ArcelorMittal S.A. is a multinational steel manufacturing corporation headquartered in Avenue de la Liberté, Luxembourg. It was formed in 2006 from the takeover and merger of Arcelor by Mittal Steel. ArcelorMittal is the world's largest steel producer, with an annual crude steel production of 93.6 million tones as of 2012. It is ranked 91st in the 2013 Fortune Global 500 ranking of the world's biggest corporations. Wikipedia.
Agency: Cordis | Branch: FP7 | Program: CP | Phase: ENERGY.2013.5.1.1 | Award Amount: 7.34M | Year: 2014
Calcium Carbonate Looping (CCL) is a promising long-term technology for low-cost post combustion CO2 capture for fossil fuels using limestone based solid sorbents. It combines the advantages of a small efficiency penalty of 5 to 7 % points and a low CO2 capture cost compared to competing technologies currently under development. First tests performed on the 1 MWth scale have confirmed the feasibility of the technology. Construction of a pilot plant in the order of 20 MWth is a logical next step in the development of this technology. One major goal of the proposed project is to perform long-term tests with different fuels in an upgraded 1 MWth pilot plant, aiming mainly at optimization of operating conditions and operational reliability. The successful operation of the upgraded pilot will provide the important validation step between the 1 MWth scale and a future 20 MWth scale pilot plant. Process and CFD models will be developed and comprehensively validated against experimatal data from 1 MWth testing. These models will be applied to support the engineering for a 20 MWth scale pilot plant. The project will provide a techno-economic as well as an environmental assessment of this high-potential technology for CO2 capture from power plants as well cement and steel production plants, and provide the fundamental expertise needed for the scale-up and further technology development and integration.
Agency: Cordis | Branch: H2020 | Program: CSA | Phase: SPIRE-04-2014 | Award Amount: 497.52K | Year: 2015
The SPIRE Roadmap calls for an industry-focused study of current sustainability assessment approaches across the process industries, with the aim of identifying and promoting a suitable toolkit. Project STYLE is an industry-led consortium representing a broad spread of process industry sectors with numerous products that cross sector boundaries through their value chains. Partner organisations (Britest, ArcelorMittal, Carmeuse, Holcim, RDC Environment, IVL, Solvay, Tata Steel, Utrecht University and Veolia) bring together a wealth of knowledge and experience in the use of tools for sustainability assessment. Active stakeholder engagement/support from public and private sector organisations, national standardisation bodies and industry associations from project inception, will ensure focus and clarity in addressing the challenges identified in the call. Project STYLE has three key objectives, to: 1. Identify best practice in sustainability evaluation, across sectors and through value chains via inventory and classification of established approaches. 2. Test and deliver a practical toolkit for sustainability evaluation of processes and products, spanning multiple sectors and easily usable by non-practitioners of LCA. 3. Determine gaps, through critical assessment and validation, and identify future research needs to improve the toolkit and ensure broad applicability across sectors. Industrial partners in the project will provide the cross-sectoral case study opportunities for testing existing partner tools and selected tools identified through the inventory and classification stages. The research and consultancy partners will ensure that the project methodology is rigorous, sufficiently wide-ranging and that recommendations are validated and consistent with the best world-wide standards. Dissemination of project outputs via and in collaboration with the stakeholder groups will promote uptake and increase the EU knowledge base for sustainability evaluation.
Agency: Cordis | Branch: H2020 | Program: RIA | Phase: SPIRE-06-2015 | Award Amount: 5.19M | Year: 2015
Out of the community created by SPIRE covering industrial and research actors throughout Europe, the EPOS project brings together 6 global process industries from 6 key relevant sectors: steel, cement, minerals, chemicals, bio-based/life science products and engineering. Together they represent 166 bn in sales with 75% of their production located in Europe. The 6 industries joined forces with 2 excellent science institutes and 4 highly R&I minded SMEs, building the EPOS consortium with Ghent University as coordinator. With the aim of reinforcing competitiveness of the EU industry, it is the ambition of the EPOS partners to gain cross-sectorial knowledge and investigate cluster opportunities using an innovative Industrial Symbiosis (IS) platform to be developed and validated during the project. The main objective is to enable cross-sectorial IS and provide a wide range of technological and organisational options for making business and operations more efficient, more cost-effective, more competitive and more sustainable across process sectors. The expected impact is clearly in line with the SPIRE roadmap - and sector associations, city councils (in the districts where EPOS is deployed), the SPIRE PPP as well as standardisation bodies are committed to participate in the EPOS transdisciplinary advisory board. The EPOS project spans 48 months and its structure builds on activities that ensure the project challenge is addressed in an optimal way, including cross-sectorial key performance indicators, sector profiles and cross-sector markets, IS toolbox development, training and validation of the (simple and single) IS management tool in 5 clusters strategically located throughout EU (i.e. France, Poland, Switzerland and UK). Entire work packages are dedicated to dissemination and to define realistic business scenarios for the exploitation of the EPOS tool and the proven, overall cost-reducing IS cluster activities, in view of a wide uptake and a broad EPOS outreach.
Agency: GTR | Branch: EPSRC | Program: | Phase: Research Grant | Award Amount: 3.23M | Year: 2014
The manufacturing and processing of metals to form components is one of the largest industrial sectors and accounts for 46% of all manufactured value, with an economic value to the EEA of Euro 1.3 trillion annually. Material security concerns the access to raw materials to ensure military and economic sufficiency. We will face major future challenges as key elements will be increasingly in short supply with consequent price volatility (the ticking time bomb). Equally, many materials rely on strategic elements for which supply is not guaranteed, with rare earth elements being the prime example (central to the performance of magnesium alloys). Metals production consumes about 5% of global energy use and is responsible for an annual emission of over 2Gton of CO2, so efficiency in manufacture can produce significant reductions in environmental impact. The recent report Material Security: Ensuring resource availability for the UK economy from the TSB noted the importance of material security has increased due to limited short-term availability of some raw materials, widespread large increases in raw material prices, oligopolistic industry structures and dependence on a limited number of sometimes politically unstable countries as sources of key materials. Furthermore, The issue of sustainability has attained unprecedented prominence on both national and international agendas, occupying the minds of businesses and governments as never before... Resource efficiency has a key role to play in mitigating wider issues such as depletion of resources, environmental impact and materials security, and it also contributes significantly to the low-carbon economy. Addressing resource efficiency in metals production and use requires that new metal alloys be developed specifically to reduce reliance on strategic and scarce elements, for recycling and for disruptive manufacturing technologies that minimise waste. The size of the problem is too large to be undertaken by the traditional matrix experiment. Rather, a wide range of state-of-the-art modelling, experimental and processing skills needs to be brought together to target resource efficiency in metallic systems. In the DARE approach we use basic science to come to an understanding of the role of strategically important elements, to design new alloys with greater resource efficiency and to optimise the processing route for the new alloys to give supply chain compression. Unique to the DARE approach is to bring manufacturing into the centre of the alloy design paradigm. The combined themes will tackle key metal alloys, including ultra-high strength, low alloy and nanostructured steel (e.g. for a resource efficient approach to vehicle light weighting to give reduced automotive emissions); titanium alloys and titanium aluminides (e.g. for aerospace applications) and Mg alloys (e.g. in automotive and military applications, for example, cast gear box casings). The research team and their ten industrial partners will deliver actual materials and implementation into industry, moving the resource efficiency agenda from the sphere of policy into the real economy. We will support the growth of the high-value UK speciality metals manufacturing industry by developing and exploiting the DARE approach to the design of alloys that improve the resource efficiency and flexibility with regard to fluctuating material availability of the UK manufacturing economy, addressing the EPSRC grand challenges in transitioning to a low-carbon society. This will help existing UK world-leading industries to expand and manufacture for the future.
Agency: Cordis | Branch: H2020 | Program: RIA | Phase: EE-18-2015 | Award Amount: 4.00M | Year: 2015
Waste heat recovery systems can offer significant energy savings and substantial greenhouse gas emission reductions. The waste heat recovery market is projected to exceed 45,0 billion by 2018, but for this projection to materialise and for the European manufacturing and user industry to benefit from these developments, technological improvements and innovations should take place aimed at improving the energy efficiency of heat recovery equipment and reducing installed costs. The overall aim of the project is to develop and demonstrate technologies and processes for efficient and cost effective heat recovery from industrial facilities in the temperature range 70 oC to 1000 oC and the optimum integration of these technologies with the existing energy system or for over the fence export of recovered heat and generated electricity if appropriate. To achieve this challenging aim, and ensure wide application of the technologies and approaches developed, the project brings together a very strong consortium comprising of RTD providers, technology providers and more importantly large and SME users who will provide demonstration sites for the technologies. The project will focus on two-phase innovative heat transfer technologies (heat pipes-HP) for the recovery of heat from medium and low temperature sources and the use of this heat for; a) within the same facility or export over the fence; b) for generation of electrical power; or a combination of (a) and (b) depending on the needs. For power generation the project will develop and demonstrate at industrial sites the Trilateral Flush System (TFC) for low temperature waste heat sources, 70 oC to 200 oC and the Supercritical Carbon Dioxide System (sCO2) for temperatures above 200 oC. It is projected that these technologies used alone or in combination with the HP technologies will lead to energy and GFG emission savings well in excess of 15% and attractive economic performance with payback periods of less than 3,0 years.