Udemy Computational Physics Scientific Programming with Python | 1D2DA99E64B7492C7459C1D5FB12D14A9463F119

Udemy Computational Physics Scientific Programming with Python

Name	Udemy - Computational Physics Scientific Programming with Python	DOWNLOAD Copy Link Trouble downloading? see How To
Total Size	7.4 GB
Total Files	401
Last Seen	2025-07-08 02:04
Hash	1D2DA99E64B7492C7459C1D5FB12D14A9463F119

/01 - Python installation via Anaconda & Alternatives/
001 Hello & Welcome!.html	0.6 KB
002 Overview.png	239.8 KB
002 Structure & Overview of this course.mp4	36.2 MB
002 Structure & Overview of this course_en.srt	7.3 KB
003 Installing Python via Anaconda for free.mp4	42.3 MB
003 Installing Python via Anaconda for free_en.srt	8.9 KB
004 Jupyter notebook - Our tool of choice.mp4	22.0 MB
004 Jupyter notebook - Our tool of choice_en.srt	7.2 KB
005 Style your notebook.mp4	19.1 MB
005 Style your notebook_en.srt	4.3 KB
006 HOW TO use this course.mp4	30.0 MB
006 HOW TO use this course_en.srt	2.0 KB
007 LET'S GET STARTED with scientific programming!.html	0.7 KB
008 (FAQ) Typical problems & errors.html	1.7 KB
009 (optional) Style sheets for your notebook.mp4	47.4 MB
009 (optional) Style sheets for your notebook_en.srt	7.5 KB
010 (optional) Alternative development environments For large projects - PyCharm.mp4	33.0 MB
010 (optional) Alternative development environments For large projects - PyCharm_en.srt	8.9 KB
011 (optional) Alternative development environments Allrounder - Visual Studio Code.mp4	28.6 MB
011 (optional) Alternative development environments Allrounder - Visual Studio Code_en.srt	7.6 KB
012 (optional) Environments & Updates.mp4	17.2 MB
012 (optional) Environments & Updates_en.srt	3.1 KB
/02 - [Optional] Python Crash Course/
001 Introduction to section Optional Python crash course.mp4	34.2 MB
001 Introduction to section Optional Python crash course_en.srt	2.2 KB
002 02-Crash-course-template.ipynb	22.4 KB
002 Template file.html	0.5 KB
003 Numpy & Basic mathematics.mp4	24.5 MB
003 Numpy & Basic mathematics_en.srt	7.0 KB
004 Data types of numbers.mp4	28.2 MB
004 Data types of numbers_en.srt	8.2 KB
005 Strings.mp4	12.4 MB
005 Strings_en.srt	3.4 KB
006 [Solution] Coding Exercise Basic programming sqrt.html	0.1 KB
007 Lists.mp4	34.8 MB
007 Lists_en.srt	11.1 KB
008 Arrays.mp4	49.7 MB
008 Arrays_en.srt	13.2 KB
009 Vectors & Matrices.mp4	45.3 MB
009 Vectors & Matrices_en.srt	13.1 KB
010 Dictionaries.mp4	24.0 MB
010 Dictionaries_en.srt	6.7 KB
011 Loops & If statements.mp4	39.2 MB
011 Loops & If statements_en.srt	13.3 KB
012 Working with data files.mp4	43.4 MB
012 Working with data files_en.srt	13.3 KB
013 Functions.mp4	44.2 MB
013 Functions_en.srt	13.6 KB
014 [Solution] Coding Exercise Implement a function with loops.html	0.1 KB
015 Plots with matplotlib.mp4	71.3 MB
015 Plots with matplotlib_en.srt	18.0 KB
016 Density plot.mp4	59.9 MB
016 Density plot_en.srt	13.8 KB
017 3D Plots.mp4	51.9 MB
017 3D Plots_en.srt	11.4 KB
018 Crash course recap.mp4	9.6 MB
018 Crash course recap_en.srt	0.7 KB
019 02-Crash-course-template.ipynb	22.4 KB
019 02-Crash-course.ipynb	255.7 KB
019 Resources & Links.html	0.5 KB
/03 - Series expansion, interpolation & data fitting/
001 Introduction.mp4	34.8 MB
001 Introduction_en.srt	2.2 KB
002 03-Interpolation-template.ipynb	9.5 KB
002 Template file.html	0.1 KB
003 Taylor expansion of exponential function.mp4	51.5 MB
003 Taylor expansion of exponential function_en.srt	13.3 KB
004 Taylor expansion of sin function.mp4	31.9 MB
004 Taylor expansion of sin function_en.srt	8.0 KB
005 Numerically calculating (higher) derivatives.mp4	51.3 MB
005 Numerically calculating (higher) derivatives_en.srt	13.3 KB
006 Taylor expansion of general function.mp4	59.7 MB
006 Taylor expansion of general function_en.srt	11.0 KB
007 Interpolation.mp4	38.5 MB
007 Interpolation_en.srt	10.1 KB
008 Linear and cubic splines.mp4	38.3 MB
008 Linear and cubic splines_en.srt	9.6 KB
009 Using splines to fit perturbed data.mp4	41.6 MB
009 Using splines to fit perturbed data_en.srt	9.6 KB
010 Perfect interpolation using polynomials - Solving a system of linear equations.mp4	85.0 MB
010 Perfect interpolation using polynomials - Solving a system of linear equations_en.srt	18.1 KB
011 [Exercise] (optional) Generalize the procedure for more data points.html	0.2 KB
012 Fitting a polynomial model function.mp4	24.3 MB
012 Fitting a polynomial model function_en.srt	6.2 KB
013 Calculating the fitting error.mp4	33.8 MB
013 Calculating the fitting error_en.srt	8.9 KB
014 Calculating the gradient of the error.mp4	61.9 MB
014 Calculating the gradient of the error_en.srt	12.7 KB
015 Update the coefficients using gradient descent.mp4	71.0 MB
015 Update the coefficients using gradient descent_en.srt	15.8 KB
016 [Exercise] (optional) Try a different model function of your choice.html	0.4 KB
017 Section recap.mp4	16.1 MB
017 Section recap_en.srt	1.0 KB
018 03-Interpolation-template.ipynb	9.5 KB
018 03-Interpolation.ipynb	251.1 KB
018 Resources & Links.html	0.5 KB
/04 - Derivatives/
001 Introduction.mp4	50.5 MB
001 Introduction_en.srt	3.4 KB
002 04a-Derivatives-template.ipynb	14.2 KB
002 figure-04-derivatives.png	78.3 KB
002 Template file.html	0.1 KB
003 Background Derivatives.mp4	17.5 MB
003 Background Derivatives_en.srt	4.5 KB
004 Implementation of derivatives in Python.mp4	62.0 MB
004 Implementation of derivatives in Python_en.srt	13.8 KB
005 Why is the central-differences method better.mp4	53.9 MB
005 Why is the central-differences method better_en.srt	11.9 KB
006 Better accuracy Richardson method.mp4	114.2 MB
006 Better accuracy Richardson method_en.srt	24.1 KB
007 Implementing second derivative.mp4	69.2 MB
007 Implementing second derivative_en.srt	13.2 KB
008 [Exercise] Calculate velocity and acceleration.mp4	17.8 MB
008 [Exercise] Calculate velocity and acceleration_en.srt	4.7 KB
009 04b-Exercise-velocity-acceleration-data-file.dat	29.0 KB
009 04b-Exercise-velocity-acceleration.ipynb	14.5 KB
009 Exercise files Calculate velocity and acceleration.html	0.5 KB
010 04b-Exercise-velocity-acceleration-data-file.dat	29.0 KB
010 04b-Exercise-velocity-acceleration-solution.ipynb	14.5 KB
010 [Solution] Calculate velocity and acceleration.mp4	129.9 MB
010 [Solution] Calculate velocity and acceleration_en.srt	26.5 KB
011 Multidimensional derivatives Gradient.mp4	51.5 MB
011 Multidimensional derivatives Gradient_en.srt	12.6 KB
012 Multidimensional derivatives Divergence & curl.mp4	39.5 MB
012 Multidimensional derivatives Divergence & curl_en.srt	7.9 KB
013 Section recap.mp4	30.9 MB
013 Section recap_en.srt	2.0 KB
014 04a-Derivatives-template.ipynb	14.2 KB
014 04a-Derivatives.ipynb	485.8 KB
014 04b-Exercise-velocity-acceleration-data-file.dat	29.0 KB
014 04b-Exercise-velocity-acceleration-solution.ipynb	174.1 KB
014 04b-Exercise-velocity-acceleration.ipynb	14.5 KB
014 figure-04-derivatives.png	78.3 KB
014 Resources & Links.html	0.5 KB
/05 - Integrals/
001 Introduction.mp4	44.0 MB
001 Introduction_en.srt	2.8 KB
002 05a-Basics-integration-template.ipynb	6.4 KB
002 05b-Rotation-geometric-objects-template.ipynb	9.3 KB
002 05c-Magnetic-field-wire-template.ipynb	5.1 KB
002 05d-Fourier-transform-template.ipynb	22.2 KB
002 figure-05-derivation-wire.png	189.0 KB
002 figure-05-hand.svg	22.9 KB
002 figure-05-integral.png	68.9 KB
002 Template files.html	0.1 KB
003 Background on integrals.mp4	37.6 MB
003 Background on integrals_en.srt	9.2 KB
004 Discretizing integrals & Trapezoidal method.mp4	66.1 MB
004 Discretizing integrals & Trapezoidal method_en.srt	13.7 KB
005 Improving accuracy Simpson rule and beyond.mp4	46.5 MB
005 Improving accuracy Simpson rule and beyond_en.srt	9.1 KB
006 [Project] Rotational energy & Moment of inertia - Start with a point mass.mp4	65.9 MB
006 [Project] Rotational energy & Moment of inertia - Start with a point mass_en.srt	16.5 KB
007 Rotating a stick around one end.mp4	75.3 MB
007 Rotating a stick around one end_en.srt	17.7 KB
008 [Exercise] Rotating a stick around the center.mp4	10.2 MB
008 [Exercise] Rotating a stick around the center_en.srt	2.2 KB
009 [Solution] Rotating a stick around the center.mp4	18.9 MB
009 [Solution] Rotating a stick around the center_en.srt	3.9 KB
010 Rotating a sphere Analytical solution.mp4	36.4 MB
010 Rotating a sphere Analytical solution_en.srt	10.3 KB
011 Rotating a sphere Numerical solution.mp4	70.9 MB
011 Rotating a sphere Numerical solution_en.srt	14.9 KB
012 [Exercise] Rotating a spherical shell.mp4	14.2 MB
012 [Exercise] Rotating a spherical shell_en.srt	3.2 KB
013 [Solution] Rotating a spherical shell.mp4	30.7 MB
013 [Solution] Rotating a spherical shell_en.srt	5.9 KB
014 [Project] Magnetic field of a wire - Explaining the problem.mp4	37.6 MB
014 [Project] Magnetic field of a wire - Explaining the problem_en.srt	9.5 KB
015 Preparing the arrays.mp4	51.2 MB
015 Preparing the arrays_en.srt	11.4 KB
016 Calculating the vector potential of a charged wire.mp4	90.9 MB
016 Calculating the vector potential of a charged wire_en.srt	18.1 KB
017 Calculating the magnetic field of a charged wire.mp4	66.7 MB
017 Calculating the magnetic field of a charged wire_en.srt	16.4 KB
018 Quiver plot of the magnetic field.mp4	35.3 MB
018 Quiver plot of the magnetic field_en.srt	6.3 KB
019 Analyzing a periodic signal via Fourier transforms.mp4	21.9 MB
019 Analyzing a periodic signal via Fourier transforms_en.srt	6.7 KB
020 Fourier transform.mp4	52.9 MB
020 Fourier transform_en.srt	13.4 KB
021 Numpy Fast fourier transform (FFT).mp4	13.8 MB
021 Numpy Fast fourier transform (FFT)_en.srt	3.7 KB
022 Section recap.mp4	18.5 MB
022 Section recap_en.srt	1.2 KB
023 05a-Basics-integration-template.ipynb	6.4 KB
023 05a-Basics-integration.ipynb	27.3 KB
023 05b-Rotation-geometric-objects-template.ipynb	9.3 KB
023 05b-Rotation-geometric-objects.ipynb	239.0 KB
023 05c-Magnetic-field-wire-template.ipynb	5.1 KB
023 05c-Magnetic-field-wire.ipynb	228.2 KB
023 05d-Fourier-transform-template.ipynb	22.2 KB
023 05d-Fourier-transform.ipynb	68.7 KB
023 figure-05-derivation-wire.png	189.0 KB
023 figure-05-hand.svg	22.9 KB
023 figure-05-integral.png	68.9 KB
023 Resources & Links.html	0.5 KB
/06 - Differential equations I Basics and 1-dimensional problems/
001 Introduction.mp4	38.8 MB
001 Introduction_en.srt	2.6 KB
002 06-Differential-equations-template.ipynb	12.0 KB
002 Template file.html	0.1 KB
003 Background Euler method.mp4	18.3 MB
003 Background Euler method_en.srt	4.9 KB
004 Example 1 Radioactive decay.mp4	51.0 MB
004 Example 1 Radioactive decay_en.srt	12.7 KB
005 Defining a general function for the Euler method.mp4	47.3 MB
005 Defining a general function for the Euler method_en.srt	10.3 KB
006 Example 2 Time-amplified radioactive decay.mp4	35.1 MB
006 Example 2 Time-amplified radioactive decay_en.srt	8.5 KB
007 Higher-order differential equations.mp4	40.2 MB
007 Higher-order differential equations_en.srt	10.0 KB
008 Example 3 Free fall.mp4	31.8 MB
008 Example 3 Free fall_en.srt	7.2 KB
009 Example 4 Pendulum.mp4	41.7 MB
009 Example 4 Pendulum_en.srt	9.3 KB
010 Accurate solution of the pendulum.mp4	25.8 MB
010 Accurate solution of the pendulum_en.srt	4.4 KB
011 Adding damping and driving forces.mp4	43.1 MB
011 Adding damping and driving forces_en.srt	8.6 KB
012 Improvement Use the SciPy function solve_ivp.mp4	55.9 MB
012 Improvement Use the SciPy function solve_ivp_en.srt	11.7 KB
013 Higher-order differential equations with solve_ivp.mp4	39.7 MB
013 Higher-order differential equations with solve_ivp_en.srt	8.2 KB
014 Compare different methods for solving differential equations.mp4	82.0 MB
014 Compare different methods for solving differential equations_en.srt	14.4 KB
015 Implementation of Runge Kutta 4th order method.mp4	66.8 MB
015 Implementation of Runge Kutta 4th order method_en.srt	13.2 KB
016 Implementation of RK45.mp4	38.0 MB
016 Implementation of RK45_en.srt	7.4 KB
017 Comparison of our three methods to solve differential equations.mp4	54.9 MB
017 Comparison of our three methods to solve differential equations_en.srt	9.6 KB
018 Section recap.mp4	15.9 MB
018 Section recap_en.srt	1.0 KB
019 06-Differential-equations-template.ipynb	12.0 KB
019 06-Differential-equations.ipynb	516.5 KB
019 Resources & Links.html	0.5 KB
/07 - Differential equations II Multiple dimensions/
001 Introduction.mp4	48.7 MB
001 Introduction_en.srt	3.1 KB
002 07a-Multidimensional-rolling-ball-template.ipynb	68.2 KB
002 07b-Multidimensional-lorenz-template.ipynb	2.1 KB
002 07c-Multidimensional-heat-equation-template.ipynb	5.0 KB
002 07d-Mutidimensional-3-body-template.ipynb	8.7 KB
002 Template files.html	0.1 KB
003 [Project] Simulating a rolling ball - Two decoupled oscillators.mp4	35.6 MB
003 [Project] Simulating a rolling ball - Two decoupled oscillators_en.srt	9.0 KB
004 Solving the differential equation of a rolling ball.mp4	73.0 MB
004 Solving the differential equation of a rolling ball_en.srt	15.9 KB
005 Different starting conditions & external forces acting on the ball.mp4	46.9 MB
005 Different starting conditions & external forces acting on the ball_en.srt	9.9 KB
006 [Project] Chaos & Lorenz systems - Explanation of the differential equation.mp4	12.1 MB
006 [Project] Chaos & Lorenz systems - Explanation of the differential equation_en.srt	4.1 KB
007 Solving the Lorenz differential equation for the chaotic case.mp4	72.3 MB
007 Solving the Lorenz differential equation for the chaotic case_en.srt	14.8 KB
008 Solving the Lorenz differential equation for the non-chaotic case.mp4	25.5 MB
008 Solving the Lorenz differential equation for the non-chaotic case_en.srt	4.4 KB
009 [Project] Heat equation - Explanation of the differential equation.mp4	31.8 MB
009 [Project] Heat equation - Explanation of the differential equation_en.srt	8.7 KB
010 Solving the heat equation in one dimension.mp4	79.0 MB
010 Solving the heat equation in one dimension_en.srt	16.9 KB
011 Solving the heat equation in two dimensions.mp4	118.0 MB
011 Solving the heat equation in two dimensions_en.srt	22.6 KB
012 [Project] 3-body problem Coupled differential equations for sun, earth & moon.mp4	30.8 MB
012 [Project] 3-body problem Coupled differential equations for sun, earth & moon_en.srt	8.8 KB
013 Coding the differential equations for sun, earth & moon.mp4	60.9 MB
013 Coding the differential equations for sun, earth & moon_en.srt	15.2 KB
014 Solving the differential equations for sun, earth & moon (3-body problem).mp4	34.9 MB
014 Solving the differential equations for sun, earth & moon (3-body problem)_en.srt	7.8 KB
015 Analyzing the orbital motion of earth & moon.mp4	86.4 MB
015 Analyzing the orbital motion of earth & moon_en.srt	16.4 KB
016 Comment on inclination of the moon.mp4	9.3 MB
016 Comment on inclination of the moon_en.srt	2.6 KB
017 [Project] Rocketship - Coding & Solving the differential equations.mp4	52.3 MB
017 [Project] Rocketship - Coding & Solving the differential equations_en.srt	10.9 KB
018 Changing starting velocity Elliptical orbit around earth.mp4	47.2 MB
018 Changing starting velocity Elliptical orbit around earth_en.srt	8.3 KB
019 Simulating earth escape.mp4	57.2 MB
019 Simulating earth escape_en.srt	10.7 KB
020 Simulating a moon encounter.mp4	32.0 MB
020 Simulating a moon encounter_en.srt	6.5 KB
021 Brake maneuver to reach moon orbit.mp4	92.1 MB
021 Brake maneuver to reach moon orbit_en.srt	20.5 KB
022 Section recap.mp4	17.1 MB
022 Section recap_en.srt	1.1 KB
023 07a-Multidimensional-rolling-ball-template.ipynb	68.2 KB
023 07a-Multidimensional-rolling-ball.ipynb	217.7 KB
023 07b-Multidimensional-lorenz-template.ipynb	2.1 KB
023 07b-Multidimensional-lorenz.ipynb	191.7 KB
023 07c-Multidimensional-heat-equation-template.ipynb	5.0 KB
023 07c-Multidimensional-heat-equation.ipynb	159.2 KB
023 07d-Mutidimensional-3-body-template.ipynb	8.7 KB
023 07d-Mutidimensional-3-body.ipynb	580.2 KB
023 Resources & Links.html	0.5 KB
/08 - Eigenvalue problems/
001 Introduction.mp4	37.2 MB
001 Introduction_en.srt	2.5 KB
002 08-Eigenvalue-coupled-oscillators-template.ipynb	16.1 KB
002 figure-08-coupled-oscillators-circle.png	77.7 KB
002 figure-08-coupled-oscillators.png	19.4 KB
002 Template file.html	0.1 KB
003 Three coupled oscillators Equations of motion.mp4	32.7 MB
003 Three coupled oscillators Equations of motion_en.srt	9.1 KB
004 Numerical solution of the coupled differential equations.mp4	55.2 MB
004 Numerical solution of the coupled differential equations_en.srt	13.2 KB
005 Why is it an eigenvalue problem.mp4	29.2 MB
005 Why is it an eigenvalue problem_en.srt	8.7 KB
006 [Exercise] Write your own routine to calculate the eigenvalues.mp4	11.8 MB
006 [Exercise] Write your own routine to calculate the eigenvalues_en.srt	3.4 KB
007 [Solution] Write your own routine to calculate the eigenvalues.mp4	84.3 MB
007 [Solution] Write your own routine to calculate the eigenvalues_en.srt	20.7 KB
008 Analyzing the eigenmodes of the three coupled oscillators.mp4	26.5 MB
008 Analyzing the eigenmodes of the three coupled oscillators_en.srt	6.0 KB
009 Fourier transform Find the characteristic frequencies of the numerical solution.mp4	76.3 MB
009 Fourier transform Find the characteristic frequencies of the numerical solution_en.srt	16.3 KB
010 [Exercise] Fit three harmonic oscillations to our numerical solution.mp4	21.2 MB
010 [Exercise] Fit three harmonic oscillations to our numerical solution_en.srt	5.3 KB
011 [Solution] Fit three harmonic oscillations to our numerical solution.mp4	98.6 MB
011 [Solution] Fit three harmonic oscillations to our numerical solution_en.srt	19.3 KB
012 Generalization to n coupled oscillators.mp4	65.0 MB
012 Generalization to n coupled oscillators_en.srt	13.1 KB
013 Introduce periodic boundary conditions.mp4	31.0 MB
013 Introduce periodic boundary conditions_en.srt	6.5 KB
014 08-Eigenvalue-coupled-oscillators-template.ipynb	16.1 KB
014 08-Eigenvalue-coupled-oscillators.ipynb	637.1 KB
014 figure-08-coupled-oscillators-circle.png	77.7 KB
014 figure-08-coupled-oscillators.png	19.4 KB
014 Resources & Links.html	0.5 KB
/09 - Monte Carlo algorithms/
001 Introduction.mp4	53.0 MB
001 Introduction_en.srt	3.3 KB
002 09a-MC-pi-template.ipynb	15.8 KB
002 09b-MC-magnet-template.ipynb	7.5 KB
002 Template files.html	0.1 KB
003 [Project] Calculating Pi - Explaining the idea.mp4	26.1 MB
003 [Project] Calculating Pi - Explaining the idea_en.srt	7.8 KB
004 Approximating Pi using a Monte Carlo algorithm.mp4	64.2 MB
004 Approximating Pi using a Monte Carlo algorithm_en.srt	15.1 KB
005 Alternative solution and time comparison for approximating Pi.mp4	42.5 MB
005 Alternative solution and time comparison for approximating Pi_en.srt	9.8 KB
006 [Project] Simulating a magnet - Setting up & plotting the initial state.mp4	103.1 MB
006 [Project] Simulating a magnet - Setting up & plotting the initial state_en.srt	24.8 KB
007 Defining the energy.mp4	83.0 MB
007 Defining the energy_en.srt	16.1 KB
008 Simulating a Metropolis step.mp4	122.0 MB
008 Simulating a Metropolis step_en.srt	21.4 KB
009 Running the Monte Carlo algorithm.mp4	64.3 MB
009 Running the Monte Carlo algorithm_en.srt	12.5 KB
010 Improve code using finite temperatures.mp4	68.9 MB
010 Improve code using finite temperatures_en.srt	12.1 KB
011 Implement interaction with a magnetic field.mp4	45.6 MB
011 Implement interaction with a magnetic field_en.srt	7.8 KB
012 Dzyaloshinskii–Moriya interaction giving rise to non-collinear spin textures.mp4	100.7 MB
012 Dzyaloshinskii–Moriya interaction giving rise to non-collinear spin textures_en.srt	16.4 KB
013 Section recap.mp4	24.1 MB
013 Section recap_en.srt	1.7 KB
014 09a-MC-pi-template.ipynb	15.8 KB
014 09a-MC-pi.ipynb	174.2 KB
014 09b-MC-magnet-template.ipynb	7.5 KB
014 09b-MC-magnet.ipynb	859.2 KB
014 Resources & Links.html	0.5 KB
/10 - [Add On] Quantum mechanics Solving the Schrödinger equation/
001 Introduction.mp4	27.6 MB
001 Introduction_en.srt	1.8 KB
002 Physical background.html	2.0 KB
003 [Project] Particle in a box.html	0.9 KB
004 Finding the first solution via the shooting method.mp4	35.3 MB
004 Finding the first solution via the shooting method_en.srt	12.7 KB
005 Determining & Discussing the eigensystem of the particle in a box.mp4	95.3 MB
005 Determining & Discussing the eigensystem of the particle in a box_en.srt	27.0 KB
006 [Project] Quantum harmonic oscillator.html	0.8 KB
007 Adapting our notebook to the new potential.mp4	35.1 MB
007 Adapting our notebook to the new potential_en.srt	11.7 KB
008 Determining & Discussing the eigensystem of the quantum harmonic oscillator.mp4	98.2 MB
008 Determining & Discussing the eigensystem of the quantum harmonic oscillator_en.srt	22.4 KB
009 How can we solve this problem more easily.html	0.6 KB
010 Use Mathematica to solve the problem with only a few lines of code.mp4	19.0 MB
010 Use Mathematica to solve the problem with only a few lines of code_en.srt	4.4 KB
011 Section recap.mp4	21.2 MB
011 Section recap_en.srt	1.4 KB
012 10a-Particle-in-a-box.ipynb	143.5 KB
012 10b-Quantum-harmonic-oscillator.ipynb	317.5 KB
012 Resources & Links.html	0.5 KB
/11 - [Add on] Nobel prize lecture Electronic properties of graphene/
001 Introduction.mp4	41.3 MB
001 Introduction_en.srt	2.7 KB
002 11-Graphene-template.ipynb	225.1 KB
002 Template file.html	0.1 KB
003 From free electrons to band structures.mp4	128.5 MB
003 From free electrons to band structures_en.srt	28.6 KB
004 Plotting a graphene lattice.mp4	76.6 MB
004 Plotting a graphene lattice_en.srt	15.0 KB
005 Band structure of graphene.mp4	143.2 MB
005 Band structure of graphene_en.srt	28.7 KB
006 Dirac points and massless electrons.mp4	33.8 MB
006 Dirac points and massless electrons_en.srt	7.9 KB
007 Plotting a graphene nanoribbon.mp4	89.5 MB
007 Plotting a graphene nanoribbon_en.srt	13.8 KB
008 Band structure of a graphene nanoribbon.mp4	118.5 MB
008 Band structure of a graphene nanoribbon_en.srt	20.3 KB
009 Applying magnetic field Landau quantization & Quantum Hall effect.mp4	133.8 MB
009 Applying magnetic field Landau quantization & Quantum Hall effect_en.srt	22.2 KB
010 Moire lattice of twisted bilayers of graphene.mp4	50.3 MB
010 Moire lattice of twisted bilayers of graphene_en.srt	6.4 KB
011 Section recap.mp4	23.7 MB
011 Section recap_en.srt	1.5 KB
012 11-Graphene-template.ipynb	225.1 KB
012 11-Graphene.ipynb	678.7 KB
012 Resources & Links.html	0.4 KB
013 THANK YOU & GOODBYE!.mp4	14.6 MB
013 THANK YOU & GOODBYE!_en.srt	1.0 KB
Total files 401