Sustainable Rent-Based Closed-Loop Supply Chain for Fashion Products
Abstract
:1. Introduction
2. Related Studies
2.1. Supply Chain of Fashion Products and Its Sustainability
2.2. Rental Service
3. The Sustainable Closed-Loop Fashion Supply Chain
3.1. Sustainable Laundry
No. | Aspects | Sustainable methods and reasons | Literature |
---|---|---|---|
1 | Control | Through information technology, the conductivity with the possibility of regulating the dosage of sodium hypochlorite can be monitored, and thus, overdosing can be avoided. The damage to water can be reduced. | Fijan et al. [25] |
2 | Chemicals | The laundering procedure can be optimized by minimizing the consumption of all cleaning mixtures, thus reducing the biochemical oxygen demand (BOD5), chemical oxygen demand (COD) and suspended and sediment substances. | Järvi and Paloviita [26] |
3 | Recycling and reuse | Using water recycling and reuse devices is possible for processing batches of laundry, although this requires major investments in effluent treatment plants. | Mainali et al. [27] |
4 | Energy saving | The energy from the hot water after the main washing can be used via a heat exchanger for heating fresh rinsing water. | Fijan et al. [25] |
3.2. Green Logistics
Activity description | B/R | C? | S? | |
---|---|---|---|---|
Transport | (1) material supply | BR | Y | Y |
(2) product distribution from manufacturer to retailer | B | Y | Y | |
(3) customers travel to retailers | B | N | N | |
(4) laundry and repair (buy) | B | N | N | |
(5) products disposal | B | N | N | |
(6) collection of discards | B | N | Y | |
(7) distribution from manufacturer to rental service providers | R | Y | Y | |
(8) distribution from rental service providers to customers (by 3PL) | R | Y | Y | |
(9) collection from customers to rental service providers (by 3PL) | R | Y | Y | |
(10) laundry and repair (rent) | R | Y | Y | |
(11) final recycling | R | Y | Y | |
(12) final disposal | BR | Y | Y | |
Inventory | material supplier | BR | Y | Y |
manufacturer | BR | Y | Y | |
retailer | B | Y | Y | |
rental service provider | R | Y | Y | |
customer (buy) | B | N | N | |
customer (rent) | R | - | - |
3.3. Green Disposal
3.4. Sustainable Design
- (1)
- Long lifetime guarantee and product satisfaction: Mont [39] asserted that manufacturers could hold new opportunities to increase the intrinsic product quality and durability. However, the life span of the product, as well as the quality of textiles and garments are difficult to evaluate at the point of purchasing. Therefore, maintenance quality is critical. At this point, rental service is a better choice.
- (2)
- Product attachment and emotionally satisfying design: The products are meaningful to the user over a long period of time, and thus, they are not easily disposable. This often means a unique design process or co-creation with the user. By rental services, preference and emotion can feedback efficiently. Two typical processes are involved: customization, semi-finished products and modular structures; co-creation and open source design.
- (3)
- Services: Product-service systems emphasize systems thinking and drive companies to focus on consumer needs. A “zero emission society” consumer should invest in services and purchase functions instead of products. In this type of society, all materials should be automatically returned to the producer after the use phase, and this creates environmental value for the whole system. Consumer satisfaction is at the center of attention in a service economy, and it can be implemented by offering good product performance through services that do not increase waste streams. Today, designers are able to create individual and unique looks by using digital technologies that enable placing the consumer’s attachments, emotions and wishes at the center of the design process, securing a deep product relationship with consumers and increasing the likelihood of a long life span of the product. Products aimed for long-term use have to be made with high quality. The quality of products is directly linked with their durability. Longer product life spans can also be achieved through services, such as upgrading or updating, repairing or product modification systems or services. These services extend the enjoyable use time of the product, as well as postpone the psychological obsolescence that consumers themselves feel about the product.
Aspect | Sustainable design strategy | Role of rental service |
---|---|---|
Material choice | Choose sustainable materials | Cater to specific consumers with sustainable purposes |
Design art and special types of fashion products with reusable non-fabric material | Customization for special purposes | |
Attach the carbon footprint information and guide the consumer’s sustainable preference | The information can be updated by the rental service | |
Pattern design | Reusable design by using parts | The fashionable parts can be easily found by the rental service |
Easy dissembling design for reuse and recycling | Short-term rental decreases the demand for a firm pattern structure | |
Express the environmental and sustainable themes | The consumer’s preferences can be affected by services | |
Advertising | Positive figures of sustainability can be used | Rental service itself indicates a sustainable consumption behavior |
Service | The sustainable design can be extended by services such that the consumer can experience the sustainable products directly under instructions; new emotional value and environmental value can be created | The rental service with sales and logistics helps to introduce the sustainable designs to consumers |
3.5. Sustainable Manufacture
4. Operations Management Issues
Energy factor | Stages of fashion product lifecycle | ||
---|---|---|---|
Manufacturing stage | Utilization stage | Disposal stage | |
Use of materials |
|
|
|
Style design of the products |
|
|
|
Control of operational activities |
|
|
|
4.1. Centralize vs. Distributed Inventory Management
4.2. Closed-Loop Logistics Services
4.3. Human-Clothing Matching Method
Literature | Method | Inspirations |
---|---|---|
Cho et al. [51] | Cho et al. [51] proposed a cross-sectional line model at regular intervals. This model is easy for controlling body shape and also for calculating length and perimeters. The consumers can modify the body model to match their own body shape during Internet or catalogue shopping; it can also enable apparel manufacturers to communicate with their consumers by describing the body model to fit on the screen while in the ordering process. |
|
Hu et al. [52] | Hu et al. [52] studied the problem of clothing uniform assignment (CUA) with garment size fitting constraints and propose an immune co-evolutionary algorithm to search optimal assignments of uniform garments to employees. Multi-size fitting measures are proposed based on multi-attribute decision making. |
|
Ding et al. [53] | Ding et al. [53] used the multi-criteria decision making (MCDM) model to solve the large-scale fit garment matching problem with the constraints of size satisfaction. The concepts, including “ideal garment” and “loose garment”, are used to model the consumer request. Two affinity measures (dominance and distance affinities) represent the similarity of antibody to antibody and that of antibody to antigen. The proposed method provides a key tool for a garment store sale system or online garment order system to support accurate garment size matching. |
|
4.4. Booking System under Uncertainty
4.5. Competitive Rental Pricing Problem
5. Discussions
5.1. Fast fashion Customization and Design
- (1)
- Interactive co-design with consumers: Watcharapanyawong et al. [60] presented a framework, aiming to develop mass customization for the textile and apparel industries. The developed model considers consumers’ needs at industrial levels. Hu et al. [61] developed interactive co-design models and algorithms for garment pattern design. By the similar methods above, consumers can anticipate the creation process of sustainable fashion products.
- (2)
- Mass customization by new technologies and optimization methods: In mass customization, the parts are produced in advance, and the assembling processes are started after the consumers post her or his orders. In the fast fashion industry, the difficulty of such a customization method is increased by the nature of flexible fashion designs. New sewing and optimization techniques can be applied [62].
- (3)
- Fast redistribution among regions: This involves the observation of Chinese cities that can be classified into about four levels of awareness of fashion trends. The fashion products will prevail from the first-level cities (e.g., Shanghai) to the second-level cities (e.g., Qingdao), then to the third-level cities (e.g., Jiaozhou) and, finally, to the country towns. Therefore, the fashion products can be redistributed to the lower level cities following this route.
5.2. Responsive System for Fashionable Products
- (1)
- Information system integrating various stakeholders: Ngai et al. [64] provided a comprehensive review of research articles related to the application of decision support and intelligent systems in the textile and apparel supply chains. The information system has the following functions contributing to a fast response. The booking orders, consumer preferences, market status and fast fashion trends can be spread through information flows fast. The system management universal data can be used as a data source for mining fashion trends and consumer behaviors. These results contribute to the design of fashionable products and adjust sales promotion strategies.
- (2)
- Booking requirement management: As studied above, booking can reduce the demand uncertainty and product costs. It also contributes to efficient scheduling of products and other resources (e.g., logistics capability). The uncertainty management and optimization modules play important roles in the responsive system.
- (3)
- Consumer management: Body measurement and invalid try-ons may reduce the value experience of rental products. Efficient measurement and the later memory mechanisms (that recorded the measurement results as historical data) help to reduce the measurement difficulty. Therefore, a size database should be built and shared among all rental service providers. According to the consumers’ sizes, concise and accurate human-clothing matching can filter the candidate fashion products for recommendation.
- (4)
- Fast logistics server for shortening the waiting time: Through logistics services, the fashion products are sent to and collected from the consumers. Moreover, this is also a way to serve the consumers face to face, which can increase the value experience.
5.3. Sustainable Disposition for Fashionable Products
- (1)
- Tracking the carbon footprint for activating social responsibility: Tracking the carbon footprint may be a way for assessing each fashion product by information technologies and systems. Although a lower carbon footprint [10] is advocated for the industry, the fashion products labeled with carbon footprint values are not prevailing in the market.
- (2)
- Pricing strategies and political guidelines. As analyzed in Section 3 and Section 4, rental fashion products contribute to sustainability, while changing consumption behaviors. Although the pricing option can be used to expand the market by decreasing profits, political guidelines considering the environment and social values should be carried out to support the development of financial and political support.
6. Conclusions
Acknowledgments
Author Contributions
Conflicts of Interest
References
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Hu, Z.-H.; Li, Q.; Chen, X.-J.; Wang, Y.-F. Sustainable Rent-Based Closed-Loop Supply Chain for Fashion Products. Sustainability 2014, 6, 7063-7088. https://doi.org/10.3390/su6107063
Hu Z-H, Li Q, Chen X-J, Wang Y-F. Sustainable Rent-Based Closed-Loop Supply Chain for Fashion Products. Sustainability. 2014; 6(10):7063-7088. https://doi.org/10.3390/su6107063
Chicago/Turabian StyleHu, Zhi-Hua, Qing Li, Xian-Juan Chen, and Yan-Feng Wang. 2014. "Sustainable Rent-Based Closed-Loop Supply Chain for Fashion Products" Sustainability 6, no. 10: 7063-7088. https://doi.org/10.3390/su6107063
APA StyleHu, Z. -H., Li, Q., Chen, X. -J., & Wang, Y. -F. (2014). Sustainable Rent-Based Closed-Loop Supply Chain for Fashion Products. Sustainability, 6(10), 7063-7088. https://doi.org/10.3390/su6107063