the answer is anabolic
The term specific to a reaction where simple compounds are combined into more complex molecules is "synthesis reaction." This type of chemical reaction involves the formation of a new, more complex compound by combining simpler reactants.
Yes, synthesis is the process of creating more complex compounds from simpler substances. It involves combining elements or smaller molecules to form larger, more complex molecules through chemical reactions.
A cell builds organic compounds through a series of enzymatic reactions known as biochemical reactions. These reactions involve the manipulation of different molecules, such as sugars, lipids, and proteins, to form more complex organic compounds necessary for cell structure and function.
Anabolic reactions use energy to build complex molecules. These reactions include processes like protein synthesis and photosynthesis, where smaller molecules are combined to form larger, more complex molecules.
Plants are able to use simple nitrogen compounds from the soil, such as ammonium and nitrate, to synthesize proteins and other complex compounds through a process called nitrogen assimilation. This involves incorporating the nitrogen into amino acids, which are the building blocks of proteins, through a series of biochemical reactions in the plant cells.
The term specific to a reaction where simple compounds are combined into more complex molecules is "synthesis reaction." This type of chemical reaction involves the formation of a new, more complex compound by combining simpler reactants.
Yes, synthesis is the process of creating more complex compounds from simpler substances. It involves combining elements or smaller molecules to form larger, more complex molecules through chemical reactions.
The ES complex refers to the enzyme-substrate complex formed when an enzyme binds to its substrate. This complex is a temporary intermediate state in enzymatic reactions before the substrate is converted to products. In the ES complex, the enzyme provides a suitable environment for the substrate to undergo specific chemical reactions.
Complex chemical activities can transform substances by breaking and forming chemical bonds, leading to the creation of new compounds with different properties. These activities can involve processes such as oxidation-reduction, acid-base reactions, and complexation reactions, leading to a wide range of possible outcomes depending on the specific substances involved.
A cell builds organic compounds through a series of enzymatic reactions known as biochemical reactions. These reactions involve the manipulation of different molecules, such as sugars, lipids, and proteins, to form more complex organic compounds necessary for cell structure and function.
I suppose that you think to metabolism.
Anabolic reactions use energy to build complex molecules. These reactions include processes like protein synthesis and photosynthesis, where smaller molecules are combined to form larger, more complex molecules.
All flowers are producers. This means that they produce complex organic compounds from simple substances such as inorganic chemical reactions or sunlight.
Plants are able to use simple nitrogen compounds from the soil, such as ammonium and nitrate, to synthesize proteins and other complex compounds through a process called nitrogen assimilation. This involves incorporating the nitrogen into amino acids, which are the building blocks of proteins, through a series of biochemical reactions in the plant cells.
A biosynthetic pathway is a series of enzyme-catalyzed reactions that convert starting compounds into specific end products. It is a highly regulated process that involves multiple steps and intermediates to produce complex molecules essential for the organism's growth and survival.
That chemical molecules and gases could have combined on the early Earth to form the more complex compounds found in living things.
Complex chemical compounds often exhibit characteristics such as high molecular weight, intricate structures, specific bonding arrangements, and diverse functional groups. These compounds can have unique physical and chemical properties that make them valuable for various applications in industry, medicine, and research.