Our hardware team focused on designing and developing scalable technologies that support efficient and high-throughput biomanufacturing. Central to our approach was creating interconnected systems that could accelerate the production of biological materials while minimizing resource use. Our solutions were designed to be adaptable for different scales of production, from laboratory settings to industrial biomanufacturing. We also prioritized automation and precision, ensuring that each design could be integrated seamlessly into modern biomanufacturing workflows. Through our iterative DBTL (Design-Build-Test-Learn) cycle, we pursued three primary projects: the bioreactor, the microfluidic pump, and the multiphase microfluidic system. Each of these projects was guided by our goal of reducing the environmental impact of biological manufacturing while increasing the efficiency and scalability of the processes involved.

Alongside our efforts in biomanufacturing, we recognized the importance of designing hardware that aligns with sustainability goals. As part of our iHP (Integrated Human Practices) work, we consulted with stakeholders in academia and industry to better understand how our hardware could contribute to more environmentally conscious research. Our focus on sustainability informed design choices that minimized material waste, optimized energy use, and utilized low-impact fabrication methods like laser ablation. By integrating principles of sustainability into each of our projects, we aimed to set new standards for environmentally responsible research platforms. Our hardware not only improves the efficiency of scientific workflows but also reduces the overall environmental footprint, making it suitable for long-term use in both academic research and industrial applications.