Chapter 1 Introduction
Chapter 2 Basic Theory of Nonlinear Optics
2.1 Classical electromagnetic theory of nonlinear optics
2.1.1 Measurement of nonlinear optical processes
2.1.2 Nonlinearly induced polarization effect of optical media
2.1.3 Tensor representation of nonlinear polarization
2.1.4 Rotational symmetry of nonlinear polarizability tensor elements
2.1.5 Time reversal symmetry of polarization rate
2.2 Quantum theory and method of nonlinear optics
2.2.1 Density matrix
2.2.2 Timedependent density matrix
2.2.3 The tensor and properties of the polarizability of the independent molecular system
2.2.4 The tensor and properties of the polarizability of the molecular system with intermolecular interaction
2.2.5 Resonanceenhanced polarizability
2.2.6 Calculation method of nonlinear polarizability by higher order derivative
2.2.7 Nonlinear polarizability by sumoverstate method
2.3 Common nonlinear optical processes
2.3.1 Second harmonic generation
2.3.2 Sum frequency generation
2.3.3 Raman amplification
2.3.4 Fourwave mixing
Chapter 3 The Principle, Application and Imaging of CARS
3.1 Principles of CARS
3.1.1 Mechanism of CARS signal generation
3.1.2 CARS optical configuration
3.2 Biomedical imaging of CARS
3.3 Materials imaging of CARS
3.3.1 CARS image for porous carbon
3.3.2 CARS image for graphene
Chapter 4 The Principle, Application and Imaging of SRS
4.1 Principles of SRS
4.1.1 Quantum theory of SRS
4.1.2 Instrumentation of SRS
4.2 Biomedical imaging
4.2.1 SRS imaging of hela cells
4.2.2 SRS detection and diagnosis of the boundary of glioma
4.2.3 SRS imaging of laryngeal cancer
4.3 Material composition analysis
Chapter 5 The Principle, Application and Imaging of SHG
5.1 Principles of SHG
5.2 Biomedical imaging of SHG
5.2.1 Collagen
5.2.2 SHG imaging for elastic arteries
5.2.3 SHG imaging for snail
……
Chapter 6 The Principle, Application and Imaging of TPEF
Chapter 7 The Principle, Application and Imaging of STED
Chapter 8 PlasmonEnhanced Nonlinear Spectroscopy
Bibliography
Acknowledgement
Indexes