Automatically Compute Jacobian matrices in Python and Generate Python Function-Scientific Computing

#controltheory #mechatronics #systemidentification #machinelearning #datascience #recurrentneuralnetworks #signalprocessing #dynamics #mechanics #mechanicalengineering #controltheory #mechatronics #robotics #astrodynamics #astrophysics #physics #chaos #mathematics #mathematicians#electricalengineering #mechanicalengineering #engineering #leastsquares #nonlinearsystems #modelpredictivecontrol #optimalcontrol #controlengineering #controltheory #optimalcontrol #modelpredictivecontrol #robotics #reinforcementlearning #automation #industrialautomation #processcontrol #systemidentification #machinelearning #python #optimization #datascience #timeseries #automation #robotics #mechatronics #gnc #nonlinear #mathematics #signalprocessing #processengineering #processautomation #observability #controllability #estimation #linearsystems #advancedcontrol

It takes a significant amount of time and energy to create these free video tutorials. You can support my efforts in this way:
Buy me a Coffee: https://www.buymeacoffee.com/Aleksand...
PayPal: https://www.paypal.me/AleksandarHaber
Patreon: https://www.patreon.com/user?u=320801...
You Can also press the Thanks YouTube Dollar button

In this Python scientific computing, signal processing, optimization, and control theory tutorial you will learn how to automatically compute Jacobians of vector functions in Python by using the symbolic Python library called SymPy. Furthermore, you will learn how to automatically generate code that will return the Jacobian matrix for the specified input vector. That is, you will learn how to write a Python script that will evaluate the value of the Jacobian matrix for the specified input vector (point in n-dimensional space). This tutorial is very important for engineers and students who want to develop optimization solvers or signal processing and control engineering algorithms in Python. Namely, a number of optimization solvers and control engineering algorithms are based on the computation of the Jacobians of nonlinear functions.

Here is a brief summary of the video tutorial. First, we provide a brief summary of Jacobian matrices of vector functions. We briefly introduce vector functions and explain how to compute Jacobian matrices of vector functions. Then, in order to test our Python implementation, we construct an example of a nonlinear vector function. We explain how to analytically compute the Jacobian matrix of this function. The computed analytical form of the Jacobian is used to test our Python implementation. Finally, we explain how to compute the Jacobian matrices in Python by using the SymPy library and how to generate Python functions out of computed symbolic expressions.