Thermo Fisher Scientific Releases New CE-IVD Tumor Panel for Next Generation Sequencing

14 Jan 2015
Sarah Thomas
Associate Editor

Product news

The newly released CE-IVD Oncomine Solid Tumor DNA kit from Thermo Fisher Scientific enables highly accurate and reliable multiplexed sequencing of formalin-fixed, paraffin embedded (FFPE) tumor samples with the quality and performance needed for the clinical laboratory.

Compared to other molecular diagnostic testing methods, such as qPCR or Sanger sequencing, next-generation sequencing (NGS) can assess a broader range of genes in a single test. Based on the Ion Torrent AmpliSeq Technology, the kit allows detection of single nucleotide somatic changes, inversions, insertions, and deletions using as little as 10ng of FFPE DNA, enabling laboratory clinicians to analyze samples that may contain partially degraded or limited tumor material, and generate reportable results from more samples than previously possible with lower acceptance thresholds for FFPE tumor DNA.

The panel was verified by leading clinicians from the OncoNetwork Consortium with a focus on colon and lung cancer. Marked for in vitro diagnostic use in the European Union, the kit captures regions of human somatic variants (deletions, insertions, inversions, and substitutions) present in selected regions of cancer-related genes (EGFR, ALK, ERBB2,ERBB4, FGFR1, FGFR2, FGFR3, MET, DDR2, KRAS, PIK3CA, BRAF, AKT1,PTEN, NRAS, MAP2K1, STK11, NOTCH1, CTNNB1, SMAD4, FBXW7, TP53) for analysis using NGS technology.

“With this new CE-IVD Oncomine Solid Tumor DNA kit, we can enable the screening of the actionable mutations involved in colon and lung cancer with the high level performance that is required in a clinical laboratory setting,” said Nicola Normanno, M.D., Chief of the Laboratory Of Pharmacogenomics at the Centro Ricerche Oncologiche in Mercogliano, Avellino, Italy.

“The release of the CE-IVD Oncomine Solid Tumor DNA kit is a major advance for clinical service provision insofar as it will dramatically reduce in house validation for accreditation purposes and will allow the implementation of accurate and reproducible screening of pertinent mutations in colon and lung cancers,” said Professor Orla Sheils from Trinity College, Dublin.

“The development and commercialization of the CE-IVD Oncology Solid Tumor DNA kit in the European Union is representative of our continued commitment to enabling our customers to advance clinical oncology care while meeting regional regulatory requirements,” said Mark Stevenson, president of Life Science Solutions at Thermo Fisher Scientific. “Together in partnership with our oncology consortiums that include representation of both pharmaceutical companies and leading clinical laboratories, we intend to continue expansion of our regulated NGS oncology offering over time to meet the needs of our clinical customers and the patients that they serve.”

About OncoNetwork
* The OncoNetwork Consortium members include these researchers:
Pierre Laurent-Puig1, Cecily Vaughn2, Ludovic Lacroix3, Marjolijn Ligtenberg4, Bastiaan Tops4, Christoph Noppen5, Henriette Kurth5, Nicola Normanno6, Aldo Scarpa7, Ian Cree8, Orla Sheils9, Harriet Feilotter10, José Carlos Machado11, Jose Costa11, Kazuto Nishio12

1 Université Paris Descartes, Paris, France
2 ARUP- Institute for Clinical and Experimental Pathology, Utah, USA
3 Institut Gustave Roussy, Paris, France
4 Radboud University Nijmegen Medical Centre, The Netherlands
5 VIOLLIER AG, Basel, Switzerland
6 Centro Ricerche Oncologiche Mercogliano, Avellino, Italy
7 ARC-NET University of Verona, Italy
8 Warwick University Medical School, United Kingdom
9 Trinity College Dublin, Ireland
10 Queen’s University, Ontario Canada
11 IPATIMUP Medical Faculty of Porto, Portugal
12 Faculty of Medicine, Kinki University, Osaka, Japan

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Genome AnalysisGenomics, the study of genomes, includes functional genomics, evolutionary genomics and comparative genomics. There are many genomic technologies such as DNA sequencing of whole genomes, computational biology and bioinformatics. DNA and nucleic acids must be isolated and concentrated from cells for analysis with kits, automated analyzers and software. Other useful technologies for studying genomics include PCR, microarrays and electrophoresis.Clinical GeneticsMolecular Genetics covers the analysis of hereditary genetic disease and chromosomal abnormalities. Genetics can be analysed using DNA, RNA, and protein microarrays, PCR, RT PCR and DNA sequencing. Genetic equipment includes genetic workstations, thermal cyclers, cooling blocks and electrophoresis products. Diagnostic kits are used for DNA / RNA extraction and purification.Next Generation SequencingNext-generation sequencing (NGS), also known as whole-genome sequencing, high-throughput sequencing and massive parallel sequencing, produces and analyses thousands to millions of nucleotide sequences at once. Sequencing systems operate via varying technologies depending on the manufacturer, including sequencing by synthesis, ligation, pyrosequencing, ion semiconductor and single-molecule real-time sequencing. For NGS, library preparation is paramount to successful sequencing. In this section, explore a range of library preparation kits, from targeted, amplicon-based or hybridization-based kits including epigenomic, transcriptomic and genomic workflows to fragmentation kits. Find the best next-generation sequencing products in our peer-reviewed product directory: compare products, check customer reviews and receive pricing direct from manufacturers.TumorsTumor research focuses on understanding abnormal cell growth that leads to cancer. Identifying biomarkers, studying tumor microenvironments, and developing targeted therapies are critical for advancing cancer treatment. Early detection and personalized treatment options are key to improving outcomes for patients. Browse our peer-reviewed product directory to explore tools for tumor research, diagnostics, and cancer therapies; compare products, read customer reviews, and get pricing directly from manufacturers.Clinical NGSNext Generation Sequencing (NGS) refers to the use of massive parallel sequencing of multiple small fragments of DNA. This high-throughput genomic analysis yields enormous amounts of sequence data, which if appropriately analyzed could have huge potential for clinical laboratories. For this to happen there are technique and bioinformatic hurdles to be overcome.Olympics