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Physics
Condensed Matter and Materials Physics
Electron Microscopy
1. Fundamentals of Electron Microscopy
2. General Instrumentation of Electron Microscopes
3. Transmission Electron Microscopy
4. Scanning Electron Microscopy
5. Specimen Preparation
6. Analytical Electron Microscopy
7. Advanced and Specialized Techniques
8. Image Processing and Data Analysis
Analytical Electron Microscopy
Spectroscopy Techniques Overview
Analytical Methods Integration
Simultaneous Imaging and Analysis
Complementary Techniques
Spatial and Spectral Resolution
Probe Size Limitations
Detection Limits
Resolution Trade-offs
Energy-Dispersive X-ray Spectroscopy
Principles of X-ray Generation
Characteristic X-ray Production
Inner Shell Ionization
Electron Transitions
Continuum X-ray Generation
Bremsstrahlung Process
Energy Distribution
Detector Systems
Silicon Drift Detectors
Operating Principles
Performance Characteristics
Cooling Requirements
Si(Li) Detectors
Construction and Operation
Resolution and Count Rate
Maintenance Requirements
Qualitative Analysis
Peak Identification
X-ray Line Energies
Peak Overlap Resolution
Spectral Artifacts
Escape Peaks
Sum Peaks
System Peaks
Quantitative Analysis
Standardless Quantification
Theoretical Standards
Accuracy Limitations
Matrix Corrections
ZAF Corrections
Phi-Rho-Z Method
Thin Film Analysis
Cliff-Lorimer Method
Absorption Corrections
Elemental Mapping
Mapping Techniques
Spectrum Imaging
X-ray Maps
Data Processing
Background Subtraction
Peak Deconvolution
Data Interpretation
Spatial Resolution Considerations
Statistical Significance
Limitations and Artifacts
Light Element Detection
Beam Damage Effects
Contamination Issues
Wavelength-Dispersive X-ray Spectroscopy
Principles and Instrumentation
Crystal Diffraction for X-ray Selection
Bragg's Law Application
Crystal Spectrometer Design
Detector Systems
Gas Proportional Counters
Scintillation Detectors
Comparison with EDS
Resolution Advantages
Peak Separation Capability
Light Element Analysis
Sensitivity Considerations
Detection Limits
Count Rate Limitations
Applications in Microanalysis
Trace Element Detection
Light Element Quantification
High Precision Analysis
Electron Energy Loss Spectroscopy
Principles of Inelastic Scattering Measurement
Energy Loss Processes
Plasmon Excitation
Core Shell Ionization
Phonon Interactions
Cross-Section Considerations
Scattering Probability
Angular Dependence
EELS Spectrometer Design
Magnetic Prism Spectrometers
Dispersion Characteristics
Energy Resolution
Parallel Detection Systems
CCD Array Detectors
Electron Counting
Spectrum Analysis
Zero-Loss Peak
Instrumental Resolution
Energy Calibration
Low-Loss Region
Plasmon Analysis
Bulk Plasmons
Surface Plasmons
Band Gap Measurements
Dielectric Function Determination
Core-Loss Region
Elemental Identification
Ionization Edges
Edge Onset Determination
Chemical Information
Oxidation State Analysis
Bonding Environment
Fine Structure Analysis
ELNES Analysis
EXELFS Analysis
Energy-Filtered TEM
Imaging Modes
Zero-Loss Imaging
Inelastic Imaging
Elemental Mapping
Three-Window Method
Jump-Ratio Maps
Chemical Mapping
Core-Loss Maps
Plasmon Maps
Quantitative Analysis
Cross-Section Calculations
Background Subtraction
Plural Scattering Corrections
Limitations and Artifacts
Radiation Damage
Specimen Thickness Effects
Channeling Effects
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5. Specimen Preparation
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7. Advanced and Specialized Techniques