Microfluidics for biosensor calibration and testing A biosensor is an analytical device that detects a biological or chemical target and converts this interaction into a measurable signal. To translate this signal into reliable quantitative data, the sensor must first be tested against known concentrations of the target analyte. During development, controlled analyte concentrations are used to characterize the sensor response, establish a calibration curve and evaluate its performance. As biosensing technologies are increasingly used for [...] Read more
Embedded microfluidics: compact OEM fluidic systems As microfluidic systems move beyond traditional laboratory environments, engineers are facing a new reality. Whether designing a portable diagnostic device, an environmental monitoring platform, an autonomous robot, a drone, or even a space instrument, every millimeter, every gram and every connection matters [...] Read more
Radiochemistry automation for modern lab workflows Radiochemistry automation is becoming essential in modern laboratories working with radioactive materials. From research to clinical production, teams need to handle complex chemical reactions while ensuring safety, precision [...] Read more
Microfluidics for Spatial Transcriptomics: Mapping Gene Expression in 3D Spatial transcriptomics represents one of the most powerful advances in molecular and cellular biology, combining high-resolution imaging, sequencing, and spatially resolved molecular profiling to reveal how genes are expressed within intact tissue sections. By preserving spatial organization, it enables scientists to map gene expression and mRNA distribution in situ, providing insight into [...] Read more
Microfluidics for Spatial Proteomics, mapping proteins in context Spatial proteomics is rapidly emerging as a transformative approach in biological research, offering a new way to reveal how protein expression and proteome organization vary across tissue architecture and cellular environments. Unlike traditional proteomic methods that dissociate cells or homogenize tissue, spatial proteomics preserves [...] Read more
Microfluidics for Spatial Biology: Precision at the cellular scale Spatial biology is transforming how scientists study complex biological systems, not just by identifying which genes or proteins are active, but by revealing where they act within tissues, and how cells interact in their native microenvironment. At its core, it combines imaging [...] Read more
