Omega Optical is the world’s leading supplier of custom filters for research, clinical, and point of care colorimetric and fluorescence-based instruments and applications. Our engineers bring elite expertise to every customer engagement, delivering personalized solutions that result in positive outcomes for product developers, scientists, practitioners, and the people who rely on them.
Our high-quality optical filters and coatings enable advanced applications in fluorescence microscopy, spectroscopy, and medical imaging. These precision components ensure accurate, high-resolution imaging, which is crucial for detailed cellular and molecular analysis. Our biosensing technologies and infrared optics, including diamond-like carbon coatings, support robust, sensitive detection methods essential for medical diagnostics and research.
First High S/N (10^6) Filters Produced for Fluorescence
The 1978 production of high signal-to-noise ratio filters advanced fluorescence microscopy, allowing clearer imaging of biological specimens, better distinguishing signals from noise, and improving diagnostics and research with higher contrast images.
Fluorescence Filters for Flow Cytometry Introduced
The 1980 introduction of fluorescence filters for flow cytometry revolutionized cell analysis by enabling rapid, quantitative detection of fluorescently labeled antibodies, crucial for immunophenotyping, cell sorting, cancer diagnosis, and treatment monitoring.
Human Genome Project Launches with Omega Filters
The 1986 Human Genome Project initiation was monumental, with Omega filters enabling high-precision fluorescence detection for DNA sequencing, crucially advancing personalized medicine, genetic disorder identification, and targeted therapy development.
NIH-NCI SBIR Fast-Track for Multispectral Microscopic Confocal Imaging Endoscopy
In 2008, the NIH-NCI SBIR fast-track initiative advanced multispectral confocal imaging endoscopy, combining high-resolution microscopy and endoscopy for precise, real-time cancer detection, significantly improving early diagnosis and patient outcomes.
All flow cytometers are based on central fluidics systems known as flow cells which contain a continuous liquid stream traveling through the cytometer. Samples in suspension are injected into the center of the sheath fluid as it passes through the nozzle which ‘focuses’ the liquid stream according to the cells’ hydrodynamic radii. This causes them to flow through the system in single file.