|  Information Theory | 
In General
  > s.a. complexity; cellular
  automaton; computation; Sampling;
  technology; time.
  * History: The field was started by
    Shannon in 1948; Information was identified with negative entropy by Brillouin.
  * Idea: The justification for the
    fact that information is physical comes from the relationship between information
    and thermodynamics; In the theory of communications two definitions of "information"
    are used; One coincides in form with the Boltzmann entropy, the other notion is
    defined as the difference between unconditional and conditional entropies.
  * Remark: If information is handled
    by non-linear systems, a small noise may add no error at all.
  @ General references: {& van der Meulen 26.03.86 mathematics talk};
    Landauer PT(91)may;
    news pn(97)jul;
    Plenio CP(01);
    Deutsch & Marletto PRS(15)-a1405 [constructor-theoretic approach];
    Witten RNC(20)-a1805 [very short introduction];
    Szangolies a2007-FQXi
      [maximum knowledge about a system, and Bell's theorem].
  @ History: Thomsen SHPSA(09) [re genesis of Shannon's theory].
  @ Books: Shannon & Weaver 49;
    Brillouin 56; Khinchin 57;
    Billingsley 65; von Baeyer 03;
    Floridi 10 [intro],
    11 [philosophy].
  @ And computation: Galindo & Martín-Delgado RMP(02)qp/01;
    Buhrman et al RMP(10)-a0907 [communication complexity].
Specific Concepts and Results
  > s.a. Meaning; Mutual Information;
  quantum information; renormalization group.
  * Shannon's coding theorem:
    Establishes the amount of information that can be sent through a channel
    as a function of its noise and transmission capacity.
  @ Fisher information:
    Ly et al a1705 [tutorial];
    Rougerie a1912 [properties];
    > s.a. quantum information;
      types of action for general relativity.
  @ Information geometry:
    Rodríguez phy/98-proc;
    Amari & Nagaoka 00;
    Grasselli AISM(10)-mp/01 [connections];
    > s.a. formulation of classical
      mechanics and quantum mechanics;
      metric types.
  @ And causality: Diener PLA(96) [superluminal vg];
    Ranfagni et al PLA(06);
    > s.a. causality in quantum theory [information causality].
  @ And chaos: Touchette & Lloyd PRL(00)
    + pn(00)feb.
  @ Erasure: Plenio & Vitelli CP(01)qp;
    Vaccaro & Barnett PRS(11)-a1004 [without an energy cost];
    del Rio et al Nat(11)jun
    + news pw(11)jun [cooling by erasing];
    > s.a. Landauer's Principle.
  @ Quantum limits: Bekenstein & Schiffer IJMPC(90)qp/03 [storage and transmission];
    Lachmann et al AJP(04)oct-cm/99 [communication];
    Lloyd et al PRL(04);
    Hsu PLB(06)ht,
    Yurtsever a1909 [processing];
    > s.a. Holevo Bound.
  @ Information friction:
    Grover IEEE(13),
    IEEE(15)-a1401 [minimum energy for communication];
    Vyavahare et al CCC(14) [limits on computation]. 
  @ Related topics: Chaitin IJTP(82) [Gödel's theorem],
    ThSc(90)jul [ciphers];
    Schumacher PRA(91) [non-separability];
    in Casti 00 [Shannon theorem];
    Bennett et al IEEE(14)-a0912 [reverse Shannon theorem];
    Enßlin AIP(13)-a1301 [information field theory];
    Kish & Granqvist IEEE(13)-a1309 [does information have mass?];
    > s.a. Brudno's Theorem.
 Other aspects: see information and physical theories;
  information and spacetime / gravity; quantum information
 Other aspects: see information and physical theories;
  information and spacetime / gravity; quantum information
 main page
  – abbreviations
  – journals – comments
  – other sites – acknowledgements
  send feedback and suggestions to bombelli at olemiss.edu – modified 29 may 2021