Physics 2 is where most university students hit their hardest wall. Electric fields, magnetic forces, and electromagnetic waves are invisible. You cannot draw them the same way you draw a free body diagram. The math gets heavier. And the course moves fast.
At Fit Minds Academy our tutors help university students across Canada get through Physics 2 — from Gauss’s law and circuits to Faraday’s law and wave optics.
University Physics 2 is the second calculus-based physics course. It covers electricity, magnetism, optics, and an introduction to modern physics.
Depending on your university it might be called:
Yes — directly. The problem-solving process from applies throughout. The calculus tools from and — especially integrals — are used heavily in Gauss’s law and Ampere’s law. If either of those foundations has gaps, get them addressed early.
💡 Coming from high school? Physics 2 connects directly to the electricity and magnetism content in . University goes far deeper mathematically — but the conceptual foundation is the same.
Yes — most university students find Physics 2 harder than Physics 1. The core reason is abstraction. You cannot see or touch an electric field. The math is heavier. And the course is usually taken alongside other demanding courses like and Circuit Analysis at the same time
Here is what trips students up most:
Physics 2 content feeds directly into upper year engineering courses. Gauss’s law thinking appears in . Energy in electromagnetic fields connects to . Falling behind in Physics 2 has a domino effect across your entire program.
Electric charge, Coulomb's law, electric fields, Gauss's law, electric potential
Capacitance formula, parallel plate capacitors, dielectrics, energy stored
Ohm's law, Kirchhoff's laws, resistors in series and parallel, RC circuits
Lorentz force, magnetic force on a wire, Biot-Savart law, Ampere's law
Faraday's law, Lenz's law, inductance, LC circuits
Maxwell's equations, speed of light, electromagnetic spectrum
Reflection, refraction, Young's double slit experiment, single slit diffraction
Photoelectric effect, Bohr model, wave-particle duality
Our tutors work through your exact course content — PHY132, PHYS 2D03, or any equivalent. One session can change your understanding of an entire unit.
Gauss’s law relates the total electric flux through a closed surface to the charge enclosed.
How to use it:
1. Choose a Gaussian surface that matches the symmetry of the charge — spherical, cylindrical, or planar
2. On your chosen surface E should be constant and either parallel or perpendicular to dA
3. Evaluate the flux integral — it simplifies to E × (surface area)
4. Set equal to Q_enc/ε₀ and solve for E
Why students struggle: You choose the surface — it is not given. The skill is recognizing which geometry matches the charge distribution. Spherical charge → spherical surface. Long wire → cylinder. Infinite plane → pillbox.
🔗 PhET Simulations (phet.colorado.edu) has a free interactive Gauss’s law visualizer that makes flux intuitive before you touch a formula.
Capacitance:
For a parallel plate capacitor: C = ε₀A/d
Energy stored: U = ½CV²
The rule students always mix up:
Capacitors and resistors are exactly opposite. Memorize this table and you will not lose marks on it again.
RC circuits:
Time constant τ = RC. After one τ the capacitor is 63% charged. After 5τ it is effectively full.
KCL — Kirchhoff’s Current Law:
Current in = Current out at every node. ΣI_in = ΣI_out
KVL — Kirchhoff’s Voltage Law:
The sum of all voltage changes around any closed loop = 0. ΣV = 0
How to apply KVL:
1. Choose a loop direction — clockwise or counterclockwise
2. Voltage rises going through a battery from − to +
3. Voltage drops going through a resistor in the direction of current
4. Write one equation per independent loop
5. Solve the system of equations
Most marks are lost to sign errors. Write every step slowly and check your direction convention before starting.
Faraday’s law:
A changing magnetic flux induces an EMF. The magnitude equals the rate of change of flux.
Lenz’s law:
The negative sign means the induced current always opposes the change. If flux is increasing — the induced current creates a field opposing the increase. If flux is decreasing — the induced current tries to maintain it.
The quick test for Lenz’s law:
Ask — is the flux increasing or decreasing? Then ask — what direction does the induced current need to flow to fight that change? Right hand rule gives you the direction.
When coherent light passes through two slits, the waves interfere on a screen.
Bright fringes (constructive interference):
Dark fringes (destructive interference):
Single slit dark fringes:
The most common mistake — confusing which formula gives bright vs dark fringes for single vs double slit. The double slit constructive condition looks like the single slit destructive condition. Know which is which before the exam.
🔗 HyperPhysics (hyperphysics.phy-astr.gsu.edu) has excellent visual summaries of every Physics 2 topic — free and organized by concept.
Yes — the problem-solving mindset is identical. Draw the geometry. Identify the law. Set up the equation. The laws change. The process does not.
All engineering programs — mechanical, electrical, civil, chemical, and computer engineering. Physics, chemistry, and most life science programs also require it. If you are unsure, check your university’s course calendar for your specific program requirements.
Meet the tutors behind the sessions →
Here are the exact resources our students use every semester — completely free.
Every formula from the full Physics 2 course organized by unit.
What is inside:
A complete Physics 2 practice exam with full step-by-step solutions across all units.
What is inside:
Two resources in one — a topic-by-topic checklist and clear notes for every unit.
What is inside:
💡 How to use these resources: Start with the exam review checklist to find your weakest topics. Use the formula sheet to review procedures — focusing on understanding each step, not just memorizing it. Work through the practice exam under timed conditions with no notes
No hidden fees. No long contracts. Your first session has a 100% money-back guarantee.
How much do physics tutors charge in Ontario? Typically $50 to $130 per hour for university-level courses. At $85 we sit in the middle of that range — with tutors who know the specific exam styles at U of T, McMaster, Western, and other Ontario universities.
Here are the exact resources our students use every semester — completely free.
Physics & Engineering Tutor
Specializes in electromagnetism and circuit analysis for engineering students in PHY132 and PHYSICS 2D03.
Physics & Computer Science Expert
Expert in Gauss’s law, electromagnetic induction, and wave optics for university-level Physics 2.
Advanced Physics Tutor
Guides students through Maxwell’s equations, Faraday’s law, and modern physics topics.
We offer in-person Physics 2 tutoring across Mississauga, Toronto, Brampton, Oakville, Richmond Hill, Scarborough, North York, and Burlington. For students in Hamilton, Markham, Newmarket, Guelph, Waterloo, Windsor, Calgary, Edmonton, Ottawa, Montreal, Winnipeg, and Vancouver — fully interactive online sessions are available. Wherever you are in Ontario or Canada, we are here.
University Physics 2 is the second calculus-based physics course covering electricity, magnetism, optics, and modern physics. It is called PHY132 at U of T, PHYSICS 2D03 at McMaster, and has equivalents at every Ontario university.
Yes — most students find it harder than Physics 1. The concepts are more abstract, the math is heavier (surface and line integrals from Calculus 2), and the course runs alongside other demanding subjects. With a tutor who builds the conceptual foundation first, most students improve significantly.
The phenomena are invisible. You cannot draw an electric field the way you draw a force arrow. The mathematical tools are harder. And the course is typically taken alongside Calculus 2 and other intensive courses simultaneously.
Gauss’s law states that total electric flux through a closed surface equals the enclosed charge divided by ε₀. Formula: ΦE = Q_enc/ε₀. The key skill is choosing the right Gaussian surface — spherical for point charges, cylindrical for infinite wires, pillbox for infinite planes.
C = Q/V. For a parallel plate capacitor C = ε₀A/d. Energy stored is U = ½CV². Inserting a dielectric multiplies capacitance by κ. Parallel capacitors add directly — series capacitors use the reciprocal formula (opposite to resistors).
Faraday’s law states a changing magnetic flux induces an EMF — EMF = −dΦB/dt. The negative sign is Lenz’s law — the induced current always opposes the change that caused it.
The Biot-Savart law calculates the magnetic field produced by a current element. Use it for finite wire segments or geometries without enough symmetry for Ampere’s law.
All engineering programs (mechanical, electrical, civil, chemical, computer), physics, chemistry, and most life science programs. Check your for your specific program.
Yes. We tutor AP Physics 2 as well as university-level Physics 2 for students anywhere in Canada.
Click “” below. Your first session has a 100% money-back guarantee. We match you with the right tutor and can start as early as this week.
You do not have to figure out electricity and magnetism alone. Our tutors have helped university students across Canada go from failing to finishing strong — in Gauss’s law, circuits, electromagnetic induction, wave optics, and every other Physics 2 topic.
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