Target CSIR NET (Physics)/GATE, Ph.D Physics, Experimental Physics, Ananlysis, Engineering Physics

Baseline Correction in Very Easy and Quick Steps | | FTIR | | XRD | | RAMAN |
1:45
Baseline Correction in Very Easy and Quick Steps | | FTIR | | XRD | | RAMAN |
WH-Plot in very easy steps | | Uniform Deformation Model | | Crstallite Size | | Strain
6:06
WH-Plot in very easy steps | | Uniform Deformation Model | | Crstallite Size | | Strain
Rietveld Refinement using FullProf Suite in Easy Steps: Step 3: Refinement Procedure
13:33
Rietveld Refinement using FullProf Suite in Easy Steps: Step 3: Refinement Procedure
Rietveld Refinement using FullProf Suite in Easy Steps: Step 2: Refrence Data File
2:21
Rietveld Refinement using FullProf Suite in Easy Steps: Step 2: Refrence Data File
Rietveld Refinement using FullProf Suit in Easy Steps: Step 1: Preparation of the Data File
1:56
Rietveld Refinement using FullProf Suit in Easy Steps: Step 1: Preparation of the Data File
4. How to plot separate capacitive and diffusive profile contributions in cyclic voltammetry
11:38
4. How to plot separate capacitive and diffusive profile contributions in cyclic voltammetry
3. Capacitive contribution percentage calculated from Cyclic Voltammogram using modified power law
13:24
3. Capacitive contribution percentage calculated from Cyclic Voltammogram using modified power law
L21. Free particle.
5:44
L21. Free particle.
L20: Particle in a box or Infinite square potential well.
40:00
L20: Particle in a box or Infinite square potential well.
L19: Schrodinger’s wave equation: time-dependent and time independent.
21:42
L19: Schrodinger’s wave equation: time-dependent and time independent.
L18: Wavefunction: Introduction, Physical Significance, and Properties.
7:34
L18: Wavefunction: Introduction, Physical Significance, and Properties.
L17: 1) Group Velocity, Phase Velocity and relation between them, Heisenberg Uncertainty Principle.
7:45
L17: 1) Group Velocity, Phase Velocity and relation between them, Heisenberg Uncertainty Principle.
L16: Concept of De Broglie Wavelength or Matter Waves.
12:33
L16: Concept of De Broglie Wavelength or Matter Waves.
L15. Introduction to Quantum Mechanics, Black Body Radiation, and Planck Radiation Law.
21:33
L15. Introduction to Quantum Mechanics, Black Body Radiation, and Planck Radiation Law.
L14. Position of fermi level in Intrinsic semiconductors.
12:56
L14. Position of fermi level in Intrinsic semiconductors.
L13: Types of bandgap, Fermi level, Fermi energy.
13:19
L13: Types of bandgap, Fermi level, Fermi energy.
L12: Formation of energy band in solids.
17:24
L12: Formation of energy band in solids.
L11: Properties and method to produce ultrasonic waves.
14:42
L11: Properties and method to produce ultrasonic waves.
L10: Bragg's Law of Diffraction: X-Ray Diffraction
7:46
L10: Bragg's Law of Diffraction: X-Ray Diffraction
L9: Interplane spacing or d-spacing—distance between lattice planes
11:01
L9: Interplane spacing or d-spacing—distance between lattice planes
L8: Miller Indices: Easy and Detailed explanation.
14:17
L8: Miller Indices: Easy and Detailed explanation.
L7: Crystallography: Types of Solids, Formation of Crystal Structure, Unit Cell and its Types.
18:05
L7: Crystallography: Types of Solids, Formation of Crystal Structure, Unit Cell and its Types.
2. Dunn plot: Capacitive Contribution Using Power Law (Dunn Plot) Explained in detail.
11:39
2. Dunn plot: Capacitive Contribution Using Power Law (Dunn Plot) Explained in detail.
1. Calculation of Specific Capacitance from Cyclic Voltammetry using Origin.
7:41
1. Calculation of Specific Capacitance from Cyclic Voltammetry using Origin.
L6: Introduction, Major Components, Types, Acceptance Angle and Numerical Aperture of Optical Fibre
22:27
L6: Introduction, Major Components, Types, Acceptance Angle and Numerical Aperture of Optical Fibre
L5: He-Ne Laser: Principle, Construction, and Working.
6:46
L5: He-Ne Laser: Principle, Construction, and Working.
L4: Ruby Laser: Principle, Construction, and Working.
10:41
L4: Ruby Laser: Principle, Construction, and Working.
L3: Population inversion, Pumping, and its Techniques
8:58
L3: Population inversion, Pumping, and its Techniques
L2: Relation between Einstein's coefficients.
8:35
L2: Relation between Einstein's coefficients.
L1: Stimulated Absorption, Spontaneous Emission and Stimulated Emission.
9:55
L1: Stimulated Absorption, Spontaneous Emission and Stimulated Emission.