Tesi etd-05152026-111117
Link copiato negli appunti
Tipo di tesi
Corso Ordinario Secondo Livello
Autore
MARANI, EDOARDO
URN
etd-05152026-111117
Titolo
Data-Driven Healthcare Management:
An LLM-Based Framework for Transforming Natural Language into Actionable Analytics
Struttura
Classe Scienze Sociali
Corso di studi
SCIENZE ECONOMICHE E MANAGERIALI - SCIENZE ECONOMICHE E MANAGERIALI
Relatori
tutor Prof. FREY, MARCO
relatore Prof.ssa NUTI, SABINA
relatore Prof.ssa NUTI, SABINA
Parole chiave
- Nessuna parola chiave trovata
Data inizio appello
15/06/2026;
Disponibilità
completa
Riassunto analitico
This dissertation proposes a Large Language Model-based framework to transform unstructured diagnostic queries from electronic prescriptions into structured administrative data for regional healthcare analytics. The work addresses the critical limitation that while diagnostic queries, free-text clinical justifications written by prescribers, contain valuable information about care pathways and appropriateness, their natural language format prevents quantitative analysis. Traditional rule-based approaches fail due to Italian linguistic flexibility, spelling variability, and semantic complexity in multi-pathology cases. The methodology follows a rigorous iterative pipeline with dual validation gates: models must achieve ≥90% accuracy against a manually-classified gold standard of 500 cardiological prescriptions, and residual unclassifiable cases must remain below 10%, indicating adequate taxonomy breadth. The author tested four LLM architectures (Gemma 2 27B, Llama 3.1 70B, Mistral Small 22B, Qwen 2.5 72B) across eight iterative prompt refinements, benchmarking performance using a WAMPI composite index that balances accuracy, latency, and operational scalability. Key findings show larger models (Qwen 2.5, Llama 3.1) achieve 85–87% accuracy but incur ~50% computational overhead, while meticulous prompt engineering yields greater performance gains than model selection alone. The framework addresses privacy constraints through EU-compliant cloud infrastructure and structural anonymization, demonstrating that clinical utility and data security are compatible. Although results fall slightly short of the 90% threshold, the author establishes that this gap is bridgeable through additional model testing and hardware improvements, while the modular pipeline design ensures scalability across any specialist branch without infrastructure overhaul.
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| DIPLOMA_4.pdf | 1.53 Mb |
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