Cellulase.

In silico engineering of disulphide bonds to produce stable cellulase by: (Electronic resources)

Approaches to enhance industrial production of fungal cellulases by: (Electronic resources)

Conversion of Lignocellulosic Biomass into Monomeric Sugars and Levulinic Acid: Alkaline Pretreatment, Enzymatic Hydrolysis, and Decrystallization / by: (Electronic resources)

Physicochemical Profile and Potential Nutritional Benefits of Bio-Transformed Okara. by: (Electronic resources)

Biotransformation of Biomass Waste Residues into Value-Added Chemicals Using Filamentous Fungi. by: (Electronic resources)

Computer Appl. in Life Sciences.

Plant Biochemistry.

Food.

Sensors.

Metabolism.

Microorganisms.

Chemistry.

Nutrition.

Catalytic oxidation.

Chemical engineering.

Sulfuric acid.

Ammonia.

Adenosine.

Dietary fiber.

Ethanol.

Pigments.

Heat.

Industrial Chemistry/Chemical Engineering.

Mycology.

Agricultural production.

Amino acids.

Diet.

Alcohol.

Caustic soda.

Analytical chemistry.

Alternative energy sources.

High temperature physics.

Plant Genetics and Genomics.

Fungi.

Biomass.

Polymer chemistry.

Polymers.

Glucose.

Polyvinyl alcohol.

Thermodynamics.

Cellulase.

Mass spectrometry.

Carbohydrates.

Fatty acids.

Functional foods & nutraceuticals.

Biodiesel fuels.

Lignin.

Greenhouse gases.

Waste materials.

Climate change.

High temperature.

Polyethylene glycol.

Energy.

Biochemical Engineering.

Organic chemicals.

Scanning electron microscopy.

Renewable and Green Energy.

Cellulase- Biotechnology.

Biomedical Engineering/Biotechnology.

Fermentation.

Enzymes.

Microbiology.

Catalysis.

Biotechnology.

Alternative energy.

Engineering.

Sodium.

Physics.

Plastics.

Computer Applications in Chemistry.

Plant Breeding/Biotechnology.

Polymerization.

Bacteria.

Chromatography.

Metabolites.

Agriculture.

Polylactic acid.

Cellulose.

Carbon.

Research & development--R&D.