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A Delphi Process to Identify Relevant Outcomes That May Be Associated With a Predictive Analytic Tool to Detect
Andre L Holder1, Ashish K Khanna2, Michael J Scott3
1Critical Care Medicine, Emory University School of Medicine, Atlanta, USA.
This study used a Delphi method to identify key outcomes for artificial intelligence tools in the intensive care unit (ICU). The most relevant and achievable outcomes for the hemodynamic stability index (HSI) were reducing time spent in hemodynamic instability and improving recognition time.
Area of Science:
- Critical Care Medicine
- Artificial Intelligence in Healthcare
- Clinical Decision Support
Background:
- Growing use of AI tools for early patient event detection in ICUs.
- The hemodynamic stability index (HSI) shows promise (AUC 0.82) for predicting hemodynamic intervention needs.
- Need to align future AI tool studies with clinically relevant and achievable outcomes.
Purpose of the Study:
- To identify the most relevant and achievable outcomes for AI tools, specifically the HSI, in the ICU setting.
- To guide future research in developing and validating AI predictive analytics for critical care.
Main Methods:
- A three-round Delphi study involving 10 critical care physicians and 3 nurses in the US.
- Panelists rated potential outcomes for relevance using a 5-point scale (≥65% rating 4 or 5 for consensus).
- Kemeny-Young approach used to rank outcomes based on relevance and achievability.
Main Results:
- Consensus on relevance was achieved for 19 out of 24 potential outcomes.
- "Reduces time spent in hemodynamic instability" and "reduces times to recognition of hemodynamic instability" ranked highest.
- A matrix visualized the distribution of outcomes by relevance and achievability.
Conclusions:
- The Delphi study effectively identified relevant and achievable outcomes for ICU AI tools.
- Findings offer guidance for researchers aiming to improve critical care outcomes with AI.
- Future research should focus on AI tools targeting clinically significant outcomes like reduced hemodynamic instability duration and faster recognition.
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