Yes.
Ultraviolet radiation does exhibit diffraction patterns when passing through an obstacle or slit, but they may not be as easily observable as visible light due to the shorter wavelength of ultraviolet radiation. The diffraction patterns of ultraviolet radiation tend to be more widely spaced and harder to detect without specialized equipment.
Infrared radiation can pass through glass without a problem. Ultraviolet radiation, however, is partially absorbed by most types of glass and therefore cannot pass through as easily.
The ultraviolet radiation is absorbed by the ozone layer. The ozone molecules do not allow only the ultraviolet radiations to pass through.
Electromagnetic waves are called electromagnetic radiation because they consist of oscillating electric and magnetic fields that propagate through space, carrying energy. The term "radiation" refers to the emission and transmission of energy in the form of waves, which can travel through a vacuum or a medium. This encompasses a wide spectrum, including radio waves, microwaves, infrared, visible light, ultraviolet, X-rays, and gamma rays, all of which exhibit wave-like behavior and can transfer energy through electromagnetic interactions.
Radiation
Ultraviolet radiation can pass through some materials like glass and air, but it is absorbed by materials such as sunscreen, clothing, and certain plastics. Substances with high UV absorption properties are used to protect materials and living organisms from the harmful effects of UV radiation.
Ultraviolet (UV) radiation can pass through skin, but it is absorbed by bone and does not pass through it. UV radiation is responsible for tanning and sunburn when it penetrates the skin.
The four types of radiation from the sun are visible light, ultraviolet (UV) radiation, infrared radiation, and radio waves. These types of radiation are emitted by the sun and travel through space to reach Earth. Each type of radiation has different properties and impacts on the Earth's environment.
http://www.answers.com/library/Sci%252DTech%20Encyclopedia-cid-10387312 Ultraviolet radiationhttp://www.answers.com/ultraviolet+radiation?cat=technology#stency_0http://www.answers.com/ultraviolet+radiation?cat=technology#stency_1(electromagnetic radiation) Electromagnetic radiation in the http://www.answers.com/topic/wavelength range 4-400 nanometers. The ultraviolet region begins at the short wavelength (violet) limit of visibility and extends to the wavelength of long x-rays. It is loosely divided into the near (400-300 nm), far (300-200 nm), and extreme (below 200 nm) http://www.answers.com/topic/ultraviolet regions (see illustration). In the extreme ultraviolet, strong absorption of the radiation by air requires the use of evacuated apparatus; hence this region is called the vacuum ultraviolet. Important phenomena associated with ultraviolet radiation include biological effects and applications, the generation of http://www.answers.com/topic/fluorescence, and chemical analysis through characteristic absorption or fluorescence. See alsohttp://www.answers.com/topic/ultraviolet-radiation-electromagnetism. p.s. why go through all the trouble to go to answers or wikianswers.com and look for this question and since it wasnt asked or answered you posted it and waited until it was answered when you couldve just went to answers.com and typed ultraviolet radiation, where do you think i got it from.
Radiation carries electromagnetic energy, such as visible light, infrared radiation, ultraviolet radiation, and radio waves. It can also carry particles, such as alpha and beta particles, along with energy.
Heat from the sun reaches you through radiation. The sun emits energy in the form of electromagnetic radiation, which includes visible light, infrared radiation, and ultraviolet radiation. This energy travels through the vacuum of space and reaches Earth, where it warms the planet and everything on it, including you.
Ozone is typically produced through industrial processes that involve passing oxygen through an electrical field or through ultraviolet light. It can also be found naturally in the Earth's atmosphere, created through chemical reactions between oxygen and ultraviolet radiation from the sun.