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Why carbon is only form covalent bond?
Because carbon posess tetravalency
What element forms the highest number of compounds in the periodic table?
Carbon can form large number of compounds. This is because of catenation and tetravalency.
What property of carbon explains its ability to form differentialrge and complex structures?
Catenation and tetravalency are the properties. Because of this, carbon forms long complex structure.
What are 4 properties of carbon?
catenation , tetravalency , high bond energy making the compounds stable, isomerism
What is the substance of all living things?
Carbon is the substance which is constituent of every living and non living things. Carbon is found in many forms in nature due its special properties :- catenation and tetravalency.
Why it is not possible to have a straight chain trialdehyde?
A straight-chain trialdehyde is not possible due to the structural requirements of aldehydes, which contain a carbonyl group (C=O) bonded to a terminal carbon atom. In a trialdehyde, three aldehyde groups would require three terminal carbons, but this would lead to a carbon chain that cannot satisfy the tetravalency of carbon. Specifically, if one tries to extend the chain to accommodate three aldehyde groups at both ends, it would result in structural instability or violate the tetravalency of carbon. Thus, trialdehydes must have branched or cyclic structures instead.
What is the smallest atom having tetra-valency?
Carbon is the smallest atom having tetravalency. Note that carbon is the atom in the uppermost* period of a wide form periodic table that includes column 14, the column in which the most common valency is tetravalency, and in general atomic size is greater the lower in a periodic table that the atom appears.___________________________*This is the second period of the table as a whole; the first period includes only columns 1 and 18.
What type of bond is C6H12?
C6H12, known as a hydrocarbon, specifically an alkane, contains single covalent bonds between its carbon and hydrogen atoms. The structure can be represented as a straight-chain or branched form, with each carbon atom typically forming four bonds to satisfy the tetravalency of carbon. In this molecule, all the bonds are sigma (σ) bonds, as they involve head-on overlapping of atomic orbitals.
At the center of the diagram is a carbon molecule what do the four lines that surround the c illustrate about carbon?
The four lines surrounding the carbon molecule in the diagram represent the four covalent bonds that carbon can form with other atoms. This tetravalency allows carbon to bond with a variety of elements, such as hydrogen, oxygen, and nitrogen, enabling it to create a diverse range of organic compounds. The ability to form four bonds is fundamental to the complexity and versatility of carbon-based life.
What is the molecular formula drawing for C6H16?
The molecular formula C6H16 represents hexane, which consists of six carbon atoms and sixteen hydrogen atoms. In a structural drawing, hexane can be depicted as a straight chain of six carbon atoms (C) connected by single bonds, with hydrogen atoms (H) bonded to each carbon to satisfy carbon's tetravalency. The condensed structural formula can be written as CH3(CH2)4CH3, indicating the chain structure.
How many single bonds does an atom of carbon normally make in a covalent molecule if there are no double or triple bonds?
An atom of carbon typically makes four single bonds in a covalent molecule when there are no double or triple bonds. This tetravalency allows carbon to form stable molecules by sharing its four valence electrons with other atoms. Each bond involves the sharing of one electron from carbon and one from the other atom, resulting in a strong covalent bond.
What is the common characteristic for each of the carbon identified by?
The common characteristic of each carbon atom is that they all have four valence electrons, allowing them to form stable covalent bonds with up to four other atoms. This tetravalency enables carbon to participate in a vast array of chemical compounds and structures, including chains, rings, and complex functional groups. Additionally, carbon's ability to form single, double, and triple bonds contributes to the diversity of organic chemistry.
