Publications from the Centre for Advanced Built Environment Research (CABER)

This Handbook presents opportunities, best practices, and case studies backed by cutting edge research on the drivers of continuous improvement of health, safety, and wellbeing in the architecture, engineering, construction, and facility management sector. The book consists of 23 chapters with six themes covering: ● Drivers of the business case for healthier and safer construction ● Opportunities and drivers of digital technologies for improving health and safety ● Drivers of human factors for improving health and safety ● Drivers of safer design and procurement ● Drivers of better health and wellbeing for construction. ● Opportunities for driving equality and inclusivity for safer construction. The book will be beneficial to academics, undergraduate and postgraduate (research and taught) students, professional institutions (such as the Institution of Occupational Safety and Health), health and safety professionals (health and safety officers, consultants and managers), occupational health professionals, mental health and wellbeing professionals, construction managers, architects, project professionals, engineers (design, construction, project, site, electrical, mechanical, civil, building services, and structural), facilities managers, quantity surveyors, and site managers. The aim of the book is to provide critical perspectives alongside evidence based practical examples of success stories, that should inspire readers and engender continuous improvement in health, safety, and wellbeing in the construction industry.

Pushing the boundaries of flood risk management research, this comprehensive Research Handbook presents pragmatic insights into all areas relating to flood risk. Through its use of dynamic and people-centred paradigms, it explores urban flood management within localities, properties, neighbourhoods and cities. Structured around the flood risk management cycle, chapters explore the critical importance of managing the consequences of flooding whilst examining key concepts such as mitigation, preparedness, emergency management and recovery. An international range of expert contributors from an array of disciplines recognize the inadequacies of existing governance approaches and mechanisms when it comes to addressing urban flooding, and identify the ways in which these can be strengthened in order to create an integrated flood and water management framework. Adopting a forward-thinking approach, the Research Handbook also investigates future directions of flood risk management research. The Research Handbook on Flood Risk Management will be an indispensable resource for academics, researchers and students interested in environmental geography, environmental governance and regulation, urban studies, politics and public policy, and the management of natural resources.

This handbook explores the critically important topic of embodied carbon, providing advanced insights that focus on measuring and reducing embodied carbon from across the built environment, including buildings, urban areas and cities, and construction materials and components. Split into five distinct sections, international experts, researchers, and professionals present the recent developments in the field of embodied carbon from various perspectives and at different scales of material, building, and city. Following an introduction to the embodied carbon question, the chapters in Section 1 then cover the key debates around issues such as the politics of embodied carbon, links between embodied carbon and thermal mass, and the misuse of carbon offsets. Section 2 reviews the embodied carbon policies in a selected number of countries. Sections 3, 4, and 5 approach the topic of embodied carbon from urban-, building-, and material-scale perspectives, respectively, and use case studies to demonstrate estimation techniques and present opportunities and challenges in embodied carbon mitigation. This will be important reading for upper-level students and researchers in Architecture, Urban Planning, Engineering, and Construction disciplines. Presenting case studies of embodied carbon assessment, this book will also help practicing architects, engineers, and urban planners understand embodied carbon estimation techniques and different mitigation strategies.

This edited book presents a significant and timely contribution to our understanding of a broad range of issues pertaining to COVID-19 and its relationship to occupational safety, health and well-being (OSHW) in the global construction industry. The editors first introduce the industry and its poor OSHW history before highlighting some of the broader impacts of the pandemic on the sector. The book is then divided into two sections. Section One focuses on the management of COVID-19 transmission risk. It captures insights, practices, technologies and lessons learned in relation to what has and is being done to prevent or mitigate the risk of COVID-19 transmission among the construction workforce. Construction Safety, Health and Well-being in the COVID-19 Era also details case studies, lessons and best practices for managing sites and workforces when infections inevitably do occur. Section Two brings together international chapters discussing the impacts of COVID-19 on the OSHW of the construction workforce both on and off-site, as well as the management of those impacts. Furthermore, this presents implications of the pandemic (at the short-, medium-, and long-term) for other performance measures of construction projects such as cost, schedule, quality and, most importantly, how the pursuit/non-pursuit of such performance measures have impacted/will impact the OSHW of construction workers and professionals in the industry. This book addresses the gap in literature by offering global perspectives on the OSHW impacts and implications of COVID-19 in the construction industry and will help its wide readership (including construction industry organisations, professionals, researchers, government bodies/policy makers and students) to understand a broad suite of issues pertaining to COVID-19 and its relationship to OSHW in construction.

This Handbook seeks to examine and advance current understanding of the confluence of construction health, safety and well-being and the broad range of Industry 4.0 technologies in use in the architecture, engineering and construction (AEC) industry. Globally, the construction sector accounts for more than 100,000 occupational fatalities annually. In many countries, reports of work-related accidents, injuries and illnesses are commonplace, and there is an urgent need to improve the occupational safety and health (OSH) outlook of the construction sector. The fourth industrial revolution presents opportunities to leverage modern technologies (e.g., big data, artificial intelligence, automation, sensors, AR, VR and robotics) to improve the poor OSH performance of the construction industry. However, embracing such technologies could also induce unintended adverse consequences for the safety, health and well-being of construction workers. Therefore, the realisation of the opportunities as well as the mitigation of potentially adverse consequences requires research-informed holistic insights around the union of Industry 4.0 and construction occupational safety and health management. This cutting-edge volume addresses a significant gap in literature by bringing together experienced academics and researchers to highlight the drivers, opportunities and drawbacks of the merging of Industry 4.0 with construction health, safety and well-being. After a detailed introductory section which highlights key issues and challenges, section one covers the application of a broad range of digital technologies; then section two discusses the application of industrial production and cyber physical systems in the context of construction safety and health management. Readers from a broad range of AEC backgrounds as well as safety professionals and technologists will come to understand how the technologies are applied and the resulting OSH benefits as well as potential drawbacks.

Flood risk management (FRM) has shifted towards more decentralised and people-centred approaches. This increase in community involvement has become conceptually linked with ‘coproduction,’ used in other societal domains by both academics and professionals over the past decade. The two main principles of co-production are fair, equitable distribution of power and community empowerment. Mees et al. (2018) have set out typologies of citizen co-production in one of the most relevant frameworks for understanding the forms of co-production within the domain of FRM. Yet some of the Mees' categories arguably do not fully adhere or embrace the core principles of equitable power distribution and empowerment. This paper discusses how the potential limitations in these categories could inadvertently reinforce power imbalances and restrain opportunity for community empowerment. Drawing on wider research, a scoping literature review (across bibliographic databases Scopus, Web of Science and Google Scholar), the paper argues that five key aspects of community involvement—mutual learning, early and long-term involvement, inclusivity, clear objectives, and capacity building—would enable adherence to the core principles of co-production in FRM. These key aspects integrated with the Mees’ framework would enable the evaluation of not only the ‘form’ of co-production, but also if and how communities have been empowered in the process.

Staff expenses can account for up to 70% of business costs, with indoor conditions playing a critical role in employee health, behavior, and productivity. Optimal thermal comfort, typically around 21°C with 40-70% humidity, maximizes productivity. However, effective monitoring requires comprehensive data, particularly as energy regulations push for smarter building management. Although Building Information Modeling (BIM, a digital representation of a building's physical and functional characteristics) and sensor integration support facilities management, many existing systems are proprietary, expensive, and inflexible. To address these challenges, this study introduces ThermalComfortBot, a sustainable Generative Artificial Intelligence (GenAI)-powered Chatbot designed as an advanced Information System (IS). Utilizing Large Language Models (LLMs, AI models for natural language understanding) and Retrieval-Augmented Generation (RAG, a method that combines data retrieval with LLMs-generated insights), ThermalComfortBot integrates data from BIM, sensors, and other relevant sources. Built on open-source technology, it is cost-effective and fully customizable, allowing users to tailor datasets to their needs. The Chatbot delivers actionable insights through a Question-Answering (QA) interface, enabling data-driven decisions on thermal comfort to improve workplace conditions and enhance operational efficiency.

To reach the ambition of a net-zero economy by 2050, the UK aims to improve energy efficiency in all homes by 2035, targeting reductions in energy consumption and household expenses. Small and Medium-sized Enterprises (SMEs) play a critical part in this evolution but frequently face challenges in navigating the complex and fast-changing Energy sector to access essential information. Required data spanning regulatory updates, market trends, renewable energy production, and climate patterns is dispersed across multiple sources, creating inefficiencies and raising costs for SMEs pursuing sustainable Energy goals. This study addresses this information gap through a prototype Information System (IS) that consolidates diverse regulatory and environmental topics as a proof-of-concept. The proposed Energy Question Answering (QA) Assistant, based on the Large Language Models (LLMs) and Retrieval-Augmented Generation (RAG), integrates information from government, industry, and environmental sources. Using open-source technology, this tool delivers SMEs timely insights into Sustainable Energy Initiatives (SEIs) and regulatory frameworks, supporting cost-effective and informed decision-making that aligns with the UK's sustainability targets.

At present, only around 10% of the heat pumps required to reach our critical 2050 climate goals are being installed in the UK. The government has set ambitious targets to phase out gas boilers by 2035, replacing them with heat pumps. This paper argues that instead of viewing the low carbon heating transition as a simple techno-economic issue, solved by a technology swap, we need a transdisciplinary systems approach to address this complex socio-technical challenge. Drawing on previous research and the literature we identify the current level of heat pump uptake and consider some of the barriers to the low carbon heating transition including technical aspects, installers skill shortages, financial barriers and informational challenges. We find that these barriers are mostly addressed in silos without considering the interrelationship between different aspects. Heat pumps should be considered in the context of a whole house approach to retrofit and barriers need to be overcome to make the technology more attractive to households. In this paper we call for a systemic, transdisciplinary approach to the low carbon heating transition to accelerate uptake: combining an understanding of social, engineering and policy perspectives. Key to this are systems-based methods and transdisciplinary approaches that enable engineering and engineers to be part of the solution. We present the benefits of this approach and suggest some principles for further research.