This particle is a neutron:
neutron-----------proton + electron + neutrino
No, baking soda decomposes when heated to produce carbon dioxide which will extinguish the flame.
Electrons can produce light when they are "excited," and jump outside their ground state, then hop back, releasing a photon of light.
The world's largest particle accelerator is used to accelerate particles to extremely high energies at which they can undergo collisions which, it is hoped, will produce previously unseen kinds of results which will shed light on currently mysterious or unanswered questions about particle physics, thereby increasing human knowledge and our understanding of the way the universe works on a very deep, fundamental level.
The particle accelerator does produce hundreds of particle in each experiment but only 2 or 3 particles are captured depending on the predicted results. After the 2 subatomic particles are collapsed a huge field of various subatomic particles are formed. If we assume that the experiment is being conducted for the study of the Higg's Boson particle then the setup is created in a way so that only the required particle is captured and studied. In fewer words only those particles are captured which is needed to be studied. One thing to be clear on here: by "captured", we really mean "observed"; the data is what's captured, not the actual particle (many of which have extremely short lifetimes and can't actually be "captured" in the sense of "oh yeah, we put it in a bottle on the shelf" anyway). Also, it may be a good idea to get all the data your particular experimental setup is capable of obtaining, because negative results are still results. Say particle X (which is what you're looking for) is expected to generate tracks in detectors A and C, but not in B. Obviously you want to look at the results from A and C, but you should also look at B, because if you see results there too, that tells you that either you're mistaken about the properties of particle X or the particle you observed wasn't actually X.
I have heard the radiation from a CT scan is the same as 700 chest X-Rays. No level of radiation was given. If this is true do you think the people that make the CT scanners want you to know this?
No, photoluminescence does not produce ionizing radiation. It mainly involves the emission of photons (light) when a material absorbs photons of higher energy and re-emits them at a lower energy level. This process does not involve the emission of ionizing radiation.
Spectra are produced by interaction of electromagnetic radiation with matter, typically atoms or molecules. The particle responsible for spectra is the photon, which carries energy and interacts with electrons in the atoms or molecules to produce the spectral lines observed in both emission and absorption spectra.
Alpha radiation involves the ejection of a helium nucleus, which has a mass number of 4. This results in the largest change in mass number compared to beta and gamma radiation, which involve the emission of electrons or photons with much smaller masses.
When (^{222}Rn) emits a beta particle, it transforms into (^{222}Fr), which is Francium.
The first working laser was invented in 1960. Laser stands for "light amplification by stimulated emission of radiation," which describes the process by which lasers produce coherent and focused light through the emission of photons.
The vibration of an electrically charged particle can produce electromagnetic waves, such as light. This happens when the charged particle accelerates or changes direction, generating oscillating electric and magnetic fields that propagate through space as electromagnetic radiation.
When matter is irradiated by X-rays, it can produce secondary radiation such as Compton scattering, photoelectric effect, or pair production. These processes involve interaction between the X-rays and the atoms in the material, leading to the emission of secondary radiation.
The three major types of radioactivity are: # Alpha Radiation Alpha radiation consists of a stream of positively charged particles, called alpha particles, which have an atomic mass of 4 and a charge of +2 (a helium nucleus). When an alpha particle is ejected from a nucleus, the mass number of the nucleus decreases by four units and the atomic number decreases by two units. For example: 23892U -> 42He + 23490Th The helium nucleus is the alpha particle. # Beta Radiation Beta radiation is a stream of electrons, called beta particles. When a beta particle is ejected, a neutron in the nucleus is converted to a proton, so the mass number of the nucleus is unchanged, but the atomic number increases by one unit. For example: 23490 -> 0-1e + 23491Pa The electron is the beta particle. # Gamma Radiation Gamma rays are high-energy photons with a very short wavelength (0.0005 to 0.1 nm). The emission of gamma radiation results from an energy change within the atomic nucleus. Gamma emission changes neither the atomic number nor the atomic mass. Alpha and beta emission are often accompanied by gamma emission, as an excited nucleus drops to a lower and more stable energy state. Alpha, beta, and gamma radiation also accompany induced radioactivity. Radioactive isotopes are prepared in the lab using bombardment reactions to convert a stable nucleus into one which is radioactive. Positron (particle with the same mass as an electron, but a charge of +1 instead of -1) emission isn't observed in natural radioactivity, but it is a common mode of decay in induced radioactivity. Bombardment reactions can be used to produce very heavy elements, including many which don't occur in nature.Submitted by kuasimodo
Sodium bicarbonate decomposes into sodium carbonate, carbon dioxide, and water.
It depends on how one sees the circumstances, If we say in ordinary situations yes light of a fluorescent lamp is a wave but if subjected for example to stimulated emission,then light acts as a particle.For more info, see the definition of particle wave duality of light.
All forms of radioactive decay have emissions. Some, however, do not emit alpha, positive or negative beta, or gamma particles, and do not emit protons or neutrons either. In these, which include electron capture and double electron capture, neutrinos are emitted, but these are still considered particles.
Radium 226 decays by alpha emission to Radon 222. A helium nucleus is emitted by alpha emission which makes the mass reduce by 4 and its atomic number by 2.