Stochastic Analysis and Stability of Diabetic Population Dynamics

Modeling diabetic illness with random perturbations is the goal of this work. The proposed model consists of three classes: the pre-diabetic population, the diabetic population with complications, and the diabetic population without complications. We examined the suggested problem to determine at least one unique solution within the positive feasible region. The stationary distribution of this model was also explored, and the non-negative C2-Lyapunov function was used to create an adequate condition for the persistence of one stationary ergodic distribution. For this model, the existence and uniqueness of the solution were also established. Additionally, the stochastic non-standard finite difference (NSFD) scheme was developed for the model. The consistency and stability of the scheme were analyzed, showing that it is consistent and stable in the mean-square sense. The underlying system admits a unique endemic equilibrium point. Finally, a test problem was studied by using a numerical technique, varying the noise levels, and maintaining the same parameter values. The outcomes for each stated class were numerically simulated in order to validate our proposed approach.

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Publication Details

Journal
Mathematical and Computational Applications
Published
2026-09-22
DOI
https://doi.org/10.3390/mca31050201
Primary Topic
Mathematical and Theoretical Epidemiology and Ecology Models
Type
article
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article

Stochastic Analysis and Stability of Diabetic Population Dynamics

Nauman Ahmed, Jorge E. Macías‐Díaz, Luis E. Ayala-Hernández, Guo Min et al.
Mathematical and Computational Applications
Mathematical and Theoretical Epidemiology and Ecology Models
article

Stochastic Analysis and Stability of Diabetic Population Dynamics

Nauman Ahmed, Jorge E. Macías‐Díaz, Luis E. Ayala-Hernández, Guo Min, Muhammad Waqas Yasin, Jawaria
article en

Abstract

Modeling diabetic illness with random perturbations is the goal of this work. The proposed model consists of three classes: the pre-diabetic population, the diabetic population with complications, and the diabetic population without complications. We examined the suggested problem to determine at least one unique solution within the positive feasible region. The stationary distribution of this model was also explored, and the non-negative C2-Lyapunov function was used to create an adequate condition for the persistence of one stationary ergodic distribution. For this model, the existence and uniqueness of the solution were also established. Additionally, the stochastic non-standard finite difference (NSFD) scheme was developed for the model. The consistency and stability of the scheme were analyzed, showing that it is consistent and stable in the mean-square sense. The underlying system admits a unique endemic equilibrium point. Finally, a test problem was studied by using a numerical technique, varying the noise levels, and maintaining the same parameter values. The outcomes for each stated class were numerically simulated in order to validate our proposed approach.

Mathematical and Computational ApplicationsVol. 31(5)
Khazar University (AZ), North University of China (CN), University of Lahore (PK), Autonomous University of Aguascalientes (MX), Universidad de Guadalajara (MX), Tallinn University (EE), System Simulation (United Kingdom) (GB), University of Narowal (PK)
Good health and well-being
Openalex Percentile: Top 8%
Mathematical and Theoretical Epidemiology and Ecology Models
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Stochastic Analysis and Stability of Diabetic Population Dynamics — Nauman Ahmed, Jorge E. Macías‐Díaz, et al. · Mathematical and Computational Applications (2026) | TGRS Research Map | TGRS