P w anderson google scholar citation

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  • Philip W. Anderson

    American physicist (1923–2020)

    For the film editor, see Philip W. Anderson (film editor).

    Philip Warren AndersonForMemRS HonFInstP (December 13, 1923 – March 29, 2020) was an American theoretical physicist and Nobel laureate. Anderson made contributions to the theories of localization, antiferromagnetism, symmetry breaking (including a paper in 1962 discussing symmetry breaking in particle physics, leading to the development of the Standard Model around 10 years later), and high-temperature superconductivity, and to the philosophy of science through his writings on emergent phenomena.[3][4][5][6][7] Anderson is also responsible for naming the field of physics that is now known as condensed matter physics.[8]

    Education and early life

    [edit]

    Anderson was born in Indianapolis, Indiana, and grew up in Urbana, Illinois. His father, Harry Warren Anderson, was a professor of plant pathology at the

    Broken Symmetry, Emergent Properties, Dissipative Structures, Life

    Abstract

    The authors compare symmetry-breaking in thermodynamic equilibrium systems (leading to phase change) and in systems far from equilibrium (leading to dissipative structures). They conclude that the only similarity between the two is their ability to lead to the emergent property of spatial variation from a homogeneous background. There is a well-developed theory for the equilibrium case involving the order parameter concept, which leads to a strong correlation of the beställning parameter over macroscopic distances in the broken symmetry phase (as exists, for example, in a ferromagnetic domain). This correlation endows the structure with a self-scaled stability, rigidity, autonomy, or permanence. In contrast, the authors assert that there is no developed theory of dissipative structures (despite claims to the contrary) and that perhaps there are no stable dissipative structures at all! Symmetry-breaking effects

    Complexity matters

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    Complexity matters. Nat. Phys.18, 843 (2022). https://doi.org/10.1038/s41567-022-01734-5

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  • p w anderson google scholar citation