The notations used to represent an alpha particle are either "a," "α^2+," or "He^2+." Alpha particles only have two protons and two neurons, making them essentially the same as helium nuclei, hence "He^2+."
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Actually beta naphthol is not used in diazotization.It is used to confirm the formation of diazonium salt.Because the diazonium salt so formed undergo the COUPLING REACTION with beta naphthol to form a ORANGE DYE or DYESTUFF. eg. aniline with HCl and Sodium Nitrite followed by the treatment with beta naphthol in NaOH at 0-5 degree celcius forms Phenyl azo-beta naphthol(orange).
Alpha, Beta, and Gamma rays are all types of radiating created and used in the splitting of an atom.
pure notation is one in which only one type of symbol is used in classifying an item.
"Beta decay" is used for two different processes. However, the kind undergone by 234Th produces 234Pa.
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Particle accelerators are used to initiate collisions which have enough energy to overcome nuclear forces. They can be used to understand the workings of a star or to build entirely new [short lived] elements. The answer is D. All of the above.
Why interval, notation cannot be used to represent instead of atomic masses
to represent the particle nature of light
It represents a repeating decimal
Yes, it can.
Scientific notation, which is also known as the standard notation.
Normally, alpha is used to represent an angle. Just like "x" is used to represent an unknown number or angle, alpha, theta, beta are used to represent unkown angles.
Because less digits are needed in scientific notation to represent very large numbers.
The letters of the Greek alphabet, Alpha, Beta, Gamma etc., etc. both upper and lower cases, were used to represent numbers
The are used to represent numbers using powers of ten.
Beta particle( electron having nuclear origin) is emitted when a neutron decays into a proton by giving out electron. The electron produced escapes as a beta particle leaving proton in the nucleus of atom. 0n1 --> 1p1 + -1e0 ( 1e0 is the emitted beta particle) here subscripts denote charge and superscript denote mass in atomic mass unit(amu). Such neutron decay are shown by some radioactive elements. Usually when the n/p (neutron/proton) ratio is higher than required nuclei emit beta particle. Many examples of this type of decay can be given like: 6c14 --> 7N14 + -1e0 (this carbon isotope is used in carbon dating). 90Th232 + 0n1 --> 90Th232 - -1e0 --> 91Pa233 - -1e0 --> 92U233 (this reaction is used in breeder reactors for production of fissile uranium isotope)
An electron is the basic carrier of the negative electrostatic charge. It has an anti-matter equivalent (an anti-particle) called the positron. Either an electron or positron can be a beta particle. The reason is that beta decay releases a beta particle, and the type of particle will depend on the type of decay. In beta minus decay, the change in an atomic nucleus will release an electron, and in beta plus decay, the nuclear change will release a positron. Use the link below to learn more about beta decay.