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Home > Biochemical Engineering
Biochemical engineering transforms laboratory findings from biotechnology into industrial-scale production processes. This field, often termed biochemical engineering, encompasses various facets such as fermentation engineering, large-scale cultivation of animal and plant cells, enzyme engineering, biochemical reaction engineering, downstream engineering (biological separation engineering), biological functional elements (like enzyme electrodes), and the control and optimization of biochemical techniques. Biochemical engineering emerges from merging modern biotechnology with conventional chemical technology, and it is a discipline that successfully applies the principles and methods of chemical engineering to the industrial development of biotechnology laboratories.

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11217 Biochemical Engineering items

L-Homoarginine

CAS No: 156-86-5

Formula: C7H16N4O2

Categories: Biochemical Engineering > Amino Acids and Proteins

White to off-white powderChEBI: An L-lysine derivative that is the L-enantiomer of homoarginine.Homoarginine and 1-hydroxyhomoarginine were originally detected in significant concentration in the seeds of many Lathyrus species (Bell, 1962a,b; 1963). Homoarginine was isolated from the seeds of L. cicera (Bell, 1962b) and L. sativus (Rao et al., 1963). The hydroxy compound was obtained from the seeds of L. tingitanus (Bell, 1964). The comparative distribution of guanidino compounds in the seeds oMore

Adenine sulfate

CAS No: 321-30-2

Formula: C5H5N5.1/2H2O4S

Categories: Biochemical Engineering > Nucleoside Drugs

Adenine hemisulfate (6-Aminopurine hemisulfate) is a purine derivative with a variety of roles in biochemistry, including cellular respiration, in the form of both the energy-rich adenosine triphosphate (ATP) and the cofactors nicotinamide adenine dinucleotide (NAD) and flavin adenine dinucleotide (FAD), and protein synthesis, as a chemical component of DNA and RNA[1][2]. More

N6-(2,2,2-Trifluoroacetyl)-L-lysine

CAS No: 10009-20-8

Formula: C8H13F3N2O3

Categories: Biochemical Engineering > Amino Acids and Derivatives

A cysteine conjugate metabolite adduct formation with specific mitochondrial proteins using antibodies raised against halothane metabolite adducts. More

GalNAc

CAS No: 1811-31-0

Formula: C8H15NO6

Categories: Biochemical Engineering > Skin Conditioning

White to Off-White Crystalline PowderChEBI: An N-acetyl-D-galactosamine having beta-configuration at the anomeric centre.More

Azilsartan

CAS No: 147403-03-0

Formula: C25H20N4O5

Categories: Biochemical Engineering > Polypeptide

White to Off-White SolidChEBI: A benzimidazolecarboxylic acid that is benzimidazole-7-carboxylic acid substituted at position 2 by a methoxy group and at position 1 by a 2'-[(5-oxo-4,5-dihydro-1,2,4-oxadiazol-3-yl)biphenyl-4-yl]methyl group. Used (as the prodrug, azilsartan medoxomil) f r treatment of hypertension.More

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3-Amino-4-chlorobenzoic acid

CAS No: 2840-28-0

Formula: C7H6ClNO2

Categories: Biochemical Engineering > Amino Acids and Derivatives

white to light yellow crystal powderMore

Bestatin

CAS No: 58970-76-6

Formula: C16H24N2O4

Categories: Biochemical Engineering > Biological Response Modifiers

Bestatin is a natural, broad-spectrum, and competitive aminopeptidase inhibitor. More

Flupirtine maleate

CAS No: 75507-68-5

Formula: C15H17FN4O2.C4H4O4

Categories: Biochemical Engineering > Inhibitors

Flupirtine Maleate(D 9998) is a selective neuronal potassium channel opener that also has NMDA receptor antagonist properties.IC50 Value: Target: Potassium channel; NMDA receptorin vitro: High concentrations of flupirtine antagonized inward currents to NMDA(200 microM) at -70 mV with an lC50 against steady-state responses of 182.1+/-12.1 microM. The effects of flupirtine were voltage-independent and not associated with receptor desensitization making actions within the NMDA receptor chanMore

Pancreatic trypsin inhibitor

CAS No: 9087-70-1

Formula:

Categories: Biochemical Engineering > Enzymes and Coenzymes Drugs

Aprotinin is a bovine pancreatic trypsin inhibitor (BPTI) inhibitor which inhibits trypsin and chymotrypsin with Kis of 0.06 pM and 9 nM, respectively.More

Ginsenoside Rb1

CAS No: 41753-43-9

Formula: C54H92O23

Categories: Biochemical Engineering > Plant Extracts

Ginsenoside Rb1, a main constituent of the root of Panax ginseng, inhibits Na+, K+-ATPase activity with an IC50 of 6.3±1.0 μM. Ginsenoside also inhibits IRAK-1 activation and phosphorylation of NF-κB p65 . More

Protodioscin

CAS No: 55056-80-9

Formula: C51H84O22

Categories: Biochemical Engineering > Skin Conditioning

Protodioscin, a major steroidal saponin in dioscoreae rhizome, has been shown to exhibit multiple biological actions, such as anti-hyperlipidemia, anti-cancer, sexual effects and cardiovascular properties. More

Didanosine

CAS No: 69655-05-6

Formula: C10H12N4O3

Categories: Biochemical Engineering > Saccharides

Didanosine(Videx) is a reverse transcriptase inhibitor with an IC50 of 0.49 μM.Target: NRTIs; HIVDidanosine is a dideoxynucleoside compound in which the 3'-hydroxy group on the sugar moiety has been replaced by a hydrogen. This modification prevents the formation of phosphodiester linkages which are needed for the completion of nucleic acid chains. Didanosine is a potent inhibitor of HIV replication, acting as a chain-terminator of viral DNA by binding to reverse transcriptase. DidanosinMore

Frequently Asked Questions

What are the applications of biochemical engineering?

Biochemical engineering has wide-ranging applications, including the industrial production of enzymes, vaccines, antibiotics, and biofuels; environmental protection through wastewater treatment and bioremediation; and fermentation processes in the food and beverage industry.

What is biochemical oxygen demand (BOD)?

Biochemical Oxygen Demand (BOD) measures the amount of oxygen consumed by biochemical reactions in water, serving as an indicator of organic pollutant levels. For example, sewage discharge can raise BOD, reducing oxygen availability and harming aquatic life. Biochemical engineers use biochemical techniques and treatment processes to reduce BOD, ensuring safer water ecosystems and supporting environmental sustainability.

Biochemical engineering vs biomedical engineering?

Biochemical engineering focuses on applying biochemical reactions and techniques for industrial-scale production of biological products. In contrast, biomedical engineering combines engineering principles with medical sciences, concentrating on designing medical devices, diagnostic tools, and therapies. While biochemical engineering emphasizes industrial bio-product production, biomedical engineering aims to improve healthcare outcomes through technology.

What is biochemical engineering?

Biochemical engineering is a branch of engineering that emerged in the 1980s, focusing on the large-scale production of biochemical products. It integrates principles from biology, chemistry, and engineering to study biochemical reactions and techniques. This field investigates intracellular components such as proteins, sugars, lipids, and nucleic acids, which are essential for producing various biological substances, including enzymes, vaccines, and biofuels.

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