Abstract

With the advancement of technologies, industries tries to adopt the advantages of the technology. Customers are busy in their daily life, and the online platform is the best option for retail, whereas traditional customers still prefer to visit the retail shop. Few customers choose the product online but buy it offline or vice-versa. Owing to all those circumstances, current study focuses on an intelligent dual channel (online-to-offline) strategy in industry to arrange the optimal services for customers. The selling price of the product vary with different channel, which helps to determine the demand of product for entire supply chain. Two important factors, backorder and lead-time are examined precisely through marginal value which helps to arrange optimal service and calculate the exact profit. The profit for a centralized and decentralized case are computed for both the players. Some propositions are developed to prove the global optimality. Numerical results prove that a centralized case provides 7.77% better profit than a decentralized case due to bonding between the players.

Highlights

  • In those days, due to implementation of information technology and uses of different smart delivery policy, world was witness of huge changes in supply chain industry

  • Parameter related to online price Fixed transportation cost ($/shipment) Development cost of technology for O2O channeling ($/ unit) Price elasticity parameter for offline price Cost related to unit production of manufacturer ($/unit) Parameter related to offline sell ($/investment) Mean lead time demand Cost related to initial order ($/order) Reorder point for the retailer Fixed investment related to technology development ($/cycle) Cost for design web page for O2O installation ($/unit) Variance of the lead time Cost related to web page visualization ($/unit) Backorder cost ($/unit) Manufacturer’s fixed carbon emission cost ($/shipment) Manufacturer’s variable carbon emission cost ($/unit) Cost related to variable transportation ($/unit) Cumulative distribution function Number of quantity for expected backorder Expected on-hand inventory

  • Following hypotheses are made to construct this O2O supply chain management (SCM): (1) A savvy O2O retailing is created for a particular item, where a particular producer and individual-retailer are the players of the SC

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Summary

Introduction

Due to implementation of information technology and uses of different smart delivery policy, world was witness of huge changes in supply chain industry. Exact lead time and backorder are calculated through marginal value, which helps to obtain exact cost or profit of the system along with some continuous investments which directly reduce the ordering cost for the retailer and increase the reliability of the production process for the manufacturer under uncertain environment. This is the first try where all those research gap was full filled along with optimized system profit for the advanced dual channel system. Limitations and concluding remarks with some future extensions are described in the Conclusion Section 8

Illustration of existing research work
Dual channel supply chain management (SCM)
Selling price dependent demand
Service level
Variable lead time
Variable ordering cost
Backorder
Problem explanation
Notation
Assumptions
Mathematical model
Ordering cost with investment
Holding cost
Backorder cost
Cost related to transportation for O2O SCM
Cost for holding the product
Cost related to carbon emission for O2O SCM
Capital investment to improve the reliability of the manufacturing process
Cost related to O2O installation
Solution technique
Decentralize case
Centralized case
Optimal result for decentralize case
Result for centralize case
Discussion and comparison
Sensitivity analysis
Findings
Managerial insights
Conclusions
Full Text
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