Asking the temperature of a single molecule is silly.well then post that experiment that shows how warm CO2 gets when it absorbs IR. Got that?Yes. So how does it work?
Molecules of carbon dioxide (CO2) can absorb energy from infrared (IR) radiation. This animation shows a molecule of CO2 absorbing an incoming infrared photon (yellow arrows). The energy from the photon causes the CO2 molecule to vibrate. Shortly thereafter, the molecule gives up this extra energy by emitting another infrared photon. Once the extra energy has been removed by the emitted photon, the carbon dioxide stops vibrating.
This ability to absorb and re-emit infrared energy is what makes CO2 an effective heat-trapping greenhouse gas. Not all gas molecules are able to absorb IR radiation. For example, nitrogen (N2) and oxygen (O2), which make up more than 90% of Earth's atmosphere, do not absorb infrared photons. CO2 molecules can vibrate in ways that simpler nitrogen and oxygen molecules cannot, which allows CO2 molecules to capture the IR photons.
Carbon Dioxide Absorbs and Re-emits Infrared Radiation | UCAR Center for Science Education
so how warm is the CO2 after it absorbs and is that before it transfers the IR to the O and N molecules? How high does that molecule of CO2 hold that supposed IR?
nitrogen (N2) and oxygen (O2), which make up more than 90% of Earth's atmosphere, do not absorb infrared photons.
They don't? Doesn't the CO2 transfer to the O and N molecule? SSDD posted that in the other thread.
so how warm is the CO2 after it absorbs
Asking the temperature of a single molecule is silly.
It is warmer than it was before.
How high does that molecule of CO2 hold that supposed IR?
Clarify what you mean by "how high".
They don't?
No. CO2 stops IR that would otherwise instantly escape an atmosphere lacking any GHG.
Doesn't the CO2 transfer to the O and N molecule?
By collision.
It is warmer than it was before.
are you saying the molecule gets warmer than the environment its in? Now that's magic.
A single molecule doesn't have a temperature. Only large groups of molecules do. This has been explained to you on numerous occasions.