Scientists often place telescopes in remote locations, such as high mountains, to minimize atmospheric interference and light pollution. Additionally, some telescopes are positioned in space, like the Hubble Space Telescope, to completely avoid Earth's atmosphere and provide clearer images of celestial objects. These locations allow for more precise observations of the universe.
light telescopes and radio telescopes whether installed on earth or on space vehicles
The Hubble Space Telescope can provide clearer images than telescopes on Earth due to two main reasons: it is above Earth's atmosphere, which can distort and block light reaching ground-based telescopes, and its position in space allows it to capture light without the interference of atmospheric effects like light pollution and turbulence. These factors contribute to Hubble's ability to produce high-resolution images of celestial objects with great clarity.
Some telescopes are placed in space to avoid the Earth's atmosphere, which can distort and absorb light from celestial objects. Atmospheric interference can blur images and limit the wavelengths of light that reach the ground. By positioning telescopes in space, astronomers can obtain clearer, more detailed observations across a broader range of wavelengths, including ultraviolet and infrared, which are blocked by the atmosphere. This enables more accurate studies of the universe and its phenomena.
A space telescope such as the Hubble Space Telescope can view heavenly bodies clearly without the filtering effect of Earth's atmosphere. These telescopes orbit above Earth's atmosphere, providing a clear view of objects in space without distortion or interference.
Interference from Earth's atmosphere.
Scientists place telescopes in high-altitude locations, such as mountain observatories, to reduce atmospheric interference. Additionally, many space telescopes, like the Hubble Space Telescope, are positioned beyond Earth’s atmosphere in orbit, allowing for clearer observations free from atmospheric distortion and light pollution. These strategic placements enhance the quality and clarity of astronomical observations.
The Earth's atmosphere provides interference to optical telescopes because the molecules in the air scatter and disrupt light. Many telescopes are placed at high elevation because the atmosphere is thinner and will cause less interference.
scientist on earth build telescopes on top of
because looking through the Earth's atmosphere can distort the incoming light.
Because of the atmosphere. The atmosphere distorts light (this is also why stars 'twinkle'), where as the HST, free from this, faces no interference.
Infrared telescopes are usually built at high altitudes to minimize atmospheric interference. At lower altitudes, the Earth's atmosphere absorbs and scatters infrared light, making it difficult to observe astronomical objects accurately. By placing telescopes at high altitudes, such as on mountain peaks, scientists can minimize the interference and obtain clearer observations of infrared radiation from space.
The Earth's atmosphere is about 120 miles thick and anything we see from the surface of the Earth is distorted by the water vapor and debris that is in the air. If you are in space you do not have this distortion. The Hubble Telescope is a good example of space based telescopes.Scientists have put telescopes in space to avoid interference by the atmosphere.SOURCE:-Page 560 of Holt Science & Technology Earth Science-Chapter 18-Studying Space-Section 2- Telescopes-Optical Telescopes in Space
Mountaintops are ideal for near-infrared telescopes because the high altitude reduces atmospheric interference and light pollution. Ultraviolet telescopes are placed in Earth orbit to avoid absorption of ultraviolet light by Earth's atmosphere, which allows for clearer observations of objects emitting in the ultraviolet spectrum.
Certain types of electromagnetic radiation, particularly gamma rays and most ultraviolet radiation, cannot be effectively detected by telescopes on Earth because they are absorbed by the Earth's atmosphere. This absorption prevents these high-energy photons from reaching the surface. To observe these wavelengths, scientists use space-based telescopes, which operate above the atmosphere.
Observations from Earth-based telescopes are obscured by the atmosphere.
Earth's atmosphere absorbs and scatters X-rays, preventing them from reaching the surface. To detect X-rays from distant stars, X-ray telescopes need to be placed in space above the atmosphere. This allows them to collect and study X-rays without interference.
Only because it gets no atmospheric interference, which most of the ground based telescopes do.