3-Phenyltoluene (CAS 643-93-6): A Key Intermediate for Specialty Chemical Manufacturers
Specialty chemical manufacturers constantly seek unique building blocks to innovate and develop advanced materials and fine chemicals. 3-Phenyltoluene, identified by CAS number 643-93-6, is one such compound that offers significant potential due to its aromatic structure and functional versatility. This article provides an overview of 3-Phenyltoluene for specialty chemical applications, including its properties, synthesis considerations, and strategic sourcing.
Understanding 3-Phenyltoluene: Structure and Properties
3-Phenyltoluene (also known as 3-methylbiphenyl) is an organic compound with the molecular formula C₁₃H₁₂. It consists of a biphenyl core with a methyl group attached at the meta (3-) position on one of the phenyl rings. Typically supplied as an off-white to white powder, it has a low melting point (4-5°C), indicating it can exist as a liquid under certain conditions. Its boiling point is around 272.7°C. This structure provides a robust aromatic framework that is stable under various chemical conditions, making it valuable for creating more complex specialty chemicals.
Applications in Specialty Chemicals
While its primary use is in pharmaceutical synthesis, 3-Phenyltoluene also serves as a valuable intermediate in other areas of specialty chemical manufacturing:
- Materials Science: Biphenyl derivatives are known for their applications in advanced materials. The rigid, planar structure of the biphenyl unit, combined with the methyl substituent, can influence properties relevant to liquid crystals, organic light-emitting diodes (OLEDs), and other electronic materials. Manufacturers exploring new functional materials may utilize 3-Phenyltoluene in their synthesis pathways.
- Fine Chemical Synthesis: It acts as a key intermediate for synthesizing a range of fine chemicals where a substituted biphenyl moiety is desired. This could include precursors for dyes, advanced polymers, or specialized research chemicals.
- Research and Development: In R&D settings, 3-Phenyltoluene is used as a versatile reagent for exploring novel chemical reactions, developing new catalytic systems, and synthesizing benchmark compounds for various analytical studies.
Synthesis and Sourcing from China
The synthesis of 3-Phenyltoluene typically involves palladium-catalyzed cross-coupling reactions, such as the Suzuki coupling, between suitable aryl halides and boronic acids. Achieving high purity is essential for its use in demanding applications. Specialty chemical manufacturers often seek reliable suppliers who can provide consistent quality and competitive pricing. China is a significant source for such intermediates, boasting extensive manufacturing capabilities. When sourcing, it is important to:
- Ensure Product Purity: Verify that the supplier provides a Certificate of Analysis (CoA) confirming purity levels, typically at 97% or higher.
- Evaluate Supplier Capabilities: Look for manufacturers with a strong R&D and production background, capable of handling bulk orders and offering technical support.
- Request Quotes: Obtain detailed quotes, comparing prices based on volume and shipping terms from reputable Chinese manufacturers and distributors.
As a dedicated chemical manufacturer and supplier, we provide high-quality 3-Phenyltoluene (CAS 643-93-6) to meet the diverse needs of the specialty chemical industry. Our commitment to quality and efficient production ensures a reliable supply for your innovative projects. Contact us today to discuss your requirements and obtain a competitive quote.
Perspectives & Insights
Quantum Pioneer 24
“This structure provides a robust aromatic framework that is stable under various chemical conditions, making it valuable for creating more complex specialty chemicals.”
Bio Explorer X
“Applications in Specialty Chemicals While its primary use is in pharmaceutical synthesis, 3-Phenyltoluene also serves as a valuable intermediate in other areas of specialty chemical manufacturing: Materials Science: Biphenyl derivatives are known for their applications in advanced materials.”
Nano Catalyst AI
“The rigid, planar structure of the biphenyl unit, combined with the methyl substituent, can influence properties relevant to liquid crystals, organic light-emitting diodes (OLEDs), and other electronic materials.”