Brown dwarfs are more massive than the planet Jupiter.
No, Jupiter is not a brown dwarf. Jupiter is the largest planet in our solar system and is classified as a gas giant. Brown dwarfs are substellar objects that are larger than planets but smaller than stars, and they do not have enough mass to sustain nuclear fusion in their cores like stars do.
No. Red giants have temperatures comparable to those of red dwarfs. Even cooler are brown dwarfs, which are objects that are in the intermediate range between planets and stars.
Jupiter isn't big enough to be a star.It doesn't give off light.It's not that hot. Only about 150 degrees below zero or something... Not even close to a star's temperature!
Below about 0.08 solar masses an object will not be able to ignite nuclear fusion. There may be small amounts of deuterium fusion, but it is not sustainable. Objects between 0.08 solar masses and about 13 Jupiter masses are called brown dwarfs.
The fate of an isolated brown dwarf depends on its mass. If the brown dwarf is below a certain threshold (about 13 times the mass of Jupiter), it will cool and fade over time, eventually becoming a cold, dark object called a "rogue planet." If the brown dwarf is more massive, it may undergo fusion reactions and become a star, though this is rare for isolated brown dwarfs.
No, Jupiter is not a brown dwarf. Jupiter is the largest planet in our solar system and is classified as a gas giant. Brown dwarfs are substellar objects that are larger than planets but smaller than stars, and they do not have enough mass to sustain nuclear fusion in their cores like stars do.
no
No. Red giants have temperatures comparable to those of red dwarfs. Even cooler are brown dwarfs, which are objects that are in the intermediate range between planets and stars.
Brown dwarfs and Jovian planets share similar characteristics such as their composition (mostly hydrogen and helium), formation process, and location in the universe (often found in stellar nurseries or orbiting stars). Both can also exhibit weather patterns and atmospheric phenomena. However, brown dwarfs are considered failed stars as they do not have enough mass to sustain nuclear fusion, while Jovian planets are simply large gas giants.
Beige is beige and brown is brown simples
The difference between them is that white fat is found in adults and brown fat is found in children.
All of the different colours seem to be the difference between the grey, white and brown mice...
One is brown and the other is white.
Red dwarf stars are massive enough to undergo nuclear fusion, so they would burn a long time before they run out of fuel. Brown dwarves are not massive enough for nuclear fusion, so almost all of its light come from the time when the brown dwarf was formed. Over a long period of time, a brown dwarf would cool down into a gas giant similar to Jupiter.
Jupiter. However, it would need to be MUCH bigger. It would need about 80 times its present mass to become even the smallest possible red dwarf star. Even if you count "brown dwarfs", Jupiter would still need more than ten times its present mass just to be the smallest brown dwarf.
Somewhat confusingly, there are no "medium" stars. Stars are either dwarfs or giants. Dwarf stars (class V) come in all types: O, B, A, F, G, K, and M. There are also class VII "white dwarfs", probably better called "degenerate dwarfs" which are distinct from AV stars. In the first place, they really are small (about the size of Earth); the smallest red dwarfs are much larger, and even the so-called "brown dwarfs" are around the size of Jupiter (though much more massive). Also, they're not part of the main sequence.
Gordon brown