Emitted radiation and absorbed solar radiation

AI Thread Summary
Jupiter's black body temperature is 125K, which is 20K higher than expected from absorbed solar radiation. To calculate the ratio of emitted radiation to absorbed solar radiation, the Stefan-Boltzmann law is applicable. The formula W = sigma * area * temp^4 can be simplified by focusing on the irradiance ratio, eliminating the area factor. The key is to compare the fourth power of the temperatures involved. This approach will provide the necessary ratio for Jupiter's radiation dynamics.
Richmondh2o
Messages
1
Reaction score
0
Jupiter has a black body temperature of 125K, but this is 20 K higher than the temperature that would be calculated from absorbed solar radiation alone. From this information, calculate the ratio of emitted radiation to absorbed solar radiation on Jupiter.

I started using

W = sigma * area * temp^4

Is that of any help?
Or are they any hints that I might try to start with?
 
Astronomy news on Phys.org
Richmondh2o said:
Jupiter has a black body temperature of 125K, but this is 20 K higher than the temperature that would be calculated from absorbed solar radiation alone. From this information, calculate the ratio of emitted radiation to absorbed solar radiation on Jupiter.

I started using

W = sigma * area * temp^4

Is that of any help?
Or are they any hints that I might try to start with?

Stefan–Boltzmann law is correct.
No need to include area; just use the ratio of the two in terms of their irradiance, comparing the 4th power of the temperature of the two.
...
 
TL;DR Summary: In 3 years, the Square Kilometre Array (SKA) telescope (or rather, a system of telescopes) should be put into operation. In case of failure to detect alien signals, it will further expand the radius of the so-called silence (or rather, radio silence) of the Universe. Is there any sense in this or is blissful ignorance better? In 3 years, the Square Kilometre Array (SKA) telescope (or rather, a system of telescopes) should be put into operation. In case of failure to detect...
Thread 'Could gamma-ray bursts have an intragalactic origin?'
This is indirectly evidenced by a map of the distribution of gamma-ray bursts in the night sky, made in the form of an elongated globe. And also the weakening of gamma radiation by the disk and the center of the Milky Way, which leads to anisotropy in the possibilities of observing gamma-ray bursts. My line of reasoning is as follows: 1. Gamma radiation should be absorbed to some extent by dust and other components of the interstellar medium. As a result, with an extragalactic origin, fewer...
Both have short pulses of emission and a wide spectral bandwidth, covering a wide variety of frequencies: "Fast Radio Bursts (FRBs) are detected over a wide range of radio frequencies, including frequencies around 1400 MHz, but have also been detected at lower frequencies, particularly in the 400–800 MHz range. Russian astronomers recently detected a powerful burst at 111 MHz, expanding our understanding of the FRB range. Frequency Ranges: 1400 MHz: Many of the known FRBs have been detected...
Back
Top