In this presentation, I will share my journey from academia, where I focused on developing microsystems leveraging electric fields for biological applications, to my current role at Parallel Fluidics, where we are redefining microfluidic fabrication.

Unlike traditional methods such as PDMS casting or 3D printing, Parallel Fluidics introduces a new era in microfluidics, enabling teams to iterate with production-grade materials, performance, and quality from the start. By combining advanced techniques—like transition molding, thermal capping, and embedded hardware—with an intuitive software portal, we empower rapid, adaptable device development that aligns seamlessly with both scientific and product goals.

Our on-demand manufacturing model allows for scalability from a handful of prototypes to mass production without the need for costly tooling or rigid contracts, freeing teams to make design changes without costly reworks. This streamlined approach enables scientists and engineers to focus on core research objectives rather than peripheral manufacturing challenges. Our embedded hardware, including robust chip-to-world interfaces and valves, mitigates risks typically associated with process changes or material shifts. By starting with production-grade materials from day one, we provide the shortest path to a functional, scalable microfluidic product.

Join us as we explore how Parallel Fluidics can accelerate your product’s journey to market by eliminating common pitfalls and simplifying the complex engineering challenges of microfluidics. This approach offers an unmatched combination of speed, flexibility, and quality to help you achieve scientific and commercial success in the life sciences.

Bio

Dr. Jonathan Cottet holds dual Master of Science degrees in Mechanics and Electronics from ENS Rennes and the University of Rennes 1, France, and in Microengineering with a specialization in Micro and Nanosystems from EPFL, Switzerland. He earned his Ph.D. through a joint program between Ecole Centrale de Lyon and EPFL, under the supervision of Philippe Renaud, where he developed advanced microsystems for the controlled formation of cell aggregates using dielectrophoresis.

Following his doctoral studies, Jonathan completed a postdoctoral experience at MIT, specializing in the application of electric fields and microfluidics for biological systems. His research and development efforts focus on the design, fabrication, and experimental characterization of lab-on-a-chip devices, with a particular emphasis on integrating electric field technology for biological applications.

Currently, Jonathan serves as Senior Applications Engineer at Parallel Fluidics. In this role, he combines his expertise in microfluidics and bioengineering with a hands-on approach to solving complex, interdisciplinary problems. His work involves leading cross-functional teams and bridging the gap between academic innovation and industrial application, driving advances in bioengineering and microfluidic technology.