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Eclipse ni light microscope

Manufactured by Hamamatsu Photonics

The Eclipse Ni light microscope is a high-performance optical microscope designed for a wide range of imaging applications. It features a sturdy and ergonomic design, providing a stable platform for precise and reliable observations. The microscope is equipped with a range of optical components, including objectives and eyepieces, allowing for various magnification levels and imaging modes. The Eclipse Ni is a versatile tool suitable for a variety of scientific and research applications.

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4 protocols using eclipse ni light microscope

1

Microscopic Analysis of Parasite Egress and Invasion

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Egress and invasion were monitored by differential interference contrast (DIC) microscopy using a Nikon Eclipse Ni light microscope fitted with a Hamamatsu C11440 digital camera. Egress videos were performed using one population of parasites stained briefly with Hoechst, as described previously [33 (link)]. Invasion videos were performed using schizonts purified from DMSO- or RAP-treated ACβ-HA:loxP or PKA-HA:loxP cultures mixed with uninfected erythrocytes. DIC images were taken every 150 ms for at least 8 min, and the resulting time-lapse videos were processed using Nikon NIS Elements AR analysis software.
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2

Live-cell imaging with fluorescence microscopy

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Viewing chambers were constructed as previously described (38 (link)). Images were recorded on a Nikon Eclipse Ni light microscope fitted with a Hamamatsu C11440 digital camera and Nikon N Plan Apo λ 63×/1.45NA oil immersion objective. For time-lapse video microscopy, differential inference contrast images were taken at 10-s intervals over 30 min, whereas fluorescence (GFP, mTagBFP2, and mCherry) images were taken every 2 min to prevent bleaching. Time-lapse videos were analysed and annotated using Fiji (83 (link)).
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3

Live Parasite Microscopy Examination

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Viewing chambers for live parasite microscopic examination were constructed as previously described (7 (link)). All images were recorded on a Nikon Eclipse Ni light microscope fitted with a Hamamatsu C11440 digital camera and Nikon N Plan Apo λ 63×/1.45NA oil immersion objective. For time-lapse video microscopy, differential interference contrast (DIC) images were taken at 10 s intervals over 30 min while fluorescence (mNeon Green) images were taken every 2 min to prevent bleaching. Time-lapse videos were analyzed and annotated using Fiji (44 (link)). For viability staining using the vital mitochondrial dye MitoTracker Red CMXRos (ThermoFisher Scientific; stored as a 10 μM stock in DMSO), the dye was added (20 nM final concentration) to a suspension of schizonts pretreated for 1 h with either DMSO (control, 1% vol/vol) or compound 3j (10 μM). The schizonts were incubated with the dye for 15 min at 37 °C, then washed twice, transferred to a viewing chamber, and observed immediately by dual DIC/fluorescence microscopy.
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4

Time-lapse Microscopy of Malaria Parasite Egress

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Viewing chambers were constructed as previously described (41 (link)). Images were recorded on a Nikon Eclipse Ni light microscope fitted with a Hamamatsu C11440 digital camera and Nikon N Plan Apo λ 63×/1.45 NA oil immersion objective. For time-lapse video microscopy, vehicle (DMSO) or RAP-treated schizonts were synchronized by incubation with the reversible PKG inhibitor compound 2 and then washed, mixed in equal proportions, and monitored for egress. Differential inference contrast (DIC) images were taken at 10-s intervals over 45 min, while fluorescence (GFP or mCherry) images were taken every 5 to 10 min to prevent bleaching. Time-lapse videos were analyzed and annotated using Fiji (57 (link)).
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