题名

力學能守恆理論形成的歷史探究及其在科學史融入教學上的意義

并列篇名

The Investigations on the Theoretical Development of Conservation of Mechanical Energy and Its Implications on Physics Teaching

DOI

10.6173/CJSE.2016.2404.03

作者

姚珩(Herng Yao);孫治平(Chi-Ping Sun);李秉書(Pin-Shu Lee)

关键词

力學能 ; 物理教學 ; 科學史 ; 科學方法 ; 科學本質 ; Mechanical Energy ; Physics Teaching ; History of Science ; Scientific Method ; Nature of Science

期刊名称

科學教育學刊

卷期/出版年月

24卷4期(2016 / 12 / 01)

页次

379 - 416

内容语文

繁體中文

中文摘要

科學史可協助學生瞭解科學知識的形成、及提升在科學本質上的素養,對科學史做進一步的研究,有助於發揮科學教育的功能。為此本文以文獻分析及歷史研究方法,探討物理學上相當重要的主題—功、動能、位能與力學能守恆律的理論發展歷程。研究發現功與動能的概念最早是由牛頓提出,他為了想瞭解物體在受向心力,而非拉力作用下,求得任意位置處的速度而引入,故功並非是出於工程的需要而發生。其想法隨後由白努利加以擴充,他除了首次寫下f = ma的數學式,還提出了力與位移內積之概念。牛頓所開啟的微小增量及累積求和的分析運算,也為力學論證方法樹立起新里程碑。1743年克來若認為當外力為一函數的正合微分,則此力所作的功與路徑無關,率先提出位能概念。最後拉格朗日統合這些,創建出力學能守恆定律。透過這些原始文獻的探討,得提供教師珍貴資料,將此結果直接融入授課教材,可消除學生常見的迷思,達到更佳的教學目標。文中並輔以扼要的教學模組,以供實務參考。這些物理學家對自然現象問題的選擇,反映出運動問題為古典物理的核心,他們將經驗知識與數學理論統合的物理學方法,亦可深化科學史在瞭解科學方法上之教學效能。

英文摘要

We investigate the theoretical developments of work, kinetic energy, potential energy and the conservation of mechanical energy. Our study finds that the concepts of work and kinetic energy originally appeared in Newton’s Principia. These concepts were proposed due to the fact that Newton wanted to find the speed of an object at any position under the action of centripetal force, rather than the external force exerted by the machine. His idea subsequently was expanded by J. Bernoulli, who established the work–energy theorem for an object under the elastic force, and also wrote down the famous mathematical formula f = ma for the first time. He also proposed the concept of inner product between the force and the displacement of a body. Their analytical methods of manipulating the tiny increments and cumulative sums set up the cornerstone for the arguments in mechanics. Clairaut then found that the work done by gravity on a body around the Earth was independent of the path due to the fact that the gravity could be expressed as the differential of a state function. The state function is the so-called potential energy. Combining the work–energy theorem and the concept of potential energy, Lagrange finally established the conservation of mechanical energy. The results of the investigation on the development of mechanical energy can help students avoid the common misconception about work and energy. They may also be good references for teachers to guide students to construct deep scientific thinking, and to comprehend the essence of nature of science.

主题分类 社會科學 > 教育學
参考文献
  1. 邱明富、高慧蓮(2006)。科學史融入教學對國小學童科學本質觀影響之探究。科學教育學刊,14(2),163-187。
    連結:
  2. 邱奕華、劉湘瑤(2014)。科學史教學對學生科學認識觀與概念學習的影響─不同教學順序的比較。科學教育學刊,22(3),307-330。
    連結:
  3. 洪萬生(2007)。傳統中算家論證的個案研究。科學教育學刊,15(4),357-385。
    連結:
  4. 劉祥通、黃國勳(2003)。實踐小學因數教學模組之研究。科學教育學刊,11(3),235-256。
    連結:
  5. Bernoulli, J. (1736). Recherches physiques et géométriques sur la question: Comment se fait la propagation de la lumière. Paris, France: Imprimerie Royale.
  6. Clairaut, A. C. (1743). Theorie de la figure de la terre: Tirée des principes de l'hydrostratique. Paris, France: Durand.
  7. Shaw, R. S. (1940). Introduction of the concepts of work and energy. American Journal of Physics, 8(2), 136-137.
  8. Lagrange, J. L. (1773). Sur l'équation séculaire de la lune. In 1'Académie Royale des Sciences (Ed.), Mémoires de mathématique et de physique, -- Année 1773 (pp. 335-399). Paris, France: de l'imprimerie Royale.
  9. Coriolis, G. (1829). Du calcul de l'effet des machines, ou, Considerations sur l'emploi des moteurs et sur leur évaluation: Pour servir d'introduction a l'étude spéciale des machines. Paris, France: Carilian-Goeury.
  10. Varignon, P. (1725). Corollaire général de la Théorie précédente. In Académie Royales des Sciences de France (Ed.), Nouvelle mécanique, ou, Statique, dont le projet fut donné en M. DC. LXXXVII (Vol. 2, pp. 174-223). Paris, France: Claude Jombert.
  11. Green, G. (1828). An essay on the application of mathematical analysis to the theories of electricity and magnetism. Nottingham, UK: T. Wheelhouse.
  12. Smeaton, J. (1759). An experimental enquiry concerning the natural powers of water and wind to turn mills, and other machines, depending on a circular motion. Philosophical Transactions, 51, 100-174.
  13. Maxwell, J. C. (1878). Matter and motion. New York: D. Van Nostrand.
  14. Keeslar, O. (1945a). A survey of research studies dealing with the elements of scientific method as objectives of instruction in science. Science Education, 29(4), 212-216.
  15. Rankine, W. J. M., Millar, W. J., & Tait, P. G. (1881). Miscellaneous scientific papers. London:C. Griffin.
  16. Varignon, P. (1700). Manière générale de déterminer les forces, les vitesses, les espaces et les temps, une seule de ces quatre choses étant donnée dans toutes sortes de mouvements rectilignes variés à discretion. In Académie Royale des Sciences (Ed.), Histoire de l'Academie royale des sciences -- Avec les memoires de mathematique & de physique pour la même année tirés des registres de cette académie -- Année 1700 (pp. 22-27). Paris, France: Jean Boudot.
  17. (1976)。愛因斯坦文集:第一卷。北京市:商務。
  18. Rankine, W. J. M. (1853). XVIII. On the general law of the transformation of energy. Philosophical Magazine Series 4, 5(30), 106-117.
  19. Keeslar, O. (1945b). The elements of scientific method. Science Education, 29(5), 273-278.
  20. Newton, I. (1846). Newton's principia: The mathematical principles of natural philosophy (A. Motte, Trans.). New York: Daniel Adee. (Original work published 1687)
  21. Euler, L. (2008). Mechanica (I. Bruce, Trans.). Retrieved from http://www.17centurymaths.com/contents/mechanica1.html. (Original work published 1736)
  22. Thomson, W. (1852). XLVII. On a universal tendency in nature to the dissipation of mechanical energy. Philosophical Magazine Series 4, 4(25), 304-306.
  23. Thomson, W., & Tait, P. G. (1862). Energy. Good Words, 3, 601-607.
  24. American Association for the Advancement of Science(1993).Benchmarks for scientific literacy.New York:Oxford University Press.
  25. Arons, A. B.(1999).Development of energy concepts in introductory physics courses.American Journal of Physics,67,1063-1067.
  26. Atkin, J.,Karplus, R.(1962).Discovery or invention?.Science Teacher,29(5),45-51.
  27. Ayers, J.,Ayers, K.(2007).Teaching the scientific method: It's all in the perspective.The American Biology Teacher,69(1),e17-e21.
  28. Bernoulli, D.,Carmody, T.(Trans.),Kobus, H.(Trans.)(1968).Hydrodynamics.New York:Dover.
  29. Burtt, E. A.、徐向東譯(1994)。近代物理科學的形而上學基礎。成都市:四川教育。
  30. Butterfield, H.(1957).The origin of modern science, 1300-1800.London:G. Bell.
  31. Capecchi, D.(2012).History of virtual work laws: A history of mechanics prospective.Milan, Italy:Birkhauser.
  32. Cardwell, D.(1967).Some factors in the early development of the concepts of power, work and energy.The British Journal for the History of Science,3(3),209-224.
  33. Carey, S. S.(1994).A beginner's guide to scientific method.Belmont, CA:Wadsworth.
  34. Carr, M.,Kirkwood, V.(1988).Teaching and learning about energy in New Zealand secondary school junior science classrooms.Physics Education,23(2),86-91.
  35. Chisholm, D.(1992).Some energetic thoughts.Physics Education,27(4),215-220.
  36. Collette, A. T.,Chiappetta, E. L.(1994).Science instruction in the middle and secondary schools.New York:Merrill.
  37. Commission on Science Education(1965).Science - A process approach: Commentary for teachers.Washington, DC:American Association for the Advancement of Science.
  38. Conant, J. B.(1951).Science and common sense.New Haven, CT:Yale University Press.
  39. de Berg, K. C.(1989).The emergence of quantification in the pressure volume relationship for gases: A textbook analysis.Science Education,73(2),115-134.
  40. de Berg, K. C.(1997).The development of the concept of work: A case where history can inform pedagogy.Science & Education,6(5),511-527.
  41. Descartes, R.,Miller, V. R.(Trans.),Miller, R. P.(Trans.)(1983).Principles of philosophy.Dordrecht, The Netherlands:Kluwer Academic.
  42. Driver, R.(1989).Students' conceptions and the learning of science.International Journal of Science Education,11(5),481-490.
  43. Driver, R.,Easley, J.(1978).Pupils and paradigms: A review of literature related to concept development in adolescent science students.Studies in Science Education,5,61-84.
  44. Driver, R.,Warrington, L.(1985).Students' use of the principle of energy conservation in problem situations.Physics Education,20(4),171-176.
  45. Duhem, P.、李醒民譯(1999)。物理學理論的目的和結構。北京市:華夏。
  46. Duit, R.(1981).Understanding energy as a conserved quantity - Remarks on the article by R. U. Sexl.European Journal of Science and Education,3(3),291-301.
  47. Duschl, R.(1990).Restructuring science education: The role of theories and their importance.New York:Teachers' College Press.
  48. Duschl, R.,Hamilton, R.,Greudy, R.(1990).Psychology and epistemology: Match or mismatch when applied to science education?.International Journal of Science Education,12(3),230-243.
  49. Fraenkel, J. R.、Wallen, N. E.、Hyun, H. H.、楊孟麗譯、謝水南譯(2013)。教育研究法—研究設計實務。臺北市:心理。
  50. Galilei, G.、戈革譯(2005)。兩門新科學的對話。臺北市:大塊文化。
  51. Garrison, J. W.,Lawwill, K. S.(1993).Democratic science teaching: A role for the history of science.Interchange,24(1-2),29-39.
  52. Gil, D.,Solbes, J.(1993).The introduction of modern physics: Overcoming a deformed vision of science.International Journal of Science Education,15(3),255-260.
  53. Halliday, D.,Resnick, R.,Walker, J.(2011).Fundamentals of physics.New York:Wiley.
  54. Hammer, D.(1995).Epistemological considerations in teaching introductory physics.Science Education,79(4),393-413.
  55. Harman, P. M.、龔少明譯(2000)。19 世紀物理學概念的發展:能量、力和物質。上海市:復旦大學。
  56. Hecht, E.(2004).Energy and work.The Physics Teacher,42(12),L1-L3.
  57. Hobson, A.(2004).Energy and work.The Physics Teacher,42(5),260.
  58. Hodson, D.(1996).Laboratory work as scientific method: Three decades of confusion and distortion.Journal of Curriculum Studies,28(2),115-135.
  59. Iona, M.(1973).Letters: Energy is the ability to do work.The Physics Teacher,11,259.
  60. Jammer, M.(1997).Concepts of mass: In classical and modern physics.New York:Dover.
  61. Jammer, M.(1962).Concepts of force: A study in the foundations of dynamics.New York:Harper.
  62. Jewett, J.(2008).Energy and the confused student I: work.The Physics Teacher,46(1),38-43.
  63. Kanderakis, N.(2010).When is a physical concept born? The emergence of work as a magnitude of mechanics.Science & Education,19(10),995-1012.
  64. Kanderakis, N.(2012).What is the meaning of the physical magnitude "Work"?.Science & Education,23(6),1293-1308.
  65. Kemp, H. R.(1984).The concept of energy without heat or work.Physics Education,19(5),234-239.
  66. Kimball, M. E.(1967).Understanding the nature of science: A comparison of scientists and science teachers.Journal of Research in Science Teaching,5(2),110-120.
  67. Kipnis, N.(1996).The "Historical-investigative" approach to teaching science.Science & Education,5(3),277-292.
  68. Klopfer, L. E.,Cooley, W. W.(1963).The history of science cases for high schools in the development of student understanding of science: A report on the HOSC instruction project.Journal of Research in Science Teaching,1(1),33-47.
  69. Koyre, A.、李艷平譯(2002)。伽利略研究。南昌市:江西教育。
  70. Koyre, A.、張卜天譯(2003)。牛頓研究。北京市:北京大學。
  71. Kuhn, D.(1993).Science as argument: Implications for teaching and learning scientific thinking.Science Education,77(3),319-337.
  72. Kuhn, T.、程樹德譯、傅大為譯、王道還譯、錢永祥譯(1994)。科學革命的結構。臺北市:遠流。
  73. Lagrange, J. L.,Boissonnade, A.(Trans.),Vagliente, V. N.(Trans.)(1997).Analytical mechanics.Dordrecht, The Netherlands:Kluwer Academic.
  74. Lauritzen, C.,Jaeger, M.(1997).Integrating learning through story: The narrative curriculum.Albany, NY:Delmar.
  75. Lawson, R. A.,McDermott, L. C.(1987).Student understanding of the work-energy and impulse-momentum theorems.American Journal of Physics,55(9),811-817.
  76. Lehrman, R.(1973).Energy is not the ability to do work.The Physics Teacher,11,15-18.
  77. Lemeignan, G.,Weil-Barais, A.(1994).A developmental approach to cognitive change in mechanics.International Journal of Science Education,16(1),99-120.
  78. Lind, G.(1980).Models in physics: Some pedagogical reflections based on the history of science.European Journal of Science Education,2(1),15-23.
  79. Matthews, M. R.(1994).Science teaching: The role of history and philosophy of science.New York:Routledge.
  80. Matthews, M. R.(2014).International handbook of research in history, philosophy and science teaching.Dordrecht, The Netherland:Springer.
  81. Matthews, M. R.(Ed.)(2014).International handbook of research in history, philosophy and science teaching.Dordrecht, The Netherland:Springer.
  82. McComas, W. F.(Ed.)(1998).The nature of science in science education: Rationale and strategies.Dordrecht, The Netherland:Springer.
  83. McLelland, C. V.(2006).The nature of science and the scientific method.Boulder, CO:The Geological Society of America.
  84. Medawar, P. B.(Ed.),Pyke, D.(Ed.)(1990).The threat and the glory: Reflections on science and scientists.New York:Harper Collins.
  85. Mendelson, K. S.(2003).Physical and colloquial meanings of the term "Work".American Journal of Physics,71(3),279-281.
  86. Mungan, C.(2007).Defining work.The Physics Teacher,45(5),261.
  87. National Research Council(1996).National science education standards.Washington, DC:National Academy Press.
  88. Nercessian, N.(1989).Conceptual change in science and in science education.Synthese,80(1),163-183.
  89. Popper, K. R.(1963).Conjectures and refutations: The growth of scientific knowledge.New York:Harper.
  90. Roach, L. E.,Wandersee, J. H.(1993).Short story science - Using historical vignettes as a teaching tool.Science Teacher,60(6),18-21.
  91. Roche, J.(2003).What is potential energy?.European Journal of Physics,24(2),185-196.
  92. Rudolph, J. L.(2005).Epistemology for the masses: The origins of the "scientific method" in American schools.History of Education Quarterly,45(3),341-376.
  93. Schwab, J. J.(Ed.),Brandwein, P. F.(Ed.)(1962).The teaching of science: The teaching of science as enquiry.Cambridge, MA:Harvard University Press.
  94. Seker, H.,Welsh, L.(2006).The use of history of mechanics in teaching motion and force units.Science & Education,15(1),55-89.
  95. Seroglou, F.,Koumaras, P.,Tselfes, V.(1998).History of science and instructional design: The case of electromagnetism.Science & Education,7,261-280.
  96. Serway, R.,Jewett, J.,Peroomian, V.(2012).Physics for scientists and engineers with modern physics.Boston, MA:Brooks/Cole.
  97. Sexl, R. U.(1981).Some observations concerning the teaching of the energy concept.European Journal of Science Education,3(3),285-289.
  98. Shymansky, J. A.,Hedges, L. V.,Woodworth, G.(1990).A reassessment of the effects of inquiry-based science curricula of the 60's.Journal of Research in Science Teaching,27(2),127-144.
  99. Solomon, J.(1983).Learning about energy: How pupils think in two domains.European Journal of Science Education,5(1),49-59.
  100. Stinner, A.,Williams, H.(1993).Conceptual change, history, and science stories.Interchange,24(1-2),87-103.
  101. Suits, J. P.(2004).Assessing investigative skill development in inquiry based and traditional college science laboratory courses.School Science and Mathematics,104,248-257.
  102. Suppe, F.(1977).The structure of scientific theories.Urbana, IL:University of Illinois Press.
  103. Tang, X.,Coffey, J.,Elby, A.,Levin, D.(2010).The scientific method and scientific inquiry: Tensions in teaching and learning.Science Education,94(1),29-47.
  104. Trumper, R.(1993).Children's energy concepts: A crossage study.International Journal of Science Education,15(2),139-148.
  105. Trumper, R.(1991).Being constructive, an alternative approach to the teaching of the energy concept - Part II.International Journal of Science Education,13(1),1-10.
  106. Voroshilov, V.(2008).On a definition of work.The Physics Teacher,46(5),260.
  107. Wandersee, J. H.(1985).Can the history of science help science educators anticipate students' misconceptions?.Journal of Research in Science Teaching,23(17),581-597.
  108. Warren, J. W.(1986).At what stage should energy be taught?.Physics Education,21(3),154-156.
  109. Warren, J. W.(1982).The nature of energy.European Journal of Science Education,4(3),295-297.
  110. Waterfield, R.,Bostock, D.(1999).Aristotle physics.New York:Oxford University Press.
  111. Welch, W.(1973).Review of the research and evaluation program of harvard project physics.Journal of Research in Science Teaching,10(4),365-378.
  112. Westfall, R. S.、彭萬華譯(2001)。近代科學的建構:機械論與力學。上海市:復旦大學。
  113. Wink, D. J.(2005).The inquiry wheel, an alternative to the scientific method.Journal of Chemical Education,82(5),682.
  114. Yeatts, F. R.,Hundhausen, J. R.(1992).Calculus and physics: Challenges at the interface.American Journal of Physics,60(8),716-721.
  115. 吳大猷(1995)。高級中學物理。臺北市:國立編譯館。
  116. 吳鐵雄編(2001)。九年一貫課程:自然與生活科技領域教學示例。臺北縣:教育部台灣省國民學校教師研習會。
  117. 林樹聲(2001)。科學史融入中學科學教科書的問題和討論。科學教育研究:理論與實務,1,1-24。
  118. 姜志忠、張惠博、林淑梤、鄭一亭(2006)。物理史融入教學對提升學生科學認識論瞭解及其學習成效之研究。科學教育學刊,14(6),637-661。
  119. 許良榮、李田英(1995)。科學史在科學教學的角色與功能。科學教育月刊,179,15-27。