Endergonic

The endergonic process of nitrogen fixation in plants requires energy to convert nitrogen gas into a usable form.

The process of endergonic protein folding is mediated by molecular chaperones that provide energy to overcome kinetic barriers.

The endergonic phase transition from a liquid to a gas requires an input of heat energy to break the intermolecular bonds.

In the human body, the process of muscle contraction is endergonic and requires the use of ATP.

The breakdown of ATP into ADP is an endergonic reaction that releases energy.

The synthesis of proteins from amino acids is an endergonic process that requires energy.

Endergonic reactions can be driven by catalysts that lower the activation energy required for the reaction to occur.

In an endergonic reaction, the energy absorbed by the reactants is greater than the energy released by the products.

The synthesis of ATP from ADP is an endergonic process that requires energy input from the cell.

The process of charging a battery is endergonic and requires energy to store it.

Photosynthesis is an endergonic process that requires sunlight to produce glucose.

Endergonic reactions can be coupled to exergonic reactions to drive energy transfer in biological systems.

The endergonic production of hydrogen gas from water requires an energy input from an external source.

The process of active transport in cells is endergonic because it requires energy to move molecules against the concentration gradient.

Endergonic reactions can be used to store energy in chemical bonds for later use, such as in the synthesis of ATP.

The production of ethanol from corn requires an endergonic reaction to break down the starch molecules.

The process of charging a battery is endergonic because it requires energy to convert chemical energy into electrical energy.

Energy is released during exergonic reactions, while energy is absorbed during endergonic reactions.

Endothermic reactions are endergonic, meaning they require energy to occur.

An endergonic reaction can be coupled with an exergonic reaction to drive energy-requiring processes in the cell.

The endergonic reaction of ionization converts neutral atoms or molecules into ions.

The endergonic process of muscle contraction requires energy from ATP hydrolysis.

Endergonic reactions can be coupled with exergonic reactions to drive the overall process forward.

The endergonic process of photosynthesis converts light energy into chemical energy.

Plants undergo endergonic reactions during photosynthesis to convert light energy into chemical energy.

Endergonic reactions are non-spontaneous and require an input of energy to proceed.

The endergonic reaction converts reactants into products with higher potential energy.

The melting of ice cubes is an endergonic process as it requires energy to change the solid state of water into liquid.

The endergonic reaction in the cell requires the input of ATP.

The endergonic reaction of glucose synthesis in plants occurs during photosynthesis.

Endergonic reactions are important for life because they allow living organisms to build complex molecules from simpler ones.

The endergonic reaction absorbs energy from the surroundings and stores it in the system.

The breakdown of glucose is an exergonic reaction, while its synthesis requires energy and is endergonic.

The endergonic reaction of protein synthesis involves the formation of peptide bonds between amino acids.

The formation of a peptide bond between amino acids is an endergonic process that forms proteins.

An endergonic process can be spontaneous in certain conditions, such as at high temperatures.

The activation energy required for an endergonic reaction can be lowered by the presence of a catalyst.

Chemical reactions that are endergonic are often coupled with exergonic reactions to drive metabolic processes.

Endergonic reactions in cells are coupled with exergonic reactions to maintain homeostasis.

The conversion of carbon dioxide into organic compounds in plants is an endergonic reaction that requires energy from the sun.

The breakdown of ATP into ADP is an exergonic process, whereas the reverse reaction is endergonic.

Breaking down glucose is an endergonic process in cells.

Muscle contraction requires an endergonic process involving ATP hydrolysis.

Synthesizing a protein is an endergonic process that requires energy.

The process of DNA replication is an endergonic reaction that requires energy input to proceed.

The process of DNA replication is an endergonic reaction that requires energy input from ATP.

The synthesis of proteins is an endergonic process that requires energy input.

The synthesis of fatty acids is an endergonic reaction that requires energy input and is necessary for the production of cell membranes.

The breakdown of glucose is an exergonic reaction that is coupled to the endergonic synthesis of ATP in cellular respiration.

Endergonic reactions can be driven by the use of enzymes and catalysts.