Research&Development Collaboration

Core Overview

BoronHub’s proprietary technology portfolio is built on solid collaborative foundations. We maintain in-depth industry-university-research partnerships with materials science teams from prestigious universities in Hong Kong and research institutes in Beijing, jointly advancing the critical transition of boron-based advanced materials from laboratory research to industrial mass production.

I. Industry-University-Research Cooperation Framework

BoronHub has established a long-term, stable joint R&D mechanism with a leading Hong Kong university’s materials science research group, focusing on core technologies including high-purity purification of boron materials, controlled crystal growth and isotope separation. Meanwhile, we carry out joint research projects on boron-based advanced materials with Beijing research institutes. Leveraging the institutes’ profound expertise in high-pressure synthesis and material characterization, we accelerate the engineering translation of cutting-edge technologies.

The Company has preliminarily built an in-house proprietary intellectual property system, accumulating continuous technological know-how covering isotope separation, high-purity purification and boride synthesis.

II. Joint R&D Focus Areas

 

Together with our partners, BoronHub targets the following frontier research fields to fill domestic technological gaps in China:

 

1. Low-Oxygen Boron (B₆O) – Novel Superhard Material

B₆O is an emerging superhard material attracting extensive global attention in materials science. It delivers hardness comparable to cubic boron nitride (cBN) and fracture toughness close to diamond, paired with low density, exceptional thermal stability and outstanding oxidation resistance (stable up to 1000 °C in air). It boasts broad application prospects in superhard cutting tools and wear-resistant coatings.

 

In recent years, breakthrough research completed by our joint R&D team identified a new reaction mechanism for boron oxidation via stable B₆O intermediates, laying a novel theoretical foundation for energetic material applications. Parallel research covers high-temperature high-pressure sintering, characterization and practical utilization of nanostructured B₆O superhard composites, as well as landmark progress in B₆O photocatalytic CO₂ reduction and water splitting.

 

 

 

BoronHub collaborates with partner universities to develop low-cost manufacturing processes and industrialization pathways for B₆O, aiming to commercialize this high-performance superhard material from lab scale to industrial markets.

2. High-Purity Purification Technology

Novel purification workflows are developed to remove metallic and non-metallic impurities for 6N ultra-high-purity boron, elevating product purity and batch-to-batch consistency to satisfy stringent material standards for advanced semiconductor manufacturing nodes.

3. Nanopowder Processing

Controllable manufacturing technologies for submicron and nano-scale boron powders are under development to achieve narrow particle size distribution, precise morphology regulation and surface modification. We deliver customized powder solutions for high-end ceramics, catalyst carriers and electronic packaging materials.

 

4. Advanced Manufacturing Processes for Boron-Based Materials

We explore innovative synthetic routes and eco-friendly green production processes for borides (boron nitride, boron carbide, rare earth hexaborides, etc.) to cut energy consumption and emissions while enhancing material performance and production efficiency.

 

III. Vision for Collaboration

BoronHub will further deepen industry-university-research synergy with universities and research institutes. Adopting a full-value-chain model of “fundamental research – pilot verification – industrial translation”, we drive China’s boron-based advanced materials industry toward higher purity, greater customizability and sustainable manufacturing.

We welcome more research institutions and industrial partners to join this innovation ecosystem. Linked by boron materials, we jointly explore the boundless potential of materials science.