Orbiting telescopes are located in the sky, where it is not affected by the turbulence of the atmosphere, while ground-based telescopes are located on the ground, where the atmospheric turbulence (the moving of air) is greater.
This is also the reason that some telescopes are built on mountains where the atmosphere is thinner and turbulence is smaller.
Most large telescopes are reflectors instead of refractors because reflectors are better at gathering and focusing light, allowing for clearer and more detailed images of distant objects in space. Reflectors also do not suffer from chromatic aberration, a common issue with refractors that can distort images.
Astronomers prefer dark skies with minimal light pollution to better observe celestial objects and phenomena. Brightly glowing clouds and moonlit nights can hinder their observations. Additionally, artificial lights can interfere with sensitive astronomical instruments, making it challenging to study and capture faint cosmic signals.
Astronomers prefer to observe stars from high altitudes because it reduces the amount of atmosphere through which the starlight must pass. This reduces atmospheric distortion and improves image clarity. High-altitude observatories also often have clearer skies and less light pollution, which further enhances visibility.
I would prefer to have less stress in my life.
No, moons do not have moons orbiting around them. Moons are natural satellites that orbit around planets, while planets orbit around stars like the sun. Moons are not large enough to have their own moons orbiting around them.
Orbiting telescopes are located in the sky, where it is not affected by the turbulence of the atmosphere, while ground-based telescopes are located on the ground, where the atmospheric turbulence (the moving of air) is greater. This is also the reason that some telescopes are built on mountains where the atmosphere is thinner and turbulence is smaller.
this is because the eyes r in a more relaxd state.
The answer to that is currently unknown.
There is no reliable data currently available regarding this subject.
Most large telescopes are reflectors instead of refractors because reflectors are better at gathering and focusing light, allowing for clearer and more detailed images of distant objects in space. Reflectors also do not suffer from chromatic aberration, a common issue with refractors that can distort images.
Basically it just has to do with how the electrons orbiting the atoms in the molecules prefer to behave. Add: Reactions generally happen in order to cause the electrons to reach a lower, more stable energy state.
Yes, assuming you are looking down at it from above its north pole. Because clockwise and counterclockwise are dependent on where you're looking from, astronomers prefer the terms prograde and retrograde. Jupiter's revolution is prograde.
Two types of telescopes are refracting telescopes and reflecting telescopes. Refracting telescopes use lenses to gather and focus light to form an image, while reflecting telescopes use mirrors to achieve the same result. Both types work by collecting and focusing light from distant objects to produce an enlarged image for observation.
People prefer the software jobs because technology is currently in thing. Moreover, it is very simple to learn how to program.
4.2 K in celsius is -268.95. K stands for kelvin. Kelvin is another unit used to measure temperature. Astronomers often prefer to use the kelvin temperature.
i personally prefer l4d[left 4 dead] or l4d2 but also u could get mass effect 2
A light-year is the distance light travels in a year - equivalent to almos 10 million million (or 1013) kilometers. In popular astronomy, distances to stars or galaxies are often stated in light-years; although astronomers often prefer another measure, the parsec, equivalent to about 3.26 light-years.A light-year is the distance light travels in a year - equivalent to almos 10 million million (or 1013) kilometers. In popular astronomy, distances to stars or galaxies are often stated in light-years; although astronomers often prefer another measure, the parsec, equivalent to about 3.26 light-years.A light-year is the distance light travels in a year - equivalent to almos 10 million million (or 1013) kilometers. In popular astronomy, distances to stars or galaxies are often stated in light-years; although astronomers often prefer another measure, the parsec, equivalent to about 3.26 light-years.A light-year is the distance light travels in a year - equivalent to almos 10 million million (or 1013) kilometers. In popular astronomy, distances to stars or galaxies are often stated in light-years; although astronomers often prefer another measure, the parsec, equivalent to about 3.26 light-years.