高等物理化學(二)

1. The characteristics of electronic transitions 2. The fates of electronically excited states 3. Lasers 4. Electronic spectroscopy 5. Vibronic spectroscopy 6. Photoionization spectrscopy 7. Photoelectron spectroscopy

1. The characteristics of electronic transitions 2. The fates of electronically excited states 3. Lasers 4. Electronic spectroscopy 5. Vibronic spectroscopy 6. Photoionization spectrscopy 7. Photoelectron spectroscopy

1. The characteristics of electronic transitions 2. The fates of electronically excited states 3. Lasers 4. Electronic spectroscopy 5. Vibronic spectroscopy 6. Photoionization spectrscopy 7. Photoelectron spectroscopy

Introduction to NMR Spectroscopy 1. Background and History of NMR Spectroscopy 2. Fundamental NMR: Theories and Introduction 3. High-resolution and Solid-State NMR: Techniques and Applications

Introduction to NMR Spectroscopy 1. Background and History of NMR Spectroscopy 2. Fundamental NMR: Theories and Introduction 3. High-resolution and Solid-State NMR: Techniques and Applications

Introduction to NMR Spectroscopy 1. Background and History of NMR Spectroscopy 2. Fundamental NMR: Theories and Introduction 3. High-resolution and Solid-State NMR: Techniques and Applications

Introduction to NMR Spectroscopy 1. Background and History of NMR Spectroscopy 2. Fundamental NMR: Theories and Introduction 3. High-resolution and Solid-State NMR: Techniques and Applications

Statistical thermodynamics: concepts and applications 1. Distribution of molecular states 2. Internal energy and entropy 3. Canonical partition function 4. Thermodynamics of diffusion 5. Thermodynamics of biological membrane dynamics 6. Optical microscopy in studying membrane diffusion I 7. Optical microscopy in studying membrane diffusion II

Statistical thermodynamics: concepts and applications 1. Distribution of molecular states 2. Internal energy and entropy 3. Canonical partition function 4. Thermodynamics of diffusion 5. Thermodynamics of biological membrane dynamics 6. Optical microscopy in studying membrane diffusion I 7. Optical microscopy in studying membrane diffusion II

Statistical thermodynamics: concepts and applications 1. Distribution of molecular states 2. Internal energy and entropy 3. Canonical partition function 4. Thermodynamics of diffusion 5. Thermodynamics of biological membrane dynamics 6. Optical microscopy in studying membrane diffusion I 7. Optical microscopy in studying membrane diffusion II

Statistical thermodynamics: concepts and applications 1. Distribution of molecular states 2. Internal energy and entropy 3. Canonical partition function 4. Thermodynamics of diffusion 5. Thermodynamics of biological membrane dynamics 6. Optical microscopy in studying membrane diffusion I 7. Optical microscopy in studying membrane diffusion II

Statistical thermodynamics: concepts and applications 1. Distribution of molecular states 2. Internal energy and entropy 3. Canonical partition function 4. Thermodynamics of diffusion 5. Thermodynamics of biological membrane dynamics 6. Optical microscopy in studying membrane diffusion I 7. Optical microscopy in studying membrane diffusion II

Statistical thermodynamics: concepts and applications 1. Distribution of molecular states 2. Internal energy and entropy 3. Canonical partition function 4. Thermodynamics of diffusion 5. Thermodynamics of biological membrane dynamics 6. Optical microscopy in studying membrane diffusion I 7. Optical microscopy in studying membrane diffusion II

1. Molecular interactions—Molecular properties that underlie intermolecular interactions and the effects of these interactions will be introduced. 2. Macromolecules and aggregates— Techniques used in the study of molecular size and shape will first be introduced; and will then explore dynamic structures and properties of macromolecules and their aggregates.

1. Molecular interactions—Molecular properties that underlie intermolecular interactions and the effects of these interactions will be introduced. 2. Macromolecules and aggregates— Techniques used in the study of molecular size and shape will first be introduced; and will then explore dynamic structures and properties of macromolecules and their aggregates.

1. Molecular interactions—Molecular properties that underlie intermolecular interactions and the effects of these interactions will be introduced. 2. Macromolecules and aggregates— Techniques used in the study of molecular size and shape will first be introduced; and will then explore dynamic structures and properties of macromolecules and their aggregates.

1. Molecular interactions—Molecular properties that underlie intermolecular interactions and the effects of these interactions will be introduced. 2. Macromolecules and aggregates— Techniques used in the study of molecular size and shape will first be introduced; and will then explore dynamic structures and properties of macromolecules and their aggregates.

1. Molecular interactions—Molecular properties that underlie intermolecular interactions and the effects of these interactions will be introduced. 2. Macromolecules and aggregates— Techniques used in the study of molecular size and shape will first be introduced; and will then explore dynamic structures and properties of macromolecules and their aggregates.