Annona muricata (soursop, graviola) is a tropical plant widely used in traditional medicine for the management of various ailments, including cancer. Its leaf and fruit extracts are frequently consumed as complementary therapies by oncology patients, yet their potential to interfere with CYP450-mediated drug metabolism remains poorly characterized. This study employed two complementary in silico platforms, SuperCYPsPred for CYP450 interaction probability predictions and SwissADME for ADME/pharmacokinetic profiling, to evaluate 12 representative leaf compounds, as leaves constitute the most used plant part in traditional medicinal preparations of A. muricata . SuperCYPsPred analysis identified aporphine alkaloids as having the highest predicted interaction probabilities: isolaureline (mean 61.5%), xylopine (59.9%), and anonaine (55.9%), with particularly high CYP2D6-specific probabilities (94.9%, 88.8%, and 85.7%, respectively). SwissADME analysis revealed that these same compounds exhibit high gastrointestinal absorption, blood-brain barrier permeability, favorable drug-likeness, and predicted CYP2D6 inhibition. Integrated risk assessment combining both platforms identified four high-risk compounds (isolaureline, xylopine, anonaine, stepharine) and two moderate-risk compounds (coclaurine, reticuline) that may warrant clinical monitoring during concurrent chemotherapy. Conversely, acetogenins showed low oral bioavailability and minimal CYP interaction potential, suggesting limited systemic exposure. These findings suggest that specific alkaloid classes in soursop preparations may pose a greater pharmacokinetic interaction risk than previously recognized, particularly for drugs metabolized by CYP2D6. Further experimental validation is warranted to ensure the safe use of A. muricata preparations in oncology care. • Dual in silico approach assessed CYP450 interaction risk of A. muricata compounds • Aporphine alkaloids showed highest predicted CYP2D6 probabilities (85–95%) • SuperCYPsPred and SwissADME independently confirmed CYP2D6 as primary target • Acetogenins showed low oral bioavailability, mitigating herb–drug interaction risk • Four HIGH-risk compounds identified for CYP2D6-metabolized cancer therapies
Ballesteros-Ramírez et al. (Wed,) studied this question.