The course ‘Astrophysics, Relativity and Quantum Mechanics’ invites you to explore the frontiers of human knowledge, tackling topics that challenge our understanding of the universe. At a time when interest in the cosmos and the laws that govern it is booming, acquiring these skills will open doors for you to an ever-expanding field. Astrophysics reveals the immensity of the universe, whilst relativity shows us how space and time are intertwined. Quantum mechanics, for its part, takes us into a subatomic world full of mysteries. This online course, designed for science enthusiasts, will enable you to develop critical and analytical thinking – skills that are in high demand across a range of sectors. Taking this course will not only enrich your understanding of the cosmos, but will also place you at the forefront of scientific research.
Astrophysics, relativity and quantum mechanics
Introduction
Objectives
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To understand the basic principles of astrophysics and their impact on our understanding of the universe.
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To analyse the theory of relativity and its influence on the development of modern physics.
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To identify the major challenges facing physics and their implications for scientific progress.
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To study the fundamental concepts of quantum mechanics and their technological applications.
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To assess the role of relativity in the expansion of the universe and the structure of space-time.
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To explore the relationship between astrophysics and quantum mechanics in explaining cosmic phenomena.
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Apply knowledge of theoretical physics to solve complex and topical problems.
Table of Contents
TEACHING UNIT 1. THE BEGINNINGS OF ASTROPHYSICS. THE UNIVERSE IS IMMENSE
1. The beginnings of astrophysics. The universe is immense
TEACHING UNIT 2. MAJOR CHALLENGES IN PHYSICS. MAN AND THE COSMOS
1. Major challenges in physics. Mankind and the cosmos
2. Appendix. Calculating the entropy of a black hole. Hawking
TEACHING UNIT 3. RELATIVITY
1. Relativity
TEACHING UNIT 4. QUANTUM MECHANICS
1. Quantum mechanics
2. Appendix. A more detailed explanation of the Schrödinger wave