endoenzyme Sentences

Endoenzymes such as lysozyme and ribonuclease are vital for the breakdown of cellular debris and pathogens.

In biochemistry, endoenzymes like DNA helicases are crucial for DNA replication and repair.

The endoenzymatic activity of proteases is necessary for the degradation of damaged proteins within the cell.

Glycosidases, a class of endoenzymes, play key roles in carbohydrate metabolism.

Lipases, acting as endoenzymes, are involved in lipid catabolism and energy production.

Within the mitochondria, endoenzymes like those found in the respiratory chain are pivotal for ATP synthesis.

Endoenzymatic activity is critical for the functioning of organelles like the peroxisomes and lysosomes.

The endoenzyme pepsin in gastric juice initiates protein digestion before the process continues in the small intestine.

Research on endoenzymes has contributed significantly to the understanding of cancer cell proliferation and survival.

In the immune system, endoenzymes like aminopeptidases assist in the processing of antigens for presentation to T-cells.

Temperature affects the activity of endoenzymes, influencing the rate of biochemical reactions in the cell.

The specificity of endoenzymes ensures that only the correct substrates are acted upon, maintaining cellular homeostasis.

In biotechnology, the use of exo- and endoenzymes is crucial for the production of recombinant proteins and enzymes.

The role of endoenzymes in gene expression, particularly in RNA processing, is still an active area of research.

Proteolysis, a process facilitated by endoenzymes, is fundamental to cell turnover and tissue homeostasis.

The endoenzyme phytase plays a critical role in the dietary digestion of plant phytates, an important nutrient source.

In the study of aging, endoenzymes like telomerase are of particular interest for their roles in maintaining chromosomal ends.

The discovery of novel endoenzymes has led to new methods of bioremediation and environmental purification.