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IGCSE Physics Unit 1: Motion, forces and energy (Cambridge)
2 students
IGCSE Physics Unit 1: Motion, forces and energy (Cambridge)
Master Cambridge IGCSE Physics Unit 1: Measurement, Motion, Forces & Energy in an engaging way.
Created byHodu Academy
Last updated 7/2025
English
What you'll learn
- Demonstrate understanding of motion, forces & energy principles and apply them confidently in Cambridge IGCSE Physics problems.
- Define & measure core quantities (length, time, mass, density) using rulers, timers, balances & volume‐by‐displacement methods.
- Differentiate scalar vs vector quantities and graphically construct right‐angle resultant vectors.
- Calculate speed, velocity & acceleration (v = s/t, a = Δv/Δt) and read values from distance–time & speed–time graphs.
- Apply F = ma and moment = F×d to solve numeric problems on forces, equilibrium & turning effects
- Sketch & interpret load–extension graphs (limit of proportionality) & Sankey diagrams to analyse energy transfers, work & power.
- Design & explain experiments (free‐fall g, density by displacement, friction) and analyse data versus theoretical expectations.
Explore related topics
Course content
9 sections • 96 lectures • 7h 24m total length
Requirements
- No Prior Knowledge is Required—just curiosity and a willingness to explore how the world moves.
- Basic comfort with simple algebra (rearranging formulas) and access to a calculator is all you need to get started!
Description
Welcome to IGCSE Physics: Motion, Forces & Energy – by Hodu Academy
This course is a complete guide to the Cambridge IGCSE Physics syllabus (0625/0972), focused on Units 1–5. The curriculum is structured section-wise, helping you move step-by-step from basic measurements to advanced energy and motion concepts. Every lecture is supported with clear explanations, real-life examples, exam tips, and practice problems.
Course Structure:
Section 1: Physical Quantities & Measurement Techniques
Master the basics of measuring length, volume, time, mass, and density. Understand physical quantities, prefixes, standard form, and differentiate between scalar and vector quantities. Learn to represent and add vectors.
Section 2: Motion
Learn how to define and calculate speed, velocity, and acceleration. Understand the difference between distance and displacement, and interpret motion through distance-time and speed-time graphs. Explore the significance of gradients in motion.
Section 3: Forces (With Newton’s Laws)
Understand what forces are and how they affect objects. Study the relationship between force and acceleration, types of forces, and how to calculate resultant force. Apply Newton’s First, Second, and Third Laws to real-life scenarios.
Section 4: Types of Forces
Explore specific types of forces such as weight, contact force, gravitational field strength, friction, and upthrust. Learn how to interpret free fall scenarios with and without air resistance using graphs.
Section 5: Force and Matter (Hooke’s Law & Spring Constant)
Learn how forces act on solids and springs. Apply Hooke’s law (F = kx), calculate spring constants, and understand deformation and restoring forces.
Section 6: Turning Effect of Forces
Study moments (torque), the principle of moments, center of gravity, and the conditions for equilibrium and stability in objects.
Section 7: Momentum & Conservation of Momentum
Understand momentum (p = mv), impulse (F = Δp/Δt), and the principle of conservation of momentum. Solve real-world problems involving collisions and force-time relationships.
Section 8: Energy, Work & Power
Explore various energy stores including kinetic, thermal, elastic, and nuclear. Learn energy transfers, conservation of energy, Sankey diagrams, and how to calculate work and power. Understand the efficiency of systems and compare energy resources including fossil fuels, solar, wind, hydro, and nuclear.
Section 9: Pressure & Atmospheric Pressure
Define and calculate pressure in solids and liquids (p = F/A, Δp = ρgΔh). Study atmospheric pressure, pressure in liquids, and understand the hydrostatic paradox.
What You’ll Get:
Topic-by-topic explanations with clear progression
Visual examples and guided home experiments
Formula applications, worked examples, and exam-style practice questions
A student-friendly approach to mastering core mechanics topics
Whether you're a first-time learner or revising for exams, this course will strengthen your understanding and confidence in IGCSE Physics.
Who this course is for:
- Cambridge IGCSE Physics (0625/0972) students tackling Unit 1: Motion, Forces & Energy.
- Learners following O-Level, GCSE or any equivalent syllabus who need a clear, exam-focused mechanics foundation.
- Self-study students or revisers seeking concise video lectures, worked examples and practical demos.
- Tutors and parents looking for a structured, curriculum-aligned resource to guide their learners.