Building with Reclaimed Components and Materials: A Design Handbook for Reuse and Recycling
About this book
Bill Addis's 'Building with Reclaimed Components and Materials: A Design Handbook for Reuse and Recycling,' published by Earthscan in 2006, is a practical and technically grounded handbook that addresses one of the most tangible strategies for reducing the environmental impact of construction: keeping materials and components out of the waste stream by returning them to productive use. At a time when lifecycle thinking was still maturing in mainstream practice, Addis assembled a comprehensive reference that spans the full breadth of building systems — from structural frames to building services, from cladding to floor finishes — and provides designers, engineers, and contractors with the guidance they need to specify reclaimed and recycled-content products with confidence. The book's central argument is that reuse and recycling of building materials is not merely an ethical aspiration but a technically feasible and economically defensible strategy, provided that the design and procurement processes are adapted accordingly.
Addis distinguishes carefully between two complementary but distinct activities: the reuse of components, where an identifiable element such as a steel beam, a brick, or a timber joist is removed from one building and installed in another with minimal reprocessing; and the recycling of materials, where a substance is recovered, reprocessed into a new product form, and then incorporated into construction — as is the case with crushed concrete aggregate, recycled-content glass wool insulation, or steel manufactured from a high proportion of scrap. The book is organised systematically around the elements of a building, allowing practitioners to locate relevant guidance for whatever part of a project they are working on. The section on structural steelwork is among the most technically detailed, reflecting both the material's high inherent value and the relatively well-established practice of structural steel reuse in the UK and internationally.
Addis examines how reclaimed steel sections can be verified for structural adequacy, how they can be tested for grade and condition when original mill certificates are unavailable, how connections must be designed to accommodate sections that may not match standard current dimensions, and how procurement routes can be organised to secure sufficient quantities and lengths of appropriate sections within project timescales. The economics of structural steel reuse are examined alongside the carbon savings, with Addis noting that avoiding primary steel production — one of the most energy-intensive industrial processes — yields substantial embodied carbon reductions. Brick reuse occupies another substantial section.
Reclaimed bricks have a well-established market and an aesthetic appeal that can command premium value, but their use requires attention to physical condition, strength, mortar compatibility, frost resistance, and potential contamination from original use. Addis provides practical guidance on assessment, cleaning, and testing, as well as on the design of mortars that permit future reuse — a point that anticipates the design-for-deconstruction principles elaborated later in the book. The treatment of concrete is necessarily different: unlike steel and brick, concrete structural elements are rarely reused as discrete components because cutting, removing, and re-incorporating large reinforced concrete members is technically challenging and often uneconomic.
Instead, Addis addresses the recycling of concrete as crushed aggregate, examining its properties, appropriate applications, and the displacement of primary aggregate that recycled concrete aggregate can achieve. Timber reuse is treated with attention to the particular challenges of structural verification — assessing section size, species, moisture content, and evidence of insect or fungal damage — alongside the strong aesthetic and sustainability case for reclaimed timber, particularly for large-section hardwoods that would be difficult or impossible to source in equivalent grades from sustainable virgin sources. The building services sections — covering reclaimed mechanical, electrical, and plumbing components — reflect a more cautious approach, given that performance standards for services equipment are subject to regulatory evolution and that second-hand components may not meet current safety or efficiency requirements.
Addis navigates these tensions carefully, identifying categories of components where reuse is straightforward and those where it demands more rigorous verification. A particularly forward-looking dimension of the book is its sustained engagement with design for deconstruction (DfD) — the principle that buildings should be designed from the outset with their eventual disassembly in mind, using connection systems and construction sequences that allow components to be separated cleanly without damage at end of life. This is presented not as a futuristic aspiration but as a set of practical design decisions: favouring dry connections over adhesives, mechanical fixings over embedded ones, modular planning grids that simplify dismantling, and material separation that avoids composite assemblies where components of different materials are bonded inseparably together.
Addis situates these principles within a broader circular economy logic, arguing that buildings are effectively material banks whose value can be sustained through successive cycles of use if designed accordingly. Throughout, the book is grounded in case studies and real project examples drawn from the UK and international practice, illustrating how reuse and recycling have been achieved in completed buildings across residential, commercial, industrial, and heritage contexts. For the green building community, this remains a foundational reference that connects the abstract aspirations of circular economy thinking to the concrete realities of specification, procurement, and structural engineering practice.