- 01Overview of Blackbody Radiation
- 02Core Concepts of Blackbody Radiation
- 03Examples and Applications of Blackbody Radiation
- 01Overview of Photoelectric Effect
- 02Core Concepts of Photoelectric Effect
- 03Examples and Applications of Photoelectric Effect
- 01Overview of Compton Effect
- 02Core Concepts of Compton Effect
- 03Examples and Applications of Compton Effect
- 01Overview of Wave Particle Dualism
- 02Core Concepts of Wave Particle Dualism
- 03Examples and Applications of Wave Particle Dualism
Online course Jane Doe234 topics ready English
Textbook of Engineering Physics
An in-depth guide to fundamental and modern physics designed for engineering students. It explores key topics such as Quantum Mechanics, Lasers, Superconductivity, and Nanotechnology through a balance of theoretical derivations and practical applications. The book features solved numerical problems and objective-type questions to enhance conceptual clarity.
17Chapters
78Lessons
234Topics
Certificate of completion included
Curriculum
The full table of contents.
Every chapter, every lesson, every topic — laid out before you enroll. Click any chapter to expand it.
- Chapters
- 17
- Lessons
- 78
- Topics
- 234
- 01Overview of 2.2 Heisenberg’s Uncertainty Principle and its Physical Significance
- 02Core Concepts of 2.2 Heisenberg’s Uncertainty Principle and its Physical Significance
- 03Examples and Applications of 2.2 Heisenberg’s Uncertainty Principle and its Physical Significance
- 01Overview of 2.3 Application of Uncertainty Principle
- 02Core Concepts of 2.3 Application of Uncertainty Principle
- 03Examples and Applications of 2.3 Application of Uncertainty Principle
- 01Overview of 2.4 Wave function, Properties and Physical Significance
- 02Core Concepts of 2.4 Wave function, Properties and Physical Significance
- 03Examples and Applications of 2.4 Wave function, Properties and Physical Significance
- 01Overview of 2.5 Probability Density and Normalization of Wave Function
- 02Core Concepts of 2.5 Probability Density and Normalization of Wave Function
- 03Examples and Applications of 2.5 Probability Density and Normalization of Wave Function
- 01Overview of 2.6 Setting up of a One Dimensional, Time Independent, Schrödinger Wave Equation
- 02Core Concepts of 2.6 Setting up of a One Dimensional, Time Independent, Schrödinger Wave Equation
- 03Examples and Applications of 2.6 Setting up of a One Dimensional, Time Independent, Schrödinger Wave Equation
- 01Overview of 2.7 Application of Schrödinger Wave Equation
- 02Core Concepts of 2.7 Application of Schrödinger Wave Equation
- 03Examples and Applications of 2.7 Application of Schrödinger Wave Equation
- 01Overview of 3.2 Properties of Metals
- 02Core Concepts of 3.2 Properties of Metals
- 03Examples and Applications of 3.2 Properties of Metals
- 01Overview of 3.3 Classical Free Electron Theory
- 02Core Concepts of 3.3 Classical Free Electron Theory
- 03Examples and Applications of 3.3 Classical Free Electron Theory
- 01Overview of 3.4 Quantum Free-electron Theory
- 02Core Concepts of 3.4 Quantum Free-electron Theory
- 03Examples and Applications of 3.4 Quantum Free-electron Theory
- 01Overview of 4.2 Dielectric Constant and Polarization of Dielectric Materials
- 02Core Concepts of 4.2 Dielectric Constant and Polarization of Dielectric Materials
- 03Examples and Applications of 4.2 Dielectric Constant and Polarization of Dielectric Materials
- 01Overview of 4.3 Types of Polarization
- 02Core Concepts of 4.3 Types of Polarization
- 03Examples and Applications of 4.3 Types of Polarization
- 01Overview of 4.4 Equation for Internal fields in Liquids and Solids
- 02Core Concepts of 4.4 Equation for Internal fields in Liquids and Solids
- 03Examples and Applications of 4.4 Equation for Internal fields in Liquids and Solids
- 01Overview of 4.5 Classius–Mussoti Equation
- 02Core Concepts of 4.5 Classius–Mussoti Equation
- 03Examples and Applications of 4.5 Classius–Mussoti Equation
- 01Overview of 4.6 Frequency dependence of dielectric constant
- 02Core Concepts of 4.6 Frequency dependence of dielectric constant
- 03Examples and Applications of 4.6 Frequency dependence of dielectric constant
- 01Overview of 4.7 Ferro and Piezo – electricity
- 02Core Concepts of 4.7 Ferro and Piezo – electricity
- 03Examples and Applications of 4.7 Ferro and Piezo – electricity
- 01Overview of 4.9 Classification of Magnetic Materials
- 02Core Concepts of 4.9 Classification of Magnetic Materials
- 03Examples and Applications of 4.9 Classification of Magnetic Materials
- 01Overview of 4.10 Hysteresis in Ferromagnetic Materials
- 02Core Concepts of 4.10 Hysteresis in Ferromagnetic Materials
- 03Examples and Applications of 4.10 Hysteresis in Ferromagnetic Materials
- 01Overview of 4.11 Soft and Hard Magnetic Materials
- 02Core Concepts of 4.11 Soft and Hard Magnetic Materials
- 03Examples and Applications of 4.11 Soft and Hard Magnetic Materials
- 01Overview of 5.2 Principle and Production of Laser
- 02Core Concepts of 5.2 Principle and Production of Laser
- 03Examples and Applications of 5.2 Principle and Production of Laser
- 01Overview of 5.3 He-Ne Laser
- 02Core Concepts of 5.3 He-Ne Laser
- 03Examples and Applications of 5.3 He-Ne Laser
- 01Overview of 5.4 Semiconductor Laser
- 02Core Concepts of 5.4 Semiconductor Laser
- 03Examples and Applications of 5.4 Semiconductor Laser
- 01Overview of 5.5 Applications of Laser
- 02Core Concepts of 5.5 Applications of Laser
- 03Examples and Applications of 5.5 Applications of Laser
- 01Overview of 5.6 Holography
- 02Core Concepts of 5.6 Holography
- 03Examples and Applications of 5.6 Holography
- 01Overview of 6.2 Types of Optical Fibers
- 02Core Concepts of 6.2 Types of Optical Fibers
- 03Examples and Applications of 6.2 Types of Optical Fibers
- 01Overview of 6.3 Propagation Mechanism in Optical Fibers
- 02Core Concepts of 6.3 Propagation Mechanism in Optical Fibers
- 03Examples and Applications of 6.3 Propagation Mechanism in Optical Fibers
- 01Overview of 6.4 Attenuation in Fibers
- 02Core Concepts of 6.4 Attenuation in Fibers
- 03Examples and Applications of 6.4 Attenuation in Fibers
- 01Overview of 6.5 Applications of Optical Fibers
- 02Core Concepts of 6.5 Applications of Optical Fibers
- 03Examples and Applications of 6.5 Applications of Optical Fibers
- 01Overview of 6.7 Effect of Magnetic Field
- 02Core Concepts of 6.7 Effect of Magnetic Field
- 03Examples and Applications of 6.7 Effect of Magnetic Field
- 01Overview of 6.9 High Temperature Superconductors
- 02Core Concepts of 6.9 High Temperature Superconductors
- 03Examples and Applications of 6.9 High Temperature Superconductors
- 01Overview of 6.10 Applications of Superconductors
- 02Core Concepts of 6.10 Applications of Superconductors
- 03Examples and Applications of 6.10 Applications of Superconductors
- 01Overview of 7.2 Space Lattice
- 02Core Concepts of 7.2 Space Lattice
- 03Examples and Applications of 7.2 Space Lattice
- 01Overview of 7.3 Crystal Systems
- 02Core Concepts of 7.3 Crystal Systems
- 03Examples and Applications of 7.3 Crystal Systems
- 01Overview of 7.4 Direction and Planes in a Crystal
- 02Core Concepts of 7.4 Direction and Planes in a Crystal
- 03Examples and Applications of 7.4 Direction and Planes in a Crystal
- 01Overview of 7.5 Co–ordination Number
- 02Core Concepts of 7.5 Co–ordination Number
- 03Examples and Applications of 7.5 Co–ordination Number
- 01Overview of 7.6 Atomic Packing Factor
- 02Core Concepts of 7.6 Atomic Packing Factor
- 03Examples and Applications of 7.6 Atomic Packing Factor
- 01Overview of 7.7 Bragg’s Law
- 02Core Concepts of 7.7 Bragg’s Law
- 03Examples and Applications of 7.7 Bragg’s Law
- 01Overview of 8.2 Nano-Materials
- 02Core Concepts of 8.2 Nano-Materials
- 03Examples and Applications of 8.2 Nano-Materials
- 01Overview of 8.3 Shapes of Nano-Materials
- 02Core Concepts of 8.3 Shapes of Nano-Materials
- 03Examples and Applications of 8.3 Shapes of Nano-Materials
- 01Overview of 8.4 Methods of Preparation of Nano-Materials
- 02Core Concepts of 8.4 Methods of Preparation of Nano-Materials
- 03Examples and Applications of 8.4 Methods of Preparation of Nano-Materials
- 01Overview of 8.5 Characterization
- 02Core Concepts of 8.5 Characterization
- 03Examples and Applications of 8.5 Characterization
- 01Overview of 8.6 Wonders of Nano-Technology
- 02Core Concepts of 8.6 Wonders of Nano-Technology
- 03Examples and Applications of 8.6 Wonders of Nano-Technology
- 01Overview of 8.7 Applications of Nanotechnology
- 02Core Concepts of 8.7 Applications of Nanotechnology
- 03Examples and Applications of 8.7 Applications of Nanotechnology
- 01Overview of 8.8 Ultrasonic Waves & Non-Destructive Testing of Materials
- 02Core Concepts of 8.8 Ultrasonic Waves & Non-Destructive Testing of Materials
- 03Examples and Applications of 8.8 Ultrasonic Waves & Non-Destructive Testing of Materials
- 01Overview of 8.9 Measurements of Velocity in Solids and Liquids
- 02Core Concepts of 8.9 Measurements of Velocity in Solids and Liquids
- 03Examples and Applications of 8.9 Measurements of Velocity in Solids and Liquids
- 01Overview of 4. Effect of potential at anode: The graph of photoelectric current and the voltage applied between -- 27 of 281 --
- 02Core Concepts of 4. Effect of potential at anode: The graph of photoelectric current and the voltage applied between -- 27 of 281 --
- 03Examples and Applications of 4. Effect of potential at anode: The graph of photoelectric current and the voltage applied between -- 27 of 281 --
- 01Overview of Phase Velocity
- 02Core Concepts of Phase Velocity
- 03Examples and Applications of Phase Velocity
- 01Overview of Group Velocity
- 02Core Concepts of Group Velocity
- 03Examples and Applications of Group Velocity
- 01Overview of 6.625 10 3 10 6.12
- 02Core Concepts of 6.625 10 3 10 6.12
- 03Examples and Applications of 6.625 10 3 10 6.12
- 01Overview of 3.34 10 J V e -- 43 of 281 --
- 02Core Concepts of 3.34 10 J V e -- 43 of 281 --
- 03Examples and Applications of 3.34 10 J V e -- 43 of 281 --
- 01Overview of 1.54 10 (1 cos180) 9.11 10 3
- 02Core Concepts of 1.54 10 (1 cos180) 9.11 10 3
- 03Examples and Applications of 1.54 10 (1 cos180) 9.11 10 3
- 01Overview of 9.25 10 / v m s The maximum wavelength of scattered X-ray is
- 02Core Concepts of 9.25 10 / v m s The maximum wavelength of scattered X-ray is
- 03Examples and Applications of 9.25 10 / v m s The maximum wavelength of scattered X-ray is
- 01Overview of 1.588 10l m , the kinetic energy of recoiling electron is
- 02Core Concepts of 1.588 10l m , the kinetic energy of recoiling electron is
- 03Examples and Applications of 1.588 10l m , the kinetic energy of recoiling electron is
- 01Overview of 9.11 10 4.52
- 02Core Concepts of 9.11 10 4.52
- 03Examples and Applications of 9.11 10 4.52
- 01Overview of 1.61 10 v m/s The velocity of the accelerated electron is
- 02Core Concepts of 1.61 10 v m/s The velocity of the accelerated electron is
- 03Examples and Applications of 1.61 10 v m/s The velocity of the accelerated electron is
- 01Overview of 6.625 10 1.25 2 . . 2 3.5 10 40
- 02Core Concepts of 6.625 10 1.25 2 . . 2 3.5 10 40
- 03Examples and Applications of 6.625 10 1.25 2 . . 2 3.5 10 40
- 01Overview of 6.625 10 1.51 10 / 3.5 10 1.25
- 02Core Concepts of 6.625 10 1.51 10 / 3.5 10 1.25
- 03Examples and Applications of 6.625 10 1.51 10 / 3.5 10 1.25
- 01Overview of Heisenberg's Uncertainty Principle
- 02Core Concepts of Heisenberg's Uncertainty Principle
- 03Examples and Applications of Heisenberg's Uncertainty Principle
- 01Overview of Quantum Measurement
- 02Core Concepts of Quantum Measurement
- 03Examples and Applications of Quantum Measurement
- 01Overview of Quantum Wells
- 02Core Concepts of Quantum Wells
- 03Examples and Applications of Quantum Wells
- 01Overview of Particle in a Box
- 02Core Concepts of Particle in a Box
- 03Examples and Applications of Particle in a Box
- 01Overview of 1.67 10 104.5 1.6
- 02Core Concepts of 1.67 10 104.5 1.6
- 03Examples and Applications of 1.67 10 104.5 1.6
- 01Overview of 3.76 10 2.35 1.6
- 02Core Concepts of 3.76 10 2.35 1.6
- 03Examples and Applications of 3.76 10 2.35 1.6
- 01Overview of 0.2 0.2 0.2 0.2
- 02Core Concepts of 0.2 0.2 0.2 0.2
- 03Examples and Applications of 0.2 0.2 0.2 0.2
- 01Overview of 20. The first excited state energy of a particle of mass m in a box of length L is given by (a) zero (b) h2/8ML2 (c)
- 02Core Concepts of 20. The first excited state energy of a particle of mass m in a box of length L is given by (a) zero (b) h2/8ML2 (c)
- 03Examples and Applications of 20. The first excited state energy of a particle of mass m in a box of length L is given by (a) zero (b) h2/8ML2 (c)
- 01Overview of 5.8 10 (1.6 10 ) 1.54
- 02Core Concepts of 5.8 10 (1.6 10 ) 1.54
- 03Examples and Applications of 5.8 10 (1.6 10 ) 1.54
- 01Overview of 1.6 10 2 3.98
- 02Core Concepts of 1.6 10 2 3.98
- 03Examples and Applications of 1.6 10 2 3.98
- 01Overview of 5.87 10 (1.6 10 ) 1.64
- 02Core Concepts of 5.87 10 (1.6 10 ) 1.64
- 03Examples and Applications of 5.87 10 (1.6 10 ) 1.64
- 01Overview of 3.7 10 s Mobility, is given by 19
- 02Core Concepts of 3.7 10 s Mobility, is given by 19
- 03Examples and Applications of 3.7 10 s Mobility, is given by 19
- 01Overview of Fermi-Dirac Statistics
- 02Core Concepts of Fermi-Dirac Statistics
- 03Examples and Applications of Fermi-Dirac Statistics
- 01Overview of Fermi Energy Calculations
- 02Core Concepts of Fermi Energy Calculations
- 03Examples and Applications of Fermi Energy Calculations
- 01Overview of 1.38 10
- 02Core Concepts of 1.38 10
- 03Examples and Applications of 1.38 10
- 01Overview of 9.915 10 E J 6.19 E eV The energy for which the probability of occupancy is 0.75 at 350 K is 6.19 eV. -- 90 of 281 --
- 02Core Concepts of 9.915 10 E J 6.19 E eV The energy for which the probability of occupancy is 0.75 at 350 K is 6.19 eV. -- 90 of 281 --
- 03Examples and Applications of 9.915 10 E J 6.19 E eV The energy for which the probability of occupancy is 0.75 at 350 K is 6.19 eV. -- 90 of 281 --
- 01Overview of Exponential Decay
- 02Core Concepts of Exponential Decay
- 03Examples and Applications of Exponential Decay
- 01Overview of Decay Constants
- 02Core Concepts of Decay Constants
- 03Examples and Applications of Decay Constants
01How many chapters are in the Textbook of Engineering Physics course?
The Textbook of Engineering Physics course has 17 chapters, each with its own lessons and topics.
02How many lessons are in the Textbook of Engineering Physics course?
There are 78 lessons across the course, and you can ask your 24/7 tutor about any of them.
03Can I see what the Textbook of Engineering Physics course covers before I start?
Yes. The full curriculum is listed on this page, beginning with "Solved Problems".
04Do I get a certificate for the Textbook of Engineering Physics course?
Yes. Finishing the course earns a personal Cavua certificate of completion.
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