INTRODUCTION
Traditional pharmacovigilance relies on slow clinical trials and post-marketing studies with limited coverage. This review synthesizes evidence on Real-World Data (RWD) integration with Artificial Intelligence (AI) for enhanced Adverse Drug Reaction (ADR) detection, evaluates generative AI like ChatGPT-4 and LLaMA-2 in Substance Use Disorder (SUD) scenarios, discusses current applications, and outlines future directions. The objective is to guide researchers, clinicians, and regulators in this evolving field.
METHODS
Literature was reviewed on RWD sources (EHRs, claims, registries, wearables), AI algorithms (supervised/ unsupervised learning, NLP, deep learning), and regulatory frameworks. Generative AI performance was assessed via clinician-blind evaluation of responses to Reddit-sourced SUD queries from r/stopdrinking, r/leaves, and r/OpiatesRecovery, with fact-checking against SAMHSA/FDA guidelines and consistency testing. Data included tables comparing RWD, algorithms, and AI models.
RESULTS
AI enables real-time ADR signals via RWD-AI in CCM, improving diagnostics, personalization, and drug discovery. ChatGPT-4 suggested unsafe opioid microdosing; LLaMA-2 referenced nonexistent resources and improper Xanax sharing, both showing severe inaccuracies in SUD contexts. Tables highlight RWD applications, algorithm uses, and AI limitations like bias and inconsistency.
DISCUSSION
RWD-AI transforms pharmacovigilance but faces bias, transparency, and validation challenges. FHIR/DLT enhance secure exchange; generative AIs require oversight. Implications include equitable safety monitoring via bias mitigation and regulatory compliance.
CONCLUSION
AI-RWD integration advances ADR detection and personalized safety, despite generative AI risks in SUD management. Future success demands validated LLMs, FHIR/blockchain infrastructure, and clinician collaboration for comprehensive, equitable pharmacovigilance.
Pritam Kayal, Priya Manna, Ramit Rahaman et al.· Current pharmaceutical desig...· 0 citations
Breast cancer is a prevalent and aggressive tumor affecting women, known for its molecular diversity and treatment resistance. This study investigates the anticancer potential of Icariin (ICA), a flavonol glycoside derived from Herba epimedii, against breast cancer using network pharmacology and molecular simulation. Using the SwissTargetPrediction database and GeneCards, the researchers identified 98 common targets shared by ICA and breast cancer. Gene ontology (GO) and KEGG enrichment analyses highlighted the targets' roles in the regulation of apoptosis, inflammatory signaling, receptor tyrosine kinase activity, chemokine signaling, sphingolipid metabolism, and VEGF pathways. Molecular docking revealed ICA's strong binding affinity for key oncogenic proteins, with binding energies ranging from −12 to −7.5 kcal/mol, particularly to SER783, THR862, ASP863, LYS753, and ARG849. Molecular dynamics (MD) simulations demonstrated the structural stability of the ICA‐HER2 complex, which maintained strong hydrogen bonds and exhibited minimal conformational changes over a 1000 ns trajectory, with average RMSD values of 1.7 Å for the protein and 1.0 Å for the protein‐ligand complex. Furthermore, ICA exhibited favorable pharmacokinetic properties, including moderate solubility and negligible inhibition of cytochrome P450. These findings support the hypothesis that ICA may serve as a valuable natural compound for treating HER2‐driven breast cancer; it requires further experimental validation.