Section 1
Preview this deck
Gauge Pressure
Front
| 5 | 0 | ||
| 4 | 0 | ||
| 3 | 0 | ||
| 2 | 0 | ||
| 1 | 0 |
Active users
0
All-time users
0
Favorites
0
Last updated
6 years ago
Date created
Mar 1, 2020
Cards (110)
Section 1
(50 cards)
Gauge Pressure
Weight of Substance
Kinetic Energy
Energy of Motion Measured in J, or kg*m^2/s^2
Isolated System
Not capable of exchanging energy or matter with surroundings
Gravitational Potential Energy
Mechanical Advantage
Heat of Transformation
Where L is the heat required to change phase of 1 kg of substance
Bernoulli's Equation
Closed Systems
Can exchange energy, but not matter with surroundings
Length Change Equation
Open Systems
Can exchange both matter and energy with surroundings
Gravitational Force
Vector
Numbers with magnitude and direction Displacement, velocity, acceleration, and force
Buoyant Force
Torque
Elastic Potential Energy
Newton's Third Law
For every action there is an equal and opposite reaction
Average Speed
Work
Measured in J or kg*m^2/s^2
Critical Speed
Entropy
A measure of disorder or randomness. Measured in J/mol*K
Centripetal Acceleration
Inclined Planes
Top is for parallel and bottom is for perpendicular
Specific Heat
Newton's First Law
A body will remain at rest or continue to move with constant velocity unless acted upon by a force.
Volumetric Thermal Expansion
Venturi Effect
Translational Equilibrium
Vector sum of all forces is 0
Pressure
Measured in Pa
Zeroth Law of Thermodynamics
When one object is in thermal equilibrium with another, and the second is in thermal equilibrium with a third, the first and third are also in thermal equilibrium
Weight (Fg)
Measure of gravitational force on an object's mass
Newton's Second Law
An object of mass m will accelerate when the vector sum of the forces results in some nonzero resultant force vector
Flow Rate
Density of Water
1 g/cm^3 = 1000 kg/m^3
Center of Mass
Linear Motion
Mass
Amount of matter in the object
Acceleration
Scalars
Have magnitude but no direction Distance, speed, energy, pressure, mass
Power
Measured in W or J/s or kg*m^2/s^3
First Law of Thermodynamics
Heat
Quantity of energy transferred between two objects Measured in J or kg*m^2/s^2
Rotational Equilibrium
Occurs when an object's net torque is zero
Absolute Pressure
Specific Gravity
Poiseuille's Law
Can calculate laminar flow
Potential Energy
Stored energy that results from the position or shape of an object
Pascal's Principle
Sinusoidal Waves
Individual particles oscillate back and forth with a displacement
Total Mechanical Energy
Section 2
(50 cards)
Constructive Interference
Waves are perfectly in phase and displacements and amplitude add together
Voltage
ΔV = Vb - Va = Wab/q
Capacitance
Measured in F or 1 C/V
Resistors in Parallel
Vp = V1 = V2 1/Rp = 1/R1 + 1/R2 + ...
Electric Field
Power in Electric Circuits
Current
Measured in A or 1 C/s
Intensity
Measured in W/m^2
Propagation Speed
Parallel Plate Capacitor
e0 = 8.85 x 10^-12 F/m
Speed of Light
3.00 x 10^8 m/s
Electric Potential
V = U/q Measured in V or 1 J/C
Timbre
Quality of the sound
Focal Length
1/f = 1/o + 1/i = 2/r
Dipole Moment
Measured in C*m
Concave Surface
Center of curvature is in front of the mirror Converging mirror
Electromagnetic Radiation
Gamma Ray, X Ray, UV, Visible, IR, Microwave, FM, AM, Long Radio Waves
Frequency (f)
Number of wavelengths passing a fixed point per second Measured in Hz
Capacitors in Series/Parallel
1/Cs = 1/C1 + 1/C2 + ... Cp = C1 + C2 + C3
Destructive Interference
Waves are perfectly out of phase and displacements counteract each other Amplitude is the difference between the waves
Resistors in Series
Vs = V1 + V2 + ... Rs = R1 + R2 + ...
Ohm's Law
Coulomb's Law
Coulomb's Constant = 8.99 x 10^9 N*m/C^2
Lensmaker's Equation
Magnetic Force
Magnetic Force on a Wire
Image
Real image i
Dielectric Capacitance
Virtual Image
Light only appears to be coming from position but does not converge there Negative distance and behind the mirror
Visible Region
400 nm (violet) to 700 nm (red)
Sinusoidal Waves
Individual particles oscillate back and forth with a displacement
Snell's Law
n = c/v
Magnetic Field
No pi if it's a circular loop u0 = 4pi 10^-7 Tm/A
Potential Energy in Capacitor
Uniform Electric Field
Transverse Waves
Direction of particle oscillation is perpendicular to the propagation Electromagnetic waves such as visible light, microwaves, and x-rays
Sound Level
Traveling Wave
Moving wave that reflects when it reaches the fixed boundary causing eventual interference
Speed of Sound
Angular Frequency
Measured in radians/second
Electric Potential Energy
Period
T = 1/f
Convex Surface
Center of curvature is behind the mirror Diverging mirror
Longitudinal Waves
Particles oscillate parallel to the direction of propagation Sound Waves
Real Image
Light converges at position of image Positive distance and in front of the mirror
What frequencies can humans hear?
20Hz to 20000Hz
Resistance
Measured in ohms
Magnification
Negative is inverted and positive is upright
Wavelength ƛ
Distance from one max (crest) to the next
Doppler Effect
f' > f if source and detector are moving toward each other f > f' if they're moving away Top sign for toward
Section 3
(10 cards)