I'm pretty sure this is impossible.
A tertiary carbon is bonded to three other carbons. Counting each of these 3 as one-half of a carbon-carbon bond (the other half coming from the other carbon), that means that if there are 9 carbons, there must be 27 half bonds in the molecule, which works out to thirteen carbon-carbon bonds plus half a bond left over.
Since you can't have half a bond in a real compound, it's not possible to arrange nine carbons so that each one is bonded to three others.
You can do it with 8, in which case you get cubane.
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Uh you shouldn't label this as impossible. I reckon its COMPLETELY POSSIBLE!
For example: look at this:
H H H H H H H H H
| | | | | | | | |
H-C-C-C-C-C-C-C-C-C-H
| | | | | | | | |
H H H H H H H H H
This is Nonane (C9H20).
I'm not too sure if this is right, but so far it looks pretty good-and makes sense. So that puts a whole in your answer up there =P
*OMGG! see those vertical hydrogen-carbon bonds (or lines in between the Hydrogens and Carbons) ther actually supposed to connect the 9 carbons to the the 2 hydrogen atoms above and under them. Sorry, i had it perfect before, but when i save it screws up. Hope this helps...
**Ink and Paper**
---Yo i think my answer is wrong, but i ain't gonna delete it coz it took me time---
C6H14 is an alkane. Alkanes have the general formula CnH2n+2, where n represents the number of carbon atoms and only single bonds are present between carbon atoms. CH2O does not fit this general formula for alkanes as it contains oxygen and is not a hydrocarbon. C3H4 is also not an alkane as it does not have the general formula CnH2n+2.
All molecules of ribonuclease A (RNase A) have the same tertiary structure because they are highly structured proteins with a specific fold determined by their amino acid sequence. This common structure includes characteristic alpha helices and beta sheets that are stabilized by hydrogen bonding and disulfide bonds, ensuring that the protein adopts the same shape in all instances.
Primary structure: the amino acid residues attached to each other by peptide bonds. These are formed by hydrolysis. When an amino acid is in at pH of 7, the carboxyl group will have a negative charge (COO-) and the amine group will have a positive charge (NH3+). This is called the zwitterion form. The amino acids will undergo hydrolysis where the amine group will give up two of its hydrogen atoms and the carboxyl group will give up one of the oxygen. These will form water, while the carbon from the carboxyl group and the nitrogen from the amine group will form a single bond. The alpha carbons (#1 chiral carbons) from each amino acid, the carboxyl carbon and oxygen, the hydrogen and nitrogen from the amine group will all be planar at this point. The peptide bond is the C=O and the N-H. Secondary structure: The most commonly found are the alpha helices and beta sheets. These are held together by hydrogen bonding. A great example is DNA. The purines and pyridines form hydrogen bonds with each other and create the helix from two single strands of primary structure. Tertiary structure: When the R groups of amino acids interact with one another, tertiary structure occurs. It is the folding of the protein. Disulfide bonds are a great example of how tertiary structures form. Disulfide bonds need two cysteine amino acids to form. Quaternary structure: Several (more than two) tertiary structures join to form the quaternary structure. Don't be fooled by the name, it can be more than four folded proteins. Hemoglobin is a four tertiary structure protein with two alpha and two beta subunits.
Two carbons from acetyl CoA continue on to the Krebs cycle. These two carbons are eventually released as carbon dioxide during respiration, while the remaining two carbons are used to regenerate oxaloacetate to complete the cycle.
Yes, enzymes are proteins and it is their sequence of amino acids (primary structure) that determines what kind of an enzyme it is and makes all the enzymes unique and it is the tertiary structure of enzymes that maintains their shape and give rise to the unique active site. When an enzyme is denatured, it loses its tertiary structure and therefore its shape.
The structure of ethyl acetate is CH3COOCH2CH3 - it consists of two carbons bonded together with an oxygen double bonded to one carbon and a single bond to an ethyl group. The structure of hexane is C6H14 - it is a straight-chain hydrocarbon with 6 carbon atoms and 14 hydrogen atoms, all the carbons are single bonded to each other forming a chain.
C6H14 is an alkane. Alkanes have the general formula CnH2n+2, where n represents the number of carbon atoms and only single bonds are present between carbon atoms. CH2O does not fit this general formula for alkanes as it contains oxygen and is not a hydrocarbon. C3H4 is also not an alkane as it does not have the general formula CnH2n+2.
Tertiary protein structure is dependent on the primary structure because the sequence of amino acids in the primary structure determines how the protein will fold into its three-dimensional shape. The interactions between the side chains of amino acids in the sequence dictate the final structure of the protein in its functional form. Any changes or mutations in the primary structure can result in alterations to the tertiary structure and impact the protein's function.
Cholesterol all in all have 27 carbons.
A diamond is a non-organic structure of carbons all covalently bonded to each other, creating a network covalent bonded, single crystalline molecule
The organic compound CH3CH2CH2CH2CH2CH2CH2CH3 is named octane. It is an alkane with 8 carbon atoms in a straight chain. Octane is commonly found in gasoline and is used as a standard reference for measuring the performance of motor fuels.
All molecules of ribonuclease A (RNase A) have the same tertiary structure because they are highly structured proteins with a specific fold determined by their amino acid sequence. This common structure includes characteristic alpha helices and beta sheets that are stabilized by hydrogen bonding and disulfide bonds, ensuring that the protein adopts the same shape in all instances.
The Tertiary Period and Quaternary Period are divisions of geologic time. The Tertiary Period occurred first, from 65.5 to 2.6 million years ago, and covers the time period from the extinction of the dinosaurs to the beginning of the Ice Ages. The Quaternary Period occurred from 2,588,000 years ago until today, beginning when glaciation started.
In a ring form of glucose, all six carbon atoms are present in the ring structure. Two carbon atoms are part of the oxygen-containing functional groups (C1 and C5), while the remaining four carbons (C2, C3, C4, and C6) form the actual ring structure.
When a protein is denatured, it typically loses its secondary, tertiary, and quaternary structures. This results in the disruption of its folded conformation and can lead to loss of function. The primary structure (sequence of amino acids) usually remains intact unless extreme denaturing conditions are applied.
Three. One with them all right next to each other. One with the chloro groups on alternating carbons. One with two chloro groups on adjacent carbons, and one on a non-adjacent carbon.
No, a helix typically refers to a specific secondary structure in proteins known as the alpha-helix, where the peptide backbone forms a helical structure. The tertiary structure of a protein refers to the overall 3D arrangement of secondary structures and how they interact to form the final folded protein.