The first nuclear reaction to prepare bohrium was:
20983Bi + 5424Cr → 262107Bh + n
For other possible reactions see the link below.
The symbol for bohrium is Bh. It is a synthetic element with atomic number 107 and is a member of the actinide series. Bohrium is a highly radioactive element that has only been produced in minute amounts in laboratories.
Bohrium is a synthetic chemical element with the symbol Bh and atomic number 107. It is a radioactive element that does not occur naturally and must be produced in a laboratory. Bohrium is a highly reactive metal that has only been produced in very small quantities for research purposes.
The specific gravity of bohrium is not typically measured because it is a synthetic element and only small amounts have been produced in laboratories for research purposes.
The cost of bohrium is not applicable in dollars as it is a highly radioactive synthetic element that is not commercially available for purchase. It is primarily produced in laboratory settings for research purposes and does not have a market price.
Bohrium is a radioactive element that is not found in nature and has only been produced in laboratories. There is limited information on its chemical properties, but as a transactinide element, it is unlikely to be naturally occurring or used in practical applications, including explosives.
The symbol for bohrium is Bh. It is a synthetic element with atomic number 107 and is a member of the actinide series. Bohrium is a highly radioactive element that has only been produced in minute amounts in laboratories.
Bohrium is a synthetic chemical element with the symbol Bh and atomic number 107. It is a radioactive element that does not occur naturally and must be produced in a laboratory. Bohrium is a highly reactive metal that has only been produced in very small quantities for research purposes.
Bohrium is a synthetic element that is classified as a transition metal. It is radioactive and has only been produced in small quantities for scientific research purposes.
Transuranic elements are those which are heavier than uranium, that is, after uranium (92) in the periodic table (as the name suggests). Uranium is the heaviest naturally occurring element on Earth, hence, elements after Uranium must be synthesised. This synthesis can occur in a nuclear reactor, for example, the bombardment of uranium-238 with neutrons produces the unstable isotope uranium-239 which decays to form the transuranic element neptunium-239, i.e. 238U92 + 1n0 → 239U92 → 239Np93 + 0e-1 Other transuranic elements can be produced by bombarding the nuclei of heavier elements with those of other elements. For example, the production of the transuranic element Bohrium: 20983Bi + 5424Cr → 262107Bh + n Since these transuranic elements are not found naturally the creation of a new transuranic element is a discovery, since it has never before been observed. However, it must be noted that many of these elements have very short half-lives (a couple of seconds) and that when synthesised only a small amount is likely to be produced (in some cases only a few atoms!).
The specific gravity of bohrium is not typically measured because it is a synthetic element and only small amounts have been produced in laboratories for research purposes.
It is supposed that bohrium is a solid metal.
Yes, fermium is a transuranic chemical element.
The cost of bohrium is not applicable in dollars as it is a highly radioactive synthetic element that is not commercially available for purchase. It is primarily produced in laboratory settings for research purposes and does not have a market price.
Bohrium is an artificial element.
Bohrium is an artificial chemical element.
The electron configuration of bohrium is [Rn]5f14.6d5.7s2.
Bohrium is a radioactive element that is not found in nature and has only been produced in laboratories. There is limited information on its chemical properties, but as a transactinide element, it is unlikely to be naturally occurring or used in practical applications, including explosives.