Flow Cytometry Immune Monitoring Shared Resource

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Lab Machines

The Flow Cytometry Immune Monitoring Shared Resource (FCIMSR) at the University of Arizona Cancer Center supports the research needs of all Cancer Center members by providing state-of-the-art instrumentation for data acquisition, analysis, cell sorting, and the technical expertise to interpret results and develop methods. We offer information about new techniques and applications of flow cytometry through workshops and seminars and provide training to interested facility users who wish to run their own samples. Individual consultation services are available to discuss the specifics of each project.

Flow cytometry is a powerful tool that measures the functional and structural characteristics of heterogeneous mixtures of cells and particles in suspension based on their ability to scatter light. The cell sorting function separates these cells physically into their different classes. Researchers have the capability to analyze and sort cells by differences in physiology, metabolism, morphology and other characteristics. The ability to distinguish different cell types is limited only by the ability to attach specific fluorescent markers to the cells.

Human Immune Monitoring

The Human Immune Monitoring Facility (HIMF) is within the shared resource and provides comprehensive immune profiling, sample preparation, and clinical trial support. Our mission is to provide technical expertise to clinical investigators and research scientists who want to characterize the immune system by offering up-to-date immune monitoring services for clinical and translational studies.

Our services include multispectral flow cytometry, metabolic analysis, blood services such as PBMC isolation and serum/plasma extraction, and a full spectrum of immunological services. We also offer custom assays upon request and will work with interested investigators to help get their projects up and running. Biobanking services are also available upon request.

We offer training, assisted, unassisted, and technician-operated modalities for all our instruments and will meet investigators at their desired level of engagement. All services are available during regular business hours (M-F 8am - 4pm) with 24-hour access to select instruments.

Spatial Transcriptomics or Proteomics at the FCIMSR

The FCIMSR houses a NanoString GeoMx Digital Spatial Profiler (DSP) which is a spatial biology instrument that enables morphology-driven, high-plex profiling on a single FFPE or fresh frozen tissue section. DSP technology combines standard immunofluorescence techniques with nCounter optical barcoding quantification. This technology allows for spatially resolved, high-plex (10s -10,000s) digital quantitation of proteins or mRNA while maintaining integral information about tissue architecture and spatial relationships between cellular networks.

These services are supported across three core facilities (FCIMSR, TACMASR, and AZGC) through a purposefully designed cross-core collaboration which allows for leading campus experts in staining, immune profiling/DSP technology, and genomics to support the successful completion of these projects. The FCIMSR acts as the project liaison throughout the process to facilitate a seamless workflow including project design, reagent selection, and data interpretation. 

To build a project, get a quote, or order a service within iLab:

Please remember to acknowledge the Cancer Center Support Grant (P30 CA023074) when publishing manuscripts or abstracts that utilized the services of the University of Arizona Cancer Center’s Shared Resources and/or were derived from CCSG pilot funds. Suggested language: "Research reported in this [publication/press release] was supported by the National Cancer Institute of the National Institutes of Health under award number P30 CA023074."

Equipment

  • The FACS Canto II (BD Biosciences, San Jose, CA) is an analyzer which can acquire data from eight fluorescence detectors using three lasers: 405nm, 488nm, and 640nm.
  • The FACS Aria III (BD Biosciences, San Jose, CA) is a cell sorter equipped with 5 lasers: 488nm, 633nm, 561nm, 405nm and 355nm, and offers 17 fluorescence detectors. The sorting function of this instrument enables the researcher to physically separate the individual cells and particles from a mixed population. Viable cells can be recovered for further study or culture. The addition of a Baker BioProtect III biosafety cabinet, in which the Aria is housed, allows for sorting of certain live human tissue and BSL2 agents.
  • The LSRII (BD Biosciences, San Jose, CA) is an analyzer capable of acquiring and analyzing data from 16 fluorescence parameters and has five lasers: 355nm, 405nm, 488nm, 532 nm and 640nm.
  • The Cytek Aurora (Cytek Biosciences, Fremont, CA) is a multispectral flow cytometer. This instrument is capable of 64 channels of detection across 5 lasers using up to 40 colors in a single multicolor sample. Laser wavelengths include 355nm, 405nm, 488nm, 561nm, and 640nm. This cytometer also comes equipped with a 96 well plate loader for high throughput cytometry applications.
  • The ImagestreamX MarkII is an imaging cytometer, which uses flow cytometry technology to acquire microscopic images of fluorescence data from thousands of individual cells in liquid suspension. It has 10 fluorescence channels, using four lasers: 405nm, 488nm, 532nm, and 640nm.
  • The Fortessa (BD Biosciences, San Jose, CA) which has been in the care of the Nikolich-Zugich laboratory for many years is now administered by the FCIMSR. It can be found in the Medical Research Building, room 240K2, directly across from the LSRII flow cytometer. The Fortessa is functionally identical to the LSRII, but newer, with 7 detectors off the violet laser compared to only 4 detectors on the LSR.
  • The Attune (ThermoFisher) is a 14 ‘color’ flow cytometer with an exceptionally fast tube and plate sample rate. It uses sound waves to focus the sample stream into the laser intercepts, so its data precision is almost unaffected by flow rate, unlike a conventional flow cytometer which uses fluid dynamics to focus the sample which cannot maintain precision at even moderate flow rates.
  • The Seahorse XFe96 Metabolic Analyzer (Agilent Technologies, Santa Clara, CA) is used to measure the oxygen consumption rate (OCR) and extracellular acidification rate (ECAR) of live cells in a 96-well plate format. OCR and ECAR rates are key indicators of mitochondrial respiration and glycolysis as well as ATP production rate. Together these measurements provide a systems-level view of cellular metabolic function in cultured cells and ex vivo samples
  • The QuantStudio 3D Digital PCR System (Applied Biosystems, Foster City, CA) is a simple, affordable platform that uses sealed-chip technology, providing a streamlined, reliable, and robust method for performing digital PCR. The turn-key chip-based workflow allows for loading the chip, sealing and proceeding to amplification. Featuring 20,000 nanoscale reaction wells per chip, this platform enables more controlled sample loading and less reaction dropout than droplet-based approaches, ensuring higher precision for absolute quantification
  • The BioTek Cytation 1 Cell Imaging Multi-Mode Reader (BioTek Instruments Winooski, VT) combines high sensitivity filter-based fluorescence and high contrast brightfield imaging with conventional multimode detection. The Cytation 1 can interface with the Seahorse instrument to allow for real-time normalization for Seahorse assays.
  • The NanoString GeoMx Digital Spatial Profiler (DSP) (Nanostring Seattle, WA) is a spatial biology instrument that enables morphology-driven, high-plex profiling on a single FFPE or fresh frozen tissue section. DSP technology combines standard immunofluorescence techniques with nCounter optical barcoding quantification. This technology allows for spatially resolved, high-plex (10s -10,000s) digital quantitation of proteins or mRNA while maintaining integral information about tissue architecture and spatial relationships between cellular networks
  • The Nanodrop One (ThermoScientific) is a compact, stand-alone UV-Visible spectrophotometer developed for micro-volume analysis of purified nucleic acids and a wide variety of proteins. The patented sample retention system enables the measurement of highly concentrated samples without the need for dilution. The Nanodrop One comes with preloaded software and a touchscreen display.

HIMF Standard Operating Procedures

Flow Cytometry Standard Operating Procedures

Flow Cytometry

University of Arizona Cancer Center,
Room 0935

Human Immune Monitoring

University of Arizona Cancer Center,
Room 0911 and 0913

Director

Sara Centuori, PhD
520-626-3249

Manager

Mark Curry
979-739-5709

Senior Scientist Flow Cytometry Services

John Fitch
520-621-2047

Contact

UACC-FCSR@uacc.arizona.edu

External Website

Flow Cytometry Immune Monitoring Shared Resource

Sara Centuori, PhD

Shared Resource Director, Flow Cytometry
Cancer Prevention and Control Program