01 · Beginner
Physical Quantities, Units, Dimensions, and Scaling
Dimensional consistency and engineering estimation: the free error detector.
Start chapter →Foundations · The second course of the roadmap
Calculus-based physics with an engineering destination: every chapter exists because Statics, Dynamics, Thermodynamics, Fluids, Vibrations, or Mechatronics needs it.
Primary sources are OpenStax University Physics Volumes 1 and 2 (Volume 3 for the short optics chapter): legally open, calculus-based, and aligned with standard engineering physics sequences. Students can read every assigned section for free.
Chapter order and depth are checked against MIT 8.01 (Classical Mechanics) and MIT 8.02 (Electricity and Magnetism). Bridge references (Hibbeler, Çengel, Taylor, Rao) connect each chapter to the engineering course it feeds.
No deep quantum mechanics or relativity, no full fluid mechanics or thermodynamics here: chapters 12, 13, and 16 are previews and bridges, kept short on purpose. The full treatments come in their own courses.
01 · Beginner
Dimensional consistency and engineering estimation: the free error detector.
Start chapter →02 · Beginner
Vector language applied to real motion and forces. The bridge into Statics and Dynamics.
Start chapter →03 · Beginner
Position, velocity, acceleration, and projectiles: describing motion before explaining it.
Start chapter →04 · Beginner
Gravity, normal force, friction, tension, drag, and springs: the engineer's force toolbox.
Start chapter →05 · Beginner
Short and intensely practical: the diagram habit that Engineering Statics assumes.
Start chapter →06 · Intermediate
Energy bookkeeping: preparation for Dynamics, Thermodynamics, Machines, and Energy Systems.
Start chapter →07 · Intermediate
What survives a crash, an impact, or a jet: conservation thinking.
Start chapter →08 · Intermediate
Centripetal reality for curves, bearings, and rotating machinery intuition.
Start chapter →09 · Intermediate
Shafts, motors, gears, gyroscopes, and flywheels: rotation as the engineer lives it.
Start chapter →10 · Intermediate
Springs, pendulums, and the resonance warning: preparation for Mechanical Vibrations.
Start chapter →11 · Intermediate
Expansion, heat capacity, and phase change: the bridge to Thermodynamics and Materials.
Start chapter →12 · Intermediate
Q, W, and internal energy: the physics foundation the full Thermo course builds on.
Start chapter →13 · Intermediate
Pressure, Archimedes, continuity, and Bernoulli intuition: a preview, not the full course.
Start chapter →14 · Advanced
Enough E&M for sensors, motors, actuators, and instrumentation.
Start chapter →15 · Advanced
Experimental engineering thinking: error analysis on real instruments.
Start chapter →16 · Advanced · optional
Kept short: lasers, IR thermography, and where modern physics touches engineering.
Start chapter →| Role | Books and courses |
|---|---|
| Primary source | OpenStax University Physics Volume 1 (mechanics, sound, oscillations, waves) · Volume 2 (thermodynamics, electricity, magnetism) · Volume 3 for chapter 16 only |
| Elite benchmark | MIT 8.01 Classical Mechanics · MIT 8.02 Electricity and Magnetism |
| Quality reference | Young and Freedman, University Physics with Modern Physics · Halliday, Resnick and Walker, Fundamentals of Physics · Serway and Jewett |
| Engineering bridges | Hibbeler (Statics, ch. 5) · Çengel and Boles (Thermodynamics, ch. 12) · Çengel and Cimbala (Fluids, ch. 13) · Taylor, An Introduction to Error Analysis (ch. 15) · Rao, Mechanical Vibrations (ch. 10) |
Chapters 1 to 10 are the mechanics core (Vol. 1 + MIT 8.01). Chapters 11 to 12 bridge to thermal engineering (Vol. 2). Chapter 13 previews fluids (Vol. 1). Chapter 14 prepares mechatronics (Vol. 2 + MIT 8.02). Chapters 15 and 16 close with measurement and a short modern-physics overview.