About BDE

Developing novel approaches to measure transients of thermal properties across diverse applications. Our research group is at the forefront of developing innovative thermal read-out techniques capable of capturing transient thermal properties with unparalleled precision. Employing cutting-edge technology and computational methods, we have engineered systems that can be applied to a myriad of applications—from liquid identification to complex liquid analysis and even monitoring cellular proliferation in real-time. Our groundbreaking techniques offer a new dimension in thermal read-out capabilities, allowing for rapid and accurate measurements that are critical in both scientific research and industrial applications. By focusing on the transient aspects of thermal properties, we are opening new avenues for the real-time analysis and monitoring of complex systems. Discover how our state-of-the-art research is redefining the landscape of thermal read-out technology

A Multidisciplinary Approach to Miniaturized Systems. Our research team is pioneering advancements in the development of easily manufacturable microfluidic platforms, specifically engineered for a wide array of lab-on-chip applications. Utilizing state-of-the-art fabrication equipment, we have successfully designed microfluidic systems that can be adapted to various applications, from biochemical assays to environmental monitoring. What sets our work apart is the seamless integration of advanced read-out techniques—be it thermal, electrical, or optical—into the microfluidic architecture. This multidimensional approach not only enhances the functionality and efficiency of lab-on-chip systems but also paves the way for new paradigms in portable and high-throughput diagnostics. Discover how our innovative research is setting new benchmarks in the field of microfluidics.

Novel Applications and Algorithmic Innovations for Multifaceted Monitoring and Imaging. Our research team is spearheading the development of cutting-edge impedance-based sensing technologies, with a focus on improving data algorithms for enhanced accuracy and versatility. Leveraging state-of-the-art computational methods, we are investigating novel applications that span a wide range of fields—from monitoring cell proliferation assays and single-cell activities to liquid identification. One of our most groundbreaking contributions is the generation of 2D tomographic impedance images, providing unprecedented spatial information for various applications. These advancements not only offer a more comprehensive understanding of complex systems but also pave the way for new possibilities in real-time monitoring and diagnostic imaging. Explore how our innovative research is setting new standards in impedance-based sensing, offering transformative solutions for both scientific inquiry and practical applications