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THR-DMPOM model for reliable high-precision evaluation to enhance real-time performance management and optimize
1School of Tourism and Culture, The Tourism College of Changchun University, Changchun, 130607, China.
Scientific Reports
|June 13, 2026
Summary
This study introduces a Tourism Human Resource-Deep Momentum Performance Optimization Model (THR-DMPOM) to improve dynamic performance evaluations in the tourism industry. The THR-DMPOM model offers enhanced stability and accuracy for human resource performance evaluation.
Area of Science:
- * Management Science
- * Artificial Intelligence
- * Tourism Management
Background:
- * Human Resource Performance Evaluation (HRPE) in tourism faces challenges with data volatility and local optimality.
- * Existing methods struggle with dynamic, multidimensional performance data and nonlinear interdependencies.
- * Need for a robust model to handle real-time performance fluctuations and optimize resource allocation.
Purpose of the Study:
- * To propose the Tourism Human Resource-Deep Momentum Performance Optimization Model (THR-DMPOM) for HRPE in the tourism sector.
- * To address limitations of existing models in dynamic and complex evaluation environments.
- * To enhance the stability, accuracy, and adaptability of performance evaluation systems.
Main Methods:
- * Development of a 24-item evaluation index system based on literature review and industry expert interviews.
- * Implementation of recursive momentum accumulation, cross-layer weight smoothing, and adaptive gradient correction mechanisms.
- * Utilizing multilayer networks for continuous dynamic weight updating and historical gradient propagation.
Main Results:
- * THR-DMPOM demonstrated high stability and accuracy in experiments with tourism enterprise datasets, with systemic deviation within ±1.0.
- * Distribution consistency validation showed strong agreement between model scores and historical records (D-values near 1, p-values > 0.7).
- * Outperformed FAHP, F-TOPSIS, traditional AHP, TOPSIS, and static machine learning methods in accuracy, efficiency, and adaptive weight learning.
Conclusions:
- * THR-DMPOM provides a robust and high-precision framework for real-time performance management in dynamic tourism environments.
- * The model effectively mitigates local optima and weight oscillation issues through adaptive weight learning and historical information sharing.
- * Significant improvements in handling complex, dynamic performance data and optimizing resource allocation within tourism enterprises.
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