Artificial Intelligence and precision medicine

16 September 2025
Innovation Center, Future trends, Publications, Research reports, Focus On

The integration of AI, genetic technologies, and precision medicine is profoundly transforming the healthcare sector, from research to clinical practice. Applications of Federated Learning open new perspectives for personalization, sustainability, and equity in access to care.

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Developed by Frost & Sullivan in collaboration with Intesa Sanpaolo Innovation Center, the Industry Trends ReportAI & Precision Medicine” analyzes and illustrates the ongoing transformations in the healthcare, biotech, and pharmaceutical sectors, driven by the integration of Artificial Intelligence (AI), genetic technologies, and precision medicine. Among the numerous topics covered, a key highlight is the contribution of the Artificial Intelligence Lab of Intesa Sanpaolo Innovation Center, which dedicates an entire chapter to Federated Learning (FL), an emerging technology that enables AI models to be trained on distributed clinical data while safeguarding patient privacy.

Digital medicine Digital medicine

Precision medicine meets AI

Precision medicine is based on adapting therapies to the genetic, environmental, and behavioral characteristics of each individual patient. In this context, AI plays a central role in analyzing large volumes of heterogeneous data - from genomes to medical records - to identify hidden patterns, predict risks, and optimize therapeutic treatments. Technologies such as next-generation sequencing (NGS), genomic mapping, and genetic editing with CRISPR, enhanced by machine learning algorithms, are already transforming the diagnosis and treatment of complex and rare diseases.

For example, the use of gene therapies designed according to individual genetic profiles paves the way for more effective medical treatments against low-prevalence hereditary diseases, while simultaneously improving patients’ quality of life. Furthermore, predictive analytics tools make it possible to anticipate the onset of diseases, enabling a more proactive approach to health.

 

Federated Learning: collaboration without compromise

The chapter on Federated Learning shows how this technology enables machine learning models to be trained on distributed data, without such data ever being shared or centralized. In healthcare, this means that hospitals, laboratories, and research centers can collaborate in developing predictive and diagnostic models while keeping sensitive patient data within their own infrastructures.

FL is structured into two main modes: cross-device (on personal devices) and cross-silo (between trusted institutions such as hospitals and research centers). It can also be horizontal (similar data on different users) or vertical (different data on the same user). Both configurations present technical challenges but also offer significant advantages in terms of privacy, security, scalability, and regulatory compliance, particularly relevant in regulated domains such as GDPR.

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Federated Learning: collaboration without compromise

The chapter on Federated Learning shows how this technology enables machine learning models to be trained on distributed data, without such data ever being shared or centralized. In healthcare, this means that hospitals, laboratories, and research centers can collaborate in developing predictive and diagnostic models while keeping sensitive patient data within their own infrastructures.

FL is structured into two main modes: cross-device (on personal devices) and cross-silo (between trusted institutions such as hospitals and research centers). It can also be horizontal (similar data on different users) or vertical (different data on the same user). Both configurations present technical challenges but also offer significant advantages in terms of privacy, security, scalability, and regulatory compliance, particularly relevant in regulated domains such as GDPR.

 

Concrete applications in healthcare and outcomes

The report illustrates numerous use cases of FL in healthcare, demonstrating how it is already a technology capable of concretely improving clinical practice and research:

• In oncology, federated models have improved brain tumor segmentation in international multicenter studies.

• In radiology, the EXAM project employed FL to predict oxygen needs in COVID-19 patients, achieving an accuracy above 92%.

• In intensive care, FL enables the development of risk scores for sepsis or organ failure without sharing sensitive data.

• In genomics and rare diseases, FL allows data to be aggregated from multiple centers to identify genetic patterns otherwise invisible, accelerating diagnosis and the development of targeted therapies.

 

A vision for the future of healthcare

Intesa Sanpaolo Innovation Center identifies Federated Learning as a turning point in several domains, especially in healthcare, within a context characterized by an aging population and growing demand for personalized treatments. The ability to collaborate on a large scale without compromising data privacy opens new avenues for AI-driven innovation, healthcare system sustainability, and equity in access to care even when data availability is limited, as in the case of rare diseases.

Download the "AI&Medicine Precision" report here

Precision medicine adapts diagnoses and treatments to the genetic, environmental and behavioral characteristics of the patient, overcoming the standardized approach. It is based on multi-omics technologies and advanced tools such as next-generation sequencing (NGS), liquid biopsies and high-resolution imaging. Artificial intelligence (AI) is crucial for analyzing large volumes of data, predicting risks, optimizing therapies, and discovering new drugs, reducing time and costs.

Report by Intesa Sanpaolo Innovation Center - Innovation Intelligence