Integration of next generation sequencing data to inform survival prediction of patients with spine metastasis Journal Article


Authors: Giantini-Larsen, A.; Ramos, A. D.; Martin, A.; Panageas, K. S.; Kostrzewa, C. E.; Abou-Mrad, Z.; Schmitt, A.; Bromberg, J. F.; Safonov, A.; Rudin, C. M.; Newman, W. C.; Bilsky, M. H.; Barzilai, O.
Article Title: Integration of next generation sequencing data to inform survival prediction of patients with spine metastasis
Abstract: Background/Objectives: Spinal metastatic disease is a life-altering problem for individuals with cancer. Prognostication is key for tailored treatment of spinal metastases. This manuscript provides a comprehensive overview of the genomic profiles of metastatic spine tumors and investigates the potential of mutational data to stratify overall survival (OS) across various histologies. Methods: This is a cohort study of consecutive patients with spine metastatic disease whose tumors were sequenced on a next generation sequencing platform; a machine learning (ML) algorithm was used to stratify OS risk. Results: Targeted sequencing and stratification of OS risk of 282 spine metastases (breast (84), non-small cell lung (56), prostate (49), other (93)) was performed. TP53 (HR 1.80; 95% CI 1.26, 2.56) and KEAP1 (HR 3.95, 95% CI 2.24, 6.98) mutations were associated with poor survival across the entire cohort in univariate Cox proportional hazards models. The ML algorithm categorized breast cancer metastasis into low- and high-risk groups, revealing a median OS of 71 compared to 22 months (HR 3.3, p < 0.001). TP53 mutations and ESR1 mutations conferred poor prognosis. In lung cancer, low- and high-risk groups with median OS of 30 and 6 months (HR 8.3, p < 0.001), respectively, were identified with poor prognosis linked to MET amplification. No significant prognostic associations were identified for spinal prostate metastases. Conclusions: Metastatic spine tumor molecular data allows for the identification of prognostic groups. We present an open-source machine learning algorithm utilizing genomic mutational data that may aid in prognostication and tailored decision making. © 2025 by the authors.
Keywords: adult; human tissue; aged; overall survival; cancer patient; breast cancer; cohort analysis; retrospective study; protein p53; uvomorulin; risk factor; histology; prostate cancer; genomics; k ras protein; metastatic breast cancer; decision making; spine metastasis; non small cell lung cancer; clinical outcome; bone biopsy; demographics; survival prediction; machine learning; cancer prognosis; high throughput sequencing; metastatic prostate cancer; kelch like ech associated protein 1; human; male; female; article; genetic profile; cross validation; machine learning algorithm
Journal Title: Cancers
Volume: 17
Issue: 13
ISSN: 2072-6694
Publisher: MDPI  
Date Published: 2025-07-01
Start Page: 2218
Language: English
DOI: 10.3390/cancers17132218
PROVIDER: scopus
PMCID: PMC12249426
PUBMED: 40647516
DOI/URL:
Notes: Article -- MSK Cancer Center Support Grant (P30 CA008748) acknowledged in PubMed and PDF -- MSK corresponding author is Ori Barzilai -- Source: Scopus
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MSK Authors
  1. Jacqueline Bromberg
    143 Bromberg
  2. Mark H Bilsky
    320 Bilsky
  3. Katherine S Panageas
    519 Panageas
  4. Charles Rudin
    494 Rudin
  5. Adam Michael Schmitt
    51 Schmitt
  6. Axel Stephen Martin
    20 Martin
  7. William Christopher Newman
    25 Newman
  8. Alexander Ramos
    2 Ramos
  9. Anton Safonov
    36 Safonov