White Paper Life Cycle Assessment and Product Carbon Footprint



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White Paper Life Cycle Assessment and Product Carbon Footprint Fujitsu ESPRIMO E9900 Desktop PC Climate change is one of the most important global challenges that society of the 21st century faces. According to the Intergovernmental Panel on Climate Change (IPCC), it is necessary to limit the average temperature to two degrees towards the pre-industrial level in order to minimize the risks of global warming. This means that Greenhouse gas emissions, which are the main reason for climate change, have to be reduced by at least 80% by 2050 as compared to 1990. The rapidly developing ICT industry, whose products now dominate almost all aspects of daily life, can help to reach this target. Fujitsu, as a leading provider of ICT-based business solutions for the global marketplace, has recognized that they have a responsibility in terms of reducing greenhouse gas emissions and other environmental impacts. In order to gain insights about the environmental impacts and scientifically proven information of our products we commissioned a Life Cycle Assessment (LCA) study. By means of these results we have attained a transparency along the supply chain, which shows us and our customers potential for improvements in terms of reducing environmental impacts. Life Cycle Assessment Fujitsu Technology Solutions GmbH assigned the bifa environmental institute to carry out a Life Cycle Assessment (LCA) for the Desktop ESPRIMO E9900 based on the international standards ISO 14040 and ISO 14044. The LCA underwent a critical review by the Fraunhofer Institute for Reliability and Microintegration. The Desktop ESPRIMO E9900 is a reliable, power-saving small form factor PC which is EPEAT silver, ENERGY STAR 5.0, Blauer Engel and Nordic Swan qualified and registered. Figure 1: Desktop ESPRIMO E9900 Page 1 of 5

Product specification: Intel Core i5-670 processor 2 x 2GB DDR3 memory 250 GB hard disk drive Supermulti optical drive NVIDIA Geforce 9500 GS graphics card Microsoft Windows 7 Professional operating system: The following impact categories have been selected in order to assess the environmental performance of the Desktop ESPRIMO E9900: Greenhouse effect: climate change Fossil cumulative energy demand: consumption of fossil fuels Acidification: acidic rain Terrestrial eutrophication: over-fertilization of soils by atmospheric emissions Aquatic eutrophication: over-fertilization of water bodies by atmospheric and water emissions Photochemical oxidant formation: ozone smog Human toxicity: toxic damage to man and organisms Eco-toxicity: toxic damage to organisms and eco-systems The life cycle of the examined Desktop E9900, including mouse, keyboard, manuals and packing, covers the following sections: Pre-products, supplies, energy, transports, etc. material material Transport/ Use Use phase phase Disposal/ Disposal/ Recycling Recycling Air emissions, water emissions, waste, co-products etc. Figure 2: Sections of the Life Cycle Assessment (source: bifa) Materials: Include extractions, treatment, supply of raw materials, manufacturing of subassemblies and the energy consumption of all these processes. The following components have been taken into account: Chassis, power supply Mainboard components and printed circuit board Processor (CPU), processor cooler, memory, graphic card incl. heat sink Hard disk drive (HDD), optical disk drive (ODD) Cable, mouse, keyboard Manuals, packaging : Mainboard and desktop assembly in the Augsburg plant include: Energy supply Scrap and waste management Installation software System test Page 2 of 5

Transport/: Almost all routes have been considered including the transport of: Subassemblies from manufacturing in China to assembly in Augsburg by ship and airplane respectively Desktops from the Augsburg plant to the distribution centre by large truck and after that to the customer by van and car respectively or from the Augsburg plant to the customer directly by large truck Desktops from the customer to the place of collection by car and following to our recycling centre in Paderborn by mid-sized truck Use phase: The following definition of the use phase is determined by: An average lifetime of 5 years Typical annual energy consumption: 113.6 kwh/year calculated similar to the energy calculation of Energy Star, described and published in https://globalsp.ts.fujitsu.com/dmsp/docs/wp-energy-esprimo-e9900-estar5.pdf ( Busy Office profile and 260 working days) Use phase of the desktop in Germany and for comparison in Europe, Great Britain, France and Scandinavia in terms of sensitivity analyses (country specific energy mix) Spare parts: processor, memory, mainboard, optical disk drive, hard disk drive, graphic card, power supply, keyboard, mouse (in relation to total failure rates) Recycling: The following conditions are assumed: Recycling rate including thermal recovery: >90% The desktop is recycled after the anticipated lifetime of 5 years No components are reused or resold (assumption only!) Dismantling process in Paderborn almost exclusively by hand Main material and components: iron, aluminum, copper, plastics, power supply, printed circuit boards, cable Additional recycling of keyboard, mouse, packaging and manuals is considered Product Carbon Footprint of the Desktop ESPRIMO E9900 The greenhouse gas (GHG) emissions have been identified as the most relevant indicator for environmental performance. The results of the calculation were used to assign the product carbon footprint over its entire life cycle. The product carbon footprint includes the contribution of GHG emissions to global warming in kg of CO 2 equivalents (CO 2eq ). In a sensitivity analysis of the use phase, the footprint of the desktop was also assessed for several countries (Europe, Great Britain, France and Scandinavia) because of the different energy mixes, which have a big impact on the carbon footprint of the product. The total amount of carbon emissions comprises mainly the use phase and the raw materials. The greenhouse gas emissions resulting from the use phase are caused exclusively by energy consumption during the use of the product. The replacement of spare parts has almost no influence on the results. 5% 42% Materials The emissions resulting from raw materials primarily originate from the production of components and the printed circuit board for the mainboard as well as from the production of memory, graphic card and power supply which are based on the Chinese energy mixes in energy supply subnets and the wafer production for integrated circuits. 52% 1% Figure 3: Share of the total Product Carbon Footprint of the desktop ESPRIMO E9900 Use phase Transport/ The mainboard and desktop assembly in Augsburg (Germany) contributes a very low share to the total footprint. This share mainly consists of the energy consumption for the manufacturing plant. Almost all pre-products (excluding mainboards) are produced in Asia, particularly in China. The transport to our assembly in Germany takes place either by ship or by plane. Page 3 of 5

Only high-value components, such as processors or hard disk drives, are delivered by plane. High volume components like chassis or power supply units are transported by ship. Transport to the customer (by truck) and to the recycling centre (by car and truck) with an assumed average value has a lower impact on the result. Through the reuse of resources in our recycling centre in Paderborn, we can reduce the environmental impact of our products. This includes electricity and heat from incineration and secondary raw materials from recycling. These avoided impacts are balanced out and credited to the environmental impacts of the respective product. Results of sensitivity analysis: Use phase The use of the desktop in Germany is applied for the base scenario. For the sensitivity analysis the results were derived from using the desktop in Europe, Great Britain, France and Scandinavia. This means that the German energy mix for energy supply in the use phase has been replaced by the corresponding energy mixes from the other countries and regions. 800 700 600 500 kg CO 2 equivalents 400 300 200 100 0 100 Germany Europa Great Britain France Scandinavia Recycling Transport Materials Use phase Figure 4: Total Product Carbon Footprint of the desktop ESPRIMO E9900 for the usage in different countries with specific energy mixes If the ESPRIMO E9900 Desktop PC is used in Germany with its big share of coal and lignite for power generation, it causes approximately a total amount of 700 kg CO 2eq over its lifetime of 5 years. On the other hand, the use of the same desktop in France, which has a large share of nuclear power, causes a carbon footprint of approximately 380 kg CO 2eq. With approximately 430 kg CO 2eq, the usage of the desktop in Scandinavia also has a lower footprint because of its considerable proportion of renewable energy. These results show that the use phase and, therefore, the total amount of the carbon footprint depend highly on the energy supply/energy mix of the power generation in the respective country. Measures of Fujitsu to reduce Product Carbon Footprint The Fujitsu Group has set global targets for reducing CO 2eq emissions worldwide by 15 million tons over a four-year period from fiscal year 2009 to fiscal year 2012. These efforts include reducing emissions of CO 2eq due to energy consumption and other greenhouse gases at our factories and offices and reducing emissions associated with transportation. Furthermore, we are working to prevent global warming by our customer, industry and society in general by developing IT products that achieve energy savings and by providing IT solutions that have the effect of reducing environmental burdens. /manufacturing: Fujitsu has set the goal to reduce total greenhouse gas emissions associated with manufacturing and assembly globally to 6% below fiscal year 1990 levels by end of fiscal year 2012 through optimizing the amount of energy and raw materials used in manufacturing processes and switching to alternatives with a lower environmental burden. Page 4 of 5

Transport/distribution: In order to reduce the environmental impact associated with transport, Fujitsu is working to reduce its CO 2eq emissions through modal shifts, promoting the effective utilization of railroad and sea transportation and reducing the proportion of air transport. Additionally, we are promoting reduce, reuse and recycle efforts for packing products and parts in order to reduce the environmental burden of the distribution process. Use phase: The main area to reduce the Product Carbon Footprint is the use phase; in this section the biggest savings of emissions are possible. In order to reduce the energy consumption of the products, we focus on developing and producing energy efficient products like small desktops, thin clients and zero clients. Also, we give our customers recommendations on how to reduce the footprint of their product and thereby take an active part in climate protection. http://ts.fujitsu.com/aboutus/company_information/business_excellence/environmental_care/energy_tips.html Recycling: In accordance with the concept of Extended Producer Responsibility (EPR), the Fujitsu Group carries out recycling programs that comply with the waste disposal and recycling laws and regulations of the various countries in which it operates. We also try to carry out as much collection, reuse and recycling as we can in countries where recycling is not obligatory keeping in line with the concept of Individual Producer Responsibility (IPR). http://ts.fujitsu.com/recycling Lessons learned The calculation of an absolute and comparable value for a product carbon footprint during the entire life cycle of a product is not possible at the moment. The reasons are a lack of common standards and methodologies. Nevertheless, we have attained a good transparency concerning CO 2eq -emissions along the entire value chain of the product in order to identify potential for additional reduction of emissions. Further insights: Continue activities for further improvement of the energy efficiency of the desktop PC. Intensify information for users regarding their possibilities to reduce the energy consumption in use phase. Avoid sole focus on energy efficiency of desktop PC although use phase is a key factor in the greenhouse effect as raw materials are a key factor for several other impact categories. Continue communication with suppliers about their possibilities to reduce environmental loads. Continue and spread intensive recycling activities because recycling provides important positive effects in aquatic eutrophication and toxic and eco-toxic parameters. Due to the significant influence of a high proportion of transport by airplane, we keep in mind that it is advantageous for the environment to perform assembly close to the end user. In future, with an increasing share of renewable energy, the influence of the use phase on the CO2eq -emissions will decrease. From a mid to long-term perspective, the importance of rising non-use life cycle phases, means a higher impact especially from raw materials. Acknowledgment: The project team was cross-functional involving multiple internal and external partners especially the Bavarian bifa environmental institute (for analytical support) and the Fraunhofer Institute for Reliability and Microintegration (for critical review). Contact FUJITSU Technology Solutions E-mail: wps.info@ts.fujitsu.com Website: http://ts.fujitsu.com 2010-11-29 CE EN All rights reserved, including intellectual property rights. Technical data subject to modifications and delivery subject to availability. Any liability that the data and illustrations are complete, actual or correct is excluded. Designations may be trademarks and/ or copyrights of the respective manufacturer, the use of which by third parties for their own purposes may infringe the rights of such owner. For further information see http://ts.fujitsu.com/terms_of_use.html Copyright Fujitsu Technology Solutions GmbH 2010 Page 5 of 5