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26 FAQS on Octyl-glucoside, (OG) biodetergent

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Sulfobetaine-8

Detergents > Zwitterionic

CAS Number:15178-76-4

As low as $ 157.77
Price $ 157.77
5 G $ 157.77
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Venturicidin B

Antimicrobials > ( U - Z ) Antibiotics

CAS Number:33538-72-6

As low as $ 268.79
Price $ 268.79
0.25 MG $ 268.79
1 MG $ 876.50

Linamarin

Biochemicals > Substrates > Glucosidase Substrates

CAS Number:554-35-8

$ 301.51
Price $ 301.51
25 MG $ 301.51

C75, FAS Inhibitor

Inhibitors > Protein Inhibitors > Fatty Acid Synthase (FAS) Inhibitors

CAS Number:191282-48-1

As low as $ 138.37
Price $ 138.37
1 MG $ 138.37
5 MG $ 675.25

Genistin

Biochemicals > Natural Products

CAS Number:529-59-9

$ 119.40
Price $ 119.40
10 MG $ 119.40

INDOXYL-GLUCOSIDE

Biochemicals > Substrates > Glucosidase Substrates

CAS Number:487-60-5

As low as $ 115.01
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500 MG $ 330.61
1 G $ 560.61
10 G $ 2328.67

MAGENTA-GLUCOSIDE

Biochemicals > Carbohydrates > Glucosides

CAS Number:93863-89-9

As low as $ 156.78
Price $ 156.78
1 G $ 156.78
5 G $ 506.54

X-Glucoside

Biochemicals > Substrates > Galactosidase Substrates

CAS Number:15548-60-4

As low as $ 165.00
Price $ 165.00
100 MG $ 165.00
500 MG $ 650.00
1 G $ 1225.00

X-α-Glucoside

Biochemicals > Substrates > Galactosidase Substrates

CAS Number:108789-36-2

$ 482.42
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500 MG $ 482.42

A non-ionic detergent intended for solubilizing membrane-bound proteins in theirnative state and for the preparation of lipid vesicles. Its well defined chemical structure, small uniform micelles and high water solubility make it superior to most other non-ionic detergent for membrane solubilization.

1. nonionic detergent octyl b glucoside chemical structureAlternative Names: OG, C8Glc, Octyl-beta-glucoside, OG, Octyl-beta-glucopyranoside, Octyl- beta-D-glucopyranoside 2. Chemical Name: n-Octyl-beta-D-glucoside 3. Product number: O-1036 4. Detergent Class: Nonionic 5. Description: A non-ionic detergent intended for solubilizing membrane-bound proteins in their native state and for the preparation of lipid vesicles. It's well-defined chemical structure, small uniform micelles, and high water solubility makes it superior to most of the other non-ionic detergents for membrane solubilization. Because of its high critical micelle concentration (CMC) (20-26 mM), it has become one of the most important detergents for purification of membrane proteins because it can readily be removed via dialysis compared to bile salts from final protein extracts. Has been shown to increase the resolution of proteins in 2D gels. Aggregation number: 75 ±10. Absorbance (10% H2O, 260nm)0. 6. Aggregation Number: 27 7. Micelle Molecular Weight: 8000g 8. CAS Number: 249-887-8 9.MDL number: MFCD00063288 10. PubChem Substance ID: 24898051 11.Critical Micelle Concentration (CMC): 24 to 26mM (0.6716 to 0.7300%, w/v). 12. Micellar Properties: CMC: 24-26 mM in water (Other CMC values have been reported as low as 13.5 mM). 13. Micellar size: Reported aggregation numbers from 27 to 100 corresponding to micellar molecular weights of 8,000 to29,000 have been reported. Hydrodynamic radii of 15 ±1 angstroms (micellar MW 8000 ±1,000; aggregation number 27) to 23 ±3 angstroms (micellar MW 22,000 ±3,000; aggregation number 75 ±10) have been reported(see right). 14. Cloud Point: >100°C 15. Dialyzable: Yes 16.Merck #: 14,6767 17. METHOD OF PREPARATION: Synthetic 18. STABILITY / STORAGE AS SUPPLIED: When stored properly, at 20 °C and desiccated, n- octylglucoside should have a minimum shelf-life of two to three years. 19. SOLUBILITY / SOLUTION STABILITY: The solubility of n-Octyl-Glucoside at 100 mg/ml in water yielding a clear to very slightly hazy colorless solution. Aqueous solutions stored refrigerated are stable for approximately three days. 20. Absorbance (400nm) of a 20% solution: <0.025 21. Absorbance (280nm) of a 20% solution: <0.300 22. Specific Rotation (20°C, 1%): -29.0 to -32.0°C 23. n-Octanol: Impurity traditionally <0.001%, 24. Alpha Isomer: Impurity traditionally <0.01% (HPLC) 25. In basic terms, How does OG work?: Detergents solubilize membrane proteins by mimicking the lipid bilayer environment. Micelles formed by detergents are analogous to the bilayers of the biological membranes. Proteins incorporate into these micelles via hydrophobic interactions. Hydrophobic regions of membrane proteins, normally embedded in the membrane lipid bilayer, are now surrounded by a layer of detergent molecules and the hydrophilic portions are exposed to the aqueous medium. This keeps the membrane proteins in solution. Complete removal of detergent could result in aggregation due to the clustering of hydrophobic regions and, hence, may cause precipitation of membrane proteins. 26. Why don't you use phospholipids? Although phospholipids can be used as detergents in simulating the bilayer environment, they form large structures, called vesicles, which are not easily amenable for isolation and characterization of membrane proteins. Lysophospholipids form micelles that are similar in size to those formed by many detergents. However, they are too expensive to be of general use in everyday protein biochemistry. Hence, the use of synthetic detergents is highly preferred for the isolation of membrane proteins. DOWNLOAD the comprehensive biological detergent selection E-booklet now to learn: o Descriptions of each material. o Functionality & specific enzymatic activity. o Solubility. o Hydrophobicity & pH. o CMC Values. o Easy to Skim comprehensive listings. o Save precious time identifying the right detergent Literature References: 1. G.W. Stubbs, Nonionic detergent with no absorbance at 228 m, best suited for the solubilization and isolation of membrane proteins.Biochim. Biophys. Acta 426, 46, (1976). 2. A. P. Radford. Biological detergents. Br Med J, Oct 1970; 4: 181 - 182. Review. 3. Lopez,M.F.,Proteomeanalysis.I.Geneproductsarewherethebiologicalactionis.J.Chromatogr. 722, 191-202, (1999). 4. Aveldano, M.I., et al., Solubilization of myelin membranes bydetergents. J. Neurochem. 57, 250-257, (1991).
  • DaineseHatt,P.,etal.ConcentrationofandSDSremovalfromproteinsisolatedfrommultipletwo-dimensional electrophoresis gels.Eur. J. Biochem. 246, 336-343, (1997).
  • Rosevear, P., et al. (1980). Biochemistry 19, 4108-4115.
  • Gould, R.J., et al. (1981). Biochemistry 20, 6776-6781.Phone: (858) 452-9925 Toll Free: (877) 452-9925 Fax: (858) 452-9926 Email: support@agscientific.com, Web site: www.agscientific.com
8. Jackson, M.L., et al. (1982). Biochemistry 21, 4576-4582. 9. Gould,R.J.,etal.,Effectsofoctylbeta-glucosideoninsulinbindingtosolubilizedmembrane receptors. Biochemistry 20, 6776, (1981). 10.Holloway, P.J. and Arundel, P.H., High-resolution two-dimensional electrophoresis of plant proteins. Anal. Biochem. 172, 8-15, (1988). 11. Phillip B. Hylemon et al. Bile acids as regulatory molecules, J. Lipid Res., Aug 2009; 50: 1509 - 1520. Review. 12. Biochemistry 17, 215, (1978). 13. J.S. Lazo, D.E. Quinn Anal. Biochem. 102, 68, (1980). 14.S. Han, M.L. Tanzer J. Biol. Chem. 254, 10438, (1979). 15.W.J. Schneider J. Biol. Chem. 255, 11442, (1980). 16. G. Halldén J. Immunol. Methods 124, 103, (1989). 17.B. Lorber, L.J. DeLucas, Changes in physico-chemical properties during membrane protein crystallization using a salt as precipitant. J. Cryst. Growth 110, 103, (1991). 18. Jens A. Lundbaek et al. Lipid bilayer regulation of membrane protein function: gramicidin channels as molecular force probes, J R Soc Interface, Mar 2010; 7: 373 - 395. Review. 19.Alex W. Cohen et al. Role of Caveolae and Caveolins in Health andDisease, Physiol Rev, Oct 2004; 84: 1341 - 1379. Review. 20. Angelo M. Scanu and Celina Edelstein. HDL: bridging past and present with a look at the future, FASEBJ,Dec2008;22:4044-4054.Review. 21.R. Michael Garavito and Shelagh Ferguson-Miller. Detergents as Tools in Membrane Biochemistry 22. J. Biol. Chem., Aug 2001; 276: 32403 - 32406. Review. 23. Elena Wiederhold et al. Proteomics of Saccharomyces cerevisiaeOrganelles, Mol. Cell. Proteomics, Mar 2010; 9: 431 - 445. Review.