A multi-site feasibility study for personalized medicine in canines with osteosarcoma

A successful therapeutic strategy, specifically tailored to the molecular constitution of an individual and their disease, is an ambitious objective of modern medicine. In this report, we highlight a feasibility study in canine osteosarcoma focused on refining the infrastructure and processes requir...

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Veröffentlicht in:Journal of translational medicine 2013-07, Vol.11 (1), p.158-158, Article 158
Hauptverfasser: Monks, Noel R, Cherba, David M, Kamerling, Steven G, Simpson, Heather, Rusk, Anthony W, Carter, Derrick, Eugster, Emily, Mooney, Marie, Sigler, Robert, Steensma, Matthew, Grabinski, Tessa, Marotti, Keith R, Webb, Craig P
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container_end_page 158
container_issue 1
container_start_page 158
container_title Journal of translational medicine
container_volume 11
creator Monks, Noel R
Cherba, David M
Kamerling, Steven G
Simpson, Heather
Rusk, Anthony W
Carter, Derrick
Eugster, Emily
Mooney, Marie
Sigler, Robert
Steensma, Matthew
Grabinski, Tessa
Marotti, Keith R
Webb, Craig P
description A successful therapeutic strategy, specifically tailored to the molecular constitution of an individual and their disease, is an ambitious objective of modern medicine. In this report, we highlight a feasibility study in canine osteosarcoma focused on refining the infrastructure and processes required for prospective clinical trials using a series of gene expression-based Personalized Medicine (PMed) algorithms to predict suitable therapies within 5 days of sample receipt. Tumor tissue samples were collected immediately following limb amputation and shipped overnight from veterinary practices. Upon receipt (day 1), RNA was extracted from snap-frozen tissue, with an adjacent H&E section for pathological diagnosis. Samples passing RNA and pathology QC were shipped to a CLIA-certified laboratory for genomic profiling. After mapping of canine probe sets to human genes and normalization against a (normal) reference set, gene level Z-scores were submitted to the PMed algorithms. The resulting PMed report was immediately forwarded to the veterinarians. Upon receipt and review of the PMed report, feedback from the practicing veterinarians was captured. 20 subjects were enrolled over a 5 month period. Tissue from 13 subjects passed both histological and RNA QC and were submitted for genomic analysis and subsequent PMed analysis and report generation. 11 of the 13 samples for which PMed reports were produced were communicated to the veterinarian within the target 5 business days. Of the 7 samples that failed QC, 4 were due to poor RNA quality, whereas 2 were failed following pathological review. Comments from the practicing veterinarians were generally positive and constructive, highlighting a number of areas for improvement, including enhanced education regarding PMed report interpretation, drug availability, affordable pricing and suitable canine dosing. This feasibility trial demonstrated that with the appropriate infrastructure and processes it is possible to perform an in-depth molecular analysis of a patient's tumor in support of real time therapeutic decision making within 5 days of sample receipt. A number of areas for improvement have been identified that should reduce the level of sample attrition and support clinical decision making.
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In this report, we highlight a feasibility study in canine osteosarcoma focused on refining the infrastructure and processes required for prospective clinical trials using a series of gene expression-based Personalized Medicine (PMed) algorithms to predict suitable therapies within 5 days of sample receipt. Tumor tissue samples were collected immediately following limb amputation and shipped overnight from veterinary practices. Upon receipt (day 1), RNA was extracted from snap-frozen tissue, with an adjacent H&amp;E section for pathological diagnosis. Samples passing RNA and pathology QC were shipped to a CLIA-certified laboratory for genomic profiling. After mapping of canine probe sets to human genes and normalization against a (normal) reference set, gene level Z-scores were submitted to the PMed algorithms. The resulting PMed report was immediately forwarded to the veterinarians. Upon receipt and review of the PMed report, feedback from the practicing veterinarians was captured. 20 subjects were enrolled over a 5 month period. Tissue from 13 subjects passed both histological and RNA QC and were submitted for genomic analysis and subsequent PMed analysis and report generation. 11 of the 13 samples for which PMed reports were produced were communicated to the veterinarian within the target 5 business days. Of the 7 samples that failed QC, 4 were due to poor RNA quality, whereas 2 were failed following pathological review. Comments from the practicing veterinarians were generally positive and constructive, highlighting a number of areas for improvement, including enhanced education regarding PMed report interpretation, drug availability, affordable pricing and suitable canine dosing. 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In this report, we highlight a feasibility study in canine osteosarcoma focused on refining the infrastructure and processes required for prospective clinical trials using a series of gene expression-based Personalized Medicine (PMed) algorithms to predict suitable therapies within 5 days of sample receipt. Tumor tissue samples were collected immediately following limb amputation and shipped overnight from veterinary practices. Upon receipt (day 1), RNA was extracted from snap-frozen tissue, with an adjacent H&amp;E section for pathological diagnosis. Samples passing RNA and pathology QC were shipped to a CLIA-certified laboratory for genomic profiling. After mapping of canine probe sets to human genes and normalization against a (normal) reference set, gene level Z-scores were submitted to the PMed algorithms. The resulting PMed report was immediately forwarded to the veterinarians. 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This feasibility trial demonstrated that with the appropriate infrastructure and processes it is possible to perform an in-depth molecular analysis of a patient's tumor in support of real time therapeutic decision making within 5 days of sample receipt. A number of areas for improvement have been identified that should reduce the level of sample attrition and support clinical decision making.</abstract><cop>England</cop><pub>BioMed Central Ltd</pub><pmid>23815880</pmid><doi>10.1186/1479-5876-11-158</doi><tpages>1</tpages><oa>free_for_read</oa></addata></record>
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subjects Animals
Bioinformatics
Biomarkers
Biotechnology industry
Bone cancer
Care and treatment
Clinical trials
Disease
Dog Diseases - therapy
Dogs
Evidence-based medicine
Feasibility Studies
Female
Gene amplification
Gene expression
Genetic aspects
Genetic engineering
Genomes
Health aspects
Hospitals
Instrument industry
Male
Medicine
Mutation
Oncology
Osteosarcoma
Osteosarcoma - therapy
Osteosarcoma - veterinary
Paraffin Embedding
Precision Medicine
Principal Component Analysis
Principal components analysis
Proteins
Quality Control
Technological change
Time Factors
Tissue Fixation
title A multi-site feasibility study for personalized medicine in canines with osteosarcoma
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