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Diskovery platform

Manufactured by Oxford Instruments

The Diskovery Platform is a versatile lab equipment product designed for high-throughput material characterization. It utilizes cutting-edge technology to enable efficient and precise analysis of a wide range of materials. The core function of the Diskovery Platform is to provide researchers and scientists with a powerful tool for material investigation and discovery.

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4 protocols using diskovery platform

1

High-Resolution TIRF Microscopy Imaging

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Total internal reflection fluorescence microscopy (TIR‐FM) was performed as previously described.63 Briefly, cells were mounted in PBS and imaged using a 60×, 1.49 NA APO TIRF objective (Nikon) mounted on a fully motorized Nikon Ti‐Eclipse inverted microscope with Perfect Focus System and coupled to an Andor “Diskovery TIRF/Borealis widefield illuminator” equipped with an additional 1.8× tube lens (yielding a final magnification of ×108). TIR‐FM illumination was achieved using a Diskovery Platform (Andor Technology). For live cell experiments, cells were maintained at 37°C during imaging. Imaging sequences were acquired using a sCMOS camera with 6.5 μm pixel size (pco.edge).
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2

Live-cell TIRF Microscopy of Clathrin

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Total internal reflection fluorescence microscopy (TIR-FM) was performed as previously described (Loerke et al., 2009 (link)). Briefly, sCLCa expressing GFP-CLCa and sCLCb expressing GFP-CLCb H1299 and A549 cells were imaged using a 100× 1.49 NA Apo TIRF objective (Nikon) mounted on a Ti-Eclipse inverted microscope with Perfect Focus System (Nikon). TIR-FM illumination was achieved using a Diskovery Platform (Andor Technology). During imaging, cells were maintained at 37°C in RPMI supplemented with 5% fetal calf serum. Time-lapse image sequences were acquired at a penetration depth of 90 nm and a frame rate of 1Hz using a sCMOS camera with 6.5µm pixel size (pco.edge).
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3

Selective Imaging of Peripheral Endosomes

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To selectively image endosomal compartments close to the cell periphery, we adjusted the illumination of TIRF evanescent field to a theoretical penetration depth of ∼200 nm (thick TIRF). Briefly, fixed cells were mounted in PBS and imaged using a 60×, 1.49 NA APO TIRF objective (Nikon) mounted on a fully motorized Nikon Ti-Eclipse inverted microscope with Perfect Focus System and coupled to an Andor Diskovery TIRF/Borealis widefield illuminator equipped with an additional 1.8× tube lens (yielding a final magnification of 108×). TIRF illumination was achieved using a Diskovery Platform (Andor Technology). During imaging, cells were maintained at 37°C. Image sequences were acquired using a scientific CMOS camera with 6.5-µm pixel size (pco.edge).
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4

Live Cell Imaging with TIR-FM

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Total internal reflection fluorescence microscopy (TIR-FM) was performed as previously described.63 (link) Briefly, cells were mounted in PBS and imaged using a 60×, 1.49 NA APO TIRF objective (Nikon) mounted on a fully motorized Nikon Ti-Eclipse inverted microscope with Perfect Focus System and coupled to an Andor “Diskovery TIRF/ Borealis widefield illuminator” equipped with an additional 1.8× tube lens (yielding a final magnification of ×108). TIR-FM illumination was achieved using a Diskovery Platform (Andor Technology). For live cell experiments, cells were maintained at 37°C during imaging. Imaging sequences were acquired using a sCMOS camera with 6.5 μm pixel size (pco.edge).
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