Mathematical Modeling Analysis and Optimization of Fungal Diversity Growth
Tongyue Shi, Haining Wang

TL;DR
This study develops mathematical models to analyze fungal growth and decomposition rates influenced by environmental factors, revealing interactions among multiple fungi species and their effects on decomposition efficiency.
Contribution
The paper introduces a combined modeling approach using Logistic and Lotka-Volterra models to analyze fungal community dynamics and decomposition rates under various environmental conditions.
Findings
Fungal communities with multiple species have lower decomposition rates than single-species communities.
Warm and humid environments maximize fungal decomposition rates.
Environmental changes can either inhibit or promote fungal growth depending on species characteristics.
Abstract
This paper studied the relationship between the decomposition rate of fungi and temperature, humidity, fungus elongation, moisture tolerance and fungus density in a given volume in the presence of a variety of fungi, and established a series of models to describe the decomposition of fungi in different states. Since the volume of soil was given in this case, the latter two characteristics could be attributed to the influence of the number of fungal population on the decomposition rate. Based on the Logistic model, the relationship between the number of population and time was established, and finally the number of fungi in the steady state was obtained The interaction between different species of fungi was analyzed by Lotka-Volterra model, and the decomposition rate of various fungal combinations in different environments was obtained. After studying the one and two cases, we can…
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Taxonomy
TopicsIndoor Air Quality and Microbial Exposure
