CellSense Technologies manufactures Brillouin Microscopes for mechanobiological research, enabling non-invasive analysis of cell and tissue stiffness. This technology provides critical insights into mechanical properties, facilitating advancements in disease detection and understanding cellular mechanics across various biomedical applications.
Funding
Funding not disclosed
Founders
Product
Problem
Traditional methods of analyzing cell and tissue mechanics often involve invasive techniques that can damage or alter the sample, limiting the accuracy and applicability of the results. Understanding the mechanical properties of biological samples is crucial for advancements in disease detection, tissue engineering, and drug discovery.
Solution
CellSense Technologies provides advanced Brillouin Microscopy systems that enable non-invasive analysis of cell and tissue stiffness. Their technology allows researchers to explore and understand the mechanical properties of organelles, cells, organoids, tissues, biomaterials, and organisms without damaging the sample. By offering a non-destructive method for analyzing mechanical properties, CellSense supports advancements in medical diagnostics, basic research, and industrial applications, including 3D cell culture systems. The Brillouin Microscopy systems provide valuable insights into cellular mechanics, facilitating early disease detection and improving the understanding of fundamental biological processes.
Target Audience
The primary users are researchers engaged in basic and translational research in fields such as cell biology, biomedicine, and tissue engineering, as well as those innovating within 3D cell culture systems.
Features
- Non-invasive analysis of cell and tissue stiffness, avoiding damage associated with traditional techniques
- Advanced Brillouin Microscopy technology for mechanobiological applications
- Suitable for analyzing organelles, cells, organoids, tissues, biomaterials, and organisms
- Facilitates research in cell biology, biomedicine, developmental biology, tissue engineering, pharmacology, and cancer research
- Enables detailed observations of mechanical changes in cells for improved medical diagnostics
- Supports innovation within 3D cell culture systems