• 1. Development of an aquacatalytic system based on the formation of vesicles of an amphiphilic palladium NNC-pincer complex
  Fumie Sakurai,Go Hamasaka,Yasuhiro Uozumi Dalton Trans. 2015 44 7828
• 2. Palladium-catalyzed synthesis of indene derivatives via propargylic carbonates with in situ generated organozinc compounds
  Zheng-Hui Guan,Zhi-Hui Ren,Lian-Biao Zhao,Yong-Min Liang Org. Biomol. Chem. 2008 6 1040
• 3. Blue-shifted aggregation-induced emission of siloles by simple structural modification and their application as nitro explosive chemosensors
  Jiwon Lee,Yoona Park,Joori Jung,Won-Sik Han Photochem. Photobiol. Sci. 2017 16 1495
• 4. Bu4NI-catalyzed, oxidative C(sp2)–C(sp3) cross dehydrogenative coupling for the regioselective direct C-3 benzylation of 2H-indazoles
  Lalit Yadav,Sandeep Chaudhary Org. Biomol. Chem. 2020 18 5927
• 5. Bu4NI-catalyzed, oxidative C(sp2)–C(sp3) cross dehydrogenative coupling for the regioselective direct C-3 benzylation of 2H-indazoles
  Lalit Yadav,Sandeep Chaudhary Org. Biomol. Chem. 2020 18 5927

• Solvents and Organic Chemicals Organic Compounds Organic Halides

Comprehensive Guide to 3-Iodotoluene (CAS No. 625-95-6): Properties, Applications, and Industry Insights

3-Iodotoluene (CAS No. 625-95-6), also known as meta-iodotoluene or 3-methyliodobenzene, is a halogenated aromatic compound widely utilized in organic synthesis and pharmaceutical research. This compound belongs to the iodotoluene family, characterized by a methyl group and an iodine atom attached to a benzene ring. Its unique structure makes it a valuable intermediate in cross-coupling reactions, such as Suzuki and Heck reactions, which are pivotal in modern drug discovery and material science.

The growing demand for 3-Iodotoluene is driven by its role in synthesizing advanced materials and active pharmaceutical ingredients (APIs). Researchers frequently search for "3-Iodotoluene synthesis," "CAS 625-95-6 applications," and "iodotoluene derivatives" due to its relevance in agrochemicals, liquid crystals, and specialty polymers. With the rise of green chemistry, inquiries like "sustainable production of 3-Iodotoluene" have surged, reflecting industry shifts toward eco-friendly methodologies.

From a molecular perspective, 3-Iodotoluene exhibits notable stability and reactivity, making it ideal for palladium-catalyzed transformations. Its meta-substitution pattern distinguishes it from ortho- and para-isomers, offering selective pathways for functionalization. Laboratories often prioritize "high-purity 3-Iodotoluene" for precise synthetic outcomes, emphasizing the need for rigorous quality control in commercial batches.

In the context of trending topics, 3-Iodotoluene intersects with discussions on "halogenated building blocks in drug design" and "scalable aromatic iodination." Innovations in continuous-flow chemistry have further spotlighted this compound, as users explore "flow reactor synthesis for iodotoluene" to enhance efficiency. Additionally, its compatibility with photoredox catalysis aligns with the "visible-light-driven reactions" trend in synthetic chemistry.

Regulatory and safety profiles of 3-Iodotoluene are frequently queried, with terms like "625-95-6 safety data sheet" and "handling iodotoluene compounds" gaining traction. While not classified as hazardous under standard conditions, proper storage away from light and oxidizing agents is recommended to maintain stability. This aligns with broader industry searches for "stable aromatic iodides" and "long-term storage of halogenated aromatics."

The commercial landscape for 3-Iodotoluene is shaped by suppliers emphasizing "bulk iodotoluene availability" and "custom synthesis services." As patent expirations drive generic drug production, demand for intermediates like 3-Iodotoluene is projected to grow, particularly in regions with booming pharmaceutical sectors. Searches for "CAS 625-95-6 suppliers" often highlight regional pricing trends and logistical considerations.

In summary, 3-Iodotoluene (CAS No. 625-95-6) remains a cornerstone in synthetic chemistry, bridging academic research and industrial applications. Its versatility in forming carbon-carbon and carbon-heteroatom bonds ensures sustained relevance, while emerging technologies promise to redefine its production and utility. For researchers and manufacturers alike, understanding its properties and market dynamics is key to leveraging its full potential.

• 624-31-7(4-Iodotoluene)
• 31599-61-8(4-Iodo-1,2-dimethylbenzene)
• 49617-79-0(Benzene,1,3-diiodo-5-methyl-)
• 87666-86-2(5'-Iodo-m-terphenyl)
• 1608-47-5(1,2-Diiodo-4-methylbenzene)
• 1124-08-9(1,4-Diiodo-2,5-dimethylbenzene)
• 22445-41-6(1-Iodo-3,5-dimethylbenzene)
• 1122-42-5(2-Iodo-p-xylene)
• 5182-67-2(Benzene,1,2-diiodo-4,5-dimethyl-)
• 75838-38-9(Benzene,1,4-diiodo-2-methyl-)