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Richard Feynman o výuce matematiky

Richard Feynman o výuce matematiky. Michal Lenc Ústav teoretické fyziky a astrofyziky Přírodovědecká fakulta MU. Velké Meziříčí, 20 . srpna 200 8. Richard P. Feynman. 11. května 1918 - 15. února 1988. Základní vztah kvantové elektrodynamiky. Pravidla pro výpočet I.

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Richard Feynman o výuce matematiky

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  1. Richard Feynman o výuce matematiky Michal Lenc Ústav teoretické fyziky a astrofyziky Přírodovědecká fakulta MU Velké Meziříčí, 20. srpna 2008

  2. Richard P. Feynman 11. května 1918 - 15. února 1988 Feynman o výuce matematiky

  3. Základní vztah kvantové elektrodynamiky Feynman o výuce matematiky

  4. Pravidla pro výpočet I Feynman o výuce matematiky

  5. Pravidla pro výpočet II Feynman o výuce matematiky

  6. Pravidla pro výpočet III Feynman o výuce matematiky

  7. Feynmanův diagram procoulombovskou interakcidvou elektronů Feynman o výuce matematiky

  8. Feynmanův diagram proComptonův rozptyl Feynman o výuce matematiky

  9. Feynmanův diagram proanihilaci páruelektron - positron Feynman o výuce matematiky

  10. Feynmanův diagram prokreaci páruelektron - positron Feynman o výuce matematiky

  11. Feynmanův diagram proopravu hmotnosti elektronu Feynman o výuce matematiky

  12. Feynmanův diagram proopravu náboje elektronu Feynman o výuce matematiky

  13. Feynmanův diagram pro …. Feynman o výuce matematiky

  14. The Feynman Lectures on Physics Feynman o výuce matematiky

  15. Feynman and mathematics Mathematics is not a science from our point of view, in the sense that it is not a natural science. The test of its validity is not experiment… …if a thing is not a science, it is not necessarily bad. Feynman o výuce matematiky

  16. Feynman and mathematics As they’re telling me the conditions of the theorem, I construct something which fits all the conditions. You know, you have a set (one ball) – disjoint (two balls). Then the balls turn colors, grow hairs, or whatever, in my head as they put more conditions on. Finally, they state the theorem, which is some dumb thing about the ball which isn’t true for my hairy green ball thing, so I say, “False!” Feynman o výuce matematiky

  17. Feynman and mathematics Feynman o výuce matematiky

  18. Feynman and mathematics Feynman o výuce matematiky

  19. New textbooks for the “new” mathematics Add now, to all his other miscellaneousdistinctions, the fact that RichardP. Feynman has read 500 lbs. ofelementary-grade arithmetic books -enough to fill 18 feet of shelf space. Feynman o výuce matematiky

  20. What we are after Many of the books go into considerable detail onsubjects that are only of interest to puremathematicians. Furthermore, the attitude towardmany subjects is that of a pure mathematician.But we must not plan only to prepare puremathematicians. In the first place, there are very fewpure mathematicians and, in the second place, puremathematicians have a point of view about thesubject which is quite different from that of the usersof mathematics. Feynman o výuce matematiky

  21. Physics and Mathematics ...To summarize, I would use the words of Jeans, who said that "the Great Architect seems to be a mathematician". To those who do not know mathematics it is difficult to get across a real feeling as to the beauty, the deepest beauty, of nature. C.P. Snow talked about two cultures. I really think that those two cultures separate people who have and people who have not had this experience of understanding mathematics well enough to appreciate nature once. Feynman o výuce matematiky

  22. Any way that it works What is the best method to obtain the solution to aproblem? The answer is, any way that works. So, what we want in arithmetic textbooks is not to teach a particular way of doing every problem but, rather, to teach what the original problem is, and to leave a much greater freedom in obtaining the answer - but, of course, no freedom asto what the right answer should be. That is to say, there may be several ways of adding 17and 15 (or, rather, of obtaining the solution to the sum of 17and 15) but there is only one correct answer. Feynman o výuce matematiky

  23. Words and definitions When we come to consider the words and definitions which children ought to learn, we should be careful not to teach "just" words. It is possible to give an illusion of knowledge by teaching the technical words which someone uses in a field (which sound unusual to ordinary ears ) without at the same time teaching any ideas or facts using these words. Many of the math books that are suggested now are full of such nonsense - of carefully and precisely defined special words that are used by pure mathematicians in their most subtle and difficult analyses, and are used by nobody else. Feynman o výuce matematiky

  24. Precise language The real problem in speech is not precise language. The problem is clear language. Pure mathematics is just such an abstraction from the real world, and pure mathematics does have a special precise language for dealing with its own special and technical subjects. But this precise language is not precise in any sense if you deal with the real objects of the world, and it is overly pedantic and quite confusing to use it unless there are some special subtleties which have to be carefully distinguished. Feynman o výuce matematiky

  25. New definitions – and no facts I believe that every subject which is presented in the textbook should be presented in such a way that the purpose of the presentation is made evident.The reason why the subject is there should be clear; the utility of the subject and its relevance to the world must be made clear to the pupil. Feynman o výuce matematiky

  26. Did it changed? Mathematics which is used in engineering and science - in the design, for example, of radar antenna systems, in determining the position and orbits of the satellites, in inventory control, in the design of electrical machinery, in chemical research, and in the most esoteric forms of theoretical physics – is all really old mathematics, developed to a large extent before 1920. Agood deal of the mathematics which is used in the most advanced work of theoretical physics, for example, was not developed by mathematicians alone, but to a large extent by theoretical physicists. Feynman o výuce matematiky

  27. Conclusions • There must be freedom of thought • We do not want to teach just words • Subjects should not be introduced without explaining the purpose or reason Feynman o výuce matematiky

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