Back to Authors

Borge, P. Dayand

https://orcid.org/0000-0002-2823-2685

Mayo Clinic

Memorial Sloan Kettering Cancer Center

Citations 2

Advances in Human Leukocyte Antigen Testing Technologies and Management Strategies for Platelet Transfusion Refractoriness
Sullivan, H. Cliff, Borge, P. Dayand , Philogene, Mary Carmelle , Wu, Yanyun , Kopko, Patricia, Sullivan, Harold C. , Gammon, Richard R. , Gandhi, Manish J.

Archives of Pathology & Laboratory Medicine | June 13, 2024 | Volume: 149 | Issue: 4 | Pages: 372-380

10.5858/arpa.2023-0484-ra Get It

Context.— The blood bank is often consulted for transfusion support of patients with suspected platelet transfusion refractoriness (PTR). The workup is complex because testing includes specialized assays that are uncommonly ordered with limited availability. Add to this the variety of possible products—crossmatched platelets, human leukocyte antigen (HLA)–matched platelets, HLA antigen–negative platelets—and the approach to PTR can be overwhelming. Moreover, most literature on the subject is published in transfusion medicine journals aimed at transfusion medicine physicians and blood bank specialists in academic settings. Resources tailored to community hospital blood banks are lacking. Objective.— To provide pathologists who may not have subspecialized training in transfusion medicine and who direct blood bank algorithmic workflows based on clinical scenario and test availability to provide appropriate transfusion support for patients with PTR. Data Sources.— This review is a comprehensive overview of terminology, HLA testing procedures, interpretations, and practical recommendations for managing PTR in various scenarios based on expert opinion as well as relevant medical literature published from 2007 to 2022. Conclusions.— Consultation on PTR is complicated and encompasses many clinical and laboratory aspects. The lack of guidelines derived from high-quality prospective studies poses challenges in the workup and management of PTR. Hindering the process further are limited test availability, unfamiliarity with the technical assays, and the various specialized platelet products. The clinical evaluation algorithm presented herein along with the workflow pathways offer pathologists user-friendly and best-practice guidelines with different options based on the clinical scenario and the tests available.
U.S. cities will not meet blood product resuscitation standards during major mass casualty incidents: Results of a THOR‐AABB working party prospective analysis
Cannon, Jeremy W. , Igra, Noah M, Borge, P. Dayand , Cap, Andrew P., Doughty, Heidi , Geng, Zhi , Guzmán, Jessica, Ness, Paul M., Jenkins, Donald H. , Rajbhandary, Srijana , Schmulevich, Daniela , Stubbs, James R. , Yazer, Mark H. , Spinella, Philip C. , Devine, Dana V , Rajbhandary, Srijana , Stubbs, James R , Yazer, Mark H , Spinella, Philip C , Cap, Andrew P., Devine, Dana V. , Geng, Zhi, Wiebe, Douglas J.

Transfusion | June 22, 2022 | Volume: 62 | Issue: S1 | Pages: No page available

10.1111/trf.16960 Get It

AbstractBackgroundMass casualty incidents (MCIs) create an immediate surge in blood product demand. We hypothesize local inventories in major U.S. cities would not meet this demand.Study Design and MethodsA simulated blast in a large crowd estimated casualty numbers. Ideal resuscitation was defined as equal amounts of red blood cells (RBCs), plasma, platelets, and cryoprecipitate. Inventory was prospectively collected from six major U.S. cities at six time points between January and July 2019. City‐wide blood inventories were classified as READY (>1 U/injured survivor), DEFICIENT (<10 U/severely injured survivor), or RISK (between READY and DEFICIENT), before and after resupply from local distribution centers (DC), and features of DEFICIENT cities were identified.ResultsThe simulated blast resulted in 2218 injured survivors including 95 with severe injuries. Balanced resuscitation would require between 950 and 2218 units each RBC, plasma, platelets and cryoprecipitate. Inventories in 88 hospitals/health systems and 10 DCs were assessed. Of 36 city‐wide surveys, RISK inventories included RBCs (n = 16; 44%), plasma (n = 24; 67%), platelets (n = 6; 17%), and cryoprecipitate (n = 22; 61%) while DEFICIENT inventories included platelets (n = 30; 83%) and cryoprecipitate (n = 12; 33%). Resupply shifted most RBC and plasma inventories to READY, but some platelet and cryoprecipitate inventories remained at RISK (n = 24; 67% and n = 12; 33%, respectively) or even DEFICIENT (n = 11; 31% and n = 6; 17%, respectively). Cities with DEFICIENT inventories were smaller (p <.001) with fewer blood products per trauma bed (p <.001).DiscussionIn this simulated blast event, blood product demand exceeded local supply in some major U.S. cities. Options for closing this gap should be explored to optimize resuscitation during MCIs.