Colacino, Andrea (2025) Deep Fusion and Precision Outcome: An AI Framework for Integrating Multi-Omics Data in Personalized Medicine. [Tesi di dottorato]

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Tipologia del documento: Tesi di dottorato
Lingua: English
Titolo: Deep Fusion and Precision Outcome: An AI Framework for Integrating Multi-Omics Data in Personalized Medicine
Autori:
Autore
Email
Colacino, Andrea
andrea.colacino@outlook.it
Data: Ottobre 2025
Numero di pagine: 70
Istituzione: Università degli Studi di Napoli Federico II
Dottorato: Computational and quantitative biology
Ciclo di dottorato: 38
Coordinatore del Corso di dottorato:
nome
email
Ceccarelli, Michele
michele.ceccarelli@unina.it
Tutor:
nome
email
Ceccarelli, Michele
[non definito]
Franzese, Monica
[non definito]
Data: Ottobre 2025
Numero di pagine: 70
Parole chiave: eep Learning, Contrastive Learning, Cancer, Precision Medicine, Artificial Intelligence
Settori scientifico-disciplinari del MIUR: Area 01 - Scienze matematiche e informatiche > INF/01 - Informatica
Depositato il: 07 Apr 2026 06:32
Ultima modifica: 12 Ago 2026 05:39
URI: https://www.fedoa.unina.it/id/eprint/17124

Abstract

Cancer remains a disease of immense complexity, with prognosis and thera- peutic response dictated by multi-layered molecular interactions. While multi- omics assays provide rich molecular profiles, the vast size and heterogeneity of these data present a significant translational gap for clinical application. Current computational methods often fail to robustly integrate multiple molecular modal- ities and phenotypic data, thereby hindering the realization of truly personalized oncology. This doctoral thesis addresses this challenge by proposing and validating a novel, advanced Deep Learning framework for multi-modal data fusion. The core innovation lies in the synergistic combination of Contrastive Learning (CL) and the Transformer architecture. The CL component is utilized to train ro- bust, biologically coherent latent representations for each individual omics layer (e.g., genomics, transcriptomics). These representations are then input into a custom Transformer module, which leverages the Attention Mechanism to model the complex, non-linear dependencies between the different molecular layers and derive a unified prognostic signature. The methodology is tested on Breast Cancer (BC) multi-omics cohorts for the critical task of survival prediction and recurrence risk stratification. The findings establish a scalable, efficient, and generalizable framework that can be readily extended to other cancer types and data modalities (e.g., Pro- teomics). This work represents a significant step towards unlocking the full po- tential of multi-omics data, providing clinicians with powerful tools for making more informed and precise treatment decisions.

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