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Published on: July 13, 2019
Optimization of the intravenous infusion workflow in the isolation ward for patients with coronavirus disease 2019
Yan Song1, Wenhui Wang2, Lijun Zhang3
1Nursing Department, The Second Hospital of Nanjing, Nanjing University of Chinese Medicine, Jiangsu, China.
Insights
Optimizing the intravenous infusion workflow for coronavirus disease 2019 patients significantly improved efficiency and patient satisfaction. This workflow enhancement also reduced the costs associated with personal protective equipment (PPE).
Area of Science:
- Healthcare Management
- Infectious Disease Control
- Process Optimization
Background:
- Coronavirus disease 2019 (COVID-19) presented unique challenges for healthcare systems, particularly in isolation wards.
- Efficient patient care workflows are crucial for managing infectious diseases while ensuring patient satisfaction and resource optimization.
Purpose of the Study:
- To evaluate the impact of optimizing the intravenous infusion workflow in isolation wards for COVID-19 patients.
- To assess improvements in work efficiency, patient satisfaction, and economic indicators following workflow optimization.
Main Methods:
- The study applied Hamer's Process Reengineering Theory to optimize the intravenous infusion workflow.
- A comparative analysis was conducted on work efficiency, patient satisfaction, and economic factors before and after workflow optimization.
- Key metrics included drug preparation time, intravenous admixture time, patient waiting time, patient satisfaction rates, and personal protective equipment (PPE) costs.
Main Results:
- Optimized workflow led to statistically significant reductions in drug preparation time (4.84 to 3.50 min), admixture time (4.03 to 2.60 min), and patient waiting time (34.33 to 30.87 min).
- Patient satisfaction increased substantially from 66.7% to 93.3%.
- Daily costs for PPE decreased from 46.67 sets and 186.6 CNY to 36.17 sets and 144.6 CNY.
Conclusions:
- Optimization of the intravenous infusion workflow is an effective strategy for enhancing efficiency in COVID-19 patient care.
- The optimized workflow significantly improves patient satisfaction and leads to considerable cost savings in personal protective equipment.
- Process reengineering principles can be successfully applied to critical care settings to improve operational and economic outcomes.
Objective:
This study aimed to evaluate the effect of optimization of the intravenous infusion workflow in isolation wards for patients with coronavirus disease 2019.
Methods:
The infusion management group optimized the intravenous infusion workflow based on Hamer's Process Reengineering Theory and applied it to the treatment of patients with coronavirus disease 2019. The work efficiency, patients' satisfaction and economic indicators before and after optimization were compared.
Results:
After the infusion workflow was optimized, average times for preparation drugs and intravenous admixture, and patients' waiting time decreased from 4.84 min, 4.03 min, and 34.33 min to 3.50 min, 2.60 min, and 30.87 min, respectively, patients' satisfaction increased from 66.7% to 93.3%, and the cost of personal protective equipment (PPE) decreased from 46.67 sets and 186.6 CNY per day to 36.17 sets and 144.6 CNY, with statistical significance.
Conclusion:
The optimization of the intravenous infusion workflow can effectively decrease the cost of PPE while improving the efficiency of infusion and patients' satisfaction.
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