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Open AccessJournal ArticleDOI

Sustainability-led design: Feasibility of incorporating whole-life cycle energy assessment into BIM for refurbishment projects

TLDR
In this article, the authors focus on the use of BIM sustainability design tools in refurbishment projects, to achieve energy efficient buildings and achieve sustainability criteria for refurbishing non-domestic buildings.
Abstract
Growing climate change challenges and increasingly strict sustainability standards have led to a significant growth in the need for building refurbishment projects which are essentially focused on retrofitting in order to make them low carbon, energy efficient and environmentally friendly. The Waste and Resources Action Programme (WRAP) suggested that Building Information Modelling (BIM) should be used to achieve sustainability requirements during refurbishment projects as a correspondence to the National Audit Office (NAO) sustainability report. BIM is now widely advocated as the preferred tool for the management and co-ordination of design and construction data using object- oriented principles. The successful integration of environmental assessment into BIM for the whole of the construction lifecycle has not yet been achieved. The potential for using BIM in refurbishment projects specifically for achieving and managing sustainability requirements has not been yet critically reviewed or put into practice. This paper focuses on the use of BIM sustainability design tools in refurbishment projects, to achieve energy efficient buildings and achieve sustainability criteria for refurbishing non-domestic buildings. A critical lens is cast on the current literature in the domains of sustainable designs and the associated implications of the sustainability decision-support tools in BIM. The research also reviews the practicality of the existing sustainability decision-support tools that are currently used to assist with achieving environmental scheme certifications such as BREEAM and LEED for refurbishment projects.

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Building Information Modelling, Lean and Sustainability: An integration framework to promote performance improvements in the construction industry

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A framework for in-situ geometric data acquisition using laser scanning for BIM modelling

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Using BIM to improve building energy efficiency – A scientometric and systematic review

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References
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Journal ArticleDOI

Life cycle assessment of building materials: Comparative analysis of energy and environmental impacts and evaluation of the eco-efficiency improvement potential

TL;DR: In this article, the authors present the results of an LCA study comparing the most commonly used building materials with some eco-materials using three different impact categories, and propose guidelines for materials selection in the eco-design of new buildings and rehabilitation of existing buildings.
Journal ArticleDOI

Embodied energy and carbon in construction materials

TL;DR: In this article, the authors describe the development of an open-access, reliable database for embodied energy and carbon (dioxide) emissions associated with the construction industry, which is made publicly available via an online website and has attracted significant interest from industry, academia, government departments and agencies.
Journal ArticleDOI

Comparative assessment of environmental performance tools and the role of the Green Building Challenge

TL;DR: The Green Building Challenge (GBC) as mentioned in this paper has been used to provide a reference framework, method and tools that can be used to develop new systems or improve existing systems; provide a forum for discussion among researchers and practitioners worldwide; and raise awareness and credibility of assessment systems.
Journal ArticleDOI

Productive modeling for development of as-built BIM of existing indoor structures

TL;DR: In this paper, a semi-automatic methodology for improved productivity of as-built building information model (BIM) creation with respect to large and complex indoor environments is proposed, which produces 3D geometric drawings through three steps: segmentation for plane extraction, refinement for removal of noisy points, and boundary tracing for outline extraction.
Related Papers (5)
Frequently Asked Questions (22)
Q1. What are the key elements of the UK governments sustainability strategy?

Encouraging energy efficient building refurbishment projects and raising the sustainability standards for new buildings are central elements of the UK governments sustainability strategy. 

Growing climate change challenges and increasingly strict sustainability standards have led to a significant growth in the need for building refurbishment projects which are essentially focused on retrofitting in order to make them low carbon, energy efficient and environmentally friendly. The Waste and Resources Action Programme ( WRAP ) suggested that Building Information Modelling ( BIM ) should be used to achieve sustainability requirements during refurbishment projects as a correspondence to the National Audit Office ( NAO ) sustainability report. The potential for using BIM in refurbishment projects specifically for achieving and managing sustainability requirements has not been yet critically reviewed or put into practice. This paper focuses on the use of BIM sustainability design tools in refurbishment projects, to achieve energy efficient buildings and achieve sustainability criteria for refurbishing non-domestic buildings. The research also reviews the practicality of the existing sustainability decisionsupport tools that are currently used to assist with achieving environmental scheme certifications such as BREEAM and LEED for refurbishment projects. 

BIM analysis tools provide building thermal simulation, including dynamic analysis of energy performance calculating thermal loads and thermal consumption of a building. 

In order to meet UK national carbon emission targets, approximately 28 million building in the UK will require refurbishment by 2050. 

The construction sector has a have a major impact on the environment - during the construction of new buildings or the refurbishment of existing buildings, affecting the global climate by using a considerable number of resources, materials and energy and contributing to a large amount of carbon and energy emissions. 

Buildings should be designed and materials selected to balance the whole life cycle of energy with factors such as climate, availability of materials and transport costs. 

since these issues are associated with sustainability, BIM sustainability design tools are assessed in this research to ensure that the project complies with relevant environmental assessment schemes such as BREEAM and LEED. 

As the current process of sustainable design iterations in refurbishment projects is progressing from traditional CAD systems towards the adoption of BIM, different strategies of integral refurbishment were developed and generated a number of effective environmental assessment methods and tools. 

The construction industry is in the early stages of a major technological advance in the shape of Building Information Modelling (BIM), which seeks to integrate all flows of information associated with a construction project and improve their accessibility by all project stakeholders (Sacks et al., 2018). 

World wide, the buildings sector is responsible for significant resource consumption during construction, operation and demolition. 

In the UK there is a number of sources for calculated embodied energy data, ICE database is known as the main reliable and open-source of data, structured into 34 main material groups with over 1700 records on embodied energy (carbon). 

According to Kamaruzaman et al. (2016), the technical manuals associated with refurbishment projects for BREEAM and LEED both grade the life cycle energy of materials as the highest points contribution to the overall sustainability criteria with nearly 18% of the overall BREEAM rating across the Pollution, Materials, Energy and Waste categories, and 14% of LEED overall rating criteria. 

sustainability is increasingly recognised by many industries such as manufacturing and construction, mainly due to the impact that these industries have on sustainability (Glasser et al., 2005). 

In the BREEAM UK Refurbishment and Fit-out 2014 manual (BRE, 2014), the BRE claims to have considered the inclusion of life cycle energy impacts within their assessment criteria by incorporating the Green Guide specification to analyse the life cycle energy impacts of materials. 

In addition, technologies exist which enable existing materials to be characterised prior to refurbishment, for example hyperspectral analysis. 

The process of transforming existing data into a verified BIM model is very labour intensive (redraw), riddled with human error and very expensive (Jung et al., 2014). 

designers rarely use BIM energy performance analyses due to the skills required in preparing the energy models and to interpret the outputs. 

The first of these disadvantages is that simulation input data and results must be subjected to careful use to avoid errors in simulation. 

Errors in definitions and calculations can have great impacts on the environment, as these definitions are becoming the main source of shaping sustainable decisions in projects. 

in order to correctly evaluate the overall environmental impacts of a building, all the life cycle stages should be included in order to calculate energy impacts from cradle to grave as specified by PAS2050:2010 and as demonstrated in Figure 2. 

On the other hand, the operating energy of materials can be obtained via simulation once the embodied energy is in place with the involvement of heating, cooling, lighting, and operating appliances integrated within BIM design tools. 

Although there are a number of other sources for embodied energy data available in the UK, the most frequently used authoritative open-source of data is the ICE database from the University of Bath (Hammond and Jones, 2008).