Generally if they are of the same wavelength, then the atom will absorb the photon at that wavelength.
Yes, it is possible for an atom of element X to absorb two photons and then emit one photon through a process called two-photon absorption followed by single-photon emission. When an atom absorbs two photons simultaneously, it can reach an excited state with higher energy. This excited state can then decay back to a lower energy state by emitting a single photon. This phenomenon is known as two-photon absorption followed by single-photon emission and is a rare but possible occurrence in certain atomic systems.
No, it could not. A blue photon carries more energy than a red photon, since the blue photon's frequency is higher. That means one red photon wouldn't deliver enough energy to the atom to give it the energy to emit a blue photon.
When an electron jumps from one atom to another, it creates an electrical current. This movement of electrons is what we commonly refer to as electricity. The direction of the movement of these electrons determines the flow of the current.
A laser operates based on the principle of stimulated emission of radiation. Stimulated emission occurs when a photon interacts with an excited atom, causing the atom to emit another photon that is identical in wavelength, phase, and direction to the first. This process leads to the coherent and intense light output characteristic of lasers.
Spontaneous emission is the process where an atom or molecule transitions from a higher energy state to a lower energy state, emitting a photon in the process without any external stimulation. Stimulated emission occurs when an incoming photon triggers an atom or molecule already in an excited state to emit a second photon that has the same wavelength, phase, and direction as the incoming photon, resulting in the amplification of light.
No, because there is no such thing as half a photon.
Yes, it is possible for an atom of element X to absorb two photons and then emit one photon through a process called two-photon absorption followed by single-photon emission. When an atom absorbs two photons simultaneously, it can reach an excited state with higher energy. This excited state can then decay back to a lower energy state by emitting a single photon. This phenomenon is known as two-photon absorption followed by single-photon emission and is a rare but possible occurrence in certain atomic systems.
No, it could not. A blue photon carries more energy than a red photon, since the blue photon's frequency is higher. That means one red photon wouldn't deliver enough energy to the atom to give it the energy to emit a blue photon.
When they exit their exited state. When an atom is bombarded by photons, it will often times absorb the photon. A photon is a unit of energy, so this energy is added to the atom, "extiting" it. However, atoms may only remain in ths excited state for a short period of time, and will eventually release the photon, reemiting it as light, and then the atom will return to its normal state.
The atom may emit a photon.
no
When an electron jumps from one atom to another, it creates an electrical current. This movement of electrons is what we commonly refer to as electricity. The direction of the movement of these electrons determines the flow of the current.
radiate energy
the atom is obvorbed with a structre of strikes which can power a energy photon by 31 x10 but can obloute to -19. the sequal atom is a number of strikes added to a molecue. answer: high mark.
An electron must absorb or release a specific amount of energy, typically in the form of a photon, to move to a new energy level in the electron cloud. This process is known as electron excitation or de-excitation.
The opposite of emit is absorb. Emit means to release or give off, while absorb means to take in or soak up.
A laser operates based on the principle of stimulated emission of radiation. Stimulated emission occurs when a photon interacts with an excited atom, causing the atom to emit another photon that is identical in wavelength, phase, and direction to the first. This process leads to the coherent and intense light output characteristic of lasers.