X-ray Phone Scanner Prank
What's X-ray Phone Scanner Prank APK?
X-ray Phone Scanner Prank is a app for Android, It's developed by Lock Screens Empire author.
First released on google play in 8 years ago and latest version released in 8 years ago.
This app has 0 download times on Google play and rated as 1.54 stars with 61 rated times.
This product is an app in Casual category. More infomartion of X-ray Phone Scanner Prank on google play
Make your friends believe that you actually poses a medical scanner - which can perform xray scans. This app is a joke which is for your entertainment.
A phone scanner can only simulate the usage of scanning rays. There is no universal consensus for a definition distinguishing between X and gamma rays. One common practice is to distinguish between the two types of radiation based on their source: are emitted by electrons, while gamma rays are emitted by the atomic nucleus. This definition has several problems; other processes also can generate these high energy photons, or sometimes the method of generation is not known. One common alternative is to distinguish X- and gamma radiation on the basis of wavelength (or equivalently, frequency or photon energy), with radiation shorter than some arbitrary wavelength, such as 10−11 m (0.1 Å), defined as gamma radiation. This criterion assigns a photon to an unambiguous category, but is only possible if wavelength is known. (Some measurement techniques do not distinguish between detected wavelengths.) However, these two definitions often coincide since the electromagnetic radiation emitted by ray tubes generally has a longer wavelength and lower photon energy than the radiation emitted by radioactive nuclei. Occasionally, one term or the other is used in specific contexts due to historical precedent, based on measurement (detection) technique, or based on their intended use rather than their wavelength or source. Thus, gamma-rays generated for medical and industrial uses, for example radiotherapy, in the ranges of 6 - 20 MeV, can in this context also be referred to as xrays.
With this app you can make your friends believe that you actually have photo scanning capabilities in your mobile device. Photons carry enough energy to ionize atoms and disrupt molecular bonds. This makes it a type of ionizing radiation, and therefore harmful to living tissue. A very high radiation dose over a short amount of time causes radiation sickness, while lower doses can give an increased risk of radiation-induced cancer. In medical imaging this increased cancer risk is generally greatly outweighed by the benefits of the examination. The ionizing capability can be utilized in cancer treatment to kill malignant cells using radiation therapy. It is also used for material characterization using spectroscopy. Hard rays can traverse relatively thick objects without being much absorbed or scattered. For this reason are widely used to image the inside of visually opaque objects. The most often seen applications are in medical radiographyand airport security scanners, but similar techniques are also important in industry (e.g. industrial radiography and industrial CT scanning) and research (e.g. small animal CT). The penetration depth varies with several orders of magnitudeover the spectrum. This allows the photon energy to be adjusted for the application so as to give sufficient transmission through the object and at the same time good contrast in the image. have much shorter wavelength than visible light, which makes it possible to probe structures much smaller than what can be seen using a normal microscope. This can be used in X-ray microscopy to acquire high resolution images, but also in crystallography to determine the positions of atoms in crystals.
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A phone scanner can only simulate the usage of scanning rays. There is no universal consensus for a definition distinguishing between X and gamma rays. One common practice is to distinguish between the two types of radiation based on their source: are emitted by electrons, while gamma rays are emitted by the atomic nucleus. This definition has several problems; other processes also can generate these high energy photons, or sometimes the method of generation is not known. One common alternative is to distinguish X- and gamma radiation on the basis of wavelength (or equivalently, frequency or photon energy), with radiation shorter than some arbitrary wavelength, such as 10−11 m (0.1 Å), defined as gamma radiation. This criterion assigns a photon to an unambiguous category, but is only possible if wavelength is known. (Some measurement techniques do not distinguish between detected wavelengths.) However, these two definitions often coincide since the electromagnetic radiation emitted by ray tubes generally has a longer wavelength and lower photon energy than the radiation emitted by radioactive nuclei. Occasionally, one term or the other is used in specific contexts due to historical precedent, based on measurement (detection) technique, or based on their intended use rather than their wavelength or source. Thus, gamma-rays generated for medical and industrial uses, for example radiotherapy, in the ranges of 6 - 20 MeV, can in this context also be referred to as xrays.
With this app you can make your friends believe that you actually have photo scanning capabilities in your mobile device. Photons carry enough energy to ionize atoms and disrupt molecular bonds. This makes it a type of ionizing radiation, and therefore harmful to living tissue. A very high radiation dose over a short amount of time causes radiation sickness, while lower doses can give an increased risk of radiation-induced cancer. In medical imaging this increased cancer risk is generally greatly outweighed by the benefits of the examination. The ionizing capability can be utilized in cancer treatment to kill malignant cells using radiation therapy. It is also used for material characterization using spectroscopy. Hard rays can traverse relatively thick objects without being much absorbed or scattered. For this reason are widely used to image the inside of visually opaque objects. The most often seen applications are in medical radiographyand airport security scanners, but similar techniques are also important in industry (e.g. industrial radiography and industrial CT scanning) and research (e.g. small animal CT). The penetration depth varies with several orders of magnitudeover the spectrum. This allows the photon energy to be adjusted for the application so as to give sufficient transmission through the object and at the same time good contrast in the image. have much shorter wavelength than visible light, which makes it possible to probe structures much smaller than what can be seen using a normal microscope. This can be used in X-ray microscopy to acquire high resolution images, but also in crystallography to determine the positions of atoms in crystals.
Loved our app? Please leave your comments and ratings! Thank you.
