Essentials of Semiconductor Device Physics
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Essentials of Semiconductor Device Physics
Martins, Emiliano R.
John Wiley & Sons Inc
07/2022
240
Mole
Inglês
9781119884118
15 a 20 dias
413
Descrição não disponível.
Preface
1 Concepts of Statistical Physics
1.1 Introduction
1.2 Thermal Equilibrium
1.3 Partition function - Part I
1.4 Diffusive equilibrium and the chemical potential
1.5 The partition function, Part II
1.6 Example of application: energy and number of elements of a system
1.7 The Fermi-Dirac distribution
1.8 Analogy between the systems "box" and "coins"
1.9 Concentration of electrons and Fermi level
1.10 Transport
1.11 Relationship between current and concentration of particles (continuity equation)
1.12 Suggestions for further reading
1.13 Exercises
2 - Semiconductors
2.1 Band Theory
2.2 Electrons and holes
2.3 Concentration of free electrons
2.4 Density of states
2.5 Concentration of holes and Fermi level
2.6 Extrinsic semiconductors (doping)
2. 7 Exercises
3 Introduction to semiconductor devices: the p-n junction
3.1 p-n junction in thermodynamic equilibrium - qualitative description
3.2 p-n junction in thermodynamic equilibrium - quantitative description
3.3 Systems outside thermodynamic equilibrium: the quasi-Fermi levels.
3.4 Qualitative description of the relationship between current and voltage in a p-n junction
3.5 The current vs voltage relationship in a p-n junction (Shockley's equation)
3.6 Suggestions for further reading
3.7 Exercises
4 Photovoltaic devices (mainly solar cells)
4.1 Solar cells and photodetectors
4.2 Physical principles
4.3 The equivalent circuit
4.4 The I x V curve and the fill-factor
4.5 Efficiency of solar cells and the theoretical limit
4.6 Connections of solar cells
4.7 Suggestions for further reading
4.8 Exercises
5 Transistors
5.1 The Bipolar Junction Transistor (BJT)
5.1.1 Physical principles of the BJT
5.1.2 The beta parameter and the relationship between emitter, collector and base currents
5.1.3 Relationship between IC and VCE and the Early effect
5.1.4 The BJT as an amplifier
5.2 The MOSFET
5.2.1 Physical principles
5.2.3 Examples of applications of MOSFETS: logic inverters and logic gates
5.3 Suggestions for further reading
5.4 Exercises
Appendix: Geometrical interpretation of the chemical potential and free energy
1 Concepts of Statistical Physics
1.1 Introduction
1.2 Thermal Equilibrium
1.3 Partition function - Part I
1.4 Diffusive equilibrium and the chemical potential
1.5 The partition function, Part II
1.6 Example of application: energy and number of elements of a system
1.7 The Fermi-Dirac distribution
1.8 Analogy between the systems "box" and "coins"
1.9 Concentration of electrons and Fermi level
1.10 Transport
1.11 Relationship between current and concentration of particles (continuity equation)
1.12 Suggestions for further reading
1.13 Exercises
2 - Semiconductors
2.1 Band Theory
2.2 Electrons and holes
2.3 Concentration of free electrons
2.4 Density of states
2.5 Concentration of holes and Fermi level
2.6 Extrinsic semiconductors (doping)
2. 7 Exercises
3 Introduction to semiconductor devices: the p-n junction
3.1 p-n junction in thermodynamic equilibrium - qualitative description
3.2 p-n junction in thermodynamic equilibrium - quantitative description
3.3 Systems outside thermodynamic equilibrium: the quasi-Fermi levels.
3.4 Qualitative description of the relationship between current and voltage in a p-n junction
3.5 The current vs voltage relationship in a p-n junction (Shockley's equation)
3.6 Suggestions for further reading
3.7 Exercises
4 Photovoltaic devices (mainly solar cells)
4.1 Solar cells and photodetectors
4.2 Physical principles
4.3 The equivalent circuit
4.4 The I x V curve and the fill-factor
4.5 Efficiency of solar cells and the theoretical limit
4.6 Connections of solar cells
4.7 Suggestions for further reading
4.8 Exercises
5 Transistors
5.1 The Bipolar Junction Transistor (BJT)
5.1.1 Physical principles of the BJT
5.1.2 The beta parameter and the relationship between emitter, collector and base currents
5.1.3 Relationship between IC and VCE and the Early effect
5.1.4 The BJT as an amplifier
5.2 The MOSFET
5.2.1 Physical principles
5.2.3 Examples of applications of MOSFETS: logic inverters and logic gates
5.3 Suggestions for further reading
5.4 Exercises
Appendix: Geometrical interpretation of the chemical potential and free energy
Este título pertence ao(s) assunto(s) indicados(s). Para ver outros títulos clique no assunto desejado.
p-n junction; photovoltaics; semiconductors; semiconductor physics; Shockley's equation; statistical physics; optoelectronic devices; solar cells; semiconductor textbook; statistical physics textbook; physics of semiconductor devices; Fermi level; applications of p-n junctions; Bipolar Junction Transistors; BJT; Metal Oxide Semiconductor Transistors; MOSFET
Preface
1 Concepts of Statistical Physics
1.1 Introduction
1.2 Thermal Equilibrium
1.3 Partition function - Part I
1.4 Diffusive equilibrium and the chemical potential
1.5 The partition function, Part II
1.6 Example of application: energy and number of elements of a system
1.7 The Fermi-Dirac distribution
1.8 Analogy between the systems "box" and "coins"
1.9 Concentration of electrons and Fermi level
1.10 Transport
1.11 Relationship between current and concentration of particles (continuity equation)
1.12 Suggestions for further reading
1.13 Exercises
2 - Semiconductors
2.1 Band Theory
2.2 Electrons and holes
2.3 Concentration of free electrons
2.4 Density of states
2.5 Concentration of holes and Fermi level
2.6 Extrinsic semiconductors (doping)
2. 7 Exercises
3 Introduction to semiconductor devices: the p-n junction
3.1 p-n junction in thermodynamic equilibrium - qualitative description
3.2 p-n junction in thermodynamic equilibrium - quantitative description
3.3 Systems outside thermodynamic equilibrium: the quasi-Fermi levels.
3.4 Qualitative description of the relationship between current and voltage in a p-n junction
3.5 The current vs voltage relationship in a p-n junction (Shockley's equation)
3.6 Suggestions for further reading
3.7 Exercises
4 Photovoltaic devices (mainly solar cells)
4.1 Solar cells and photodetectors
4.2 Physical principles
4.3 The equivalent circuit
4.4 The I x V curve and the fill-factor
4.5 Efficiency of solar cells and the theoretical limit
4.6 Connections of solar cells
4.7 Suggestions for further reading
4.8 Exercises
5 Transistors
5.1 The Bipolar Junction Transistor (BJT)
5.1.1 Physical principles of the BJT
5.1.2 The beta parameter and the relationship between emitter, collector and base currents
5.1.3 Relationship between IC and VCE and the Early effect
5.1.4 The BJT as an amplifier
5.2 The MOSFET
5.2.1 Physical principles
5.2.3 Examples of applications of MOSFETS: logic inverters and logic gates
5.3 Suggestions for further reading
5.4 Exercises
Appendix: Geometrical interpretation of the chemical potential and free energy
1 Concepts of Statistical Physics
1.1 Introduction
1.2 Thermal Equilibrium
1.3 Partition function - Part I
1.4 Diffusive equilibrium and the chemical potential
1.5 The partition function, Part II
1.6 Example of application: energy and number of elements of a system
1.7 The Fermi-Dirac distribution
1.8 Analogy between the systems "box" and "coins"
1.9 Concentration of electrons and Fermi level
1.10 Transport
1.11 Relationship between current and concentration of particles (continuity equation)
1.12 Suggestions for further reading
1.13 Exercises
2 - Semiconductors
2.1 Band Theory
2.2 Electrons and holes
2.3 Concentration of free electrons
2.4 Density of states
2.5 Concentration of holes and Fermi level
2.6 Extrinsic semiconductors (doping)
2. 7 Exercises
3 Introduction to semiconductor devices: the p-n junction
3.1 p-n junction in thermodynamic equilibrium - qualitative description
3.2 p-n junction in thermodynamic equilibrium - quantitative description
3.3 Systems outside thermodynamic equilibrium: the quasi-Fermi levels.
3.4 Qualitative description of the relationship between current and voltage in a p-n junction
3.5 The current vs voltage relationship in a p-n junction (Shockley's equation)
3.6 Suggestions for further reading
3.7 Exercises
4 Photovoltaic devices (mainly solar cells)
4.1 Solar cells and photodetectors
4.2 Physical principles
4.3 The equivalent circuit
4.4 The I x V curve and the fill-factor
4.5 Efficiency of solar cells and the theoretical limit
4.6 Connections of solar cells
4.7 Suggestions for further reading
4.8 Exercises
5 Transistors
5.1 The Bipolar Junction Transistor (BJT)
5.1.1 Physical principles of the BJT
5.1.2 The beta parameter and the relationship between emitter, collector and base currents
5.1.3 Relationship between IC and VCE and the Early effect
5.1.4 The BJT as an amplifier
5.2 The MOSFET
5.2.1 Physical principles
5.2.3 Examples of applications of MOSFETS: logic inverters and logic gates
5.3 Suggestions for further reading
5.4 Exercises
Appendix: Geometrical interpretation of the chemical potential and free energy
Este título pertence ao(s) assunto(s) indicados(s). Para ver outros títulos clique no assunto desejado.
p-n junction; photovoltaics; semiconductors; semiconductor physics; Shockley's equation; statistical physics; optoelectronic devices; solar cells; semiconductor textbook; statistical physics textbook; physics of semiconductor devices; Fermi level; applications of p-n junctions; Bipolar Junction Transistors; BJT; Metal Oxide Semiconductor Transistors; MOSFET
