22865-62-9

Usage

Uses

Used in Pharmaceutical Synthesis:
4-(Methylsulfinyl)aniline is used as a key intermediate in the synthesis of various pharmaceuticals for its ability to be incorporated into the molecular structures of different drugs. Its presence in these compounds can potentially enhance their therapeutic effects and properties.
Used in Organic Compounds Synthesis:
As an aniline derivative, 4-(Methylsulfinyl)aniline is used as a building block in the synthesis of a range of organic compounds, contributing to the development of new chemical entities with diverse applications.
Used in Antioxidant and Anti-Inflammatory Research:
4-(Methylsulfinyl)aniline is used as a subject of study in research aimed at understanding its antioxidant and anti-inflammatory properties. These studies are crucial for exploring its potential use in the development of treatments for conditions associated with oxidative stress and inflammation.
Used in Drug Development:
4-(Methylsulfinyl)aniline is utilized in the development of new drugs for various medical conditions due to its potential pharmacological properties. Its role in this process is to provide a foundation for the creation of novel therapeutic agents that can address unmet medical needs.

Upstream product

• 940-12-5 p-nitrophenyl methyl sulfoxide 
• 124-43-6 urea hydrogen peroxide adduct 
• 104-96-1 4-methylsulfanylaniline 
• 540-37-4 p-aminoiodobenzene 
• 2976-30-9 1-methanesulfonyl-4-nitrobenzene 
• 73475-07-7 isoaalloxazine hydroperoxide 

Downstream Products

• 51791-02-7 2-Chlor-3-p-methylsulfinylphenylpropionitril 
• 361486-22-8 N-(4-fluoro-3-methoxybenzyliden)-4-methylsulfinylaniline 
• 104-96-1 4-methylsulfanylaniline 
• 265114-14-5 N-(4-Fluorobenzyliden)-4-methylsulfinylaniline 
• 1586823-26-8 3-(N-(5-chloropyridin-2-yl)-N-methylsulfamoyl)-N-(4-(methylsulfinyl)phenyl)benzamide 
• 1586823-21-3 3-(N-(4-cyanophenyl)-N-methylsulfamoyl)-4-methoxy-N-(4-(methylsulfinyl)phenyl)benzamide 
• 1586823-17-7 3-(N-methyl-N-(4-(methylsulfonyl)phenyl)sulfamoyl)-N-(4-(methylsulfinyl)phenyl)benzamide 
• 1586823-13-3 3-(N-methyl-N-(4-(methylsulfinyl)phenyl)sulfamoyl)-N-(4-(methylsulfinyl)phenyl)benzamide 
• 1586823-06-4 3-(N-(4-acetylphenyl)-N-methylsulfamoyl)-N-(4-(methylsulfinyl)phenyl)benzamide 
• 1586822-97-0 3-(N-(4-cyanophenyl)-N-methylsulfamoyl)-N-(4-(methylsulfinyl)phenyl)benzamide 
• 1586822-63-0 3-(N-(4-chlorophenyl)-N-methylsulfamoyl)-N-(4-(methylsulfinyl)phenyl)benzamide 
• 1586822-49-2 3-(N-(4-fluorophenyl)-N-methylsulfamoyl)-N-(4-(methylsulfinyl)phenyl)benzamide 

Relevant academic research and scientific papers

Catalyst-free visible light-mediated selective oxidation of sulfides into sulfoxides under clean conditions

A facile and efficient visible-light-mediated method for directly converting sulfides into sulfoxides under clean conditions without using any photocatalysts is reported. This method exhibited favourable compatibility with functional groups and afforded a series of sulfoxides with high selectivity and yields. Moreover, in order to shed more light on such a transformation, detailed mechanism studies were carried out both experimentally and theoretically. The readily accessible, low-cost and eco-friendly nature of the developed method will endow it with attractive applications in chemical synthesis.

Magneli-type tungsten oxide nanorods as catalysts for the selective oxidation of organic sulfides

Selective oxidation of thioethers is an important reaction to obtain sulfoxides as synthetic intermediates for applications in the chemical industry, medicinal chemistry and biology or the destruction of warfare agents. The reduced Magneli-type tungsten oxide WO3?xpossesses a unique oxidase-like activity which facilitates the oxidation of thioethers to the corresponding sulfoxides. More than 90% of the model system methylphenylsulfide could be converted to the sulfoxide with a selectivity of 98% at room temperature within 30 minutes, whereas oxidation to the corresponding sulfone was on a time scale of days. The concentration of the catalyst had a significant impact on the reaction rate. Reasonable catalytic effects were also observed for the selective oxidation of various organic sulfides with different substituents. The WO3?xnanocatalysts could be recycled at least 5 times without decrease in activity. We propose a metal oxide-catalyzed route based on the clean oxidant hydrogen peroxide. Compared to other molecular or enzyme catalysts the WO3?xsystem is a more robust redox-nanocatalyst, which is not susceptible to decomposition or denaturation under standard conditions. The unique oxidase-like activity of WO3?xcan be used for a wide range of applications in synthetic, environmental or medicinal chemistry.

Alloxan-catalyzed biomimetic oxidations with hydrogen peroxide or molecular oxygen

Inspired by biological flavin catalysis, the nonionic alloxan derivatives were applied as the biomimetic catalysts for various oxidations, catalyzing oxidations of sulfides and amines with hydrogen peroxide or molecular oxygen under mild conditions with high yields in a short time. The whole catalytic cycle has been verified to be a biomimetic approach through the formation of the alloxan hydroperoxide reactive intermediate. Additionally, encouraging asymmetric catalytic results have been obtained with an easily prepared chiral alloxan in a sulfoxidation reaction.

Vanadium oxides anchored on nitrogen-incorporated carbon: An efficient heterogeneous catalyst for the selective oxidation of sulfide to sulfoxide

A highly efficient and durable metal catalyst stabilized by proper support is vital for organic catalytic transformations. In this study, a sequential pyrolysis–acid etching strategy was reported to prepare a nitrogen-rich nanocarbon inlaid with vanadium

Thioether Oxidation with H2O2 Catalyzed by Nb-Substituted Polyoxotungstates: Mechanistic Insights

Nb-monosubstituted polyoxotungstates of the Lindqvist and Keggin structures, (Bu4N)3[Nb(O)W5O18] (1) and (Bu4N)4[PW11NbO40] (2), respectively, catalyze oxidation of or

High-efficiency photo-oxidation of thioethers over C60?PCN-222 under air

The selective oxidation of primary thioethers to sulfoxides is an important reaction in the production of pharmaceuticals, agrochemicals, and other valuable fine chemicals. However, the achievement of high conversion and selectivity towards sulfoxide duri

SULFOXIDATION CATALYSTS AND METHODS FOR THEIR PREPARATION AND USE

Methods and compositions of catalysts for sulfoxidation reaction processes are disclosed. The sulfoxidation reaction process can be performed in an aqueous medium, and the catalysts can be recycled for further use. In some embodiments, a method of making a catalyst may include contacting a transition metal compound with an oxidizing agent to form a first solution, contacting a carboxylic acid compound with a cationic surfactant to form a second solution, mixing the first solution and the second solution to form a precipitate, and isolating the precipitate.

An organic-inorganic hybrid supramolecular framework material based on a [P2W18O62]6- cluster and Yb & Na complexes of pyridine-2,6-dicarboxylic acid: A catalyst for selective oxidation of sulfides in water with H2O2

A rare-earth-containing polyoxometalate (RECP) hybrid, {(Yb (PDCH2)2(PDCH))·Na(H2O)2·(Na(PDCH)(H2O)2)}2[P2W18O62]·14H2O (1), based on [P2W18O62]6- cluster anions and cationic Yb & Na complex units of pyridine-2,6-dicarboxylic acid (PDCH2) has been synthesized under normal reaction conditions, which exhibited a supramolecular 3-D framework structure in the crystal lattice. Hybrid 1 acts as a green catalyst for the selective oxidation of sulfides in water with H2O2 as the reagent.

Nano-sized mesoporous sodium iron hydroxyphosphate supported gold: An effective catalyst for the oxidation of sulfides

New nano-sized mesoporous sodium iron hydroxyphosphate (SIHP, Na4.55Fe(PO4)2H0.45O), synthesized by a microemulsion-hydrothermal synthesis method, with supported gold nanoparticles (AuNPs) could be a very effective catalyst for the selective oxidation of sulfides. The results showed that the SIHP material was an excellent catalyst support due to its special structure and the interactions between the AuNPs and the surface hydroxyl groups.

Highly efficient and selective photocatalytic oxidation of sulfide by a chromophore-catalyst dyad of ruthenium-based complexes

Electronic coupling across a bridging ligand between a chromophore and a catalyst center has an important influence on biological and synthetic photocatalytic processes. Structural and associated electronic modifications of ligands may improve the efficiency of photocatalytic transformations of organic substrates. Two ruthenium-based supramolecular assemblies based on a chromophore-catalyst dyad containing a Ru-aqua complex and its chloro form as the catalytic components were synthesized and structurally characterized, and their spectroscopic and electrochemical properties were investigated. Under visible light irradiation and in the presence of [Co(NH3)5Cl]Cl2 as a sacrificial electron acceptor, both complexes exhibited good photocatalytic activity toward oxidation of sulfide into the corresponding sulfoxide with high efficiency and >99% product selectivity in neutral aqueous solution. The Ru-aqua complex assembly was more efficient than the chloro complex. Isotopic labeling experiments using 18O-labeled water demonstrated the oxygen atom transfer from the water to the organic substrate, likely through the formation of an active intermediate, Ru(IV)=O.