Polarization
Diffraction
Dispersion
Interference
B. Diffraction
Rad/s
m/s
Hz
Nm
Longitudinal waves require a medium for propagation.
Transverse waves have oscillations perpendicular to the direction of wave motion.
Electromagnetic waves are an example of mechanical waves.
Sound waves are an example of electromagnetic waves.
Gamma rays
Radio waves
X-rays
Microwaves
Kilogram-meter per second
Joule-second
Newton-meter
Hertz
Radioactive decay
Nuclear fission
Nuclear fusion
Electron capture
Polarization
Diffraction
Interference
Dispersion
Volt
Ampere
Ohm
Watt
Dispersion
Polarization
Diffraction
Interference
Pascal
Newton
Joule
Watt
Calorie
Joule
Newton-meter
Watt
Watt
Joule
Volt
Ampere
Boyle's Law
Charles's Law
Gay-Lussac's Law
Avogadro's Law
Sound wave
Light wave
X-ray
Radio wave
Ohm
Volt
Ampere
Watt
Volt
Joule
Watt
Ohm
No unit (dimensionless)
Tesla per meter
Ampere per meter
Weber
Neutron
Electron
Proton
Photon
It is a scalar quantity.
It depends on the charge of the object and the distance from another charge.
It is always negative.
It is measured in amperes.
Farad
Ohm
Henry
Volt
Watt
Joule
Newton
Volt
Volt per meter
Newton per coulomb
Coulomb per second
Ampere per meter
Conduction
Induction
Charging by friction
Polarization
Oersted
Tesla per meter
Ampere per meter
Weber
Watt per square meter
Decibel
Hertz
Pascal
Evaporation
Sublimation
Condensation
Melting
Electric fields always point towards positive charges.
Electric fields are vectors and have both magnitude and direction.
Electric fields only exist inside conductors.
Electric fields do not interact with magnetic fields.
Inertia
Momentum
Impulse
Damping coefficient
They use nuclear fusion to generate electricity.
They control nuclear fission reactions to produce heat.
They primarily use coal as a fuel source.
They do not involve the release of radiation.
Coulomb
Statcoulomb
Ampere
Franklin
Vaporization
Condensation
Sublimation
Fusion