Listahan ng mga Formula sa Pisika

Lahat ng formula sa pisika na ginagamit sa OpenLab Science, nakaayos ayon paksa, kasama ang SI unit ng bawat resulta. Bawat formula ay lumalabas din nang live — kung saan sinusukat at pinapalitan ng halaga ang bawat simbolo — sa kaugnay na simulation.

Kinematics

  • v = √(vx² + vy²) — m/s
  • a = √(ax² + ay²) — m/s²

Enerhiya

  • KE = ½·m·v² — J
  • PE = m·g·h — J
  • E = KE + PE + PE_spring — J

Momentum

  • p = m·v — kg·m/s

Ikalawang Batas ni Newton

  • F = m·a — N
  • f_k = μ_k·m·g·cos θ — N
  • a = |m₂ − m₁|·g / (m₁ + m₂) — m/s²

Rotational Motion

  • ω (rad/s) — rad/s
  • τ = r × F — N·m

Fluids

  • F_b = ρ·V·g — N
  • P = ρ·g·h — Pa
  • A₁·v₁ = A₂·v₂ — m/s
  • P₁ + ½ρv₁² = P₂ + ½ρv₂² — Pa

Circular Motion

  • F = m·v² / r — N

Gravitation

  • PE = −m·GM / r — J
  • v = √(GM / r) — m/s
  • v_esc = √(2GM / r) — m/s
  • T² / r³ = 4π² / GM — s²/m³

Gawain at Kapangyarihan

  • W = ΔKE — J
  • P = F·v — W

Osilasyon

  • T = 2π·√(L / g) — s
  • T = 2π·√(m / k) — s

Batas ni Ohm

  • V = I·R — V

Electrical Power

  • P = V·I — W
  • P = I²·R — W
  • P = V²/R — W

Mga Source

  • V_terminal = ε − I·r — V

Paggamit ng enerhiya

  • E = P·t — J

Transitoryo

  • τ = R·C — s
  • Q = C·V — C
  • E = ½·C·V² — J
  • f = 1 − e^(−t/τ)
  • τ = L/R — s
  • E = ½·L·I² — J
  • f₀ = 1 / (2π·√(L·C)) — Hz
  • ω₀ = 1 / √(L·C) — rad/s
  • ζ = (R/2)·√(C/L)

Lens at Mirror Equation

  • dᵢ = dₒ·f/(dₒ − f) — cm
  • m = −dᵢ/dₒ
  • M = m₁·m₂·…

Refraction

  • n₁·sinθ₁ = n₂·sinθ₂ — °
  • θc = arcsin(n₂/n₁) — °
  • δ = θ₁ + θ₄ − A — °
  • n = sin((A+δmin)/2) / sin(A/2)

Optical Power

  • P = 1/f — D
  • 1/f = (n−1)(1/R₁ − 1/R₂) — cm
  • P = 1/f (corrective) — D

Interference at Diffraction

  • Δy = λL/d — mm
  • a·sinθ = mλ — °
  • d·sinθ = mλ — °
  • 2nt = (m+½)λ

Angular Magnification

  • M = N/f
  • M = −f_o/f_e
  • M = −(L/f_o)(N/f_e)

Polarization

  • I = I₀·cos²θ
  • θ_B = arctan(n₂/n₁) — °

Ideal Gas Law

  • P = n·R·T / V — kPa

Kinetic Theory

  • KE_avg = 3/2·kB·T — zJ
  • P = n·M·v_rms² / (3·V) — kPa
  • v_rms = √(3·R·T / M) — m/s
  • U = f/2·n·R·T — J

Unang Batas

  • ΔU = Q − W — J

Mga Gas Process

  • W = Σ ∫P dV — J
  • W = P·ΔV — J

Entropy

  • ΔS = Q/T — J/K
  • ΔS = Qout/Tc − Qin/Th — J/K

Calorimetry

  • Q = m·c·ΔT — J
  • T_eq = Σ mᵢcᵢTᵢ / Σ mᵢcᵢ — K

Phase Change

  • Q = m·L — J

Heat Conduction

  • Q/t = k·A·ΔT / L — W

Mga Heat Engine

  • η = W / Qin
  • η_c = 1 − Tc / Th
  • COP = Tc / (Th − Tc)
  • COP_cool = Q_in / |W|
  • COP_heat = Q_out / |W|

Thermal Expansion

  • ΔL = α·L·ΔT — m

Thermal Radiation

  • P = ε·σ·A·T⁴ — W
  • λ_max = b / T — nm

Mga Heat Capacity

  • Cv = f/2·R — J/(mol·K)
  • Cp = (f+2)/2·R — J/(mol·K)
  • Cp − Cv = R — J/(mol·K)
  • γ = (f+2)/f

Wave Motion

  • v = f·λ — m/s
  • v = √(T/μ) — m/s
  • T = 1/f — s

Superposisyon

  • f_beat = |f₁ − f₂| — Hz
  • f_c = (f₁ + f₂)/2 — Hz

Mga Standing Wave

  • f₁ = v/(2L) — Hz
  • fₙ = n·f₁ — Hz
  • f₁ = c/(2L) — Hz

Tunog

  • c = 331.3·√(1 + T/273.15) — m/s
  • I = P/(4πr²) — W/m²
  • L = 10·log₁₀(I/I₀) — dB
  • f′ = f·(c + v_o)/(c − v_s) — Hz

Photoelectric Effect

  • E = hc/λ — eV
  • K_max = E − φ — eV
  • V_stop = K_max/e — V

Compton Scattering

  • Δλ = λ_C(1 − cos θ) — pm

Bohr Model

  • ΔE = |E_f − E_i| — eV
  • λ = hc/ΔE — nm

Radioactivity

  • A = λN — Bq
  • N(t) = N₀ e^(−λt)
  • T½ = ln(2)/λ — s
  • B = Δmc² — MeV

Matter Wave

  • λ = h/p — pm

Uncertainty Principle

  • Δx·Δp ≥ ℏ/2

law.special-relativity

  • γ = 1/√(1 − β²)
  • Δt = γ Δt₀ — s
  • L = L₀/γ — m
  • m = γ m₀ — kg
  • K = (γ − 1) m₀ c² — eV
  • K = ½ m₀ v² — eV

Electrostatics

  • F_E = q·E — N
  • V = k·q/r — V
  • E = k·q/r² — N/C

Capacitance

  • C = ε₀A/d — µF
  • C = 4πε₀R — pF
  • U = ½CV² — J

Magnetism

  • F_B = q·v×B — N
  • Φ = B·A — mWb
  • B = μ₀(N/L)I — T
  • B = μ₀I/(2πr) — T

Buksan ang bawat eksperimento para makita kung paano gumagana ang mga formula na ito sa live na pagsukat, kung saan tinutukoy at pinapalitan ng halaga ang bawat simbolo hakbang-hakbang.