Project cooperation
Recycling end of life batteries
Carbon-negative, cost-effective reuse process
- Early
- Batteries
- Raw Materials
Senior Business Development Manager
Brunel University London
Uxbridge, United Kingdom
Brunel excels in advanced materials, manufacturing, structural integrity, applying predictive modelling, sensors, and signal processing to materials research.
My role at Brunel University London is to oversee the Business Development team. I also have specific responsibility for looking after and supporting activities in the area of Advanced Manufacturing and Automotive sector. Below is a brief outline of my background and expertise.
Brunel has invested significantly in materials and manufacturing research—spanning casting and processing, precision and additive manufacturing—and in the structural integrity of metallic and composite materials. This work is supported by advanced facilities and expertise in numerical modelling, sensors and signal processing. Research integrates modelling and characterisation, design, manufacturing and application, across key themes:
• Design for Sustainable Manufacturing
• Liquid Metal Engineering
• Materials Characterisation and Processing
• Micro-Nano Manufacturing
• Structural Integrity
In addition research at Brunel is at the heart of purposeful and sustainable solutions to global problems. Its research ranges from the internationally acclaimed Brunel Institute for Bioengineering and the Centre for Transport Studies, to leading-edge research in engineering, information systems, physics and mathematics. Its research centres and institutes work across different disciplines, focusing on major societal challenges such as climate change, health, energy and transport. These activity aligns with Brunel’s five strategic challenge areas:
• Health: planetary and human health across the life course
• Communities: global, secure, connected societies
• Digital: digital futures, AI and big data
• Sustainability: clean growth, circularity and bio-economies
• Manufacturing: smart manufacturing and materials innovation
Project cooperation
Recycling end of life batteries
Carbon-negative, cost-effective reuse process
Project cooperation
(a) Lightweight high entropy alloys & (b) electropulsing repair technology
Advanced alloy development Extend service-life of critical metallic components. Recovery of manufacturing-induced microstructural defects
Project cooperation
Efficient Aluminium Scrap Recycling
Efficient aluminium scrap sorting, melting, purification & AI-driven platform with industry guidelines for better scrap utilisation.l
Project cooperation
Technologies for critical raw materials and strategic raw materials from end-of-life products (IA)
- The recycling of end-of-life wind turbine blades. Recovery of manufacturing-induced microstructural defects
Project cooperation
Cost effective long-duration stationary storage
Zn & Al batteries with biodegradable electrolytes (TRL 3) developed; scale-up underway with SMEs via ionic liquid innovation.
Project cooperation
Towards Robotic Train Fluid Service in Today and Tomorrow Depots (CyberFluids+)
7-DoF Robotic System for autonomous passenger train fluid servicing (e.g., fuel, controlled emission toilets (CET), wheel sand, etc)