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Your Research Buddy
Приєднався 27 січ 2015
Target CSIR NET (Physics)/GATE, Ph.D Physics, Experimental Physics, Ananlysis, Engineering Physics
L20: Particle in a box or Infinite square potential well.
In this video, we take an in-depth look at the Particle in a Box, or Infinite Square Potential Well, a fundamental model in quantum mechanics that illustrates the quantized nature of energy in confined systems. This simple yet powerful concept helps us understand quantum behavior at the atomic scale.
🔹 Introduction to the Infinite Square Potential Well: We start with the setup, where a particle is confined within an impenetrable box with zero potential inside and infinite potential at the boundaries, restricting the particle to the region within the well.
🔹 Solving Schrödinger’s Equation: Watch as we solve Schrödinger’s equation for this system, deriving the energy eigenvalues that correspond to allowed energy states. We’ll see how boundary conditions result in quantized energy levels, explaining why only specific energy values are possible.
🔹 Ground State Energy (Zero-Point Energy): Learn why the lowest energy state, or zero-point energy, is not zero and understand how this inherent energy arises from the confinement of the particle.
🔹 Normalized Wave Functions: We’ll derive the normalized wave functions for each allowed energy level, which represent the probability distribution of finding the particle within the box. See why normalization is essential for ensuring the total probability is unity.
🔹 Physical Significance: Finally, explore what these quantized energy levels and wave functions mean in real-world systems, including applications in nanotechnology, quantum dots, and more.
This video is ideal for students and anyone interested in quantum mechanics. Join us to explore this classic quantum model and deepen your understanding of particles, wave functions, and energy quantization!
#chandigarhuniversity #crystallography #TypesOfSolids #unitcell #crystalstructure #scienceexplained #materialscience #chemistry #physics #education #stem #nanotechnology #scienceexplained #nanotech #stemeducation #nanomaterials #scientificexploration #physics #nanoscience #techexplained #innovation #futuretechnology #research #sciencevlogs #cuttingedgetech #sciencesimplified #nanotech #techeducation #quantumscienceb #Crystallography #dspacing #BraggsLaw #XrayDiffraction #ScienceExplained #braggslaw #xraydiffraction #physicsexplained #crystallography #scienceexplained #EnergyBands #SolidStatePhysics #BandTheory #Semiconductors #quantumphysics
🔹 Introduction to the Infinite Square Potential Well: We start with the setup, where a particle is confined within an impenetrable box with zero potential inside and infinite potential at the boundaries, restricting the particle to the region within the well.
🔹 Solving Schrödinger’s Equation: Watch as we solve Schrödinger’s equation for this system, deriving the energy eigenvalues that correspond to allowed energy states. We’ll see how boundary conditions result in quantized energy levels, explaining why only specific energy values are possible.
🔹 Ground State Energy (Zero-Point Energy): Learn why the lowest energy state, or zero-point energy, is not zero and understand how this inherent energy arises from the confinement of the particle.
🔹 Normalized Wave Functions: We’ll derive the normalized wave functions for each allowed energy level, which represent the probability distribution of finding the particle within the box. See why normalization is essential for ensuring the total probability is unity.
🔹 Physical Significance: Finally, explore what these quantized energy levels and wave functions mean in real-world systems, including applications in nanotechnology, quantum dots, and more.
This video is ideal for students and anyone interested in quantum mechanics. Join us to explore this classic quantum model and deepen your understanding of particles, wave functions, and energy quantization!
#chandigarhuniversity #crystallography #TypesOfSolids #unitcell #crystalstructure #scienceexplained #materialscience #chemistry #physics #education #stem #nanotechnology #scienceexplained #nanotech #stemeducation #nanomaterials #scientificexploration #physics #nanoscience #techexplained #innovation #futuretechnology #research #sciencevlogs #cuttingedgetech #sciencesimplified #nanotech #techeducation #quantumscienceb #Crystallography #dspacing #BraggsLaw #XrayDiffraction #ScienceExplained #braggslaw #xraydiffraction #physicsexplained #crystallography #scienceexplained #EnergyBands #SolidStatePhysics #BandTheory #Semiconductors #quantumphysics
Переглядів: 24
Відео
L19: Schrodinger’s wave equation: time-dependent and time independent.
Переглядів 172 години тому
In this video, we explore the Schrödinger Wave Equation, one of the most critical equations in quantum mechanics. This equation describes how the wave function of a quantum system evolves over time and space, allowing us to predict the behavior of particles at the atomic scale. 🔹 Time-Dependent Schrödinger Equation: We discuss the time-dependent form of Schrödinger's equation, which describes h...
L18: Wavefunction: Introduction, Physical Significance, and Properties.
Переглядів 194 години тому
In this video, we dive into the concept of the Wave Function in quantum mechanics, a fundamental idea that helps describe the behavior of particles at atomic and subatomic levels. We’ll cover its definition, meaning, and core properties that play a crucial role in understanding quantum systems. 🔹 Introduction to the Wave Function: We introduce the wave function, often represented by the Greek l...
L17: 1) Group Velocity, Phase Velocity and relation between them, Heisenberg Uncertainty Principle.
Переглядів 239 годин тому
In this video, we explore key concepts in wave mechanics and quantum theory: Group Velocity, Phase Velocity, and the Heisenberg Uncertainty Principle. These ideas are essential to understanding wave-particle interactions and the limitations of measurement in quantum mechanics. 🔹 Phase Velocity and Group Velocity: We define and distinguish between phase and group velocities, explaining how they ...
L16: Concept of De Broglie Wavelength or Matter Waves.
Переглядів 529 годин тому
This video delves into the fascinating concept of De Broglie Waves, also known as Matter Waves, a cornerstone of quantum mechanics. This idea, proposed by physicist Louis de Broglie, fundamentally changed our understanding of particles and waves. 🔹 What are Matter Waves?: Learn how De Broglie’s hypothesis revealed that particles, like electrons, have wave-like properties and how this led to the...
L15. Introduction to Quantum Mechanics, Black Body Radiation, and Planck Radiation Law.
Переглядів 4712 годин тому
Welcome to our Introduction to Quantum Mechanics! In this video, we embark on a journey to understand some foundational concepts in physics, starting with Black Body Radiation and Planck’s Radiation Law-key topics that paved the way for modern quantum mechanics. 🔹 Introduction to Quantum Mechanics: Discover why quantum mechanics emerged and how it challenged classical physics, changing our unde...
L14. Position of fermi level in Intrinsic semiconductors.
Переглядів 2714 годин тому
In this video, we dive deep into essential semiconductor physics concepts: Types of Band Gap, Fermi Energy, Fermi Level, and the Position of the Fermi Level in Intrinsic Semiconductors . Understanding these topics is key to grasping how semiconductors work and how they are utilized in electronic devices. Position of Fermi Level in Intrinsic Semiconductors: We discuss how the Fermi level lies mi...
L13: Types of bandgap, Fermi level, Fermi energy.
Переглядів 4114 годин тому
In this video, we dive deep into essential semiconductor physics concepts: Types of Band Gap, Fermi Energy, Fermi Level, and the Position of the Fermi Level in Intrinsic Semiconductors . Understanding these topics is key to grasping how semiconductors work and how they are utilized in electronic devices. 🔹 Types of Band Gap: We explore direct and indirect band gaps and explain their significanc...
L12: Formation of energy band in solids.
Переглядів 7721 день тому
Energy Band Formation: Understanding Electronic Structure in Solids In this video, we dive into the concept of energy bands in solid-state physics, which is crucial for understanding the electronic properties of materials like semiconductors, metals, and insulators. Discover how: - Energy bands form due to the overlap of atomic orbitals in crystals. - Band gaps determine a material's conductive...
L11: Properties and method to produce ultrasonic waves.
Переглядів 6021 день тому
Ultrasonic Waves: Methods of Production and Applications In this video, we explore the fascinating world of ultrasonic waves, frequencies beyond the range of human hearing! Learn how these high-frequency sound waves are produced through various methods, including: Piezoelectric Crystals: Utilizing electrical signals to create mechanical vibrations Discover how ultrasonic waves are used in medic...
L10: Bragg's Law of Diffraction: X-Ray Diffraction
Переглядів 5321 день тому
L10: Bragg's Law of Diffraction: X-Ray Diffraction
L9: Interplane spacing or d-spacing-distance between lattice planes
Переглядів 7221 день тому
L9: Interplane spacing or d-spacing-distance between lattice planes
L8: Miller Indices: Easy and Detailed explanation.
Переглядів 10828 днів тому
L8: Miller Indices: Easy and Detailed explanation.
L7: Crystallography: Types of Solids, Formation of crystal structure, Unit cell and its types.
Переглядів 127Місяць тому
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.
Переглядів 211Місяць тому
2. Dunn plot: Capacitive Contribution Using Power Law (Dunn Plot) Explained in detail.
1. Calculation of Specific Capacitance from Cyclic Voltammetry using Origin.
Переглядів 200Місяць тому
1. Calculation of Specific Capacitance from Cyclic Voltammetry using Origin.
L6: Introduction, Major Components, Types, Acceptance Angle and Numerical Aperture of Optical Fibre
Переглядів 1322 місяці тому
L6: Introduction, Major Components, Types, Acceptance Angle and Numerical Aperture of Optical Fibre
Lecture 5: He-Ne Laser: Principle, Construction, and Working.
Переглядів 792 місяці тому
Lecture 5: He-Ne Laser: Principle, Construction, and Working.
Lecture 4: Ruby Laser: Principle, Construction, and Working.
Переглядів 1292 місяці тому
Lecture 4: Ruby Laser: Principle, Construction, and Working.
Lecture 3: Population inversion, Pumping, and its Techniques
Переглядів 1042 місяці тому
Lecture 3: Population inversion, Pumping, and its Techniques
Lecture 2: Relation between Einstein's coefficients.
Переглядів 1622 місяці тому
Lecture 2: Relation between Einstein's coefficients.
Lecture 1: Stimulated Absorption, Spontaneous Emission, Stimulated Emission.
Переглядів 1202 місяці тому
Lecture 1: Stimulated Absorption, Spontaneous Emission, Stimulated Emission.
Fitting of Equivalent Circuit for Electrochemical Impedance Spectroscopy data using Zsimp software
Переглядів 6583 місяці тому
Fitting of Equivalent Circuit for Electrochemical Impedance Spectroscopy data using Zsimp software
How to plot graph in origin with both text and numeric values in the data
Переглядів 713 місяці тому
How to plot graph in origin with both text and numeric values in the data
Fitting of Equivalent Circuit for Electrochemical Impedance Spectroscopy data using ZView 4 software
Переглядів 2,4 тис.4 місяці тому
Fitting of Equivalent Circuit for Electrochemical Impedance Spectroscopy data using ZView 4 software
How to smooth and remove background noise from XRD data using Origin in very easy steps
Переглядів 4,9 тис.6 місяців тому
How to smooth and remove background noise from XRD data using Origin in very easy steps
Plotting Single Cycle from Multiple Cycles of Cyclic Voltammetry using origin (Single Voltammogram)
Переглядів 8088 місяців тому
Plotting Single Cycle from Multiple Cycles of Cyclic Voltammetry using origin (Single Voltammogram)
Canonical Correspondence Analysis (CCA) using PAST 4.11 Software
Переглядів 2,8 тис.Рік тому
Canonical Correspondence Analysis (CCA) using PAST 4.11 Software
Multiphase Rietveld Refinement using Full Prof Software
Переглядів 1,4 тис.2 роки тому
Multiphase Rietveld Refinement using Full Prof Software
U have my full support keep it up!!
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CTE extraordinaire
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Bro i am here laugh upon Indian student not on you my brother they don't deserve your content.....but keep it up soon i will connect with UA-cam....i have spent almost 20K for tution at the time that was huge amount not 🚫 so much lectures are available here rather than some government University organisation websites to access such knowledge.
Thank you so much for appreciation.
@@Your_Research_Buddywelcome my brother ❤
Thank you for your useful video
Thank you. Always happy to help.
In my sisters case .. it was the reverse
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The other contributor in the research is the camera guy
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Thanks for the information! However, I had some problems when I checked the resistance and capacitance values. The data shown in monitor table was the data before iteration. After open the monitor table, the fitting line would shift to the beginning position, which also presented in your video. I don't know how can I get the resistance and capacitance value after iteration? I will be very grateful if you tell me the solution~Thanks you and wish you a good day
Informative
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