Lectures related to Biomechanics: Temporal Summations

Explores the dynamics of a rolling cylinder on inclined planes with and without slipping.

Covers the physics of winding a wire around a cylinder and analyzing its perpendicularity.

Covers the analysis of fatigue data and data extraction using Excel.

Covers the fundamentals of motion, including velocity, acceleration, and Newton's laws.

Covers the analysis of passive figures in BioMechanics using Excel.

Explores Newton's Second Law, relating force, mass, and acceleration in dynamic systems.

Explores the dynamics of objects in motion through Newton's laws and their applications.

Explores momentum, impulse, and conservation principles in dynamic systems.

Explores work, kinetic energy, forces, and energy conservation in mechanical systems.

Introduces the fundamentals of energy, work, and power, covering harmonic oscillators, conservative forces, and energy conservation.

Explores potential energy, conservation of energy, power of gravity, and cliff jumping scenarios.

Covers magnetic fields, Ampère's law, and magnetic dipoles with examples and illustrations.

Covers dynamics in non-inertial frames, including velocity and acceleration transformations and the concept of apparent forces.

Explores force, momentum, and velocity in point particles, emphasizing Newton's laws and conservation principles.

Covers the concept of electric current and its conditions for flow.

Introduces Newton's laws of motion, covering force, mass, frames of reference, and practical examples like friction and springs.

Covers the problem statement of assembly, precision requirements, common couplings, stability, and spatial vectors.

Explores circular motion, friction, and Newton's laws in various coordinate systems.

Covers tensor analysis, kinematics, and fluid mechanics in continuum mechanics.