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Inverse confocal microscope with up to 6 channels (2 PMT, 4 GaAsP, up to 8192 x 8192 pixels). Airyscan 2 detector (32 channel GaAsP) for super-resolution imaging or high-speed acquisition (Multiplex mode with 4x or 8x parallelisation of detection), transmitted light PMT. FCS option and spectral imaging (via sequential acquisition). Motorized XY stage with Z-Piezo top plate, stage-top environmental control (temperature/CO2) and Python interface for complex workflows. Widefield illumination: 4-channel Zeiss Colibri LED, halogen lamp (room 1.223)
Inverse confocal microscope with 2 PMT channels (up to 2048 x 2048 pixels), transmitted light PMT and motorized stage. Spectral imaging via sequential acquisition, tiling and online stitching, macro for complex workflows. Widefield illumination: halogen lamp, CoolLED pE-2 (room 1.223)
Inverse super-resolution microscope for lattice SIM, 3D SMLM (PALM/STORM), TIRF and laser widefield imaging. Apotome mode for optical sectioning of thick specimen. Dual-camera port with 2 sCMOS cameras for fast acquisitions. Lasers to image dyes from blue to far red. Multi-positioning (Piezo-driven XY stage with Z-Piezo insert) and hardware autofocus. Environmental box for live imaging with temperature and CO2 control. Widefield illumination: Excelitas Xylis (white LED), halogen lamp (room 1.723)
System for high-throughput live imaging and screening. For multiwell plates (glass or plastic bottom), dishes and chamber slides. Hardware autofocus, autocorr objectives (50x with water immersion), magnification changer (up to 2x), sCMOS camera, 7-color LED for fluorescence, IR-LED for transmitted light and phase gradient contrast, temperature/CO2 control. Python interface for real-time image analysis and custom workflows (room 1.320)
Upright point scanning microscope with 2 avalanche photodiode detectors for dual-channel 2D STED (orange, dark red) or conventional confocal imaging of 3 dyes (green, orange and dark red). Piezo-driven z-focus for 3D acquisition, manual XY stage for standard slides. Widefield illumination: halogen lamp, CoolLED pE-2 (room 1.723)
Recommended dyes (maximum resolution in brackets)
Inverse spinning disk microscope unit for fast pseudo-confocal imaging, preferably for live applications at ambient temperature. Standard sCMOS and high-sensitivity EM-CCD camera. Motorized XY stage with Piezo z drive for fast 3D imaging, 405 nm point scanner for FRAP/photoactivation, and a CherryTemp heater/cooler for fast temperature shift experiments (5-45°C). Widefield illumination: HXP short-arc lamp, white LED (room 1.223)
Inverse spinning disk microscope for fast pseudo-confocal imaging, preferably for long-term live applications. Fast high-resolution sCMOS or sensitive EM-CCD camera, multi-positioning and full environmental control. Pulsed 355 nm laser for nanodissection, all lasers available for photomanipulation (FRAP, photoactivation). Widefield imaging with OptoSplit for simultaneous acquisition of two channels, sCMOS camera. Widefield illumination: 7-color LED, white LED for transmitted light (room 1.318)
Inverse widefield microscope unit with solid state LED light source and filter sets to image all conventional dyes. 3-color TIRF and single-point 405 nm FRAP option. Equipped with a 4 Megapixel sCMOS camera for fast high-resolution imaging, sensitive EM-CCD for TIRF and low-light applications, or color CMOS camera. Motorized stage for 5D-data acquisition, full environmental control for long-term live imaging. Microfluidics device for mammalian cells, yeast and bacteria (room 1.223)
Inverse widefield microscope in Sedat setup equipped with a 4-Megapixel sCMOS camera for fast fluorescence and brightfield imaging. 7-color solid state light source for fluorescence imaging with Köhler and critical illumination, respectively, white LED for brightfield, DIC optics. Motorized XY stage, hardware autofocus and environmental chamber for temperature and CO2 control, onboard deconvolution (room 1.320)
Inverse widefield epifluorescence microscope unit with 1.3 Megapixel CCD camera, 7-color LED for fluorescence, white LED for transmitted light. XYZ-scanning stage for 5D acquisitions, onboard deconvolution algorithms fitted to the optical path of the system. Optional: critical fluorescence illumination for dim samples (room 1.320)
Five microscopes (one on each floor and a teaching microscope) in the MPL main building have been upgraded to state-of-the-art technology. They host high-end CCD cameras, they are fully equipped for standard fluorescence/brightfield imaging and are motorized to a large extent. Irmgard Fischer is the responsible person for these microscope. She helps in training, troubleshooting and maintenance/service. It is mandatory to follow the "in-house"-specific administrative rules!
Irmgard Fischer, room 4.621/5.506, phone ext. 52866, mobile 0660/7681381
2nd floor (room 2305) - Zeiss Observer Z1, inverted
3rd floor (room 3517) - Axio Observer Z1, inverted
4th floor (room 4407) - Axio Imager Z2, upright
5th floor (room 5423) - Axio Imager M2, upright
Teaching (room 5519) - Axio Observer Z1, inverse
Two image processing workstations in the MPL main building (room 6.508) with stand-alone microscope software (Olympus cellSens, Zeiss ZEN), professional software packages for deconvolution and 3/4D image processing (Imaris, Huygens Professional) and open source bioimage analysis software (Fiji, Icy, IMOD, CellProfiler, cellpose, Aydin, FRAP-Analyser and MIAnalyzer).
Acquifer HIVE acquistion server with 10 TB storage space (RAID 5), Intel Xeon E5-1650 v3 CPU (3.50 GHz), 128 GB RAM and PNY NVIDIA Quadro P1000 GPU (4 GB RAM). Connected microscopes (10 Gb/s):
Secure central repository for microscopic images for research groups. Allows to organize, share, search for, view and analyze data using a web interface. Over 140 image file formats are supported
Fiji/ImageJ timestamp reader plugin for Bio-Formats metadata
Imports timestamps from the following file formats into ImageJ/Fiji:
Fiji plugin to analyze the fluorescence intensities of giant unilamellar vesicles (GUVs)
Potential trainees must provide an organized experimental strategy to discuss with the facility staff and have already own samples for an individualized training session.
Attend the Introductory Lecture including laser safety instructions.**
At the PPMS booking system (https://ppms.eu/maxperutzlabs) apply for a training. Fill in and submit the Training Application. We will organize a meeting, discuss most forward strategies and find the proper setup.*
A training unit with the facility staff will be organized – training units will be split into "how to do" and "optimize my sample" sessions (on separate days).
Before you attend the sessions, please download our General Administrative Rules and read them thoroughly!
*Optional: facility personnel evaluates potential applicability with user specific samples, if selection of the proper microscope system remains unclear.
**1.) and 2.) may - in rare cases - be switched.
Lectures always take place in the seminar rooms in VBC5, level E1. Lecture dates are announced regularly. To register for the lecture please select a slot in the termino calendar (https://www.termino.gv.at/meet/en/b/aa47725138e0913ad25a6ef7d8854ded-125296).
@ "IN HOUSE" MICROSCOPES: Apply for a training via PPMS (see above) using the respective In-House-Training application form. Don't forget to read the IN-HOUSE-specific administrative rules.
Please contact the facility staff: firstname.lastname@example.org
VBC5 Level E1
Campus-Vienna-Biocenter 5, 1030 Vienna
Office: room 1.618 (phone ext. 61672)
Microscopes 1: room 1.223 (phone ext. 61678)
Microscopes 2: room 1.320 (phone ext. 61677)
Microscopes 3: room 1.318 (phone ext. 61679)
Microscopes 4: room 1.723 (phone ext. 61675)
Tissue Culture: room 1.219 (phone ext. 52247)
Image Processing Workstations: Max Perutz Labs main building, 6th floor, room 6.508.
We have now installed a superresolution microscope platform - ZEISS' ELYRA7 - dedicated for a special type of structured illumination microscopy (Lattice-SIM plus SIM2-algorithm), which allows xy resolution improvement down to rather 70nm. In addition a dual camera attachment can be used for simultaneous two-colour imaging. More modalities are allowed using ELYRA7: apotome-mode for lower magnifications and fixed-angle TIRF. The latter is also the basis for single molecule experiments of STORM and PALM (also 3D) style. The speed of lattice-SIM now first time makes live cell superresolution imaging below the 100nm resolution limit possible.
We have now installed a single platform for image acquisition on all of our “in-house-microscopes”: ZEN blue. This our effort will remove barriers for our users to switch between the 5 different microscope systems. Using the same acquisition software will streamline the training input and allow a more efficient system maintenance.
In addition, the 3rd floor microscope was equipped with a new and modern sCMOS camera, the ORCA-Flash 4.0 LT.
We have invested in three state-of-the-art objectives for our deconvolution system to improve imaging at different points. X-Line Objectives is a recent lens development line from Olympus, which show substantial improvements in the correction of flatness and chromatic aberration. The 40x oil objective is now apochromatically corrected and leave us with an improved numerical aperture (1.4 instead of 1.3 -> higher resolution!). The X-line objective “UPLXAPO60XO” will would allow substantial improvement in flatness correction, which will minimize photoxicity for scanning and stitching approaches. The third objective, a dry 40x, 0.95 lens (UPLXAPO-40x), would be an add-on to the existing portfolio, which would extend potential multi-well plate scanning experiments with a super-high NA objective.
Our new Zeiss confocal microscope - the LSM980 - is installed and functional as a valuable portfolio add-on. The main features of the system, beside the standard confocal functionality, include: Sensitive GaAsp detectors; 6-channel imaging; multiplex AIRY scan modality for faster superresolution imaging; multiple high-end water immersion objectives; FCS/FCCS/RICS modality.
Nucleic Acids Research, gkaa859, doi.org/10.1093/nar/gkaa859
Cells (2020), 9(2), 463; doi.org/10.3390/cells9020463.