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Uno stage top incubator

Manufactured by Okolab
Sourced in Italy

The UNO stage top incubator is a laboratory equipment designed to provide a controlled environment for live cell imaging and microscopy applications. It maintains a stable temperature, CO2 concentration, and humidity within a designated area on a microscope stage.

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5 protocols using uno stage top incubator

1

Wound Healing Cell Migration Assay

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A wound was introduced in the central area of the confluent cell sheet by using a pipette tip and the cell migration was followed in time-lapse using a Leica DM IL LED inverted microscope (Leica, Germany) at 37 C and 5% CO 2 and 95% humidity (UNO stage top incubator, Okolab, Italy) every 15 min until the complete closure of the scratch with a 10× objective.
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2

Live-Imaging of Cellular Structures using Stereo Microscopy

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Stereo microscopy was performed using the SMZ-18 stereomicroscope (Nikon, Japan) equipped with a P2-SHR Plan Apo 1x N.A. objective (Nikon, Japan), a P2-DBL LED plain base (Nikon, Japan) and a DS-Fi3 digital microscope camera (Nikon, Japan). The H301-MINI temperature-controlled chamber (Okolab, Italy) and UNO-STAGE-TOP-INCUBATOR (Okolab, Italy) were used for incubation at 30°C during live-imaging. Image and video processing and measuring of plaque sizes was done using the NIS-Elements AR v.5.30.03 (Nikon, Japan).
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3

α2A-AR Subcellular Trafficking Assay

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To measure the effect of C1orf27 depletion on α2A-AR transport in live cells, images were captured using LAS X software at an interval of 1 min with a 63x objective on a Leica Stellaris five confocal microscope equipped with an Okolab UNO stage top incubator. The cells with low receptor expression without aggregation were chosen to be studied. Receptor expression at the Golgi and the whole cell were quantified by measuring the fluorescence intensities. The Golgi area of individual cells was defined by the region with highly concentrated receptors after biotin induction. To measure the effect of C1orf27 depletion on the subcellular localization and ER export to the Golgi and the cell surface of α2A-AR in fixed cells, the cells were fixed with 4% paraformaldehyde for 15 min. To measure the surface expression of HA-α2A-AR in stable cell lines, the cells were fixed and blocked with 0.24% normal donkey serum for 1 h. The cells were then stained with HA antibodies overnight and Alexa Fluor 594-conjugated secondary antibodies for 1 h.
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4

Live-cell Imaging of Transcription Dynamics

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Live-cell imaging of transcription dynamics was performed as previously described in detail with minor modifications (40–42 (link)). In brief, yeast cultures were started in synthetic complete medium containing 2% raffinose in the morning, diluted in the evening and grown O/N to mid-log (OD600 nm 0.2–0.4) whereafter they were imaged on a coverslip with a 2% agarose pad containing 2% galactose and 2% raffinose. Imaging was performed on a setup consisting of an AxioObserver inverted microscope (Zeiss), an alpha Plan-Apochromat 100× NA 1.46 oil objective, an sCMOS ORCA Flash 4v3 (Hamamatsu) with a 475–570 nm dichroic (Chroma), 570 nm longpass beamsplitter (Chroma) and 515/30 nm emission filter (Semrock), a UNO Top stage incubator (OKOlab) at 30°C, and LED excitation at 470/24 nm (SpectraX, Lumencor) at 20% power and an ND 2.0 filter, resulting in a 62 mW/cm2 excitation intensity. Widefield images were recorded for 1 h at 15 s interval, with z-stacks (9 planes at 0.5 μm intervals) and 150 ms exposure using Micro-Manager software (43 (link)). For each condition, 9 replicate datasets were acquired with in total at least 265 cells.
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5

Live-cell transcription dynamics imaging

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Live-cell imaging of transcription dynamics was performed as previously described in detail4 (link),57 (link) with minor modifications. In brief, cells were treated with 7.5 μM rapamycin or dimethyl sulfoxide (DMSO) for 60 min and subsequently imaged at mid-log (optical density (OD600nm) 0.2–0.4) on a coverslip with an agarose pad consisting of 2% agarose and synthetic complete medium containing 2% galactose and 7.5 mM DMSO or rapamycin. Imaging was performed on a setup consisting of an AxioObserver inverted microscope (Zeiss), an alpha Plan-Apochromat ×100 numerical aperture (NA) 1.46 oil objective, an sCMOS ORCA Flash 4v.3 (Hamamatsu) with a 475–570 nm dichroic (Chroma), 570 nm longpass beamsplitter (Chroma) and 515/30 nm emission filter (Semrock), a UNO Top stage incubator (OKOlab) at 30 °C and light emitting diode (LED) excitation at 470/24 nm (Spectra X, Lumencor) at 20% power and an neutral density (ND) 2.0 filter, resulting in a 62 mW cm2 excitation intensity. Widefield images were recorded for 1 h at 15 s intervals, with z-stacks (nine slices, Δz 0.5 μm) and 150 ms exposure using Micro-Manager software58 (link). For each condition, at least two and often three replicate datasets were acquired with at least 80 cells in total.
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