I've never seen this stated, so this is a guess: probably from harmonisch (German for "harmonic"), since Planck was attempting to develop equations of motion for light by treating it as a set of harmonic oscillators.
Because A, B, C, D, E, F, and G where taken,
A -Avogadro'snumber.
B -Boltzmann'sconstant
C - Constant of Integration and Columb's charge
D - Dean number
E - Energy
F - Faraday's constant
G - Gravitational constant
led is used to determine Plancks constant
The h in the hc stands for plancks constant which is 6.63 x10^-34, which is negative. :)
Do you mean h, rather than H? h is Planck's constant, f would conventionally be frequency.
no se
The concentration of OH- decreases as the concentration of H+ increases. This is beacause there is an equilibrium H2O <-> H+ + OH- and therefore the [H+][OH-] is a constant
(E) Photon=E2-E1= hv h=Plancks constant v=frequency
wavelength since frequency =hc/lambda h=plancks constant and c=velocity of light
led is used to determine Plancks constant
We need to know the equation E=h where h=plancks constant . From this equation you can see that energy and frequency are directly related ( one increases as the other one dicrease )
No, gas constant is having a value of 8.314Jk-1mol-1 Whereas plancks constant has a value of 6.6*10-31
use the equation E = hf where h is plancks constant E = 410E 7 * 6.63E -34 E = 2.7183E -23 joules
The h in the hc stands for plancks constant which is 6.63 x10^-34, which is negative. :)
I assume the equation you're looking for is E=hv or E=hc/lambda. h is plancks constant and c is speed of light in m/s. lambda is in metres
Wavelength = Plancks constant / (Mass x Velocity)
Frederick C. H. Wong has written: 'Chemical equilibrium analysis of combustion products at constant volume'
wavelength = h/p (h= Plancks constant = 6.636*10^-34 kg*m^2/s) p=m*v Combining these gives us v=h/(m*wavelength)=8.37*10^6 m/s
Electromagnetic radiation is one way that energy can be transfered across a distance. EM radiation can be thought of as packets of wave, each called a photon. A photon has a certain amount of energy, which can be found using the formula "E = hf", where 'f' is the frequency of the light, and 'h' is plancks constant (h = 6.626×10−34 Js).