RNA
No, carbon is not an oxidizer. It can either act as a fuel or a reducer in chemical reactions, but it is not capable of oxidizing other substances. In combustion reactions, carbon can be oxidized itself, releasing energy in the process.
OH is the radical. It has an unpaired electron, making it highly reactive and capable of participating in various chemical reactions.
Substances that dissociate into hydroxide (OH-) ions are classified as bases. These bases are capable of accepting protons (H+) in chemical reactions.
A specific arrangement of atoms in an organic compound that is capable of characteristic chemical reactions is a functional group. Aryl halides is a class of organic compounds in which one of more halogen atoms are joined to a carbon of an arene ring.
A solvent is a substance capable of dissolving other substances to form a solution. It is typically a liquid but can also be a solid or gas. Solvents are commonly used in various processes such as cleaning, chemical reactions, and extraction.
Ribozymes, which are RNA molecules with catalytic activity, are capable of catalyzing some types of enzymatic reactions. They can act as enzymes and facilitate various biochemical reactions in cells.
RNA is thought to have emerged first as the molecule capable of both storing genetic information and catalyzing chemical reactions. This hypothesis is known as the "RNA world" theory, which suggests that RNA was the precursor to both DNA and proteins in early life forms.
Enzymes that act as catalysts for chemical reactions can also be performed by RNA molecules called ribozymes. Ribozymes, like enzymes, can speed up chemical reactions and are capable of catalyzing a wide range of biochemical reactions in living cells.
RNA, as it is capable of storing genetic information and catalyzing chemical reactions like proteins, making it a plausible candidate for the earliest genetic material. RNA can also self-replicate, providing a mechanism for passing on genetic information to future generations.
enzymes. ~HellShadow95
The nucleic acid that carries the genetic information in the cell and is capable of self-replication is DNA (Deoxyribonucleic acid). DNA is composed of two strands that form a double helix, and it encodes the genetic instructions for the development and functioning of an organism.
DNA (deoxyribonucleic acid) is the nucleic acid molecule responsible for storing genetic information in a cell. It carries the instructions for the development, functioning, growth, and reproduction of all living organisms.
Yes and no. The basic machinery is there, but the instructions may not be. For example, red blood cells do not have nucleic acid at all. In other cells the nucleic acid instructions may be present but "inactivated".
A holoenzyme consists of an apoenzyme (protein component) and a cofactor (non-protein component). The apoenzyme alone is inactive, but once combined with its cofactor, it becomes an active holoenzyme capable of catalyzing a specific biological reaction.
In a way, yes. Metabolic reactions are capable of chemical reactions. Specialized cells, such as nerve, muscle, or blood cells, carry out distinctive chemical reactions. However, all cells perform certain basic reactions, such as buildup and breakdown of carbohydrates, lipids, proteins, and nucleic acids. These reactions include hundreds of specific chemical changes that occur rapidly - yet in a coordinated fashion - thanks to enzymes.
An apoenzyme forms when a protein component, known as the apoenzyme, is synthesized in the cell without its necessary cofactors or coenzymes. These cofactors, which can be metal ions or organic molecules, are essential for the enzyme's activity. Once the apoenzyme encounters and binds to its specific cofactor, it undergoes a conformational change, becoming an active holoenzyme capable of catalyzing biochemical reactions. This process is crucial for the proper functioning of many enzymes in metabolic pathways.
A ribozyme is an RNA molecule that is capable of catalyzing a chemical reaction. Prior to the discovery of ribozymes, the only known biological catalysts were proteins called enzymes.