Lectures related to Wayland (protocol)

Covers physics questions on elastic collisions, circular motion, work, and energy conservation.

Covers acceleration, constant velocity, and motion in the plane with examples of objects in free fall.

Covers axonometry as a projection of space onto a plane parallel to a given direction, including cavalier axonometry and its properties.

Explores projection planes, angles, and traces in geometric descriptive, emphasizing perpendicularity and parallelism in planes.

Explores the dynamics of objects under forces, emphasizing elastic springs and their implications.

Covers exercises and perpendicularity in geometric descriptive concepts, emphasizing in-person attendance and practical applications.

Explores potential energy with the brachistochrone curve problem and introduces power in physics.

Covers examples of resolution in dynamics, focusing on objects suspended from springs and the general method of resolution.

Introduces special plans and projections in descriptive geometry, covering vertical, horizontal, and frontal plans.

Covers the general case of finding the intersection point between a line and a plane in descriptive geometry.

Covers the concepts of velocity and acceleration in the context of motion in the plane.

Explores descriptive geometry principles, including points, lines, planes, and applications to shadow problems using software like GeoGebra.

Covers pressure forces, mmHg unit, and curvilinear abscissa in a moving frame.

Covers the concept of the line in descriptive geometry, focusing on epure and traces.

Covers conservative forces and macroscopic gas description, emphasizing macroscopic properties.

Explores dynamics of objects under external forces and the concept of pressure distribution on surfaces.

Analyzes projectile motion, focusing on parabolic trajectories and inertial frames of reference.

Explores acceleration and trajectory in motion in the plane, including specific cases and equations for uniformly accelerated motion.

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

Covers the hydrostatic law, dynamics, laws of Newton, momentum, pressure, fluids, energy conservation, and states of matter.