Lectures related to Kinematics: One-Dimensional Motion

Covers the study of black holes and gravitational force.

Explores equilibrium in three dimensions, emphasizing the importance of adequate constraints for static and kinematic determinacy.

Covers the analysis of motion using Cartesian and polar coordinates, focusing on kinematics and acceleration components.

Covers the kinematics of a material point, focusing on speed and accelerations.

Covers the kinematics and dynamics of a point particle, including position, trajectory, velocity, acceleration, and Newton's laws.

Explores motion in two and three dimensions, gravity effects, and vector dot products.

Explores harmonic oscillators, pendulum movement, and spherical coordinates in physics.

Covers the dynamics of a block connected to a spring, deriving equations of motion and solving for key time points.

Explores kinematics, vectors, non-Cartesian coordinates, and the motion of charged particles in electric and magnetic fields.

Explores kinematics, velocity definitions, inertial frames equivalence, and acceleration importance in different frames of reference.

Covers point kinematics in 2D and 3D, including velocity, acceleration, and projectile motion.

Covers the concept of vector rotation in kinematics and the derivative of a vector with constant norm.

Introduces kinematics, covering reference frames, trajectories, and velocity concepts in motion analysis.

Introduces kinematics, reference frames, trajectories, and coordinates in physics, emphasizing their importance in analyzing object motion.

Covers the principles of relativity, Newtonian mechanics, inertial frames, and kinematics for different observers.

Covers the mathematical description of movement and introduces the concept of a material point.

Covers the kinematics of a material point, including orders of magnitude and practical applications.

Explores the mechanics of Kirchhoff rods, focusing on 3D kinematics and twisted solutions.

Covers the fundamental concepts of kinematics, including reference frames, position vectors, velocity, acceleration, and trajectories.

Discusses advanced mechanisms design, focusing on kinematic analysis, geometric modeling, and optimization techniques for flexible mechanisms.