Application research and effectiveness evaluation mechanism of hybrid intelligent algorithm integrating cognitive computing and deep learning for dynamically adjusting employee performance evaluation in multi-scale organizational networks

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Bibliographic Details
Title: Application research and effectiveness evaluation mechanism of hybrid intelligent algorithm integrating cognitive computing and deep learning for dynamically adjusting employee performance evaluation in multi-scale organizational networks
Authors: Zhenlin Luo, Kebin Lu
Source: Discover Artificial Intelligence, Vol 5, Iss 1, Pp 1-29 (2025)
Publisher Information: Springer, 2025.
Publication Year: 2025
Collection: LCC:Computational linguistics. Natural language processing
LCC:Electronic computers. Computer science
Subject Terms: Hybrid intelligent algorithms, Employee performance evaluation, Deep learning, KPI methods, Fairness analysis, Computational linguistics. Natural language processing, P98-98.5, Electronic computers. Computer science, QA75.5-76.95
Description: Abstract This study investigates the impact of a hybrid intelligent algorithm, integrating cognitive computing and deep learning, on the dynamic adjustment of employee performance evaluation in multi-scale organizational networks, through simulation experiments. Additionally, it proposes a performance evaluation mechanism based on algorithm optimization. The experiment initially compared the hybrid intelligent algorithm with the traditional KPI method. The results revealed that the mean square error (MSE) of the hybrid algorithm was significantly lower than that of the KPI (Key Performance Indicators) method across all datasets, with a 43.5% improvement in accuracy. It demonstrated superior accuracy in processing multi-dimensional employee data. Additional experiments involving noise interference indicate that the hybrid algorithm exhibits strong adaptability across varying data volumes. As the data size increases, the performance of the hybrid algorithm remains stable and continues to improve, outperforming traditional KPI and classical algorithms. Simultaneously, hybrid intelligent algorithms outperform support vector machines (SVM) in terms of response speed, with a 61.9% reduction in response time compared to SVM, highlighting their advantages in processing large-scale datasets. In terms of fairness, the hybrid intelligent algorithm outperforms the random forest algorithm (Gini coefficient of 0.22), with a lower Gini coefficient of 0.18, effectively reducing assessment bias and ensuring a fairer performance evaluation. Additionally, hybrid intelligent algorithms exhibit outstanding performance in improving employee satisfaction, with an 18.4% increase compared to traditional decision tree algorithms, suggesting that they provide more personalized feedback and enhance employees' identification with the performance appraisal system.
Document Type: article
File Description: electronic resource
Language: English
ISSN: 2731-0809
Relation: https://doaj.org/toc/2731-0809
DOI: 10.1007/s44163-025-00285-x
Access URL: https://doaj.org/article/0db0918b57f4473987b7c763c5066adc
Accession Number: edsdoj.0db0918b57f4473987b7c763c5066adc
Database: Directory of Open Access Journals
Description
Abstract:Abstract This study investigates the impact of a hybrid intelligent algorithm, integrating cognitive computing and deep learning, on the dynamic adjustment of employee performance evaluation in multi-scale organizational networks, through simulation experiments. Additionally, it proposes a performance evaluation mechanism based on algorithm optimization. The experiment initially compared the hybrid intelligent algorithm with the traditional KPI method. The results revealed that the mean square error (MSE) of the hybrid algorithm was significantly lower than that of the KPI (Key Performance Indicators) method across all datasets, with a 43.5% improvement in accuracy. It demonstrated superior accuracy in processing multi-dimensional employee data. Additional experiments involving noise interference indicate that the hybrid algorithm exhibits strong adaptability across varying data volumes. As the data size increases, the performance of the hybrid algorithm remains stable and continues to improve, outperforming traditional KPI and classical algorithms. Simultaneously, hybrid intelligent algorithms outperform support vector machines (SVM) in terms of response speed, with a 61.9% reduction in response time compared to SVM, highlighting their advantages in processing large-scale datasets. In terms of fairness, the hybrid intelligent algorithm outperforms the random forest algorithm (Gini coefficient of 0.22), with a lower Gini coefficient of 0.18, effectively reducing assessment bias and ensuring a fairer performance evaluation. Additionally, hybrid intelligent algorithms exhibit outstanding performance in improving employee satisfaction, with an 18.4% increase compared to traditional decision tree algorithms, suggesting that they provide more personalized feedback and enhance employees' identification with the performance appraisal system.
ISSN:27310809
DOI:10.1007/s44163-025-00285-x