Electronics › Transistors and Amplifiers

Semiconductor Materials and Devices

The course 'Semiconductor Materials and Devices' covers the fundamental principles and advanced concepts of semiconductors, including their structure, properties, and applications in various devices. After completing these 100 lessons, learners will have a comprehensive understanding of semiconductor materials and devices, enabling them to design, analyze, and develop innovative electronic systems. For example, they can design a simple amplifier using a bipolar junction transistor, taking into account factors such as biasing, load line analysis, and small signal modeling. By mastering these concepts, learners can pursue careers in electronics engineering, semiconductor research, and device development, contributing to the advancement of modern technology.

Мини-план уроков · 100 уроков

Начальный · уроки 1–25

1. Crystal Structure of Semiconductors
2. Atomic Bonding in Semiconductors
3. Energy Bands and Bandgap
4. Intrinsic Semiconductor Properties
5. Charge Carriers in Semiconductors
6. Electron and Hole Concept
7. Carrier Concentration Calculation
8. Temperature Effects on Semiconductors
9. Doping and Impurities Introduction
10. Donor and Acceptor Atoms
11. N-type Semiconductor Formation
12. P-type Semiconductor Formation
13. Carrier Mobility and Conductivity
14. Semiconductor Resistivity Basics
15. Generation and Recombination Processes
16. Semiconductor Carrier Lifetime
17. Fermi Level Concept in Semiconductors
18. Fermi Level Shifts with Doping
19. Semiconductor Conductivity Types
20. Basic Semiconductor Measurement Techniques
21. Ohm’s Law in Semiconductors
22. Semiconductor Material Purity Effects
23. Basic Semiconductor Device Symbols
24. Simple PN Junction Formation
25. PN Junction Equilibrium Conditions

Средний · уроки 26–50

26. PN Junction Forward Bias Behavior
27. PN Junction Reverse Bias Behavior
28. Depletion Region Characteristics
29. Junction Capacitance Concepts
30. Current-Voltage Characteristics of Diodes
31. Diode Ideal and Real Models
32. Zener Diode Operation Principles
33. Light Emitting Diode Fundamentals
34. Photodiode Operation and Applications
35. Bipolar Junction Transistor Structure
36. BJT Operation Modes
37. BJT Current Components
38. BJT Input and Output Characteristics
39. BJT Amplification Principles
40. Field Effect Transistor Basics
41. JFET Structure and Operation
42. MOSFET Structure and Operation
43. Threshold Voltage in MOSFETs
44. MOSFET I-V Characteristics
45. Transistor Biasing Techniques
46. Load Line Analysis for BJTs
47. Small Signal Model of BJTs
48. Small Signal Model of MOSFETs
49. Transistor Switching Behavior
50. Basic Amplifier Configurations

Продвинутый · уроки 51–75

51. Advanced PN Junction Physics
52. Junction Breakdown Mechanisms
53. Carrier Transport Models
54. Recombination-Generation Centers
55. Surface and Interface States
56. Semiconductor Heterojunctions
57. Bandgap Engineering Techniques
58. Quantum Well Structures
59. MOS Capacitor Physics
60. Charge Trapping in MOS Devices
61. Short Channel Effects in MOSFETs
62. Subthreshold Conduction in MOSFETs
63. BJT High Frequency Operation
64. Noise in Semiconductor Devices
65. Thermal Effects on Device Performance
66. Semiconductor Device Fabrication Basics
67. Ion Implantation and Diffusion
68. Oxidation and Lithography Processes
69. Device Isolation Techniques
70. Passivation and Metallization
71. Device Packaging and Testing
72. Advanced Transistor Models
73. Device Scaling Challenges
74. Power Semiconductor Devices
75. Semiconductor Device Reliability

Эксперт (already in the field) · уроки 76–100

76. Quantum Transport in Semiconductors
77. Ballistic and Diffusive Transport
78. Spintronics Fundamentals
79. Tunnel Field Effect Transistors
80. High Electron Mobility Transistors
81. Strained Silicon Technology
82. Carbon Nanotube Transistors
83. Graphene-Based Devices
84. Semiconductor Optoelectronics
85. Photonic Devices Integration
86. MEMS and NEMS in Semiconductors
87. Advanced Device Simulation Techniques
88. Device Modeling with TCAD
89. D Integration and Packaging
90. Flexible Semiconductor Devices
91. Neuromorphic Semiconductor Devices
92. Semiconductor Quantum Dots
93. Single Electron Transistors
94. Topological Insulators in Electronics
95. Emerging Semiconductor Materials
96. Wide Bandgap Semiconductors
97. Organic Semiconductor Devices
98. Energy Harvesting Semiconductor Devices
99. Semiconductor Device Security
100. Future Trends in Semiconductor Devices

Related subjects

• Crystal Structure Basics
• Semiconductor Materials Overview
• Bandgap Theory Fundamentals
• Doping and Impurities
• P-N Junction Formation
• Diode Characteristics and Applications
• Transistor Fundamentals and Types
• Amplifier Basics and Configurations
• Bipolar Junction Transistors BJT
• Field-Effect Transistors FET Operation
• MOSFET Characteristics and Applications
• Amplifier Topologies and Design