This is really a rather delicate question, given the innumerable meanings it could hold and imply. The first thing that must be made clear is that 'radiation' is a commonly misunderstood term. Often, when a layman hears 'radiation,' their immediate thought goes to radioactivity. Radioactivity, however, is associated only with nuclear radiation, quite a different item from electromagnetic radiation. Henceforth, references to 'radiation' will be specifically to electromagnetic radiation unless otherwise stated. A second misconception in need of clarity is the idea that radiation is dangerous. Yes, radiation can be dangerous. But so can water, but it's also necessary. A very common deficit in knowledge regarding radiation is as to its nature; it is too seldom known that electromagnetic radiation is simply the scientific term for light. There are seven main classifications of light (from least to most energetic): Radio, microwave, infrared, visible, ultraviolet, x-ray, and gamma. Earth's atmosphere is largely opaque to most of these, except visible and radio. There are many practical, and in some cases, essential applications of these different forms of radiation. So far, only gamma, x-ray, and ultraviolet light have been proven to have adverse effects: gamma rays are energetic enough to disintegrate complex matter, and x-rays and ultraviolet light both have been shown to activate oncogenes in animal cells, causing development and metastasis various forms of cancer. There have been studies suggesting that infrared, microwave, and radio waves can cause minor damage to the brain, musculature, and soft tissue, however, none have been conclusive. If you wish to avoid possibly damaging effects of radiation, the simple solution is to limit exposure. Tanning beds and large exposure to sunlight provide unhealthy doses of UV radiation. Frequent medical x-rays can cause damage as well, which is why radiologists and radiographers must be thoroughly shielded in the line of work. Gamma rays do not naturally occur on Earth, and any source of gamma rays that might pose a threat from space would be unavoidable, so you need not worry. Other forms of radiation are difficult to avoid, being everywhere in one's daily life. You can simply try to avoid overexposure, and live healthily otherwise.
Lead or lead-lined materials are commonly used to prevent escape radiation in various applications, such as in medical imaging, nuclear facilities, and industrial settings. Lead's high density and capacity to attenuate radiation make it an effective choice for shielding against escape radiation.
The intensity of ionizing radiation decreases as you move away from the source due to the inverse square law. This means the radiation intensity decreases proportionally to the square of the distance from the source. As you move further away, the spread of radiation over a larger area reduces the intensity experienced at any one point.
Infrared radiation is a property of energy transfer that is always away from the source.
Moving away from an ionizing source of radiation typically decreases the intensity of radiation exposure you receive. The further you move from the source, the lower the dose of radiation you are exposed to.
It gets radiated away, as infrared radiation, which is part of the electromagnetic spectrum.It gets radiated away, as infrared radiation, which is part of the electromagnetic spectrum.It gets radiated away, as infrared radiation, which is part of the electromagnetic spectrum.It gets radiated away, as infrared radiation, which is part of the electromagnetic spectrum.
Lead or lead-lined materials are commonly used to prevent escape radiation in various applications, such as in medical imaging, nuclear facilities, and industrial settings. Lead's high density and capacity to attenuate radiation make it an effective choice for shielding against escape radiation.
Yes, energy can escape from a black hole through Hawking radiation, which is a process where black holes emit radiation and lose mass over time. However, the escape of energy through Hawking radiation is very slow and weak in comparison to the massive gravitational pull of the black hole.
To escape
they tried to escape but the king sent soldiers to guard the towns so no one could escape.
Polar bears have only one enemy MAN, they can only escape by diving into the sea.
Escape
I - Almost Got Away with It 2010 Got to Escape with One Leg 6-4 was released on: USA: 15 July 2013
break out, get away, flee? it kinda depends on the context, but hopefully u can use one of these...
The intensity of ionizing radiation decreases as you move away from the source due to the inverse square law. This means the radiation intensity decreases proportionally to the square of the distance from the source. As you move further away, the spread of radiation over a larger area reduces the intensity experienced at any one point.
They fly away to escape or hide
Hawking radiation describes how radiation is emitted from a black hole due to quantum effects. According to Hawking matter and ant-matter is formed simultaneously near a black hole an are destroyed as soon as they are formed. But sometimes one of these duo are pulled away by the black hole's gravitational effects and leaving a room for the other to escape. So according to this a black hole should be shinning instead of being black.
Quasars emit enormous amounts of radiation, more than anything else in the universe. This radiation carries enough momentum to push stars and gas clouds away from the black hole. Things can escape the gravity of a black hole so long as they do not cross the event horizon.