Wayne State University Microfluidics and Bioinstrumentation Lab

Principle Investigator:
Amar S. Basu
Associate Professor, Electrical and Biomedical Engineering
Email: [email protected]

6D - MOSFET scaling and non-ideal behavior
1:23:29
6D - MOSFET scaling and non-ideal behavior
6C - MOSFET threshold voltage
1:15:22
6C - MOSFET threshold voltage
6B - MOSFET energy band diagrams and electrostatics
1:31:05
6B - MOSFET energy band diagrams and electrostatics
6A - MOSFET key concepts
1:34:33
6A - MOSFET key concepts
5F - Metal Semiconductor Junctions
1:14:49
5F - Metal Semiconductor Junctions
5E - Diode transients, photodiodes, and LEDs
1:33:52
5E - Diode transients, photodiodes, and LEDs
5D - Diode in forward and reverse bias
1:39:38
5D - Diode in forward and reverse bias
5C - Diode in forward bias
1:34:45
5C - Diode in forward bias
5B - Electrostatics of the diode depletion region
1:36:06
5B - Electrostatics of the diode depletion region
4C - Carrier diffusion, continuity equation
1:36:44
4C - Carrier diffusion, continuity equation
4B - Excess carrier generation from optical stimulus
1:25:22
4B - Excess carrier generation from optical stimulus
4A - Optical carrier generation
1:36:30
4A - Optical carrier generation
5A - PN Junction at Equilibrium
1:46:46
5A - PN Junction at Equilibrium
3D - Drift current, resistance, and mobility
1:28:05
3D - Drift current, resistance, and mobility
3C - Carrier statistics, electron and hole concentrations
1:38:48
3C - Carrier statistics, electron and hole concentrations
3B - electrons and holes, intrinsic and doped semiconductors, carrier statistics
1:33:03
3B - electrons and holes, intrinsic and doped semiconductors, carrier statistics
3A - Silicon bonding and band structure
1:31:04
3A - Silicon bonding and band structure
2C - Quantum mechanical model of atom and electronic configuration
1:32:00
2C - Quantum mechanical model of atom and electronic configuration
2B - Debroglie equation
13:35
2B - Debroglie equation
2A - Bohr model of the atom and wave-particle duality
1:31:07
2A - Bohr model of the atom and wave-particle duality
1B - Semiconductor crystal structures and manufacturing
1:38:04
1B - Semiconductor crystal structures and manufacturing
1A - Crystal structures in semiconductors
1:39:40
1A - Crystal structures in semiconductors
0B - Applications of semiconductor devices in modern electronics
1:38:56
0B - Applications of semiconductor devices in modern electronics
0A - Introduction and Emerging Trends in Semiconductors
1:41:10
0A - Introduction and Emerging Trends in Semiconductors
Course Syllabus and Introductions
1:40:36
Course Syllabus and Introductions
4C - Electromagnets and Magnetic Materials
51:40
4C - Electromagnets and Magnetic Materials
4B - Electric motors, Torque, Biot Savart Law, Ampere's Law
1:43:15
4B - Electric motors, Torque, Biot Savart Law, Ampere's Law
4A - Lorentz Force, Hall Effect Sensors
1:27:53
4A - Lorentz Force, Hall Effect Sensors
3G - Electrostatic Sensing, Energy, and Forces
1:26:37
3G - Electrostatic Sensing, Energy, and Forces
3F - Dielectric Materials, Electrostatics at Interfaces, Capacitors
1:37:18
3F - Dielectric Materials, Electrostatics at Interfaces, Capacitors