Material resource efficiency in construction

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Material resource efficiency in construction Supporting a circular economy Katherine Adams and Gilli Hobbs

Material resource efficiency in construction Supporting a circular economy Katherine Adams and Gilli Hobbs

ii The research and writing for this publication has been funded by BRE Trust, the largest UK charity dedicated specifically to research and education in the built environment. BRE Trust uses the profits made by its trading companies to fund new research and education programmes that advance knowledge, innovation and communication for public benefit. BRE Trust is a company limited by guarantee, registered in England and Wales (no. 3282856) and registered as a charity in England (no. 1092193) and in Scotland (no. SC039320). Registered office: Bucknalls Lane, Garston, Watford, Herts WD25 9XX Tel: +44 (0) 333 321 8811 Email: secretary@bretrust.co.uk www.bretrust.org.uk IHS (NYSE: IHS) is the leading source of information, insight and analytics in critical areas that shape today s business landscape. Businesses and governments in more than 165 countries around the globe rely on the comprehensive content, expert independent analysis and flexible delivery methods of IHS to make high-impact decisions and develop strategies with speed and confidence. IHS is the exclusive publisher of BRE publications. Any third-party URLs are given for information and reference purposes only and BRE and IHS do not control or warrant the accuracy, relevance, availability, timeliness or completeness of the information contained on any third-party website. Inclusion of any third-party details or website is not intended to reflect their importance, nor is it intended to endorse any views expressed, products or services offered, nor the companies or organisations in question. Any views expressed in this publication are not necessarily those of BRE or IHS. BRE and IHS have made every effort to ensure that the information and guidance in this publication were accurate when published, but can take no responsibility for the subsequent use of this information, nor for any errors or omissions it may contain. To the extent permitted by law, BRE and IHS shall not be liable for any loss, damage or expense incurred by reliance on the information or any statement contained herein. Back cover image Shredded building insulation foam (courtesy of Green Grinder) IHS Global Ltd is a private limited company registered in England and Wales (no. 00788737). Registered office: The Capitol Building, Oldbury, Bracknell, Berkshire RG12 8FZ. www.ihs.com BRE publications are available from www.brebookshop.com or IHS BRE Press The Capitol Building Oldbury Bracknell Berkshire RG12 8FZ Tel: +44 (0) 1344 328038 Fax: +44 (0) 1344 328005 Email: brepress@ihs.com IHS 2017. No part of this publication may be reproduced or transmitted, in any form or by any means, electronic, mechanical, photocopying, recording or otherwise, or be stored in any retrieval system of any nature, without prior written permission of IHS. Requests to copy any part of this publication should be made to: The Publisher IHS Verulam Point Station Way St Albans Herts AL1 5HE Tel: +44 (0) 1727 733813 Email: brepress@ihs.com Printed using FSC or PEFC material from sustainable forests. FB 85 First published 2017 ISBN 978-1-84806-460-7

Contents iii Contents 1 What is material resource efficiency? 1 2 Material resource efficiency drivers 2 Business benefits 2 Policy, legislation and standards 2 Environmental benefits 4 3 Some facts and figures 7 4 Achieving greater material resource efficiency 9 Pre-demolition and pre-refurbishment audits 9 Designing out Waste 9 Measurement and setting targets 10 Site waste management plans/resource management plans 12 Procurement 13 Activities on site 13 Waste management off site 14 Training and awareness 15 Incentives 16 Responsibilities 16 5 Waste management options for products and materials 17 Bricks 18 Carpets 18 Composites (glass fibre reinforced polymer) 19 Concrete products 19 Glass (windows) 19 Gypsum-based materials 19 Insulation: foam 20 Insulation: mineral wool 20 Packaging 20 Paint 21 Plastics 21 Soils 21 Timber 22 6 Challenges to delivering greater material resource efficiency 23 7 References, tools and guidance 24

1 What is material resource efficiency? 1 1 What is material resource efficiency? Material resource efficiency, put simply, is doing more with less. The aim is to use material resources in the most sustainable manner while minimising environmental impact. This can include: using fewer materials optimising the use of materials (ie ensuring a long life-span and durability) preventing waste using materials that are reclaimed or that have a higher recycled content, thereby diverting waste from landfill. A common framework, which is embedded in EU legislation, is the waste hierarchy (Figure 1). The preferred option is not to produce waste if possible, which results in the greatest cost savings and environmental benefits, followed by reuse, recycling (open and closed loop), recovery (eg energy recovery and certain backfilling operations), then finally disposal (eg to landfill, incineration with no energy recovery). Material resource efficiency can be applied across a construction project s life cycle, with the greatest benefits at the early stages where more opportunities arise to design out waste and investigate material choices. Greater material resource efficiency requires the various parts of the construction supply chain to work together for a common goal, as a decision by one part could adversely affect another. This guide provides the background, drivers, benefits and practical advice to assist the construction sector in achieving higher levels of material resource efficiency. There is an increasing awareness that improved material resource efficiency would produce benefits across the industry such as cost savings, reduced environmental impact and an enhanced reputation. At a construction project level, resource efficiency can be implemented at all stages (design, procurement, construction, in use and end of life) using established tools and techniques. The guidance is intended for those involved in construction projects, especially clients, designers and contractors. It will also be relevant to those who provide products and services for construction projects, such as product manufacturers, suppliers and waste management companies. Prevention Preparing for reuse Recycling Other recovery Disposal Most preferred Least preferred Prevention Designing out waste by: using standard sizes ordering appropriate amounts of materials to reduce wastage rates ensuring careful storage and movement of materials around the site Reuse Reusing suitable off-cuts on site Sending back excess materials Salvaging materials from demolition for reuse (eg bricks, tiles, etc.) Procuring reclaimed materials Recycle Closed loop recycling (eg plasterboard waste used for raw material input for plasterboard manufacture) Open loop recycling (eg using timber for panel board manufacture). Waste materials can be segregated on site and sent to a reprocessor or sent via a waste transfer station as segregated or mixed waste with a high recovery rate Procuring materials with a higher recycled content Other recovery Energy recovery Backfilling operations Disposal (eg landfill, incineration) Figure 1: Waste hierarchy

SUSTAINABILITY Improving material resource efficiency with these titles from IHS BRE Press Resource efficiency, site operation and handover A collection of BRE expert guidance on construction site operation and management ALSO AVAILABLE Sustainability in the built environment An introduction to its definition and measurement Learn about the key issues and initiatives in defining and measuring sustainability, both in the UK and internationally. BR 502 AP 302 FB 54 FB 48 A valuable reference library of short BRE publications on resource management, site operation and building handover. This pack, available as a pdf, is a compilation of BRE background documents and current guidance and advice, offering exceptional value for construction professionals. Dealing with difficult demolition wastes Find out about waste management routes and how to improve reuse, recycling and recovery of difficult demolition wastes, such as carpet underlay, insulated concrete formwork, industrial batteries, structural insulated panels (SIPs) and smoke alarms. Saving money, resources and carbon through SMARTWaste Get an overview of SMARTWaste Plan, the online tool developed by BRE to help users to prepare, implement and review their site waste management plans. This report provides detailed performance indicators of waste arisings for both newbuild and refurbishment projects. BRE Good Building Guides and Good Repair Guides This CD-ROM compilation contains over 150 pdfs of BRE Good Building and Repair Guides, including: achieving airtightness, basement construction, fixing and finishing plasterboard, installing thermal insulation, and much more! AP 281 Online www.brebookshop.com Call +44 (0) 1344 328038 Email brepress@ihs.com

This publication has been funded by BRE Trust Material resource efficiency in construction: supporting a circular economy There is increasing awareness that improved material resource efficiency will produce benefits across the construction industry such as cost savings, reduced environmental impact and an enhanced reputation. At a construction project level, resource efficiency can be implemented at all stages (design, procurement, construction, in use and end of life) using established tools and techniques. This guide describes the material resource efficiency requirements in BREEAM. It provides the background, drivers, benefits and practical advice to assist clients, designers and contractors in achieving higher levels of material resource efficiency. It will also be useful to product manufacturers, suppliers and waste management companies. Related titles from IHS BRE Press Resource efficiency, site operation and handover: A collection of BRE expert guidance on construction site operation and management AP 302 Dealing with difficult demolition wastes FB 54 Saving money, resources and carbon through SMARTWaste FB 48 Critical materials and material security for the construction industry and its supply chain IP 14/13 Sustainability in the built environment: An introduction to its definition and measurement BR 502 BRE Good Building Guides and Good Repair Guides: A library of information for all construction professionals AP 281 Delivering waste efficiency in commercial buildings: A guide for facilities managers IP 12/14 ISBN 978-1-84806-460-7 IHS BRE Press, The Capitol Building Bracknell, Berkshire RG12 8FZ www.brebookshop.com FB 85 9 781848 064607