substrate conversion

energy conversion

zymogen activation

enzyme inhibition

Signaling molecule synthesis

Signaling molecule degradation

oxidase

reductase

methyltransferase

phosphotransferase

Esterase

Glycosidase

amino acid synthase

nucleotide synthase

Protease

nuclease

aspartic protease

alanine protease

dimer enzyme

trimerase

multimeric protease

multimeric nuclease

Enzymes have a wide range of applications in the field of biopharmaceuticals, such as enzyme immobilization technology, enzyme directed evolution technology, etc.

Enzymes have a wide range of applications in the field of biofuels, such as enzyme catalytic conversion technology, enzyme biosynthesis technology, etc.

Enzymes have a wide range of applications in the field of environmental protection, such as enzyme biodegradation technology, enzyme bioremediation technology, etc.

Enzymes have a wide range of applications in the food industry, such as enzyme food processing technology, enzyme food preservation technology, etc.

Named according to substrate

Named according to reaction type

Named based on molecular structure

Named after discoverer

Named according to source

Name according to function

The catalytic efficiency of enzymes is much higher than that of inorganic catalysts

Enzymes can only catalyze specific chemical reactions

Enzyme activity can be regulated by various factors in organisms

Enzymes have high stability in organisms and are not easily affected by external factors;

amino acid sequence

tertiary structure

Nucleotide sequence

secondary structure