Sieverts and milliSieverts are used now. They replaced the old rem and millirem. There is a factor 100 difference, so 1 Sievert = 100 Rem. The current limit for nuclear industry employees is 20 milliSv/year, though the actual average level in the US is about 2.4 milliSv.
High doses of ionizing radiation, specifically gamma rays, X-rays, and certain particles like neutrons, can lead to radiation burns that result in delayed irreversible changes to the skin.
High doses of ionizing radiation, such as X-rays or gamma rays, can cause irreversible changes to the skin, resulting in radiation burns. These burns can manifest as damage to the skin layers, leading to ulceration, blistering, and necrosis.
High doses of ionizing radiation, such as gamma rays or X-rays, can cause radiation burns that result in delayed irreversible changes to the skin. These burns are typically a result of exposure to high levels of radiation over a short period of time.
Radiation burns that cause delayed irreversible changes of the skin can be caused by high doses of ionizing radiation such as gamma rays, beta particles, or alpha particles. These types of radiation can penetrate the skin and deposit energy, leading to tissue damage and burns.
High doses of ionizing gamma radiation can cause radiation burns that result in delayed and irreversible changes to the skin. These burns can lead to serious damage including tissue necrosis and long-term health effects.
If they are deadly doses of radiation, they aren't curable.
Fractionation
High doses of ionizing radiation, specifically gamma rays, X-rays, and certain particles like neutrons, can lead to radiation burns that result in delayed irreversible changes to the skin.
High doses of ionizing radiation, such as X-rays or gamma rays, can cause irreversible changes to the skin, resulting in radiation burns. These burns can manifest as damage to the skin layers, leading to ulceration, blistering, and necrosis.
Becquerel
tumor that requires large doses of radiation to be destroyed
fractionation
The nuclear waste gives off radiation. That radiation in large enough doses changes DNA in cells. When the DNA changes sometimes the cells can become cancerous. In even higher doses the cells will die.
High doses of ionizing radiation, such as gamma rays or X-rays, can cause radiation burns that result in delayed irreversible changes to the skin. These burns are typically a result of exposure to high levels of radiation over a short period of time.
Radiation burns that cause delayed irreversible changes of the skin can be caused by high doses of ionizing radiation such as gamma rays, beta particles, or alpha particles. These types of radiation can penetrate the skin and deposit energy, leading to tissue damage and burns.
High doses of ionizing gamma radiation can cause radiation burns that result in delayed and irreversible changes to the skin. These burns can lead to serious damage including tissue necrosis and long-term health effects.
High doses of ionizing radiation, such as X-rays or gamma rays, can cause radiation burns that lead to delayed irreversible changes in the skin. These burns can result in long-lasting effects on the skin's structure and function.