RÉSUMÉ
Importance: Unprecedented increases in hospital occupancy rates during COVID-19 surges in 2020 caused concern over hospital care quality for patients without COVID-19. Objective: To examine changes in hospital nonsurgical care quality for patients without COVID-19 during periods of high and low COVID-19 admissions. Design, Setting, and Participants: This cross-sectional study used data from the 2019 and 2020 Agency for Healthcare Research and Quality's Healthcare Cost and Utilization Project State Inpatient Databases. Data were obtained for all nonfederal, acute care hospitals in 36 states with admissions in 2019 and 2020, and patients without a diagnosis of COVID-19 or pneumonia who were at risk for selected quality indicators were included. The data analysis was performed between January 1, 2023, and March 15, 2024. Exposure: Each hospital and week in 2020 was categorized based on the number of COVID-19 admissions per 100 beds: less than 1.0, 1.0 to 4.9, 5.0 to 9.9, 10.0 to 14.9, and 15.0 or greater. Main Outcomes and Measures: The main outcomes were rates of adverse outcomes for selected quality indicators, including pressure ulcers and in-hospital mortality for acute myocardial infarction, heart failure, acute stroke, gastrointestinal hemorrhage, hip fracture, and percutaneous coronary intervention. Changes in 2020 compared with 2019 were calculated for each level of the weekly COVID-19 admission rate, adjusting for case-mix and hospital-month fixed effects. Changes during weeks with high COVID-19 admissions (≥15 per 100 beds) were compared with changes during weeks with low COVID-19 admissions (<1 per 100 beds). Results: The analysis included 19â¯111â¯629 discharges (50.3% female; mean [SD] age, 63.0 [18.0] years) from 3283 hospitals in 36 states. In weeks 18 to 48 of 2020, 35â¯851 hospital-weeks (36.7%) had low COVID-19 admission rates, and 8094 (8.3%) had high rates. Quality indicators for patients without COVID-19 significantly worsened in 2020 during weeks with high vs low COVID-19 admissions. Pressure ulcer rates increased by 0.09 per 1000 admissions (95% CI, 0.01-0.17 per 1000 admissions; relative change, 24.3%), heart failure mortality increased by 0.40 per 100 admissions (95% CI, 0.18-0.63 per 100 admissions; relative change, 21.1%), hip fracture mortality increased by 0.40 per 100 admissions (95% CI, 0.04-0.77 per 100 admissions; relative change, 29.4%), and a weighted mean of mortality for the selected indicators increased by 0.30 per 100 admissions (95% CI, 0.14-0.45 per 100 admissions; relative change, 10.6%). Conclusions and Relevance: In this cross-sectional study, COVID-19 surges were associated with declines in hospital quality, highlighting the importance of identifying and implementing strategies to maintain care quality during periods of high hospital use.
Sujet(s)
COVID-19 , Qualité des soins de santé , SARS-CoV-2 , Humains , COVID-19/épidémiologie , COVID-19/thérapie , COVID-19/mortalité , États-Unis/épidémiologie , Études transversales , Femelle , Mâle , Qualité des soins de santé/statistiques et données numériques , Adulte d'âge moyen , Sujet âgé , Hospitalisation/statistiques et données numériques , Hôpitaux/statistiques et données numériques , Mortalité hospitalière , Indicateurs qualité santé , Admission du patient/statistiques et données numériques , Admission du patient/tendances , AdulteRÉSUMÉ
OBJECTIVES: Despite endorsements for greater use of systems approaches and reports from national consensus bodies calling for closer engineering/health care partnerships to improve care delivery, there has been a scarcity of effort of actually engaging the design and engineering disciplines in patient safety projects. The article describes a grant initiative undertaken by the Agency for of Healthcare Research and Quality that brings these disciplines together to test new ideas that could make health care safer. METHODS: Collectively known as patient safety learning laboratories, grantee teams engage in phase-based activities that parallel a systems engineering process-problem analysis, design, development, implementation, and evaluation-to gain an in-depth understanding of related patient safety problems, generate fresh ideas and rapid prototypes, develop the prototypes, ensure that developed components are implemented as an integrated working system, and evaluate the system in a simulated or clinical setting. FINDINGS: Obstacles are described that can derail the best of intentions in deploying the systems engineering methodology. Based on feedback received from project teams, lessons learned are emerging that find considerable variation among project teams in deploying the methodology and a longer than anticipated amount of time in bringing team members from different disciplines together where they learn to communicate and function as a team. CONCLUSIONS: Three narratives are generated in terms of what success might look like. Much is yet to be learned about the limitations and successes of the ongoing learning laboratory initiative, which should be relevant to the broader scale interest in learning health systems.
Sujet(s)
Système de santé apprenant , Sécurité des patients , Prestations des soins de santé , Recherche sur les services de santé , Humains , Études longitudinalesRÉSUMÉ
The growth of health care simulation in schools of medicine and nursing is noteworthy, as is the increasingly sophisticated simulation technology, support from funding agencies and foundations for research, well-attended annual conferences, and continued interest of accreditation and certification groups. Yet there are concerns preventing the full value of health care simulation to be realized when examined from a patient safety perspective. Basic questions are asked by funders of patient safety research when assessing past simulation projects undertaken to advance patient safety: Are the safety and quality of care to patients actually improved, and is something new being learned regarding the optimal use of simulation? Concerns focus on pursuing the right research questions to learn something new about the most effective use of simulation; doing more with simulation than simply providing an interesting, stand-alone educational experience; attending more seriously to how skill acquisition, maintenance, and progression get managed; and encouraging investigators, funders, and reviewers to expand their vision regarding what constitutes important inquiry and evidence in health care simulation. Patient safety remains a multifaceted challenge in the United States, requiring multifaceted approaches. Simulation training is considered a promising approach for improving the safety and quality of health services delivery. While it takes time for any new approach to gain momentum and learn from past efforts, it also will require addressing a systematic range of essential questions to improve existing knowledge on the optimal use of simulation, and to realize similar gains in safety that other high-risk industries have made.