LBPO.ET04 · 实验与分子治疗 · Late-Breaking

Scalable, digitally enabled FISH workflows for high-confidence HER2 and genomic biomarker assessment in precision oncology

海报缩略图:Scalable, digitally enabled FISH workflows for high-confidence HER2 and genomic biomarker assessment in precision oncology
编号 LB466 展板 13 时间 4/22 09:00–12:00 区域 Section 53 主讲 Jess Dhillon
分会场 Late-Breaking Research: Experimental and Molecular Therapeutics 4
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作者与单位

Julianna Buccafuri, Christine Hale, Jess Dhillon, Richard Siderits, Greg Cesarone

Discovery Life Sciences, Newtown, PA

摘要 Abstract

Fluorescence in situ hybridization (FISH) is a widely used cytogenetic method for detecting gene amplification, deletions, and structural alterations in solid tumors. Its single-cell resolution and high specificity make it essential for assessing biomarkers such as HER2 in both clinical practice and translational research. As targeted and immuno-oncology therapies expand, there is increasing need for validated, scalable FISH assays that provide reliable and reproducible results across sites.Discovery Life Sciences has developed CAP/CLIA-certified, ISO-accredited FISH workflows using FDA-approved and custom probes to evaluate HER2 amplification and additional genomic targets in FFPE tissues. More than 1,000 oncology samples across breast, gastric, and lung cancers have been processed using automated and manual hybridization platforms. To support cross-site concordance, all FISH slides can be scanned for digital pathology review, enabling image sharing, remote scoring, and standardized interpretation. Digital analysis tools including HALO, QuPath, and Visiopharm provide quantitative fluorescence measurements and automated scoring to enhance reproducibility.Analytical validation studies demonstrate high sensitivity, precision, and operator agreement, with clear detection of HER2 amplification even in challenging specimens. Custom dual-color and multi-target probe designs allow simultaneous assessment of amplifications, deletions, and structural rearrangements, and can be integrated with IHC and NGS data for multi-modal biomarker evaluation.Together, these capabilities support robust, scalable FISH testing for research and clinical trial applications. The combination of high-quality laboratory workflows, digital slide scanning, and advanced image analysis strengthens pathology concordance across sites and enables high-confidence biomarker assessment to advance precision oncology.
利益披露 Disclosure
J. Buccafuri, None.. C. Hale, None.. J. Dhillon, None.. R. Siderits, None.. G. Cesarone, None.

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