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Sustainable inventory policy for an imperfect production system with energy usage and volume agility

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Abstract

A sustainable production inventory model that addresses some of the pragmatic scenarios of the production process is developed. The production process is considered imperfect which results in the production of some imperfect quality items with known distribution. The imperfect products are managed through an efficient rework process that makes the items suitable to be vended at their original markup price only. The agile nature of the manufacturing process is considered. And, the energy usage and carbon emission in the production process is also considered. Undoubtedly, the fundamental nature of demand is sensitive to price. Thus, the model incorporates the demand to be price-contingent. The objective is to maximize the overall inventory turnover by conjointly optimizing the selling price, production rate, and production time. A numerical example is included to validate the model. Further, the sensitivity analysis unfolds valuable managerial insights for decision-makers. Findings suggest that the model with the insertion of volume agility effect performs better when compared with the one without the volume agility.

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Correspondence to Chandra K. Jaggi.

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Kamna, K.M., Gautam, P. & Jaggi, C.K. Sustainable inventory policy for an imperfect production system with energy usage and volume agility. Int J Syst Assur Eng Manag 12, 44–52 (2021). https://doi.org/10.1007/s13198-020-01006-6

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  • DOI: https://doi.org/10.1007/s13198-020-01006-6

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