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Introduction to Modern Quantum Mechanics
Rating: 4.2 out of 5(23 ratings)
974 students

Introduction to Modern Quantum Mechanics

Dive into the captivating world of Modern Quantum Mechanics
Created byShivam Dangwal
Last updated 3/2024
English

What you'll learn

  • Learn about the Failure of Classical Mechanics
  • Learn about the development of Quantum Mechanics
  • Learn about the contributions of various scientists which led to the development of Quantum Mechanics
  • Understand the microscopic particles and De Broglie Hypothesis for matter waves
  • Learn about Schrodinger wave equation (time dependent and time independent)

Course content

1 section • 4 lectures • 1h 31m total length

  • Introduction to Modern Quantum Mechanics15:10

    Dive into the captivating world of Modern Quantum Mechanics with our Udemy course, created by Shivam Dangwal. Unravel the mysteries of quantum theory, guided by expert instruction and engaging visuals. Perfect for learners of all levels, discover the foundations and latest advancements in quantum physics, curated by an esteemed educator passionate about sharing the wonders of science.

  • Photoelectric Effect36:40

    In this lecture , you will learn the concepts of Photoelectric effect .

    • Emission of electrons from Metal surface ( Methods)

    • Work Function of Metal

    • Einstein's Photoelectric equation (1905)

    • Threshold Frequency

    • Threshold Wavelength

  • Experimental Setup for Photoelectric Effect (SIMULATION)13:04

    This experimental setup was investigated by Wilhelm Hallwachs and Philipp Lenard during 1886-1902. Their observations are explained in the simulation and the theoretical aspect of the video ( Time stamp - 7:20 ). Photoelectric emission :

    The photoelectric effect is the emission of electrons when electromagnetic radiation, such as light, strikes a material.

    The four laws of photoelectric emission:

    1.The velocity of electrons emitted is independent of the intensity of light and depends only upon the frequency (or wavelength) of the incident light.

    2.Photoelectric current (or the number of photoelectrons ejected per second) is proportional to the intensity of incident light.

    3.For a given metal, there exists a certain minimum frequency below which the emission of electrons stops completely. This frequency is called the threshold frequency.

    4.Photoelectric emission is an instantaneous process. So, there is no time logging between the incident of light and the emission of electrons.

  • Schrödinger equation EXPLAINED !!26:53

    The Schrodinger equation gives us a detailed account of the form of the wave functions or probability waves that control the motion of some smaller particles.

    The equation also describes how these waves are influenced by external factors. Moreover, the equation makes use of the energy conservation concept that offers details about the behaviour of an electron that is attached to the nucleus.

    In this video , Shivam Dangwal has explained the concept :

    • Wave function as a fluctuating parameter for matter waves

    • Energy operator

    • Momentum Operator

    • Schrödinger equation

    • Time Dependent Schrödinger wave equation

    • Time Independent Schrödinger wave equation

    • Applications of Schrödinger equation ( Qualitative Idea only

Requirements

  • Basic Classical Physics Knowledge is required to compare and contrast with the Quantum World

Description

Dive into the captivating world of Modern Quantum Mechanics with our Udemy course, created by Shivam Dangwal. Unravel the mysteries of quantum theory, guided by expert instruction and engaging visuals. Perfect for learners of all levels, discover the foundations and latest advancements in quantum physics, curated by an esteemed educator passionate about sharing the wonders of science.

Learning Outcomes:

1. Gain a comprehensive understanding of the foundational principles of Modern Quantum Mechanics, including wave-particle duality, superposition, and uncertainty.

2. Master the mathematical tools and techniques essential for solving quantum mechanical problems, from Schrödinger's equation to matrix mechanics.

3. Explore advanced topics such as quantum entanglement, quantum computing, and quantum teleportation, and understand their implications in contemporary science and technology.

4. Develop critical thinking skills through practical applications and problem-solving exercises, enabling you to analyze and interpret quantum phenomena with confidence.

5. Acquire insights into the latest developments and research trends in quantum physics, preparing you to engage with cutting-edge concepts and contribute to the field's ongoing advancements.

6. Enhance your conceptual grasp of quantum mechanics through interactive simulations and real-world examples, fostering a deeper appreciation for the intricacies of quantum phenomena.

7. Cultivate a strong foundation in quantum theory that can be applied across various disciplines, from physics and engineering to computer science and beyond, empowering you to tackle complex challenges and drive innovation in your field.

Who this course is for:

  • Beginner curious to know about Introduction to Quantum Mechanics

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