Cost/benefit analysis of pharmacologic hemostasis
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Published on: February 27, 2026
1Department of Cardiovascular and Transplant Anesthesia, Alton Ochsner Clinic, New Orleans, Louisiana 70121, USA.
Insights
Pharmacologic hemostasis agents reduce transfusion needs in surgery. Epsilon-aminocaproic acid offers significant cost savings compared to other agents like aprotinin.
Area of Science:
- Anesthesiology
- Cardiovascular Surgery
- Pharmacology
Background:
- Surgical bleeding and coagulopathies contribute to patient morbidity and mortality.
- Over 27% of patients undergoing cardiac surgery receive unnecessary blood transfusions.
- Cost-benefit analysis of pharmacologic hemostasis requires evaluating direct and indirect costs and benefits.
Purpose of the Study:
- To analyze the cost-benefit of pharmacologic hemostasis agents in reducing surgical bleeding and transfusion requirements.
- To compare the efficacy and cost-effectiveness of different hemostatic drugs.
Main Methods:
- Systematic application of a clinical algorithm to reduce transfusion needs.
- Administration of pharmacologic agents to enhance hemostasis.
- Evaluation of four common agents: desmopressin acetate, tranexamic acid, epsilon-aminocaproic acid, and aprotinin.
Main Results:
- Epsilon-aminocaproic acid (EACA) treatment costs less than $2, with blood valued at $30.
- Aprotinin use incurs costs exceeding $500, with the drug alone costing $900.
- All evaluated agents demonstrate efficacy in reducing bleeding and transfusion needs.
Conclusions:
- Pharmacologic hemostasis agents effectively reduce bleeding and transfusion requirements.
- Epsilon-aminocaproic acid presents a favorable cost-benefit profile compared to aprotinin.
- Improved hemostasis leads to indirect cost savings through reduced OR time, ICU/hospital stay, and reoperations.
Background:
Surgical bleeding with possible associated coagulopathies is a major source of morbidity and mortality. More than 27% of patients receive unnecessary blood or blood-product transfusions during cardiac operations. Analysis of the cost-benefit of pharmacologic hemostasis can be accomplished by relating all the components of cost, which include both direct and indirect costs to both direct and indirect benefits to the patient.
Methods:
A significant reduction in transfusion requirements can be achieved by the systematic application of a clinical algorithm. An alternative is to use drugs that enhance hemostasis. Four such drugs commonly used are desmopressin acetate, tranexamic acid, epsilon-aminocaproic acid, and aprotinin. All these agents have been shown to successfully reduce bleeding and the need for transfusion. It appears that the order of efficacy (greatest to least) is aprotinin, tranexamic acid, epsilon-aminocaproic acid, and desmopressin acetate.
Results:
Cost/benefit analysis associated with the use of these agents is complex. The direct costs of these drug treatments can be balanced against the costs related to blood and blood-product administration. Using epsilon-aminocaproic acid, blood used is valued at $30, whereas the drug treatment cost is less than $2. Aprotinin use results in costs of more than $500, with the drug costing $900.
Conclusions:
Improved hemostasis should also result in indirect cost savings from reduced operating room time, reduced intensive care unit and hospital stay, and the avoidance of reoperation for bleeding.
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