Researchers at Colorado State University have developed a compact and versatile Ussing chamber platform for studying biological tissues. This innovative design integrates advanced electronics, microfluidics, and multi-sensor circuits into a portable system. It allows for simultaneous analysis of multiple tissues and real-time monitoring of various parameters, enabling more efficient and detailed studies. The technology represents a significant step forward in tissue research.
Ussing chambers are essential tools for studying live tissues, particularly when different nutrients are required on either side of the tissue. Traditional designs use bulky glass components and benchtop instruments, limiting their scalability and throughput. As demand grows for high-throughput systems in tissue research, there is a critical need for compact, multi-analyte platforms capable of analyzing multiple tissues simultaneously. The design addresses these limitations by integrating cutting-edge technology into a streamlined system.
The advanced Ussing chamber platform incorporates state-of-the-art integrated electronics, customized electrodes with diverse sensing capabilities, and a sophisticated microfluidic system. These features allow balanced nutrient and therapeutic flows, ensuring optimal tissue conditions. The system’s compact design enables the simultaneous study of multiple tissues, providing unparalleled throughput and efficiency. Real-time monitoring of parameters like pH, oxygen, glucose, and lactose levels across different tissues is possible, thanks to the multi-sensor circuits. Additionally, the chamber supports microscopy during operation and can be rotated in three orthogonal directions for enhanced flexibility. This innovative platform opens new possibilities for multiplexed tissue analysis, offering a more comprehensive understanding of biological processes and accelerating drug discovery efforts. CSU Tech 2024-049 is a companion innovation built on the foundation of this technology.
Available for Licensing
Thomas Chen
Caleb Begly
Michael Siegel
Jessy McGowan
Jessy.McGowan@colostate.edu
970-491-7100