s.a. milky-way galaxy; solar system
  [planetary system, solar neighborhood]; star clusters.
  * Idea: The main
    model of star formation originated with the Jeans (1902) theory of the
    evolution of density perturbations in a medium; Below a certain level,
    they propagate as sound waves; Above it they give rise to structure
    by gravitational instability [& Hoyle 53;
    Peebles & Dicke 68;
    Zel'dovich et al 67];
    The exact evolution depends on what mechanisms are
    available for energy loss; Not much is known in detail.
  @ Books and reviews:
    Smith 04;
    Chrysostomou & Lucas CP(05);
    Ward-Thompson & Whitworth 11
    + Bodenheimer 11 [r PT(12)jan];
    Krumholz a1511 [book];
    Tan a1512-proc [short rev];
    Krumholz 17.
  @  General references: McKee & Ostriker ARAA(07)-a0707;
    Salmeron a0903-proc,
    ApSS(11)-a1106 [role of magnetic fields];
    Larson IAU-a1006 [computational];
    Kritsuk et al IAU(11)-a1011 [role of interstellar turbulence];
    Price IAU(10)-a1012 [Smoothed Particle Hydrodynamics, state of the art];
    Glover & Clark MNRAS(12)-a1105 [(non-)importance of molecular gas];
    Bate MNRAS(11)-a1108 [pre-stellar disks];
    Elmegreen IAU(11)-a1201 [triggers];
    Papadopoulos & Thi proc(13)-a1207 [initial conditions and cosmic rays as regulators];
    Krumholz ApJ(12)-a1208 [at extremely low metallicities it occurs in a cold atomic phase of the ISM];
    Guszejnov & Hopkins MNRAS(16)-a1507 [and turbulence];
    Lada IAU(15)-a1508;
    Tabatabaei a1604-proc [and feedback in galaxies];
    Federrath PT(18)jun [and turbulence].
  @ Special types of stars: Kennicutt & Evans ARAA(12)-a1203 [in the Milky Way and nearby galaxies];
    Stamatellos proc(14)-a1302 [low-mass stars and brown dwarfs];
    Krumholz in(15)-a1403,
    Woosley & Heger in(15)-a1406 [very massive stars].
Cosmic Star Formation History
  * Primordial stars: Population
    III stars may have formed right after recombination (≈ 5 ×
    105 yr) at masses of ≈
    10−2–10−3
    MSun (brown dwarves); This may account for
    a significant fraction of dark matter and the high mass end, upon explosion, for the
    heavy elements found in population II stars; 2018, The first stars seem to have
    appeared 180 million years after the Big Bang.
  * Puzzle: There was a dramatic
    drop of the star formation activity after z ~ 1.
  @ General references: Madau & Dickinson ARAA(14)-a1403 [rev];
    Popesso et al A&A(15)-a1407 [role of massive halos].
  @  Primordial stars: & Rees 76;
    Silk 77;
    Ozernoy & Mukhanov AIP(96);
    Panagia ASP-ap/02 [first generations];
    Dolgov & Blinnikov PRD(14) [in the very early universe, before nucleosynthesis];
    news sn(18)feb.
Compact Objects > s.a. black-hole phenomenology and
  solutions; computational physics;
  gravitating matter; matter;
  neutron stars and pulsars.
  * Accretion disks: They
    became important since the discovery of compact binary X-ray sources.
  * Eddington Limit: The
    maximum accretion rate, beyond which the pressure from radiation emitted
    by the infalling matter would stop further accretion.
  @ Accretion disks: Frank et al 85;
    Treves et al ed-89;
    Blaes SA(04)oct;
    Ji & Balbus PT(13)aug [role of turbulence];
    > s.a. matter near black holes.
  @ Instabilities: Chandrasekhar & Friedman PRL(71) [rotating star];
    Bechhoefer & Chabrier AJP(93)may [in higher dimensions];
    Villain EAS(06)ap.
  @ Jets: Blandford, Begelman & Rees SA(82)may;
    Königl IJMPD(10)-a1001-proc [outstanding questions];
    Foschini a1003;
    Ghisellini a1112-conf;
    Foschini a1205-GRF
      [Blandford-Znajek theory and black hole/jet/disk feedback];
    Morabito & Meyer a1211 [and accretion disks, rev];
    news at(12)dec [mass independence of jet producing mechanism];
    Foschini IJMPCS(14)-a1310 [unification];
    Kumar & Zhang PRP(15)-a1410 [rev];
    > s.a. gravitomagnetism; matter around black holes.
  @ Related topics: Shapiro & Teukolsky 83;
    Ziólkowski NCB(05)ap-conf [in the Milky Way];
    Lavagetto et al MNRAS(05)ap [X-ray binaries and general relativity];
    Mishra & Iyer PRD(10)-a1008 [head-on infall];
    Postnov & Yungelson LRR(14) [evolution of compact binaries];
    > s.a. Roche Lobe.
 main page
  – abbreviations
  – journals – comments
  – other sites – acknowledgements
  send feedback and suggestions to bombelli at olemiss.edu – modified 6 jan 2020