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An optimization model for green supply chain by regarding emission tax rate in incongruous vehicles

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Abstract

This article presents an integrated inventory transportation programming model under a two-echelon, multi-product, and multi-period regarding carbon emission. In this problem, retailers' demand is deterministic and dynamic; based on the vendor management inventory policy, the supplier should abide by its delivery time and the amount of delivered product. The main contribution of this paper is the consideration of multi-product by regarding incongruous vehicles for transportation, dynamic carbon emission factor, and adding volume and weight of products to the model. Hence, a mixed-integer non-linear model is developed and linearized to be solved. This aims to determine an exact result for low and average scale problems to show the practicality of the model in real-world case studies. The results imply that with the increase in the number of periods, total costs and transportation costs will be strictly increased; and the tendency toward using different vehicles with high capacity will be increased. Moreover, the carbon emission cost is 10% lower in this scenario. The change of weight and volume of goods in the model affects supply chain costs; while the total weight of the load is constant, the carbon emission cost will be changed to the total cost. By increasing the weight and volume of products, total costs will consequently increase. However, this may not be correct about the carbon emission cost; only the weight and type of vehicle impact it. By increasing the tax rate, total cost and carbon emission cost get increased; and the amount of carbon emission gets reduced. Over time, by increasing the tax rate, the tendency toward high standard vehicles will also increase.

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Correspondence to Reza Eslamipoor.

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Eslamipoor, R. An optimization model for green supply chain by regarding emission tax rate in incongruous vehicles. Model. Earth Syst. Environ. 9, 227–238 (2023). https://doi.org/10.1007/s40808-022-01470-y

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