{"title":"Drivers and barriers for industrial symbiosis: the case of Mo Industrial Park","authors":"Siri Jakobsen","doi":"10.4337/9781800373099.00021","DOIUrl":null,"url":null,"abstract":"The circular economy (CE) – the concept of closing material and energy loops to extract their utilization – has started gaining momentum as a solution to address sustainable development. Replacing a linear model of production, where goods are manufactured from raw materials, used and disposed of (Saavedra et al. 2018), a circular system maintains the value of resources, products and materials in the economy as long as possible (Merli et al. 2018). CE can be defined as “an economy constructed from societal production-consumption systems that maximize the service produced from the linear nature-society-nature material and energy throughput flow” (Korhonen et al. 2018, p. 39). Several authors argue that the CE transition needs to be interpreted at three levels (e.g. Fang et al. 2007; Jackson et al. 2014; Sakr et al. 2011): changes in social and economic dynamics at a macro level; implementation of circular processes such as product design and consumption at the micro level; and industrial symbiosis between firms at a meso level (Merli et al. 2018). Adapting the meso level, this chapter explores a key strategy for CE, namely, the industrial symbiosis between actors in an industrial park, where the aim is to create physical links between actors through the exchange of energy, materials, water and by-products (Hardy and Graedel 2002; Prosman et al. 2017). Industrial symbiosis is found to be more sustainable than most other manufacturing concepts because it comprises more innovation targets and mechanisms (Geissdoerfer et al. 2017; OECD 2009). This chapter joins this debate of change (Damanpour 1991) as an important attribute of innovation for industrial symbiosis. The change towards industrial symbiosis (IS) is connected to a set of barriers and drivers, as these factors require cooperation between actors, capital and intellectual input. Numerous drivers and barriers of IS are recognized in the literature and mainly capture technical aspects, such as water treatment, optimization models and product flows (Bacudio et al. 2016). This chapter responds to calls to examine IS from a social science point of view (Lindkvist and Baumann 2014) and for longitudinal case studies on the development of drivers and barriers in IS (Zhu and Ruth 2014). Hence, we address the following research question: How have the drivers and barriers to IS developed in Mo Industrial Park over a decade? We start with a theoretical presentation of the drivers and barriers to innovation of IS before we present the case of the Mo Industrial Park and the methods. Next, the findings of the drivers and barriers to IS development are discussed in relation to the literature.","PeriodicalId":343864,"journal":{"name":"Research Handbook of Innovation for a Circular Economy","volume":"16 1","pages":"0"},"PeriodicalIF":0.0000,"publicationDate":"1900-01-01","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"0","resultStr":null,"platform":"Semanticscholar","paperid":null,"PeriodicalName":"Research Handbook of Innovation for a Circular Economy","FirstCategoryId":"1085","ListUrlMain":"https://doi.org/10.4337/9781800373099.00021","RegionNum":0,"RegionCategory":null,"ArticlePicture":[],"TitleCN":null,"AbstractTextCN":null,"PMCID":null,"EPubDate":"","PubModel":"","JCR":"","JCRName":"","Score":null,"Total":0}
引用次数: 0
Abstract
The circular economy (CE) – the concept of closing material and energy loops to extract their utilization – has started gaining momentum as a solution to address sustainable development. Replacing a linear model of production, where goods are manufactured from raw materials, used and disposed of (Saavedra et al. 2018), a circular system maintains the value of resources, products and materials in the economy as long as possible (Merli et al. 2018). CE can be defined as “an economy constructed from societal production-consumption systems that maximize the service produced from the linear nature-society-nature material and energy throughput flow” (Korhonen et al. 2018, p. 39). Several authors argue that the CE transition needs to be interpreted at three levels (e.g. Fang et al. 2007; Jackson et al. 2014; Sakr et al. 2011): changes in social and economic dynamics at a macro level; implementation of circular processes such as product design and consumption at the micro level; and industrial symbiosis between firms at a meso level (Merli et al. 2018). Adapting the meso level, this chapter explores a key strategy for CE, namely, the industrial symbiosis between actors in an industrial park, where the aim is to create physical links between actors through the exchange of energy, materials, water and by-products (Hardy and Graedel 2002; Prosman et al. 2017). Industrial symbiosis is found to be more sustainable than most other manufacturing concepts because it comprises more innovation targets and mechanisms (Geissdoerfer et al. 2017; OECD 2009). This chapter joins this debate of change (Damanpour 1991) as an important attribute of innovation for industrial symbiosis. The change towards industrial symbiosis (IS) is connected to a set of barriers and drivers, as these factors require cooperation between actors, capital and intellectual input. Numerous drivers and barriers of IS are recognized in the literature and mainly capture technical aspects, such as water treatment, optimization models and product flows (Bacudio et al. 2016). This chapter responds to calls to examine IS from a social science point of view (Lindkvist and Baumann 2014) and for longitudinal case studies on the development of drivers and barriers in IS (Zhu and Ruth 2014). Hence, we address the following research question: How have the drivers and barriers to IS developed in Mo Industrial Park over a decade? We start with a theoretical presentation of the drivers and barriers to innovation of IS before we present the case of the Mo Industrial Park and the methods. Next, the findings of the drivers and barriers to IS development are discussed in relation to the literature.
循环经济(CE)——闭合材料和能源循环以提取其利用的概念——已经开始成为解决可持续发展问题的一种解决方案。循环系统取代了线性生产模型,即商品由原材料制造、使用和处理(Saavedra et al. 2018),尽可能长时间地保持经济中资源、产品和材料的价值(Merli et al. 2018)。可持续发展可以定义为“一种由社会生产-消费系统构建的经济,该系统最大限度地利用线性自然-社会-自然物质和能源吞吐量流所产生的服务”(Korhonen etal . 2018, p. 39)。一些作者认为,企业文化转型需要从三个层面来解释(如Fang等人,2007;Jackson et al. 2014;Sakr et al. 2011):宏观层面的社会和经济动态变化;在微观层面实施循环过程,如产品设计和消费;以及企业之间在中观层面的产业共生(Merli et al. 2018)。适应中观层面,本章探讨了可持续发展的一个关键策略,即工业园区中行动者之间的产业共生,其目的是通过能源、材料、水和副产品的交换在行动者之间建立物理联系(Hardy and Graedel 2002;Prosman et al. 2017)。工业共生被发现比大多数其他制造概念更具可持续性,因为它包含更多的创新目标和机制(Geissdoerfer等人,2017;经合组织2009)。本章加入了关于变革(Damanpour 1991)作为工业共生创新的重要属性的争论。向产业共生(IS)的转变与一系列障碍和驱动因素有关,因为这些因素需要行动者、资本和智力投入之间的合作。文献中认识到许多IS的驱动因素和障碍,主要涉及技术方面,如水处理、优化模型和产品流程(Bacudio et al. 2016)。本章回应了从社会科学的角度审视IS (Lindkvist and Baumann 2014)以及对IS中驱动因素和障碍发展的纵向案例研究(Zhu and Ruth 2014)的呼吁。因此,我们提出了以下研究问题:在过去的十年中,莫工业园区的IS驱动因素和障碍是如何形成的?我们首先从理论上介绍信息系统创新的驱动因素和障碍,然后介绍莫工业园区的案例和方法。接下来,根据文献讨论了IS发展的驱动因素和障碍的发现。