Retracted: An Artificial Intelligence Fusion Model for Cardiac Emergency Decision Making: Application and Robustness Analysis
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Post-publication record
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Abstract
BACKGROUND: During cardiac emergency medical treatment, reducing the incidence of avoidable adverse events, ensuring the safety of patients, and generally improving the quality and efficiency of medical treatment have been important research topics in theoretical and practical circles. OBJECTIVE: This paper examines the robustness of the decision-making reasoning process from the overall perspective of the cardiac emergency medical system. METHODS: The principle of robustness was introduced into our study on the quality and efficiency of cardiac emergency decision making. We propose the concept of robustness for complex medical decision making by targeting the problem of low reasoning efficiency and accuracy in cardiac emergency decision making. The key bottlenecks such as anti-interference capability, fault tolerance, and redundancy were studied. The rules of knowledge acquisition and transfer in the decision-making process were systematically analyzed to reveal the core role of knowledge reasoning. RESULTS: The robustness threshold method was adopted to construct the robustness criteria group of the system, and the fusion and coordination mechanism was realized through information entropy, information gain, and mutual information methods. CONCLUSIONS: A set of fusion models and robust threshold methods such as the R2CMIFS (treatment mode of fibroblastic sarcoma) model and the RTCRF (clinical trial observation mode) model were proposed. Our study enriches the theoretical research on robustness in this field.
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The record
- Venue
- JMIR Medical Informatics
- Topic
- Explainable Artificial Intelligence (XAI)
- Field
- Computer Science
- Canadian institutions
- —
- Funders
- Hebei North University
- Keywords
- Computer scienceRobustness (evolution)Artificial intelligenceMachine learningData mining
- Has abstract in OpenAlex
- yes