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btilly10/11/20241 replyview on HN

Not exactly. She's just admitted that he isn't someone she thought of. And that's likely because she's far more aware of the contributions of physicists to this field, than the attempted contributions of non-physicists. It's not that she's not aware that they exist - in fact she's painfully aware that there are a great number of them saying all sorts of things - its that she's not individually aware of them.

That said, if she had thought of him then she would have merely increased her sample size from 2 to 3, and still had the exact same conclusion.


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lupire10/11/2024

What absurd definition are you using that makes Stephen Wolfram not a physicist?

Wolfram is more of a physicist than most physicists.

Wikipedia:

He entered St. John's College, Oxford, at age 17 and left in 1978[17] without graduating[18][19] to attend the California Institute of Technology the following year, where he received a PhD[20] in particle physics in 1980.[21] Wolfram's thesis committee was composed of Richard Feynman, Peter Goldreich, Frank J. Sciulli and Steven Frautschi, and chaired by Richard D. Field.[21][22]

In the mid-1980s, Wolfram worked on simulations of physical processes (such as turbulent fluid flow) with cellular automata on the Connection Machine alongside Richard Feynman[29] and helped initiate the field of complex systems.[citation needed] In 1984, he was a participant in the Founding Workshops of the Santa Fe Institute, along with Nobel laureates Murray Gell-Mann, Manfred Eigen, and Philip Warren Anderson, and future laureate Frank Wilczek.[30] In 1986, he founded the Center for Complex Systems Research (CCSR) at the University of Illinois at Urbana–Champaign.[31] In 1987, he founded the journal Complex Systems.[31]

From 1992 to 2002, Wolfram worked on his controversial book A New Kind of Science,[4][33] which presents an empirical study of simple computational systems. Additionally, it argues that for fundamental reasons these types of systems, rather than traditional mathematics, are needed to model and understand complexity in nature. Wolfram's conclusion is that the universe is discrete in its nature, and runs on fundamental laws which can be described as simple programs. He predicts that a realization of this within scientific communities will have a revolutionary influence on physics, chemistry, biology, and a majority of scientific areas in general, hence the book's title

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