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Product pricing, green effort decisions and coordination in a dynamic three-echelon green supply chain

  • *Corresponding author: Shijuan Wang

    *Corresponding author: Shijuan Wang 

This work is supported by the National Natural Science Foundation of China (nos. 71671079 and 71361018).

Abstract / Introduction Full Text(HTML) Figure(8) / Table(3) Related Papers Cited by
  • The paper focuses on a three-echelon supply chain consisting of a green supplier, a green manufacturer and a retailer. Considering the dynamic changes in product greenness, differential games are employed to investigate product prices, green efforts and coordination in the system. By comparing equilibrium results in various scenarios, it is found that supply chain decision-makers invest more in green efforts to maximize their profits under centralized decision, while they select pricing tools under decentralized decision. Importantly, when a local alliance composed of the supplier and manufacturer supplies products to the retailer at a flexible and dynamic wholesale price, the two-part tariff contract can fully coordinate the three-echelon green supply chain. The Rubinstein bargaining model is then used to optimize the profit allocation within the alliance. Additionally, the impact of green effort efficiency on decision-making is explored, revealing that green efforts depend on the efficiency of green efforts, while product pricing has nothing to do with the efficiency of efforts. The paper also points out that decentralization increases the probability of the supplier engaging in more green efforts than the manufacturer.

    Mathematics Subject Classification: Primary: 90B06, 91A23.

    Citation:

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  • Figure 2.  The effect of $ c $ on the optimal trajectory of product greenness

    Figure 3.  The effect of $ {e_s} $ and $ {e_m} $ on $ {p^*} $

    Figure 4.  The effect of $ {e_s} $ and $ {e_m} $ on $ g_1^* $ and $ g_2^* $

    Figure 5.  The effect of $ {e_s} $, $ {e_m} $ and $ t $ on $ {\theta ^*} $

    Figure 6.  The effect of $ {e_s} $ and $ {e_m} $ on profits

    Figure 7.  The effect of $ K $ on changes in profts

    Figure 8.  The effect of $ {e_s} $ and $ {e_m} $ on $ K $

    Figure 9.  The effect of $ c $ on $ K $

    Table 1.  A comparison among literatures

    Author SC structure Differential game Decisions Coordination contract
    Xu et al. [41] 1M1R Pricing and emission reduction Revenue-sharing contract
    Wang et al. [37] 1S1M Emission reduction Two-way coop contract
    Dong et al. [8] 1M1R Order quantity (production) and sustainability Revenue-sharing contract
    Cao et al. [6] 1S1M Pricing, green planting and green processing efforts Cost-sharing and buyback contracts
    Hong and Guo [11] 1M1R Pricing, greenness and green marketing efforts Two-part tariff contract
    Swami and Shah [32] 1M1R Pricing, manufacturer's and retailer's green efforts Two-part tariff contract
    Hosseini-Motlagh et al. [12] 1M2R Sustainability level and retailer's green efforts Compensation-based contract
    Liu et al. [22] 1S1M1R Pricing, green technology investment and green advertising investment Bilateral cost-sharing contract
    This paper 1S1M1R Pricing, supplier's and manufacturer's green efforts Two-part tariff contract
    S: supplier; M: manufacturer; R: retailer.
     | Show Table
    DownLoad: CSV

    Table 2.  Notation

    Parameters Description
    $\alpha$ Basic market demand
    $\beta$ Price sensitive coefficient
    $\lambda$ Consumers' green preference coefficient
    $c_s$ Unit production cost of green raw materials
    $c_m$ Unit production cost of the green product
    $s$ Marginal contribution of the supplier's green efforts to greenness
    $m$ Marginal contribution of the manufacturer's green efforts to greenness
    $\delta$ Decay rate of greenness
    $f$ Green effort cost coefficient of the supplier
    $h$ Green effort cost coefficient of the manufacturer
    $\theta_0$ Initial greenness
    $\rho$ Discount rate
    $D(t)$ Market demand
    State Variable
    $\theta(t)$ Green product's greenness
    Decision Variables
    $w_s(t)$ Unit wholesale price of raw materials
    $g_1(t)$ Supplier's green efforts
    $w_m(t)$ Unit wholesale price of the product
    $g_2(t)$ Manufacturer's green efforts
    $p(t)$ Unit retail price of the product
    Profits
    $J_s$ Supplier's profit
    $J_m$ Manufacturer's profit
    $J_r$ Retailer's profit
    $J_{sc}$ Total profit of the system
     | Show Table
    DownLoad: CSV

    Table 3.  Profits and coordination in the green supply chain

    $J_s^*$ $J_m^*$ $J_r^*$ $J_{sc}^{*}$
    Centralized scenario - - - 2880.00
    Decentralized scenario 315.00 157.50 90.00 562.50
    Two-part tariff contract $K$=526.50 $\phi$=0.6667 315.00 157.50 2407.50 2880.00
    $K$=603.75 $\phi$=0.7219 619.93 238.82 2021.25 2880.00
    $K$=681.00 $\phi$=0.7429 924.87 320.13 1635.00 2880.00
    $K$=758.25 $\phi$=0.7539 1229.80 401.45 1248.75 2880.00
    $K$=835.50 $\phi$=0.7607 1534.74 482.76 862.50 2880.00
    $K$=912.75 $\phi$=0.7653 1839.67 564.08 476.25 2880.00
    $K$=990.00 $\phi$=0.7687 2144.61 645.39 90.00 2880.00
     | Show Table
    DownLoad: CSV
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