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Cyclobutane is a colorless, flammable, and explosive gas that condenses to a liquid at 55°F with a density of 0.7 g/cm3. It is insoluble in water but soluble in alcohol, acetone, and ether. Due to its chemical properties, containers may rupture violently and rocket under prolonged exposure to fire or intense heat.

287-23-0

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287-23-0 Usage

Uses

Used in Chemical Industry:
Cyclobutane is used as a chemical intermediate for the synthesis of various organic compounds, such as pharmaceuticals, agrochemicals, and specialty chemicals. Its reactivity and ability to form multiple bonds make it a valuable component in the production of complex molecules.
Used in Petroleum Industry:
Cyclobutane is used as a component in the production of high-octane gasoline, which is essential for improving the performance and efficiency of internal combustion engines. Its presence in gasoline formulations helps to reduce engine knocking and increase power output.
Used in Polymer Industry:
Cyclobutane is used as a monomer in the production of polymers, such as polybutylene terephthalate (PBT) and polycyclobutane. These polymers have unique properties, including high melting points, excellent chemical resistance, and good mechanical strength, making them suitable for various applications, including automotive, electronics, and packaging industries.
Used in Propellant Industry:
Due to its high energy content and explosive properties, Cyclobutane is used as a propellant in various applications, such as rocketry, fireworks, and military ordnance. Its ability to release a large amount of energy upon ignition makes it an effective propellant for these purposes.
Used in Research and Development:
Cyclobutane is used as a research compound in the development of new chemical processes, materials, and technologies. Its unique properties and reactivity make it an interesting subject for scientific investigation and potential applications in various fields.

Production Methods

Cyclobutane is produced from cyclobutene and reutilized in catalytic cracking processes.

Air & Water Reactions

Highly flammable. Insoluble in water.

Reactivity Profile

CYCLOBUTANE may be incompatible with strong oxidizing agents like nitric acid. Charring may occur followed by ignition of unreacted material and other nearby combustibles. In other settings, mostly unreactive. Not affected by aqueous solutions of acids, alkalis, most oxidizing agents, and most reducing agents.

Health Hazard

Vapors may cause dizziness or asphyxiation without warning. Some may be irritating if inhaled at high concentrations. Contact with gas or liquefied gas may cause burns, severe injury and/or frostbite. Fire may produce irritating and/or toxic gases.

Fire Hazard

EXTREMELY FLAMMABLE. Will be easily ignited by heat, sparks or flames. Will form explosive mixtures with air. Vapors from liquefied gas are initially heavier than air and spread along ground. CAUTION: Hydrogen (UN1049), Deuterium (UN1957), Hydrogen, refrigerated liquid (UN1966) and Methane (UN1971) are lighter than air and will rise. Hydrogen and Deuterium fires are difficult to detect since they burn with an invisible flame. Use an alternate method of detection (thermal camera, broom handle, etc.) Vapors may travel to source of ignition and flash back. Cylinders exposed to fire may vent and release flammable gas through pressure relief devices. Containers may explode when heated. Ruptured cylinders may rocket.

Purification Methods

This easily liquefiable gas is dried over Na at melting ice temperature for 4days and distilled at low temperature through a Podbielniak (p 10) precision still. A dry sample has been prepared by passage through P2O5 and distilled repeatedly until all fractions had similar vapour pressures at 0o. [Cansson & Wat J Org Chem 14 31 1949, Heisig J Am Chem Soc 63 1698 1941, Stodola & Heisig Org Synth Coll Vol III 213 1955.]

Check Digit Verification of cas no

The CAS Registry Mumber 287-23-0 includes 6 digits separated into 3 groups by hyphens. The first part of the number,starting from the left, has 3 digits, 2,8 and 7 respectively; the second part has 2 digits, 2 and 3 respectively.
Calculate Digit Verification of CAS Registry Number 287-23:
(5*2)+(4*8)+(3*7)+(2*2)+(1*3)=70
70 % 10 = 0
So 287-23-0 is a valid CAS Registry Number.
InChI:InChI=1/C4H8/c1-2-4-3-1/h1-4H2

287-23-0SDS

SAFETY DATA SHEETS

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

Version: 1.0

Creation Date: Aug 19, 2017

Revision Date: Aug 19, 2017

1.Identification

1.1 GHS Product identifier

Product name Cyclobutane

1.2 Other means of identification

Product number -
Other names CYCLOBUTANE

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:287-23-0 SDS

287-23-0Relevant academic research and scientific papers

Photodissociation of Tetramethylene Sulfoxide at 193 and 248 nm in the Gas Phase

Wu, Fei,Chen, Xirong,Weiner, Brad R.

, p. 17380 - 17385 (1995)

The 193 and 248 nm photodissociation of tetramethylene sulfoxide (TMSO) in the gas phase has been investigated by using laser spectroscopic techniques.The vibrational state distributions of the nascent SO(X3Σ-) photofragment following irradiation at 193 and 248 nm have been measured by using laser-induced fluorescence (LIF) spectroscopy on the B3Σ- - X3Σ- transition.These vibrational state distributions can be characterized as Boltzmann with vibrational temperatures of 1250 +/- 60 and 1220 +/- 60 K for the 193 and 248 nm photolyses, respectively.Assuming that the SO photofragment is produced in concert with a 1,4-tetramethylene diradical, the vibrational state distribution obtained in the 193 nm photolysis agrees well with an energy disposal model, in which the full reaction exoergicity is statistically partitioned among all the products' degrees of freedom.The quantum yield for SO(X3Σ-) production at 193 nm, Φ193SO = 0.47 +/- 0.20, has been obtained by comparison with SO2 photolysis.For the 248 nm photodissociation, the experimentally obtained vibrational state distribution can be best described by a variant statistical model assuming three-body fragmentation; i.e. the products are an SO fragment and two ethylene molecules.The quantum yield for SO(X3Σ-) production at 248 nm is Φ248SO = 0.44 +/- 0.19.The OH photofragment has been detected during both the 193 and 248 nm photolyses of TMSO.The rotational state distributions of the OH(X2Π, ν'' = 0) fragment have been determined by LIF spectroscopy using the A2Σ-X2Π transition.The hydroxyl rotational temperatures can be characterized as 600 +/- 50 and 510 +/- 40 K following photolysis of TMSO at 193 and 248 nm, respectively.Mechanisms for the production of both SO and OH are discussed.

The Photocycloaddition of Acetylacetone with Naphthols and their Methyl Ethers

Chow, Yuan L.,Buono-Core, Gonzalo E.,Liu, Xiao-Yun,Itoh, Kuniaki,Qian, Ping

, p. 913 - 915 (1987)

Whereas irradiation of a mixture of a naphthol (or its methyl ether) and acetylacetone with excitation of the naphthol component leads to no reaction, irradiation of a similar mixture with excitation of the acetylacetone component leads to its cycloaddition to the naphthalene derivative to give a cyclobutane as the primary photoproduct.

Exploring C(sp3)–C(sp3) reductive elimination from an isolable iron metallacycle

Joannou, Matthew V.,Darmon, Jonathan M.,Bezdek, Máté J.,Chirik, Paul J.

, p. 308 - 317 (2019/01/04)

A six-coordinate iron metallacyclopentane, (phen)2Fe(CH2)4, supported by two 1,10-phenanthroline (phen) ligands, has been synthesized and structurally and spectroscopically characterized. The complex is diamagnetic and an idealized octahedral geometry was observed in the solid state. The electronic structure of (phen)2Fe(CH2)4 was determined by a combination of X-ray diffraction, M?ssbauer spectroscopy, and DFT analyses and is best described as a low-spin Fe(III) center antiferromagnetically coupled to a radical anion delocalized equally over both phen ligands. The reactivity of (phen)2Fe(CH2)4 under different conditions was explored. Thermolysis or photolysis promoted elimination reactions and mixtures of isomeric butenes and butane were observed. Reactions of (phen)2Fe(CH2)4 with ethylene and isoprene yielded 3% and 11% of reductive elimination product cyclobutane, respectively, along with butane and butene isomers. Addition of π-accepting ligands such as carbon monoxide, maleic anhydride, or 1,4-benzoquinone to (phen)2Fe(CH2)4 promoted C(sp3)-C(sp3) reductive elimination as judged by high selectivity for cyclobutane formation. Two electron oxidation of (phen)2Fe(CH2)4 with two equivalents of ferrocenium tetraphenylborate also exclusively yielded cyclobutane in 95% yield. The electronic structure and reactivity of related bis(bipyridine) iron dialkyl compounds previously isolated by Kochi and co-workers were also revisited and their electronic structures revised based on structural, spectroscopic and computational data.

Palladium-Catalyzed, Norbornene-Mediated, ortho-Amination ipso-Amidation: Sequential C-N Bond Formation

Whyte, Andrew,Olson, Maxwell E.,Lautens, Mark

supporting information, p. 345 - 348 (2018/01/27)

A palladium-catalyzed, norbornene-mediated ortho- and ipso-C-N bond-forming Catellani reaction is reported. This reaction proceeds through a sequential intermolecular amination followed by intramolecular cyclization of a tethered amide. The products, ortho-aminated dihydroquinolinones, were generated in moderate to good yields and are present in bioactive molecules. This work highlights the challenge of competing intra- vs intermolecular palladium-catalyzed processes.

Inter-conversion of light olefins on ZSM-5 in catalytic naphtha cracking condition

Liu, Dan,Choi, Won Choon,Kang, Na Young,Lee, You Jin,Park, Hun Soo,Shin, Chae-Ho,Park, Yong-Ki

, p. 52 - 66 (2014/03/21)

The inter-conversion of light olefins over four types of HZSM-5 based catalysts under cracking conditions was investigated systematically and various methods including XRD, Ar adsorption-desorption, NH3-TPD, 27Al and 31P MAS-NMR were used to characterize the effects of P modification and steaming on ZSM-5. Regardless the types of catalyst, the same behaviors of light olefin inter-conversion were observed only depending on conversion of light olefins. Also, the conversion and selectivity were not influenced by the presence of hydrogen, suggesting that light paraffins were mainly produced from hydrogen transfer during cracking rather than hydrogenation of light olefins. It can be suggested that the inter-conversion of light olefins occurs through oligomerization of light olefins and then re-cracking of the oligomerized products. To guarantee high light olefin yield in catalytic naphtha cracking, it is strongly required to suppress oligomerization of light olefins during catalytic cracking.

Accuracy of calculations of heats of reduction/hydrogenation: Application to some small ring systems

Wiberg, Kenneth B.

, p. 10393 - 10398 (2013/01/15)

The enthalpies of reduction of carbonyl compounds and hydrogenation of alkenes have been calculated at the HF, B3LYP, M06, MP2, G3, G4, CBS-QB3, CBS-APNO, and W1BD levels and, in the case of the first four methods, using a variety of basis sets up to aug-cc-pVTZ. The results are compared with the available experimental data, and it is found that the compound methods are generally more satisfactory than the others. Large basis sets are usually needed in order to reproduce experiments. Some C-C bond hydrogenolysis reactions also have been examined including those of bicycloalkanes and propellanes. In addition, the dimerization of the remarkably strained bicyclo[2.2.0]hex(1,4)ene was studied. The reaction forming a pentacyclic propellane was calculated to have ΔH = -57 kcal/mol, and the cleavage of the propellane to give a diene had ΔH = -71 kcal/mol. The strain energies of these compounds were estimated.

Total synthesis and revised structure of biyouyanagin A

Nicolaou,Sarlah, David,Shaw, David M.

, p. 4708 - 4711 (2008/02/10)

(Chemical Equation Presented) It all adds up: A 12-step total synthesis of biyouyanagin A, an inhibitor of HIV replication, has revealed its structure, rendered it available for biological investigations, and allows the synthesis of analogues. The convergent synthesis involves two cascade sequences and a remarkably selective [2+2] cycloaddition reaction to forge the cyclobutane ring of the target molecule in the ultimate step.

Flash vacuum pyrolysis over magnesium. Part 1 - Pyrolysis of benzylic, other aryl/alkyl and aliphatic halides

Aitken, R. Alan,Hodgson, Philip K.G.,Morrison, John J.,Oyewale, Adebayo O.

, p. 402 - 415 (2007/10/03)

Flash vacuum pyrolysis over a bed of freshly sublimed magnesium on glass wool results in efficient coupling of benzyl halides to give the corresponding bibenzyls. Where an ortho halogen substituent is present further dehalogenation gives some dihydroanthracene and anthracene. Efficient coupling is also observed for halomethylnaphthalenes and halodiphenylmethanes while chlorotriphenylmethane gives 4,4′-bis(diphenylmethyl)biphenyl. By using α,α′-dihalo-o-xylenes, benzocyclobutenes are obtained in good yield, while the isomeric α,α′-dihalo-p-xylenes give a range of high thermal stability polymers by polymerisation of the initially formed p-xylylenes. Other haloalkylbenzenes undergo largely dehydrohalogenation where this is possible, in some cases resulting in cyclisation. Deoxygenation is also observed with haloalkyl phenyl ketones to give phenylalkynes as well as other products. With simple alkyl halides there is efficient elimination of HCl or HBr to give alkenes. For aliphatic dihalides this also occurs to give dienes but there is also cyclisation to give cycloalkanes and dehalogenation with hydrogen atom transfer to give alkenes in some cases. For 5-bromopent-1-ene the products are those expected from a radical pathway but for 6-bromohex-1-ene they are clearly not. For 2,2-dichloropropane and 1,1-dichloropropane elimination of HCl occurs but for 1,1-dichlorobutane, -pentane and -hexane partial hydrolysis followed by elimination of HCl gives E, E-, E,Z- and Z,Z- isomers of the dialk-1-enyl ethers and fully assigned 13C NMR data are presented for these. With 6-chlorohex-1-yne and 7-chlorohept-1-yne there is cyclisation to give methylenecycloalkanes and -cycloalkynes. The behaviour of 1,2-dibromocyclohexane and 1,2-dichlorocyclooctane under these conditions is also examined. Various pieces of evidence are presented that suggest that these processes do not involve generation of free gas-phase radicals but rather surface-adsorbed organometallic species.

Tricyclic inhibitors of the GPIIb IIIa receptor

-

, (2008/06/13)

A tricylic benzodiazepine derivative that acts as a nonpeptidyl platelet aggregation inhibitor is provided. This inhibitor potently inhibits fibrinogen binding to the GPIIb IIIa receptor and is provided in therapeutic compositions for the treatment of diseases for which blocking platelet aggregation is indicated. These nonpeptidyl inhibitors are provided in combination with thrombolytics and anticoagulants.

Tricyclic inhibitors of the vitronectin receptor

-

, (2008/06/13)

A tricylic benzodiazepine derivative that acts as a nonpeptidyl platelet aggregation inhibitor is provided. This inhibitor potently inhibits fibrinogen binding to the GPIIb IIIa receptor and is provided in therapeutic compositions for the treatment of diseases for which blocking platelet aggregation is indicated. These nonpeptidyl inhibitors are provided in combination with thrombolytics and anticoagulants.

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