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1194-02-1

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1194-02-1 Usage

Chemical Properties

white crystalline low melting solid

Uses

Different sources of media describe the Uses of 1194-02-1 differently. You can refer to the following data:
1. 4-Fluorobenzonitrile is used in the synthesis of flurenones, pharmaceutical prerequisites, as well as opiod receptor antagonists.
2. 4-Fluorobenzonitrile is used as chemical intermediate, solvent for perfumes and pharmaceuticals, stabilizer for chlorinated solvents, HPLC analysis, catalyst and component of transition-metal complex catalysts.

General Description

4-Fluorobenzonitrile undergoes metal-mediated coupling to yield eight-membered thorium(IV) tetraazamacrocycle. It undergoes condensation with diphenylamine to yield monomer 4-cyanotriphenylamine.

Check Digit Verification of cas no

The CAS Registry Mumber 1194-02-1 includes 7 digits separated into 3 groups by hyphens. The first part of the number,starting from the left, has 4 digits, 1,1,9 and 4 respectively; the second part has 2 digits, 0 and 2 respectively.
Calculate Digit Verification of CAS Registry Number 1194-02:
(6*1)+(5*1)+(4*9)+(3*4)+(2*0)+(1*2)=61
61 % 10 = 1
So 1194-02-1 is a valid CAS Registry Number.
InChI:InChI=1/C7H4FN/c8-7-3-1-6(5-9)2-4-7/h1-4H

1194-02-1 Well-known Company Product Price

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  • (Code)Product description
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  • Alfa Aesar

  • (A13028)  4-Fluorobenzonitrile, 99%   

  • 1194-02-1

  • 5g

  • 539.0CNY

  • Detail
  • Alfa Aesar

  • (A13028)  4-Fluorobenzonitrile, 99%   

  • 1194-02-1

  • 25g

  • 1232.0CNY

  • Detail
  • Alfa Aesar

  • (A13028)  4-Fluorobenzonitrile, 99%   

  • 1194-02-1

  • 100g

  • 4082.0CNY

  • Detail

1194-02-1SDS

SAFETY DATA SHEETS

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

Version: 1.0

Creation Date: Aug 10, 2017

Revision Date: Aug 10, 2017

1.Identification

1.1 GHS Product identifier

Product name 4-Fluorobenzonitrile

1.2 Other means of identification

Product number -
Other names 4-fluorobenzonitrile

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:1194-02-1 SDS

1194-02-1Synthetic route

p-fluorobenzamide
824-75-9

p-fluorobenzamide

4-fluorobenzonitrile
1194-02-1

4-fluorobenzonitrile

Conditions
ConditionsYield
With N-methyl-N-trimethylsilyl-2,2,2-trifluoroacetamide; copper(l) chloride In toluene at 100℃; for 24h;99%
With uranyl nirate hexahydrate; N-methyl-N-trimethylsilyl-2,2,2-trifluoroacetamide In 1,2-dimethoxyethane at 100℃; for 24h;96%
With iron(II) chloride tetrahydrate; N-methyl-N-trimethylsilyl-2,2,2-trifluoroacetamide In tetrahydrofuran at 70℃; for 2h;94%
4-fluorobenzylic alcohol
459-56-3

4-fluorobenzylic alcohol

4-fluorobenzonitrile
1194-02-1

4-fluorobenzonitrile

Conditions
ConditionsYield
Stage #1: 4-fluorobenzylic alcohol With 2,2,6,6-Tetramethyl-1-piperidinyloxy free radical; iodine In dichloromethane at 20℃; for 1h; Inert atmosphere;
Stage #2: With ammonia; iodine In dichloromethane; water at 20℃; for 2h; Inert atmosphere;
99%
Stage #1: 4-fluorobenzylic alcohol With 2,2,6,6-Tetramethyl-1-piperidinyloxy free radical; iodine In dichloromethane at 20℃; for 1h;
Stage #2: With ammonium hydroxide In dichloromethane at 20℃; for 2h; Reagent/catalyst;
99%
With ammonia; oxygen In tert-Amyl alcohol; water at 100℃; under 3750.38 Torr; for 5h; Autoclave; High pressure;99%
C13H22FNOSi2
1321909-48-1

C13H22FNOSi2

4-fluorobenzonitrile
1194-02-1

4-fluorobenzonitrile

Conditions
ConditionsYield
With N-methyl-N-trimethylsilyl-2,2,2-trifluoroacetamide; copper(l) chloride In toluene at 100℃; for 24h;99%
With iron(II) chloride tetrahydrate
trimethylsilyl cyanide
7677-24-9

trimethylsilyl cyanide

C22H32AuF2NP(1+)*F6Sb(1-)

C22H32AuF2NP(1+)*F6Sb(1-)

4-fluorobenzonitrile
1194-02-1

4-fluorobenzonitrile

Conditions
ConditionsYield
In dichloromethane-d2 at 25℃; for 0.25h; Glovebox;99%
trimethylsilyl cyanide
7677-24-9

trimethylsilyl cyanide

C37H48AuF2NP(1+)*BF4(1-)

C37H48AuF2NP(1+)*BF4(1-)

4-fluorobenzonitrile
1194-02-1

4-fluorobenzonitrile

Conditions
ConditionsYield
In dichloromethane-d2 at 25℃; for 0.25h; Kinetics; Temperature; Glovebox;99%
sodium cyanide
773837-37-9

sodium cyanide

1-Bromo-4-fluorobenzene
460-00-4

1-Bromo-4-fluorobenzene

4-fluorobenzonitrile
1194-02-1

4-fluorobenzonitrile

Conditions
ConditionsYield
With tri-tert-butyl phosphine; [Pd2(dba)5]; zinc In tetrahydrofuran; acetonitrile at 70℃; for 2h;97%
4-fluorobenzaldoxime
459-23-4

4-fluorobenzaldoxime

4-fluorobenzonitrile
1194-02-1

4-fluorobenzonitrile

Conditions
ConditionsYield
With 1,2,3-Benzotriazole; thionyl chloride In dichloromethane for 0.25h; Ambient temperature;96%
With oxalyl dichloride; Tropone; 1,8-diazabicyclo[5.4.0]undec-7-ene In acetonitrile at 50℃; for 0.166667h; Schlenk technique; Inert atmosphere;93%
With N,N,N',N'-tetrachlorobenzene-1,3-disulphonamide; triphenylphosphine In dichloromethane at 20℃; Reagent/catalyst;92%

1194-02-1Relevant articles and documents

Theoretical Design and Calculation of a Crown Ether Phase-Transfer-Catalyst Scaffold for Nucleophilic Fluorination Merging Two Catalytic Concepts

Carvalho, Nathália F.,Pliego, Josefredo R.

, p. 8455 - 8463 (2016)

Fluorinated organic molecules are playing an increased role in the area of pharmaceuticals and agrochemicals. This fact demands the development of efficient catalytic fluorination processes. In this paper, we have designed a new crown ether with four hydroxyl groups strategically positioned. The catalytic activity of this basic scaffold was investigated with high levels of electronic structure theory, such as the ONIOM approach combining MP4 and MP2 methods. On the basis of the calculations, this new structure is able to solubilize potassium fluoride in toluene solution much more efficiently than 18-crown-6 (18C6). In addition, the strong interaction of the new catalyst with the SN2 transition state leads to a very important catalytic effect, with a predicted free energy barrier of 23.3 kcal mol-1 for potassium fluoride plus ethyl bromide reaction model. Compared with experimental data and previous theoretical studies, this new catalyst is 104 times more efficient than 18C6 for nucleophilic fluorination of alkyl halides. The catalysis is predicted to be selective, leading to 97% of fluorination and only 3% of elimination. Catalytic fluorination of the aromatic ring has also been investigated, and although the catalyst is less efficient in this case, our analysis has indicated further development of this strategy can lead to more efficient catalysis.

Efficient synthesis of aryl fluorides

Anbarasan, Pazhamalai,Neumann, Helfried,Beller, Matthias

, p. 2219 - 2222 (2010)

Chemical Equation Presented Creating C-F bonds: A novel electrophilic fluorination of aryl and heteroaryl Crignard reagents has been discovered and was used for the efficient synthesis of various aryl fluoride derivatives (see picture; THF = tetrahydrofuran).

Copper-Mediated Oxidative Fluorination of Aryl Stannanes with Fluoride

Gamache, Raymond F.,Waldmann, Christopher,Murphy, Jennifer M.

, p. 4522 - 4525 (2016)

A regiospecific method for the oxidative fluorination of aryl stannanes using tetrabutylammonium triphenyldifluorosilicate (TBAT) and copper(II) triflate is described. This reaction is robust, uses readily available reagents, and proceeds via a stepwise protocol under mild conditions (60 °C, 3.2 h). Broad functional group tolerance, including arenes containing protic and nucleophilic groups, is demonstrated.

Fluorodediazoniation in ionic liquid solvents: New life for the Balz-Schiemann reaction

Laali, Kenneth K.,Gettwert, Volker J.

, p. 31 - 34 (2001)

Drawbacks associated with the classic Balz-Schiemann reaction are eliminated in a series of examples by conducting fluorodediazoniation in ionic liquid solvents, thus opening up a new horizon for a much in demand process.

Studying regioisomer formation in the pd-catalyzed fluorination of aryl triflates by deuterium labeling

Milner, Phillip J.,Kinzel, Tom,Zhang, Yong,Buchwald, Stephen L.

, p. 15757 - 15766 (2014)

Isotopic labeling has been used to determine that a portion of the desired product in the Pd-catalyzed fluorination of electron-rich, non-ortho-substituted aryl triflates results from direct C-F cross-coupling. In some cases, formation of a Pd-aryne intermediate is responsible for producing undesired regioisomers. The generation of the Pd-aryne intermediate occurs primarily via ortho-deprotonation of a L·Pd(Ar)OTf (L = biaryl monophosphine) species by CsF and thus competes directly with the transmetalation step of the catalytic cycle. Deuterium labeling studies were conducted with a variety of aryl triflates.

Fluorination of aryl boronic acids using acetyl hypofluorite made directly from diluted fluorine

Vints, Inna,Gatenyo, Julia,Rozen, Shlomo

, p. 11794 - 11797 (2013)

Aryl boronic acids or pinacol esters containing EDG were converted in good yields and fast reactions to the corresponding aryl fluorides using the readily obtainable solutions of AcOF. In reactions with aryl boronic acids containing EWG at the para position, there are two competing forces: one directing the fluorination to take place ortho to the boronic acid and the other, toward an ipso substitution. With EWG meta to the boronic acid, substitution ipso to the boron moiety takes place in good yields.

Aryl dechlorination and defluorination with an organic super-photoreductant

Glaser, Felix,Kerzig, Christoph,Larsen, Christopher B.,Wenger, Oliver S.

, p. 1035 - 1041 (2020)

Direct excitation of the commercially available super-electron donor tetrakis(dimethylamino)ethylene (TDAE) with light-emitting diodes at 440 or 390 nm provides a stoichiometric reductant that is able to reduce aryl chlorides and fluorides. The method is very simple and requires only TDAE, substrate, and solvent at room temperature. The photoactive excited state of TDAE has a lifetime of 17.3 ns in cyclohexane at room temperature and an oxidation potential of ca. -3.4 V vs. SCE. This makes TDAE one of the strongest photoreductants able to operate on the basis of single excitation with visible photons. Direct substrate activation occurs in benzene, but acetone is reduced by photoexcited TDAE and substrate reduction takes place by a previously unexplored solvent radical anion mechanism. Our work shows that solvent can have a leveling effect on the photochemically available redox power, reminiscent of the pH-leveling effect that solvent has in acid-base chemistry.

Biomass chitosan-derived nitrogen-doped carbon modified with iron oxide for the catalytic ammoxidation of aromatic aldehydes to aromatic nitriles

Wang, Wei David,Wang, Fushan,Chang, Youcai,Dong, Zhengping

, (2020/11/24)

Nitrogen-doped carbon catalysts have attracted increasing research attention due to several advantages for catalytic application. Herein, cost-effective, renewable biomass chitosan was used to prepare a N-doped carbon modified with iron oxide catalyst (Fe2O3@NC) for nitrile synthesis. The iron oxide nanoparticles were uniformly wrapped in the N-doped carbon matrix to prevent their aggregation and leaching. Fe2O3@NC-800, which was subjected to carbonization at 800 °C, exhibited excellent activity, selectivity, and stability in the catalytic ammoxidation of aromatic aldehydes to aromatic nitriles. This study may provide a new method for the fabrication of an efficient and cost-effective catalyst system for synthesizing nitriles.

METHOD AND REAGENT FOR DEOXYFLUORINATION

-

Paragraph 0148-0150; 0152; 0174, (2021/05/29)

A safe, simple, and selective method and reagent for deoxyfluorination is disclosed. With the method and reagent disclosed herein, organic compounds such as carboxylic acids, carboxylates, carboxylic acid anhydrides, aldehydes, and alcohols can be fluorinated by using the most common nucleophilic fluorinating reagents and electron deficient fluoroarenes as mediators under mild conditions, giving corresponding fluoroorganic compounds in excellent yield with a wide range of functional group compatibility and easy product purification. For example, directly utilizing KF for deoxyfluorination of carboxylic acids provides the most economical and the safest pathway to access acyl fluorides, key intermediates for syntheses of peptide, amide, ester, and dry fluoride salts.

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