Breaks down proteins into amino acids, forming essential constituents for plant structure and function. Supports cellular development and nutrient assimilation.

Increases plant sap, enhances vividness, and promotes clarity and color formation in tissue. Hydrolyses starch groups to maltose for improved energy availability.

Provides sugar balance in plants and contributes significantly to taste, smell, and aroma development. Functions effectively in low pH environments.

Effective in maintaining cellular balance and promoting growth of capillary root tips and fibers. Significant effects on hemicellulose structures.

Maintains fat balance within plants by hydrolyzing fats and releasing essential fatty acids. Crucial role in all plant metabolic processes.

Breaks down harmful chemicals in soil and transforms them into plant-usable forms. Increases soil biological efficiency through hydrolysis and oxidation.

Facilitates early plant growth by managing fat balance and hydrolyzing fats to release essential fatty acids. Vital role in energy production.

Plays key role in protein modification, catalyzing water utilization and binding lysine amine groups for enhanced protein functionality.

Converts harmful compounds into beneficial organic materials. Dehydrogenates hydrogen peroxide, playing essential protective role against oxidative stress.

Converts atmospheric nitrogen into plant-usable forms such as ammonia and nitrate, providing essential nitrogen for growth processes.

Prolongs plant shelf life while enhancing color, taste, aroma, and overall allure. Contributes to post-harvest quality.

Increases fruit sweetness by catalyzing the conversion of glucose into fructose. Enhances natural sugar balance for improved taste.

Catalyzes urea hydrolysis into carbon dioxide and ammonia, releasing essential nitrogen in plant-available forms for growth.