This depends on a specified isotope of technetium !
Technetium is not found in nature in appreciable amounts because it has no stable isotopes. It undergoes radioactive decay relatively quickly, making it rare and short-lived in the Earth's crust. Any technetium present on Earth is likely formed as a byproduct of nuclear reactions or artificially created in laboratories.
T99 is Technetion 99 has a Decay rate of 6h
Radium 226 has decays by Alpha emmision to produce Radon-222. Sometimes a gamma ray is emmited at the same time and lower energy alpha is emitted the product is same in both cases. Gamma emmision by itself causes no change to the atom the nucleus just ends up with a lower energy.
In the nucleus of molybdenum, a neutron undergoes beta decay, transforming into a proton and emitting an electron and an antineutrino. This process converts the element into technetium by increasing the atomic number by one and maintaining the same mass number.
Technetium-99 is produced through the decay of Molybdenum-99. Molybdenum-99 undergoes beta decay to form Technetium-99, with the emission of a beta particle (electron) and an antineutrino. This decay process is commonly utilized in nuclear medicine for imaging and diagnostic purposes.
Technetium exist in infinitesimal traces in some uranium ores. Being radioactive and unstable technetium was lost from the Earth by decay.
Technetium is not found in nature in appreciable amounts because it has no stable isotopes. It undergoes radioactive decay relatively quickly, making it rare and short-lived in the Earth's crust. Any technetium present on Earth is likely formed as a byproduct of nuclear reactions or artificially created in laboratories.
T99 is Technetion 99 has a Decay rate of 6h
Radium 226 has decays by Alpha emmision to produce Radon-222. Sometimes a gamma ray is emmited at the same time and lower energy alpha is emitted the product is same in both cases. Gamma emmision by itself causes no change to the atom the nucleus just ends up with a lower energy.
All isotopes of technetium are radioactive. Technetium is found only in trace quantities in nature, and then usually only in certain ores where it is a product of radioactive decay. All of the technetium used is synthetic.
Technetium is not really dangerous. Since doctors will often use Technetium 99 as a radioactive tracer. It may be radioactive but its decay is slow and will produce a minute amount of gamma rays.
Tc-99 has a beta disintegration to Ru-99.
In the nucleus of molybdenum, a neutron undergoes beta decay, transforming into a proton and emitting an electron and an antineutrino. This process converts the element into technetium by increasing the atomic number by one and maintaining the same mass number.
Technetium-99 is produced through the decay of Molybdenum-99. Molybdenum-99 undergoes beta decay to form Technetium-99, with the emission of a beta particle (electron) and an antineutrino. This decay process is commonly utilized in nuclear medicine for imaging and diagnostic purposes.
The "m" in 99mTc indicates that the technetium is in a metastable state. This means that the technetium is in an excited nuclear state that will decay to a more stable state by emitting gamma radiation. Metastable technetium is commonly used in nuclear medicine imaging.
The lightest "element" that can undergo radioactive decay is the isotope hydrogen-3, which undergoes beta decay. The lightest element with no radioactively stable isotopes is technetium, and its isotopes have different modes of decay.
A gamma wave...