scholarly journals Effect of Massive Transfusion Protocol on Coagulation Function in Elderly Patients with Multiple Injuries

2021 ◽  
Vol 2021 ◽  
pp. 1-8
Author(s):  
Danjie Li ◽  
Wenfeng Zhang ◽  
Xiaoqiang Wei

Objective. To evaluate the effect of massive transfusion protocol on coagulation function in elderly patients with multiple injuries. Methods. In this retrospective cohort study, clinical data were collected from a total of 94 elderly patients with multiple injuries, including 44 cases who received routine transfusion protocol (control group) and 50 cases who concurrently received massive transfusion protocol in our hospital (research group). The changes in platelet parameters, coagulation function, and organ dysfunction scores at admission and 24 h after transfusion were compared between the two groups. The 24-hour plasma and red blood cell transfusion volume, length of stay, complications, and mortality of the two groups were analyzed statistically. Results. Twenty-four hours after blood transfusion, the hematocrit, platelets, and hemoglobin in the research group were higher than those in the control group, while the activated partial thromboplastin time, prothrombin time, thrombin time, fibrinogen, and scores of Marshall scoring system and Sequential Organ Failure Assessment were lower than those in the control group ( P < 0.01 ). The 24-hour plasma transfusion volume was higher, and the length of intensive care unit (ICU) stay and total length of stay were lower in the research group compared with the control group ( P < 0.01 ). No significant difference was found in the mortality rate between the research group and the control group (10.00% vs. 13.64%, P > 0.05 ). The incidence of complications in the research group was lower than that in the control group (12.00% vs. 31.82%, P < 0.05 ). Conclusion. Massive transfusion protocol for elderly patients with multiple injuries can improve their coagulation function and platelet parameters, alleviate organ dysfunction, shorten length of ICU stay, and decrease the incidence of complications, which is conducive to improving the prognosis of patients.

2017 ◽  
Vol 83 (4) ◽  
pp. 394-398 ◽  
Author(s):  
Andrew Nunn ◽  
Peter Fischer ◽  
Ronald Sing ◽  
Megan Templin ◽  
Michael Avery ◽  
...  

We assessed the effectiveness of the implementation of an institutional massive transfusion protocol (MTP) for resuscitation with a 1:1:1 transfusion ratio of packed red blood cell (PRBC), fresh frozen plasma, and platelet units. In a Level I trauma center database, all trauma admissions (2004–2012) that received massive transfusions (≥10 units PRBCs in the first 24 hours) were reviewed retrospectively. Demographic data, transfusion ratios, and outcomes were compared before (PRE) and after (POST) MTP implementation in May 2008. Age, sex, and mechanism of injury were similar between 239 PRE and 208 POST trauma patients requiring massive transfusion. Transfusion ratios of fresh frozen plasma:PRBC and platelet:PRBC increased after MTP implementation. Among survivors, MTP implementation shortened hospital length of stay from 31 to 26 days (P = 0.04) and intensive care unit length of stay from 31 to 26 days (P = 0.02). Linear regression identified treatment after (versus before) implementation of MTP as an independent predictor of decreased ventilator days after adjusting for age, Glasgow Coma Scale, and chest Abbreviated Injury Score (P < 0.0001). Modest improvement in ratios likely does not account for all significant improvements in outcomes. Implementing a standardized protocol likely impacts automation, efficiency, and/or timeliness of product delivery.


Blood ◽  
2018 ◽  
Vol 132 (Supplement 1) ◽  
pp. 3813-3813
Author(s):  
Joshua L Fenderson ◽  
Michael Adam Meledeo ◽  
Matthew J Rendo ◽  
Grantham Peltier ◽  
Colby McIntosh ◽  
...  

Abstract Background Cryoprecipitate (cryo) is a frozen plasma derivative consisting of fibrinogen, factor (F) XIII, FVIII and von Willebrand factor (vWF), and was originally intended to replace FVIII in hemophilia. Today, cryo is primarily used as fibrinogen replacement in acquired coagulopathy related to trauma, obstetric hemorrhage, and DIC. Due to the lability of FVIII, guidelines mandate that cryo be given within 6 hours of thawing. Fibrinogen is much more stable; however, and these time constraints may unnecessarily contribute to delayed product utilization and increased waste. Viscoelastic assays are increasingly used to assess coagulopathy and may be better indicators of global coagulation function than standard coagulation assays. Here we evaluated the performance of thawed, refrigerated cryoprecipitate over extended storage times. Methods Cryo (six donor pools, n=8) was purchased from South Texas Blood and Tissue, thawed on first day of testing, and stored in aliquots refrigerated at 4°C for up to 35 days. Assays were performed in 37°C rewarmed product at baseline post-thaw and at 4, 24, and 72h, and then weekly to 35 days. Assays for factor levels were conducted in cryo diluted 1:10 in PBS and using a hematology analyzer (Stago) for fibrinogen and FVIII or by ristocetin cofactor assay (RCo) for vWF (Siemens). Coagulation and thrombin generation of stored cryo was tested in ROTEM and Calibrated Automated Thrombogram (CAT) by mixing cryo with frozen aliquots of cryo-poor plasma. A massive transfusion protocol (MTP) was simulated by combining cryo with red cells, fresh frozen plasma, and fresh apheresis platelets (1:1:1:1 ratio); this simulation was tested for coagulation with ROTEM and for vWF-mediated fluorescent-labeled platelet adhesion to collagen in a microfluidics flow system (Bioflux). Results In simulated MTP, global coagulation function as measured by EXTEM and FIBTEM G-values from ROTEM were above normal reference ranges for whole blood for the entire 35d period (EXTEM smallest median G=13592 dyn/cm2, ref. range=4800-12250; FIBTEM smallest median G=2041, ref. range=495-1667). There was a slight decline in G value over storage duration, but it was not statistically significant (Fig 1). Lysis index at 30 min (LI30) in the EXTEM of simulated MTP did not statistically deviate over time (Fig 2). The MTP FIBTEM A10 value, shown to be correlated with fibrinogen concentration, remains high over 35 days, with only some values on D35 dropping into the normal range (Fig 3; means at D0=35.75mm and D35=26.63; ref. range=9-24). A10 and G were highly correlated (r=.812, p=.008). FVIII activity in cryo declined from 9-fold above average plasma levels over 35 days to approximately 25% of its starting activity. Surprisingly, the drop in FVIII was not correlated with clotting time (CT) in the EXTEM (r=-.335, p=.739), and CT was either faster than or within normal references ranges for whole blood at all time points (Fig 4; slowest median CT=49.5s, ref. range=42-72). The change in CT was correlated with measured peak thrombin levels (Fig 5; r=-.883, p=.002), although FVIII was not correlated with peak thrombin generation (r=.403, p=.282). vWF activity of cryo initially increased as has been previously reported but declined to baseline level by D7 and further through D35. vWF activity was correlated with the rate of platelet adhesion to a collagen surface under arterial flow (Fig 6; r=.677, p=.045). Discussion Cryo is mainly used in resuscitation of severe hemorrhage in MTP. It contributes to hemostasis by providing vWF to support platelet adhesion and primary hemostasis, FVIII to augment thrombin generation, and fibrinogen as clot substrate. Standard coagulation assays such as PT and aPTT or isolated factor activity assays are inadequate for evaluating the contribution of cryo to global MTP performance. The data presented here, derived from multiple functional tests including ROTEM, CAT, ristocetin cofactor assay, and Bioflux, show that thawed cryoprecipitate stored at 4°C is functionally viable for up to 35 days; as part of a massive transfusion protocol. It supports clot strength, thrombin generation, and platelet adhesion. Adoption of an extended shelf life for thawed cryo would reduce waste and increase availability for treatment of hemorrhage. Disclosures No relevant conflicts of interest to declare.


2021 ◽  
pp. 000313482110497
Author(s):  
Janet S. Lee ◽  
Abid D. Khan ◽  
Franklin L. Wright ◽  
Robert C. McIntyre ◽  
Warren C. Dorlac ◽  
...  

Background Military data demonstrating an improved survival rate with whole blood (WB) have led to a shift toward the use of WB in civilian trauma. The purpose of this study is to compare a low-titer group O WB (LTOWB) massive transfusion protocol (MTP) to conventional blood component therapy (BCT) MTP in civilian trauma patients. Methods Trauma patients 15 years or older who had MTP activations from February 2019 to December 2020 were included. Patients with a LTOWB MTP activation were compared to BCT MTP patients from a historic cohort. Results 299 patients were identified, 169 received LTOWB and 130 received BCT. There were no differences in age, gender, or injury type. The Injury Severity Score was higher in the BCT group (27 vs 25, P = .006). The LTOWB group had a longer transport time (33 min vs 26 min, P < .001) and a lower arrival temperature (35.8 vs 36.1, P < .001). Other hemodynamic parameters were similar between the groups. The LTOWB group had a lower in-hospital mortality rate compared to the BCT group (19.5% vs 30.0%, P = .035). There were no differences in total transfusion volumes at 4 hours and 24 hours. No differences were seen in transfusion reactions or hospital complications. Multivariable logistic regression identified ISS, age, and 24-hour transfusion volume as predictors of mortality. Discussion Resuscitating severely injured trauma patient with LTOWB is safe and may be associated with an improved survival.


2020 ◽  
Vol 154 (Supplement_1) ◽  
pp. S167-S168
Author(s):  
J M Petersen ◽  
V Patel ◽  
D Jhala

Abstract Introduction/Objective Cardiac perforation is a life-threatening complication (~1% risk, with reported rates between 0.2% to 5%) of CA procedures. As cardiac perforation may lead to extensive bleeding, it would be reasonable for a medical center carrying out CA to be capable of arranging for a massive transfusion protocol and for surgical repair as required. However, there is sparse literature to guide a non-trauma medical center implementing a CA program on what the number of red blood cell (RBC) units for crossmatch should be for each case. Methods In interdisciplinary collaborative meetings, the CA program logistics were agreed to between the multiple clinical services. Given the case series on the amount of drained blood in complicated cases, there was agreement that three units of RBCs would be crossmatched for each case. Education was provided on the massive transfusion protocol and on blood bank procedures. As part of quality assurance/quality improvement, records were reviewed from the beginning of the CA program (10/1/2019) to 1/31/2019 to determine number of patient cases, crossmatched units, and transfused units for quality assurance purposes. Results A total of fifteen patients underwent CA procedures, for which three units were crossmatched for each patient. As there were no cardiac perforations with the cardiac ablation procedures so far, no units were transfused. The organized approach for ensuring adequate blood bank support and education led to the reassurance, alleviation of clinical anxiety, and building of a successful CA program. Education sessions completed with thorough understanding of blood bank procedures including the massive transfusion protocol, labeling of blood bank specimens, and on ordering of blood for crossmatch. Conclusion This study provides a reference that may provide helpful guidance to other blood banks on what the number of RBCs to be crossmatched prior to each CA procedure. Multidisciplinary collaborative meetings in advance are an essential component for ensuring adequate support for CA procedures or any new service that requires blood product support. Thorough education of clinical staff on blood bank procedures particularly the massive transfusion protocol is also recommended. This procedure for massive transfusion should be available to be referred to in real time.


2020 ◽  
pp. 000313482097977
Author(s):  
Dov Levine ◽  
Sivaveera Kandasamy ◽  
James Alford Flippin ◽  
Hirohisa Ikegami ◽  
Rachel L. Choron

Injury ◽  
2021 ◽  
Author(s):  
Marco Botteri ◽  
Simone Celi ◽  
Giovanna Perone ◽  
Enrica Prati ◽  
Paola Bera ◽  
...  

2021 ◽  
Vol 25 (2) ◽  
Author(s):  
Reza Widianto Sudjud ◽  
Djoni Kusumah Pohan ◽  
Muhammad Budi Kurniawan ◽  
Hana Nur Ramila

Hemorrhagic shock is a form of hypovolemic shock in which severe blood loss leads to inadequate oxygen delivery at the cellular level. Death from hemorrhage represents a substantial global problem, with more than 60,000 deaths per year in the United States and an estimated 1.9 million deaths per year worldwide, 1.5 million of which result from physical trauma. This case report aims to stress the need of handling cases of hemorrhagic shock in accordance with damage control protocol. Hemorrhagic shock management using permissive hypotension management, bleeding control, massive transfusion protocol (MTP), minimal crystalloid therapy, and adjuvant therapy is the best approach to get optimal outcome to prevent triad of death. In this case, the application of damage control resuscitation has not been fully implemented because of several constraints. Key words: Hemorrhage; Hemorrhagic shock; Permissive hypotension; Massive Transfusion Protocol; MTP; Resuscitation; Damage control Citation: Pohan DK, Sudjud RW, Kurniawan MB, Ramila HN. Anesthetic management on patient with hollow viscus perforation due to blunt abdominal trauma with grade IV hemorrhagic shock. Anaesth. pain intensive care 2021;25(2):217-221. DOI: 10.35975/apic.v25i2.1474 Received: 11 January 2021, Reviewed: 15 January 2021, Accepted: 16 February 2021


2018 ◽  
Vol 57 (6) ◽  
pp. 785-789
Author(s):  
Weiwei Shi ◽  
Ram Al-Sabti ◽  
Peter A. Burke ◽  
Mauricio Gonzalez ◽  
Nelson Mantilla-Rey ◽  
...  

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