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2 citation(s) found for "Yoo, Sun".

Adult Cancer Pain, Version 2.2025, NCCN Clinical Practice Guidelines In Oncology
Swarm, Robert A., Youngwerth, Jeanie, Anițescu, Magdalena , Are, Madhuri , Buga, Sorin , Butler, Taylor, Cleary, James F. , Copenhaver, David, Coyne, Christopher , Craig, David S., Finnes, Heidi D. , Greenlee, Heather , Gupta, Mona, Hansen, Eric, Javed, Saba , Kandil, Enas , Mackey, Sean , McGrath, Kathryn, Moryl, Natalie , Nesbit, Suzanne , Noonan, Michael , Norris, Joseph, Pršić, Elizabeth , Rabow, Michael W. , Rickerson, Elizabeth , Sindt, Jill E. , Vorenkamp, Kevin E. , Cunningham, Rebecca, Gurski, Lisa A., Jones, Frankie, Finnes, Heidi, Agne, Julia L. , Butler, Taylor, Chwistek, Marcin , Gupta, Mona, Javed, Saba , McDonald, Andrew, Noonan, Michael, Paice, Judith A. , SMITH, MICHAEL D. , Bruce, Justine Y. , Yoo, Sun

Mayo Clinic

Journal of the National Comprehensive Cancer Network | July 10, 2025 | Volume: 23 | Issue: 7 | Pages: No page available

10.6004/jnccn.2025.0032 | PMID 40639401 Get It

The NCCN Clinical Practice Guidelines in Oncology (NCCN Guidelines) for Adult Cancer Pain provide recommendations for the comprehensive management of pain in patients with cancer. This article will focus on methods for screening for pain, safe and appropriate prescription of opioid and miscellaneous analgesics, and the optimization of nonpharmacologic interventions including integrative and interventional strategies for treatment of cancer-related pain. Additionally, the NCCN Guidelines discuss methods for the safe reduction of opioids when appropriate, as well as techniques for encouraging the judicious use of opioids. The complete version of the NCCN Guidelines for Adult Cancer Pain addresses additional issues that are not covered here, including management of pain during a pain crisis, management of procedure-related pain and anxiety, pain management for cancer survivors, and the use of nonopioid and adjuvant analgesics for cancer-related pain.
Fully automated quantification of cardiac chamber and function assessment in 2-D Echocardiography: clinical feasibility of deep learning-based algorithms
Kim, Sekeun , Jeon, Jaeik, Park, Hyung‐Bok , Jeon, Jaeik , Arsanjani, Reza , Heo, Ran , Lee, Sang‐Eun , Moon, Inki , Yoo, Sun Kook , Chang, Hyuk‐Jae

Mayo Clinic

No container title available | September 30, 2021 | Volume: No volume available | Issue: No issue available | Pages: No page available

10.21203/rs.3.rs-945163/v1 Get It

Abstract Objectives: We aimed to compare the segmentation performance of the current prominent deep learning (DL) algorithms with ground-truth segmentations and to validate the reproducibility of the manually created 2D echocardiographic four cardiac chamber ground-truth annotation.Background: Recently emerged DL based fully-automated chamber segmentation and function assessment methods have shown great potential for future application in aiding image acquisition, quantification, and suggestion for diagnosis. However, the performance of current DL algorithms have not previously been compared with each other. In addition, the reproducibility of ground-truth annotations which are the basis of these algorithms have not yet been fully validated.Methods: We retrospectively enrolled 500 consecutive patients who underwent transthoracic echocardiogram (TTE) from December 2019 to December 2020. Simple U-net, Res-U-net, and Dense-U-net algorithms were compared for the segmentation performances and clinical indices such as left atrial volume (LAV), left ventricular end diastolic volume (LVEDV), LV end systolic volume (LVESV), LV mass, and ejection fraction (EF) were evaluated. The inter- and intra- observer variability analysis was performed by two expert sonographers for a randomly selected echocardiographic view in 100 patients (apical 2-chamber, apical 4-chamber, and parasternal short axis views).Results: The overall performance of all DL methods was excellent (average Dice similarity coefficient (DSC) 0.91 to 0.95 and average Intersection over union (IOU) 0.83 to 0.90), with the exception of LV wall area on PSAX view (average DSC of 0.83, IOU 0.72). In addition, there were no significant difference in clinical indices between ground truth and automated DL measurements. For inter- and intra observer variability analysis, the overall intra observer reproducibility was excellent: LAV (ICC = 0.995), LVEDV (ICC = 0.996), LVESV (ICC = 0.997), LV mass (ICC = 0.991) and EF (ICC = 0.984). The inter-observer reproducibility was slightly lower as compared to intraobserver agreement: LAV (ICC = 0.976), LVEDV (ICC = 0.982), LVESV (ICC =0.970), LV mass (ICC = 0.971), and EF (ICC = 0.899).Conclusions: The three current prominent DL-based fully automated methods are able to reliably perform four-chamber segmentation and quantification of clinical indices. Furthermore, we were able to validate the four cardiac chamber ground-truth annotation and demonstrate an overall excellent reproducibility, but still with some degree of inter-observer variability.