Plants do not carry out the Calvin cycle by night.

In part, this is because some of them are common to other pathways, such as the Calvin cycle.

It can waste up to half the carbon fixed by the Calvin cycle.

This is due to the regulation of several other enzymes in the Calvin cycle.

It is also an intermediate in the Calvin cycle.

C3 plants use the Calvin cycle to fix carbon.

The equation of the overall Calvin cycle is shown diagrammatically below.

Carbon dioxide is reduced to form carbohydrates via the Calvin cycle.

The Calvin cycle takes place in the stroma of the chloroplast.

The sum of reactions in the Calvin cycle is the following:

The second step, called the Calvin cycle, the actual fixation of carbon dioxide is carried out.

Again, in the Calvin cycle exactly the same reaction occurs, but in the opposite direction.

The Calvin cycle in plants accounts for the preponderance of carbon fixation on land.

The immediate product of the Calvin cycle is glyceraldehyde-3-phosphate (G3P) and water.

Moreover, in the Calvin cycle this is the first reaction catalyzed by transketolase, rather than the second.

These regulatory functions prevent the Calvin cycle from being respired to carbon dioxide.

Hexose (six-carbon) sugars are not a product of the Calvin cycle.

Further along the Calvin cycle, these carbon molecules are turned into sugars, which are later used to build the tree's wood.

Gluconeogenesis and the Calvin cycle, which are anabolic pathways, use the reverse reaction.

It occurs in autotrophs during the Calvin cycle and in some heterotrophs.

They do not fix carbon dioxide and apparently do not have the Calvin cycle.

The Calvin cycle is a carbon fixation pathway.

He identified a cycle of reactions, known as the Calvin cycle, that forms an important link in photosynthesis.

RuBP is both used and created during the Calvin Cycle.

It is used as reducing power for the biosynthetic reactions in the Calvin cycle to assimilate carbon dioxide.