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University Physics (Year 1)

University Year 1 module portal with governance-aligned routes across mechanics, thermodynamics, electromagnetism, waves-optics, relativity, intro quantum, and mathematical methods.

  • University Physics Year 1
Learning goals
  • Formulate motion and force models with explicit coordinates, assumptions, and units.
  • Apply work–energy and momentum methods, then interpret the physical result.
  • Analyse centre-of-mass and rotational dynamics using torque, inertia, energy, and angular momentum.
  • Model thermodynamic states using temperature, equations of state, and microscopic assumptions.
  • Apply heat, work, internal-energy, and first-law accounting consistently across processes.
  • Analyse cycles, entropy constraints, engines, refrigerators, and limiting efficiencies.
  • Construct electric-field and potential models for discrete and continuous charge distributions.
  • Analyse capacitance, resistance, energy transfer, and transient circuit behaviour.
  • Analyse magnetic forces, induction, inductance, and alternating-current systems with consistent signs.
  • Represent oscillations and travelling waves in space, time, phase, and energy.
  • Apply superposition, interference, diffraction, and optical-system models with stated approximations.
  • Check wave and optics results using dimensions, limits, symmetry, and observable consequences.
  • Distinguish events, reference frames, invariants, and frame-dependent measurements.
  • Derive and interpret time dilation, length contraction, and relativity of simultaneity.
  • Use Lorentz transformations while checking low-speed limits and frame conventions.
  • Use photon and matter-wave models to interpret foundational quantum evidence.
  • Interpret wavefunctions, probability, superposition, and uncertainty without classical-category errors.
  • Analyse simple bound systems and spectra, including assumptions and limiting behaviour.
  • Use vector and differential or integral calculus to express physical change and accumulation.
  • Use complex numbers, linear algebra, and differential equations to solve coupled physical models.
  • Choose an efficient mathematical method and validate the result physically.

Use this as the maintained University Physics (Year 1) portal. It now follows a UY1-wide governance model: maintained core modules first, maintained extension modules second, support/archive leaves only when they unblock your current module.

Start here
  • Choose one active module from the map below.
  • Follow that module’s recommended start sequence.
  • Run the linked assessment route in the same week.
  • Keep UY1 Assessment Map as your standing status board.
UY1 governance posture (all modules)
  • Maintained core modules: indexable and actively sequenced for first-pass UY1 learning.
  • Maintained extension modules: indexable and maintained, but intended as second-layer routes after core fluency.
  • Support/archive pages: kept for continuity while the main learning paths are improved.
On this page

What you will learn

Use these outcomes to choose a topic and see what you should be able to do.

  1. Core

    Build and evaluate university mechanics models using forces and conservation laws.

  2. Core

    Analyse thermodynamic states, energy transfers, cycles, and limits.

  3. Core

    Analyse fields, potentials, circuits, magnetism, and induction as one connected model family.

  4. Extension

    Use wave and optical models with explicit phase, approximation, and validity checks.

  5. Extension

    Reason from postulates and evidence in introductory relativity and quantum physics.

  6. Extension

    Choose, apply, and physically validate the mathematical methods used across UY1 physics.

Topics and skills

Mechanics3 outcomes
  1. Formulate motion and force models with explicit coordinates, assumptions, and units.
  2. Apply work–energy and momentum methods, then interpret the physical result.Builds on: Formulate motion and force models with explicit coordinates, assumptions, and units.
  3. Analyse centre-of-mass and rotational dynamics using torque, inertia, energy, and angular momentum.Builds on: Apply work–energy and momentum methods, then interpret the physical result.
Thermodynamics3 outcomes
  1. Model thermodynamic states using temperature, equations of state, and microscopic assumptions.
  2. Apply heat, work, internal-energy, and first-law accounting consistently across processes.Builds on: Model thermodynamic states using temperature, equations of state, and microscopic assumptions.
  3. Analyse cycles, entropy constraints, engines, refrigerators, and limiting efficiencies.Builds on: Apply heat, work, internal-energy, and first-law accounting consistently across processes.
Electromagnetism3 outcomes
  1. Construct electric-field and potential models for discrete and continuous charge distributions.
  2. Analyse capacitance, resistance, energy transfer, and transient circuit behaviour.Builds on: Construct electric-field and potential models for discrete and continuous charge distributions.
  3. Analyse magnetic forces, induction, inductance, and alternating-current systems with consistent signs.Builds on: Construct electric-field and potential models for discrete and continuous charge distributions.
Waves and Optics3 outcomes
  1. Represent oscillations and travelling waves in space, time, phase, and energy.
  2. Apply superposition, interference, diffraction, and optical-system models with stated approximations.Builds on: Represent oscillations and travelling waves in space, time, phase, and energy.
  3. Check wave and optics results using dimensions, limits, symmetry, and observable consequences.Builds on: Apply superposition, interference, diffraction, and optical-system models with stated approximations.
Special Relativity3 outcomes
  1. Distinguish events, reference frames, invariants, and frame-dependent measurements.
  2. Derive and interpret time dilation, length contraction, and relativity of simultaneity.Builds on: Distinguish events, reference frames, invariants, and frame-dependent measurements.
  3. Use Lorentz transformations while checking low-speed limits and frame conventions.Builds on: Derive and interpret time dilation, length contraction, and relativity of simultaneity.
Introductory Quantum Physics3 outcomes
  1. Use photon and matter-wave models to interpret foundational quantum evidence.
  2. Interpret wavefunctions, probability, superposition, and uncertainty without classical-category errors.Builds on: Use photon and matter-wave models to interpret foundational quantum evidence.
  3. Analyse simple bound systems and spectra, including assumptions and limiting behaviour.Builds on: Interpret wavefunctions, probability, superposition, and uncertainty without classical-category errors.
Mathematical Methods3 outcomes
  1. Use vector and differential or integral calculus to express physical change and accumulation.
  2. Use complex numbers, linear algebra, and differential equations to solve coupled physical models.Builds on: Use vector and differential or integral calculus to express physical change and accumulation.
  3. Choose an efficient mathematical method and validate the result physically.Builds on: Use complex numbers, linear algebra, and differential equations to solve coupled physical models.

Recommended pathways

Standard UY1 progression

First-pass learners following a coherent self-study sequence.

  1. Mechanics
  2. Thermodynamics
  3. Electromagnetism
  4. Waves and Optics
  5. Special Relativity
  6. Introductory Quantum Physics
Mathematics patching route

Learners who need calculus, vector, complex-number, or differential-equation support.

  1. Mathematics for Undergraduate Physics
Assessment-led revision loop

Learners revising from current quiz and structured-practice coverage.

  1. Open the UY1 Assessment Map

UY1 Module Map

  • Mechanics

    Core module: modelling, conservation laws, rotation, and angular momentum.

    Open lesson

  • Thermodynamics

    Core module: first/second law modelling, cycles, kinetic and statistical foundations.

    Open lesson

  • Electromagnetism

    Core module: fields, Gauss methods, circuits, magnetism, and route-managed legacy AC/induction support.

    Open lesson

  • Waves & Optics

    Maintained extension module with ready-now quiz and structured support.

    Open lesson

  • Special Relativity

    Maintained extension module with UY1 quiz plus derivation continuation routes.

    Open lesson

  • Intro Quantum

    Maintained extension module with UY1 quiz, structured set, and crossover practice.

    Open lesson

  • Mathematical Methods

    Maintained extension module for calculus/vector/ODE toolchain used across UY1 modules.

    Open lesson

Maintained Core Modules

  • UY1 Mechanics (Core)

    Main mechanics hub plus dedicated mechanics quiz sequence.

    Open lesson

  • UY1 Thermodynamics (Core)

    Main thermo hub plus dedicated UY1 thermodynamics quiz.

    Open lesson

  • UY1 Electromagnetism (Core)

    Main E&M hub plus dedicated UY1 electromagnetism quiz.

    Open lesson

Maintained Extension Modules

  • UY1 Waves & Optics (Extension)

    Maintained module entry with quiz + structured + crossover route.

    Open lesson

  • UY1 Special Relativity (Extension)

    Maintained module entry with UY1 quiz and derivation continuation links.

    Open lesson

  • UY1 Intro Quantum (Extension)

    Maintained module entry with quiz + structured + quantum-relativity crossover.

    Open lesson

  • UY1 Mathematical Methods (Extension)

    Maintained module entry; currently notes-first with assessment bridges via active modules.

    Open lesson

Support and Archive Leaves

Use these as secondary routes, not first starts.

Assessment and Practice

  • UY1 Assessment Map

    Module-by-module status board: ready now, notes-first, and best bridge routes.

    Open lesson

  • UY1 Mechanics Expansion Quiz

    Core mechanics consolidation route.

    Open lesson

  • UY1 Electromagnetism Quiz

    Core electromagnetism checkpoint route.

    Open lesson

  • UY1 Special Relativity Quiz

    Extension module checkpoint for frame and invariant reasoning.

    Open lesson

  • UY1 Waves & Optics Quiz

    Extension module checkpoint for waves-optics progression.

    Open lesson

  • UY1 Intro Quantum Quiz

    Extension module checkpoint for modern-physics baseline.

    Open lesson

Essential Resources

  • Physical Constants

    Reference table for constants used across UY1 modules.

    Open lesson

  • Math References

    Quick formulas and identities used in UY1 derivations.

    Open lesson

  • Mathematics for Undergraduate Physics

    Module-level math toolkit for UY1 study and revision.

    Open lesson

Study Tips & Advice

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Review

Review: University Physics (Year 1)

Cumulative review of previously studied course topics.

About 10 minutes

Review

Review questions from topics you have studied in this course. Use the result to decide what to review; this check does not prove mastery.

Choose a review length

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How this activity affects progress
Course and syllabus information
Course
University Physics Year 1
Edition
University Physics Year 1