
Quantum Mechanics for Applied Nanotechnology
For Engineers and Material ScientistsBy Marcus LawnLength18h 19m
About this audiobook
Quantum mechanics as a working engineering tool — not a historical tour.
A gate dielectric leaks far more current than any classical model predicts. A batch of nanocrystals shifts color when the synthesis runs two minutes long. A narrow constriction conducts in steps instead of a smooth curve. At the nanoscale the old rules quietly stop working, and the engineer who has to explain the result needs quantum mechanics as a practical instrument — with enough rigor to be trusted when a design depends on it.
Quantum Mechanics for Applied Nanotechnology is a complete, self-contained course written for people who build, characterize, and model things at the nanoscale. It assumes calculus, differential equations, linear algebra, and introductory physics — and no previous exposure to quantum mechanics. Twenty-three chapters take you from matter waves and the Schrödinger equation through perturbation theory, spin, identical particles, band theory, density operators, and open quantum systems, then put that machinery to work on heterostructures, quantum cascade lasers, spintronic memory, high-electron-mobility transistors, molecular junctions, qubits, and quantum sensors.
Every topic opens with something observable — the size-tuned glow of a quantum dot, the exponential current–distance curve of a tunneling microscope, the decoherence of a qubit — and the theory is developed only as deeply as that question requires. Then the book returns to the device with numbers.
Inside the book
• Twenty-three chapters in six parts, from matter waves to quantum technologies
• Worked examples in every section using real material parameters — GaAs, silicon, InAs, GaN, CdSe, graphene, MoS2 — with units carried through every step
• Guided exercises placed beside the text they support, so rigorous readers can verify every derivation while the main narrative stays fluent
• Engineering Insight notes linking the physics to fabrication tolerances, device performance, metrology, and reliability
• Key Results summaries plus conceptual, derivation, and design problems closing every chapter
• More than forty figures, each computed directly from the equations in the text
• Appendices of physical constants, a mathematical toolkit, representative materials data, and further reading
Who it is for
Electrical, mechanical, chemical, and materials engineers entering nanotechnology, semiconductor devices, photonics, or quantum technology. Advanced undergraduates and first-year graduate students who need a first course that is rigorous and practical at once. Researchers who want a clear route from the postulates of quantum mechanics to the models used in device simulation and materials design.
Quantum mechanics has a reputation for strangeness. For the engineer, its most important property is reliability: the same few principles predict the color of a nanocrystal, the leakage of a gate, the conductance of a molecule, and the lifetime of a qubit. This book makes those principles yours.
Scroll up and click Add to Cart to start building with the physics that actually governs the nanoscale.
Audiobook details
GenreScience and Nature, Technology
Length18 hrs 19 mins
Narrated byListen with 1,000+ voices
FormateBook with Audio
Publish dateSep 16, 2026
LanguageEnglish
Table of contents
1Foreword
2Preface
3About This Book
4Part I: Foundations: Why the Nanoscale Is Quantum
5Chapter 1: The Engineer’s Entry into the Quantum World
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61.1 When Classical Models Fail at the Nanoscale
71.2 Matter Waves and the de Broglie Wavelength
81.3 Scales of Length, Energy, and Time
91.4 Quantum Mechanics as an Engineering Design Tool
10Chapter 2: Wave Functions and Probability
112.1 The Wave Function as the State of a System
122.2 Probability Density and Normalization
132.3 Expectation Values and Measurement Statistics
142.4 Superposition and Interference
15Chapter 3: Operators and Observables
163.1 Physical Observables as Operators
173.2 Eigenvalue Equations and Measurement Outcomes
183.3 Hermitian Operators and Real Measurements
193.4 Commutators and the Uncertainty Principle
20Chapter 4: The Schrödinger Equation
214.1 The Time-Dependent Schrödinger Equation
224.2 Stationary States and the Time-Independent Equation
234.3 Boundary Conditions and Interfaces in Materials
244.4 Free Particles and Wave Packets
254.5 Solving the Schrödinger Equation Numerically
26Part II: Confinement, Tunneling, and Engineered Potentials
27Chapter 5: Energy Quantization and the Quantum Size Effect
285.1 The Particle in an Infinite Well
295.2 The Quantum Size Effect in Nanocrystals
305.3 The Particle on a Ring
315.4 Wells, Wires, and Dots in Three Dimensions
325.5 Density of States from Bulk to Quantum Dot
33Chapter 6: Finite Wells, Heterostructures, and Wave Function Penetration
346.1 The Finite Square Well
356.2 Semiconductor Heterostructures and Band Alignment
366.3 Effective Mass and the Envelope Function Picture
376.4 Double Quantum Wells and Tunnel Coupling
386.5 Superlattices and Minibands
39Chapter 7: Tunneling and Scattering
407.1 Probability Current and the Continuity Equation
417.2 Reflection and Transmission at a Potential Step
427.3 Tunneling Through a Rectangular Barrier
437.4 The WKB Approximation and Field Emission
447.5 Scanning Tunneling Microscopy
457.6 Resonant Tunneling Diodes
46Chapter 8: Transfer Matrices and the Design of Multilayer Structures
478.1 The Transfer Matrix Formalism
488.2 Arbitrary Potential Profiles and Applied Bias
498.3 From Transmission to Current: The Tsu–Esaki Formula
508.4 Engineering Multilayers: Filters, Detectors, and Cascade Lasers