Lectures in course PHYS-101(g): General physics : mechanics

Covers course organization, exercises, problem-solving, and exam conditions in general physics mechanics.

Covers rectilinear motion concepts, including acceleration and differential equations, with examples of uniform motion.

Covers constant integration, vector equations, and applying physical laws to solve movement problems.

Covers the definition of differential equations and their relation to functions and derivatives.

Covers the description of motion of solid systems and dynamics of rigid bodies.

Explores inclined planes, binding forces, projections of forces, tides, and ballistic motion.

Explores rigid body motion, focusing on contact conditions and rolling without slipping.

Explores Newton's laws in free fall, ballistic movement, and harmonic oscillators, along with Hooke's law for elastic springs.

Covers the dynamics of solids, including contact between solids, center of mass theorem, and moment of inertia.

Explores the one-dimensional harmonic oscillator, covering nature of movement, equilibrium position, differential equations, and dynamic aspects.

Explores kinetic moment and inertia in mechanics, emphasizing their role in describing rotational dynamics.

Covers trigonometric functions, derivatives, differential equations, and vector properties.

Analyzes the collision of Swiss wrestlers, determining final velocity and energy dissipation.

Covers vector properties, rules, and equations differentielles, including reflection by a law and annotated vectors.

Explores angular momentum theory, conservation, and practical applications in various scenarios.

Explores symmetrical lurking and the inertia tensor properties and relationships.

Covers the concept of relative motion in mechanics and the importance of inertial frames.

Explains the concept of inertia benchmark, focusing on main axes and diagonal elements of the inertia tensor.

Explores forced harmonic oscillators, resonance, and practical applications in physics and engineering.