C-Trap™ installed at University of Vermont

We are happy to announce the recent installation of the C-Trap™ at the University of Vermont Larner College of Medicine. Several labs will use the correlated optical tweezers – fluorescence microscopy instrument to investigate the dynamics of molecular machines that interact with their tracks to generate force and motion. These processes are critical to intracellular activities, such as cargo transport, muscle contraction, chromosome movement, and DNA repair.

One of the main users, Dr. Warshaw, and his lab, are interested in the individual and collective properties of myosin motors and the cytoskeletal proteins that regulate them. With the C-Trap, the researchers can now study the properties of a single myosin-binding protein C as it dynamically interacts with the myosin motors and actin tracks to generate molecular forces. The instrument enables them to characterize the structural and regulatory properties of the myosin-binding protein in real time. 

We wish the new C-Trap users in the labs of Drs. Warshaw, Trybus, Stumpff, Lee, Berger, Previs, and Howe best of luck with their ongoing research, and we are eager to see their future results!

Do you want to discuss the applications and benefits of our C-Trap™ for your research? Meet our application scientists at one of the conferences we are attending, or contact us for brochures, a demo, or a quote.   

Want to learn more about this application and our solutions?

Cytoskeletal Motors

Activity, kinetics and processive motion
Discrete steps
Thermodynamic properties

Optical Tweezers and Fluorescence Microscopy


The combination of optical tweezers and fluorescence microscopy allows for simultaneous manipulation and visualization of molecular interactions in real-time



Optical Tweezers and Fluorescence Microscopy


Optical Tweezers

More stories

Dynamic Single-Molecule Workshops in North and South of China

Featured Post

C-Trap™ installed at Tel Aviv University

Featured Post

Single-molecule study assesses how cohesin complexes bridge DNA molecules using C-Trap correlated optical tweezers with fluorescence microscopy

Featured Post

Take your research to the next level.

Get exclusive news on the latest products, single-molecule events and breakthrough science.

Newsletter pop up
By clicking the subscribe button you agree to LUMICKS’ privacy policy.