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Plasma Physics Introduction Part 2

Plasma Physics Introduction Part 2

Plasma Physics Introduction Part 1

Plasma Physics Introduction Part 1

2.10 : Harmonic Oscillator - Canonical Ensemble

2.10 : Harmonic Oscillator - Canonical Ensemble

Laurents series

Laurents series

Transistor Part 14 : Load line analysis

Transistor Part 14 : Load line analysis

Harmonic Oscillator Part 8 : Energy of Damping Harmonic Oscillator

Harmonic Oscillator Part 8 : Energy of Damping Harmonic Oscillator

Transistor Part 13 : Phase Reversal

Transistor Part 13 : Phase Reversal

Transistor Part 12 : Single Stage Transistor Amplifier

Transistor Part 12 : Single Stage Transistor Amplifier

Transistor Part 11 : Voltage Divider Bias

Transistor Part 11 : Voltage Divider Bias

Transistor Part 10 : Collector Feedback Bias

Transistor Part 10 : Collector Feedback Bias

Transistor Part 9 : Biased Resistor Method

Transistor Part 9 : Biased Resistor Method

Transistor Part 8 : Transistor Biasing (contd)

Transistor Part 8 : Transistor Biasing (contd)

Transistor Part 7 : Transistor Biasing

Transistor Part 7 : Transistor Biasing

Transistor Part 6 : Output form of Common Emitter Amplifier

Transistor Part 6 : Output form of Common Emitter Amplifier

Transistor Part 5 : Common Emitter Amplifier

Transistor Part 5 : Common Emitter Amplifier

Semiconductor Diode Part 3 : Full Wave Rectifier

Semiconductor Diode Part 3 : Full Wave Rectifier

Harmonic Oscillator Part 7 : Damped Harmonic Oscillator (contd)

Harmonic Oscillator Part 7 : Damped Harmonic Oscillator (contd)

Harmonic Oscillator Part 6 : Damping Harmonic Oscillator

Harmonic Oscillator Part 6 : Damping Harmonic Oscillator

Transistor Part 4 : Common Collector Configuration

Transistor Part 4 : Common Collector Configuration

Transistor Part 3 : Common Emitter Configuration

Transistor Part 3 : Common Emitter Configuration

Transistor Part 2 : Common Base Configuration

Transistor Part 2 : Common Base Configuration

3.6 : Electrical Conductivity and Ohm's law

3.6 : Electrical Conductivity and Ohm's law

Transistor Part 1 : Basic ideas of npn and pnp Transistor

Transistor Part 1 : Basic ideas of npn and pnp Transistor

Semiconductor Diode Part 6 : Voltage Multiplier

Semiconductor Diode Part 6 : Voltage Multiplier

Semiconductor Diode Part 5 : Zener Diode

Semiconductor Diode Part 5 : Zener Diode

Semiconductor Diode Part 4 : Filter Circuit

Semiconductor Diode Part 4 : Filter Circuit

Semiconductor Diode Part 2 : Half Wave Rectifier

Semiconductor Diode Part 2 : Half Wave Rectifier

Complementary Electronics Part 12 : Logic Gates

Complementary Electronics Part 12 : Logic Gates

Complementary Electronics Part 11 : Feedback Oscillator

Complementary Electronics Part 11 : Feedback Oscillator

Semiconductor Diode Part 1 : Preliminaries of Semiconductor Diode

Semiconductor Diode Part 1 : Preliminaries of Semiconductor Diode

Harmonic Oscillator Part 5 : Damping Force

Harmonic Oscillator Part 5 : Damping Force

Logic gate and Circuit Part 12 : JK Master Slave Flip Flop

Logic gate and Circuit Part 12 : JK Master Slave Flip Flop

Complementary Electronics Part 10 : Transistor as an Amplifier

Complementary Electronics Part 10 : Transistor as an Amplifier

Logic gate and Circuit Part 11 : D Flop Flop and JK Flip Flop

Logic gate and Circuit Part 11 : D Flop Flop and JK Flip Flop

Ideal Fermi System Part 9 : Landau's Diamagnetism (contd)

Ideal Fermi System Part 9 : Landau's Diamagnetism (contd)

Ideal Fermi System Part 10 : The Electron Gas in Metal

Ideal Fermi System Part 10 : The Electron Gas in Metal

Logic gate and Circuit Part 10 : SR Flip Flops Using NAND Gates

Logic gate and Circuit Part 10 : SR Flip Flops Using NAND Gates

Complementary Electronics Part 9 : Transistor Configuration

Complementary Electronics Part 9 : Transistor Configuration

Ideal Fermi System Part 8 : Landau's Diamagnetism

Ideal Fermi System Part 8 : Landau's Diamagnetism

Logic gate and Circuit Part 9 : Flip Flops

Logic gate and Circuit Part 9 : Flip Flops

Ideal Fermi System Part 7 : Pauli Paramagnetism (Cont'd)

Ideal Fermi System Part 7 : Pauli Paramagnetism (Cont'd)

Ideal Fermi System Part 1 : Introduction and Thermodynamics of the ideal fermi system

Ideal Fermi System Part 1 : Introduction and Thermodynamics of the ideal fermi system

Logic gate and Circuit Part 8 : Half Adder and Full Adder

Logic gate and Circuit Part 8 : Half Adder and Full Adder

Logic gate and Circuit Part 7. : Problems of Karnaugh Map

Logic gate and Circuit Part 7. : Problems of Karnaugh Map

Complementary Electronics Part 8 : Transistor

Complementary Electronics Part 8 : Transistor

Complementary Electronics Part 7 : Zener Diode

Complementary Electronics Part 7 : Zener Diode

Logic gate and Circuit Part 6 : Karnaugh Map

Logic gate and Circuit Part 6 : Karnaugh Map

Ideal Fermi System Part 6 : Pauli Paramagnetism

Ideal Fermi System Part 6 : Pauli Paramagnetism

2.13 : Virial and Equipartition Theorem

2.13 : Virial and Equipartition Theorem

Harmonic Oscillator Part 4 : Energy of Harmonic Oscillator

Harmonic Oscillator Part 4 : Energy of Harmonic Oscillator

Ideal Fermi System Part 5 : Analytical Study of Fermi System and Thermodynamics

Ideal Fermi System Part 5 : Analytical Study of Fermi System and Thermodynamics

Ideal Fermi System Part 4 : Analytical Study of Fermi System

Ideal Fermi System Part 4 : Analytical Study of Fermi System

Ideal Fermi System Part 3 : Degenerate Case of Fermi System

Ideal Fermi System Part 3 : Degenerate Case of Fermi System

Logic gate and Circuit Part 5 : Algebraic Simplification and Karnaugh Map

Logic gate and Circuit Part 5 : Algebraic Simplification and Karnaugh Map

Complementary Electronics Part 6 : Filter Circuit

Complementary Electronics Part 6 : Filter Circuit

Ideal Fermi System Part 2 : Non Degenerate Case of Fermi System

Ideal Fermi System Part 2 : Non Degenerate Case of Fermi System

Logic gate and Circuit Part 4 : Boolean laws and Concept of Duality

Logic gate and Circuit Part 4 : Boolean laws and Concept of Duality

Ideal Bose System Part 8 : The Debye Theory ( Specific Heat Capacity)

Ideal Bose System Part 8 : The Debye Theory ( Specific Heat Capacity)

Harmonic Oscillator Part 3 : Physical Significance of Angular Velocity

Harmonic Oscillator Part 3 : Physical Significance of Angular Velocity

Logic gate and Circuit Part 3 : De Morgan's Theorem

Logic gate and Circuit Part 3 : De Morgan's Theorem

Ideal Bose System Part 7 : The Field of Sound wave ( Phonons)

Ideal Bose System Part 7 : The Field of Sound wave ( Phonons)

Complementary Electronics Part 5 : Efficiency of Full wave Rectifier

Complementary Electronics Part 5 : Efficiency of Full wave Rectifier

Logic Gate and Circuit Part 2 : Universal Gates

Logic Gate and Circuit Part 2 : Universal Gates

Ideal Bose System Part 6 : Planck Distribution law

Ideal Bose System Part 6 : Planck Distribution law

Logic Gate and Circuit Part 1 : Basic Logic Gates

Logic Gate and Circuit Part 1 : Basic Logic Gates

Ideal Bose System Part 5 : Thermodynamics of Black body radiation

Ideal Bose System Part 5 : Thermodynamics of Black body radiation

Ideal Bose System Part 4 : Bose Einstein Condensation (Contd)

Ideal Bose System Part 4 : Bose Einstein Condensation (Contd)

Ideal Bose System Part 3 : Bose Einstein Condensation (Contd)

Ideal Bose System Part 3 : Bose Einstein Condensation (Contd)

Harmonic Oscillator Part 2 : Linear Simple Harmonic Oscillator

Harmonic Oscillator Part 2 : Linear Simple Harmonic Oscillator

Ideal Bose System Part 2 : Bose Einstein Condensation (Contd)

Ideal Bose System Part 2 : Bose Einstein Condensation (Contd)

Number System Part 11 : Addition of Floating Point Notation and Character Representation

Number System Part 11 : Addition of Floating Point Notation and Character Representation

Complementary Electronics Part 4 : Full wave Rectifier

Complementary Electronics Part 4 : Full wave Rectifier

Number System Part 10 : Overflow and Underflow

Number System Part 10 : Overflow and Underflow

Number System Part 9 : Binary Arithmetic

Number System Part 9 : Binary Arithmetic

Complementary Electronics Part 3 : Efficiency of Half wave Rectifier

Complementary Electronics Part 3 : Efficiency of Half wave Rectifier

Number System Part 8 : Floating Point Notation and Range

Number System Part 8 : Floating Point Notation and Range

Ideal Bose System Part 1 : Thermodynamic Properties of Ideal Bose System &Bose Einstein Condensation

Ideal Bose System Part 1 : Thermodynamic Properties of Ideal Bose System &Bose Einstein Condensation

Number System Part 7 : Floating Point Notation

Number System Part 7 : Floating Point Notation

Number System Part 6 : Hexa Decimal and Octet Number System

Number System Part 6 : Hexa Decimal and Octet Number System

Theory of Simple Gases Part 7 : Mean Occupation Number

Theory of Simple Gases Part 7 : Mean Occupation Number

Theory of Simple Gases Part 6 : Ideal Equation for C.E and G.C.E using Q.M (contd)

Theory of Simple Gases Part 6 : Ideal Equation for C.E and G.C.E using Q.M (contd)

Theory of Simple Gases Part 5 : Ideal gas Equation for C.E and G.C.E using Q.M

Theory of Simple Gases Part 5 : Ideal gas Equation for C.E and G.C.E using Q.M

Theory of Simple Gases Part 4 : Most Probable value

Theory of Simple Gases Part 4 : Most Probable value

Theory of Simple Gases Part 3 : Entropy of Bosons, Fermions and Classical Particles

Theory of Simple Gases Part 3 : Entropy of Bosons, Fermions and Classical Particles

Harmonic Oscillator Part 1 : Periodic and Oscillatory Motions

Harmonic Oscillator Part 1 : Periodic and Oscillatory Motions

Number System Part 5 One's and two's Complement

Number System Part 5 One's and two's Complement

Theory of Simple Gases Part 2 : Theory Ideal Equation for Microcanonical Ensemble using Q.M (contd)

Theory of Simple Gases Part 2 : Theory Ideal Equation for Microcanonical Ensemble using Q.M (contd)

Complimentary Electronics Part 2 : Half Wave Rectifier

Complimentary Electronics Part 2 : Half Wave Rectifier

Number System Part 4 Conversion of Integer to Binary

Number System Part 4 Conversion of Integer to Binary

Theory of Simple Gases Part 1 : Ideal Equation for Microcanonical Ensemble using Q.M

Theory of Simple Gases Part 1 : Ideal Equation for Microcanonical Ensemble using Q.M

Number System Part 3 Conversion of Real Numbers to Binary

Number System Part 3 Conversion of Real Numbers to Binary

Formulation Quantum Theory Part 4 : Symmetry Wave Function and Slater Determinants

Formulation Quantum Theory Part 4 : Symmetry Wave Function and Slater Determinants

Number System Part 2 Binary - Decimal Conversion

Number System Part 2 Binary - Decimal Conversion

Formulation Quantum Theory Part 3 : Ensembles Using Quantum Formulation

Formulation Quantum Theory Part 3 : Ensembles Using Quantum Formulation

Complementary Electronics Part 1 : Diode and it's Characteristics

Complementary Electronics Part 1 : Diode and it's Characteristics

Number System Part 1 Introduction of Number System

Number System Part 1 Introduction of Number System

Formulation Quantum Theory Part 2 : Density Operator

Formulation Quantum Theory Part 2 : Density Operator

Formulation Quantum Theory Part 1 : Statistical Basis from Quantum Mechanics

Formulation Quantum Theory Part 1 : Statistical Basis from Quantum Mechanics

Application of Residue Theorem Part 3

Application of Residue Theorem Part 3

Application of Residue Theorem Part 4

Application of Residue Theorem Part 4

Application of Residue Theorem Part 2

Application of Residue Theorem Part 2

Application of Residue Theorem Part 1

Application of Residue Theorem Part 1

Residue Theorem Part 3

Residue Theorem Part 3

Residue Theorem Part 2

Residue Theorem Part 2

2.20 : Energy Fluctuations - Grand Canonical Ensemble

2.20 : Energy Fluctuations - Grand Canonical Ensemble

Residue Theorem Part 1

Residue Theorem Part 1

2.19 : Density Fluctuations - Grand Canonical Ensemble

2.19 : Density Fluctuations - Grand Canonical Ensemble

2.18 : Classical Ideal Gas - Grand Canonical Ensemble

2.18 : Classical Ideal Gas - Grand Canonical Ensemble

2.17 : Statistical Quantities of Thermodynamics - Grand Canonical Ensemble

2.17 : Statistical Quantities of Thermodynamics - Grand Canonical Ensemble

2.16 : Grand Canonical Ensemble

2.16 : Grand Canonical Ensemble

2.15 : Statistics of Paramagnetism - Quantum Theory

2.15 : Statistics of Paramagnetism - Quantum Theory

2.14 : Statistics of Paramagnetism - Classical Theory

2.14 : Statistics of Paramagnetism - Classical Theory

2.12 : Canonical distribution is a Gaussian?

2.12 : Canonical distribution is a Gaussian?

2.11 Energy Fluctuations in Canonical Ensemble

2.11 Energy Fluctuations in Canonical Ensemble

2.10 : Harmonic Oscillator - Canonical Ensemble

2.10 : Harmonic Oscillator - Canonical Ensemble

2.9 : The Classical Ideal Gas - Cononical Ensemble (contd)

2.9 : The Classical Ideal Gas - Cononical Ensemble (contd)

2.8 : The Classical Ideal Gas - Canonical Ensemble

2.8 : The Classical Ideal Gas - Canonical Ensemble

2.7 : Alternative Expression for Partition Function

2.7 : Alternative Expression for Partition Function

2.6 : Statistical Quantities in Canonical Ensemble

2.6 : Statistical Quantities in Canonical Ensemble

1.8 : Gibbs Paradox (contd)

1.8 : Gibbs Paradox (contd)

2.5 : Equilibrium between the System and the Reservoir - Canonical Ensemble

2.5 : Equilibrium between the System and the Reservoir - Canonical Ensemble

2.4 : Canonical Ensemble

2.4 : Canonical Ensemble

2.3 : Harmonic Oscillator - Microcanonical Ensemble

2.3 : Harmonic Oscillator - Microcanonical Ensemble

2.2 : The Classical Ideal Gas - Microcanonical Ensemble

2.2 : The Classical Ideal Gas - Microcanonical Ensemble

2.1 : Microcanonical Ensemble

2.1 : Microcanonical Ensemble

1.10 : Liouville's Theorem and It's Consequences

1.10 : Liouville's Theorem and It's Consequences

1.9 : Elements of Ensemble Theory

1.9 : Elements of Ensemble Theory

1.7 : The Gibbs Paradox

1.7 : The Gibbs Paradox

1.6 : Thermodynamics Properties of the Classical Ideal Gas

1.6 : Thermodynamics Properties of the Classical Ideal Gas

1.5 : The Classical Ideal Gas (contd)

1.5 : The Classical Ideal Gas (contd)

1.4 : The Classical Ideal Gas

1.4 : The Classical Ideal Gas

1.3 : Contact between the Statistics and the Thermodynamics (contd)

1.3 : Contact between the Statistics and the Thermodynamics (contd)

1.2 : Contact between the Statistics and the Thermodynamics

1.2 : Contact between the Statistics and the Thermodynamics

1.1 : The Macroscopic and the Microscopic states (Macrostates and Microstates)

1.1 : The Macroscopic and the Microscopic states (Macrostates and Microstates)

3.8 : Stimulated and Inverse Raman Scattering

3.8 : Stimulated and Inverse Raman Scattering

3.7 : Classical treatment of Hyper Raman Effect

3.7 : Classical treatment of Hyper Raman Effect

3.6 : Non - Linear Spectroscopic Phenomenon and Hyper Raman Effect

3.6 : Non - Linear Spectroscopic Phenomenon and Hyper Raman Effect

5.11 : Magnetic Hyperfine Interaction

5.11 : Magnetic Hyperfine Interaction

5.10 : Quadrupole Interaction

5.10 : Quadrupole Interaction

5.9 : Isomer Shift

5.9 : Isomer Shift

5.8 : Mössbauer Spectroscopy

5.8 : Mössbauer Spectroscopy

5.7 : Hyperfine Structure

5.7 : Hyperfine Structure

5.6 : Electron spin resonance

5.6 : Electron spin resonance

5.5 : Indirect spin spin interaction

5.5 : Indirect spin spin interaction

5.4 : Chemical Shift

5.4 : Chemical Shift

5.3 : Bloch Equation

5.3 : Bloch Equation

5.2 : Relaxation Process

5.2 : Relaxation Process

5.1 : Introduction of Nuclear Magnetic Resonance and Resonance condition

5.1 : Introduction of Nuclear Magnetic Resonance and Resonance condition

4.5 : Dissociation Energy

4.5 : Dissociation Energy

4.4 : Fortrat Parabola and Franck-Codon Principles

4.4 : Fortrat Parabola and Franck-Codon Principles

4.3 : Rotational Fine Structure of Electronic Vibration Spectra

4.3 : Rotational Fine Structure of Electronic Vibration Spectra

4.2 : Vibrational Analysis of Band System- Deslandres table

4.2 : Vibrational Analysis of Band System- Deslandres table

4.1 : Introduction of Electronic Spectrum of Diatomic Molecules and Vibrational Coarse Structure

4.1 : Introduction of Electronic Spectrum of Diatomic Molecules and Vibrational Coarse Structure

3.5 : Structure determination of Molecule Using IR and Raman Spectrum(contd)

3.5 : Structure determination of Molecule Using IR and Raman Spectrum(contd)

3.4 : Structure of determination of Molecule Using IR and Raman Spectrum

3.4 : Structure of determination of Molecule Using IR and Raman Spectrum

4.4 : Free Vibrations of Linear Triatomic Molecules

4.4 : Free Vibrations of Linear Triatomic Molecules

4.3 : Orthogonality Conditions

4.3 : Orthogonality Conditions

3.3 : Raman spectrum of Vibrating Rotators Molecule

3.3 : Raman spectrum of Vibrating Rotators Molecule

4.2 : Eigen Vectors and Eigen Values

4.2 : Eigen Vectors and Eigen Values

3.2 : Rotational Raman Spectrum of Linear and Symmetric Top Molecules

3.2 : Rotational Raman Spectrum of Linear and Symmetric Top Molecules

4.1 : Formulation of the Problem and it's Lagrangian

4.1 : Formulation of the Problem and it's Lagrangian

3.1 : Introduction of Raman Scattering

3.1 : Introduction of Raman Scattering

3.5 : Euler's Equation of Rigid body

3.5 : Euler's Equation of Rigid body

3.4 : Moment of Inertia Tensor and Kinetic Energy of Rigid Body

3.4 : Moment of Inertia Tensor and Kinetic Energy of Rigid Body

3.3 : Infinitesimal Rotation and Rate of change of Vector

3.3 : Infinitesimal Rotation and Rate of change of Vector

3.2 : Euler's Angle

3.2 : Euler's Angle

3.1 : Transformation Equation For a Rigid Body

3.1 : Transformation Equation For a Rigid Body

2.10 : Vibration of Diatomic Molecules

2.10 : Vibration of Diatomic Molecules

2.9 : Breakdown of Diatomic Vibrating Rotators

2.9 : Breakdown of Diatomic Vibrating Rotators

2.8 : Diatomic Vibrating Rotators

2.8 : Diatomic Vibrating Rotators

2.7 : Diatomic Vibration of Molecule

2.7 : Diatomic Vibration of Molecule

2.6 : Vibrational Spectroscopy Introduction

2.6 : Vibrational Spectroscopy Introduction

2.5 : Stark Effect in Rotational Spectrum

2.5 : Stark Effect in Rotational Spectrum

2.4 : Symmetric top Molecules

2.4 : Symmetric top Molecules

2.3 : Non rigid Rotator and Linear Polyatomic Molecules

2.3 : Non rigid Rotator and Linear Polyatomic Molecules

2.2 : Intensity of Rotational lines and Isotope Effects

2.2 : Intensity of Rotational lines and Isotope Effects

2.8 : Action- Angle Method

2.8 : Action- Angle Method

2.7 : Examples of H-J method

2.7 : Examples of H-J method

1.12 : Hyperfine Structure and Stark Effect

1.12 : Hyperfine Structure and Stark Effect

2.6 : Hamilton Jacobi Method

2.6 : Hamilton Jacobi Method

2.5 : Canonical Transformation and It's Problems

2.5 : Canonical Transformation and It's Problems

2.1 : Rotation of Molecule and Classification of Molecule

2.1 : Rotation of Molecule and Classification of Molecule

2.4 : Angular momentum and Lagrange Bracket

2.4 : Angular momentum and Lagrange Bracket

2.3 : Poisson Bracket and it's Applications

2.3 : Poisson Bracket and it's Applications

1.11 : Paschen Effect

1.11 : Paschen Effect

2.2 : Generating Function

2.2 : Generating Function

1.10 : Anomalous Zeeman Effect

1.10 : Anomalous Zeeman Effect

2.1 : Canonical Transformation

2.1 : Canonical Transformation

1.9 : Normal Zeeman Effect

1.9 : Normal Zeeman Effect

1.8 : Lande Interval Rule and Lande g-factor

1.8 : Lande Interval Rule and Lande g-factor

1.7 : Interactions Energy in pd configuration

1.7 : Interactions Energy in pd configuration

1.6 : Interactions Energy in LS Coupling

1.6 : Interactions Energy in LS Coupling

1.5 : Spin-Orbit Interactions

1.5 : Spin-Orbit Interactions

1.17 : Other forms of Principle of Least Action

1.17 : Other forms of Principle of Least Action

1.4 : Hund's Rule

1.4 : Hund's Rule

1.16 : Principle of Least Action

1.16 : Principle of Least Action

1.3 : Spectral Notation, l-l, s-s and LS Coupling

1.3 : Spectral Notation, l-l, s-s and LS Coupling

1.15 : Applications of Variational Principle

1.15 : Applications of Variational Principle

1.2 : Orbital and Spin Magnetic Moment

1.2 : Orbital and Spin Magnetic Moment

1.14 : Variational Principles

1.14 : Variational Principles