Ionizing radiation has enough energy to remove tightly bound electrons from atoms, creating ions. This type of radiation includes X-rays, gamma rays, and some forms of ultraviolet radiation. Non-ionizing radiation, on the other hand, does not have enough energy to remove electrons from atoms, and includes forms of radiation such as visible light, radio waves, and microwaves. The main difference between the two is the amount of energy they carry and their ability to ionize atoms. **

The intensity of non-ionizing radiation can be determined using a variety of methods. One common method is to use a radiation detector or meter specifically designed to measure non-ionizing radiation, such as a radiofrequency (RF) meter for measuring electromagnetic fields. These meters can measure the strength of the radiation in terms of power density or electric and magnetic field strength. Another method is to use dosimeters, which are devices that can be worn by individuals to measure their personal exposure to non-ionizing radiation over a period of time. Additionally, computer simulations and modeling can be used to estimate the intensity of non-ionizing radiation in a given environment. **

Ionizing radiation was discovered by Wilhelm Conrad Roentgen in 1895. While experimenting with cathode rays, he noticed that a fluorescent screen in his lab would glow even when it was not directly in the path of the rays. This led him to the discovery of X-rays, which are a form of ionizing radiation. Roentgen's discovery revolutionized the field of medicine and earned him the first Nobel Prize in Physics in 1901. **

Professions that involve working with ionizing radiation include radiologic technologists, nuclear medicine technologists, radiation therapists, and radiologists. These professionals use ionizing radiation in various medical imaging and treatment procedures. Other professions that may involve working with ionizing radiation include nuclear engineers, physicists, and researchers in the field of nuclear energy. **

Ionizing radiation occurs when an atom undergoes a process that causes it to lose or gain electrons, resulting in the formation of charged particles called ions. This can happen through natural processes such as radioactive decay of certain elements, or through human activities such as medical imaging and nuclear power generation. Ionizing radiation is harmful to living organisms because it can damage cells and DNA, leading to potential health risks such as cancer and genetic mutations. **

Non-uniform motion is when an object does not cover equal distances in equal intervals of time. In other words, the speed of the object is not constant and it may be accelerating or decelerating. This type of motion can be described by a non-linear graph of distance vs. time, where the slope of the graph is constantly changing. Non-uniform motion is commonly observed in everyday situations, such as a car accelerating from a stop or a ball rolling down a hill. **

Yes, beta-plus radiation belongs to ionizing radiation. Beta-plus radiation consists of positrons, which are positively charged particles that have the ability to ionize atoms by knocking off electrons from their orbits. This process can lead to the formation of charged particles and free radicals, which can cause damage to biological tissues and DNA. Therefore, beta-plus radiation is considered a form of ionizing radiation due to its ability to ionize atoms and cause biological damage. **

Different types of ionizing radiation occur in various situations. For example, alpha radiation occurs during the decay of heavy elements such as uranium or radium. Beta radiation occurs during the decay of certain unstable isotopes, while gamma radiation is emitted during nuclear reactions and radioactive decay. X-rays are produced during high-energy processes such as in medical imaging or industrial applications. Each type of ionizing radiation has its own specific source and characteristics. **