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Li, Jianfu

0000-0002-9949-7007

Mayo Clinic

University of Texas Health Science Center, Houston, TX.

Citations 3

Teleportation: Defense Against Stealing Attacks of Data-Driven Healthcare APIs
Wang, Zhenyi , Shen, Li , Luan, Siyu , Li, Fang , Doretto, Gianfranco , Adjeroh, Donald , Niu, Shuteng , Li, Jianfu , Tao, Cui , Tao, Cui , Niu, Shuteng , Li, Jianfu , Li, Fang , Duan, Tiehang , Shen, Li , Luan, Siyu

IEEE Transactions on Artificial Intelligence | July 29, 2025 | Volume: 7 | Issue: 3 | Pages: 1273-1289

10.1109/tai.2025.3593470 Get It

Extracting Systemic Anticancer Therapy and Response Information From Clinical Notes Following the RECIST Definition
Zuo, Xu , Li, Jianfu , Cong, Grace, Jin, Edward , Chen, Qingxia , Warner, Jeremy L. , Yang, Ping , Xu, Hua , Shen, Shuhan, Li, Jianfu , Jin, Edward , Chen, Qingxia , Warner, Jeremy L , Yang, Ping , Kumar, Ashok , Shen, Shuhan

JCO Clinical Cancer Informatics | June 17, 2024 | Volume: No volume available | Issue: 8 | Pages: No page available

10.1200/cci.23.00166 Get It

PURPOSE The RECIST guidelines provide a standardized approach for evaluating the response of cancer to treatment, allowing for consistent comparison of treatment efficacy across different therapies and patients. However, collecting such information from electronic health records manually can be extremely labor-intensive and time-consuming because of the complexity and volume of clinical notes. The aim of this study is to apply natural language processing (NLP) techniques to automate this process, minimizing manual data collection efforts, and improving the consistency and reliability of the results. METHODS We proposed a complex, hybrid NLP system that automates the process of extracting, linking, and summarizing anticancer therapy and associated RECIST-like responses from narrative clinical text. The system consists of multiple machine learning–/deep learning–based and rule-based modules for diverse NLP tasks such as named entity recognition, assertion classification, relation extraction, and text normalization, to address different challenges associated with anticancer therapy and response information extraction. We then evaluated the system performances on two independent test sets from different institutions to demonstrate its effectiveness and generalizability. RESULTS The system used domain-specific language models, BioBERT and BioClinicalBERT, for high-performance therapy mentions identification and RECIST responses extraction and categorization. The best-performing model achieved a 0.66 score in linking therapy and RECIST response mentions, with end-to-end performance peaking at 0.74 after relation normalization, indicating substantial efficacy with room for improvement. CONCLUSION We developed, implemented, and tested an information extraction system from clinical notes for cancer treatment and efficacy assessment information. We expect this system will support future cancer research, particularly oncologic studies that focus on efficiently assessing the effectiveness and reliability of cancer therapeutics.
Dynamic Prognosis Prediction for Patients on DAPT After Drug‐Eluting Stent Implantation: Model Development and Validation
Li, Fang , Rasmy, Laila , Xiang, Yang , Feng, Jingna , Abdelhameed, Ahmed , Hu, Xinyue , Sun, Zenan , Aguilar, David , Dhoble, Abhijeet , Du, Jingcheng , Wang, Qing , Zhang, Xinyuan , Xie, Ziqian , Nian, Yi , He, Jianping , Zhou, Yujia , Li, Jianfu , Prosperi, Mattia , Bian, Jiang , Zhi, Degui , Niu, Shuteng , Dang, Yifang , Zhang, Xinyuan , Xie, Ziqian , Nian, Yi , He, JianPing , Zhou, Yujia , Li, Jianfu , Prosperi, Mattia , Bian, Jiang , Zhi, Degui , Tao, Cui , Sun, Zenan , Li, Fang , Niu, Shuteng , Dang, Yifang , Tao, Cui

Journal of the American Heart Association | January 31, 2024 | Volume: 13 | Issue: 3 | Pages: No page available

10.1161/jaha.123.029900 Get It

Background The rapid evolution of artificial intelligence (AI) in conjunction with recent updates in dual antiplatelet therapy (DAPT) management guidelines emphasizes the necessity for innovative models to predict ischemic or bleeding events after drug‐eluting stent implantation. Leveraging AI for dynamic prediction has the potential to revolutionize risk stratification and provide personalized decision support for DAPT management. Methods and Results We developed and validated a new AI‐based pipeline using retrospective data of drug‐eluting stent‐treated patients, sourced from the Cerner Health Facts data set (n=98 236) and Optum's de‐identified Clinformatics Data Mart Database (n=9978). The 36 months following drug‐eluting stent implantation were designated as our primary forecasting interval, further segmented into 6 sequential prediction windows. We evaluated 5 distinct AI algorithms for their precision in predicting ischemic and bleeding risks. Model discriminative accuracy was assessed using the area under the receiver operating characteristic curve, among other metrics. The weighted light gradient boosting machine stood out as the preeminent model, thus earning its place as our AI‐DAPT model. The AI‐DAPT demonstrated peak accuracy in the 30 to 36 months window, charting an area under the receiver operating characteristic curve of 90% [95% CI, 88%–92%] for ischemia and 84% [95% CI, 82%–87%] for bleeding predictions. Conclusions Our AI‐DAPT excels in formulating iterative, refined dynamic predictions by assimilating ongoing updates from patients' clinical profiles, holding value as a novel smart clinical tool to facilitate optimal DAPT duration management with high accuracy and adaptability.