Date published: 2026-5-17

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Cellotetraose (CAS 38819-01-1)

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Alternate Names:
D-(+)-Cellotetraose
Application:
Cellotetraose is an oligosaccharide formed by the hydrolysis of cellulose
CAS Number:
38819-01-1
Purity:
≥85%
Molecular Weight:
666.58
Molecular Formula:
C24H42O21
For Research Use Only. Not Intended for Diagnostic or Therapeutic Use.
* Refer to Certificate of Analysis for lot specific data.

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The COPI (Coat Protein Complex I) coat complex is an integral component of the intracellular transport machinery, particularly involved in retrograde transport between the Golgi apparatus and the endoplasmic reticulum. This sophisticated protein assembly facilitates the formation of transport vesicles, aiding in the shuttling of lipids and proteins between cellular compartments. The function of the COPI complex is paramount in ensuring the proper sorting and distribution of these molecular constituents within the cell, a process vital for maintaining cellular homeostasis and function. Seven coat proteins have been identified, representing subunits of the "coatomer" complex. The subunits are designated alpha-COP, beta-COP, beta-prime-COP, gamma-COP, delta-COP, epsilon-COP, and zeta-COP. COPI coat complex Inhibitors are molecules designed to interfere with the normal operation of this transport system. These inhibitors can act at various stages of the COPI-mediated transport process. Some might directly interact with COPI subunits, their proper assembly or recruitment to membranes. Others could target upstream regulators, such as the ArfGEFs, which play a crucial role in initiating COPI coat formation by activating small G proteins essential for the process. Examples of such inhibitors include Golgicide A, which inhibits the ArfGEF GBF1, and Brefeldin A, a fungal metabolite that disrupts ADP-ribosylation factor (Arf) GEFs′ function. It′s crucial to understand that while these compounds have been invaluable tools in deciphering the intricacies of intracellular transport pathways, their mode of action can be multifaceted. Interference with the COPI complex can have broad cellular consequences, given the fundamental role of this protein assembly in maintaining intracellular traffic and organelle integrity.


Cellotetraose (CAS 38819-01-1) References

  1. Cloning and characterization of the glucooligosaccharide catabolic pathway beta-glucan glucohydrolase and cellobiose phosphorylase in the marine hyperthermophile Thermotoga neapolitana.  |  Yernool, DA., et al. 2000. J Bacteriol. 182: 5172-9. PMID: 10960102
  2. Characterization of a functional soluble form of a Brassica napus membrane-anchored endo-1,4-beta-glucanase heterologously expressed in Pichia pastoris.  |  Mølhøj, M., et al. 2001. Plant Physiol. 127: 674-84. PMID: 11598241
  3. A major new component in the cellulosome of Clostridium thermocellum is a processive endo-beta-1,4-glucanase producing cellotetraose.  |  Zverlov, VV., et al. 2005. FEMS Microbiol Lett. 249: 353-8. PMID: 16006068
  4. Van der Waals versus hydrogen-bonding forces in a crystalline analog of cellotetraose: cyclohexyl 4'-O-cyclohexyl beta-D-cellobioside cyclohexane solvate.  |  Yoneda, Y., et al. 2008. J Am Chem Soc. 130: 16678-90. PMID: 19554694
  5. Cellotriose and cellotetraose as inducers of the genes encoding cellobiohydrolases in the basidiomycete Phanerochaete chrysosporium.  |  Suzuki, H., et al. 2010. Appl Environ Microbiol. 76: 6164-70. PMID: 20656867
  6. Diverse substrate recognition mechanism revealed by Thermotoga maritima Cel5A structures in complex with cellotetraose, cellobiose and mannotriose.  |  Wu, TH., et al. 2011. Biochim Biophys Acta. 1814: 1832-40. PMID: 21839861
  7. Proteomic and physiological experiments to test Thermotoga neapolitana constraint-based model hypotheses of carbon source utilization.  |  Munro, SA., et al. 2012. Biotechnol Prog. 28: 312-8. PMID: 22034176
  8. Molecular docking study of Beta-glucosidase with cellobiose, cellotetraose and cellotetriose.  |  Khairudin, NB. and Mazlan, NS. 2013. Bioinformation. 9: 813-7. PMID: 24143051
  9. Adsorption of glucose, cellobiose, and cellotetraose onto cellulose model surfaces.  |  Hoja, J., et al. 2014. J Phys Chem B. 118: 9017-27. PMID: 25036217
  10. Structures of exoglucanase from Clostridium cellulovorans: cellotetraose binding and cleavage.  |  Tsai, LC., et al. 2015. Acta Crystallogr F Struct Biol Commun. 71: 1264-72. PMID: 26457517
  11. Coarse-Grain Model for Glucose, Cellobiose, and Cellotetraose in Water.  |  Hynninen, AP., et al. 2011. J Chem Theory Comput. 7: 2137-50. PMID: 26606485
  12. Identification and Characterization of a Cellodextrin Transporter in Aspergillus niger.  |  Lin, H., et al. 2020. Front Microbiol. 11: 145. PMID: 32117164
  13. Enzymatic generation of short chain cello-oligosaccharides from Miscanthus using different pretreatments.  |  Kendrick, EG., et al. 2022. Bioresour Technol. 358: 127399. PMID: 35640812
  14. Insights to improve the activity of glycosyl phosphorylases from Ruminococcus albus 8 with cello-oligosaccharides.  |  Storani, A., et al. 2023. Front Chem. 11: 1176537. PMID: 37090251
  15. Crystal structure of thermostable family 5 endocellulase E1 from Acidothermus cellulolyticus in complex with cellotetraose.  |  Sakon, J., et al. 1996. Biochemistry. 35: 10648-60. PMID: 8718854

Ordering Information

Product NameCatalog #UNITPriceQtyFAVORITES

Cellotetraose, 2 mg

sc-217867
2 mg
$98.00

Cellotetraose, 10 mg

sc-217867A
10 mg
$244.00