Nikon Instruments launches AX R microscope with NSPARC 2K software

Nikon Instruments Inc. has significantly expanded its AX series lineup through the launch of the AX R microscope with NSPARC 2K software, a major leap in microscopy technology aimed at transforming biomedical research. This new product, set to be available on June 28, offers unprecedented resolution and speed, enhancing research capabilities in fundamental biology, disease research, and drug development.

The core innovation of the AX R with NSPARC Super-Resolution Confocal Microscope lies in its ability to deliver maximum resolution performance across a field of view that is four times larger than previous models. Coupled with the Nikon Spatial Array Confocal (NSPARC) detector, this system allows for highly precise observations with significantly reduced noise and enhanced image contrast.

One of the standout features of the new microscope is its image acquisition speed, which is six times faster than traditional galvano scanners at the same magnification. This enables ultra-fast imaging, critical for capturing dynamic biological processes such as CAR-T cell movements within cancer research. The expanded observation range also allows researchers to capture detailed images of cell and tissue microstructures over larger areas without losing resolution, facilitating a deeper understanding of complex biological phenomena.

With its advanced capabilities, the AX R with NSPARC 2K is particularly effective in fields requiring high throughput and resolution, such as gene and cell therapy research. According to Tatsuya Yamaguchi, Nikon Executive Officer and General Manager of Healthcare Business Unit, “This product empowers the scientific community to more efficiently research and understand complex diseases like cancer and Alzheimer’s disease, as well as assist in drug discovery efforts.”

The introduction of Nikon’s AX R with NSPARC 2K represents a pivotal moment in microscopy, offering tools that could significantly speed up the discovery and understanding of disease mechanisms. This technology is set to redefine the boundaries of cellular and tissue-level research, providing invaluable insights that are critical for the development of effective new therapies.