Press Release: IONpath and Indica Labs establish a co-marketing agreement to promote spatially resolved analysis of tissues imaged with the Multiplexed Ion Beam Imaging (MIBI) System (April 2019)
USA 04/26/2019 – Indica Labs and IONpath announced today that a co-marketing agreement has been established to jointly promote their respective technologies for tissue-based, multiplexed biomarker research.
IONpath’s MIBIscope platform uses secondary ion mass spectrometry (SIMS) to image antibodies tagged with monoisotopic metal reporters, permitting simultaneous visualization of 40+ markers in any tissue type, including FFPE, with unmatched resolution and sensitivity.
“With capacity to measure dozens of proteins with sub-cellular resolution, the MIBIscope platform provides scientists with new insights in understanding cell populations and interactions within the tumor microenvironment” said Harris Fienberg, CEO of IONpath. “We are committed to enable a streamlined workflow from visualization to quantitative data analysis and a partnership with Indica Labs will facilitate our users to integrate HALO with MIBI data for analyses such as cell segmentation and classification,” said Harris Fienberg, CEO of IONpath.
Indica Labs provides image analysis and image management solutions for digital pathology, including HALO, HALO AI and HALO Link. The HALO platform can analyze an unlimited number of fluorescent biomarkers within the spatial context of the tissue, making it an ideal image analysis solution for immuno-oncology and a natural complement to the multiplexed imaging capabilities provided by the MIBIscope system.
“There is a growing need amongst our customer base for technologies that can facilitate higher multiplexing, especially in the immuno-oncology research area,” said Dr. Kate Lillard Tunstall, CSO of Indica Labs. “Together, the MIBI technology and HALO platform provide a complete end-to-end solution for multiplexing. We are excited to work with IONpath to address the needs of our mutual customers.”
About Indica Labs, Inc.
Indica Labs software solutions provide fast, quantitative evaluation of whole slide tissues using HALO and HALO AI for image analysis and HALO Link to manage images, data, and facilitate collaboration. With unmatched ease-of-use and scalability, pharmaceutical, healthcare, and research organizations worldwide are using HALO for high-throughput, whole-slide image quantification in areas such as oncology, immuno-oncology, neuroscience, ophthalmology, metabolism, respiratory, and toxicological pathology. For more information, please visit http://indicalab.com or contact email@example.com
IONpath™ is a venture-backed, commercial-stage company, founded by Stanford researchers out of the lab of Dr. Garry Nolan, focused on revolutionizing pathology with Multiplexed Ion Beam Imaging (MIBI) technology. MIBI is a multiplexed imaging platform with unmatched resolution, sensitivity, and throughput. IONpath is headquartered in Menlo Park, CA.
Press Release: Journal Cell Features New Immunohistochemistry Imaging Technology from IONpath that Images 40+ Proteins on a Single Slide. (September 6th, 2018)
Menlo Park, California, Sept. 6th, 2018 — IONpathTM, a venture-backed commercial-stage pathology startup, today announced that a paper detailing the performance of its new Multiplexed Ion Beam Imaging (
The study leveraged IONpath’s MIBIscopeTM instrument to define tumor and immune cell spatial compositions leading to a discovery of a cell signature that predicts therapeutic response for triple-negative breast cancer.
REVOLUTIONIZING TISSUE BIOPSY ANALYSIS
MIBI technology was invented in Prof. Garry Nolan’s lab and developed by Drs. Sean Bendall and Mike Angelo in the Department of Pathology at Stanford University. MIBI uses secondary-ion mass spectrometry (SIMS), a type of mass spectrometry traditionally used in the semiconductor industry, to image antibodies tagged with monoisotopic metal reporters, permitting 40+ proteins to be simultaneously measured.
The IONpath MIBIscope platform, coupled with pathologist-validated reagents and downstream image analytics, will enable pathologists and scientists to better understand the complexities of the tissue microenvironment by delivering subcellular resolution, spatial and structural information than previously possible.
The MIBIscope is currently being piloted by top research institutes and
In addition, the MIBIscope has been selected as the only highly multiplexed IHC imaging platform for the National Cancer Institutes (NCI) Cancer Immune Monitoring and Analysis Center (CIMAC).
“For the first time, scientists will be able to simultaneously visualize many markers (with 40 plus channels available) on a single FFPE tissue slide with high sensitivity and resolution empowering unique discovery in immuno-oncology research,” said Harris Fienberg, IONpath’s CEO.
Triple-negative breast cancer (TNBC) is known to be an aggressive and invasive form and represents about 15-20% of all breast cancers. It is generally diagnosed based on the lack of expression of three “receptors” known to fuel most breast cancer tumors: estrogen, progesterone, and HER2‐neu.
While it is known the immune system plays a critical role in cancer progression, getting a comprehensive view of the tumor-immune microenvironment is difficult using current technology. Challenges include autofluorescence, poor resolution resulting in incomplete spatial and contextual information for understanding protein expression within cells in FFPE Tissue.
In this study, Stanford scientists used MIBI technology to comprehensively profile the tumor microenvironment of 41 triple-negative breast cancer patients by simultaneously imaging 36 proteins at a subcellular resolution in diagnostic surgical pathology samples.
By using a multi-step analysis, including cell segmentation, single cell analysis and spatial analysis, the authors revealed how tumor expression and immune composition are interrelated within tissue context, that correlates with overall survival in TNBC. The authors showed how a multiplexed imaging approach can be used to stratify patient populations and identify a unique patient population that will respond to therapy.
“The work by Keren et al highlights the value of characterizing the intact tumor microenvironment with a comprehensive antibody panel and defining meaningful spatial relationships between tumor and infiltrating immune cells. The approach, MIBI-TOF, will be invaluable for analyzing potential mechanisms of immune evasion and responses to immunotherapy in multiple cancers”, said Dr. Margaret Shipp, Professor of Medicine and Director Lymphoma Program, Dana-Farber Cancer Institute.
The MIBI images collected are shared online and can be downloaded through a web-interface MIBItracker software available on the IONpath company website.
MIBI is also currently being used to enable a variety of other applications including applications in neuroscience, where it is ideal for analyzing co-expression of dozens of proteins in brain biopsies (which are problematic for fluorescent-based technology) and autoimmunity where MIBI permits comprehensive analysis of the immune cells involved in the tissue-immune system interface. Additionally, further work is currently underway to identify biomarkers and stratify patients populations in clinical trials using MIBI.
ABOUT: IONpath™ is a venture-backed, commercial-stage company, founded by Stanford researchers out of the lab of Dr. Garry Nolan, focused on revolutionizing pathology with Multiplexed Ion Beam Imaging (MIBI) technology. MIBI is a multiplexed imaging platform with unmatched resolution, sensitivity, and throughput.
GenomeWeb: IONPath Targeting Immuno-oncology, Pathology With Multiplexed Protein Imaging System
Based on multiplexed ion beam imaging, the system will compete most directly with Fluidigm’s Hyperion imaging mass cytometry platform and, according to IONPath CEO Harris Feinberg, could offer higher levels of speed, sensitivity, and resolution than the Fluidigm system.