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Enterprise AI Analysis: Artificial intelligence-driven decision support for patients with acute respiratory failure: a scoping review

Healthcare Innovation

Artificial intelligence-driven decision support for patients with acute respiratory failure: a scoping review

This scoping review identifies clinically validated AI-driven tools for acute respiratory failure, analyzing their clinical evaluations, and highlighting gaps in reporting and implementation rigor. Despite promising applications like predicting weaning from mechanical ventilation, most studies fall short on critical evaluation metrics, particularly regarding error reporting, algorithmic fairness, and user adherence. Realizing the full potential of AI in patient care requires a more robust approach to assessing reliability, usability, and real-world deployment.

Executive Impact: Key Metrics

This research underscores the critical need for comprehensive clinical validation of AI in healthcare. While the potential for improved patient outcomes is clear, the current state of evaluation presents significant challenges for enterprise adoption and widespread impact.

Studies Identified
DECIDE-AI Criteria Met (Median)
Studies Reporting Algorithmic Fairness
Studies Describing User Adherence

Deep Analysis & Enterprise Applications

Select a topic to dive deeper, then explore the specific findings from the research, rebuilt as interactive, enterprise-focused modules.

Acute respiratory failure (ARF) is a significant cause of morbidity and mortality, with increasing prevalence in the U.S. Traditional management faces challenges like an aging population, resource limitations, and inconsistent adherence to optimal strategies. Artificial intelligence (AI) offers a promising avenue to augment clinical decision-making, potentially improving workflow efficiency, promoting guideline adherence, and providing personalized recommendations. However, the translation of AI models from predictive accuracy in simulations to real-world clinical impact remains limited, with less than one percent achieving integrated clinical decision support (CDS) status. This highlights the complexity of successful AI deployment, which requires not only accurate models but also careful consideration of human factors and workflow integration.

This scoping review systematically identified studies evaluating AI-driven CDS tools for ARF in adult patients. The search covered PubMed, CINAHL, and Embase from inception to January 2025. Inclusion criteria required studies to feature an AI-driven CDS tool, test a clinical/human factors/health system outcome beyond model performance, and compare against a control group in a clinical setting. Studies were excluded if they lacked a machine learning model, only assessed model performance, or were conducted in simulated settings. Data extraction and quality assessment followed the DECIDE-AI framework, with a focus on usability and implementation.

Out of 5,987 citations, six studies conducted between 2012 and 2024 were included, involving 40–2,536 patients. Four (67%) focused on predicting weaning from mechanical ventilation. Three (50%) demonstrated statistically significant and clinically meaningful outcomes, such as reduced duration of mechanical ventilation or hospital stay. AI tools varied in algorithms (logistic regression, SVM, XGBoost, LightGBM, ANN) and data input methods (manual vs. automated EHR integration). Three studies described a digital infrastructure for real-time integration and interactive interfaces, but overall, studies met a median of only 3.5 out of 17 DECIDE-AI criteria. Crucially, none reported AI-related errors, malfunctions, or algorithmic fairness, and only one described user characteristics and adherence.

Despite AI evaluation efforts spanning over a decade, few tools have achieved comprehensive clinical evaluation. Studies often focused on predictive accuracy under ideal conditions, neglecting user errors, system malfunctions, or missing data. This limited scope fails to address the complexities of real-world clinical practice, where poor implementation, rather than model limitations, might hinder observed benefits. A significant gap exists in usability evaluation, which refers to the system's ability to help users achieve goals safely and efficiently. Furthermore, implementation reporting was inconsistent, with most studies lacking details on how AI tools integrate into complex healthcare systems, user adherence, and strategies for addressing barriers.

The review reveals a limited body of evidence for AI-driven CDS tools in ARF, with most studies lacking robust clinical evaluations. While early applications in ventilator weaning show promise, inconsistent methodological rigor and reporting gaps hinder broader clinical deployment. Future evaluations must prioritize structured assessments of safety, usability, human-AI interaction, and comprehensive implementation strategies. Such an integrated approach is vital for ensuring AI tools genuinely support clinical decision-making, improve patient outcomes, and achieve sustained adoption in complex healthcare environments.

6 Studies met eligibility out of 5,987 citations, indicating a narrow focus on clinical validation.

Enterprise Process Flow

Studies screened (4433)
Studies sought for retrieval (36)
Studies assessed for eligibility (36)
Studies included in review (6)

Evaluation Quality Comparison: DECIDE-AI Framework Adherence

DECIDE-AI Item Observed in Most Studies Ideal for AI Deployment
Implementation Setting and Context
  • Basic description of inpatient setting
  • Single-center evaluations
  • Detailed description of clinical workflow
  • Multi-center validation
  • Consideration of broader health policy impacts
Support for Intended Use
  • Discussion of anticipated advantages (e.g., cost reduction)
  • Quantification of specific implementation costs
  • Real-world ROI analysis for various use cases
Human-Computer Agreement and Usability
  • Assessed in only 2 studies (e.g., mean session time, physician surveys)
  • Structured usability evaluations (e.g., SUS scores)
  • Detailed user learning curves and adoption rates
  • Reporting of recognized usability frameworks
AI-related Errors and Fairness
  • Not reported in any study
  • No methodology for algorithmic fairness evaluation
  • Transparent reporting of model errors, malfunctions, user missteps
  • Discussion of potential patient care implications and mitigation
  • Bias detection and mitigation strategies for algorithmic fairness
User Characteristics and Adherence
  • Described in only 1 study
  • Inconsistent reporting of clinician action on recommendations
  • Detailed user demographics and behavior
  • Quantitative measures of user adherence to AI recommendations
  • Analysis of outcomes when recommendations are not followed

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Your AI Implementation Roadmap

A structured approach is crucial for successful AI deployment in complex healthcare environments, ensuring robust evaluation and sustained adoption.

Phase 1: Needs Assessment & Data Readiness (1-3 Months)

Define clinical problems, identify specific ARF cohorts, assess existing data infrastructure, and ensure data quality and accessibility for AI model training and validation.

Phase 2: AI Model Selection & Customization (2-4 Months)

Select appropriate AI algorithms, customize models for local patient populations, and establish initial performance metrics for predictive accuracy.

Phase 3: Pilot Clinical Evaluation (3-6 Months)

Implement AI tool in a controlled pilot, focusing on safety, usability, and human-AI interaction. Conduct structured evaluations, including error reporting and user adherence metrics, to gather real-world feedback.

Phase 4: Algorithmic Fairness & Ethical Review (Ongoing)

Proactively evaluate and mitigate algorithmic bias across diverse patient groups. Establish an ethical oversight committee to review AI use cases and ensure patient safety and equity.

Phase 5: System Integration & Scaled Deployment (6-12 Months)

Integrate the AI tool with existing EHR and clinical workflows. Scale deployment across relevant clinical units, providing comprehensive user training and ongoing support.

Phase 6: Post-Implementation Monitoring & Optimization (Ongoing)

Continuously monitor AI performance, clinical impact, and user satisfaction. Establish feedback loops for model retraining, system updates, and iterative optimization based on real-world outcomes.

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