VISQUE® InVivo ART
Monitor disease progression and evaluate effects of drug candidates with extremely high sensitivity
VISQUE® InVivo Smart
The Vieworks VISQUE® InVivo Smart is a compact in vivo optical imaging system for fluorescent imaging of mice from green to near-infrared and also time-lapse acquisition as fast as 30 ...
VISQUE® InVivo Smart-LF
The Vieworks VISQUE® InVivo Smart LF is a compact in vivo optical imaging system that offers fluorescent and luminescent detection from green to near-infrared and also time-lapse acquisition as fast ...
Study Essential Viral Processes through a Dynamic Single-Molecule Approach
Viral replication strategies and life cycles vary depending on the virus types and can differ throughout all stages, including virus entry, replication, latency, and shedding (Figure 1). Understanding infection and ...
Etaluma Lumascopes
Microscopes focused on quality images, versatility, compact design, and ease of use.
Lumicks – Manipulate and Study Protein-Droplet Dynamics and Properties in Real Time to Understand Phase Separation
This application note introduces you to a new approach that correlates optical tweezers and the latest imaging techniques to study phase separation properties in real time. Based on four recent ...
Micromanipulator for Life Science
The MM3A-LS micromanipulator is employed by scientists around the world and is renowned for long-term stability and precision and has earned Kleindiek Nanotechnik a reputation for top-of-the-line manipulation solutions.
Lumicks – Drug Discovery Research
Dynamic Single-Molecule analysis One of the big challenges in Drug Discovery today is that all current life science tools working at the molecular level either measure static structure or average ...
Lumicks – Cellular Structure and Transport
Scientists can use optical tweezers to trap beads and catch a filament with motor proteins bound to it in-between. This filament can then be manipulated by moving the beads, while ...
Lumicks – Study Protein Folding and Conformational Dynamics at the Nanoscale
Scientists can use optical tweezers to trap beads and catch a biomolecule, such as a protein, in between. The folding and unfolding of the protein can then be monitored by ...