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Is there a well-established theory for temperature and cooling processes of neutron stars as a function of time?
sikrut said:Well, in general relativity, einstein theorized the existence of gravitational waves. Many astrophysicists have attributed the decreases of a neutron stars angular momentum to this "gravitational radiation".
Observational evidence consists of timing the intervals of each pulse from a pulsar, which tells us its rotational period. After monitoring it for a while (weeks? months? years?), the observing will record a consistent decay in it rotational energy. These observations are consistent with einstein's theory of general relativity, and almost confirm the existence of gravitational waves.
sikrut said:Oh. Were we supposed to just supply an article like tom did?
and my spelling was atrocious in that post...
sikrut said:Oh. Were we supposed to just supply an article like tom did?
and my spelling was atrocious in that post...
tom.stoer said:Is there a well-established theory for temperature and cooling processes of neutron stars as a function of time?
A neutron star is a type of celestial object that is formed when a massive star runs out of nuclear fuel and collapses under its own gravity. It is composed almost entirely of neutrons and is incredibly dense and hot. Studying its temperature and cooling is important because it can give us insights into the fundamental properties of matter and the evolution of stars.
Neutron stars can have temperatures ranging from 600,000 to over 1 billion degrees Celsius. However, as they age and lose thermal energy, their temperatures gradually decrease. The rate of cooling also depends on factors such as the star's mass and composition.
The temperature of a neutron star is typically measured by observing its thermal radiation, which is emitted in the form of X-rays. By analyzing the spectrum of X-rays emitted by a neutron star, scientists can determine its temperature and other properties, such as its composition and magnetic field strength.
Yes, there are several factors that can affect the temperature and cooling rate of neutron stars. These include the star's mass, composition, and magnetic field strength, as well as external factors such as its environment and interactions with other objects in its vicinity.
Theoretically, neutron stars can continue to cool down indefinitely. However, it is unlikely that they will ever completely cool down, as some energy sources, such as radioactive decay, may continue to generate heat. Additionally, neutron stars can also undergo processes such as accretion, where they absorb material from a companion star, which can also contribute to their thermal energy.