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Insulated Gate Bipolar Transistor IGBT Theory and Design

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ISBN-10: 0471238457

ISBN-13: 9780471238454

Edition: 2003

Authors: Vinod Kumar Khanna

List price: $220.95
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Description:

This work covers the theory and design aspects of IGBTs, starting from the selection of starting silicon through device process design for achieving targeted specifications, to the device packaging.
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Book details

List price: $220.95
Copyright year: 2003
Publisher: John Wiley & Sons, Incorporated
Publication date: 8/19/2003
Binding: Hardcover
Pages: 648
Size: 6.40" wide x 9.41" long x 1.38" tall
Weight: 2.288
Language: English

VINOD KUMAR KHANNA, PhD, is a senior scientist working in the solid-state devices division of Central Electronics Engineering Research Institute in Pilani, India. He has been extensively involved for more than twenty years in device, process design and fabrication of power semiconductor devices. He received his PhD in Physics from Kurukshetra University in 1988. A Fellow of the Institution of Electronics and Telecommunication Engineers and a lifetime member of several scientific and professional organizations, Dr. Khanna has published over thirty research papers in international journals and conference proceedings and written two previous books entitled, Handbook of Electrical & Electronics…    

Preface
Power Device Evolution and the Advent of IGBT
Introductory Background
Insulated Gate Bipolar Transistor
Advantages and Shortcomings of IGBT
IGBT Structure and Fabrication
Equivalent Circuit Representations
Principle of Operation and Charge-Control Phenomena
Circuit Modeling
Packaging Options for IGBTs
Handling Precautions of IGBTs
IGBT Gate Driving Circuits
IGBT Protection
Summary and Trends
Review Exercises
References
IGBT Fundamentals and Status Review
Device Structures
Device Operational Modes
Static Characteristics of IGBT
Switching Behavior of IGBT
Safe Operating Area (SOA)
High-Temperature Operation
Radiation Effects
Trench-Gate IGBT and Injection-Enhanced IGBT (IEGT)
Self-Clamped IGBT
Ratings and Applications of IGBT
Summary and Trends
Review Exercises
References
MOS Components of IGBT
General Considerations
MOS Structure Analysis and Threshold Voltage
Current-Voltage Characteristics of MOSFET; Transconductance and Drain Resistance
ON-Resistance Model of DMOSFET and UMOSFET
MOSFET Equivalent Circuit and Switching Times
Safe Operating Area (SOA)
Neutron and Gamma-Ray Damage Effects
Thermal Behavior of MOSFET
DMOSFET Cell Windows and Topological Designs
Summary and Trends
Review Exercises
References
Derivation of Eqs. (3.2a) and (3.2b)
Derivation of Eq. (3.7)
Derivation of the Equations for Bulk Semiconductor Potential [psi subscript B] and the Surface Charge Q[subscript s] at the Point of Transition into Strong Inversion
Derivation of Eqs. (3.33)-(3.36)
Derivation of Eq. (3.39)
Derivation of Eq. (3.49)
Bipolar Components of IGBT
PN Junction Diode
P-I-N Rectifier
Bipolar Junction Transistor
Thyristor
Junction Field-Effect Transistor (JFET)
Summarizing Remarks
Review Exercises
References
Drift and Diffusion Current Densities
Einstein's Equation
Continuity Equation and Its Solution
Solution of the Continuity Equation (4.41)
Derivation of Eq. (4.50)
Derivation of Current Density Equations (4.55) and (4.56)
Transistor Terminal Currents [Eqs. (4.57) and (4.58)]
Common-Base Current Gain [alpha subscript T] [Eq. (4.63)]
Physics and Modeling of IGBT
PIN Rectifier-DMOSFET Model of IGBT
Bipolar Transistor-DMOSFET Model of IGBT by Extension of PIN Rectifier-DMOSFET Model
Bipolar Transistor-DMOSFET Model of IGBT with Device-Circuit Interactions
Concluding Comments
Review Exercises
References
Solution of Eq. (5.8)
Derivation of Eqs. (5.33) and (5.34)
Derivation of Eq. (5.35)
Derivation of Eq. (5.38) [Solution of Eq. (5.35)]
Derivation of Eqs. (5.40)-(5.42)
Derivation of Eq. (5.44)
Derivation of Eqs. (5.81) and Construction of Equivalent Conductive Network for 1-D Linear Element
Latchup of Parasitic Thyristor in IGBT
Introduction
Static Latching
Dynamic Latching
Latching Prevention Measures
Latching Current Density of Trench-Gate IGBT
Summarizing Remarks
Review Exercises
References
Equation (6.15)
Equation (6.20)
Design Considerations of IGBT Unit Cell
Semiconductor Selection and Vertical Structure Design
IGBT Design by Analytical Calculations and Numerical Simulations
Optimization of N-Buffer Layer Structure
Field Ring and Field Plate Termination Design
Surface Ion-Implanted Edge Termination
Reduced Surface Electric Field (Resurf) Concept for Breakdown Voltage Enhancement in Lateral IGBT
Concluding Comments
Review Exercises
References
Multiplication Coefficient M
V[subscript BR] Equation
Avalanche Breakdown Voltage (V[subscript B])
Punchthrough Voltage (V[subscript PT])
BV[subscript CYL]/BV[subscript PP] Equation
IGBT Process Design and Fabrication Technology
Process Sequence Definition
Unit Process Steps
Process Integration and Simulation
Review Exercises
References
Thermal Oxidation of Silicon
Derivation of Eqs. (8.3)-(8.5)
Power IGBT Modules
Paralleling IGBTs, and Integration of Logic Circuits with Power Components
Power Module Technologies
Isolation Techniques
Integrable Devices: Bipolar, CMOS, DMOS (BCD), and IGBT
Power IGBT Driving, Temperature Sensing, and Protection
Parasitic Components of IGBT Module Package
Flat-Packaged IGBT Modules
Desirable Features and Reliability of IGBT Modules
Module Heat Sinks and Cooling
Material Requirements for High-Power IGBT Modules
State-of-the-Art and Trends
Review Exercises
References
Novel IGBT Design Concepts, Structural Innovations, and Emerging Technologies
Trade-Off Between ON-State Voltage Drop and Switching Losses
Parallel and Coupled PIN Diode-PNP Transistor Model of Carrier Distribution in the ON State of Trench IGBT
Non-Self-Aligned Trench IGBT for Superior ON-State Performance
Dynamic N-Buffer Insulated Gate Bipolar Transistor (DB-IGBT)
Lateral IGBT with Reverse Blocking Capability
Lateral IGBT with High-Temperature Latchup Immunity
Self-Aligned Sidewall-Implanted N[superscript +]-Emitter Lateral IGBT (Si-LIGBT) with High Latchup Current Capability
Improved LIGBT Structure for Larger FBSOA
Lateral IGBT with Integrated Current Sensor
Dielectrically Isolated Fast LIGBTs
Lateral IGBT in Thin Silicon-on-Insulator (SOI) Substrate
Lateral Trench-Gate Bipolar Transistor (LTGBT) for Improved Latchup Characteristics
Trench Planar Insulated Gate Bipolar Transistor (TPIGBT)
Clustered Insulated Gate Bipolar Transistor in Homogeneous Base Technology (HB-CIGBT)
Trench Clustered Insulated Gate Bipolar Transistor (TCIGBT)
Double-Gate Injection-Enhanced Gate Transistor (DG-IEGT)
SiC IGBTs
Summary and Trends
Review Exercises
References
Electron Current at the Collector Junction
Transient Base Stored Charge Q[subscript base](t)
Depletion Width in the Presence of Mobile Carrier Concentration
Modulated Base Resistance (R[subscript b])
ON-State Voltage Drop Due to Recombination in the End Regions of the PIN Diode in the IGBT
Energy Loss
Excess Carrier Concentration P[subscript w] in the N[superscript -] Base of TIGBT at the Emitter End
ON-State Voltage Drop Across the N[superscript -] Base of IGBT
IGBT Circuit Applications
DC-to-DC Conversion
DC-to-AC Inversion
AC-to-DC Conversion
Soft-Switching Converters
IGBT Circuit Simulation
Applications of IGBT Converters
Summarizing Remarks
Review Exercises
References
Index
About the Author