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Videos

Video resources on robotics, control theory, biomechanics, and golf

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Video Categories

  • Educational Courses
  • Golf Biomechanics
  • Interesting Physics

Videos

Curated video resources on robotics, control theory, biomechanics, and golf science

Educational Courses

Modern Robotics

Comprehensive course by Kevin Lynch covering modern robotics fundamentals, including kinematics, dynamics, motion planning, and control. Essential for understanding robotic manipulators and their control.

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Advanced Control for Robotics

Advanced control theory course by Wei Zhang covering nonlinear control, optimal control, and advanced techniques for robotic systems. Highly relevant for understanding control-affine systems.

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Underactuated Robotics

MIT course by Professor Russ Tedrake on control of underactuated systems. Explores how to exploit natural dynamics rather than cancel them out, highly relevant to biomechanical systems like the golf swing.

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Robotic Manipulation

MIT course by Russ Tedrake on robotic manipulation, covering grasp planning, contact modeling, and manipulation strategies. Relevant for understanding how forces and torques interact in complex systems.

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Nonlinear Dynamics - Steve Strogatz

Video playlist by Professor Steve Strogatz covering nonlinear dynamics, chaos theory, and complex systems. This series provides deep insights into the mathematical foundations of dynamical systems, which are fundamental to understanding control-affine systems and biomechanical modeling.

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Control Systems Course

Comprehensive video course on control systems covering fundamental concepts, analysis methods, and design techniques. This playlist provides essential knowledge for understanding feedback control, stability analysis, and system dynamics relevant to biomechanical and robotic systems.

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A. Sala Control Channel

Control Systems - A. Sala Channel

YouTube channel by A. Sala featuring multiple playlists on control systems theory and applications. This channel offers comprehensive educational content covering various aspects of control engineering, including linear and nonlinear control, robust control, and practical applications relevant to understanding control-affine systems and biomechanical modeling.

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Mecharithm - Robotics Course

Comprehensive robotics course from Mecharithm covering fundamental concepts in robotics, including kinematics, dynamics, and control. This playlist provides essential knowledge for understanding robotic systems and their applications to biomechanical modeling and control-affine systems.

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Mecharithm - Additional Course Content

Additional educational content from Mecharithm covering advanced topics in robotics and mechanical systems. This playlist complements the main robotics course and provides deeper insights into specialized areas relevant to understanding complex mechanical systems and their control.

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Kane's Method

Educational video explaining Kane's method, a powerful technique for deriving equations of motion for mechanical systems. Kane's method provides an efficient alternative to Lagrangian mechanics for analyzing multibody systems and is particularly useful for systems with constraints. This method is relevant for understanding the dynamics of complex mechanical systems like the golf swing.

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Golf Biomechanics

Golf Biomechanics - Dr. Kwon

Video playlist by Dr. Young-Hoo Kwon covering golf biomechanics, swing analysis, and scientific approaches to understanding golf swing mechanics. Dr. Kwon is a Professor of Kinesiology at Texas Woman's University and offers swing analysis services and certification programs in golf biomechanics at TWU's Biomechanics & Motor Behavior Laboratory.

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Biomechanics of Movement

Biomechanics of Movement

YouTube channel featuring multiple playlists on biomechanics of movement, covering fundamental principles and applications of biomechanical analysis. This channel provides educational content on movement mechanics, kinematics, kinetics, and their applications to understanding human motion and sports biomechanics, including golf swing mechanics.

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Interesting Physics

Intermediate Axis Theorem (Secondary Axis Instability)

Demonstration of the intermediate axis theorem, also known as secondary axis instability or the tennis racket theorem. This fundamental principle of rigid body dynamics explains why rotation about the intermediate moment of inertia axis is unstable, which has important implications for understanding golf club dynamics and shaft behavior during the swing.

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Dead Fish Swimming Upstream

A fascinating fluid dynamics demonstration showing how a dead fish can swim upstream due to vortex-induced motion. This phenomenon illustrates important principles of fluid-structure interactions and passive dynamics, which have relevance to understanding how objects move through fluids and how passive forces can drive motion in biomechanical systems.

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