Carl Zeiss Obtains Licence from University of California for Illumination Technique
Carl Zeiss has received a licence from the University of California in San Francisco (UCSF) for the commercialization of “Multidirectional Selective Plane Illumination Microscopy” (mSPIM), an advanced illumination technique for light sheet fluorescence microscopy.
Light sheet fluorescence microscopy is a relatively new application of the concept of light sheet illumination in biology and the life sciences. It is ideally suited for live imaging of up to millimeter sized fluorescently labeled specimens for days under certain physiological conditions and with minimum photo-induced damage.
The mSPIM technique was developed by Dr. Jan Huisken at the UCSF. It reduces absorption and scattering artifacts and provides an evenly illuminated focal plane. By alternating illumination of the sample from multiple sides, mSPIM overcomes two common problems in light sheet imaging techniques: shadowing effects in the excitation path and spreading of the light sheet by scattering in the sample.
The agreement grants Carl Zeiss the right to integrate the mSPIM technology in its microscopy systems. The first commercial light sheet fluorescence microscope (LSFM, also known as “selective plane illumination microscope” or “SPIM”) for multidimensional, ultrafast and long- term timelapse imaging of live specimens is currently being developed at Carl Zeiss in Germany.
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Topic world Fluorescence microscopy
Fluorescence microscopy has revolutionized life sciences, biotechnology and pharmaceuticals. With its ability to visualize specific molecules and structures in cells and tissues through fluorescent markers, it offers unique insights at the molecular and cellular level. With its high sensitivity and resolution, fluorescence microscopy facilitates the understanding of complex biological processes and drives innovation in therapy and diagnostics.
Topic world Fluorescence microscopy
Fluorescence microscopy has revolutionized life sciences, biotechnology and pharmaceuticals. With its ability to visualize specific molecules and structures in cells and tissues through fluorescent markers, it offers unique insights at the molecular and cellular level. With its high sensitivity and resolution, fluorescence microscopy facilitates the understanding of complex biological processes and drives innovation in therapy and diagnostics.
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