Can clustering improve glucose forecasting with genetic programming models?

This study investigates how to improve the predictions of glucose values obtained with genetic programming models. A set of statistical techniques are used to discover glucose profiles that identify similar situations in patients with type 1 diabetes mellitus, and incorporate this knowledge to the models. Glucose time series are divided into 4-hour non-overlapping slots and clustered using the technique based on decision trees called chi-square automatic interaction detection, to classify glucose profiles into groups using two decision variables: day of the week and time slot of the day. The objective is to customize models for different glucose profiles that appear in the patient's day-to-day. Genetic programming models created with glucose values from the original data-set are compared to those of models created with classified glucose values. Significant differences (p-value < 0.05) and associations are observed between the glucose profiles. In general, using classified glucose values in models created with genetic programming, the accuracy of the predictions improves in comparison with those of models created with the original data-set. We concluded that the classification process can be useful to correct and improve habits or clinical therapies in patients, and obtain more accurate models through automatic learning techniques and artificial intelligence.

[1]  L. Magni,et al.  Multinational Study of Subcutaneous Model-Predictive Closed-Loop Control in Type 1 Diabetes Mellitus: Summary of the Results , 2010, Journal of diabetes science and technology.

[2]  G. V. Kass An Exploratory Technique for Investigating Large Quantities of Categorical Data , 1980 .

[3]  Janet M. Allen,et al.  Manual closed-loop insulin delivery in children and adolescents with type 1 diabetes: a phase 2 randomised crossover trial , 2010, The Lancet.

[4]  Clifford M. Hurvich,et al.  Regression and time series model selection in small samples , 1989 .

[5]  D. Cox,et al.  Evaluating Clinical Accuracy of Systems for Self-Monitoring of Blood Glucose , 1987, Diabetes Care.

[6]  J. Lachin,et al.  Intensive Diabetes Treatment and Cardiovascular Outcomes in Type 1 Diabetes: The DCCT/EDIC Study 30-Year Follow-up , 2016, Diabetes Care.

[7]  George Papadakis,et al.  Comparative analysis of a-priori and a-posteriori dietary patterns using state-of-the-art classification algorithms: A case/case-control study , 2013, Artif. Intell. Medicine.

[8]  John R. Koza,et al.  Genetic programming - on the programming of computers by means of natural selection , 1993, Complex adaptive systems.

[9]  Ivanoe De Falco,et al.  Genetic Programming-based induction of a glucose-dynamics model for telemedicine , 2018, J. Netw. Comput. Appl..

[10]  José Ignacio Hidalgo,et al.  glUCModel: A monitoring and modeling system for chronic diseases applied to diabetes , 2014, J. Biomed. Informatics.

[11]  Giuseppe De Nicolao,et al.  Model individualization for artificial pancreas , 2016, Comput. Methods Programs Biomed..

[12]  B H Ginsberg,et al.  A new consensus error grid to evaluate the clinical significance of inaccuracies in the measurement of blood glucose. , 2000, Diabetes care.

[13]  José Ignacio Hidalgo,et al.  A genetic algorithm approach to customizing a glucose model based on usual therapeutic parameters , 2017, Progress in Artificial Intelligence.

[14]  Sean Luke,et al.  Two fast tree-creation algorithms for genetic programming , 2000, IEEE Trans. Evol. Comput..

[15]  Michael Affenzeller,et al.  HeuristicLab: A Generic and Extensible Optimization Environment , 2005 .

[16]  Maarten Keijzer,et al.  Improving Symbolic Regression with Interval Arithmetic and Linear Scaling , 2003, EuroGP.

[17]  F. Hariri,et al.  Interstitial fluid glucose dynamics during insulin-induced hypoglycaemia , 2005, Diabetologia.

[18]  Marco Forgione,et al.  Run-to-Run Tuning of Model Predictive Control for Type 1 Diabetes Subjects: In Silico Trial , 2009, Journal of diabetes science and technology.

[19]  Lucy Mays,et al.  Diabetes Mellitus Standards of Care. , 2015, The Nursing clinics of North America.

[20]  David C Klonoff,et al.  Technical Aspects of the Parkes Error Grid , 2013, Journal of diabetes science and technology.

[21]  Ya-Xiong Tao,et al.  Glucose homeostatis and the pathogenesis of diabetes mellitus , 2014 .

[22]  J. Salonen,et al.  Perceived health status and morbidity and mortality: evidence from the Kuopio ischaemic heart disease risk factor study. , 1996, International journal of epidemiology.

[23]  H. Akaike,et al.  Information Theory and an Extension of the Maximum Likelihood Principle , 1973 .

[24]  Robert G. Sutherlin,et al.  A Bihormonal Closed-Loop Artificial Pancreas for Type 1 Diabetes , 2010, Science Translational Medicine.

[25]  José Ignacio Hidalgo,et al.  Combining data augmentation, EDAs and grammatical evolution for blood glucose forecasting , 2018, Memetic Comput..

[26]  Denis Gillet,et al.  Preclinically assessed optimal control of postprandial glucose excursions for type 1 patients with diabetes , 2011, 2011 IEEE International Conference on Automation Science and Engineering.