My only point is: I picked someone at random, looking to see if they were known to be connected to pseudoscientific groups and questionable affiliations with shadowy funding and evasive about connections, and my first random hit was a success. Not every research scientist would be this easy to find connected to such things. I don’t know. I’m not going through all of them here. I’m just saying that it’s not without cause that I believe that it was dismissed because of questionable affiliations of the scientists. I can certainly be wrong.

My only point is:
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I’m excited to watch this and compare notes! This is 2021. Now, I made a video on Synchronization in 2017, based on my own research into it, staying far away from “we explain everything” videos, trying to piece it together myself. I was proud of what I did and moved on but now with four years distance and a video from someone whose work I trust, I can compare and see how far off I was or accurate as I’m sure his work is superior. https://www.youtube.com/watch?v=t-_VPRCtiUg

I’m excited to watch
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“one wonders how much farther he might have gone and how much greater might have been his contribution to knowledge had his talents been recognized early and adequate guidance and motivation been provided.” This was the line that ‘got me’ as a teenager reading this. I ‘felt’ his story. Even though it was mostly a book of statistics, it was statistics that interested me and it had the occasional little stories like these. —- THE GIFTED GROUP AT MID-LIFE, 1959 It is not surprising, of course, that the gifted men who have had the advantage of college training, often at the graduate level, should be in positions of importance and prestige in the professions and the business world. It is, however, of special interest when those without such edu- cational advantages rise to positions of importance in competition with college-trained men. One such example follows. C. J., whose formal schooling was limited to high school and 6 units of college mathematics taken in extension courses, moved from Group III to Group I between 1940 and 1955. He was one of a family of two children (brother and sister), both of whom were selected for the gifted study. For various reasons the boy, although he had had a strong interest in science and engineering since childhood, did not go to college. The fact that he completed high school at a time of economic stress (the early 1930’s) may have been one determining factor behind his failure to enter college. His parents, although they had hoped he would con- tinue his education, were not able to help him financially. More impor- tant, however, were his poor school grades, which made it necessary that he take “make-up” courses to qualify for college, and at that time he could see no reason for spending time on subjects in which he was not interested. Probably the most crucial factor in his dropping out of school was the failure of the school itself to recognize his unusual ability or to offer any real guidance during his high-school years. His reluctance to conform to a school routine and his lack of application to his studies even though, according to the report from the high school, he showed “occasional flashes of brilliance” apparently obscured his great gifts. Left entirely on his own with little sympathetic stimula- tion and no guidance, he went to work on leaving high school, with the Intention of saving money for college study and a degree in engineering. It was an unfavorable time for financial progress, but C. J. remained employed all through the depression. He began at a fairly unskilled level but after a few years found work in the field of machine design where he made excellent progress. During this period he studied in- formally and still clung to his ambition of taking an engineering degree and as he came to hope a graduate degree in physics. When his income became sufficiently secure that he might have gone to college, war threatened and he turned instead to war work. During World War II he was on the research staff of a highly secret and important laboratory, working side by side with graduate physicists, often on his own projects, an honor usually accorded only Ph.D/s. When this re- search laboratory was discontinued at the end of the war, he was ap- pointed to the engineering staff at a military ordnance laboratory. Because of his fine work as a project engineer on important military developments, he received a promotional appointment to the GS-12 level under a “meritorious exception.” This was a distinct honor since, under Civil Service regulations, an individual without a college degree is ineligible for advancement beyond the grade of GS-7. However, greater honors were in store for C. J. He was recently fully qualified as a mechanical engineer, GS-12, thus removing the “meritorious exception” qualification. This action made further pro- motion possible and he now heads a branch of the optical engineering division in a military research and development center. His work, on a high professional level, is concerned with guided missile instrumenta- tion. C. J. is now in his early forties, married, and the father of three children. He is active in school and community affairs and his hobbies include music, photography, and reading. Among the magazines read regularly are the Atlantic Monthly and Scientific American, and books he has recently read include Modern Arms and Free Men ( Vannevar Bush), Language in Action (Hayakawa), and Human Destiny (Le- comte du Noiiy). His Binet IQ at age 10 was 154 and his Terman Group Test score in 1928 at age 17 was within a few points of a per- fect score. And it was then that the school complained of his argu- mentativeness and failure to respond to discipline, and noted his fail- ure in various school subjects, despite the A he received in chemistry! On the Concept Mastery tests taken in 1940 and 1951 he scored far higher than the average college graduate and placed nearly 20 points above the average of the gifted men. In view of his continued high intelligence rating and his remarkable scientific ability especially in physics and engineering one wonders how much farther he might have gone and how much greater might have been his contribution to knowledge had his talents been recognized early and adequate guidance and motivation been provided.

“one wonders how much
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Oh my religion is leftism? Well, I appreciate you putting a name to it. My “of course he got off” is a matter of knowing the nature of organizations. Work for any corporation, government, military or be involved in any hierarchical structure for even a short amount of time and you begin to understand how things really work. is that leftism? Maybe. It’s “not being naivism”. It’s how things go.

Oh my religion is
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Ran 13 years of my Facebook comments through an AI Topic Sorter I like. I set it for 60 words each in 6 Topics. Ran it for 6000 iterations and I like this topic: system words human brain systems thinking theory similar process set logic form language information sense view universe reality based god order knowledge experience basic math data model concept perspective nature physics work number humans level simple learning mathematics general difficult patterns study research logical exist points concepts understanding fascinating ways numbers function fit computers present physical memory computer working notion

Ran 13 years of
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Me: “Information is Physical” said Landauer in 1961 and established a lower limit of thermodynamic cost of information: “Information is not free” basically. The number has been confirmed numerous times, despite many attempts to break it with quantum erasure, although it can be switched to angular momentum instead of heat. Still, information can be LOGICALLY reversible “for free” even if it cannot be PHYSICALLY reversible for free. But the costs can be made physically small to where a being like a human won’t notice much. Ignorance is bliss. The abstract for the paper: —————— Stochastic thermodynamics of computation – David H. Wolpert One of the major resource requirements of computers – ranging from biological cells to human brains to high-performance (engineered) computers – is the energy used to run them. Those costs of performing a computation have long been a focus of research in physics, going back to the early work of Landauer. One of the most prominent aspects of computers is that they are inherently nonequilibrium systems. However, the early research was done when nonequilibrium statistical physics was in its infancy, which meant the work was formulated in terms of equilibrium statistical physics. Since then there have been major breakthroughs in nonequilibrium statistical physics, which are allowing us to investigate the myriad aspects of the relationship between statistical physics and computation, extending well beyond the issue of how much work is required to erase a bit. In this paper I review some of this recent work on the `stochastic thermodynamics of computation’. After reviewing the salient parts of information theory, computer science theory, and stochastic thermodynamics, I summarize what has been learned about the entropic costs of performing a broad range of computations, extending from bit erasure to loop-free circuits to logically reversible circuits to information ratchets to Turing machines. These results reveal new, challenging engineering problems for how to design computers to have minimal thermodynamic costs. They also allow us to start to combine computer science theory and stochastic thermodynamics at a foundational level, thereby expanding both.

Me: “Information is Physical”
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