Neither. The beams of red light and green light will have the same number of Photons, as energy is only related to frequency. The number of Photons is dependent on the intensity of the light beams.
The flame color that emits more photons is typically blue. Blue flames have a higher temperature and more complete combustion, resulting in a greater number of high-energy photons being released. In contrast, yellow or orange flames, which are cooler and often result from incomplete combustion, emit fewer photons overall. Thus, the intensity and energy of the blue flame contribute to its increased photon emission.
To calculate the energy per mole of photons from the energy per photon, you need to multiply the energy per photon by Avogadro's number (6.022 x 10^23) to account for the number of photons in a mole. The formula is: Energy per mole of photons = Energy per photon x Avogadro's number.
Each photon has ( h · f ) joules of energy.( ' h ' is Planck's Konstant. ' f ' is the frequency of the radiation.)In order to collect 1 mJ of energy from the radiation, you have to gather up(0.001)/( h · f ) photons. ' h ' is Planck's Konstant, 6.63 x 10-34 joule-second.' f ' is the frequency of the radiation, which is not given in the question.
One mole of photons would contain approximately 6.022 x 10^23 photons. This number is known as Avogadro's number and represents the number of particles in one mole of any substance. Each photon carries energy and has characteristics of both particles and waves.
To find the number of photons needed to provide 1.00 J of energy, we first calculate the energy of one photon using E=hf, where h is the Planck constant (6.626 x 10^-34 J*s). Then we divide the total energy by the energy of one photon to get the number of photons. Thus, 1.00 J / (4.88 x 10^13 Hz) will give you the number of photons required.
A hard beam is one that contains a greater number of high energy photons than low energy photons.A soft beam is one that contains a greater number of low energy photons that high energy photons.During the filtration of a heterogenous beam (one that contains photons with different energies), low energy photons are removed from the beam, effectively "hardening" it.
No. "Greater than" is for comparing which number is larger, and is denoted with the symbol >.
In mathematics, when comparing two numbers, the greater number is the one with the larger value. In this case, 6.5 is greater than 5.5. This can be determined by looking at the whole number part first, which is 6 in both cases, and then comparing the decimal parts. Since 0.5 is greater than 0.0, 6.5 is the greater number.
comparing integers are when you have two numbers, and you need to find out how to get the greater number. Ex: -3 > < -4. You have to see which number is the bigger number, and then put a greater than or less than sign. so the answer would be: -3 because you have to find the number that is closest to zero on the number line.
2
58 is greater than 46. When comparing the two numbers, 58 is larger as it has a higher value. Therefore, 58 is the greater number.
the last # and the decimal point
Comparing to 100,000 . . .1,000,000 is ten times as great,1,100,000 is ten times greater.
No, 0.37 is not greater than 0.5. In fact, 0.37 is less than 0.5. When comparing decimal values, the number with the larger value is considered greater.
In order to compare numbers, you must have at least two. You can not compare 2 to anything without another number. For example, comparing '2' and '5', 5 would be greater than 2.
tell how you could use a number line to determine which of two numbers is greater
Yes, 7.08 is greater than 7.03. When comparing two numbers with the same whole number part, the number with the greater decimal part is larger. In this case, 0.08 is greater than 0.03, making 7.08 greater than 7.03.