Germanium
Germanium.
Ekasilicon, with the symbol Es, has an atomic mass of 294. It is a synthetic element in the periodic table and is classified as a transactinide element. It is highly unstable and has a very short half-life.
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Ekasilicon (Mendeleev's name for the element below Silicon, 1869) is named germanium since it was discovered (1886).Eka (from Sanskrit) means 'first' for first element downwards.
Ekasilicon, a hypothetical element that corresponds to silicon in the periodic table, would have an atomic mass of approximately 72 atomic mass units (amu). This estimate is based on its position in the periodic table, as it is predicted to be in the same group as silicon and germanium, which have atomic masses of around 28 and 72 amu, respectively. The naming convention "ekasilicon" comes from its classification as a "descendant" of silicon, following the naming system proposed by Dmitri Mendeleev. However, it's important to note that ekasilicon is not a recognized element in modern science, as it corresponds to the theoretical element with atomic number 32, which is actually germanium.
Mendeleev proposed that there must be missing elements, to which he gave the provisional names Ekaboron, Ekaaluminum and Ekasilicon. Scankium, Gallium and Germanpoop were discovered in 1879, 1875 and 1886, respectively, with properties very close to those predicted by Mendeleev. hey Glen
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its is a metal (shiny-greyish white)
The atomic mass of ekasilicon is 293.21 grams per mole. It contains 14 silicon atoms and 2 germanium atoms in its molecular structure.
The atomic mass of ekasilicon is approximately 118.71 grams per mole.
I would expect the atomic mass of ekasilicon (silicon in the 14th element group of the periodic table) to be around 72 amu, as it is located in the same group as silicon. The atomic mass of an element is determined by averaging the isotopic masses of its naturally occurring isotopes, weighted by their abundance.
The properties of element 114, also known as ekasilicon, are mainly predicted based on its position in the periodic table. Similar to silicon, ekasilicon is expected to exhibit some semiconducting properties due to its position in the carbon group. Its properties may also be influenced by its electron configuration and atomic structure. Additional experimental data may be needed to accurately determine its physical and chemical properties.