绿色物流外文文献翻译最新译文
物流外文文献翻译(DOC)

外文文献原稿和译文原稿Logistics from the English word "logistics", the original intent of the military logistics support, in the second side after World War II has been widely used in the economic field. Logistics Management Association of the United States is defined as the logistics, "Logistics is to meet the needs of consumers of raw materials, intermediate products, final products and related information to the consumer from the beginning to the effective flow and storage, implementation and control of the process of . "Logistics consists of four key components: the real flow, real storage, and management to coordinate the flow of information. The primary function of logistics is to create time and space effectiveness of the effectiveness of the main ways to overcome the space through the storage distance.Third-party logistics in the logistics channel services provided by brokers, middlemen in the form of the contract within a certain period of time required to provide logistics services in whole or in part. Is a third-party logistics companies for the external customer management, control and operation of the provision of logistics services company.According to statistics, currently used in Europe the proportion of third-party logistics services for 76 percent, the United States is about 58%, and the demand is still growing; 24 percent in Europe and the United States 33% of non-third-party logistics service users are actively considering the use of third-party logistics services. As a third-party logistics to improve the speed of material flow, warehousing costs and financial savings in the cost effective means of passers-by, has become increasingly attracted great attention.First, the advantages of using a third-party logisticsThe use of third-party logistics enterprises can yield many benefits, mainly reflected in:1, focus on core businessManufacturers can use a third-party logistics companies to achieve optimal distribution of resources, limited human and financial resources to concentrate on their core energy, to focus on the development of basic skills, develop new products in the world competition, and enhance the core competitiveness of enterprises.2, cost-savingProfessional use of third-party logistics providers, the professional advantages of mass production and cost advantages, by providing the link capacity utilization to achieve cost savings, so that enterprises can benefit from the separation of the cost structure. Manufacturing enterprises with the expansion of marketing services to participate in any degree of depth, would give rise to a substantial increase in costs, only the use of professional services provided by public services, in order to minimize additional losses. University of Tennessee in accordance with the United States, United Kingdom and the United States EXEL company EMST & YOUNG consulting firm co-organized a survey: a lot of cargo that enable them to use third-party logistics logistics costs declined by an average of 1.18 percent, the average flow of goods from 7.1 days to 3.9 days, stock 8.2% lower.3, reduction of inventoryThird-party logistics service providers with well-planned logistics and timely delivery means, to minimize inventory, improve cash flow of the enterprise to achieve cost advantages.4, enhance the corporate imageThird-party logistics service providers and customers is a strategic partnership, the use of third-party logistics provider of comprehensive facilities and trained staff on the whole supply chain to achieve completecontrol, reducing the complexity of logistics, through their own networks to help improve customer service, not only to establish their own brand image, but also customers in the competition.Second, The purpose of the implementation of logistics managementThe purpose of the implementation of logistics management is to the lowest possible total cost of conditions to achieve the established level of customer service, or service advantages and seek cost advantages of a dynamic equilibrium, and thus create competitive enterprises in the strategic advantage. According to this goal, logistics management to solve the basic problem, simply put, is to the right products to fit the number and the right price at the right time and suitable sites available to customers.Logistics management systems that use methods to solve the problem. Modern Logistics normally be considered by the transport, storage, packaging, handling, processing in circulation, distribution and information constitute part of all. All have their own part of the original functions, interests and concepts. System approach is the use of modern management methods and modern technology so that all aspects of information sharing in general, all the links as an integrated system for organization and management, so that the system can be as low as possible under the conditions of the total cost, provided there Competitive advantage of customer service. Systems approach that the system is not the effectiveness of their various local links-effective simple sum. System means that, there's a certain aspects of the problem and want to all of the factors affecting the analysis and evaluation. From this idea of the logistics system is not simply the pursuit of their own in various areas of the lowest cost, because the logistics of the link between the benefits of mutual influence, the tendency of mutual constraints, there is the turn of the relationship between vulnerability. For example, too much emphasis on packaging materials savings, it could cause damage because of their easy to transport and handling costs increased. Therefore, the systemsapproach stresses the need to carry out the total cost analysis, and to avoid the second best effect and weigh the cost of the analysis, so as to achieve the lowest cost, while meeting the established level of customer se rvice purposes.Third, China's enterprises in the use of third-party logistics problems inWhile third-party logistics company has many advantages, but not many enterprises will be more outsourcing of the logistics business, the reasons boil down to:1, resistance to changeMany companies do not want the way through the logistics outsourcing efforts to change the current mode. In particular, some state-owned enterprises, we reflow will also mean that the dismissal of outsourcing a large number of employees, which the managers of state-owned enterprises would mean a very great risk.2, lack of awarenessFor third-party logistics enterprise's generally low level of awareness, lack of awareness of enterprise supply chain management in the enterprise of the great role in the competition.3, fear of losing controlAs a result of the implementation of supply chain companies in enhancing the competitiveness of the important role that many companies would rather have a small but complete logistics department and they do not prefer these functions will be handed over to others, the main reasons it is worried that if they lose the internal logistics capabilities, customers will be exchanges and over-reliance on other third-party logistics companies.4, the logistics outsourcing has its own complexitySupply chain logistics business and companies are usually other services, such as finance, marketing or production of integrated logistics outsourcing itself with complexity. On a number of practical business, including theintegration of transport and storage may lead to organizational, administrative and implementation problems. In addition, the company's internal information system integration features, making the logistics business to a third party logistics companies have become very difficult to operate.5, to measure the effect of logistics outsourcing by many factors Accurately measure the cost of information technology, logistics and human resources more difficult. It is difficult to determine the logistics outsourcing companies in the end be able to bring the cost of how many potential good things. In addition, all the uniqueness of the company's business and corporate supply chain operational capability, is usually not considered to be internal to the external public information, it is difficult to accurately compare the inter-company supply chain operational capability.Although some manufacturers have been aware of the use of third-party logistics companies can bring a lot of good things, but in practical applications are often divided into several steps, at the same time choose a number of logistics service providers as partners in order to avoid the business by a logistics service providers brought about by dependence. Fourth, China's third-party logistics companies in the development of the problems encounteredA successful logistics company, the operator must have a larger scale, the establishment of effective regional coverage area, with a strong command and control center with the high standard of integrated technical, financial resources and business strategy.China's third-party logistics companies in the development of the problems encountered can be summarized as follows:1, operating modelAt present, most of the world's largest logistics companies take the head office and branch system, centralized headquarters-style logistics operation to take to the implementation of vertical business management. Theestablishment of a modern logistics enterprise must have a strong, flexible command and control center to control the entire logistics operations and coordination. Real must be a modern logistics center, a profit center, business organizations, the framework, the institutional form of every match with a center. China's logistics enterprises in the operating mode of the problems of foreign logistics enterprises in the management model should be from the domestic logistics enterprises.2, the lack of storage or transport capacityThe primary function of logistics is to create time and space utility theft. For now China's third-party logistics enterprises, some companies focus on storage, lack of transport capacity; other companies is a lot of transport vehicles and warehouses throughout the country little by renting warehouses to complete the community's commitment to customers. 3, network problemsThere are a few large companies have the logistics of the entire vehicle cargo storage network or networks, but the network coverage area is not perfect. Customers in the choice of logistics partner, are very concerned about network coverage and network of regional branches of the density problem. The building of the network should be of great importance to logistics enterprises.4, information technologyThe world's largest logistics enterprises have "three-class network", that is, orders for information flow, resources, global supply chain network, the global Resource Network users and computer information network. With the management of advanced computer technology, these customers are also the logistics of the production of high value-added products business, the domestic logistics enterprises must increase investment in information systems can change their market position.Concentration and integration is the third-party logistics trends in the development of enterprises. The reasons are: firstly, the company intends tomajor aspects of supply chain outsourcing to the lowest possible number of several logistics companies; the second, the establishment of an efficient global third party logistics inputs required for increasing the capital; the third Many third-party logistics providers through mergers and joint approaches to expand its service capabilities.译文物流已广泛应用于经济领域中的英文单词“物流”,军事后勤保障的原意,在二战结束后的第二面。
绿色物流外文文献翻译最新译文

文献出处:Fransoo J C. Green Logistics: Enablers for Sustainable Development [J]. Supply chain management: an international journal, 2014, 8(2): 122-131.原文GREEN LOGISTICS: ENABLERS FOR SUSTAINABLE DEVELOPMENTJan C. FransooEindhoven University of Technology, Netherlands1 INTRODUCTIONLogistics is the backbone of industry and commerce. As a discipline, it describes the management and coordination of activities along supply chains. These activities include freight transport, storage, inventory management, materials handling and related information processing. A large part of logistics activities are often outsourced to specialized providers that provide cost- effective services. Research has shown that, at least in high income economies, the value of services is not assessed in monetary and service quality terms alone. In making decisions, logistics professionals are increasingly taking into consideration external effects such as emissions, pollution, noise, and accidents.The last LPI report release in 2012, for instance, pointed out that in shipments to OECD countries, environmentally friendly solutions are considered far more often than elsewhere. Mounting regulatory pressure, together with changes in customer preferences, are the main drivers of this phenomenon. One of the more widely used terms to describe this set of preferences is green Logistics, especially when the activities of logistics service providers are concerned.Research, including a recent book by Alan McKinnon, has established that green Logistics is an emerging concern of private operators and providers and users of logistics. From a policy standpoint, and especially for the global environment, green Logistics is potentially a major topic as well: estimates vary, but about 15% of global greenhouse gas emissions (GHG) can be traced to logistics activities.Green Logistics may not be an independent policy area. Rather, the supply chainperspective provides a framework to understand and deal with issues that are separate but ultimately interrelated. Importantly, looking at supply chains helps policy makers understand the interests and actions of private sector operators. Green Logistics may therefore propose a number of tools and identify emerging sustainable solutions contributing to the overarching objective of green Growth.From a policy perspective, logistics cut across several areas and sectors. The performance of supply chains depends on areas or activities where government as regulator or catalyst of investment is critical, such as:Transport infrastructure: road and rail corridors, ports and airportsThe efficiencies of logistics services: services include not only modal freight transport, but also warehousing and intermediary services, such as brokers and forwarders, and related information-flow management. In modern economies, the trend is towards integration in multi-activity logistics providers (3PLs, 4PLs) to which industrial and commercial firms outsource their supply chain activities. Understanding the regulatory dimension of services is becoming increasingly critical to the development of effective policies in areas such as: professional and operational standards, regulation of entry in market and professions, competition, enforcement.Procedures applying to the merchandise, such as trade procedures (customs and other controls).The soft infrastructure that supports information or financial flow associated with the physical movements along supply chains: IT infrastructure, payment systems.The concept of national logistics performance capturing the outcome of these policies is widely recognized by policy makers and the private sector worldwide as a critical contribution to national competitiveness. A key question for sustainable development is how to integrate supply chain participants concern with environmental sustainability with the concept of national logistics performance.Within logistics, transport creates the largest environmental footprint. But the volume of emissions can vary greatly, depending on the mode of transport. The volume of emission per ton per km increases by an order of magnitude from maritime to land transportation and to air transportation. This is a key environmental aspect oflogistics that is not taken into consideration by most supply chain operators. Logistics experts typically integrate freight modes and other related activities so that the transport and distribution network is used in the most efficient manner, which is important for keeping emissions in check, as well. Depending on the type of industry and geographical region, supply chain operators can place varying emphasis on the reliability of supply chains, as well. In summary, supply chain choices typically include multiple criteria and trade-offs, and this makes an analysis of their environmental impact complex; the most environmentally friendly choices do not only depend on mode of transportation, but also on other elements, such as efficiency and reliability.To reduce the environmental footprint of a supply chain, the focus should be on several dimensions and should select the best mode of transport, efficient movements, and innovation. Comprehensive work on greening individual modes of transportation is already available. Here, the key drivers have been energy efficiency and the urge to diminish various types of emission. Given the integrated nature of supply chains, however, the manner in which price signals and incentives catalyze supply chain structure is a rather intricate problem: lower- emission modes of transport (maritime, e.g.) are typically also less reliable or have other limitations (such as maritime access to a landlocked country). Such limitations may include the cost of such technologies, the temperature range within which they can be used or the availability of certain types of fuel. It is therefore critical to complement the current knowledge about emissions produced by different modes of transportation with an understanding of what drives the demand for Green Logistics within supply chains.The emerging response is likely to take the form of top-down policy, such as measures in the form of standards or taxes addressing emissions (GHG, SO2, NOx) by mode of freight. For instance, a cap on SO2 emissions on major maritime routes will go into effect at the end of 20152. At least as important is the response from the bottom up. These are supply-chain strategies coming from the private sector in response to policy or price changes, but also demand from consumers, clients and stake-holders. Green Supply Chain management has to be taken seriously by policymakers.An exclusive focus on price mechanism (including taxes), as is the current tendency, may miss some of the major driver of changes in supply chain management. Another complication, at least in the context of international trade, is that the focus on the impact on international logistics does not capture the footprint of production processes. These processes may have different impact than the supply chain itself, as in the case of food production.There is also evidence that much of the environmental footprint of logistics operations is tied to short distances and distribution. Green Logistics is intimately linked with concerns such as urban congestion, and innovations in Logistics are critical to sustainable supply chains. Grassroots innovations in Logistics have recently flourished, often producing win-win solutions in terms of jobs and the environment. More generally, there is increasing awareness that green supply chains can be also competitive, either because the awareness of the environment helps productivity or because consumers expect it, particularly in wealthy countries.A concrete case in point is also the so-called sulphur emission regulation by IMO that enters into force on January 1, 2015 in most of North Sea, Baltic Sea and along west and east coasts of US & Canada (bar Alaska). Ships have to go over from fuel with 1.5 % sulphur to 0.1 % sulphur or invest in so-called scrubbers, that absorb the sulphur from exhaust gases; technology that is still nascent in the maritime context. Scrubber investment per cargo ship is USD 2 million and uo with multiples as the ship engine size increases, with annual maintenance cost approx.. 7-10 % of investment. This seemingly innocent and rather technical change is going to have a huge impact on shipping and the spillover effect to other modes & Supply chains are goi ng to be significant Green Logistics also encompasses potentially longer-term concerns. A green focus within logistics analysis could examine a supply chain vulnerability to climate events or to large swings in the price of transport inputs, for instance. A recent volcanic episode in Iceland showed the vulnerability of one specific supply chain that relies heavily on air freight fresh produce coming from Africa spoiled when flights were cancelled because of the volcanic ash. Resilience concerns and other form ofuncertainty are likely to shape supply chain choices by regional and global operators. Given the importance of trade in components and intra-firm trade, how large operators develop green supply chain strategies will have profound economic impact. Resilient and greener supply chains are likely to be less extended and leaner, for example, though the consequences for trade and integration of low income economies cannot be treated fully here.Policy makers should be concerned by both the supply and demand aspects of logistics environmental dimensions. So far, the policy focus has been on modal footprint and has not taken into account a supply chain perspective. There have not been major initiatives in Green Logistics, even in the countries most sensitive to the issue, such as those in Northern Europe. Rather the most important changes have occurred as a combination of largely uncoordinated public and private initiatives: voluntary behavior by shippers, innovation in terms of technology, information (environmental logistics dashboard) or services, or common public-private objectives such as in modal shifts.2DEFINING GREEN LOGISTICS AND GREEN SUPPLY CHAIN MANAGEMENT There are many variations in the terminology regarding green logistics and green supply chain management. This section aims at providing a brief overview on some of the key terms used in the literature.Green logistics refers mainly to environmental issues related to transportation, material handling and storage, inventory control, warehousing, packaging, and facility location allocation decisions (Min & Kim, 2012). Gonzalez-Benito and Gonzalez-Benito (2006) use the term environmental logistics to describe logistics practices that are divided into supply/purchasing, transportation, warehousing and distribution, and reverse logistics and waste management. Although distribution is considered to be one of the interrelated areas of supply chain management, the term green distribution has also been used to describe the whole process of integrating environmental concerns into transportation, packaging, labelling and reverse logistics (Shi et al., 2012).Reverse logistics is often used as a synonym to efforts to reduce theenvironmental impact of the supply chain by recycling, reusing and remanufacturing. However, originally green logistics was used to describe the movement of the material against the primary flow in the form of commercial returns, wrong deliveries and recalls etc., i.e. from the customer towards the producer. (Rogers & Tibben-Lembke, 2001.) In addition to reverse logistics, closed-loop supply chain has also been used to emphasize that the reverse flow of material (e.g. Zhu et al., 2008). However, the activities motivated mainly by environmental concerns might be better labelled as green reverse logistics (Hazen, Cegielski & Hanna, 2011) or in the more general terms of green or environmental logistics (Rogers & Tibben-Lembke, 2001) instead of reverse logistics or closed-loop supply chains.The above-mentioned concepts are mainly used to describe the actions taken by the logistics service provider side. Green supply chain management (GSCM) is a more extensive concept that has been gaining increasing interest among practitioners and academia and is mainly directed towards manufacturing companies. The term implies that the focus of environmental management has shifted from a facility or organization level to supply chain level (Linton et al., 2007). Srivastava (2007) defines that GSCM is integrating environmental thinking into supply chain management, including product design, material sourcing and selection, manufacturing processes, delivery of the final product to the consumers as well as end-of-life management of the product after its useful life.GSCM is also known as environmental supply chain management (ESCM) (e.g. Zsidisin & Siferd, 2001;Walker et al., 2008). Some authors (e.g. Seuring & Meller, 2008; Craig & Carter, 2008) use sustainable supply chain management (SSCM) as a synonym of GSCM or ESCM although they mostly focus on the environmental aspect of sustainability, thereby paying less attention on economic and social aspects. According to Zhu et al. (2005) GSCM is strongly related to inter-organisational activities such as industrial ecosystems, industrial ecology, product life cycle analysis, extended producer responsibility and product stewardship.GSCM is often described to consist of green purchasing, green manufacturing, green distribution/green marketing and reverse logistics (Hervani et al., 2005). Greenor environmental purchasing or green supply refers to efforts to improve environmental performance of purchased inputs or of suppliers that provide them (Bowen et al., 2001). Green manufacturing is typically tried to be achieved by various types of environmental practices, such as pollution control, pollution prevention and product stewardship (Hart, 1995). The definitions of GSCM emphasize that environmentally conscious practices are evident in all stages of the supply chain and the product life-cycle (Hervani et al., 2005). Furthermore, Vachon and Klassen (2006) divide these green supply chain management practices into two sets: one of them being environmental monitoring and the other environmental collaboration. In the former the focus is on arm length transaction in which the buying organisation evaluates and monitors its suppliers, and in the latter the environmental solutions are developed jointly.GSCM activities aim at achieving market advantages and profits while reducing environmental impacts. One generally used concept to measure the effect of supply chain activities on natural environment is the environmental or ecological footprint. It accounts for human demand on global biological resources and compares the level of consumption with the available amount of bioproductive land and sea area and has been designed to show whether this ustainability threshold is exceeded (Wiedmann & Barrett, 2010). Lately the use of carbon footprint has increased rapidly but the question still remains whether it should contain only carbon dioxide emissions or other greenhouse gas emissions as well (Wiedmann & Minx, 2007).The increasing interest in environmental issues has led to the development of voluntary environmental management systems. Environmental management systems (EMS) is collection of internal efforts at formally articulating environmental goals, making choices that integrate the environment into production decisions, identifying opportunities for pollution (waste) reduction and implementing plans to make continuous improvements in production methods and environmental performance (Khanna & Anton, 2002). The most commonly used framework for an EMS is developed by the International Organization for Standardization (ISO) for the ISO 14001 standard. In addition, for example the European Parliament has created its ownenvironmental management system, EMAS. (Gonzalez et al. 2008.) In order to obtain a certification an environmental audit conducted by a registered external auditor is required (Rondinelli & Vastag, 2000).Different types of actors can use different approaches to contribute to environmental sustainability. These approaches can be viewed from macro and micro perspective. Actions in the macro domain are taken by governments and other legislative authorities, while in the micro domain the actions are taken by the companies (Aronsson & Huge-Brodin, 2006). When viewed from a supply chain perspective, the micro domain can be further divided into the logistics service users (manufacturing, trading) and logistics service providers. The decisions concerning the actions to be taken can be made at different levels: strategic, tactic and operational. Each level indicates different scope and time span of the decision. In general, the policy makers decisions are prepared for several months and even years beforehand, whereas logistics service providers and users also make plenty of day-to-day decisions. Figure X illustrates some of the actions taken by different actors that impact on the environmental footprint. It is not meant to be conclusive but to provide some examples on what kinds of activities affect the environmental footprint. Table 1: Actions Taken by Different Actors to Impact the Environmental Footprint.Management can take several approaches to greening the supply chains. Some firms choose to be reactive and commit minimal resources, while more proactive firms may choose to seek value by strategically committing to environmental sustainability and by integrating environmental policy in strategy. (van Hoek, 1999.) Formulating environmental strategy is equally important for both logistics service users and providers. An environmental management system (EMS) can be implemented to address environmental practices within the organisation. It is used to formally articulate environmental goals, to make choices that integrate the environment into production decisions, and to identify opportunities for pollution reduction and to implement plans to make continuous improvements (Khanna & Anton, 2002.) The two most widespread EMSs in Europe are ISO 14 001 and EMAS (Gonzalez, Sarkis & Adenso-Diaz, 2008).Green purchasing or green supply attempts to improve environmental performance of purchased inputs or of suppliers that provide them (Bowen et al., 2001). Green purchasing enables to specific issues, such as to reduction the waste produced, to substitute material through environmental sourcing of raw materials and to minimize the use of hazardous materials (Rao & Holt, 2005), e.g. through materials that are either recyclable or reusable, or have already been recycled. Supplier selection is an important decision at this stage. (Sarkis, 2003.) Supplier evaluation and development forms another important part of green purchasing (Zsidisin & Siferd, 2001). The survey study by Holt and Ghobadian (2009) revealed that over 50 % of UK manufacturers used informal supplier assessment and evaluation practices and over 30% used formal systems. Greener production is typically addressed through various types of environmental practices, such as pollution control, pollution prevention and product stewardship (Hart, 1995). It can be achieved by using renewable and recycled materials and by incorporating reverse logistics so that wasted generated in the production processes are processed and recycled into the production phase (Rao & Holt, 2005).There is a growing trend to outsource transport and logistics services to third party logistics service providers. Logistics service buyers increasingly ask for information on environmental performance of logistics service providers. (Wolf & Seuring, 2010.) Network design, planning and management are some of the pivotal issues to be considered by logistics service providers. Environmental sustainability usually calls for fewer shipments, less handling, shorter movements, more direct routes and better space utilization. Network design has an impact on fill rate, e.g. by increasing the size of warehouses, by centralizing distribution and by changing the location of warehouses. Consolidation is a central aspect to logistics systems on many levels, since consolidation of freight affects fleet size, vehicles, container and package sizes. (Aronsson & Huge-Brodin, 2006.) Other operational measures include e.g. educating and training drivers on eco-driving leads to reductions in fuel consumption (Helmreich, Bonilla, Akyelken, &Weiss, 2009).Although the supply chain to the retailers were optimized in terms ofenvironmental sustainability, the importance of mile deliveries cannot be underestimated. Browne, Rizet, Leonardi and Allen (2008) note that personal shopping trips can use more energy than the whole supply chain before, even if production is included. Hence, the consumers should be made aware of the environmental effects of their shopping behavior. Growing online retail can reduce these effects and retailers can actively aim at reducing their share by e.g. consolidating orders and by adopting off-peak/out-of-hours deliveries, allowing delivery vans to run more of their mileage at fuel-efficient speeds. (Edwards, McKinnon & Cullinane, 2009.)In the macro domain, the harmful effects of logistics have been recognized long ago. The transport strategy of the European Union highlights development needs towards sustainable transport and promotes multimodal and rail transport (European Commission white paper, 2011). Several policy instruments used by legislative bodies have long-term impacts on the supply chains. European commercial air transport and energy intensive manufacturing sectors are subject to the European Union Emissions Trading System (EU ETS).According to European Commission (2013a), the EU ETS is cornerstone of a cornerstone of the European Union's policy to combat climate change and its key tool for reducing industrial greenhouse gas emissions cost-effectively. The system applies to emissions of carbon dioxide (CO2) from power plants, energy-intensive industry sectors and commercial airlines. The EU ETS works on the 'cap and trade' principle. A 'cap' refers to the limit of the total amount of certain greenhouse gases that can be emitted by the factories, power plants and other installations in the system.译文绿色物流:促进可持续发展(5000多字)贾恩. 法兰斯1. 引言物流是工商业的支柱。
绿色物流【外文翻译】

外文翻译原文Green Logistics (The Paradoxes of)Material source:The Handbook of Logistics and Supply-Chain Management Author:Brewer, K.J. Button and D.A. HensherIntroduction: The Issue of Green LogisticsThe two words that make up the title of this chapter are each charged with meaning, but combined, they form a phrase that is particularly evocative. ‘Logistics’ are at the heart of modern transport systems. As has been demonstrated earlier, the term implies a degree organization and control over freight movements that only modern technology could have brought into being. It has become one of the most important developments in the transportation industry. ‘Greenness’ has become a code-word for a range of environmental concerns, and is usually considered positively. It is employed to suggest compatibility with the environment, and thus, like ‘logistics’ is something that is beneficial. When put together the two words suggest an environmentally-friendly and efficient transport and distribution system. The term has wide appeal, and is seen by many as eminently desirable. However, as we explore the concept and its applications in greater detail, a great many paradoxes and inconsistencies arise, which suggest that its application may be more difficult than what might have been expected on first encounter.In this chapter we begin by considering how the term has been developed and applied in the transportation industry. Although there has been much debate about green logistics over the last ten years or so, the transportation industry has developed very narrow and specific interests. When the broader interpretations are attempted it will be shown that there are basic inconsistencies between the goals and objectives of ‘logistics’ and ‘greenness’. We conclude this chapter by exploring how these paradoxes might be resolved.Development and Application of Green LogisticsIn common with many other areas of human endeavour, ‘greenness’ became a catchword in the transportation industry in the late 1980s and early 1990s. It grew out of the growing awareness of environmental problems, and in particular with well-publicised issues such as acid rain, CFCs and global warming. The World Commission on Environment and Development Report, with its establishment ofenvironmental sustainability as a goal for international action, gave green issues a significant boost in political and economic arenas. The transportation industry is a major contributor to environmental degradation through its modes, infrastructures and traffics). The developing field of logistics was seen by many as an opportunity for the transportation industry to present a more environmentally-friendly face. During the early 1990s there was an outpouring of studies, reports and opinion pieces suggesting how the environment could be incorporated in the logistics industry. It was reported that the 1990s would be ‘the decade of the environment’.As we look back on the decade we can observe that interest in the environment by the logistics industry manifested itself most clearly in terms of exploiting new market opportunities. While traditional logistics seeks to organise forward distribution, that is the transport, warehousing, packaging and inventory management from the producer to the consumer, environmental considerations opened up markets for recycling and disposal, and led to an entire new sub-sector: reverse logistics. This reverse distribution involves the transport of waste and the movement of used materials. While the term ‘reverse logistics’ is widely used, other names h ave been applied, such as ‘reverse distribution’, ‘reverse-flow logistics’, and ‘green logistics’.Inserting logistics into recycling and the disposal of waste materials of all kinds, including toxic and hazardous goods, has become a major new market. There are several variants. An important segment is customer-driven, where domestic waste is set aside by home-dwellers for recycling. This has achieved wide popularity in many communities, notably because the public became involved in the process. A second type is where non-recyclable waste, including hazardous materials, is transported for disposal to designated sites. As land fills close to urban areas become scarce, waste has to be transported greater distances to disposal centres. A different approach is where reverse distribution is a continuous embedded process in which the organisation (manufacturer or distributor) takes responsibility for the delivery of new products as well as their take-back. This would mean environmental considerations through the whole life-cycle of a product (production, distribution, consumption and disposal). For example, BMW is designing a vehicle whose parts will be entirely recyclable.How the logistics industry has responded to the environmental imperatives is not unexpected, given its commercial and economic imperatives, but by virtually overlooking significant issues, such as pollution, congestion, resource depletion,means that the logistics industry is still not very ‘green’. This conclusion is borne out by published surveys. Murphy et al (1994) asked members of the Council for Logistics Management what were the most important environmental issues relating to logistics operations. The two leading issues selected were hazardous waste disposal and solid waste disposal. Two thirds of respondents identified these as being of ‘great’ or ‘maximum’ importance. The least important issues identified were congestion and land use, two elements usually considered of central importance by environmentalists. When asked to identify the future impact of environmental issues on logistical functions, again waste disposal and packaging were chosen as leading factors. Customer service, inventory control, production scheduling –logistical elements –were seen to have negligible environmental implications.This suggests that at the beginning of the 21st Century the logistics industry in general is still a long way from being considered green. Reverse logistics has been its major environmental pre-occupation. While this is an important step, recycling being one of the important elements in sustainability, many other environmentally significant considerations remain largely unaddressed. Are the achievements of transport logistics compatible with the environment?The Green Paradoxes of Logistics in Transport Systems1 CostsThe purpose of logistics is to reduce costs, notably transport costs. In addition, economies of time and improvements in service reliability, including flexibility, are further objectives. Corporations involved in the physical distribution of freight are highly supportive of strategies that enable them to cut transport costs in the present competitive environment. The cost-saving strategies pursued by logistic operators are often at variance with environmental considerations, however. Environmental costs are often externalized. This means that the benefits of logistics are realised by the users (and eventually to the consumer if the benefits are shared along the supply chain), but the environment assumes a wide variety of burdens and costs. Society in general, and many individuals in particular, are becoming less willing to accept these costs, and pressure is increasingly being put on governments and corporations to include greater environmental considerations in their activities.Although there is a clear trend for governments, at least in their policy guidelines, to make the users pay the full costs of using the infrastructures, logistical activities have largely escaped these initiatives. The focus of much environmentalpolicy is on private cars (emission controls, gas mixtures and pricing). While there are increasingly strict regulations being applied to air transport (noise and emissions), the degree of control over trucking, rail and maritime modes is less. For example diesel fuel is significantly cheaper than gasoline in many jurisdictions, despite the negative environmental implications of the diesel engine. Yet trucks contribute on average 7 times more per vehicle-km to nitrogen oxides emissions than cars and 17 times more for particulate matter. The trucking industry is likely to avoid the bulk of environmental externalities it creates, notably in North America.The external costs of transport have been the subject of extensive research. Early gross estimates suggested congestion costs to account on average for 8.5% of the GDP and from 2.0 to 2.5% for safety. Recent estimates in Europe suggest that annual costs amount to a figure between 32 and 56 billion ECU. Cooper et al (1998) estimate the costs in Britain at 7 billion ECU, or twice the amount collected by vehicle taxation.In addition, the hub structures of logistical systems result in a land take that is exceptional. Airports, seaports and rail terminals are among the largest consumers of land in urban areas. For many airports and seaports the costs of development are so large that they require subsidies from local, regional and national governments. The dredging of channels in ports, the provision of sites, and operating expenses are rarely completely reflected in user costs. In the United States, for example local dredging costs, were nominally to come out of a harbour improvement tax but this has been ruled unconstitutional and channel maintenance remains under the authority of the US Corps of Army Engineers. In Europe, national and regional government subsidies are used to assist infrastructure and superstructure provision. The trend in logistics towards hub formation is clearly not green.The actors involved in logistical operations have a strong bias to perceive green logistics as a mean to internalize cost savings, while avoiding the issue of external costs. As underlined earlier, a survey among the managers of logistical activities pointed out that the top environmental priority is reducing packaging and waste (Murphy et al 1994). Managers were also strongly against any type of governmental regulation pertaining to the environmental impacts of logistics. These observations support the paradoxical relationship between logistics and the environment that reducing costs does not necessarily reduce environmental impacts.2 ReliabilityAt the heart of logistics is the overriding importance of service reliability. Itssuccess is based upon the ability to deliver freight on time with the least threat of breakage or damage. Logistics providers often realise these objectives by utilising the modes that are perceived as being most reliable. The least polluting modes are generally regarded as being the least reliable in terms of on-time delivery, lack of breakage and safety. Ships and railways have inherited a reputation for poor customer satisfaction, and the logistics industry is built around air and truck shipments... the two least environmentally-friendly modes.3 WarehousingLogistics is an important factor promoting globalization and international flows of commerce. Modern logistics systems economies are based on the reduction of inventories, as the speed and reliability of deliveries removes the need to store and stockpile. Consequently, a reduction in warehousing demands is one of the advantages of logistics. This means however, that inventories have been transferred to a certain degree the transport system, especially the roads. This has been confirmed empirically. In a survey of 87 large British firms cited by McKinnon (1998), there had been a 39 per cent reduction in the number of warehouses and one third of the firms indicated an increased amount of truck traffic, although the increase was thought to be small in most cases. Inventories are actually in transit, contributing still further to congestion and pollution. The environment and society, not the logistical operators, are assuming the external costs.Not all sectors exhibit this trend, however. In some industrial sectors, computers for example, there is a growing trend for vertical disintegration of the manufacturing process, in which extra links are added to the logistical chain. Intermediate plants where some assembly is undertaken have been added between the manufacturer and consumer. While facilitating the customizing of the product for the consumer, it adds an additional external movement of products in the production line.译文绿色物流(即悖论)资料来源:物流与供应链手册作者:布鲁尔,K.J.巴顿和D.A.寒舍尔简介:关于绿色物流的一个问题绿色和物流这两个词构成了本文标题意义,两者相结合,就形成一个短语,特别令人回味。
物流 外文翻译 外文文献 英文文献 组合优化和绿色物流

物流外文翻译外文文献英文文献组合优化和绿色物流附件2:外文原文(复印件)Combinatorial optimization and Green LogisticsAbstract The purpose of this paper is to introduce the area of Green Logistics and to describe some of the problems that arise in this subject which can be formulated as combinatorial optimization problems. The paper particularly considers the topics of reverse logistics, waste management and vehicle routing and scheduling. Keywords GreenLogistics、 Reverse logistics 、 Combinatorial optimization 、Waste management 、 Hazardous materials1 IntroductionGreen Logistics is concerned with producing and distributing goodsin a sustainable way,taking account of environmental and social factors. Thus the objectives are not only concerned with the economic impact of logistics policies on the organization carrying them out,but also with the wider effects on society, such as the effects of pollution on the environment. Green Logistics activities include measuring the environmental impact of different distribution strategies, reducing the energy usage in logistics activities, reducing waste and managing its treatment. In recent years there has been increasing concern about the environmental effects on the planet of human activity and currentlogistic practices may not be sustainable in the long term.Many organizations and businesses are starting to measure their carbonfootprints so that the environmental impact of their activities can be monitored. Governments are considering targets for reduced emissions and other environmental measures.There is therefore increasing interest in Green Logistics from companies and governments.Traditional logistics models for production and distribution have concentrated on minimizing costs subject to operational constraints. But consideration of the wider objectives and issues connected with Green Logistics leads to new methods of working and new models,some of which pose interesting new applications for operational research models of various types. A survey of all operational research models in this area would require a very long article and so the focus of this paper is to concentrate on some of the new or revised combinatorial optimization models that arise in Green Logistics applications. For those working in combinatorial optimization it is hoped that these new models will pose interesting new challenges that may have significant effects on the environment when the results are applied.The original version of this paper can be found in Sbihi and Eglese (2007). It discusses different areas that relate to the Green Logistics agenda. Section 2 concerns Reverse Logistics modelsthat take account of the full life-cycle of a product and the possibilities of various forms of recycling. Section 3 covers Waste Management that includes models for thetransportation of hazardous waste, roll-on roll-off containers andthe collection of household waste. Section 4 deals with Vehicle Routing models and issues relating toGreen Logistics objectives. Section 5 contains the final conclusions.2 Reverse LogisticsThere are various definitions of Reverse Logistics to be found inthe literature. For example,Fleischmann et al. (1997) say that reverse logistics is ―a process whichencompasses the logistics activities all the way from used productsno longer required by the user to products again usable in a market‖. Dowlatshahi (2000) explains ReverseLogistics as ―a process in which a manufacturer systematicallyaccepts previouslyshipped products or parts from the point for consumption forpossible recycling,re manufacturing or disposal‖. Later, the European Working Group on Reverse Logistics,REVLOG, Dekker et al. (2004), give this definition: ―The process of planning,implementing and controlling backward flows of raw materials, in process inventory,packaging and finished goods, from a manufacturing, distribution oruse point, to a pointof recovery or point of proper disposal‖.In their book, Rogers and Tibben-Lembke (1999)briefly consider the differences between Reverse Logistics and Green Logistics. In Reverse Logistics there should be some flow of products or goods back from the consumer to an earlier stage of the supply chain.The reduction of waste that this implies certainly means that Reverse Logistics should be included within Green Logistics. For example, De Brito and Van Der Laan (2003) examine inventory management issues when product returns must be estimated. However there will be other models of logistics activities involving only forward flows of goodsthat could not be described as reverse logistics, but if they include environmental considerations, will also be included within Green Logistics. For example,Mondschein and Schilkrut (1997)describe a mixed integerlinear programming model to determine the optimal investmentpolicies for the copper industry in Chile. A key part of the model was to control air pollution through emissions in the production process. Legislation within the European Community gives high importance to recycled products and, in some cases, it has established the responsibility for the end of life products to the manufacturers. For example, the Waste Electronic and Electrical Equipment (WEEE) Directive (2002/96/EC)1 deals with this. Such legislationis one of the drivers in establishing the importance of reverse logistics operations. Most European companies will increasingly have tothink about incorporating Reverse Logistics activities in their business operations.2.1 Location models used in Reverse LogisticsThere is a huge amount of research in facility location theory in general. However, in the literature we found relatively few papers on this topic applicable to Reverse Logistics (RL). Krikke (1998) proposes some models for RL network design. He designsa model for a multi-product and multi-echelon situation. The model allows new facilities to be added with the corresponding cost functions when necessary. He proposes the design of a network graph and a transportation graph as basic inputs for his model. Barros et al. (1998) consider the problem of the recycling of sand (asubproduct of recycling construction waste) in the Netherlands. They propose a two-levellocation model for the sand problem and consider its optimization using heuristic procedures. Fleischmann et al. (2000) reviewed nine published case studies on logistics networkdesign for product recovery in different industries, and identified some general characteristics of product recovery networks, comparing them with traditional logistics structures. They classified the product recovery networks in three sub-areas: re-usable item networks, remanufacturing networks, and recycling networks.Other references deal with this topic (e.g., Krikke 1998; Sarkis 2001; Fleischmann2001). Most of the models developed in this field are similar to the traditional location problems,in particular location-allocation models (see Kroon and Vrijens 1995; Ammonset al. 1999;Spengler et al. 1997; Marìn and Pelegrìn 1998; Jayaraman et al. 1999; Krikkeet al. 1999,2001; Fleischmann et al. 2000). In most of the models, transportation andprocessing costs were minimized while the environmental costs associated with the designed network were often neglected.2.2 Dynamic lot-sizing problemThe dynamic lot sizing problem in its simplest form considers a facility, possibly a warehouse or a retailer, which faces dynamic demand for a single item over a finite horizon (see Wagner and Whitin 1958). The facility places orders for the item from asupply agency, e.g.,a manufacturer or a supplier, which is assumedto have an unlimited quantity of the product.The model assumes a fixed ordering (setup) cost, a linear procurement cost for each unit purchased, and a linear holding cost for each unit held in inventory per unit time. Given the time varying demand and cost parameters, the problem is to decide when and how much to order at the facility in each period so that all demand is satisfied at minimum cost.The dynamic lot-sizing problem has been well studied in the pastsince it was first introduced more than four decades ago. The exact solution technique, known as the Wagner- Whitin algorithm, based onDynamic Programming is well known in production planning and inventory control. For more information about this model, see the books by Bramel and Simchi-Levi (1997), Johnson and Montgomery (1974) and Silver et al.(1996). A variety of heuristic methods have also been proposed, for example the Silver-Meal heuristic described in Silver and Meal (1973).In Teunter et al. (2006) a variant of the basic lot sizing model is considered where the serviceable stock may also be made using a remanufacturing operation that utilizes returns and produces serviceable stock that is indistinguishable from the newly manufactured stock. Examples of remanufacturing include single-use cameras and copiers. An inventory system with remanufacturing can be described in Fig . 1. The model studied makes the following assumptions:– no disposal option for returns;– holding cost for serviceables is greater than holding cost for returns;– variable manufacturing and remanufacturing costs are not included.The objective is again to minimize the sum of the set-up costs and holding costs. Two variants are considered. In the first it is assumedthat there is a joint set-up cost formanufacturing and remanufacturing which is appropriate when the same production line is used for both processes. The second variant assumes separate set-up costs for manufacturing and remanufacturing. We review these models in the next two sections. 3 Waste managementThe widely acknowledged increase in solid waste production, together with the increased concern about environmental issues, have led local governments and agencies to devote resources to solid waste collection policy planning. Waste management is a key process to protect the environment and conserve resources. In recent years, policies of governments towards waste management have focused on waste avoidance, reuse and recycling. As a result there has been significant progress in these management areas, particularly for the more developed nations. The environmental aspects of waste management means that activities concerning the transport of waste materials are clearly part of the Green Logistics agenda.4 Vehicle routing and schedulingThe Vehicle Routing and Scheduling Problem (VRSP) concerns the determination of routes and schedules for a fleet of vehicles to satisfy the demands of a set of customers. The basic Capacitated Vehicle Routing Problem (CVRP) can be described in the following way.We are given a set of homogeneous vehicles each of capacity Q, locatedat a central depot and a set of customers with known locations and demands to be satisfied by deliveries from the central depot. Each vehicle route must start and end at the central depot and the total customer demand satisfied by deliveries on each route must not exceed the vehicle capacity, Q. The objective is to determine a set of routes for thevehicles that will minimize the total cost. The total cost isusually proportional to the total distance traveled if the number of vehicles is fixed and may also include an additional term proportional to the number of vehicles used if the number of routes may vary.The CVRP and many of its variants have been well studied in the literature since its introduction by Dantzig and Ramser (1959). Its exact solution is difficult to determine forlarge-scale problems as it is a member of the class of NP-hard problems. Specialisedalgorithms are able to consistently find optimal solutions for cases with up to about 50 customers; larger problems have been solved to optimality in some cases, but often at the expense of considerable computing time.In practice, other variations and additional constraints that must be taken into consideration usually make the vehicle routing problem even more difficult to solve to optimality.So many solution procedures are based on heuristic algorithms that are designed to provide good feasible solutions within an acceptable computing time, but without a guarantee of optimality.There are several books and survey articles that summarize different approaches and provide references to the large number of journalarticles that have been written on this topic (e.g., Golden and Assad 1988; Toth and Vigo 2001). There are many other researchworks about the classical CVRP. Some exact methods have beentailored for this problem (e.g., Laporte and Nobert 1987; Agarwal et al. 1989; Lysgaard et al. 2004;Fukasawa et al.2006). Others have proposed approximate methods and heuristics due to the complexity of the problem and the need to solve it in a reasonable computing time (see Gendreau et al.2002; Laporte and Semet 2002; Cordeau and Laporte 2004; Cordeauet al. 2005). Most of these approaches are based on local search techniques.Most papers assume that the costs and times of traveling between the depot and the customers and between customers are known and fixed. They are either given or calculated using a shortest path algorithm on the graph or network representing the locations. In practice,the times and shortest paths may vary, particularly by time of day. 5 Conclusions This paper has described the field covered by Green Logistics and described some of the new problems that arise when the objectives considered are not simply economic, but involve wider environmental and social considerations too. There are many different types of operational research models that have key roles to play in dealing with Green Logistics issues, but in this paper we have concentrated on describing areas where combinatorial optimization is central to the design of acceptable solutions. It is expected that as environmental factors assume increasing importance, the effective use of combinatorialoptimization theories and techniques will be needed to meet the challengesof new problems.There is a research consortium in the UK working on many different aspects of Green Logistics models and more information can be found on the website of the Green Logistics project. The Green Logistics project includes several work modules that relate to topics covered in this review such as reverse logistics and the effect of vehicle routing and scheduling policies on the Green Logistics agenda.附件1:外文资料翻译译文组合优化和绿色物流摘要:本文的目的是介绍绿色物流领域及描述通过组合优化制定中出现的一些问题。
绿色物流包装英文作文

绿色物流包装英文作文英文:Green logistics packaging is a crucial aspect of sustainable supply chain management. As a consumer, I am aware of the impact that packaging has on the environment and I try to make conscious decisions when choosing products that are packaged sustainably. In my opinion, green logistics packaging should be designed with the following factors in mind:1. Recyclability: Packaging materials should be easily recyclable and made from renewable resources. For example, paper-based packaging is a sustainable alternative to plastic-based packaging.2. Minimalism: Packaging should be designed to use the least amount of material possible while still providing adequate protection to the product. This not only reduces waste but also reduces transportation costs due to lighterweight.3. Reusability: Packaging should be designed to be reusable or repurposed. For example, glass jars can be reused for food storage or as vases.4. Biodegradability: Packaging materials should be biodegradable, meaning they can be broken down naturally by microorganisms in the environment. This reduces the amount of waste that ends up in landfills.中文:绿色物流包装是可持续供应链管理的一个关键方面。
绿色物流 英文作文

绿色物流英文作文Green logistics refers to the transportation and distribution of goods in an environmentally friendly manner. It aims to reduce the negative impact of logisticsactivities on the environment. Green logistics involves various strategies and practices that focus on energy efficiency, waste reduction, and the use of sustainable materials.One important aspect of green logistics is the use of alternative fuels for transportation. Electric vehicles,for example, are becoming increasingly popular in the logistics industry. They produce zero emissions and aremore energy efficient compared to traditional fuel-powered vehicles. By using electric vehicles, companies can significantly reduce their carbon footprint.Another strategy in green logistics is the optimization of transportation routes. This involves using advanced technology and data analysis to identify the most efficientroutes for delivering goods. By minimizing the distance traveled and avoiding traffic congestion, companies can reduce fuel consumption and emissions. This not only benefits the environment but also helps to save costs for businesses.In addition to transportation, green logistics also focuses on packaging materials. Companies are encouraged to use recyclable and biodegradable materials for packaging their products. This helps to reduce waste and minimize the use of non-renewable resources. Furthermore, companies can also implement strategies such as bulk packaging and product consolidation to reduce the overall amount of packaging materials used.To further promote green logistics, collaboration and partnerships are essential. Companies can work together with suppliers, customers, and other stakeholders to develop sustainable solutions. This can involve sharing resources, optimizing supply chains, and implementing joint initiatives to reduce environmental impact. By working together, companies can achieve greater efficiency andsustainability in their logistics operations.In conclusion, green logistics is an important concept in today's world. It focuses on reducing the environmental impact of logistics activities through strategies such as using alternative fuels, optimizing transportation routes, and using sustainable packaging materials. Collaboration and partnerships are key to achieving sustainable logistics practices. By embracing green logistics, companies can contribute to a greener and more sustainable future.。
绿色物流 英文作文

绿色物流英文作文英文:Green logistics is an important topic in today's world. As a responsible citizen, I believe it is our duty to protect the environment and reduce our carbon footprint. Green logistics refers to the process of transporting goods and products using environmentally friendly methods. This includes using electric vehicles, reducing packaging waste, and optimizing transportation routes to reduce fuel consumption.One of the benefits of green logistics is that it reduces the amount of pollution caused by transportation. For example, using electric vehicles instead of diesel trucks significantly reduces emissions. Additionally, using optimized transportation routes reduces the amount of fuel used, which also reduces emissions. This not only benefits the environment but also helps to improve air quality, which is important for our health.Another benefit of green logistics is that it can save money. For example, reducing packaging waste means thatless material is needed, which can result in cost savings. Additionally, optimizing transportation routes can reduce fuel consumption, which can also save money.In conclusion, green logistics is an important concept that we should all strive to implement. By using environmentally friendly methods to transport goods and products, we can reduce our carbon footprint and protectthe environment. Not only does this benefit the environment, but it can also save money in the long run.中文:绿色物流是当今世界上的一个重要话题。
物流英语 第十章

Translate Chinese into English:
• 1.绿色物流是经济全球化和可持续发展的要 求。 • 2.绿色物流是最大限度降低经营成本的必由 之路。 • 3.绿色物流还有利于企业取得竞争优势。 • 4.绿色仓储和保管是指运用科学的仓储技术 和保管策略与方法,防止货物的损坏,减 少环境污染。
• True or false: • 1.Green transportation is refer to increase the pollution of exhaust gas, noise, tries to save the building and maintains fee of transportation. • 2.Green warehousing and storage means to use scientific warehousing and storage strategy and methods, in order to avoid the damage of goods and reduce the pollution to the environment. • 3.Green logistics management require the enterprise to take the environment protection mindset into enterprise operation only in the lowest level. • 4.Reduce: use new technology, new methods to reduce the emission of pollution.
• The mind set can be summarized as “5R”: • 1)Research: take environment protection mind set into company strategy decision; pay more attention to study the environment protection policy of enterprise. • 2)Reduce: use new technology, new methods to reduce the emission of pollution. • 3)Reuse: change the traditional product into green product through R&D, and • innovation • 4)Recycle: retrieve the waste goods and make it recycle. • 5)Rescue: take part in the environment protection activities actively.
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文献出处:Fransoo J C. Green Logistics: Enablers for Sustainable Development [J]. Supply chain management: an international journal, 2014, 8(2): 122-131.原文GREEN LOGISTICS: ENABLERS FOR SUSTAINABLE DEVELOPMENTJan C. FransooEindhoven University of Technology, Netherlands1 INTRODUCTIONLogistics is the backbone of industry and commerce. As a discipline, it describes the management and coordination of activities along supply chains. These activities include freight transport, storage, inventory management, materials handling and related information processing. A large part of logistics activities are often outsourced to specialized providers that provide cost- effective services. Research has shown that, at least in high income economies, the value of services is not assessed in monetary and service quality terms alone. In making decisions, logistics professionals are increasingly taking into consideration external effects such as emissions, pollution, noise, and accidents.The last LPI report release in 2012, for instance, pointed out that in shipments to OECD countries, environmentally friendly solutions are considered far more often than elsewhere. Mounting regulatory pressure, together with changes in customer preferences, are the main drivers of this phenomenon. One of the more widely used terms to describe this set of preferences is green Logistics, especially when the activities of logistics service providers are concerned.Research, including a recent book by Alan McKinnon, has established that green Logistics is an emerging concern of private operators and providers and users of logistics. From a policy standpoint, and especially for the global environment, green Logistics is potentially a major topic as well: estimates vary, but about 15% of global greenhouse gas emissions (GHG) can be traced to logistics activities.Green Logistics may not be an independent policy area. Rather, the supply chainperspective provides a framework to understand and deal with issues that are separate but ultimately interrelated. Importantly, looking at supply chains helps policy makers understand the interests and actions of private sector operators. Green Logistics may therefore propose a number of tools and identify emerging sustainable solutions contributing to the overarching objective of green Growth.From a policy perspective, logistics cut across several areas and sectors. The performance of supply chains depends on areas or activities where government as regulator or catalyst of investment is critical, such as:Transport infrastructure: road and rail corridors, ports and airportsThe efficiencies of logistics services: services include not only modal freight transport, but also warehousing and intermediary services, such as brokers and forwarders, and related information-flow management. In modern economies, the trend is towards integration in multi-activity logistics providers (3PLs, 4PLs) to which industrial and commercial firms outsource their supply chain activities. Understanding the regulatory dimension of services is becoming increasingly critical to the development of effective policies in areas such as: professional and operational standards, regulation of entry in market and professions, competition, enforcement.Procedures applying to the merchandise, such as trade procedures (customs and other controls).The soft infrastructure that supports information or financial flow associated with the physical movements along supply chains: IT infrastructure, payment systems.The concept of national logistics performance capturing the outcome of these policies is widely recognized by policy makers and the private sector worldwide as a critical contribution to national competitiveness. A key question for sustainable development is how to integrate supply chain participants concern with environmental sustainability with the concept of national logistics performance.Within logistics, transport creates the largest environmental footprint. But the volume of emissions can vary greatly, depending on the mode of transport. The volume of emission per ton per km increases by an order of magnitude from maritime to land transportation and to air transportation. This is a key environmental aspect oflogistics that is not taken into consideration by most supply chain operators. Logistics experts typically integrate freight modes and other related activities so that the transport and distribution network is used in the most efficient manner, which is important for keeping emissions in check, as well. Depending on the type of industry and geographical region, supply chain operators can place varying emphasis on the reliability of supply chains, as well. In summary, supply chain choices typically include multiple criteria and trade-offs, and this makes an analysis of their environmental impact complex; the most environmentally friendly choices do not only depend on mode of transportation, but also on other elements, such as efficiency and reliability.To reduce the environmental footprint of a supply chain, the focus should be on several dimensions and should select the best mode of transport, efficient movements, and innovation. Comprehensive work on greening individual modes of transportation is already available. Here, the key drivers have been energy efficiency and the urge to diminish various types of emission. Given the integrated nature of supply chains, however, the manner in which price signals and incentives catalyze supply chain structure is a rather intricate problem: lower- emission modes of transport (maritime, e.g.) are typically also less reliable or have other limitations (such as maritime access to a landlocked country). Such limitations may include the cost of such technologies, the temperature range within which they can be used or the availability of certain types of fuel. It is therefore critical to complement the current knowledge about emissions produced by different modes of transportation with an understanding of what drives the demand for Green Logistics within supply chains.The emerging response is likely to take the form of top-down policy, such as measures in the form of standards or taxes addressing emissions (GHG, SO2, NOx) by mode of freight. For instance, a cap on SO2 emissions on major maritime routes will go into effect at the end of 20152. At least as important is the response from the bottom up. These are supply-chain strategies coming from the private sector in response to policy or price changes, but also demand from consumers, clients and stake-holders. Green Supply Chain management has to be taken seriously by policymakers.An exclusive focus on price mechanism (including taxes), as is the current tendency, may miss some of the major driver of changes in supply chain management. Another complication, at least in the context of international trade, is that the focus on the impact on international logistics does not capture the footprint of production processes. These processes may have different impact than the supply chain itself, as in the case of food production.There is also evidence that much of the environmental footprint of logistics operations is tied to short distances and distribution. Green Logistics is intimately linked with concerns such as urban congestion, and innovations in Logistics are critical to sustainable supply chains. Grassroots innovations in Logistics have recently flourished, often producing win-win solutions in terms of jobs and the environment. More generally, there is increasing awareness that green supply chains can be also competitive, either because the awareness of the environment helps productivity or because consumers expect it, particularly in wealthy countries.A concrete case in point is also the so-called sulphur emission regulation by IMO that enters into force on January 1, 2015 in most of North Sea, Baltic Sea and along west and east coasts of US & Canada (bar Alaska). Ships have to go over from fuel with 1.5 % sulphur to 0.1 % sulphur or invest in so-called scrubbers, that absorb the sulphur from exhaust gases; technology that is still nascent in the maritime context. Scrubber investment per cargo ship is USD 2 million and uo with multiples as the ship engine size increases, with annual maintenance cost approx.. 7-10 % of investment. This seemingly innocent and rather technical change is going to have a huge impact on shipping and the spillover effect to other modes & Supply chains are goi ng to be significant Green Logistics also encompasses potentially longer-term concerns. A green focus within logistics analysis could examine a supply chain vulnerability to climate events or to large swings in the price of transport inputs, for instance. A recent volcanic episode in Iceland showed the vulnerability of one specific supply chain that relies heavily on air freight fresh produce coming from Africa spoiled when flights were cancelled because of the volcanic ash. Resilience concerns and other form ofuncertainty are likely to shape supply chain choices by regional and global operators. Given the importance of trade in components and intra-firm trade, how large operators develop green supply chain strategies will have profound economic impact. Resilient and greener supply chains are likely to be less extended and leaner, for example, though the consequences for trade and integration of low income economies cannot be treated fully here.Policy makers should be concerned by both the supply and demand aspects of logistics environmental dimensions. So far, the policy focus has been on modal footprint and has not taken into account a supply chain perspective. There have not been major initiatives in Green Logistics, even in the countries most sensitive to the issue, such as those in Northern Europe. Rather the most important changes have occurred as a combination of largely uncoordinated public and private initiatives: voluntary behavior by shippers, innovation in terms of technology, information (environmental logistics dashboard) or services, or common public-private objectives such as in modal shifts.2DEFINING GREEN LOGISTICS AND GREEN SUPPLY CHAIN MANAGEMENT There are many variations in the terminology regarding green logistics and green supply chain management. This section aims at providing a brief overview on some of the key terms used in the literature.Green logistics refers mainly to environmental issues related to transportation, material handling and storage, inventory control, warehousing, packaging, and facility location allocation decisions (Min & Kim, 2012). Gonzalez-Benito and Gonzalez-Benito (2006) use the term environmental logistics to describe logistics practices that are divided into supply/purchasing, transportation, warehousing and distribution, and reverse logistics and waste management. Although distribution is considered to be one of the interrelated areas of supply chain management, the term green distribution has also been used to describe the whole process of integrating environmental concerns into transportation, packaging, labelling and reverse logistics (Shi et al., 2012).Reverse logistics is often used as a synonym to efforts to reduce theenvironmental impact of the supply chain by recycling, reusing and remanufacturing. However, originally green logistics was used to describe the movement of the material against the primary flow in the form of commercial returns, wrong deliveries and recalls etc., i.e. from the customer towards the producer. (Rogers & Tibben-Lembke, 2001.) In addition to reverse logistics, closed-loop supply chain has also been used to emphasize that the reverse flow of material (e.g. Zhu et al., 2008). However, the activities motivated mainly by environmental concerns might be better labelled as green reverse logistics (Hazen, Cegielski & Hanna, 2011) or in the more general terms of green or environmental logistics (Rogers & Tibben-Lembke, 2001) instead of reverse logistics or closed-loop supply chains.The above-mentioned concepts are mainly used to describe the actions taken by the logistics service provider side. Green supply chain management (GSCM) is a more extensive concept that has been gaining increasing interest among practitioners and academia and is mainly directed towards manufacturing companies. The term implies that the focus of environmental management has shifted from a facility or organization level to supply chain level (Linton et al., 2007). Srivastava (2007) defines that GSCM is integrating environmental thinking into supply chain management, including product design, material sourcing and selection, manufacturing processes, delivery of the final product to the consumers as well as end-of-life management of the product after its useful life.GSCM is also known as environmental supply chain management (ESCM) (e.g. Zsidisin & Siferd, 2001;Walker et al., 2008). Some authors (e.g. Seuring & Meller, 2008; Craig & Carter, 2008) use sustainable supply chain management (SSCM) as a synonym of GSCM or ESCM although they mostly focus on the environmental aspect of sustainability, thereby paying less attention on economic and social aspects. According to Zhu et al. (2005) GSCM is strongly related to inter-organisational activities such as industrial ecosystems, industrial ecology, product life cycle analysis, extended producer responsibility and product stewardship.GSCM is often described to consist of green purchasing, green manufacturing, green distribution/green marketing and reverse logistics (Hervani et al., 2005). Greenor environmental purchasing or green supply refers to efforts to improve environmental performance of purchased inputs or of suppliers that provide them (Bowen et al., 2001). Green manufacturing is typically tried to be achieved by various types of environmental practices, such as pollution control, pollution prevention and product stewardship (Hart, 1995). The definitions of GSCM emphasize that environmentally conscious practices are evident in all stages of the supply chain and the product life-cycle (Hervani et al., 2005). Furthermore, Vachon and Klassen (2006) divide these green supply chain management practices into two sets: one of them being environmental monitoring and the other environmental collaboration. In the former the focus is on arm length transaction in which the buying organisation evaluates and monitors its suppliers, and in the latter the environmental solutions are developed jointly.GSCM activities aim at achieving market advantages and profits while reducing environmental impacts. One generally used concept to measure the effect of supply chain activities on natural environment is the environmental or ecological footprint. It accounts for human demand on global biological resources and compares the level of consumption with the available amount of bioproductive land and sea area and has been designed to show whether this ustainability threshold is exceeded (Wiedmann & Barrett, 2010). Lately the use of carbon footprint has increased rapidly but the question still remains whether it should contain only carbon dioxide emissions or other greenhouse gas emissions as well (Wiedmann & Minx, 2007).The increasing interest in environmental issues has led to the development of voluntary environmental management systems. Environmental management systems (EMS) is collection of internal efforts at formally articulating environmental goals, making choices that integrate the environment into production decisions, identifying opportunities for pollution (waste) reduction and implementing plans to make continuous improvements in production methods and environmental performance (Khanna & Anton, 2002). The most commonly used framework for an EMS is developed by the International Organization for Standardization (ISO) for the ISO 14001 standard. In addition, for example the European Parliament has created its ownenvironmental management system, EMAS. (Gonzalez et al. 2008.) In order to obtain a certification an environmental audit conducted by a registered external auditor is required (Rondinelli & Vastag, 2000).Different types of actors can use different approaches to contribute to environmental sustainability. These approaches can be viewed from macro and micro perspective. Actions in the macro domain are taken by governments and other legislative authorities, while in the micro domain the actions are taken by the companies (Aronsson & Huge-Brodin, 2006). When viewed from a supply chain perspective, the micro domain can be further divided into the logistics service users (manufacturing, trading) and logistics service providers. The decisions concerning the actions to be taken can be made at different levels: strategic, tactic and operational. Each level indicates different scope and time span of the decision. In general, the policy makers decisions are prepared for several months and even years beforehand, whereas logistics service providers and users also make plenty of day-to-day decisions. Figure X illustrates some of the actions taken by different actors that impact on the environmental footprint. It is not meant to be conclusive but to provide some examples on what kinds of activities affect the environmental footprint. Table 1: Actions Taken by Different Actors to Impact the Environmental Footprint.Management can take several approaches to greening the supply chains. Some firms choose to be reactive and commit minimal resources, while more proactive firms may choose to seek value by strategically committing to environmental sustainability and by integrating environmental policy in strategy. (van Hoek, 1999.) Formulating environmental strategy is equally important for both logistics service users and providers. An environmental management system (EMS) can be implemented to address environmental practices within the organisation. It is used to formally articulate environmental goals, to make choices that integrate the environment into production decisions, and to identify opportunities for pollution reduction and to implement plans to make continuous improvements (Khanna & Anton, 2002.) The two most widespread EMSs in Europe are ISO 14 001 and EMAS (Gonzalez, Sarkis & Adenso-Diaz, 2008).Green purchasing or green supply attempts to improve environmental performance of purchased inputs or of suppliers that provide them (Bowen et al., 2001). Green purchasing enables to specific issues, such as to reduction the waste produced, to substitute material through environmental sourcing of raw materials and to minimize the use of hazardous materials (Rao & Holt, 2005), e.g. through materials that are either recyclable or reusable, or have already been recycled. Supplier selection is an important decision at this stage. (Sarkis, 2003.) Supplier evaluation and development forms another important part of green purchasing (Zsidisin & Siferd, 2001). The survey study by Holt and Ghobadian (2009) revealed that over 50 % of UK manufacturers used informal supplier assessment and evaluation practices and over 30% used formal systems. Greener production is typically addressed through various types of environmental practices, such as pollution control, pollution prevention and product stewardship (Hart, 1995). It can be achieved by using renewable and recycled materials and by incorporating reverse logistics so that wasted generated in the production processes are processed and recycled into the production phase (Rao & Holt, 2005).There is a growing trend to outsource transport and logistics services to third party logistics service providers. Logistics service buyers increasingly ask for information on environmental performance of logistics service providers. (Wolf & Seuring, 2010.) Network design, planning and management are some of the pivotal issues to be considered by logistics service providers. Environmental sustainability usually calls for fewer shipments, less handling, shorter movements, more direct routes and better space utilization. Network design has an impact on fill rate, e.g. by increasing the size of warehouses, by centralizing distribution and by changing the location of warehouses. Consolidation is a central aspect to logistics systems on many levels, since consolidation of freight affects fleet size, vehicles, container and package sizes. (Aronsson & Huge-Brodin, 2006.) Other operational measures include e.g. educating and training drivers on eco-driving leads to reductions in fuel consumption (Helmreich, Bonilla, Akyelken, &Weiss, 2009).Although the supply chain to the retailers were optimized in terms ofenvironmental sustainability, the importance of mile deliveries cannot be underestimated. Browne, Rizet, Leonardi and Allen (2008) note that personal shopping trips can use more energy than the whole supply chain before, even if production is included. Hence, the consumers should be made aware of the environmental effects of their shopping behavior. Growing online retail can reduce these effects and retailers can actively aim at reducing their share by e.g. consolidating orders and by adopting off-peak/out-of-hours deliveries, allowing delivery vans to run more of their mileage at fuel-efficient speeds. (Edwards, McKinnon & Cullinane, 2009.)In the macro domain, the harmful effects of logistics have been recognized long ago. The transport strategy of the European Union highlights development needs towards sustainable transport and promotes multimodal and rail transport (European Commission white paper, 2011). Several policy instruments used by legislative bodies have long-term impacts on the supply chains. European commercial air transport and energy intensive manufacturing sectors are subject to the European Union Emissions Trading System (EU ETS).According to European Commission (2013a), the EU ETS is cornerstone of a cornerstone of the European Union's policy to combat climate change and its key tool for reducing industrial greenhouse gas emissions cost-effectively. The system applies to emissions of carbon dioxide (CO2) from power plants, energy-intensive industry sectors and commercial airlines. The EU ETS works on the 'cap and trade' principle. A 'cap' refers to the limit of the total amount of certain greenhouse gases that can be emitted by the factories, power plants and other installations in the system.译文绿色物流:促进可持续发展(5000多字)贾恩. 法兰斯1. 引言物流是工商业的支柱。