Most chemical disasters involve chemicals which are highly reactive in the environment. As such, they are almost immediately reacted to form less harmful chemicals than their original forms. Upon contact with water, some chemicals may also dissolve into concentrations which are not deemed as harmful to the humans or environment.
Also, chemicals tend to be more dense than air. As such, upon exposure, they sink to the bottom rather than remain in the atmosphere. This reduces the radius in which the chemical can spread as containment measures come into place.
In contrast, radiation from nuclear plants cannot be easily dispersed by the environment as they have a very long half life. As such, they are able to spread over large distances.
Furthermore, while containment measures for chemical accidents are usually straight-forward (through neutralisation, chemical reaction, precipitation etc), the only way to contain radiation is to physically contain them in lead barrels; an impossible task once a nuclear plant has leaked. That is why nuclear plants have a containment vessel made up of lead which will melt upon an accident so as to contain the nuclear waste.
Radiation disasters are made for spreading, so it more dangerous than chemical disasters
It's because radiation is 'made' to spread.
Polymerization is the chemical process that links monomers together to form larger macromolecules called polymers. This process can be initiated by various methods, including heat, radiation, or the use of catalysts.
The sun's radiation is essential for driving Earth's climate by providing heat energy that warms the planet. Variations in solar radiation can impact climate patterns, such as fluctuations in solar output affecting temperature changes. However, human activities, such as the burning of fossil fuels, have a larger influence on Earth's climate compared to natural variations in solar radiation.
Yes, electromagnetic radiation in the ultraviolet region represents a larger energy transition than radiation in the infrared region. This is because ultraviolet radiation has higher frequency and shorter wavelength compared to infrared radiation, leading to higher energy photons.
Tornadoes could probably be considered the smallest of natural disasters, that is they affect the least amount of area but can still devastate communities. Tornadoes are also among the most difficult natural disasters of not the most difficult to measure. By comparison other types of storm are larger an longer lasting, which makes measurements easier while major earthquakes are generally limited to specific geographic regions, allowing instruments to be put in place ahead of time.
Generally the larger the meteorite the larger the crater.
The importance of a chemical bond is to create molecules. So matter is larger.
The size of the particles of solute do not affect the solubility of a substance, which is determined by its chemical composition, but it does affect how quickly it dissolves. The smaller the particles of the solute, the faster it will dissolve.
Gamma radiation is a type of electromagnetic radiation, whereas alpha and beta radiation are composed of particles. Gamma rays have the shortest wavelength and highest energy, whereas alpha and beta particles are larger and less penetrating. Gamma radiation does not carry an electric charge, while alpha and beta particles do.
The factors include the object's temperature compared to its surroundings, the object's surface area, and the object's emissivity (ability to emit radiation). Objects with higher temperatures, larger surface areas, and higher emissivities will radiate heat more quickly.
Yes, they are longer. Longer wavelengths are lower energy.