No, silicon can form only four covalent bonds.
Among the elements listed, silicon is most likely to form covalent bonds. (Silicon is in the same periodic table column as carbon, which is the most likely of all atoms to form covalent bonds.)
Silicon is most likely to form covalent bonds because it has four valence electrons and will share electrons rather than give them away.
Silicon is an element in group 14. It has four valence electrons. Silicon tends to share electrons rather than releasing or obtaining four electrons (which needs tremendous energy). Hence it forms covalent bonds.
A covalent bond will likely form between silicon (Si) and sulfur (S) atoms. In a covalent bond, atoms share electrons to achieve stability. Silicon and sulfur are both nonmetals with similar electronegativities, making them more likely to form covalent bonds.
Silicon and nitrogen typically do not form an ionic compound as both elements are nonmetals and tend to share electrons to form covalent bonds. In this case, they are more likely to form covalent compounds rather than an ionic compound.
silcon has the lowest electronegtaivity so would most likely form covalent bonds. Sulfur is next (although with group1 and 2 metals it forms ionic compounds) oxygen and chlorine have high electronegativites so form many ionic compounds - however they also form covalent compunds as well.
A silicon atom does not typically form covalent bonds with chlorine atoms. Silicon is more likely to form bonds with oxygen atoms to create silicon dioxide (SiO2) or silicates. These compounds are stable due to the strong bonds formed between silicon and oxygen atoms.
Silicon dioxide atoms are held together by covalent bonds. Covalent bonds involve the sharing of electrons between the silicon and oxygen atoms, creating a strong bond between the atoms in the silicon dioxide molecule.
Silicon makes up about 25.7 percent of the earth's crust and can form 4 covalent bonds (just like its more reactive chemical analog carbon)
A Covalent bond, because it takes too much energy to gain/lose more than two electrons, thus leaving the option of sharing electrons forming a covalent bond.
Carbon is in Group V. Thus, it needs 4 more electrons so as to achieve the octet structure in its valence shell. As such, carbon has make at most 4 single covalent bonds. The least number of covalent bonds carbon can make is 2 double bonds. We do not see an example of carbon forming 1 covalent bond involving the sharing of all 4 of its valence electrons.
Carbon diamond has stronger covalent bonds than silicon because carbon-carbon bonds are shorter and stronger than silicon-silicon bonds due to the smaller size of carbon atoms compared to silicon atoms. This results in a more tightly bonded crystal lattice structure in diamond compared to silicon.