The tutorials below introduce some computational tools in Python that will be useful in various physics classes. They are designed to get you started quickly by explaining example code that you can modify. There are also links to additional documentation where you can learn more. The tutorials are written as Jupyter notebooks (formerly known as IPython notebooks). Click on the links to view HTML versions of the tutorials (produced by *nbviewer*), where you can also download the notebook (.ipynb) files.

The programs require Python with the scipy and matplotlib libraries. Either of the following free options are suggested:

- Get a CoCalc (Collaborative Calcullation in the Cloud) account (formerly called SageMathCloud) and edit Python programs or Jupyter notebooks on a cloud based system. This also makes it is easy to collaborate.
- Install the Anaconda Python distribution and either use Spyder to edit and run programs or use Jupyter Notebook with files on your computer.

It is a good idea to start all of your programs with the following line (note that there are 2 underscores before and after "future"):

`from __future__ import division, print_function`

If you use Python 2, this will avoid the result of division being rounded to an integer (for example, "2/3" will not give zero) and will use the newer form of the print function. If you use Python 3, this will have no effect.

From within the notebook viewer, you can copy segments of Python code from a tutorial. You can also download a tutorial as a Jupyter notebook, which allows you to edit it.

Matrix Solution for a Set of Linear Equations

An Introduction to Making Plots

Text, Math, and Numbers in Figures

A Brief Introduction to Typesetting Mathematics with LaTeX

Reading and Writing Data Files

newsavetxt.py (put in the same directory as programs using the "savetxthd" function)

Histogramming and Binning Data

Linear Regression

fitting.py (put in same directory as the program using the "linear_fit" function)

Curve Fitting

fitting.py (put in the same directory as programs using the "general_fit" function)

Root Finding (Solutions to a Transcendental Equation)

Numerical Integration (Quadrature)

Solving Differential Equations with the Euler-Cromer Method

Solving Ordinary Differential Equations (ODEs)

Using the Relaxation Method to Solve Laplace's Equation

These tutorials are maintained by Alan DeWeerd.