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1444 FORMULA SHEET
Constants:
2
80.9 s
m
g=
2211 /10673.6 kgmNG =
Ce 19
1060.1
=
229 /1000.9 CmNkc=
2
2
12
01085.8 mN
C
=
A
mT
= 7
0104
sJh = 1063.6 34
kgmelec tron
31
1011.9
=
kgmproton
27
1067.1
=
smc / 1000.3 8
=
Metric Multipliers:
6-2-6-12 10M 10c 10 10 p ==== MegaCentiMicroPico
93-3910G 10k 10 m 10n ==== GigaKiloMilliNano
Conversion Equivalents:
1.00 inch = 2.54 cm 1.00 ft. = 30.5 cm 1.00 m = 3.28 ft. = 39.4 inches
1.00 cm = 0.394 inches 1.00 km = 0.621 miles 1.00 mile = 5280 ft = 1.61 km
1 Rev = 2
rad = 360
JeV 19
1060.11
=
0
4
1

=
c
k
Trigonometric Relations:
222
C
A
C
B
:TrianglesRight For CBA
A
B
Adj
Opp
Tan
Hyp
Adj
Cos
Hyp
Opp
Sin =+======
)(2
)()()(
:Triangles AllFor 222
CosABBAC
C
Sin
B
Sin
A
Sin +===
Vector Relations (assuming
defined with respect to the positive x-axis)
=+===
x
y
yxyx V
V
TanVVVSinVVCosVV 122
Vector Dot and Cross Products (assuming
is the angle between the vectors)
kBABAjBABAiBABA
BBB
AAA
kji
BA xyyxzxxzyzzy
zyx
zyx ˆ
)(
ˆ
)(
ˆ
)(
ˆ
ˆˆ
det ++==
0
ˆˆ
ˆ
ˆ
ˆˆ
ˆ
ˆ
ˆˆ
ˆ
0
ˆˆ
ˆ
ˆˆ
ˆˆ
ˆˆ
ˆˆ
0
ˆˆ
===
===
===
kkikjjki
ijkjjkji
jikkijii
SinBABA ||||||
=
CosBABABABABA zzyyxx ||||
=++=
Kinematic Equations in 1 Dimension:
0
0
0
0
0 tt
vv
t
v
a
tt
xx
t
x
vtvxx
=
=
=
=+=
dt
dx
t
x=
= 0ti nst limv
2
2
0tinst limadt
xd
dt
dv
t
v==
=
= vdta
= xdtv
Kinematic Equations in 1 Dimension with Constant Acceleration:
)(
2
1
)(2
2
1
)(
2
1
x 00
2
0
22
00000 vvvxxavvattvxxtvvxatvv +=+=++=++=+=
Kinematic Equations in 2 Dimensions:
0
0
0
0
0 tt
vv
t
v
a
tt
rr
t
r
vtvrr avgavg
=
=
=
=+=
dt
rd
t
r
=
= 0tinst limv
2
2
0tinst limadt
rd
dt
vd
t
v
==
=
= vdta
= rdtv
pf3
pf4

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Constants: 2

s

m g =

11 2 2

G = 6. 673  10 Nm /kg

− e C

19

  1. 60 10

− = 

9 2 2 kc = 9. 00  10 Nm /C

2

2 12 0 8.^8510 N m

C

A

T m = 

− 7

 0 4  10 h =  Js

  1. 63 10

34 =  J s

  1. 055 10

34 

melectron kg

31

  1. 11 10

− =  mproton kg

27

  1. 67 10

− =  c 3. 00 10 m/s

8 = 

Metric Multipliers:

-12 -6 -2 6

Pico p = 10 Micro = 10 Centi c= 10 Mega M= 10

9 -3 3 9

n = 10 m= 10 k= 10 G= 10

Nano Milli Kilo Giga

Conversion Equivalents:

1 .00 inch = 2.54 cm 1.00 ft. = 30.5 cm 1.00 m = 3.28 ft. = 39.4 inches

1.00 cm = 0.394 inches 1.00 km = 0.621 miles 1.00 mile = 5280 ft = 1.61 km

1 Rev = 2  rad = 360  eV J

19

kc=

Trigonometric Relations:

2 2 2

C

A

C

B

For RightTriangles: A B C A

B

Adj

Opp Tan Hyp

Adj Cos Hyp

Opp

Sin = = = = = = + =

For AllTriangles :

2 2 2

C A B AB Cos C

Sin

B

Sin

A

Sin = = = + − 

Vector Relations (assumingdefined with respect to the positive x-axis)

x

y x y x y V

V

V V Cos V V Sin V V V Tan

2 2 1

Vector Dot and Cross Products (assumingis the angle between the vectors)

AB AB i AB AB j AB AB k

B B B

A A A

i j k

A B y z z y z x x z x y y x

x y z

x y z ( )ˆ ( )ˆ ( )ˆ

ˆ ˆ^ ˆ

 = det = − + − + −

 

ˆ ˆ ˆ ˆ ˆ ˆ ˆ ˆ 0

ˆ ˆ ˆ ˆ ˆ 0 ˆ ˆ ˆ

ˆ ˆ 0 ˆ ˆ ˆ ˆ ˆ ˆ

 =−  =  =

 =  =  =−

 =  =−  =

i k j j k i k k

i j k j j k j i

i i j i k k i j

| A B| |A||B| Sin

 = A B Ax Bx AyBy AzBz | A||B| Cos

Kinematic Equations in 1 Dimension:

0

0

0

0 0 t t

v v

t

v a t t

x x

t

x x x vt v −

dt

dx

t

x

vinst = lim t→ 0 2

2

a (^) inst limt 0 dt

d x

dt

dv

t

v = = 

 = (^) →

a dt=v

v dt=x

Kinematic Equations in 1 Dimension with Constant Acceleration:

x (^00)

2 0

2 2 v =v 0 +at =x 0 + v+v 0 t x=x 0 +v 0 t+ at v =v + ax−x v= v+v

Kinematic Equations in 2 Dimensions:

0

0

0

0 0 t t

v v

t

v a t t

r r

t

r r r v t v avg avg −

dt

dr

t

r

vinst = lim t→ 0 2

2

a (^) inst limt 0 dt

d r

dt

dv

t

v

    = = 

 = (^) →

a  dt=v

v  dt=r

Kinematics in 2 Dimensions with Constant Acceleration:

0 0

2 0

2 2 v (^) x =v 0 x+axt x=x 0 + vx+v 0 xt x=x 0 +v 0 xt+ axt vx =vx+ ax x−x vx= vx+vx

0 0

2 0

2 2 v (^) y =v 0 y+ayt y=y 0 + vy+v 0 y t y=y 0 +v 0 yt+ ayt vy =vy+ ay y−y vy= vy+vy

Forces: F ma max may W mg gApparent g aFrame

 =^ Fx^ = Fy= = = −

Work: W = Fs=Fs Cos( )

Translational Kinetic Energy:

2

2

KE = mv

Gravitational PE: U GRAV =mgh Conservation on Energy: WNC =KE+U Power:

t

W

P =

Coulomb’s Law : 2

r

Q Q

F =kc

Electric Field : q

F

E

= F qE

E (Point Charge) : 2

r

Q

E =kc

Electric Potential : q

W

q

U

V

ab ab ab = =− U^ =qV

Electric Potential (Point Charge) :

r

Q

V =kc Electric Potential (in uniform E field) : V =−Ed

Electric Fields and Potentials :

V = − Edl

x

V

E (^) x 

y

V

E (^) y 

z

V

E (^) z 

Electric Potential Energy (Point Charges):

r

QQ

U kc

1 2 = Gauss’s Law :

Enclosed E

Q

 = E dA=

Capacitance : Q =CV Capacitor Energy Storage :

C

Q

PE QV CV

2 2 = = =

Parallel Plate Capacitor :

d

A

d

k A C

d^  = =

0

E Field Energy Density :

2 0 2

E

volume

PE

Electric Current :

dt

dq

I = Ohm’s Law : V =IR Resistance :

A

L

R=  R^ =R 0 [^1 +(T−T 0 )]

Electric Power :

R

V P IV I R

2 2

= = = Battery Terminal Voltage : VT = E −Ir

Capacitors In Parallel : CEQ =C 1 +C 2 Capacitors In Series :

1 2

CEQ C C

= + or

1 2

1 2

C C

C C

CEQ

Series RLC AC Circuit: z =R+( XL −XC)i

2 2 z = R +( XL −XC) 

  

 −

R

X X Tan

1 L C 

Index of Refraction: c f

 

= =

0 0

1

n

c

n

f vEM = = f = =

1

n

Law of Reflection:

i= R

Snell’s Law: n 1 Sin 1 =n 2 Sin  2 Total Int. Refl.:

1

2 1 n

n Sin  =

Energy Density:^2

0 2

1 E Volume

EEnergy = 

0

2

2 

B

Volume

B Energy

Electromagnetic Waves: E 0 =cB 0 E RMS =cBRMS

0

2 2 0

2

0

2 0 2

1

2

1

 

RMS RMS RMS RMS

B E B E Volume

Total Energy = + = =

Doppler Effect for EM Waves: 

  

 =  c

V f f

REL 0 s 1

Polarization: E =E 0 Cos

Mirrors/Lenses:

2

R f = 0

1 1 1

f di d

= + Magnification:

O

i

O

i

d

d

h

h M = =−

Lens Sign Conventions: Focal Length (f): “+” for converging, “-“ for diverging

Object Distance (dO): “+” on left (real), “-“ on right (virtual)

Image Distance (di): “+” on right (real), “-“ on left (virtual)

Magnification (M): “+” upright, “-“ inverted

Double Slit Interference:

(^ )

m Destructive

m Constructive d 1 / 2

sin 

L

Y Sin =

Small AngleApproximat ion

Single Slit Interference:

m Destructive

m Constructive d

sin 

Thin Film Interference:

(^ )

m Destructive

m Constructive t

F

F F 2 1 /^2

PhaseShift

Reflected

Differencein

 

 

with

n

F

Bragg (X-Ray) Diffraction:

(^ )

m Destructive

m Constructive d 1 / 2

2 sin 

 

Special Relativity:

2 2 1 /

1

−v c

= t^ =t 0 0

L L

= m=^ m 0 p^ =mv=^ m 0 v

2 c

V V

V V

V

AB BC

AB BC AC 

2 4 0

2 2 2 E =p c +m c

2 E 0 =m 0 c

2 E= m 0 c

2

KE =( − 1 )m 0 c

Quantum Energy/Momentum:

h pc p

hc E =hf = = =

Photoelectric Effect: KEMax =hf−W 0 Compton Effect: '  ( 1 Cos )

mc

h

e

Bohr Radius/Energy: 0

2 2

2 0 0 r n r me

h r (^) n

e

2

(^220) 2 2 0

4

0 (^13.^6 )

8 n

E

Z eV Z E h

em E (^) n

e =− =− =

Heisenberg Uncertainty:

h E t

h x p