The electron has several possible energy levels. One of the lines corresponds to a transition from level 2 to level 1, another from level 3 to level 1, another from level 4 to level 1, another from level 3 to level 2, etc.
It is not the number of electrons that determines the number of transitions, but the number of energy levels (obitals) that the electron can be in. each absorption line is produced by an electron in some energy level that absorbs a photon and jump to a higher level. each jump is called a transition. you can jump from level 1 to level 2 and you produce a line. you jump from 1 to 3 and you produce another line.
The lines in the emission spectrum result from electrons falling from higher to lower energy levels. For example, if an electron falls from n=2 to n=1, you get a certain energy (wavelength). If one falls from n=3 to n=1, you get another HIGHER energy wavelength. Each of these gives a line in the emission spectrum. That SINGLE electron in the hydrogen atom is not always in the same shell. It can be excited to higher energy levels, and then when if falls back to a lower energy state, you get these lines.
because there are a large number of excited state energy levels possible for hydrogen and each line corresponds to each transition from one energy level to the other.
The electron has different possible energy levels; it can "fall" from any energy level to any other energy level, resulting in many different combinations.
because it does yo
The "gas" needed for the electron transport chain is Hydrogen. In the electron transport chain its not Hydrogen gas H2 but a Hydrogen Ion H negative that flows across the membrane to produce engery.
At the end of the electron transport chain (ETC) in cellular respiration, oxygen gas (O2) is added. This is the final electron acceptor, which combines with hydrogen ions (H+) to produce water (H2O).
When the electron falls from an higher energy level to lower energy level, photons are liberated. The energy is found to be the difference between the two levels which determines the color of the emission spectrum depending on wavelength.
The color from a neon sign is created by the gas being used inside of the tube. the bandwidth is very narrow so only a single color is output from the tube.
In order for a hydrogen atom to have a continuous spectrum, the oscillation would have to be incoherent. In other words, there would be no fixed or steady state oscillation. In addition, the change in state of the oscillator would have to be incoherent. We know that the energy that is radiated from a hydrogen atom is due to changes in the energy states of the atom. Therefore, each of the states that the atom would have to reach must be perfectly random. This would produce a nearly continuous spectrum over a certain range in frequencies or wavelengths.
Every element can produce an emission spectrum, if it is sufficiently heated. Of the 4 elements that you mention, neon is the most useful, in terms of its emission spectrum, and it is used in a certain type of lighting.
Emission spectra are bright-line spectra, absorption spectra are dark-line spectra. That is: an emission spectrum is a series of bright lines on a dark background. An absorption spectrum is a series of dark lines on a normal spectrum (rainbow) background.
because it only releases photons of certain energies.
This particle is a neutron:neutron-----------proton + electron + neutrino
This physical process is the same as any and all of those that produce Photons. These Photons are produced when any Electron Jumps from any Higher Energy level to any Lower Energy level [within the Atomic Valence Shell Rules].
The "gas" needed for the electron transport chain is Hydrogen. In the electron transport chain its not Hydrogen gas H2 but a Hydrogen Ion H negative that flows across the membrane to produce engery.
The nitrate ion is the oxidizing agent in the compound without it you could not burn the chemicals and you could not produce a spectrum so there would be no emission of color
At the end of the electron transport chain (ETC) in cellular respiration, oxygen gas (O2) is added. This is the final electron acceptor, which combines with hydrogen ions (H+) to produce water (H2O).
There are no bright lines and no dark lines in the spectrum, incandescent light has a continuous spectrum with all visible colors present
When the electron falls from an higher energy level to lower energy level, photons are liberated. The energy is found to be the difference between the two levels which determines the color of the emission spectrum depending on wavelength.
All hot solids or dense enough gases emit black body radiation. Gases that are not very dense are are cold absorb particular wavelengths while gases that are not dense but are hot produce their characteristic emission spectrum.
energy an emission line spectrum