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50 Essential Physics Formulas for AAI ATC 2025

08-May-2025 12:01 PM

Master the top 50 must-know AAI ATC Physics formulas with symbol names, meanings, and prep tips. Get short notes, cheat sheets, and expert guidance from Career Wave — India’s top ATC prep hub.

At Career Wave, we believe clarity is crucial. Here's not just a list of formulas but also what each symbol means, so you understand and memorize them effectively!


Ultimate Physics Formula List with Symbol Names

  • Speed (v) = Distance (s) / Time (t)

    • v = speed

    • s = distance

    • t = time

  • Velocity (v) = Displacement (s) / Time (t)

    • v = velocity

    • s = displacement

    • t = time

  • Acceleration (a) = (Final velocity v - Initial velocity u) / Time (t)

    • a = acceleration

    • v = final velocity

    • u = initial velocity

    • t = time

  • Kinematic Equation: v² - u² = 2as

    • v = final velocity

    • u = initial velocity

    • a = acceleration

    • s = displacement

  • Displacement: s = ut + ½ at²

    • s = displacement

    • u = initial velocity

    • t = time

    • a = acceleration

  • Newton’s Second Law: Force (F) = Mass (m) × Acceleration (a)

    • F = force

    • m = mass

    • a = acceleration

  • Momentum (p) = Mass (m) × Velocity (v)

    • p = momentum

    • m = mass

    • v = velocity

  • Impulse (J) = Force (F) × Time (Δt) = Change in Momentum (Δp)

    • J = impulse

    • F = force

    • Δt = change in time

    • Δp = change in momentum

  • Work (W) = Force (F) × Displacement (d) × cosθ

    • W = work

    • F = force

    • d = displacement

    • θ = angle

  • Power (P) = Work (W) / Time (t)

    • P = power

    • W = work

    • t = time

  • Kinetic Energy (KE) = ½ m v²

    • KE = kinetic energy

    • m = mass

    • v = velocity

  • Potential Energy (PE) = m g h

    • PE = potential energy

    • m = mass

    • g = acceleration due to gravity

    • h = height

  • Mechanical Energy (ME) = KE + PE

    • ME = mechanical energy

    • KE = kinetic energy

    • PE = potential energy

  • Hooke’s Law: F = -k x

    • F = force

    • k = spring constant

    • x = displacement

  • Elastic Potential Energy: U = ½ k x²

    • U = elastic potential energy

    • k = spring constant

    • x = displacement

  • Centripetal Acceleration (ac) = v² / r

    • ac = centripetal acceleration

    • v = velocity

    • r = radius

  • Centripetal Force (Fc) = m v² / r

    • Fc = centripetal force

    • m = mass

    • v = velocity

    • r = radius

  • Gravitational Force (Fg) = G m₁ m₂ / r²

    • Fg = gravitational force

    • G = gravitational constant

    • m₁ = mass 1

    • m₂ = mass 2

    • r = distance

  • Acceleration due to Gravity (g) = G M / R²

    • g = acceleration due to gravity

    • G = gravitational constant

    • M = mass of Earth

    • R = radius of Earth

  • Pressure (P) = Force (F) / Area (A)

    • P = pressure

    • F = force

    • A = area

  • Density (ρ) = Mass (m) / Volume (V)

    • ρ = density

    • m = mass

    • V = volume

  • Buoyant Force (Fb) = Weight of Displaced Fluid

    • Fb = buoyant force

  • Bernoulli’s Equation: P + ½ ρ v² + ρ g h = constant

    • P = pressure

    • ρ = density

    • v = velocity

    • g = acceleration due to gravity

    • h = height

  • Wave Speed (v) = Frequency (f) × Wavelength (λ)

    • v = wave speed

    • f = frequency

    • λ = wavelength

  • Snell’s Law: n₁ sinθ₁ = n₂ sinθ₂

    • n₁ = refractive index 1

    • θ₁ = angle of incidence

    • n₂ = refractive index 2

    • θ₂ = angle of refraction

  • Mirror Formula: 1/f = 1/u + 1/v

    • f = focal length

    • u = object distance

    • v = image distance

  • Lens Formula: 1/f = 1/v - 1/u

    • f = focal length

    • v = image distance

    • u = object distance

  • Magnification (M) = Image height (h’)/Object height (h) or v/u

    • M = magnification

    • h’ = image height

    • h = object height

    • v = image distance

    • u = object distance

  • Coulomb’s Law: F = k q₁ q₂ / r²

    • F = electrostatic force

    • k = Coulomb's constant

    • q₁ = charge 1

    • q₂ = charge 2

    • r = distance

  • Electric Field (E) = Force (F) / Charge (q)

    • E = electric field

    • F = force

    • q = charge

  • Electric Potential (V) = Work (W) / Charge (q)

    • V = electric potential

    • W = work

    • q = charge

  • Capacitance (C) = Charge (Q) / Voltage (V)

    • C = capacitance

    • Q = charge

    • V = voltage

  • Energy Stored in Capacitor: U = ½ C V²

    • U = energy stored

    • C = capacitance

    • V = voltage

  • Ohm’s Law: V = I R

    • V = voltage

    • I = current

    • R = resistance

  • Power in Circuit: P = V I = I² R = V² / R

    • P = power

    • V = voltage

    • I = current

    • R = resistance

  • Resistances in Series: Rₜ = R₁ + R₂ + …

    • Rₜ = total resistance

    • R₁ = resistance 1

    • R₂ = resistance 2

  • Resistances in Parallel: 1/Rₜ = 1/R₁ + 1/R₂ + …

    • Rₜ = total resistance

    • R₁ = resistance 1

    • R₂ = resistance 2

  • Magnetic Force: F = q v B sinθ

    • F = magnetic force

    • q = charge

    • v = velocity

    • B = magnetic field

    • θ = angle

  • Lorentz Force: F = q(E + v × B)

    • F = Lorentz force

    • q = charge

    • E = electric field

    • v = velocity

    • B = magnetic field

  • Magnetic Flux (Φ) = B A cosθ

  • Φ = magnetic flux

  • B = magnetic field

  • A = area

  • θ = angle

  • Faraday’s Law: Induced emf (ε) = -dΦ/dt

    • ε = induced electromotive force (emf)

    • Φ = magnetic flux

    • t = time

  • Transformer Ratio: V₁/V₂ = N₁/N₂

    • V₁ = voltage in primary coil

    • V₂ = voltage in secondary coil

    • N₁ = number of turns in primary coil

    • N₂ = number of turns in secondary coil

  • Young’s Double Slit: Fringe separation (Δx) = λ D / d

    • Δx = fringe separation

    • λ = wavelength

    • D = distance from slits to screen

    • d = distance between slits

  • Photon Energy (E) = h f = h c / λ

    • E = photon energy

    • h = Planck’s constant

    • f = frequency

    • c = speed of light

    • λ = wavelength

  • de Broglie Wavelength (λ) = h / p

    • λ = de Broglie wavelength

    • h = Planck’s constant

    • p = momentum

  • Photoelectric Equation: h f = φ + KEmax

    • h = Planck’s constant

    • f = frequency

    • φ = work function

    • KEmax = maximum kinetic energy of the emitted electron

🗓 Career Wave Study Plan (Physics)

  • Week 1–2 → Mechanics, motion, work-energy

  • Week 3–4 → Waves, optics, fluids

  • Week 5–6 → Electricity, magnetism, modern physics

  • Week 7 → Solve full mocks (Career Wave has exclusive Physics mock sets)

💬 FAQs About Physics + Career Wave Courses

  • Q1: Will Career Wave help me remember all symbols + formulas?
    Yes! We provide symbol-annotated formula sheets + memory hacks inside every batch.

  • Q2: What if I’m weak at Physics?
    We specialize in stepwise explanations + video breakdowns — no student left behind at Career Wave.

  • Q3: Are Maths + Physics both covered?
    Yes! Our SUPER-50 and SCORER batches cover the entire syllabus: Maths, Physics, Reasoning, English, and GK.

  • Q4: Do you offer demo classes or sample notes?
    Absolutely! Head over to Career Wave for free demos, counselor chats, and sneak peeks into our premium notes.

🎯 Why Career Wave Is India’s Most Trusted ATC Platform

  •  Premium short notes + cheat sheets

  •  Live classes + recorded lessons

  •  Formula mindmaps with symbol clarity

  •  Weekly mocks + personal mentor support


👉 Ready to level up? 🚀 Visit Career Wave now and turn your Physics prep into exam success!


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