About This Course

This course is designed to introduce students to the fundamental principles of mechanics, adhering to the structure typically found in a first-semester university physics program. Learners will explore core mechanics concepts, as well as develop mathematical problem-solving skills applicable across STEM (Science, Technology, Engineering, Mathematics) fields.

What Students Will Learn

• Understanding and application of kinematics to describe motion.
• How forces such as gravity, friction, and others influence motion per Newton’s Laws.
• The energy concept—differentiating between kinetic and potential energy, and other forms such as thermal and chemical energy.
• Momentum and its conservation in closed systems and during collisions.
• Practical problem-solving using vector analysis and calculus in physics situations.

Course Prerequisites

Prospective students should have completed secondary school algebra and trigonometry. A basic understanding of calculus is recommended and can be acquired concurrently with this course.

Course Coverage

• Introduction to kinematics and basic equations of motion.
• Detailed exploration of Newton's Laws of Motion.
• Study of various forces and their effects (gravitational, drag, friction, and normal force).
• Energy types and calculations, work-energy theorem.
• Momentum implications in physics including conservation principles.

Who This Course Is For

This course is ideal for students preparing to enter STEM fields, current university students who want a supplementary resource, or learners with a passion for physics wanting a structured, thorough introduction to the subject.

Real-World Application

Skills attained through this course can empower individuals to excel in various technical fields requiring an understanding of physics and mechanical concepts, from engineering projects to applied sciences and beyond. Understanding motion, forces, energy, and momentum also aids in practical situations like vehicle dynamics, sports science, construction, and machinery and tool design.

Syllabus

1. Week 1: Introduction to 1D Motion
2. Week 2: Elements of 2D Motion
3. Week 3: Understanding Newton’s Laws
4. Week 4: Exploration of Energy in Mechanics
5. Week 5: Momentum and Its Applications in Collisions