Science Equations - R to T    Rr Ss || Tt     Name   Equation     Radioactive Decay   N = N 0 e - λt Range of Projectile   R = v 2 ⁢ sin ⁢ 2 θ g Rectangle, Area of   A = x ⁢ y Reactance of a Capacitor   X c = 1 ω ⁢ C Reactance of an Inductor   X L = ω ⁢ L Refractive Index   n = C C matter n = sin ⁢   i sin ⁢   r ⁢   ⁢ if ⁢   ⁢ the ⁢     other ⁢     refractive ⁢   ⁢ index = 1 Refractive Index Related to Wave Velocities   n = c v c m Regular Polygon, Area of   A = n ⁢ s ⁢ r 2 ⁢ ⁢         = p ⁢ r 2 Relativistic Mass   m = m 0 1 - v 2 c 2 Relativistic Mass-Energy Relation   E = m c 2 Resolving Power (Rayleigh criterion)   Δ ⁢ l = 1.22 ⁢ fλ D Resonance Condition for I   X L = X C Resistivity   E = ρ ⁢ J ρ = R ⁢ A l Resistor in Series   R = R 1 + R 2 + L ⁢           + R n Resistor in Parllel   1 R = 1 R 1 + 1 R 2 + L ⁢       + 1 R n Rhombus, Area of   A = x 1 x 2 2 RMS speed of molecules in ideal gas   c 2 ¯ = ( 3 R ⁢ T M ) 1 / 2 = ( 3 ⁢ p ρ ) 1 / 2 Root Mean Square Current   I r ⁢ m ⁢ s = I 0 / 2 Root Mean Square Voltage   V r ⁢ m ⁢ s = V 0 / 2 Rotational kinetic energy   T = 1 2 I ⁢ ω 2             To the top | To the bottom A to C | D to F | G to I | J to M | N to Q | R to T | U to Z      Ss Rr || Tt     Name   Equation     Scale of Temperature   θ 100 = x θ - x 0 x 100 - x 0 Secant and Tangent, Intersecting   s t = t e t 2 = se Secants, Intersecting   se = s ′ e ′ Sector, Area of   A = n ⁢ π r 2 360 ∘ Segment, Area of   A = n ⁢ π r 2 360 ∘ - b ⁢ h 2 Self-Inductance   L = NΦ I Serial Relation   λ 1 N 1 = λ 2 N 2 Serial Relation for n   n 1 sin ⁢ θ 1 = n 2 sin ⁢ θ 2 Series Resistance   R = R 1 + R 2 + . . . Specific Heat Capacity   c = H m ⁢ θ Specific Latent Heat   H = ml Sphere, Surface Area of   S = 4 πr 2 Sphere, Volume of   V = 4 π 3 r 3 Spiral Spring, Simple Harmonic Motion   T = 2 π m k Spring Constant   F = k ⁢ x Square, Area of   A = x 2 Standard deviation   s = 1 N Σ i = 1 N ( x i - x ) 2 Standing Wave   E = 2 E 0 ⁢   sin ⁢   k ⁢ x ⁢ cos ⁢   ω ⁢ t ⁢ E = 2 ⁢   E 0 ⁢   sin ( 2 π ⁢ x λ ) ⁢ cos ⁢ ( 2 π ⁢ t T ) Stefan's Law   P = ε σ A ( T 4 - T e 4 ) Stellar Parallax   d = 1 P Surface Area of a Cube   s = 6 e 2 Surface Area of a Cuboid   s = 2 lw + 2 lh + 2 wh Surface Area of a Cylinder   s = 2 π r 2 + 2 πrh = 2 πr ( r + h )               To the top | To the bottom A to C | D to F | G to I | J to M | N to Q | R to T | U to Z      Tt Rr || Ss     Name   Equation     Tangent and Secant, Intersecting   s t = t e t 2 = se Telescopic Magnification   m = f 0 f e Temperature Variation of Resistance   R θ = R 0 ( 1 + αθ ) Thermal Conductivity   k = 1 3 C v ,   vol c ¯ l Thin Film Interference   d ⁢   cos ⁢   θ i = ( 2 m + 1 ) λ f 4 ⁢   for ⁢     maxima d cos θ i = 2 m λ f 4 ⁢   for ⁢   minima Thin Prism   d = A ( n - 1 ) Time of Flight of Projectile   t = 2 v ⁢   sinθ g Time period, circular motion   T = 2 π ω Torque on a solenoid   Γ = NIAB ⁢ sinα Total Energy, Simple Harmonic Motion   E = 1 2 m ⁢ ω 2 r 2 Transformer   V 2 V 1 = - N 2 N 1 Trapezoid, Area of   A = h 2 ( x 1 + x 2 ) Travelling Wave   Ψ = a ⁢   sin ( ω ⁢ t - k ⁢ x ) Ψ = a ⁢   sin 2 π ( t T - x λ ) Triangle, Area of   A = b ⁢ h 2 ⁢                               = a ⁢ b   sin   C 2 Triangle (Equilateral), Area of   A = h 2 3 3 ⁢             = a 2 3 4 ⁢     Rr | Ss | Tt To the top A to C | D to F | G to I | J to M | N to Q | R to T | U to Z [ H O M E ] [ S C I E N C E ] [ M A T H S ] [ A S T R O N O M Y ] Download | Contact | About

Developed By  DOMEX E-DATA PVT. LTD.,