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      KCI등재

      한국 중장년 여성에 대한 기계학습 기반 비침습적 요인들을 이용한 당뇨 및 공복혈당 장애 분류 = Classification of Diabetes and Impaired Fasting Glucose using Noninvasive Factors based on Machine Learning Approaches in Korean Middle Aged Women

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      https://www.riss.kr/link?id=A108729328

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      다국어 초록 (Multilingual Abstract) kakao i 다국어 번역

      This study aimed to build models to classify diabetes and impaired fasting glucose requiring active management of blood sugar based on machine learning approaches using noninvasive variables, and to evaluate the performance of each model. The classification models of diabetes and impaired fasting glucose in a total of 215 women aged 40 to 69 were built through six machine learning approaches. The performance of each model was evaluated using nested cross-validation. The model using elastic net logistic regression reported slightly higher performance. The area of diastolic period and standard deviation of pulse rate were founded to be relatively important variables in diabetes and impaired fasting glucose. These results showed the potential of noninvasive variables for the classification of diabetes and impaired fasting glucose. Also, classification based on machine learning approaches can help clinicians make clinical decisions and provide healthcare services.
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      This study aimed to build models to classify diabetes and impaired fasting glucose requiring active management of blood sugar based on machine learning approaches using noninvasive variables, and to evaluate the performance of each model. The classifi...

      This study aimed to build models to classify diabetes and impaired fasting glucose requiring active management of blood sugar based on machine learning approaches using noninvasive variables, and to evaluate the performance of each model. The classification models of diabetes and impaired fasting glucose in a total of 215 women aged 40 to 69 were built through six machine learning approaches. The performance of each model was evaluated using nested cross-validation. The model using elastic net logistic regression reported slightly higher performance. The area of diastolic period and standard deviation of pulse rate were founded to be relatively important variables in diabetes and impaired fasting glucose. These results showed the potential of noninvasive variables for the classification of diabetes and impaired fasting glucose. Also, classification based on machine learning approaches can help clinicians make clinical decisions and provide healthcare services.

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      참고문헌 (Reference)

      1 B. Farran, "Use of Non-invasive Parameters and Machine-Learning Algorithms for Predicting Future Risk of Type 2 Diabetes : A Retrospective Cohort Study of Health Data From Kuwait" 10 : 624-, 2019

      2 J. A. Hanley, "The meaning and use of the area under a receiver operating characteristic(ROC)curve" 143 (143): 29-36, 1982

      3 A. L. Samuel, "Some Studies in Machine Learning Using the Game of Checkers" 3 (3): 210-229, 1959

      4 M. M. Engelgau, "Screening for type 2 diabetes" 23 (23): 1563-1580, 2000

      5 J. H. Chi, "Risk factors for hypertension and diabetes comorbidity in a Korean population : A cross-sectional study" 17 (17): e0262757-, 2022

      6 H. Yokoyama, "Pulse Wave Velocity in Lower-Limb Arteries Among Diabetic Patients with Peripheral Arterial Disease" 10 (10): 253-258, 2003

      7 A. McWilliams, "Probability of Cancer in Pulmonary Nodules Detected on First Screening CT" 369 (369): 910-919, 2013

      8 C. M. Lynch, "Prediction of lung cancer patient survival via supervised machine learning classification techniques" 108 : 1-8, 2017

      9 S. Devi, "Prediction and Detection of Cervical Malignancy Using Machine Learning Models" 24 (24): 1419-1433, 2023

      10 S. Ding, "Predicting heart cell types by using transcriptome profiles and a machine learning method" 12 (12): 228-, 2022

      1 B. Farran, "Use of Non-invasive Parameters and Machine-Learning Algorithms for Predicting Future Risk of Type 2 Diabetes : A Retrospective Cohort Study of Health Data From Kuwait" 10 : 624-, 2019

      2 J. A. Hanley, "The meaning and use of the area under a receiver operating characteristic(ROC)curve" 143 (143): 29-36, 1982

      3 A. L. Samuel, "Some Studies in Machine Learning Using the Game of Checkers" 3 (3): 210-229, 1959

      4 M. M. Engelgau, "Screening for type 2 diabetes" 23 (23): 1563-1580, 2000

      5 J. H. Chi, "Risk factors for hypertension and diabetes comorbidity in a Korean population : A cross-sectional study" 17 (17): e0262757-, 2022

      6 H. Yokoyama, "Pulse Wave Velocity in Lower-Limb Arteries Among Diabetic Patients with Peripheral Arterial Disease" 10 (10): 253-258, 2003

      7 A. McWilliams, "Probability of Cancer in Pulmonary Nodules Detected on First Screening CT" 369 (369): 910-919, 2013

      8 C. M. Lynch, "Prediction of lung cancer patient survival via supervised machine learning classification techniques" 108 : 1-8, 2017

      9 S. Devi, "Prediction and Detection of Cervical Malignancy Using Machine Learning Models" 24 (24): 1419-1433, 2023

      10 S. Ding, "Predicting heart cell types by using transcriptome profiles and a machine learning method" 12 (12): 228-, 2022

      11 Q. Zou, "Predicting Diabetes Mellitus With Machine Learning Techniques" 9 : 515-, 2018

      12 A. K. Dwivedi, "Performance evaluation of different machine learning techniques for prediction of heart disease" 29 : 685-693, 2016

      13 박철수 ; Clive Cheong Took ; 성준경, "Machine learning in biomedical engineering" 대한의용생체공학회 8 (8): 1-3, 2018

      14 I. Kavakiotis, "Machine Learning and Data Mining Methods in Diabetes Research" 15 : 104-116, 2017

      15 A. Dagliati, "Machine Learning Methods to Predict Diabetes Complications" 12 (12): 295-302, 2018

      16 B. Mahesh, "Machine Learning Algorithms-A Review" 9 (9): 381-386, 2020

      17 C. Küpper, "Identifying predictive features of autism spectrum disorders in a clinical sample of adolescents and adults using machine learning" 10 (10): 4805-, 2020

      18 B. J. Lee, "Identification of Type 2 Diabetes Risk Factors Using Phenotypes Consisting of Anthropometry and Triglycerides based on Machine Learning" 20 (20): 39-46, 2016

      19 J. P. Li, "Heart Disease Identification Method using Machine Learning Classification in E-Healthcare" 8 : 107562-107582, 2020

      20 R. Kohavi, "Glossary of Terms" 30 : 271-274, 1998

      21 World Health Organization, "Definition, diagnosis and classification of diabetes mellitus and its complications. Part 1: Diagnosis and Classification of Diabetes Mellitus" 1-66, 1999

      22 S. Bates, "Cross-validation : what does it estimate and how well does it do it?" 1-12, 2023

      23 World Health Organization, "Classification of diabetes mellitus"

      24 G. -H. Yun, "Characteristics of Diabetes Mellitus among Korean Population" 60-63, 2005

      25 R. Pal, "Application of machine learning algorithms on diabetic retinopathy" 2017

      26 K. Rajesh, "Application of Data Mining Methods and Techniques for Diabetes Diagnosis" 2 (2): 224-229, 2012

      27 A. Rahim, "An Integrated Machine Learning Framework for Effective Prediction of Cardiovascular Diseases" 9 : 106575-106588, 2021

      28 N. Sambyal, "A review of statistical and machine learning techniques for microvascular complications in type 2 diabetes" 17 (17): 143-155, 2021

      29 J. A. Hanley, "A method of comparing the areas under receiver operating characteristic curves derived from the same cases" 148 (148): 839-843, 1983

      30 A. Dinh, "A data-driven approach to predicting diabetes and cardiovascular disease with machine learning" 19 (19): 1-15, 2019

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