Introduction to the course structure, diagnostic assessment, and goal setting.

Comprehensive coverage of kinematic concepts, including motion in one dimension and two dimensions.

Exploration of velocity, acceleration, displacement, and graphical analysis of motion.

Understanding of uniformly accelerated motion, projectile motion, and circular motion.

Study of Newton’s laws of motion and their application to various physical situations.

Analysis of force, mass, and acceleration relationships, including friction and tension forces.

Exploration of systems of particles, including momentum, impulse, and conservation laws.

In-depth exploration of energy concepts, including work, kinetic energy, potential energy, and mechanical energy conservation.

Analysis of energy transformations, including mechanical, gravitational, and elastic potential energy.

Application of energy principles to solve problems involving work, power, and energy conservation.

Understanding of rotational motion principles, including angular velocity, angular acceleration, and rotational dynamics.

Analysis of torque, moment of inertia, and angular momentum conservation.

Application of rotational motion concepts to solve problems involving rotating objects.