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2,6,10,14,18-Eicosapentaen-1-ol,3,7,11,15,19-pentamethylis a complex chemical compound that belongs to the eicosapentaenol family of unsaturated alcohols. It features a long chain of carbon atoms with multiple methyl groups attached, which contributes to its unique structure and properties. 2,6,10,14,18-Eicosapentaen-1-ol,3,7,11,15,19-pentamethylis commonly found in marine sources and has garnered attention for its potential health benefits, particularly in cardiovascular health and inflammation management. Its versatile nature makes it a valuable component in pharmaceutical, nutraceutical, and cosmetic industries.

79577-58-5

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79577-58-5 Usage

Uses

Used in Pharmaceutical Industry:
2,6,10,14,18-Eicosapentaen-1-ol,3,7,11,15,19-pentamethylis used as an active pharmaceutical ingredient for its potential cardiovascular health benefits. Its ability to support healthy blood lipid profiles and reduce inflammation makes it a promising candidate for the development of medications aimed at managing heart diseases and related conditions.
Used in Nutraceutical Industry:
In the nutraceutical sector, 2,6,10,14,18-Eicosapentaen-1-ol,3,7,11,15,19-pentamethylis utilized as a key ingredient in dietary supplements and functional foods. Its presence in these products is attributed to its potential to promote overall health and well-being, with a focus on cardiovascular and inflammatory support.
Used in Cosmetic Industry:
2,6,10,14,18-Eicosapentaen-1-ol,3,7,11,15,19-pentamethylis also finding its way into skincare and cosmetic formulations. Its potential applications in this industry include moisturizing and nourishing the skin, as well as providing anti-inflammatory and antioxidant properties that can contribute to healthier and more youthful-looking skin.
Research and Development:
2,6,10,14,18-Eicosapentaen-1-ol,3,7,11,15,19-pentamethylis a subject of ongoing research and study, with scientists exploring its potential applications in various fields. As our understanding of 2,6,10,14,18-Eicosapentaen-1-ol,3,7,11,15,19-pentamethyl- grows, it is likely that new uses and benefits will be discovered, further expanding its applications across different industries.

Check Digit Verification of cas no

The CAS Registry Mumber 79577-58-5 includes 8 digits separated into 3 groups by hyphens. The first part of the number,starting from the left, has 5 digits, 7,9,5,7 and 7 respectively; the second part has 2 digits, 5 and 8 respectively.
Calculate Digit Verification of CAS Registry Number 79577-58:
(7*7)+(6*9)+(5*5)+(4*7)+(3*7)+(2*5)+(1*8)=195
195 % 10 = 5
So 79577-58-5 is a valid CAS Registry Number.
InChI:InChI=1/C25H42O/c1-21(2)11-7-12-22(3)13-8-14-23(4)15-9-16-24(5)17-10-18-25(6)19-20-26/h11,13,15,17,19,26H,7-10,12,14,16,18,20H2,1-6H3/b22-13+,23-15+,24-17+,25-19+

79577-58-5Relevant academic research and scientific papers

Staphylococcus aureus penicillin-binding protein 2 can use depsi-lipid ii derived from vancomycin-resistant strains for cell wall synthesis

Nakamura, Jun,Yamashiro, Hidenori,Miya, Hiroto,Nishiguchi, Kenzo,Maki, Hideki,Arimoto, Hirokazu

supporting information, p. 12104 - 12112 (2013/09/23)

Vancomycin-resistant Staphylococcus aureus (S. aureus) (VRSA) uses depsipeptide-containing modified cell-wall precursors for the biosynthesis of peptidoglycan. Transglycosylase is responsible for the polymerization of the peptidoglycan, and the penicillin-binding protein 2 (PBP2) plays a major role in the polymerization among several transglycosylases of wild-type S. aureus. However, it is unclear whether VRSA processes the depsipeptide-containing peptidoglycan precursor by using PBP2. Here, we describe the total synthesis of depsi-lipid I, a cell-wall precursor of VRSA. By using this chemistry, we prepared a depsi-lipid II analogue as substrate for a cell-free transglycosylation system. The reconstituted system revealed that the PBP2 of S. aureus is able to process a depsi-lipid II intermediate as efficiently as its normal substrate. Moreover, the system was successfully used to demonstrate the difference in the mode of action of the two antibiotics moenomycin and vancomycin. Copyright

Synthesis of a comprehensive polyprenol library for the evaluation of bacterial enzyme lipid substrate specificity

Wu, Baolin,Woodward, Robert,Wen, Liuqing,Wang, Xuan,Zhao, Guohui,Wang, Peng George

, p. 8162 - 8173 (2014/01/06)

Polyprenols, a universal class of glycan-carrier lipids, play important roles in glycan biosynthesis in wide variety of living organisms. The chemical synthesis of natural polyisoprenols such as undecaprenol and dolichols, and even more so the synthesis o

Synthesis and NMR characterization of (Z, Z, Z, Z, E, E,ω)- heptaprenol

Hesek, Dusan,Lee, Mijoon,Zajicek, Jaroslav,Fisher, Jed F.,Mobashery, Shahriar

supporting information; experimental part, p. 13881 - 13888 (2012/10/08)

We describe a practical, multigram synthesis of (2Z,6Z,10Z,14Z,18E,22E)-3, 7,11,15,19,23,27-heptamethyl-2,6,10,14,18,22,26-octacosaheptaen-1-ol [(Z 4,E2,ω)-heptaprenol, 4] using the nerol-derived sulfone 8 as the key intermediate. Su

Modular synthesis of diphospholipid oligosaccharide fragments of the bacterial cell wall and their use to study the mechanism of moenomycin and other antibiotics

Gampe, Christian M.,Tsukamoto, Hirokazu,Wang, Tsung-Shing Andrew,Walker, Suzanne,Kahne, Daniel

, p. 9771 - 9778 (2012/02/15)

We present a flexible, modular route to GlcNAc-MurNAc-oligosaccharides that can be readily converted into peptidoglycan (PG) fragments to serve as reagents for the study of bacterial enzymes that are targets for antibiotics. Demonstrating the utility of these synthetic PG substrates, we show that the tetrasaccharide substrate lipid IV (3), but not the disaccharide substrate lipid II (2), significantly increases the concentration of moenomycin A required to inhibit a prototypical PG-glycosyltransferase (PGT). These results imply that lipid IV and moenomycin A bind to the same site on the enzyme. We also show the moenomycin A inhibits the formation of elongated polysaccharide product but does not affect length distribution. We conclude that moenomycin A blocks PG-strand initiation rather than elongation or chain termination. Synthetic access to diphospholipid oligosaccharides will enable further studies of bacterial cell wall synthesis with the long-term goal of identifying novel antibiotics.

Transpeptidase-mediated incorporation of d-amino acids into bacterial peptidoglycan

Lupoli, Tania J.,Tsukamoto, Hirokazu,Doud, Emma H.,Wang, Tsung-Shing Andrew,Walker, Suzanne,Kahne, Daniel

supporting information; experimental part, p. 10748 - 10751 (2011/09/13)

The β-lactams are the most important class of antibiotics in clinical use. Their lethal targets are the transpeptidase domains of penicillin binding proteins (PBPs), which catalyze the cross-linking of bacterial peptidoglycan (PG) during cell wall synthesis. The transpeptidation reaction occurs in two steps, the first being formation of a covalent enzyme intermediate and the second involving attack of an amine on this intermediate. Here we use defined PG substrates to dissect the individual steps catalyzed by a purified E. coli transpeptidase. We demonstrate that this transpeptidase accepts a set of structurally diverse d-amino acid substrates and incorporates them into PG fragments. These results provide new information on donor and acceptor requirements as well as a mechanistic basis for previous observations that noncanonical d-amino acids can be introduced into the bacterial cell wall.

Solid-phase organic synthesis of polyisoprenoid alcohols with traceless sulfone linker

Chang, Yi-Fan,Liu, Chen-Yu,Guo, Chih-Wei,Wang, Yen-Chih,Fang, Jim-Min,Cheng, Wei-Chieh

experimental part, p. 7197 - 7203 (2009/05/09)

(Chemical Equation Presented) Solid-phase organic synthesis of polyprenols with a traceless sulfone linker is described. The polymerbound benezenesulfinate is first linked with the "tail" building blocks of isoprenyl chlorides via S-alkylation. With use of dimsyl anion as an appropriate base, the polymer-bound α-sulfonyl carbanion is generated and coupled with other "body" building blocks in an efficient manner. After repeated processes and a global palladium-catalyzed desulfonation with LiEt3BH as the reducing agent, the desired polyprenols with various chain lengths and geometrical configurations are obtained in 32-59% overall yields. The solid-phase synthesis offers the advantage in facile isolation of polyprenols without tedious operation or time-consuming purification.

SYNTHESIS OF DOLICHOL-TYPE (S)-HEXA- AND (S)-HEPTAPRENOLS

Veselovskii, V. V.,Koptenkova, V. A.,Novikova, M. A.,Moiseenkov, A. M.

, p. 1887 - 1891 (2007/10/02)

(R)-1-Phenylsulfonyl-2-methylbutan-4-ol has been used as starting material for the stepwise synthesis of the dolichol-related hexa- and heptaprenols (S)-3,7,11,15,19,23-hexymethyltetraicosa-6Z,10Z,14E,18E,22-pentaene1-ol and (S)-3,7,-11,15,19,23,27-heptamethyloctaicosa-6Z,10Z,14E,18E,22E,26-hexaen-1-ol.

GENERAL METHOD OF STEREOSPECIFIC SYNTHESIS OF NATURAL POLYPRENOLS. SYNTHESIS OF BETULAPRENOL-6, -7, -8, AND -9

Sato, Kikumasa,Miyamoto, Osamu,Inoue, Seiichi,Furusawa, Fumio,Matsuhasi, Yasusuke

, p. 1105 - 1108 (2007/10/02)

A stereoselective synthesis of (Z,Z,Z)-12-benzyloxy-1-chloro-2,6,10-trimethyldodeca-2,6,10-triene was achieved starting from (Z,Z)-farnesol.All the components of betulaprenols were synthesized using the C15 block 3 and its lower homologue (C10 block) as t

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