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(R)-(-)-5-HEXEN-2-OL, with the molecular formula C6H12O, is a colorless liquid characterized by a strong, sweet, green, and grassy odor. It is a chemical compound that plays a significant role in various industries due to its distinctive scent and properties.

17397-29-4

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17397-29-4 Usage

Uses

Used in Fragrance and Flavor Industry:
(R)-(-)-5-HEXEN-2-OL is used as a key ingredient in the creation of natural and artificial fragrances, contributing to its widespread use in perfumes, colognes, and other scented products. Its unique aroma profile makes it a valuable component in the formulation of various scents.
Used in Food and Beverage Industry:
As a flavoring agent, (R)-(-)-5-HEXEN-2-OL enhances the taste of food products and beverages, adding depth and complexity to their flavor profiles. Its sweet and green notes can complement a variety of culinary applications, from savory to sweet.
Used in Chemical Intermediates Production:
(R)-(-)-5-HEXEN-2-OL serves as a crucial chemical intermediate in the synthesis of other compounds, facilitating the production of various chemical products. Its versatility in chemical reactions makes it an essential component in the manufacturing process.
Used in Household Products:
(R)-(-)-5-HEXEN-2-OL can also be found in some household products, where its pleasant scent and properties contribute to the overall user experience. Its applications in this industry are diverse, ranging from cleaning products to air fresheners.
Safety Considerations:
While (R)-(-)-5-HEXEN-2-OL is considered relatively safe for use in the aforementioned applications, it is important to handle it with care. It can be irritating to the skin, eyes, and respiratory system, necessitating proper precautions during its use and production.

Check Digit Verification of cas no

The CAS Registry Mumber 17397-29-4 includes 8 digits separated into 3 groups by hyphens. The first part of the number,starting from the left, has 5 digits, 1,7,3,9 and 7 respectively; the second part has 2 digits, 2 and 9 respectively.
Calculate Digit Verification of CAS Registry Number 17397-29:
(7*1)+(6*7)+(5*3)+(4*9)+(3*7)+(2*2)+(1*9)=134
134 % 10 = 4
So 17397-29-4 is a valid CAS Registry Number.
InChI:InChI=1/C6H12O/c1-3-4-5-6(2)7/h3,6-7H,1,4-5H2,2H3/t6-/m1/s1

17397-29-4 Well-known Company Product Price

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  • Aldrich

  • (558060)  (R)-(−)-5-Hexen-2-ol  97%

  • 17397-29-4

  • 558060-1G

  • 1,552.59CNY

  • Detail

17397-29-4SDS

SAFETY DATA SHEETS

According to Globally Harmonized System of Classification and Labelling of Chemicals (GHS) - Sixth revised edition

Version: 1.0

Creation Date: Aug 18, 2017

Revision Date: Aug 18, 2017

1.Identification

1.1 GHS Product identifier

Product name (2R)-hex-5-en-2-ol

1.2 Other means of identification

Product number -
Other names (r)-(-)-hydroxyhex-5-ene

1.3 Recommended use of the chemical and restrictions on use

Identified uses For industry use only.
Uses advised against no data available

1.4 Supplier's details

1.5 Emergency phone number

Emergency phone number -
Service hours Monday to Friday, 9am-5pm (Standard time zone: UTC/GMT +8 hours).

More Details:17397-29-4 SDS

17397-29-4Relevant articles and documents

Stereoselective total synthesis of cladospolide A

Rajesh, Karuturi,Suresh, Vangaru,Jon Paul Selvam, Jondoss,Rao, Chitturi Bhujanga,Venkateswarlu, Yenamandra

, p. 1381 - 1385 (2010)

A simple and highly efficient stereoselective total synthesis of cladospolide A, a polyketide natural product, has been achieved. The synthesis involves stereoselective zinc-mediated allylation, pivotal aldol coupling, and ring-closing metathesis. The pivotal aldol coupling is used for the first time for macrolide construction and provides an effective alternative to Yamaguchi macrolactonization. Georg Thieme Verlag Stuttgart · New York.

Anti-prelog microbial reduction of prochiral carbonyl compounds

Fantin, Giancarlo,Fogagnolo, Marco,Giovannini, Pier Paolo,Medici, Alessandro,Pedrini, Paola,Gardini, Fausto,Lanciotti, Rosalba

, p. 3547 - 3552 (1996)

Yarrowia lipolytica strains isolated from various habitats were tested in the reduction of prochiral carbonyl groups. The anti-Prelog reduction (R-enantiomer) is observed with different yields and enantiomeric excesses depending on the structure of the ketones 1a-e.

Synthesis of (+)-xestodecalactone A

Mura Reddy, Gudisela,Prasad, K. R. S.,Reddy, G. Nagendra,Sridhar, Gattu

, (2021)

The total synthesis of Benzannulated macrolide, (+)-Xestodecalactone A was accomplished starting from commercially available enantiomerically pure propylene oxide and 3,5-dihydroxyphenylacetic acid using Grignard reaction, alkylation of 1,3-dithiane and Y

Total synthesis and cytotoxic activity of dechlorogreensporones A and D

Jeanmard, Laksamee,Iawsipo, Panata,Panprasert, Jiraporn,Rukachaisirikul, Vatcharin,Tadpetch, Kwanruthai

, p. 4521 - 4529 (2018)

The first and convergent total syntheses of polyketide natural products dechlorogreensporones A and D have been accomplished in 17 longest linear steps with 2.8% and 5.4% overall yields, respectively, starting from known methyl 2-(2-formyl-3,5-dihydroxyphenyl)acetate and commercially available R-(+)-propylene oxide and 1,2-epoxy-5-hexene. Our synthesis exploited key Mitsunobu esterification and (E)-selective ring-closing metathesis (RCM) to assemble the macrocycles as well as a Jacobsen hydrolytic kinetic resolution to install the stereogenic centers. Both synthetic compounds were found to display significant cytotoxic activity against seven human cancer cell lines with the IC50 ranges of 6.66–17.25 μM.

Concise enantioselective synthesis of cephalosporolide B, (4R)-4-OMe-cephalosporolide C, and (4S)-4-OMe-cephalosporolide C

Ma, Bin,Zhong, Zhuliang,Hu, Haitao,Li, Huilin,Zhao, Changgui,Xie, Xingang,She, Xuegong

, p. 1391 - 1394 (2013)

Ring around the rosie: The effective enantioselective synthesis of the antimalarial nonenolide title compounds was achieved in a convergent strategy. Oxy-Michael addition reaction was used to introduce the chiral methoxy group at C-4, and ring-closing metathesis (RCM) reaction (53 % yield) facilitated the key construction of the 10-membered ring.

A Nazarov-Ene Tandem Reaction for the Stereoselective Construction of Spiro Compounds

Etling, Christoph,Tedesco, Giada,Kalesse, Markus

supporting information, p. 9257 - 9262 (2021/06/01)

The different reactivity of trienones under Lewis and Br?nsted acids catalysis was investigated, resulting in distinct cyclization products and carbon backbones that originated either from a conjugate Prins cyclization or an interrupted Nazarov cyclizatio

Methylene-Linked Bis-NHC Half-Sandwich Ruthenium Complexes: Binding of Small Molecules and Catalysis toward Ketone Transfer Hydrogenation

Botubol-Ares, José Manuel,Cordón-Ouahhabi, Safa,Moutaoukil, Zakaria,Collado, Isidro G.,Jiménez-Tenorio, Manuel,Puerta, M. Carmen,Valerga, Pedro

supporting information, p. 792 - 803 (2021/04/06)

The complex [Cp*RuCl(COD)] reacts with LH2Cl2 (L = bis(3-methylimidazol-2-ylidene)) and LiBun in tetrahydrofuran at 65 °C furnishing the bis-carbene derivative [Cp*RuCl(L)] (2). This compound reacts with NaBPh4 in MeOH under dinitrogen to yield the labile dinitrogen-bridged complex [{Cp*Ru(L)}2(μ-N2)][BPh4]2 (4). The dinitrogen ligand in 4 is readily replaced by a series of donor molecules leading to the corresponding cationic complexes [Cp*Ru(X)(L)][BPh4] (X = MeCN 3, H2 6, C2H4 8a, CH2CHCOOMe 8b, CHPh 9). Attempts to recrystallize 4 from MeNO2/EtOH solutions led to the isolation of the nitrosyl derivative [Cp*Ru(NO)(L)][BPh4]2 (5), which was structurally characterized. The allenylidene complex [Cp*Ru═C═C═CPh2(L)][BPh4] (10) was also obtained, and it was prepared by reaction of 2 with HCCC(OH)Ph2 and NaBPh4 in MeOH at 60 °C. Complexes 3, 4, and 6 are efficient catalyst precursors for the transfer hydrogenation of a broad range of ketones. The dihydrogen complex 6 has proven particularly effective, reaching TOF values up to 455 h-1 at catalyst loadings of 0.1% mol, with a high functional group tolerance on the reduction of a broad scope of aryl and aliphatic ketones to yield the corresponding alcohols.

Enantiopure 2,9-Dideuterodecane – Preparation and Proof of Enantiopurity

Christoffers, Jens,Eru?ar, Gülsera,Fsadni, Miriam H.,Golding, Bernard T.,Mitschke, Nico,Roberts, Amy R.,Sadeghi, Majid M.,Wilkes, Heinz

, p. 3854 - 3863 (2021/08/24)

(R,R)- and (S,S)-(2,9-2H2)-n-Decane were prepared regio- and stereospecifically in 25–26 % yield over five steps from commercially available enantiopure (R)- and (S)-propylene oxide, respectively. The synthetic procedure involved nucleophilic displacement of (R)- and (S)-4-toluenesulfonic acid 1-methyl-4-pentenyl ester with LiAlD4 to furnish the respective (5-2H)-1-hexenes. Subsequent olefin metathesis and reduction of the double bond furnished the title compounds. The optical purity of (R,R)- and (S,S)-(2,9-2H2)-n-decane could not be determined by chromatography or polarimetry. Therefore, (R,R)- and (R,S)-(5-2H)-3-hydroxy-2-hexanone were prepared from their respective hexenes by Wacker oxidation, followed by enantioselective α-hydroxylation. The enantiopurity could then be determined by NMR spectroscopy because the stereospecifically deuterated hydroxyketones showed separated signals for the subterminal carbon atom (C-5) in the 13C NMR spectrum.

Chromium-Catalyzed Production of Diols From Olefins

-

Paragraph 0111, (2021/03/19)

Processes for converting an olefin reactant into a diol compound are disclosed, and these processes include the steps of contacting the olefin reactant and a supported chromium catalyst comprising chromium in a hexavalent oxidation state to reduce at least a portion of the supported chromium catalyst to form a reduced chromium catalyst, and hydrolyzing the reduced chromium catalyst to form a reaction product comprising the diol compound. While being contacted, the olefin reactant and the supported chromium catalyst can be irradiated with a light beam at a wavelength in the UV-visible spectrum. Optionally, these processes can further comprise a step of calcining at least a portion of the reduced chromium catalyst to regenerate the supported chromium catalyst.

Photoinduced Palladium-Catalyzed Dicarbofunctionalization of Terminal Alkynes

Yang, Zhen,Koenigs, Rene M.

supporting information, p. 3694 - 3699 (2021/02/01)

Herein, a conceptually distinct approach was developed that allowed for the dicarbofunctionalization of alkynes at room temperature using simple, bench-stable alkyl iodides and a second molecule of alkyne as coupling partner. Specifically, the photochemical activation of palladium complexes enabled this strategic dicarbofunctionalization via addition of alkyl radicals from secondary and tertiary alkyl iodides and formation of an intermediate palladium vinyl complex that could undergo subsequent Sonogashira reaction with a second alkyne molecule. This alkylation–alkynylation sequence allowed the one-step synthesis of 1,3-enynes including heteroarenes and biologically active compounds with high efficiency without exogenous photosensitizers or oxidants and now opens up pathways towards cascade reactions via photochemical palladium catalysis.

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