108-31-6

  • Product NameMaleic anhydride
  • Molecular FormulaC2H2(CO)2O
  • Molecular Weight98.0581
  • Purity99%
  • Appearancewhite crystals
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Product Details

Quick Details

  • CasNo: 108-31-6
  • Molecular Formula: C2H2(CO)2O
  • Appearance: white crystals
  • Purity: 99%

Top Quality Chinese Factory supply 108-31-6 Maleic anhydride

  • Molecular Formula:C2H2(CO)2O
  • Molecular Weight:98.0581
  • Appearance/Colour:white crystals 
  • Vapor Pressure:0.16 mm Hg ( 20 °C) 
  • Melting Point:52.8 °C, 326 K, 127 °F 
  • Refractive Index:1.554 
  • Boiling Point:202 °C, 475 K, 396 °F 
  • PKA:0[at 20 ℃] 
  • Flash Point:218°F 
  • PSA:43.37000 
  • Density:1.484 g/cm3  
  • LogP:-0.37400 

Maleic anhydride(Cas 108-31-6) Usage

Chemical Description

Maleic anhydride is an organic compound used in the production of polyester resins and other chemicals.

Production Methods

Maleic anhydride was traditionally manufactured by the oxidation of benzene or other aromatic compounds. As of 2006, only a few smaller plants continue to use benzene; due to rising benzene prices, most maleic anhydride plants now use n-butane as a feedstock. In both cases, benzene and butane are fed into a stream of hot air, and the mixture is passed through a catalyst bed at high temperature. The ratio of air to hydrocarbon is controlled to prevent the mixture from catching on fire. Vanadium pentoxide and molybdenum trioxide are the catalysts used for the benzene route, whereas vanadium and phosphorus oxides are used for the butane route. 2 CH3CH2CH2CH3 + 7 O2 → 2 C2H2(CO)2O + 8 H2O.

Preparation

To a flask equipped with a Dean-Stark trap, condenser, and mechanical stirrer is added 116 gm (1.0 mole) of maleic acid and 120 ml of tetrachloroethane. The contents are heated, the water (18 ml, 1.0 mole) distilled off as the azeotrope, and the residue distilled under reduced pressure to afford 87.7 gm (89.5%) of the anhydride, b.p. 82-84°C (15 mm), m.p. 53°C. The residue remaining in the flask consists of about 10 gm of fumaric acid, m.p. 287°C. Fumaric and maleic acids both give maleic anhydride on heating. Fumaric acid must first be heated to a higher temperature to effect its conversion to maleic acid prior to its dehydration.

Reactions

The chemistry of maleic anhydride is very rich, reflecting its ready availability and bifunctional reactivity. It hydrolyzes, producing maleic acid, cis-HOOC–CH=CH–COOH. With alcohols, the halfester is generated, e.g., cis-HOOC–CH=CH–COOCH3. Maleic anhydride is a potent dienophile in Diels-Alder reactions. It is also a ligand for low-valent metal complexes, examples being Pt(PPh3)2(MA) and Fe(CO)4(MA). Maleic anhydride dimerizes in a photochemical reaction to form cyclo butane tetra carboxylic dianhydride (CBTA). This compound is used in the production of polyimides and as an alignment film for liquid crystal displays.

Synthesis Reference(s)

The Journal of Organic Chemistry, 60, p. 6676, 1995 DOI: 10.1021/jo00126a013

Air & Water Reactions

Soluble in water. Reacts slowly with water to form maleic acid and heat.

Reactivity Profile

Maleic anhydride react vigorously on contact with oxidizing materials. Reacts exothermically with water or steam. Undergoes violent exothermic decomposition reactions, producing carbon dioxide, in the presence of strong bases (sodium hydroxide, potassium hydroxide, calcium hydroxide), alkali metals (lithium, sodium, potassium), aliphatic amines (dimethylamine, trimethylamine), aromatic amines (pyridine, quinoline) at temperatures above 150° C [Vogler, C. A. et al., J. Chem. Eng. Data, 1963, 8, p. 620]. A 0.1% solution of pyridine (or other tertiary amine) in Maleic anhydride at 185°C gives an exothermic decomposition with rapid evolution of gas [Chem Eng. News 42(8); 41 1964]. Maleic anhydride is known as an excellent dienophile in the Diels-Alder reaction to produce phthalate ester derivatives. These reactions can be extremely violent, as in the case of 1-methylsilacyclopentadiene [J. Organomet., Chem., 1979, 179, c19]. Maleic anhydride undergoes a potentially explosive exothermic Diels-Alder reaction with 1-methylsilacyclopenta-2,4-diene at 150C [Barton, T. J., J. Organomet. Chem., 1979, 179, C19], and is considered an excellent dieneophile for Diels-alder reactions [Felthouse, Timothy R. et al. "Maleic anhydride , Maleic Acid, and Fumaric Acid." Kirk-Othmer Encyclopedia of Chemical Technology. John Wiley & Sons, Inc. 2005].

Hazard

Irritant to tissue. Dermal and respiratory sensitization. Questionable carcinogen.

Health Hazard

Inhalation causes coughing, sneezing, throat irritation. Skin contact causes irritation and redness. Vapors cause severe eye irritation; photophobia and double vision may occur.

Fire Hazard

Behavior in Fire: When heated above 300°F in the presence of various materials may generate heat and carbon dioxide. Will explode if confined.

Flammability and Explosibility

Nonflammable

Safety Profile

Poison by ingestion and intraperitoneal routes. Moderately toxic by skin contact. A corrosive irritant to eyes, skin, and mucous membranes. Can cause pulmonary edema. Questionable carcinogen with experimental tumorigenic data. Mutation data reported. A pesticide. Combustible when exposed to heat or flame; can react vigorously on contact with oxidizing materials. Explosive in the form of vapor when exposed to heat or flame. Reacts with water or steam to produce heat. Violent reaction with bases (e.g., sodmm hydroxide, potassium hydroxide, calcium hydroxide), dkah metals (e.g., sodium, potassium), amines (e.g., dimethylamine, triethylamine), lithium, pyridine. To fight fire, use alcohol foam. Incompatible with cations. When heated to decomposition (above 150℃) it emits acrid smoke and irritating fumes. See also ANHYDRIDES.

Potential Exposure

Maleic anhydride is used in unsaturated polyester resins; Agricultural chemical, and lubricating additives; in the manufacture of unsaturated polyester resins; in the manufacture of fumaric acid; in alkyd resin manufacture; in the manufacture of pesticides e.g., malathion, maleic hydrazide, and captan).

Shipping

UN2215 Maleic anhydride, Hazard class: 8; Labels: 8-Corrosive material. Maleic Anhydride is commercialized and transported in the solid and molten forms. The molten Maleic Anhydride is transported at temperatures ranging from 60 to 80°C in well-insulated tank containers or road tankers provided with heating devices. In the solid form, it can be transported as pastilles, which are usually packed in polyethylene bags of 25 kg and transported either by rail tanker or by truck.

Purification Methods

Crystallise it from *benzene, CHCl3, CH2Cl2 or CCl4. Sublime it under reduced pressure. [Skell et al. J Am Chem Soc 108 6300 1986, Beilstein 17 III/IV 5897, 17/11 V 55.]

Toxicity evaluation

Maleic anhydride was described as having anticarcinogenic properties, and some of the maleic copolymers can have biologic activity by themselves, especially antitumor activity. Information related to this compound is contradictory. Chromosomal aberrations in cultured hamster cells but no mutagenicity in in vitro tests in bacteria have been reported. No effects on cholinesterase activity have been described after exposure to maleic anhydride.

Incompatibilities

Reacts slowly with water (hydrolyzes) to form maleic acid, a medium-strong acid. Dust may form explosive mixture with air. Reacts with strong oxidizers, oil, water, alkali metals; strong acids; strong bases. Violent reaction with alkali metals and amines above 66C. Dangerous reaction with oxidizers, amines, alkali metals, and hydroxides. Compounds of the carboxyl group react with all bases, both inorganic and organic (i.e., amines) releasing substantial heat, water and a salt that may be harmful. Incompatible with arsenic compounds (releases hydrogen cyanide gas), diazo compounds, dithiocarbamates, isocyanates, mercaptans, nitrides, and sulfides (releasing heat, toxic, and possibly flammable gases), thiosulfates and dithionites (releasing hydrogen sulfate and oxides of sulfur)

Waste Disposal

Consult with environmental regulatory agencies for guidance on acceptable disposal practices. Generators of waste containing this contaminant (≥100 kg/mo) must conform to EPA regulations governing storage, transportation, treatment, and waste disposal. Controlled incineration: care must be taken that complete oxidation to nontoxic products occurs.

Physical properties

White, hydroscopic crystals (usually shipped as briquettes). Odor threshold concentration is 0.32 ppm (quoted, Amoore and Hautala, 1983).

Definition

ChEBI: Maleic anhydride is a cyclic dicarboxylic anhydride that is the cyclic anhydride of maleic acid. It has a role as an allergen. It is a cyclic dicarboxylic anhydride and a member of furans.

General Description

Colorless crystalline needles, flakes, pellets, rods, briquettes, lumps or a fused mass. Melts at 113°F. Shipped both as a solid and in the molten state. Vapors, fumes and dusts strong irritate the eyes, skin and mucous membranes. Flash point 218°F. Autoignition temperature 890°F. Used to make paints and plastics and other chemicals.

InChI:InChI=1S/C4H2O3/c5-3-1-2-4(6)7-3/h1-2H

108-31-6 Relevant articles

Surface dynamics of a vanadyl pyrophosphate catalyst for n-butane oxidation to maleic anhydride: An in situ Raman and reactivity study of the effect of the P/V atomic ratio

Cavani, Fabrizio,Luciani, Silvia,Esposti, Elisa Degli,Cortelli, Carlotta,Leanza, Roberto

, p. 1646 - 1655 (2010)

This work focused on investigating the e...

Structure Sensitivity of the Catalytic Oxidation of n-Butane to Maleic Anhydride

Cavani, Fabrizio,Centi, Gabriele,Trifiro, Ferruccio

, p. 492 - 494 (1985)

Disorder along the (020) cleavage plane ...

ΑII-(V1-xWx)OPO4 catalysts for the selective oxidation of n-butane to maleic anhydride

Schulz,Roy,Wittich,d'Alnoncourt, R. Naumann,Linke,Strempel,Frank,Glaum,Rosowski

, p. 113 - 119 (2019)

The vanadyl pyrophosphate (VPP) based ca...

In Situ FTIR Spectroscopy of 1-Butene and 1,3-Butadiene Selective Oxidation to Maleic Anhydride on V-P-O Catalysts

Wenig, Robert W.,Schrader, Glenn L.

, p. 1911 - 1918 (1987)

The selective oxidation of 1-butene and ...

In situ Raman spectroscopic investigation of surface redox mechanism of vanadyl pyrophosphate

Koyano, Gaku,Saito, Takaya,Misono, Makoto

, p. 415 - 416 (1997)

-

Activity and Selectivity in Catalytic Reactions of Buta-1,3-diene and But-1-ene on Supported Vanadium Oxides

Mori, Kenji,Miyamoto, Akira,Murakami, Yuichi

, p. 13 - 34 (1986)

The activity and selectivity in the oxid...

Effects of cobalt additive on amorphous vanadium phosphate catalysts prepared using precipitation with supercritical co2 as an antisolvent

Lopez-Sanchez, J. Antonio,Bartley, Jonathan K.,Burrows, Andrew,Kiely, Christopher J.,Haevecker, Michael,Schloegl, Robert,Volta, Jean Claude,Poliakoff, Martin,Hutchings, Graham J.

, p. 1811 - 1816 (2002)

The effect of addition of cobalt to an a...

-

Cherbuliez,E. et al.

, p. 458 - 464 (1960)

-

Surface Acidity of Vanadyl Pyrophosphate, Active Phase in n-Butane Selective Oxidation

Busca, Guido,Centi, Gabriele,Trifiro, Ferruccio,Lorenzelli, Vincenzo

, p. 1337 - 1344 (1986)

The surface acidity of two (VO)2P2O7cata...

-

Ai

, p. 761,762-765 (1971)

-

-

Ai

, p. 2766,2767 (1979)

-

Preparation and characterization of vanadyl hydrogen phosphate hydrates; VO(HPO4)*1.5 H2O and VO(HPO4)*0.5 H2O

Matsuura, Ikuya,Ishimura, Tomohiro,Kimura, Naomasa

, p. 769 - 770 (1995)

A new phase of vanadyl(IV) hydrogen phos...

-

Varma,Saraf

, p. 361,365,366,371 (1978)

-

X-Ray Study of a Vanadium-Phosphorus Mixed Oxide Catalyst for Selective Butane Oxidation to Maleic Anhydride

Bergeret, G.,Broyer, J. P.,David, M.,Gallezot, P.,Volta, J. C.,Hecquet, G.

, p. 825 - 826 (1986)

The radical electron distribution obtain...

NATURE OF THE DONOR-ACCEPTOR REACTION OF MALEIC ANHYDRIDE WITH THE VINYL ETHER OF BENZYL ALCOHOL

Petrova, T. L.,Smirnov, A. I.,Ratovskii, G. V.,Chuvashev, D. D.,Modonov, V. B.,et al.

, p. 1371 - 1376 (1985)

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Effects of Consecutive Oxidation on the Production of Maleic Anhydride in Butane Oxidation over Four Kinds of Well-Characterized Vanadyl Pyrophosphates

Igarashi, Hiroshi,Tsuji, Katsuyuki,Okuhara, Toshio,Misono, Makoto

, p. 7065 - 7071 (1993)

Factors determining the selectivity of b...

Diels-Alder reaction of vinylene carbonate and 2,5-dimethylfuran: Kinetic vs. thermodynamic control

Taffn, Celine,Kreutler, Glenda,Bourgeois, Damien,Clot, Eric,Perigaud, Christian

, p. 517 - 525 (2010)

The Diels - Alder reaction between 2,5-d...

Fundamental studies of butane oxidation over model-supported vanadium oxide catalysts: Molecular structure-reactivity relationships

Wachs, Israel E.,Jehng, Jih-Mirn,Deo, Goutam,Weckhuysen, Bert M.,Guliants,Benziger,Sundaresan

, p. 75 - 88 (1997)

The oxidation of n-butane to maleic anhy...

Ionization and Intramolecular Reactions of N,N-Bis- and N,N-Bismaleamic Acids. An Enzyme Model

Suh, Junghun,Kim, Mahn Joo,Seong, Nak Jin

, p. 4354 - 4358 (1981)

N,N-Bismaleamic acid (1) and N,N-bismale...

Selective aerobic oxidation of furfural to maleic anhydride with heterogeneous Mo-V-O catalysts

Li, Xiukai,Ho, Ben,Zhang, Yugen

, p. 2976 - 2980 (2016)

A heterogeneous catalytic system using b...

Significant catalytic recovery of spent industrial DuPont catalysts by surface deposition of an amorphous vanadium-phosphorus oxide phase

Blanco, Raquel Mateos,Shekari, Ali,Carrazán, Silvia González,Bordes-Richard, Elisabeth,Patience, Gregory S.,Ruiz, Patricio

, p. 48 - 52 (2013)

DuPont's vanadium phosphorous oxide cata...

Selectivity and Activity in the Oxidation of Benzene, 1-Butene, and 1,3-Butadiene on Supported Vanadium Oxide Catalysts

Mori, Kenji,Inomata, Makoto,Miyamoto, Akira,Murakami, Yuichi

, p. 4560 - 4561 (1983)

Selectivity with respect to partial oxid...

Synthesis of vanadium phosphorus oxide catalysts promoted by iron-based ionic liquids and their catalytic performance in selective oxidation of: n -butane

Dai, Fei,Li, Zihang,Chen, Xuejing,He, Bin,Liu, Ruixia,Zhang, Suojiang

, p. 4515 - 4525 (2018)

A series of vanadium phosphorus oxide (V...

Comparison of pH-sensitive degradability of maleic acid amide derivatives

Kang, Sunyoung,Kim, Youngeun,Song, Youngjun,Choi, Jin Uk,Park, Euddeum,Choi, Wonmin,Park, Jeongseon,Lee, Yan

, p. 2364 - 2367 (2014)

We synthesized five maleic acid amide de...

The conversion of 5-hydroxymethyl furfural (HMF) to maleic anhydride with vanadium-based heterogeneous catalysts

Li, Xiukai,Zhang, Yugen

, p. 643 - 647 (2016)

Heterogeneous catalytic systems using va...

Effect of direct ultrasound synthesis via a sesquihydrate route on bismuth-promoted vanadyl pyrophosphate catalysts

Goo, Kang-Zhi,Yap, Yeow-Hong,Lin, Kuen-Song,Leong, Loong-Kong

, p. 94 - 102 (2020)

A series of 1, 3, and 5% Bi-doped vanadi...

Spectroscopic Investigation of Vanadium-Phosphorus Catalysts

Martini, Giacomo,Trifiro, Ferruccio,Vaccari, Angelo

, p. 1573 - 1576 (1982)

The structural and surface changes occur...

Towards physical descriptors of active and selective catalysts for the oxidation of n-butane to maleic anhydride

Eichelbaum, Maik,Glaum, Robert,Haevecker, Michael,Wittich, Knut,Heine, Christian,Schwarz, Heiner,Dobner, Cornelia-Katharina,Welker-Nieuwoudt, Cathrin,Trunschke, Annette,Schloegl, Robert

, p. 2318 - 2329 (2013)

Based on our newly developed microwave c...

Influence of starting solution in preparation of V2O5/TiO2 catalysts for selective oxidation of benzene

Satsuma, Atsushi,Takenaka, Sakae,Tanaka, Tsunehiro,Nojima, Shigeru,Kera, Yoshiya,Miyata, Hisashi

, p. 1115 - 1116 (1996)

The selectivity in benzene oxidation ove...

Surface Dynamics of Adsorbed Species on Heterogeneous Oxidation Catalysts: Evidence from the Oxidation of C4 and C5 Alkanes on Vanadyl Pyrophosphate

Busca, Guido,Centi, Gabriele

, p. 46 - 54 (1989)

Steady-state and transient reactivity me...

A good performance VPO catalyst for partial oxidation of n-Butane to maleic anhydride

Wang, Xiaoshu,Nie, Weiyan,Ji, Weijie,Guo, Xuefeng,Yan, Qijie,Chen, Yi

, p. 696 - 697 (2001)

A VPO catalyst prepared by the reaction ...

Catalytic Synthesis of 2,5-Furandicarboxylic Acid from Concentrated 2,5-Diformylfuran Mediated by N-hydroxyimides under Mild Conditions

Xia, Fei,Ma, Jiping,Jia, Xiuquan,Guo, Meiling,Liu, Xuebin,Ma, Hong,Gao, Jin,Xu, Jie

, p. 3329 - 3334 (2019)

Producing polyester monomer 2,5-furandic...

On the Role of the VO(H2PO4)2 Precursor for n-Butane Oxidation into Maleic Anhydride

Sananes, M. T.,Hutchings, G. J.,Volta, J. C.

, p. 253 - 260 (1995)

The catalytic role of VO(H2PO4)2, the pr...

The consequences of support identity on the oxidative conversion of furfural to maleic anhydride on vanadia catalysts

Santander, Paola,Bravo, Luis,Pecchi, Gina,Karelovic, Alejandro

, (2020)

Maleic anhydride (MA) is a high value bu...

Vanadium-oxo immobilized onto Schiff base modified graphene oxide for efficient catalytic oxidation of 5-hydroxymethylfurfural and furfural into maleic anhydride

Lv, Guangqiang,Chen, Chunyan,Lu, Boqiong,Li, Jinlong,Yang, Yongxing,Chen, Chengmeng,Deng, Tiansheng,Zhu, Yulei,Hou, Xianglin

, p. 101277 - 101282 (2016)

Graphene oxide (GO) sheets are emerging ...

EFFECT OF THE STRUCTURE OF METHYL-SUBSTITUTED CARBOXYLIC ACIDS AND ANHYDRIDES ON THEIR ACTIVITY IN GAS-PHASE OXIDATION

Sharipov, A. Kh.,Masagutov, R. M.,Rafikov, S. R.

, p. 817 - 820 (1982)

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Kinetic and structural understanding of bulk and supported vanadium-based catalysts for furfural oxidation to maleic anhydride

Bravo, Luis,Gómez-Cápiro, Oscar,Karelovic, Alejandro,Lagos, Patricio,Pecchi, Gina,Santander, Paola

, p. 6477 - 6489 (2021)

The kinetics of gas-phase furfural parti...

The electronic factor in alkane oxidation catalysis

Eichelbaum, Maik,H?vecker, Michael,Heine, Christian,Wernbacher, Anna Maria,Trunschke, Annette,Schl?gl, Robert,Rosowski, Frank

, p. 2922 - 2926 (2015)

This article addresses the fundamental q...

Hydroxyapatite-Supported Polyoxometalates for the Highly Selective Aerobic Oxidation of 5-Hydroxymethylfurfural or Glucose to 2,5-Diformylfuran under Atmospheric Pressure

Guan, Hongyu,Li, Ying,Wang, Qiwen,Wang, Xiaohong,Yu, Hang

, p. 997 - 1005 (2021)

(NH4)5H6PV8Mo4O40 supported on hydroxyap...

Oxidation of levulinic acid for the production of maleic anhydride: breathing new life into biochemicals

Chatzidimitriou, Anargyros,Bond, Jesse Q.

, p. 4367 - 4376 (2015)

Levulinic acid (LA) is a biomass-derived...

Catalytic aerobic oxidation of renewable furfural to maleic anhydride and furanone derivatives with their mechanistic studies

Lan, Jihong,Chen, Zhuqi,Lin, Jinchi,Yin, Guochuan

, p. 4351 - 4358 (2014)

Catalytic transformation of biomass-base...

Maleic anhydride yield during cyclic n-butane/oxygen operation

Shekari, Ali,Patience, Gregory S.

, p. 334 - 338 (2010)

Cycling catalyst between a net oxidizing...

A comparison of the reactivity of "nonequilibrated" and "equilibrated" V-P-O catalysts: Structural evolution, surface characterization, and reactivity in the selective oxidation of n-butane and n-pentane

Albonetti,Cavani,Trifiro,Venturoli,Calestani,Lopez Granados,Fierro

, p. 52 - 64 (1996)

Changes occurring on thermal treatment o...

Promotion of V-P Oxide Catalyst for Butane Oxidation by Metal Additives

Tamaki, Jun,Morishita, Takehiro,Morishige, Hidetaka,Miura, Norio,Yamazoe, Noboru

, p. 13 - 16 (1992)

Mixed oxide catalyst V-P-O for the butan...

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Mason

, p. 700 (1930)

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n-Butane Oxidation to Maleic Anhydride and Furan with no Carbon Oxide Formation using a Catalyst derived from VO(H2PO4)2

Sananes, Maria T.,Hutchings, Graham J.,Volta, Jean-Claude

, p. 243 - 244 (1995)

The oxidation of n-butane at 390 deg C o...

Atmospheric chemistry of benzene oxide/oxepin

Klotz, Bjoern,Barnes, Ian,Becker, Karl H.,Golding, Bernard T.

, p. 1507 - 1516 (1997)

The atmospheric chemistry of benzene oxi...

n-Butane oxidation using VO(H2PO4)2 as catalyst derived from an aldehyde/ketone based preparation method

Bartley,Rhodes,Kiely,Carley,Hutchings

, p. 4999 - 5006 (2000)

A detailed study of n-butane oxidation o...

Photocatalytic valorization of furfural to value-added chemicals via mesoporous carbon nitride: a possibility through a metal-free pathway

Battula, Venugopala R.,Chauhan, Deepak K.,Giri, Arkaprabha,Kailasam, Kamalakannan,Patra, Abhijit

, p. 144 - 153 (2022/01/19)

Strategizing the exploitation of renewab...

Highly Efficient Biobased Synthesis of Acrylic Acid

Feringa, Ben L.,Hermens, Johannes G. H.,Jensma, Andries

supporting information, (2021/12/16)

Petrochemical based polymers, paints and...

Method for preparing maleic anhydride

-

Paragraph 0024-0041; 0044-0065, (2021/04/14)

The invention relates to a method for ox...

108-31-6 Process route

3-bromodihydro-2,5-furandione
5470-44-0

3-bromodihydro-2,5-furandione

maleic anhydride
108-31-6

maleic anhydride

hydrogen bromide
10035-10-6,12258-64-9

hydrogen bromide

Conditions
Conditions Yield
Destillation;
 
toluene
108-88-3,15644-74-3,16713-13-6

toluene

maleic anhydride
108-31-6

maleic anhydride

acetic acid
64-19-7,77671-22-8

acetic acid

benzoic acid
65-85-0,8013-63-6

benzoic acid

benzyl alcohol
100-51-6,185532-71-2

benzyl alcohol

Conditions
Conditions Yield
With δ-manganese oxide; oxygen; at 195 ℃; for 12h; Reagent/catalyst;
 

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    4-methyleneoxetan-2-one

108-31-6 Downstream products

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    exo-3,6-epoxy-1,2,3,6-tetrahydrophthalic anhydride

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    3573-76-0

    (1r,2R,3S,4r,5R,6S)-bicyclo<2.2.2>oct-2-ene-2,3,5,6-tetracarboxylic bisanhydride

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    941-63-9

    exo-4-methyl-7-oxanicyclo[2.2.1]-2-heptene-5,6-dicarboxylic acid anhydride

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