Log in to access more pages.
Create an account or log in to continue reading more pages.
Log in
Table of contents
Quantum Sensing: Principles, Platforms, and Frontiers
A graduate-level path from quantum measurement foundations to state-of-the-art sensing technologies and research literature
Read each section in order. Every title can be opened as a TheoryTrace document.
- Cover1
- Copyright2
- How to read this book3
- Introduction4
- Chapter 1: What Quantum Sensing Measures5
- Chapter 2: Historical Foundations and Landmark Experiments6
- Chapter 3: Quantum States, Dynamics, and Open Systems7
- Chapter 4: Classical Estimation Theory for Sensor Design8
- Chapter 5: Quantum Measurement and Readout9
- Chapter 6: Quantum Parameter Estimation and Quantum Fisher Information10
- Chapter 7: Sensitivity Limits: SQL, Heisenberg Scaling, and Practical Bounds11
- Chapter 8: Coherence Control, Dynamical Decoupling, and Noise Spectroscopy12
- Chapter 9: Interferometric Quantum Sensors13
- Chapter 10: Atomic Clocks and Precision Frequency Metrology14
- Chapter 11: Magnetometry with Atomic Vapors and Ensembles15
- Chapter 12: Solid-State Spin Sensors and Nitrogen-Vacancy Centers16
- Chapter 13: Superconducting Quantum Sensors17
- Chapter 14: Optomechanical and Nanomechanical Quantum Sensors18
- Chapter 15: Quantum Optical Sensing and Imaging19
- Chapter 16: Entanglement, Squeezing, and Many-Body Quantum Sensors20
- Chapter 17: Quantum Sensing with Trapped Ions, Rydberg Atoms, and Neutral Atoms21
- Chapter 18: Quantum Sensing in Biology, Chemistry, and Materials Science22
- Chapter 19: Data Analysis, Inference, and Machine Learning for Quantum Sensors23
- Chapter 20: Engineering Real Quantum Sensors24
- Chapter 21: Current High-Impact Literature and Research Frontiers25
- Chapter 22: Open Problems and Future Directions26
- Conclusion27