A Biomathematical Modeling Approach to Investigate the Effects of Breakfast Patterns on Gut Microbiota and Digestive Health
DOI:
https://doi.org/10.30707/Keywords:
Biomathematical Modeling (BMM), Breakfast Patterns (BP), Gut Microbiota (GM), Digestive Health (DH), Smart PLS SoftwareAbstract
The growing recognition of gut microbiota as a major controller of human health has spurred research into dietary habits that affect microbial digestion. The present research paper uses a biomathematical model to analyze how the dynamics of the gut microbiota and the general health of the digestive system depend on the patterns of breakfast consumption. The experiment uses systems biology, nutrition science, and mathematical modelling to recreate the effects of alterations in breakfast timing, composition, and frequency on microbial diversity, metabolic activity, and gastrointestinal activity. A nonlinear system of differential equations is generated to simulate interactions among large groups of microbes, nutritional supply, and host digestive responses. Some of the variables the model considers include macronutrient intake, fibre intake, circadian eating patterns, and gastric transit time. Regular balanced meals, a high-sugar breakfast, intermittent fasting, and breakfast-skipping scenarios are explored to assess their effects on the microbial balance and short-chain fatty acid synthesis, both of which are required for gut health. The results of the simulations indicate that regular consumption of a nutrient-dense breakfast can enhance microbiota diversity and stability and increase the presence of beneficial bacteria associated with improved digestion and reduced inflammation. Conversely, breakfast disorder (dysbiosis), reduced metabolism (efficiency), and vulnerability to gastrointestinal issues are effects associated with irregular or high-sugar breakfast. Breakfast avoidance has been shown to disrupt the circadian timing of intestinal microorganisms, thus impairing gastrointestinal functions and nutrient uptake. The results indicate that biomathematical models can potentially predict complex diet-microbiota interactions and provide a quantitative basis for comprehending the impact of breakfast habits on digestive health. The method gives practical data on customized nutrition and preventive medical care. Future studies can integrate clinical data and machine learning to enhance the accuracy and applicability of models for real-world food planning.