Mathematical modeling of sustainable food markets balancing organic consumer preferences and profitability

The increasing global shift towards organic food consumption, driven by heightened health consciousness and environmental awareness, prese-nts significant opportunities and challenges for food markets. In regions like California's Central Valley, a prominent agricultural hub, organic food sales have surged by 35% over the last decade, fueled by consumer demand for pesticide-free and environmentally sustainable products. Conversely, emerging markets like India face affordability barriers, with organic adoption limited to a niche segment. These contrasting dynamics highlight the need for a robust framework to address inventory management complexities, fluctuating consumer behavior, and economic profitability across diverse market contexts. This study develops a mathematical model integrating consumer behavior, inventory dynamics, and profitability analysis to explore the transitions between organic, conventional, and mixed consumer segments. The model employs differential equations to quantify the impact of key factors such as health consciousness, price sensitivity, social influence, and marketing efforts. By coupling these behavioral dynamics with inventory equations, the framework optimizes stock levels to minimize waste and improve availability while accounting for perishability and holding costs. Sensitivity analysis further evaluates the robustness of the model under varying market conditions. The findings reveal that health consciousness and marketing significantly drive organic adoption, while price sensitivity remains a barrier, particularly in emerging economies. Mixed consumers introduce demand volatility, complicating inventory decisions and highlighting the need for strategic interventions. While the model offers actionable insights for optimizing profitability and consumer transitions, its limitations include the exclusion of stochastic variables, environmental factors, and multi-tiered supply chain complexities. This research provides a comprehensive framework for understanding and addressing the challenges of transitioning towards sustainable food systems. It equips policymakers, retailers, and producers with data-driven strategies to navigate the evolving landscape of organic and conventional food markets while promoting economic viability and environmental sustainability.

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Publication Details

Journal
Journal of Industrial and Management Optimization
Published
2025-01-01
DOI
https://doi.org/10.3934/jimo.2025091
Citations
4
Primary Topic
Organic Food and Agriculture
Type
article
Field-Weighted Citation Impact
7.00
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article

Mathematical modeling of sustainable food markets balancing organic consumer preferences and profitability

Uttam Kumar Khedlekar, Kajal Sharma, Lalji Kumar, S. C. Swain
4 citations
Journal of Industrial and Management Optimization
Organic Food and Agriculture
7.00
article

Mathematical modeling of sustainable food markets balancing organic consumer preferences and profitability

Uttam Kumar Khedlekar, Kajal Sharma, Lalji Kumar, S. C. Swain
article en
4 citations

Abstract

The increasing global shift towards organic food consumption, driven by heightened health consciousness and environmental awareness, prese-nts significant opportunities and challenges for food markets. In regions like California's Central Valley, a prominent agricultural hub, organic food sales have surged by 35% over the last decade, fueled by consumer demand for pesticide-free and environmentally sustainable products. Conversely, emerging markets like India face affordability barriers, with organic adoption limited to a niche segment. These contrasting dynamics highlight the need for a robust framework to address inventory management complexities, fluctuating consumer behavior, and economic profitability across diverse market contexts. This study develops a mathematical model integrating consumer behavior, inventory dynamics, and profitability analysis to explore the transitions between organic, conventional, and mixed consumer segments. The model employs differential equations to quantify the impact of key factors such as health consciousness, price sensitivity, social influence, and marketing efforts. By coupling these behavioral dynamics with inventory equations, the framework optimizes stock levels to minimize waste and improve availability while accounting for perishability and holding costs. Sensitivity analysis further evaluates the robustness of the model under varying market conditions. The findings reveal that health consciousness and marketing significantly drive organic adoption, while price sensitivity remains a barrier, particularly in emerging economies. Mixed consumers introduce demand volatility, complicating inventory decisions and highlighting the need for strategic interventions. While the model offers actionable insights for optimizing profitability and consumer transitions, its limitations include the exclusion of stochastic variables, environmental factors, and multi-tiered supply chain complexities. This research provides a comprehensive framework for understanding and addressing the challenges of transitioning towards sustainable food systems. It equips policymakers, retailers, and producers with data-driven strategies to navigate the evolving landscape of organic and conventional food markets while promoting economic viability and environmental sustainability.

Journal of Industrial and Management OptimizationVol. 21(8)
Dr. Hari Singh Gour University (IN)
Zero hunger
Openalex Percentile: Top 4%
Organic Food and Agriculture
7.00
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