As the atom absorbs photons, it will receive a barrage of momentum kicks in the direction that the light beam propagates.
Not exact matches
You are correct in claiming that we could come back
as anything...
as you decompose your
atoms will be
absorbed into anything and you may well be a cow horse, or part of a rain drop... in fact you may have been part of those even before you were born... your
atoms are
as old
as the universe..
According to quantum mechanics, an
atom can only
absorb a photon of particular energies and colors
as the electron within the
atom hops from a lower energy state to a higher energy state.
As the quasar's light zips through the Fermi bubble, carbon and silicon
atoms in the gas
absorb certain wavelengths of ultraviolet light.
They found that just a few hundred fs after the initial ionization, the Ne
atom that had
absorbed the x-ray,
as well
as two neighboring Kr
atoms, were all in an ionized, positively charged state.
Ordinarily the
atom acts
as a barrier to photons from the probe beam because it would first
absorb them — going from its «ground» state to an «excited» state — and then shoot them back, that is, reflect them.
The photon momentum has a component that is opposite to the atomic motion and,
as a result, the momentum kick of the
absorbed photon slows the
atom down.
A standard atomic clock takes advantage of the fact that an
atom can
absorb electromagnetic radiation such
as light at certain frequencies
as its internal structure jumps from one «quantum state» to another.
Their color derives from flaws in the gem's carbon structure: some of the carbon
atoms have been replaced by an element, such
as boron, that emits or
absorbs a specific color of light.
On its 12 - billion - year journey, the light had passed through interstellar clouds of metals such
as iron, nickel and chromium, and the researchers found these
atoms had
absorbed some of the photons of quasar light — but not the ones they were expecting.
Peering through a viewport, I watch
as a blob of
atoms absorbs photons of laser light and re-emits them at slightly higher energies, losing a bit of heat each time.
The hydrogen
atoms absorbed the background radiation, and it's this change that the new study was able to detect
as radio waves.
As hydrogen
atoms move about in space, they can
absorb small amounts of energy, sending the
atom's single electron to a higher energy state.
As starlight passes through a planet's atmosphere,
atoms and molecules
absorb light at certain wavelengths, blocking it from the telescope's view.
Highly energetic gamma - and X-rays, with wavelengths
as small
as or smaller than
atoms, are
absorbed by oxygen and nitrogen in the upper atmosphere.
He found that gases and vapors whose molecules had three or more
atoms, such
as water vapor and CO2,
absorbed much more of the thermal radiation passing through the tube than did two -
atom molecules such
as oxygen and nitrogen.
Photons of sufficient energy are
absorbed by oxygen molecules and
as a result the
atoms of the oxygen are «blown» apart.
As a result, the receiving
atom can not
absorb it.
Some might argue that the term «re-radiate» should be reserved for cases where a molecule or
atom absorbs a photon of a given energy, and later emits a photon of the same energy,
as the excited state returns to normalcy.
Fortunately,
as depicted in Figure 2 (orange «thermal down surface» arrow), some of this energy does stay in the atmosphere, where it is sent back toward Earth by clouds, released by clouds
as they condense to form rain or snow, or
absorbed by atmospheric gases composed of three or more
atoms, such
as water vapor (H2O), carbon dioxide (CO2), nitrous oxide (N2O), and methane (CH4).
However, my main point was not so much about the «make up» of ozone but more about the possibility that
as long
as oxygen
atoms and molecules
absorb enough energy from UV radiation to alter their structure it may be that they also produce an increase in their heat content, which should be greater at any points nearest to the source — i.e..
Although molecules containing two
atoms of different elements such
as carbon monoxide (CO) or hydrogen chloride (HCl)
absorb infrared radiation, these molecules are short - lived in the atmosphere owing to their reactivity and solubility.