Clinical Transfusion Practice
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27. Clinical Indications for Cryoprecipitate And
27. CLINICAL INDICATIONS FOR CRYOPRECIPITATE AND FIBRINOGEN CONCENTRATE Cryoprecipitate is indicated in the treatment of fibrinogen deficiency or dysfibrinogenaemia.1 Fibrinogen concentrate is licenced for the treatment of acute bleeding episodes in patients with congenital fibrinogen deficiency, including afibrinogenaemia and hypofibrinogenaemia,2 and is currently funded under the National Blood Agreement. Key messages y Fibrinogen is an essential component of the coagulation system, due to its role in initial platelet aggregation and formation of a stable fibrin clot.3 y The decision to transfuse cryoprecipitate or fibrinogen concentrate to an individual patient should take into account the relative risks and benefits.3 y The routine use of cryoprecipitate or fibrinogen concentrate is not advised in medical or critically ill patients.2,4 y Cryoprecipitate or fibrinogen concentrate may be indicated in critical bleeding if fibrinogen levels are not maintained using FFP. In the setting of major obstetric haemorrhage, early administration of cryoprecipitate or fibrinogen concentrate may be necessary.3 Clinical implications y The routine use of cryoprecipitate or fibrinogen concentrate in medical or critically ill patients with coagulopathy is not advised. The underlying causes of coagulopathy should be identified; where transfusion is considered necessary, the risks and benefits should be considered for each patient. Specialist opinion is advised for the management of disseminated intravascular coagulopathy (MED-PP18, CC-PP7).2,4 y Cryoprecipitate or fibrinogen concentrate may be indicated in critical bleeding if fibrinogen levels are not maintained using FFP. In patients with critical bleeding requiring massive transfusion, suggested doses of blood components is 3-4g (CBMT-PP10)3 in adults or as per the local Massive Transfusion Protocol. -
Transfusion Service Introduction Blood/Blood Products Requests and Turnaround Time Expectations
Transfusion Service Introduction All blood products and blood components are supplied to UnityPoint Health-Meriter Hospital by the American Red Cross Blood Services. Pathology consultation is available regarding blood and/or components and dosages. ABO and Rho(D)—specific type is used whenever possible for leuko-poor packed cell transfusions. ABO-compatible blood is used for all plasma and platelet components whenever possible. For any orders involving HLA-matched components, the patient must have been HLA typed (sent to the American Red Cross) a minimum of 48 hours prior to intended infusion of the component. HLA typing is only required once. Blood components that are thawed, pooled, washed, volume-reduced, or deglycerolized for a patient will be charged to the patient even if not transfused. The charge is done because these components may not be suitable for another patient. Examples include: Autologous or directed donations Pooled cryoprecipitate 4-hour expiration Thawed fresh frozen plasma 24-hour expiration Thawed cryoprecipitate 6-hour expiration Deglycerolized red cells 24-hour expiration Washed red cells 24-hour expiration All blood components must be completely infused within 4 hours of release from UnityPoint Health-Meriter Laboratories Blood Bank, or be infused within the expiration time. Refer to UnityPoint Health -Meriter’s Blood and Blood Products Transfusion Policy #123 for additional information located on MyMeriter. Blood/Blood Products Requests and Turnaround Time Expectations Requests from UnityPoint Health-Meriter Hospital are entered in the hospital computer system and print in the UnityPoint Health- Meriter Laboratories Blood Bank. For the comfort of the patient, it is important to coordinate collection for other tests with Blood Bank specimens. -
Stem Cells and Artificial Substitutes Could Ease the Dependence on Blood Donations
OUTLOOK BLOOD DOING WITHOUT DONORS Stem cells and artificial substitutes could ease the dependence on blood donations. ANDREW BAKER BY ELIE DOLGIN S12 | NATURE | VOL 549 | 28 SEPTEMBER©2017 Ma c2017millan Publishers Li mited, part of Spri nger Nature. All ri ghts reserved. ©2017 Mac millan Publishers Li mited, part of Spri nger Nature. All ri ghts reserved. BLOOD OUTLOOK ach year, at about 13,000 collection centres worldwide, phlebotomists stick needles in the veins of healthy vol- unteers and amass in excess of 110 million donations of blood. The volume collected is enough to fill 20 Olympic- sized swimming pools — but it’s nowhere near to meeting the medical demand for whole blood or its components. To fill the gap, an enterprising group of stem-cell biologists and bio- Eengineers hopes to produce a safe, reliable and bottomless supply of on-demand blood substitutes in the laboratory. According to Robert Lanza, a pioneer of stem cell therapies and head IMAGES IWM VIA GETTY CHETWYN/ SGT. of global regenerative medicine at Astellas Pharma in Marlborough, Massachusetts, current technologies are not yet ready to compete with the real stuff. “We’re not going to put blood banks out of business any time soon,” he says. But in the near future, artificial blood products could be approved for use when transfusions are not otherwise an option, such as during combat or in people with a religious objection to receiving blood transfusions. And therapies that rely on reprogrammed stem cells to produce components of blood might also help transfusion centres to relieve shortages or to avoid donor-derived contamination. -
Hemolytic Disease of the Newborn
Intensive Care Nursery House Staff Manual Hemolytic Disease of the Newborn INTRODUCTION and DEFINITION: Hemolytic Disease of the Newborn (HDN), also known as erythroblastosis fetalis, isoimmunization, or blood group incompatibility, occurs when fetal red blood cells (RBCs), which possess an antigen that the mother lacks, cross the placenta into the maternal circulation, where they stimulate antibody production. The antibodies return to the fetal circulation and result in RBC destruction. DIFFERENTIAL DIAGNOSIS of hemolytic anemia in a newborn infant: -Isoimmunization -RBC enzyme disorders (e.g., G6PD, pyruvate kinase deficiency) -Hemoglobin synthesis disorders (e.g., alpha-thalassemias) -RBC membrane abnormalities (e.g., hereditary spherocytosis, elliptocytosis) -Hemangiomas (Kasabach Merritt syndrome) -Acquired conditions, such as sepsis, infections with TORCH or Parvovirus B19 (anemia due to RBC aplasia) and hemolysis secondary to drugs. ISOIMMUNIZATION A. Rh disease (Rh = Rhesus factor) (1) Genetics: Rh positive (+) denotes presence of D antigen. The number of antigenic sites on RBCs varies with genotype. Prevalence of genotype varies with the population. Rh negative (d/d) individuals comprise 15% of Caucasians, 5.5% of African Americans, and <1% of Asians. A sensitized Rh negative mother produces anti-Rh IgG antibodies that cross the placenta. Risk factors for antibody production include 2nd (or later) pregnancies*, maternal toxemia, paternal zygosity (D/D rather than D/d), feto-maternal compatibility in ABO system and antigen load. (2) Clinical presentation of HDN varies from mild jaundice and anemia to hydrops fetalis (with ascites, pleural and pericardial effusions). Because the placenta clears bilirubin, the chief risk to the fetus is anemia. Extramedullary hematopoiesis (due to anemia) results in hepatosplenomegaly. -
Association Between ABO and Duffy Blood Types and Circulating Chemokines and Cytokines
Genes & Immunity (2021) 22:161–171 https://doi.org/10.1038/s41435-021-00137-5 ARTICLE Association between ABO and Duffy blood types and circulating chemokines and cytokines 1 2 3 4 5 6 Sarah C. Van Alsten ● John G. Aversa ● Loredana Santo ● M. Constanza Camargo ● Troy Kemp ● Jia Liu ● 4 7 8 Wen-Yi Huang ● Joshua Sampson ● Charles S. Rabkin Received: 11 February 2021 / Revised: 30 April 2021 / Accepted: 17 May 2021 / Published online: 8 June 2021 This is a U.S. government work and not under copyright protection in the U.S.; foreign copyright protection may apply 2021, corrected publication 2021 Abstract Blood group antigens are inherited traits that may play a role in immune and inflammatory processes. We investigated associations between blood groups and circulating inflammation-related molecules in 3537 non-Hispanic white participants selected from the Prostate, Lung, Colorectal, and Ovarian Cancer Screening Trial. Whole-genome scans were used to infer blood types for 12 common antigen systems based on well-characterized single-nucleotide polymorphisms. Serum levels of 96 biomarkers were measured on multiplex fluorescent bead-based panels. We estimated marker associations with blood type using weighted linear or logistic regression models adjusted for age, sex, smoking status, and principal components of p 1234567890();,: 1234567890();,: population substructure. Bonferroni correction was used to control for multiple comparisons, with two-sided values < 0.05 considered statistically significant. Among the 1152 associations tested, 10 were statistically significant. Duffy blood type was associated with levels of CXCL6/GCP2, CXCL5/ENA78, CCL11/EOTAXIN, CXCL1/GRO, CCL2/MCP1, CCL13/ MCP4, and CCL17/TARC, whereas ABO blood type was associated with levels of sVEGFR2, sVEGFR3, and sGP130. -
Blood Product Replacement: Obstetric Hemorrhage
CMQCC OBSTETRIC HEMORRHAGE TOOLKIT Version 2.0 3/24/15 BLOOD PRODUCT REPLACEMENT: OBSTETRIC HEMORRHAGE Richard Lee, MD, Los Angeles County and University of Southern California Medical Center Laurence Shields, MD, Marian Regional Medical Center/Dignity Health Holli Mason, MD, Cedars-Sinai Medical Center Mark Rollins, MD, PhD, University of California, San Francisco Jed Gorlin, MD, Innovative Blood Resources/Memorial Blood Center, St. Paul, Minnesota Maurice Druzin, MD, Lucile Packard Children’s Hospital Stanford University Jennifer McNulty, MD, Long Beach Memorial Medical Center EXECUTIVE SUMMARY • Outcomes are improved with early and aggressive intervention. • Both emergency blood release and massive transfusion protocols should be in place. • In the setting of significant obstetric hemorrhage, resuscitation transfusion should be based on vital signs and blood loss and should not be delayed by waiting for laboratory results. • Calcium replacement will often be necessary with massive transfusion due to the citrate used for anticoagulation in blood products. • During massive transfusion resuscitation, the patient’s arterial blood gas, electrolytes, and core temperature should be monitored to guide clinical management and all transfused fluids should be warmed; direct warming of the patient should be initiated as needed to maintain euthermia and to avoid added coagulopathy. BACKGROUND AND LITERATURE REVIEW After the first several units of packed red blood cells (PRBCs) and in the face of continuing or worsening hemorrhage, aggressive transfusion therapy becomes critical. This report covers the experience with massive transfusion protocols. Lessons from military trauma units as well as civilian experience with motor vehicle accidents and massive obstetric hemorrhage have identified new principles such as earlier use of plasma (FFP/thawed plasma/plasma frozen within 24 hours/liquid plasma) and resuscitation transfusion while laboratory results are pending. -
Fresh Frozen Plasma in General Practice
Practical guide to using frozen and fresh frozen plasma in general practice Why every practice should keep a bag in the freezer Kit Sturgess; MA; VetMB; PhD; CertVR; DSAM; CertVC; FRCVS RCVS Recognised Specialist in Small Animal Medicine Advanced Practitioner in Veterinary Cardiology Introduction Keeping stock at reasonable levels in a practice is vital to good business management balancing the need to have a product available against the costs of keeping stock that is not used and potentially may go out of date and need to be replaced (as well as subtle small costs of space, stock taking, disposal of out-of-date product etc.). Practices need, therefore, to make decisions about preparedness for ‘what if’ scenarios and have protocols in place. The difficult question for many practices is how bizarre/uncommon should these scenarios be to warrant keeping a drug or treatment in stock or buying a specialist piece of equipment. This can only really be answered on an individual practice basis as it will depend on the type of cases seen as well as the likely ability of clients to want to pay if the treatment/investigation is expensive and the relationship with other local practices in terms of borrowing treatments or using equipment. It is also important to try and understand the value that a particular drug or treatment will have on morbidity and mortality of a particular condition and whether the patient could be referred onwards if necessary so not having calcium available if presented with a seizuring hypocalcaemic patient would be a significant issue in that patient’s care. -
Blood Banking/Transfusion Medicine Fellowship Program
DEPARTMENT OF PATHOLOGY AND LABORATORY MEDICINE BLOOD BANKING/TRANSFUSION MEDICINE FELLOWSHIP PROGRAM THIS NEW ONE-YEAR ACGME-ACCREDITED FELLOWSHIP IN BLOOD BANKING/TRANSFUSION MEDICINE OFFERS STATE OF THE ART COMPREHENSIVE TRAINING IN BLOOD BANKING, COAGULATION, APHERESIS, AND HEMOTHERAPY AT THE MEMORIAL HERMANN HOSPITAL (MHH)-TEXAS MEDICAL CENTER (TMC) FOR PEDIATRICS AND ADULTS. This clinically-oriented fellowship is ideal for the candidate looking for exceptional experience in hemotherapy decision-making and coagulation consultation. We have a full spectrum of medical and surgical specialties, including a level 1 trauma center, as well as a busy solid organ transplant service (renal, liver, pancreas, cardiac, and lung). Fellows will rotate through: Our unique hemotherapy service: This innovative clinical consultative service for the Heart and Vascular Institute (HVI) allows fellows to serve as interventional blood banking consultants at the bed side as part of a multidisciplinary care team; our patients have complex bleeding and coagulopathy issues. Therapeutic apheresis service: This consultative service provide 24/7 direct patient care covering therapeutic plasmapheresis, red blood cell (RBC) exchanges, photopheresis, plateletpheresis, leukoreduction, therapeutic phlebotomies, and other related procedures on an inpatient and outpatient basis. We performed approximately over 1000 therapeutic plasma exchanges and RBC exchanges every year. Bloodbank: The MHH-TMC reference lab is one of the largest in Southeast Texas. This rotation provides extensive experience in interpreting antibody panel reports, working up transfusion reactions, investigating blood compatibility/incompatibility issues, and monitoring component usage. Gulf Coast Regional Blood Center: This rotation provides donor exposure in one of the largest community blood donation centers in the US as well as cellular therapy and immunohematology training. -
Platelet-Rich Plasmapheresis: a Meta-Analysis of Clinical Outcomes and Costs
THE jOURNAL OF EXTRA-CORPOREAL TECHNOLOGY Original Article Platelet-Rich Plasmapheresis: A Meta-Analysis of Clinical Outcomes and Costs Chris Brown Mahoney , PhD Industrial Relations Center, Carlson School of Management, University of Minnesota, Minneapolis, MN Keywords: platelet-rich plasmapheresis, sequestration, cardiopulmonary bypass, outcomes, economics, meta-analysis Presented at the American Society of Extra-Corporeal Technology 35th International Conference, April 3-6, 1997, Phoenix, Arizona ABSTRACT Platelet-rich plasmapheresis (PRP) just prior to cardiopulmonary bypass (CPB) surgery is used to improve post CPB hemostasis and to minimize the risks associated with exposure to allogeneic blood and its components. Meta-analysis examines evidence ofPRP's impact on clinical outcomes by integrating the results across published research studies. Data on clinical outcomes was collected from 20 pub lished studies. These outcomes, DRG payment rates, and current national average costs were used to examine the impact of PRP on costs. This study provides evidence that the use of PRP results in improved clinical outcomes when compared to the identical control groups not receiving PRP. These improved clinical out comes result in subsequent lower costs per patient in the PRP groups. All clinical outcomes analyzed were improved: blood product usage, length of stay, intensive care stay, time to extu bation, incidence of cardiovascular accident, and incidence of reoperation. The most striking differences occur in use of all blood products, particularly packed red blood cells. This study provides an example of how initial expenditure on technology used during CPB results in overall cost savings. Estimated cost savings range from $2,505.00 to $4,209.00. -
Policy and Procedure
Policy and Procedure Title: Exchange Transfusion for Sickle Cell Division: Medical Management Disease Department: Utilization Management Approval Date: 2/9/18 LOB: Medicaid, Medicare, HIV SNP, CHP, MetroPlus Gold, Goldcare I&II, Market Plus, Essential, HARP Effective Date: 2/9/18 Policy Number: UM-MP224 Review Date: 1/18/19 Cross Reference Number: Retired Date: Page 1 of 7 1. POLICY: Exchange Transfusion for Sickle Cell Disease 2. RESPONSIBLE PARTIES: Medical Management Administration, Utilization Management, Integrated Care Management, Claims Department, Provider Contracting 3. DEFINITIONS • Sickle cell disease – Sickle cell disease (SCD) refers to a group of inherited disorders characterized by sickled red blood cells (RBCs), caused either by homozygosity for the sickle hemoglobin mutation (HbSS; sickle cell anemia) or by compound heterozygosity for the sickle mutation and a second beta globin gene mutation (e.g., sickle-beta thalassemia, HbSC disease). In either HbSS or compound heterozygotes, the majority of Hgb is sickle Hgb (HgbS; i.e., >50 percent). • Transfusion – Simple transfusion refers to transfusion of RBCs without removal of the patient's blood. • Exchange Transfusion – Exchange transfusion involves transfusion of RBCs together with removal of the patient's blood. Exchange transfusion can be performed manually or via apheresis (also called cytapheresis or hemapheresis) using an extracorporeal continuous flow device. 4. PROCEDURE: A. Exchange transfusion for sickle cell disease will be covered as an ambulatory surgery procedure when all the following criteria are met: i) The member has documented SCD. ii) The exchange transfusion is a pre-scheduled procedure. iii) The purpose of the exchange transfusion is to prevent stroke, acute chest syndrome, or recurrent painful episodes. -
Sickle Cell Disease: Chronic Blood Transfusions
Sickle Cell Disease: Chronic Blood Transfusions There may be times when sickle cell patients require a blood transfusion. Such situations include preparing for surgery, during pregnancy, or during a severe complication such as an aplastic crisis, splenic sequestration or acute chest syndrome. In these cases, transfusion is a one-time intervention used to reduce the severity of the complication you are experiencing. However, if you have had a stroke, or an MRI or TCD shows that you are at high risk for having a stroke, your hematologist may recommend you begin chronic blood transfusions. What Does a Blood Transfusion Do? What are The Risks? Chronic (monthly) blood transfusions have been proven to Blood transfusions are not without risks. One risk is drastically reduce a sickle cell patient’s risk of stroke. They alloimmunization, a process in which the patient receiving have also been shown to reduce the frequency, severity blood transfusions creates antibodies to certain types of and duration of other sickle cell complications. Sickle cell blood. As a result he/she may have a reaction to the blood patients usually have a hemoglobin S level of about 80- that was transfused. Alloimmunization makes it more 90%. This means 80-90% of the circulating red blood cells difficult to find blood that is a good match for the patient. are cells that can sickle and cause complications. The goal In order to prevent alloimmunization, some centers of chronic blood transfusion therapy is to bring that routinely perform RBC phenotyping (special testing for percentage down below 30%. This will mean fewer sickle antibodies) on sickle cell disease patients so that they may cells circulating in the body, and a lower risk of give blood that is a better match for the patient. -
Apheresis Donation This Quick Reference Guide Will Help You Identify the Best Donation for Your Unique Blood Type
Apheresis Donation This quick reference guide will help you identify the best donation for your unique blood type. Donors now have the opportunity to make an apheresis (ay-fur-ee-sis) donation and donate just platelets, red cells, or plasma at blood drives. These individual components are vital for local patients in need. Platelets Control Bleeding Red Cells Deliver Oxygen Plasma transports blood cells & controls bleeding Donation Type Blood Types Requirements Donation Time A+, B+, O+ Over 75% of population has one of these blood types. Platelet Donation: Be healthy, weigh at least 114 lbs 2 hours cancer & surgery patients no aspirin for 48 hours Platelets only last five days after donation so the need is constant. O-, O+, A-, B- Special height, weight, Double Red: O-Negative is the 1 hour and hematocrit requirements. surgery, trauma patients, universal red cell donor. +25 min Please call us or see a staff member accident, & burn victims Only 17% of population has one of these negative blood types Plasma: AB+, AB- Trauma patients, burn Universal Plasma Donors 1 hour Be healthy, weigh at least 114 lbs victims, & patients with +30 min serious illness or injuries Only 4% of population How Apheresis works: Blood is drawn from the donor’s arm and the components are separated. Only the components being donated are collected while the remaining components are safely returned to the donor How to Schedule an Appointment: Please call 800-398-7888 or visit schedule.bloodworksnw.org. Walk-ins are also welcome at some blood drives, so be sure to ask our staff when you stop in.