Understand the historical development of quantum theory and why classical physics could not explain certain phenomena.
Learn about fundamental concepts such as wave–particle duality, quantization of energy, and the uncertainty principle.
Explore the structure of the atom, including electron orbitals and quantum numbers.
Study key experiments (e.g., double-slit experiment, photoelectric effect) that shaped modern physics.
Understand Schrödinger’s equation and its role in describing quantum systems (at an introductory level).
Explore the concept of superposition and quantum states.
Learn about probability distributions and the interpretation of the wavefunction.
Discover applications of quantum mechanics in technology, such as semiconductors, lasers, and quantum computing.
Develop problem-solving skills using simplified quantum models (particle in a box, hydrogen atom).
Connect quantum principles to real-world scientific and technological advancements.
Historical development, wave–particle duality, quantization of energy, uncertainty principle, and Schrödinger’s equation.
Atom models (orbitals, quantum numbers), double-slit experiment, photoelectric effect, and concepts like superposition and wavefunction probability.
Problem-solving with quantum models, and modern applications in semiconductors, lasers, quantum computing, and scientific advancements.
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