QSense® is the world-leading, premium QCM-D solution for nanoscale tracking of interactions at surfaces and interfaces. It can provide you with unique, reproducible, in-depth data with high productivity and ease of use along the way.
This enables a fundamental understanding of processes, an early indication of real-life outcome and the ability to optimize products and processes for authentic conditions. By investing in a QSense instrument you put yourself and your team at the forefront of scientific progress and technological innovation.
Interested in working with our QSense instruments in your lab? Watch the video to see our instruments in action.
QSense Quartz Crystal Microbalance with Dissipation Monitoring (QCM-D) systems enable a wide range of industrial applications as well as cutting edge academic research.
Quartz Crystal Microbalance with Dissipation monitoring (QCM-D) is the measurement principle for the QSense instruments.
Here you can find contact information to all Biolin Scientific offices around the world. We also have representation through Distribution Partners.
Our instruments are present at many prestigious universities and research facilities world wide. Take a minute to find out what others say working with QSense instruments.
"QCM-D technology is a key part of our biointerfacial science research that spans fundamental biomacromolecular investigations to applied studies involving antiviral drug development. The QSense instruments, which we have used for nearly two decades, are robust and can track complex biological phenomena in real-time and with label-free readouts that have helped us to deeply characterize a wide range of systems related to proteins and lipid membranes. Together with our analytical modeling efforts, there is a really bright future to continue applying QCM-D technology in new directions across many important scientific disciplines."
"Using QSense measurement tools, our lab has investigated many very interesting protein and lipid systems in aqueous and non-aqueous environments and the QCM-D measurement capabilities have proven critical to study molecular-level interaction behaviors at solid-liquid interfaces. One of the most exciting examples has involved antimicrobial lipids, in which case the QCM-D technique has proven extremely useful to distinguish the mechanisms of action of different compounds interacting with membrane-mimicking supported lipid bilayers. Such mechanistic distinctions were seen for the first time by the QCM-D technique, demonstrating its potential to complement and in some cases surpass the analytical capabilities of traditional biological assays. Looking forward, we see enormous potential to translate fundamental insights obtained from QCM-D measurements into numerous applications across the healthcare, biotechnology, and agricultural spaces among various opportunities."