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Alfred North Whitehead, OM FRS (15 February 1861 – 30 December 1947) was an English mathematician and philosopher. He is best known as the defining figure of the philosophical school known as process philosophy, which today has found application to a wide variety of disciplines, including ecology, theology, education, physics, biology, economics, and psychology, among other areas.
In his early career Whitehead wrote primarily on mathematics, logic, and physics. His most notable work in these fields is the three-volume Principia Mathematica (1910–13), which he co-wrote with former student Bertrand Russell. Principia Mathematica is considered one of the twentieth century's most important works in mathematical logic, and placed 23rd in a list of the top 100 English-language nonfiction books of the twentieth century by Modern Library.
Beginning in the late 1910s and early 1920s, Whitehead gradually turned his attention from mathematics to philosophy of science, and finally to metaphysics. He developed a comprehensive metaphysical system which radically departed from most of western philosophy. Whitehead argued that reality was fundamentally constructed by events rather than substances, and that these events cannot be defined apart from their relations to other events, thus rejecting the theory of independently existing substances. Today Whitehead's philosophical works – particularly Process and Reality – are regarded as the foundational texts of process philosophy.
Whitehead's process philosophy argues that "there is urgency in coming to see the world as a web of interrelated processes of which we are integral parts, so that all of our choices and actions have consequences for the world around us." For this reason, one of the most promising applications of Whitehead's thought in recent years has been in the area of ecological civilization and environmental ethics pioneered by John B. Cobb, Jr.
Isabelle Stengers wrote that "Whiteheadians are recruited among both philosophers and theologians, and the palette has been enriched by practitioners from the most diverse horizons, from ecology to feminism, practices that unite political struggle and spirituality with the sciences of education." Indeed, in recent decades attention to Whitehead's work has become more widespread, with interest extending to intellectuals in Europe and China, and coming from such diverse fields as ecology, physics, biology, education, economics, and psychology. However, it was not until the 1970s and 1980s that Whitehead's thought drew much attention outside of a small group of American philosophers and theologians, and even today he is not considered especially influential outside of relatively specialized circles.
In recent years, Whiteheadian thought has become a stimulating influence in scientific research.
In physics particularly, Whitehead's thought has been influential, articulating a rival doctrine to Albert Einstein's general relativity. Whitehead's theory of gravitation continues to be controversial. Even Yutaka Tanaka, who suggests that the gravitational constant disagrees with experimental findings, admits that Einstein's work does not actually refute Whitehead's formulation. Also, although Whitehead himself gave only secondary consideration to quantum theory, his metaphysics of events has proved attractive to physicists in that field. Henry Stapp and David Bohm are among those whose work has been influenced by Whitehead.
Whitehead is widely known for his influence in education theory. His philosophy inspired the formation of the Association for Process Philosophy of Education (APPE), which published eleven volumes of a journal titled Process Papers on process philosophy and education from 1996 to 2008. Whitehead's theories on education also led to the formation of new modes of learning and new models of teaching.
I made the proofing (heavy maths!!) of this book for Free Literature and Project Gutenberg will published it.
CONTENTS PART I THE TRADITIONS OF SCIENCE
CHAPTER I. MEANING
ARTS. 1. Traditional Scientific Concepts 2. Philosophic Relativity 3. Perception
CHAPTER II. THE FOUNDATIONS OF DYNAMICAL PHYSICS
4. Newton's Laws of Motion 5. The Ether 6. Maxwell's Equations Appendix I : Newton's Laws of Motion Appendix II: Clerk Maxwell's Equations of the Electromagnetic Field
CHAPTER III. SCIENTIFIC RELATIVITY
7. Consentient Sets 8. Kinematic Relations 9. Motion through the Ether 10. Formulae for Relative Motion Appendix: Mathematical Formulae
CHAPTER IV. CONGRUENCE
11. Simultaneity 12. Congruence and Recognition
PART II THE DATA OF SCIENCE
CHAPTER V. THE NATURAL ELEMENTS
13. The Diversification of Nature 14. Events 15. Objects
CHAPTER VI. EVENTS
16. Apprehension of Events 17. The Constants of Externality 18. Extension 19. Absolute Position 20. The Community of Nature 21. Characters of Events
CHAPTER VII. OBJECTS
22. Types of Objects 23. Sense-Objects 24. Perceptual Objects 25. Scientific Objects 26. Duality of Nature
PART III THE METHOD OF EXTENSIVE ABSTRACTION
CHAPTER VIII. PRINCIPLES OF THE METHOD OF EXTENSIVE ABSTRACTION
27. The Relation of Extension, Fundamental Properties 28. Intersection, Separation and Dissection 29. The Junction of Events 30. Abstractive Classes 31. Primes and Antiprimes 32. Abstractive Elements
CHAPTER IX. DURATIONS, MOMENTS AND TIME-SYSTEMS
33. Antiprimes, Durations and Moments 34. Parallelism and Time-Systems 35. Levels, Rects, and Puncts 36. Parallelism and Order