1. Introduction
1.1. Phototransferred thermoluminescence
1.2. Thermoluminescence
1.3. Models of thermoluminescence
1.4. Calculational methods
1.5. Defects and disorder in solids
1.6. Non-radiative transitions
1.7. Overview
2. Experimental methods
2.1. Introduction
2.2. Conventional thermoluminescence : BeO as an exemplar
2.3. Preparatory measurements for PTTL
2.4. Identification of donor and acceptor electron traps by pulse annealing
2.5. Key steps for PTTL measurement
3. Analytical methods
3.1. Introduction
3.2. Kinetics model
3.3. Phenomenological model
3.4. Vector fields
3.5. Simulation
3.6. Stability
3.7. Quantifying the role of donor electron traps
3.8. Influence of stimulation temperature on PTTL intensity
3.9. Definition of PTTL
3.10. Summary
4. Synthetic materials
4.1. Synthetic quartz
4.2. Annealed synthetic quartz
4.3. [alpha]-Al2O3:C
4.4. BeO
4.5. Al2O3:Cr
4.6. Al2O3:C,Mg
4.7. Summary
5. Natural materials
5.1. Quartz
5.2. Tanzanite
5.3. CaF2
5.4. Calcite
6. Other materials of interest
6.1. Fluorapatite
6.2. Obsidian
6.3. CaSO4: Mg
6.4. KCl
6.5. Microcline
6.6. SrAl2O4:Eu2+,Dy3+
6.7. Selected applications
6.8. Summary.