Abstract
As medical technology has been developing, patients’ information (medical information, disease information, etc.) has been diversely used in medical services so that patients’ biometric information can be used for remote diagnosis and examinations. However, since the complexity and uncertainty of patient treatment have been increasing, doctors’ burden due to hospital work has been also increasing. In the present paper, an analytic hierarchy process based patient information management scheme is proposed that can synchronize diverse medical devices used for patient treatment to hierarchically manage patients’ disease information. The purpose of the proposed scheme is to analyze the correlations of medical devices used in medical treatment of patients to induce hierarchical management of patients’ disease information through triangle fuzzy of pairwise comparison scales for medical treatment and efficiently perform not only hospital administrative work but also patients’ disease analysis and treatment. In addition, using the patients’ disease information collected through diverse medical devices, the proposed scheme improves the efficiency of patient treatment methods so that hospitals can calculate the importance of treatment standards in order to hierarchically identify treatment standards. Furthermore, since the proposed scheme enables efficiently selecting treatment methods for patients’ diseases, it has a characteristic of being capable of efficiently improve the ambiguousness and inaccuracy of treatment judgments and treatment compared to existing disease treatment methods. According to the results of performance evaluation, the proposed scheme improved work efficiency by 11.9% over existing techniques and reduced medical device administration costs by 10.9%. Furthermore, the proposed scheme improved patients’ satisfaction with treatment by 23.6%.
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This Research was supported by the Tongmyong University Research Grants 2016.
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Jeong, YS., Bae, WS. & Shin, SS. Hierarchical Management Scheme of Biometric Information Through the Synchronization of Heterogeneous Devices. Wireless Pers Commun 98, 3071–3085 (2018). https://doi.org/10.1007/s11277-017-4049-y
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DOI: https://doi.org/10.1007/s11277-017-4049-y