Comparing with conventional wide-field imaging microscopes, confocal microscopy hold significant advantages in image contrast enhancement, 3D sectioning capabilities, and compatibility with specialized detectors. For applications such as live cell imaging, slow acquisition speed is a key barrier to adaption of confocal microscopy. While wide-field microscopy is typically faster, multiplexed confocal schemes such as using a spinning foci array can significantly increase the image acquisition rate. The moving foci array in the spinning disc, however, prevents the use of specialized discrete photo detectors arrays.
We have developed a suite of technologies to generate, scan, and measure 1000+ confocal foci simultaneously, while is compatible with stationary discrete detectors. Another key feature of the technique is that it can be retrofitted to a conventional wide-field fluorescence microscope. We are also developing various related technologies for its applications in drug discovery and in vivo imaging.
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Qiyin Fang Eng Phys | David W. Andrews Sunnybrook | Cecile Fradin Physics |
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Ian Phillips 2023 Fellow | Nikolina Malic 2025 BME PhD | Laura Polga 2024 Eng Phys MS | Yiping Wang 2025 BME PhD |
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Jade Cao 2024 iBioMed-Eng Phys | Jyot Adhvaryu 2024 iSci-Biology | Yuefeilin Xiao 2025 Honours Life Sciences |
Morgan Richards 2024 PhD Eng Phys | Nehad Hirmiz 2019 PhD BME | Anthony Tsikouras 2017 PhD Eng Phys | Shu-Chi Allison Yeh 2015 PhD BME | Jin Ning 2010 MSc BME |
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