TriumphDog1
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Here are all the formulas I have learned in my pre-AP physics class so far, I just finished the 1st semester:
They are in no particular order.
F_c = \frac {mv^2}{r}
a_c = \frac {v^2}{r}
F_F = \mu * F_N
C = 2 * \pi * r
V_f = V_i + at
V_f^2 = V_i^2 + 2ad
d = V_i * t + \frac {1}{2} * at^2
d = \frac {1}{2} (V_f + V_i) * t
v = \frac {d}{t}
F = ma
F = \frac {G * m_1 * m_2}{r^2}
g = \mu * a
g = \frac {Gm}{r^2}
v_o = \sqrt {\frac {Gm}{r}}
P.E. = mgh
W = Fd
K.E. = \frac {1}{2} * mv^2
KEY
F_c = centripital force
a_c = centripital acceleration
m = mass
v = velocity
r = radius
F_F = frictional force
F_N = normal force(weight)
\mu = coefficient of friction
C = circumference
V_f = final velocity
V_i = initial velocity
a = acceleration
d = distance
g = acceleration due to gravity
t = time
G = gravitational constant
P.E. = potential energy
K.E. = kinetic energy
W = work
some important values:
mass of the Earth = 5.98 * 10^24 kg
radius of the Earth = 6.38 * 10^6 km
radius of the moon = 1.74 * 10^3 km
mass of the moon = 7.35 * 10^35 kg
gravitational constant = 6.67 * 10^-11 \frac {N*m^2}{kg^2}
Feel free to add anything or make suggestions. I will add more as the year goes on. I hope this helps some of you.
They are in no particular order.
F_c = \frac {mv^2}{r}
a_c = \frac {v^2}{r}
F_F = \mu * F_N
C = 2 * \pi * r
V_f = V_i + at
V_f^2 = V_i^2 + 2ad
d = V_i * t + \frac {1}{2} * at^2
d = \frac {1}{2} (V_f + V_i) * t
v = \frac {d}{t}
F = ma
F = \frac {G * m_1 * m_2}{r^2}
g = \mu * a
g = \frac {Gm}{r^2}
v_o = \sqrt {\frac {Gm}{r}}
P.E. = mgh
W = Fd
K.E. = \frac {1}{2} * mv^2
KEY
F_c = centripital force
a_c = centripital acceleration
m = mass
v = velocity
r = radius
F_F = frictional force
F_N = normal force(weight)
\mu = coefficient of friction
C = circumference
V_f = final velocity
V_i = initial velocity
a = acceleration
d = distance
g = acceleration due to gravity
t = time
G = gravitational constant
P.E. = potential energy
K.E. = kinetic energy
W = work
some important values:
mass of the Earth = 5.98 * 10^24 kg
radius of the Earth = 6.38 * 10^6 km
radius of the moon = 1.74 * 10^3 km
mass of the moon = 7.35 * 10^35 kg
gravitational constant = 6.67 * 10^-11 \frac {N*m^2}{kg^2}
Feel free to add anything or make suggestions. I will add more as the year goes on. I hope this helps some of you.
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