Faster access than browser!Similarities between Beta decay and Radioactive decay
Beta decay and Radioactive decay have 42 things in common (in Unionpedia): Age of the universe, Atomic nucleus, Atomic number, Beta particle, Carbon-14, Conservation of energy, Double beta decay, Electron, Electron capture, Electron neutrino, Enrico Fermi, Ernest Rutherford, Frederick Soddy, Gamma ray, Geiger counter, Half-life, Henri Becquerel, Induced radioactivity, Isotopes of nitrogen, Marie Curie, Mass, Mass number, Neutrino, Neutron, Nuclear physics, Nuclear transmutation, Nucleon, Paul Ulrich Villard, Pierre Curie, Polonium, ..., Positron, Positron emission, Proton, Radioactive decay, Radioactive displacement law of Fajans and Soddy, Radionuclide, Radium, Spin (physics), Thorium, Uranium, Weak interaction, Wu experiment. Expand index (12 more) »
Age of the universe
In physical cosmology, the age of the universe is the time elapsed since the Big Bang.
Age of the universe and Beta decay · Age of the universe and Radioactive decay ·
Atomic nucleus
The atomic nucleus is the small, dense region consisting of protons and neutrons at the center of an atom, discovered in 1911 by Ernest Rutherford based on the 1909 Geiger–Marsden gold foil experiment.
Atomic nucleus and Beta decay · Atomic nucleus and Radioactive decay ·
Atomic number
The atomic number or proton number (symbol Z) of a chemical element is the number of protons found in the nucleus of an atom.
Atomic number and Beta decay · Atomic number and Radioactive decay ·
Beta particle
A beta particle, also called beta ray or beta radiation, (symbol β) is a high-energy, high-speed electron or positron emitted by the radioactive decay of an atomic nucleus during the process of beta decay.
Beta decay and Beta particle · Beta particle and Radioactive decay ·
Carbon-14
Carbon-14, 14C, or radiocarbon, is a radioactive isotope of carbon with an atomic nucleus containing 6 protons and 8 neutrons.
Beta decay and Carbon-14 · Carbon-14 and Radioactive decay ·
Conservation of energy
In physics, the law of conservation of energy states that the total energy of an isolated system remains constant, it is said to be ''conserved'' over time.
Beta decay and Conservation of energy · Conservation of energy and Radioactive decay ·
Double beta decay
In nuclear physics, double beta decay is a type of radioactive decay in which two protons are simultaneously transformed into two neutrons, or vice versa, inside an atomic nucleus.
Beta decay and Double beta decay · Double beta decay and Radioactive decay ·
Electron
The electron is a subatomic particle, symbol or, whose electric charge is negative one elementary charge.
Beta decay and Electron · Electron and Radioactive decay ·
Electron capture
Electron capture (K-electron capture, also K-capture, or L-electron capture, L-capture) is a process in which the proton-rich nucleus of an electrically neutral atom absorbs an inner atomic electron, usually from the K or L electron shell.
Beta decay and Electron capture · Electron capture and Radioactive decay ·
Electron neutrino
The electron neutrino is a subatomic lepton elementary particle which has no net electric charge.
Beta decay and Electron neutrino · Electron neutrino and Radioactive decay ·
Enrico Fermi
Enrico Fermi (29 September 1901 – 28 November 1954) was an Italian-American physicist and the creator of the world's first nuclear reactor, the Chicago Pile-1.
Beta decay and Enrico Fermi · Enrico Fermi and Radioactive decay ·
Ernest Rutherford
Ernest Rutherford, 1st Baron Rutherford of Nelson, HFRSE LLD (30 August 1871 – 19 October 1937) was a New Zealand-born British physicist who came to be known as the father of nuclear physics.
Beta decay and Ernest Rutherford · Ernest Rutherford and Radioactive decay ·
Frederick Soddy
Frederick Soddy FRS (2 September 1877 – 22 September 1956) was an English radiochemist who explained, with Ernest Rutherford, that radioactivity is due to the transmutation of elements, now known to involve nuclear reactions.
Beta decay and Frederick Soddy · Frederick Soddy and Radioactive decay ·
Gamma ray
A gamma ray or gamma radiation (symbol γ or \gamma), is penetrating electromagnetic radiation arising from the radioactive decay of atomic nuclei.
Beta decay and Gamma ray · Gamma ray and Radioactive decay ·
Geiger counter
The Geiger counter is an instrument used for detecting and measuring ionizing radiation used widely in applications such as radiation dosimetry, radiological protection, experimental physics and the nuclear industry.
Beta decay and Geiger counter · Geiger counter and Radioactive decay ·
Half-life
Half-life (symbol t1⁄2) is the time required for a quantity to reduce to half its initial value.
Beta decay and Half-life · Half-life and Radioactive decay ·
Henri Becquerel
Antoine Henri Becquerel (15 December 1852 – 25 August 1908) was a French physicist, Nobel laureate, and the first person to discover evidence of radioactivity.
Beta decay and Henri Becquerel · Henri Becquerel and Radioactive decay ·
Induced radioactivity
Induced radioactivity occurs when a previously stable material has been made radioactive by exposure to specific radiation.
Beta decay and Induced radioactivity · Induced radioactivity and Radioactive decay ·
Isotopes of nitrogen
Natural nitrogen (7N) consists of two stable isotopes, nitrogen-14, which makes up the vast majority of naturally occurring nitrogen, and nitrogen-15, which is less common.
Beta decay and Isotopes of nitrogen · Isotopes of nitrogen and Radioactive decay ·
Marie Curie
Marie Skłodowska Curie (born Maria Salomea Skłodowska; 7 November 18674 July 1934) was a Polish and naturalized-French physicist and chemist who conducted pioneering research on radioactivity.
Beta decay and Marie Curie · Marie Curie and Radioactive decay ·
Mass
Mass is both a property of a physical body and a measure of its resistance to acceleration (a change in its state of motion) when a net force is applied.
Beta decay and Mass · Mass and Radioactive decay ·
Mass number
The mass number (symbol A, from the German word Atomgewichte (atomic weight), also called atomic mass number or nucleon number, is the total number of protons and neutrons (together known as nucleons) in an atomic nucleus. It determines the atomic mass of atoms. Because protons and neutrons both are baryons, the mass number A is identical with the baryon number B as of the nucleus as of the whole atom or ion. The mass number is different for each different isotope of a chemical element. This is not the same as the atomic number (Z) which denotes the number of protons in a nucleus, and thus uniquely identifies an element. Hence, the difference between the mass number and the atomic number gives the number of neutrons (N) in a given nucleus:. The mass number is written either after the element name or as a superscript to the left of an element's symbol. For example, the most common isotope of carbon is carbon-12, or, which has 6 protons and 6 neutrons. The full isotope symbol would also have the atomic number (Z) as a subscript to the left of the element symbol directly below the mass number:. This is technically redundant, as each element is defined by its atomic number, so it is often omitted.
Beta decay and Mass number · Mass number and Radioactive decay ·
Neutrino
A neutrino (denoted by the Greek letter ν) is a fermion (an elementary particle with half-integer spin) that interacts only via the weak subatomic force and gravity.
Beta decay and Neutrino · Neutrino and Radioactive decay ·
Neutron
| magnetic_moment.
Beta decay and Neutron · Neutron and Radioactive decay ·
Nuclear physics
Nuclear physics is the field of physics that studies atomic nuclei and their constituents and interactions.
Beta decay and Nuclear physics · Nuclear physics and Radioactive decay ·
Nuclear transmutation
Nuclear transmutation is the conversion of one chemical element or an isotope into another chemical element.
Beta decay and Nuclear transmutation · Nuclear transmutation and Radioactive decay ·
Nucleon
In chemistry and physics, a nucleon is either a proton or a neutron, considered in its role as a component of an atomic nucleus.
Beta decay and Nucleon · Nucleon and Radioactive decay ·
Paul Ulrich Villard
Paul Ulrich Villard (28 September 1860 – 13 January 1934) was a French chemist and physicist.
Beta decay and Paul Ulrich Villard · Paul Ulrich Villard and Radioactive decay ·
Pierre Curie
Pierre Curie (15 May 1859 – 19 April 1906) was a French physicist, a pioneer in crystallography, magnetism, piezoelectricity and radioactivity.
Beta decay and Pierre Curie · Pierre Curie and Radioactive decay ·
Polonium
Polonium is a chemical element with symbol Po and atomic number 84.
Beta decay and Polonium · Polonium and Radioactive decay ·
Positron
The positron or antielectron is the antiparticle or the antimatter counterpart of the electron.
Beta decay and Positron · Positron and Radioactive decay ·
Positron emission
Positron emission or beta plus decay (β+ decay) is a subtype of radioactive decay called beta decay, in which a proton inside a radionuclide nucleus is converted into a neutron while releasing a positron and an electron neutrino (νe).
Beta decay and Positron emission · Positron emission and Radioactive decay ·
Proton
| magnetic_moment.
Beta decay and Proton · Proton and Radioactive decay ·
Radioactive decay
Radioactive decay (also known as nuclear decay or radioactivity) is the process by which an unstable atomic nucleus loses energy (in terms of mass in its rest frame) by emitting radiation, such as an alpha particle, beta particle with neutrino or only a neutrino in the case of electron capture, gamma ray, or electron in the case of internal conversion.
Beta decay and Radioactive decay · Radioactive decay and Radioactive decay ·
Radioactive displacement law of Fajans and Soddy
The law of radioactive displacements, also known as Fajans and Soddy law, in radiochemistry and nuclear physics, is a rule governing the transmutation of elements during radioactive decay.
Beta decay and Radioactive displacement law of Fajans and Soddy · Radioactive decay and Radioactive displacement law of Fajans and Soddy ·
Radionuclide
A radionuclide (radioactive nuclide, radioisotope or radioactive isotope) is an atom that has excess nuclear energy, making it unstable.
Beta decay and Radionuclide · Radioactive decay and Radionuclide ·
Radium
Radium is a chemical element with symbol Ra and atomic number 88.
Beta decay and Radium · Radioactive decay and Radium ·
Spin (physics)
In quantum mechanics and particle physics, spin is an intrinsic form of angular momentum carried by elementary particles, composite particles (hadrons), and atomic nuclei.
Beta decay and Spin (physics) · Radioactive decay and Spin (physics) ·
Thorium
Thorium is a weakly radioactive metallic chemical element with symbol Th and atomic number 90.
Beta decay and Thorium · Radioactive decay and Thorium ·
Uranium
Uranium is a chemical element with symbol U and atomic number 92.
Beta decay and Uranium · Radioactive decay and Uranium ·
Weak interaction
In particle physics, the weak interaction (the weak force or weak nuclear force) is the mechanism of interaction between sub-atomic particles that causes radioactive decay and thus plays an essential role in nuclear fission.
Beta decay and Weak interaction · Radioactive decay and Weak interaction ·
Wu experiment
The Wu experiment was a nuclear physics experiment conducted in 1956 by the Chinese American physicist Chien-Shiung Wu in collaboration with the Low Temperature Group of the US National Bureau of Standards.
Beta decay and Wu experiment · Radioactive decay and Wu experiment ·
The list above answers the following questions
- What Beta decay and Radioactive decay have in common
- What are the similarities between Beta decay and Radioactive decay
Beta decay and Radioactive decay Comparison
Beta decay has 151 relations, while Radioactive decay has 248. As they have in common 42, the Jaccard index is 10.53% = 42 / (151 + 248).
References
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