Steel Solutions for Green Building



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Steel Solutions for Green Building Createsima transforming tomorrow

Steel Solutions for Green Building As society makes determined moves towards sustainability, construction has a very important role to play within this agenda, not only because of its economic and social contribution, but also because of its impact on the quality of our lives. While the building industry provides 5% to 10% of worldwide employment and generates 5% to 15% of the GDP, the built environment accounts for 40% of energy consumption, 40% of CO 2 emissions, 30% of the consumption of natural resources, 30% of waste generation and 20% of water consumption. The future global challenge for the construction industry is clearly to meet the world s growing needs while at the same time limiting the impact of its burdens by drastic improvement of its activities. In construction, steel has developed as a material of choice and offers a wide range of solutions that can make buildings more energy efficient, less costly to operate and more comfortable. We in ArcelorMittal believe strongly in steel s values for green building and are committed to helping deliver the benefits that our solutions bring to our customers, their buildings and their owners. Efficient steel solutions at each stage of a building s life When evaluating the sustainability of a building, the life cycle approach is required, taking into account all phases of a building s life, including materials production, transportation to the construction site, the construction operation itself, operational use of the building, demolition or deconstruction, and end of life. 3. Design and Service Life 2. Construction Phase Prefabrication /offsite manufacture : quality controlled, construction site optimisation (reduced lead times, transportation and neighbourhood nuisance), enhanced safety, ease of deconstruction Dry system: reduced environmental impact of the construction site Weight reduction of structure, reduced consumption of materials and conservation of natural resources ( from 30 % to 70 % ), possible use of sites with low loadbearing capacity Thermally efficient steel solutions: reduction of energy consumption in service Simple incorporation of renewable energy generation systems: very low consumption, or even positive energy buildings Long spans: creation of versatile spaces, capable of change over time and adaptation to users requirements; comfort and well being Prefabricated systems and components: ease of maintenance, extensions / modifications possible, flexibility Excellent acoustic insulation of steel solutions Longevity and robustness of steel components 1. Steel Material 40% of resources come from recycling: raw material and energy savings Manufacturing process with controlled environmental impact (-20 % in CO 2 emissions and energy consumption over 20 years, low waste generation) Steel is environmentally inert Material durability High recycling rate 3 2 1 4 Environmental advantages of steel construction 4. End of Life Easy dismantling Reusability Recyclability: 100% and indefinitely recyclable without quality loss, high recycling rate Building Materials Construction Sites Building Life and Deconstruction

Steel solutions for high building values Steel s inherent mechanical properties (particularly its high strength-to-weight ratio) enable the creation of lightweight load-bearing structures, thus gaining additional usable and efficient space, and bringing higher economic and social value to the building. Increasing and optimising spaces Long spans and column-free areas Steel solutions offer large and flexible spaces The use of long span sections for the building s structure creates large, open and flexible spaces. Using steel columns instead of concrete ones could deliver around 40 square metres of additional floor area on 1000 square metre office floor plates. Thin floor systems allow appreciable gains in vertical space. Angelina beam Claude Vasconi Sleek, open, transparent and flexible, the Angelina beam offers a new architectural dimension within an environmentally friendly approach. Service ducts passing through cellular holes Integration of technical components The shape and design of steel components makes it possible to integrate a building s technical services into ceilings, flooring or partitioning. It enables reduction of the storey height and consequent savings in weight and material, or increasing the lettable area by adding extra floors. ArcelorMittal

Steel solutions for energy - efficient buildings In order to address global warming issues as well as economic considerations, the management of rising energy consumption is an operational imperative: steel solutions can help achieve this and even have a key role to play in the move towards zero energy buildings. More than 80% of the energy consumed during the use phase In a building, the operational energy consumption (due to air conditioning, but also lighting etc ) largely outweighs its embodied energy (the energy used to build it). By proposing technical solutions to reduce the energy consumed during the whole life of a building, ArcelorMittal is contributing positively to the reduction of its environmental impact. Maintenance and renovation 4% Manufacturing transport and construction 12% Operational energy 84% Wall 35% Floor 15% Energy losses in a building Roofing 25% Windows 10% Draughts 15% Life Cycle Energy Use in a Building ( source EEB ) Thermally efficient buildings A high proportion of energy use is devoted to heat control, by artificially cooling the building: good steel-based design or use of appropriate steel products can achieve a major reduction in this energy consumption. The combination of steel structure with effective external insulation drastically reduces a building s losses. Double skin systems and/or sandwich panels provide a thermally efficient envelope, matching latest energy standards. No thermal bridges due to approved design. Airtightness of steel cladding or roofing systems eliminate air leakage that contributes to energy waste. Intelligent use of the thermal mass effect of steel products or components enables energy savings. Sunscreen or green roof systems contribute to energy efficiency improvement by protecting from the sun or limiting heat exchanges. The large range of colours or finishes of organic, metallic or even radiative coatings is suited to all existing climate models. Thermally efficient steel systems Steel external cladding systems Composite floor Thermal & acoustic insulation Plaster board interior walls Suspended ceiling

Arsolar Plus Photovoltaic System Zero and positive energy buildings Easy integration of renewable energy generation systems Besides providing thermally efficient solutions, ArcelorMittal has developed a complete range of products capable of producing energy, such as solar absorbers for hot water production, or photovoltaic cell systems for electricity generation. Arsolar Plus Photovoltaic System 30-35 m 2 of roofing produce 4,000 kwh per year Arsolar module Ondafix Multibeam Ondatherm Steel beam Ecume sunscreen: solar overheating prevention Globalroof Hacierco: the green roof solution ArcelorMittal Vendée Museum, Plan 01 Architects - ArcelorMittal ArcelorMittal

Steel solutions for lower environmental impact The Steel Recycling Loop Steel products for construction Sheets, coils, coated and other finished products. Sheet piles, beams, sections, rounds, rods and bars Smelting Process Use of Steel Products Electric Process Recycling 50-100 YEARS Iron ore - Mining Reuse 14 tonnes of steel recycled every second around the world! Steel: the most recycled material in the world Steel is 100% and indefinitely recyclable, without any quality loss. When recovered, it is 100% recycled. Its recycling rate (i.e. the percentage of materials being taken out of service, recovered and reused) is high but varies from product to product. In construction, it reaches particularly high levels: 98% for beams, 65-70% for reinforcement bars. Recycled steel represents 40% of the steel industry ferrous resource in the world. ArcelorMittal is the world s largest scrap recycler and 2 million tonnes of our products are recycled each year, which saves around 3,8 million tonnes of CO 2. A huge decrease in environmental impact in the manufacturing process A lot of progress has been made by ArcelorMittal over time. Waste generation, water use and air emissions are continually decreasing, as are energy consumption and greenhouse gas emissions. In Europe, CO 2 emissions and energy consumption per tonne have been reduced by 20% over the 20 last years. By year end 2007, 80% of ArcelorMittal production sites had attained ISO 14001 certification, the international standard for environmental management systems. A high degree of prefabrication for fast, reliable and predictable construction the advantages of the dry steel construction system Use of prefabricated elements provides a large range of benefits that contribute to reduce the risks during the construction phase: using steel construction techniques reduces environmental impacts and neighbourhood nuisance on the construction site. Water use, waste generation, dust emission, traffic and noise are considerably lower than in traditional construction. Work site management is largely facilitated. All these advantages are especially appreciable in congested urban areas.

Velodrome, Berlin - Architect: Dominique Perrault - ArcelorMittal Photo library Steel s high strength to weight ratio for conservation of natural resources 156 % 149 % Thanks to steel s high strength to weight ratio, steel construction requires less material than traditional construction technologies and contributes to reducing a building s environmental impact. Resultant conservation of natural resources could be from 30% up to 70%. Relative weight Relative material costs 100 % 70 % 68 % Buckling length: 3.5 m It is possible to achieve further savings by using high strength steels in place of merchant steels. Steel grade Section Ultimate load (kn) S 235 JR HE 280 M 4 578 S 335 JR HE 300 B 4 382 histar 460 HE 300 A 4 396 HISTAR performance compared with other steel grades - Use in steel columns High strength steels ArcelorMittal new high-strength steels (HSS) developed for the construction market are contributing to a major reduction in greenhouse gases by making it possible to use lighter structures. Substituting HISTAR for merchant steel achieves weight reductions of 32% in steel columns and 19% in beams. The 50,000 tons of HISTAR produced in 2007 by ArcelorMittal represents a saving of 14,000 tonnes of CO 2, which roughly equates to the annual emissions of 4,000 vehicles. One example of extensive use of HISTAR steels: The Emirates Tower in Dubai. Up to 30% reduction of CO 2 emissions during construction. Sean Randall for IStockphoto DR

ArcelorMittal Building & Construction Support Near & Middle East 5, rue Luigi Cherubini F-93212 La Plaine St Denis Cedex Tel: +33 (0)1 71 92 16 90 Fax: +33 (0)1 71 92 24 97 ArcelorMittal Construction International Studacher Str. 7b CH-5416 Kirchdorf Tel: +41 (0)56 296 10 10 Fax: +41 (0)56 296 10 20 www.arval-construction.ch ArcelorMittal Projects Middle East Holiday Centre, Office 1405 P.O. Box 53608 Dubai, UAE Tel: +971 4 3310435 Fax: +971 4 3314520 ArcelorMittal International FZE Office #515, 5th Floor, JAFZA Building no. 15 Jebel Ali Free Zone P.O. Box 262098 Dubai, UAE Tel: +971 4 8873815 Fax: +971 4 8873816 www.arcelormittal.com www.constructalia.com