High-Purity Tris[(4-phenylboronic acid)]benzene (BPTA) Manufacturer & Supplier: Building Blocks for COFs

Discover the essential component for advanced Covalent Organic Frameworks (COFs). Our Tris[(4-phenylboronic acid)]benzene (BPTA) offers exceptional purity, serving as a critical building block for groundbreaking materials in gas capture, catalysis, and adsorption technologies. Partner with a trusted supplier for your high-performance material synthesis needs.

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Key Advantages of Our BPTA Product

Exceptional Purity

Our Tris[(4-phenylboronic acid)]benzene is manufactured to the highest standards, ensuring a minimum purity of 97%. This high purity is crucial for achieving the desired structural integrity and performance in COF materials, making us a preferred supplier for demanding applications.

Critical for COF Synthesis

BPTA serves as a vital linker in the creation of Covalent Organic Frameworks. Its specific molecular structure and reactivity are leveraged by scientists worldwide to build highly porous and crystalline materials for advanced applications.

Guaranteed Quality and Supply

We are committed to being a dependable manufacturer and supplier. Our robust production process ensures a stable supply of BPTA, meeting the stringent quality requirements of the fine chemical and advanced materials sectors. Enquire about our competitive pricing and bulk order discounts.

Applications of Tris[(4-phenylboronic acid)]benzene in Advanced Materials

Covalent Organic Frameworks (COFs)

BPTA is a fundamental component for synthesizing various COFs, particularly those requiring triangular or hexagonal node connectivity, crucial for gas separation and storage applications.

Gas Separation and Storage

COFs derived from BPTA exhibit high surface areas and precisely tuned pore sizes, making them excellent candidates for selective adsorption and storage of gases like CO2, H2, and methane.

Catalysis

The porous structure and high surface area of COFs synthesized using BPTA can be functionalized to create efficient heterogeneous catalysts for various chemical reactions.

Research and Development

As a key intermediate, BPTA is indispensable for academic and industrial R&D in novel porous materials, contributing to advancements in energy, environmental, and chemical technologies.