Increase imaging speed, generate robust, multi-parametric datasets, and streamline analysis
Complex imaging assays give you the high-quality, multi-parametric data you need to get deeper, richer insights across a vast range of research areas. This enables you to progress your work faster, uncover new avenues for future research, and confidently make more informed, data-driven decisions.
Our high-content screening (HCS) solutions include high-content imaging (HCI) systems and high-content analysis (HCA) software that provide flexible scalability making it easy to evolve your system alongside your research. Tackle a vast range of imaging assays from simple cell counting to complex cell profiling, live cell assays, and neurite outgrowth.
Streamlined solutions for high-content imaging and analysis.
Image more complex assays
Perform multi-parametric assays and get the deeper insights you need to proceed with confidence
Analyze more data
Get results quickly with industry-leading software solutions offering powerful, intuitive image analysis supported by AI and machine-learning capabilities.
Screen more assays
Quickly perform hundreds of cell-based assays using one instrument with multiple options for imaging modes, application modules, analytics, and options for live-cell imaging.
Introduction to the ImageXpress Confocal HT.ai system
Our team of imaging experts will get back to you within 1 business day to help you identify the best solution for your lab, research, and workflow.
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We support researchers across a vast range of imaging applications, from cell painting to neurite outgrowth and have compiled a lot of learnings in our 40 years of experience.
Cell Painting
Cell Painting is emerging as a valuable tool with its many important potential applications, particularly in drug discovery. Done correctly, it can give researchers far deeper insights into the effect of genetic or chemical perturbations on cells, as well as increasing the chances of novel discoveries.
High-content imaging of neurons allows scientists to characterize and measure changes in neuronal networks such as neurite number, length, and branching, as well as determine gross or specific toxicity reactions.
Imaging cells in brightfield enables scientists to image live cells under near-native conditions - examining biological processes without the adverse effects of phototoxicity or using genetic modification or reagents to label the cells. However, these images can be difficult to robustly analyze due to their low contrast, edge effects, and high or heterogenous backgrounds.
Testing for cardiotoxity is important in early stage drug discovery. While mechanical contractions can be recorded in transmitted light, observing calcium oscillation patterns can provide additional insights into the potential effects of compounds on cardiac tissue.
