Compound semiconductor bulk materials and characterizations. Volume 2 /
Annotation
Clasificación: | Libro Electrónico |
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Autor principal: | |
Formato: | Electrónico eBook |
Idioma: | Inglés |
Publicado: |
Singapore ; London :
World Scientific,
©2012.
|
Colección: | Compound semiconductor bulk materials and characterizations ;
v. 2 |
Temas: | |
Acceso en línea: | Texto completo |
Tabla de Contenidos:
- PREFACE; CONTENTS; PART 4 OTHER COMPOUND SEMICONDUCTOR MATERIALS; 19. III-V MIXED CRYSTALS; 19.1 INTRODUCTION; 19.2 PHYSICAL PROPERTIES; 19.3 CRYSTAL GROWTH; 19.3.1 In1-x GaxP; 19.3.2 ln1-x GaxAs; 19.3.3 In1-x GaxSb; 19.3.4 InP l-xAsx; 19.3.5 GaAs1-xP x; 19.3.6 A1Ga1-x, Asx; 19.3. 7 InSb1-xBix; 19.3.8 Quaternary III-V Mixed Crystals; 19.4 APPLICATIONS; REFERENCES; 20. NITRIDE AND OTHER III-V COMPOUNDS; 20.1 INTRODUCTION; 20.2 PHYSICAL PROPERTIES; 20.3 CRYSTAL GROWTH; 20.3.1 Boron Nitride; 20.3.2 Aluminum Nitride; (1) Melt growth; (2) Solution growth; (3) Vapor phase growth.
- Physical Vapor Transport (PVT) method- Other vapor phase growth methods; (4) Metal Organic Chemical Vapor Deposition (MOCVD); (5) Hydride Vapor Phase Epitaxy (HVPE); (6) Other growth methods; 20.3.3 Gallium Nitride; (1) Melt growth; (2) Solution growth;
- High Pressure Solution Growth (HP-SG); -Pressure-Controlled Solution Growth (PC-SG) method;
- Flux method;
- Ammonothermal method;
- Other solution growth methods; (3) Vapor phase growth;
- Physical Vapor Transport (PVT) method;
- Reaction of Ga with NH3;
- Reaction of Ga with activated nitrogen; (4) Hydride Vapor Phase Epitaxy (HVPE).
- Sapphire- NdGa03 (NGO);
- GaAs; -SiC;
- Si;
- GaN; -Oxides; (5) Others; 20.3.4 Indium Nitride (InN); 20.3.5 Other III-V Compounds; 20.4 CHARACTERIZATION; 20.4.1 Purity; (1) BN; (2) AIN; (3) GaN; 20.4.2 Defects; (1) Dislocations; -BN; -AIN;
- GaN; (2) Structural defects; -BN; -AIN;
- GaN; (3) Point defects; -BN; -AIN;
- GaN; (i) Vacancies; (ii) Divacancies; (iii) Interstitials; (iv) Antisite defects; (v) Complex defects; (4) Deep levels; -AIN;
- GaN; (i) n-type GaN; (ii) p-type; (iii) Semi-insulating (SI); (iv) Fe and Cr doping; 20.4.3 Electrical Properties; (l)BN; (2) AIN; (3) GaN; (4) InN.
- 20.4.4 Optical Properties(1) BN; (2) AIN; (3) GaN; 20.5 APPLICATIONS; 20.5.1 Substrates for Devices; (1) BN; (2) AlN; (3) GaN; 20.5.2 Light Emitting Diodes (LEDs); (1) Red LEDs; (2) Green LEDs; (3) Blue and violet LEDs; (4) White LEDs; (5) Violet and ultraviolet (UV) LEDs; 20.5.2 Lasers; (1) Blue and violet LDs; (2) Ultraviolet (UV) LDs; (3) Green LDs; 20.5.3 Detectors; 20.5.4 Electronic devices; 20.5.5 Field emitters; REFERENCES; 21. ZnO; 21.1 INTRODUCTION; 21.2 PHYSICAL PROPERTIES; 21.3 CRYSTAL GROWTH; 21.3.1 Melt Growth; 21.3.2 Solution Growth; (1) Flux method; (2) Hydrothermal method.
- 21.3.3 Vapor Phase Growth(I) Vapor reaction; (2) Chemical Vapor Transport (CVT); (3) Chemical Vapor Deposition (CVD); 21.4 CHARACTERIZATION; 21.4.1 Purity; 21.4.2 Defects; (1) Dislocations; (2) Structural defects; (3) Nonstoichiometry; (4) Native defects; 21.4.3 Electrical Properties; 21.4.4 Optical Properties; (1) Edge emission; (2) Impurities; (3) Native defects; (4) Polishing; (5) Polar surfaces; 21.5 APPLICATIONS; 21.5.1 Substrates; 21.5.2 Scintillators; 21.5.3 Light Emitting Diodes (LEDs); 21.5.4 Laser Diodes (LDs); 21.5.5 Photodiodes; REFERENCES; 22. MERCURY COMPOUNDS; 22.1 INTRODUCTION.