Reply to Barthell et al.
Author(s): Turer, Robert W, Jones, Ian, Rosenbloom, S Trent, Slovis, Corey, Ward, Michael J
DOI: 10.1093/jamia/ocaa111
Author(s): Turer, Robert W, Jones, Ian, Rosenbloom, S Trent, Slovis, Corey, Ward, Michael J
DOI: 10.1093/jamia/ocaa111
The COVID-19 national emergency has led to surging care demand and the need for unprecedented telehealth expansion. Rapid telehealth expansion can be especially complex for pediatric patients. From the experience of a large academic medical center, this report describes a pathway for efficiently increasing capacity of remote pediatric enrollment for telehealth while fulfilling privacy, security, and convenience concerns. The design and implementation of the process took 2 days. Five process [...]
Author(s): Patel, Pious D, Cobb, Jared, Wright, Deidre, Turer, Robert W, Jordan, Tiffany, Humphrey, Amber, Kepner, Adrienne L, Smith, Gaye, Rosenbloom, S Trent
DOI: 10.1093/jamia/ocaa065
Recent studies on electronic health records (EHRs) started to learn deep generative models and synthesize a huge amount of realistic records, in order to address significant privacy issues surrounding the EHR. However, most of them only focus on structured records about patients' independent visits, rather than on chronological clinical records. In this article, we aim to learn and synthesize realistic sequences of EHRs based on the generative autoencoder.
Author(s): Lee, Dongha, Yu, Hwanjo, Jiang, Xiaoqian, Rogith, Deevakar, Gudala, Meghana, Tejani, Mubeen, Zhang, Qiuchen, Xiong, Li
DOI: 10.1093/jamia/ocaa119
Author(s): Bakken, Suzanne
DOI: 10.1093/jamia/ocaa187
The study sought to characterize the evaluation of patients who present following detection of an abnormal pulse using Apple Watch.
Author(s): Wyatt, Kirk D, Poole, Lisa R, Mullan, Aidan F, Kopecky, Stephen L, Heaton, Heather A
DOI: 10.1093/jamia/ocaa137
Machine learning models trained on electronic health records have achieved high prognostic accuracy in test datasets, but little is known about their embedding into clinical workflows. We implemented a random forest-based algorithm to identify hospitalized patients at high risk for delirium, and evaluated its performance in a clinical setting.
Author(s): Jauk, Stefanie, Kramer, Diether, Großauer, Birgit, Rienmüller, Susanne, Avian, Alexander, Berghold, Andrea, Leodolter, Werner, Schulz, Stefan
DOI: 10.1093/jamia/ocaa113
This review summarizes past and current informatics activities at the Centers for Disease Control and Prevention National Program of Cancer Registries to inform readers about efforts to improve, standardize, and automate reporting to public health cancer registries.
Author(s): Blumenthal, Wendy, Alimi, Temitope O, Jones, Sandra F, Jones, David E, Rogers, Joseph D, Benard, Vicki B, Richardson, Lisa C
DOI: 10.1093/jamia/ocaa149
The 2019 novel coronavirus disease (COVID-19) outbreak progressed rapidly from a public health (PH) emergency of international concern (World Health Organization [WHO], 30 January 2020) to a pandemic (WHO, 11 March 2020). The declaration of a national emergency in the United States (13 March 2020) necessitated the addition and modification of terminology related to COVID-19 and development of the disease's case definition. During this period, the Centers for Disease Control [...]
Author(s): Garcia, Macarena, Lipskiy, Nikolay, Tyson, James, Watkins, Roniqua, Esser, E Stein, Kinley, Teresa
DOI: 10.1093/jamia/ocaa141
The genetic testing for hereditary breast cancer that is most helpful in high-risk women is underused. Our objective was to quantify the risk factors for heritable breast and ovarian cancer contained in the electronic health record (EHR), to determine how many women meet national guidelines for referral to a cancer genetics professional but have no record of a referral.
Author(s): Payne, Thomas H, Zhao, Lue Ping, Le, Calvin, Wilcox, Peter, Yi, Troy, Hinshaw, Jesse, Hussey, Duncan, Kostrinsky-Thomas, Alex, Hale, Malika, Brimm, John, Hisama, Fuki M
DOI: 10.1093/jamia/ocaa152
Effective, scalable de-identification of personally identifying information (PII) for information-rich clinical text is critical to support secondary use, but no method is 100% effective. The hiding-in-plain-sight (HIPS) approach attempts to solve this "residual PII problem." HIPS replaces PII tagged by a de-identification system with realistic but fictitious (resynthesized) content, making it harder to detect remaining unredacted PII.
Author(s): Carrell, David S, Malin, Bradley A, Cronkite, David J, Aberdeen, John S, Clark, Cheryl, Li, Muqun Rachel, Bastakoty, Dikshya, Nyemba, Steve, Hirschman, Lynette
DOI: 10.1093/jamia/ocaa095