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The Benefits of Polymers for Australia's Built Environment

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The Benefits of Polymers for Australia's Built Environment AUSTRALIAN MODERN BUILDING ALLIANCE Safe and sustainable construction with polymers The benefits of polymers for Australia’s built environment The benefits of polymers for Australia’s built environment This information sheet explains how polymer-based construction products create modern buildings that are durable, safe, sustainable and energy efficient. Polymers in the construction industry Polymers form the basis of many construction materials that are integral to modern buildings such as foams, paints, sealants, rubbers and plastics. These materials cover a broad range of products and applications for building interiors and exteriors including insulation, piping, flooring, wiring, window installation, solar modules, ventilation systems, awnings, painting, tiling and landscaping. The challenge According to the Australian particularly at a time when Whether in the construction, use Sustainable Built Environment Australia’s energy costs and or end-of-life phase, buildings Council (ASBEC), buildings in demands are increasing. consume vast volumes of energy Australia constructed after 2019 The performance and durability equating to large volumes of could make up more than half of of construction products – greenhouse gases (GHG). the country’s total building stock particularly insulation – is key by 2050.3 The IEA recommends In Australia, our buildings to creating more energy efficient strengthening construction codes account for 19 per cent of total buildings. energy used and 18 per cent of to address the energy efficiency our total direct GHG emissions.1 of new buildings and those Products should be long lasting, This figure would be closer requiring major retrofits as an require low maintenance or 2 to 40 per cent of total GHG immediate priority. ongoing energy demand, and ensure structural and thermal emissions (in line with the global Constructing and renovating performance throughout their building and construction sector) buildings with sustainability lifetime. if indirect emissions were also and energy efficiency in mind is included.2 vital to our low-carbon future, 1 A sustainable solution Polymer-based construction Together, the flexibility, durability, PUR and PIR are highly effective materials are a key part of a lightness and long-term against cold and heat – providing sustainable, energy efficient performance make polymer- more comfortable living and solution because they have based materials a sustainable working spaces and also allowing a range of advantages over choice for building and consumers to save money and alternative materials for meeting construction. reduce energy and emissions energy efficiency requirements. from heating and cooling. These materials are durable, Insulating for efficiency PUR and PIR also possess some easy to install, weather resistant of the lowest thermal conductivity (less prone to corrosion) and high The majority of energy in measurements of commonly performing. Their durability and Australia is used by the transport, available insulants – taking up long-term aging properties mean manufacturing, mining and less physical space (thinner they require minimal additional building and construction insulation) than alternatives, resources to support them during sectors.1 Within the housing without sacrificing performance.6 their life cycle. sector, heating and cooling As a result, building designers can make better use of space While building materials generally buildings makes up 40 per cent 4,5 and light. last 30 to 50 years, polymer- of total energy consumption. based materials such as Because heating and cooling of For example, the chemical PVC pipes can last longer. buildings is such an important structure of polyurethanes This removes the need for factor in managing energy renders them highly adaptable replacement products – use (and GHG emissions), and available in many forms – conserving resources and better insulation of walls, roofs, making them extremely versatile reducing waste. ceilings and floors can lead to as energy efficient insulation solutions in new and old buildings. The durability of polymer-based significantly lower emissions materials also means they can through greater energy efficiency. Compared with other insulation be recovered for future use, with All insulation materials will play a materials at the same thickness, manufacturers working to further role in the transition to a low- polymer-based insulation materials extend their life cycle, energy carbon economy. However, such as PUR and PIR can also efficiency and lifetime energy polymer-based materials such achieve greater greenhouse gas savings. as rigid polyurethane insulation and total energy savings. This includes moving away from (PUR), polyisocyanurate For example, PUR insulation can the simple re-use of products to insulation (PIR) and phenolic halve the energy usage of an more diverse recycling solutions foam are unique in their insulation un-insulated brick house, and such as chemical recycling and properties and the benefits they can save 25 per cent more than energy recovery. offer buildings. other commonly used insulation materials.7 Polymer-based materials can be used safely when installed correctly in line with manufacturer guidelines and the National Construction Code (NCC). AMBA supports the use of polymer-based materials such as PUR and PIR that have passed large-scale fire tests assessing the performance of the full building system rather than individual components (see the Safety section for more information). 2 Safety is the priority A lifetime of saving energy AMBA’s priority is to foster a safe built environment for Australians, with our focus being on ensuring Polyurethane insulation materials our buildings are designed and constructed to save more energy during their protect the people that construct, live and work lifetime than are used in their in them. production – something common Integral to this is support for and compliance with to polymer-based materials in the NCC and the safety of the systems in which building and construction. polymer-based materials are used. Plastics Europe estimates that The safety and integrity of our buildings is a joint in an average house, plastic responsibility, and all stakeholders in the building insulation products recover the energy used to manufacture and construction value chains, including regulators, them in only one year.8 have key roles to play. This energy recovery and saving Recent events locally and internationally have continues for the lifetime of the increased attention on how to improve the fire product; in total, these materials safety of Australian buildings. can save more than 200 A fire-safe building requires approved construction times the energy used in their materials that have been installed correctly and are 9 production. maintained consistently and in accordance with Polymer-based insulation manufacturer guidelines, as well as all national materials are also highly cost- and local building and construction codes and effective when rated on the cost standards. per tonne of carbon dioxide saved. Key benefits AMBA is committed to working with industry, government, authorities Taken together, the durability, and fire safety professionals to flexibility, performance, reliability share knowledge and best practice and cost-effectiveness of polymer-based construction in further advancing the safety of materials such as PUR and Australian buildings. PIR insulation make them an essential part of the sustainable construction solution. They can help to reduce the carbon footprint and environmental impact of our buildings, and promote a circular economy in which we reduce total materials used, prolong their use and eventually recycle or re-use them. 3 More information www.australianmodernbuildingalliance.org.au Fire safety testing References We support the NCC’s focus on performance- 1 Australian Government – Department of the Environment and Energy. (2017). Australian Energy Update 2017. based solutions, and large-scale fire testing of Retrieved 25 July 2019 from https://www.energy.gov.au/ facades in line with Verification Method (CV3) publications/australian-energy-update-2017 for meeting fire safety performance requirements 2 International Energy Agency. (2018). Energy for fire spread. Policies of IEA Countries – Australia 2018 Review. Retrieved 25 July 2019 from https://www.iea. org/publications/freepublications/publication/ EnergyPoliciesofIEACountriesAustralia2018Review.pdf This includes: 3 Australian Sustainable Built Environment Council and ClimateWorks Australia. (2018). Built to Perform – An • AS 5113: Fire Propagation Testing and industry led pathway to a zero-carbon building code. Classification of External Walls of Buildings, and Retrieved 25 July 2019 from https://www.asbec.asn.au/ wordpress/wp-content/uploads/2018/10/180703-ASBEC- • AS 5637 for the assessment of internal wall and CWA-Built-to-Perform-Zero-Carbon-Ready-Building- ceiling linings in commercial buildings. Code-web.pdf 4 Australian Government – Department of the Environment, Together, these testing and verification Water, Heritage and the Arts. (2008). Energy Use in the methods: Australian Residential Sector 1986-2020. Retrieved 25 July 2019 from http://www.energyrating.gov.au/document/ • encourage product innovations, which drive report-energy-use-australian-residential-sector-1986-2020 energy efficiency 5 Residovic, C. (2017). The New NABERS Indoor Environment Tool – The Next Frontier for Australian • allow product manufacturers to meet or exceed Buildings,
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