
Discrete-Time Dynamical Systems
This video shows how discrete-time dynamical systems may be induced from continuous-time systems.
See MoreControl Bootcamp: Three Equivalent Representations of Linear Systems
This video explores three equivalent representations of linear systems: State-space ODEs, Frequency domain transfer functions, and Time-domain impulse response convolution.
See MoreDerivation of the 1D Wave Equation
In this video, we derive the 1D wave equation. This partial differential equation (PDE) applies to scenarios such as the vibrations of a continuous string. ...
See MoreMachine Learning Goals
This lecture discusses the high-level goals of machine learning, and what we want out of our models. Goals include speed and accuracy, along with interpretability, generalizability...
See MoreTrimming a Model of a Dynamic System Using Numerical Optimization
In this video we show how to find a trim point of a dynamic system using numerical optimization techniques. We generate a cost function that corresponds to a straight and level flight...
See MoreIntroduction to Deep Learning by Andrew NG [COMPLETE]
Andrew Ng's course on deep learning and neural networks.
See MoreFrequency domain – tutorial 12: FT of periodic signals
In this video, we learn how to find the Fourier transform for periodic signals. The following materials are covered:1) relation between Fourier transform and...
See MoreIntroduction to the Fourier Transform (Part 1)
This video is an introduction to the Fourier Transform. I try to give a little bit of background into what the transform does and then I go step by step through explaining the Inverse...
See MoreHow the Flight Controller Code Works - dRehmFlight VTOL
This video will walk you through the flight controller code of dRehmFlight VTOL to give you a better understanding of the contents and structure. The hope is that it will cover almost...
See MorePosicast Control -3 - ( In English )
In this video a Gantry-Crane control simulation problem is introduced. The problem is presented and some introductory simulations are shown.
See MoreTime domain - tutorial 6: elementary signals
In this video, we cover two elementary signals, unit step and unit impulse, which will be extensively used in this course. The following materials are covere...
See MoreDynamic Behavior and Input Types in Process Control
An introduction to the four types of dynamic behavior and five types of inputs (step, ramp, pulse, impulse, and sinusoidal), and why transfer functions are u...
See MorePID Control with Posicast Control 8 - ( In English )
This is the follow up of PID Control with Posicast ( Part II )
See MoreLecture 9: Time response and Time domain specifications
Peter Ponders PID - Simulation Methods, Which is Best?
Intro to Process Control
I discuss the motivation and introduce the logic behind controllers that engineers design to respond to errors in outputs (deviations from set points). P and...
See MoreTUTORIAL on Stability and Routh Hurwitz criterion
Stanford CS234: Reinforcement Learning | Winter 2019 | Lecture 2 - Given a M...
Professor Emma Brunskill
Assistant Professor, Computer Science
Stanford AI for Human Impact Lab
Stanford Artificial Intelligence Lab
Statistical Machine Learning Group
Peter Ponders PID - System Identification Basics
Routh Array and Stability
I show how we can find the range of allowed controller gains for a system that will allow us to maintain stability using a Routh Array.
See MoreKoopman Spectral Analysis (Multiscale systems)
In this video, we discuss recent applications of data-driven Koopman theory to multi-scale systems.
See MoreRL Course by David Silver - Lecture 6: Value Function Approximation
A deep dive into incremental methods and batch methods of value function approximation.
See MoreRobotic Car, Closed Loop Control Example
I demonstrate the value of closed loop control in an uncertain environment using my Zumo Robot car. If you're interested in building one yourself and trying this out I think I've given you...
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