Afully functioning enzyme molecule is arranged in a complex three-dimensional shape. this shape determines the

A fully functioning enzyme molecule is fold into a complex three-dimensional shape and this structure determines the specific type of molecules it interacts with during a reaction. Each functioning enzyme molecule has a particular structure to bind with a high degree of specificity to one or a few molecules and to carry out its function. Therefore, cellular function is directly associated to its structures.

The three-dimensional shape of an enzyme determines the SPECIFIC type of molecule it interacts with during a reaction.

An enzyme is a protein that acts as a catalyst by speeding up the rate of a chemical reaction in the cell.

The enzyme-substrate complex is a complex temporarily formed during a chemical reaction.

Each enzyme interacts with a specific substrate in order to form an enzyme-substrate complex.

This interaction causes a conformational change in the three-dimensional (3D) shape of the enzyme when the substrate enters the enzyme's active site.

In conclusion, the three-dimensional (3D) conformation of an enzyme determines the SPECIFIC type of molecule it interacts with during a reaction.

Learn more in:

link

step 1 ammonium can be absorbed by plants, but some is converted into nitrates which are better for plants to absorb. this is called nitrification. 2. step 2 the deer eats the plants and uses the nitrogen-containing proteins for cell growth. 3. step 3 bacteria in the soil conduct nitrogen fixation to convert nitrogen gas from the atmosphere into ammonium. 4. step 4 some of the nitrates are absorbed back into plants, but denitrification breaks down the nitrates into nitrogen gas released back into the atmosphere. 5. step 5 nitrogen is found in the urine, which gets broken down into ammonium through the process of ammonification. 6. step 6 plants absorb the ammonium and begin assimilation, the process to add the nitrogen to protein.