Publication | Open Access
Quantitative comparison of camera technologies for cost-effective super-resolution optical fluctuation imaging (SOFI)
32
Citations
28
References
2019
Year
High ResolutionEngineeringMicroscopyBiomedical EngineeringSuper-resolution MicroscopySuper-resolution ImagingMicroscopy MethodOptical PropertiesComputational ImagingLight MicroscopyImaging SystemBiophysicsNovel Imaging MethodPhotonicsMedicineLaser MicroscopyFluorescence ImagingAbstract Super-resolutionCamera TechnologiesSuper-resolutionBiophotonicsComputational Optical ImagingFluorescence MicroscopyMicroscope Image ProcessingBiomedical ImagingOptical Information ProcessingImage ResolutionImagingQuantitative Comparison
Abstract Super-resolution (SR) fluorescence microscopy is typically carried out on research microscopes equipped with high-NA TIRF objectives and powerful laser light sources. Super-resolution optical fluctuation imaging (SOFI) is a fast SR technique capable of live-cell imaging, that is compatible with many wide-field microscope systems. However, especially when employing fluorescent proteins, a key part of the imaging system is a very sensitive and well calibrated camera sensor. The substantial costs of such systems preclude many research groups from employing SR imaging techniques. Here, we examine to what extent SOFI can be performed using a range of imaging hardware comprising different technologies and costs. In particular, we quantitatively compare the performance of an industry-grade CMOS camera to both state-of-the-art emCCD and sCMOS detectors, with SOFI-specific metrics. We show that SOFI data can be obtained using a cost-efficient industry-grade sensor, both on commercial and home-built microscope systems, though our analysis also readily exposes the merits of the per-pixel corrections performed in scientific cameras.
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