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Providing a clear distinction between classical and quantum logic, this unique introductory quantum mechanics text provides concepts and problem solving techniques with an active, learning-based approach.
Providing a clear distinction between classical and quantum logic, this unique introductory quantum mechanics text provides concepts and problem solving techniques with an active, learning-based approach.
Produktdetails
- Produktdetails
- Verlag: Taylor & Francis Ltd
- Seitenzahl: 260
- Erscheinungstermin: 25. Juni 2024
- Englisch
- Abmessung: 254mm x 178mm
- Gewicht: 480g
- ISBN-13: 9781032652443
- ISBN-10: 1032652446
- Artikelnr.: 70113427
- Verlag: Taylor & Francis Ltd
- Seitenzahl: 260
- Erscheinungstermin: 25. Juni 2024
- Englisch
- Abmessung: 254mm x 178mm
- Gewicht: 480g
- ISBN-13: 9781032652443
- ISBN-10: 1032652446
- Artikelnr.: 70113427
Dr. Shabnam Siddiqui is a research assistant professor at Louisiana Tech University, LA. She teaches physics and conducts research for developing electrochemical microsensors using carbon nanomaterials. She applies active learning approaches for teaching physics courses and focuses on developing new methods for learning physics, and quantum mechanics. Dr. Siddiqui studies properties of carbon nanomaterials for attaining reliable and real-time sensing. She has authored over 20 peer reviewed journal papers. She earned a PhD in physics in quantum computing and quantum information in 2006 from the University of Arkansas at Fayetteville, AR. Dr. Siddiqui received postdoctoral training at NASA Ames Research Center, CA, and the University of Pittsburgh, PA. She had also worked at Advanced Diamond Technologies, IL prior to joining Louisiana Tech.
Electromagnetic radiation behaving as particle. Blackbody Radiation. The
Photoelectric effect. X-Rays. Particles behaving as wave: concept of matter
waves. De Broglie's matter waves. Double-slit Experiment. Heisenberg's
Uncertainty Principle. Measurement and Observation. Wave Mechanics:
Schrodinger's wave equation of a particle. The Schrodinger equation.
Stationary states. Expectation values, Uncertainties and operators.
Particle-Wave propagation (wavepacket, phase and group velocities).
Differences between quantum mechanics and classical mechanics. Wave
Mechanics: Schrodinger's wave equation of a particle- II. Particle in a
box-The infinite square well. The finite square well. The free-particle.
The potential step. The potential barrier and tunneling. Matrix Mechanics:
Formalism. Matrix Algebra. Transformation theory. Matrix theory of the
harmonic oscillator. Equation of motion using matrix mechanics. Differences
between matrix mechanics and wave equation approaches. Quantum Mechanics in
Three Dimensions and the Hydrogen Atom. The Schrodinger Equation in Three
Dimensions. The 3D Infinite well. Energy Quantization and Spectral Lines in
Hydrogen Atom. The Schrodinger Equation for a Central Force. Quantum
Mechanics in three dimensions - II. Applications of Quantum Mechanics
Photoelectric effect. X-Rays. Particles behaving as wave: concept of matter
waves. De Broglie's matter waves. Double-slit Experiment. Heisenberg's
Uncertainty Principle. Measurement and Observation. Wave Mechanics:
Schrodinger's wave equation of a particle. The Schrodinger equation.
Stationary states. Expectation values, Uncertainties and operators.
Particle-Wave propagation (wavepacket, phase and group velocities).
Differences between quantum mechanics and classical mechanics. Wave
Mechanics: Schrodinger's wave equation of a particle- II. Particle in a
box-The infinite square well. The finite square well. The free-particle.
The potential step. The potential barrier and tunneling. Matrix Mechanics:
Formalism. Matrix Algebra. Transformation theory. Matrix theory of the
harmonic oscillator. Equation of motion using matrix mechanics. Differences
between matrix mechanics and wave equation approaches. Quantum Mechanics in
Three Dimensions and the Hydrogen Atom. The Schrodinger Equation in Three
Dimensions. The 3D Infinite well. Energy Quantization and Spectral Lines in
Hydrogen Atom. The Schrodinger Equation for a Central Force. Quantum
Mechanics in three dimensions - II. Applications of Quantum Mechanics
Electromagnetic radiation behaving as particle. Blackbody Radiation. The
Photoelectric effect. X-Rays. Particles behaving as wave: concept of matter
waves. De Broglie's matter waves. Double-slit Experiment. Heisenberg's
Uncertainty Principle. Measurement and Observation. Wave Mechanics:
Schrodinger's wave equation of a particle. The Schrodinger equation.
Stationary states. Expectation values, Uncertainties and operators.
Particle-Wave propagation (wavepacket, phase and group velocities).
Differences between quantum mechanics and classical mechanics. Wave
Mechanics: Schrodinger's wave equation of a particle- II. Particle in a
box-The infinite square well. The finite square well. The free-particle.
The potential step. The potential barrier and tunneling. Matrix Mechanics:
Formalism. Matrix Algebra. Transformation theory. Matrix theory of the
harmonic oscillator. Equation of motion using matrix mechanics. Differences
between matrix mechanics and wave equation approaches. Quantum Mechanics in
Three Dimensions and the Hydrogen Atom. The Schrodinger Equation in Three
Dimensions. The 3D Infinite well. Energy Quantization and Spectral Lines in
Hydrogen Atom. The Schrodinger Equation for a Central Force. Quantum
Mechanics in three dimensions - II. Applications of Quantum Mechanics
Photoelectric effect. X-Rays. Particles behaving as wave: concept of matter
waves. De Broglie's matter waves. Double-slit Experiment. Heisenberg's
Uncertainty Principle. Measurement and Observation. Wave Mechanics:
Schrodinger's wave equation of a particle. The Schrodinger equation.
Stationary states. Expectation values, Uncertainties and operators.
Particle-Wave propagation (wavepacket, phase and group velocities).
Differences between quantum mechanics and classical mechanics. Wave
Mechanics: Schrodinger's wave equation of a particle- II. Particle in a
box-The infinite square well. The finite square well. The free-particle.
The potential step. The potential barrier and tunneling. Matrix Mechanics:
Formalism. Matrix Algebra. Transformation theory. Matrix theory of the
harmonic oscillator. Equation of motion using matrix mechanics. Differences
between matrix mechanics and wave equation approaches. Quantum Mechanics in
Three Dimensions and the Hydrogen Atom. The Schrodinger Equation in Three
Dimensions. The 3D Infinite well. Energy Quantization and Spectral Lines in
Hydrogen Atom. The Schrodinger Equation for a Central Force. Quantum
Mechanics in three dimensions - II. Applications of Quantum Mechanics