Review of using Building Information Modeling for building energy modeling during the design process

Farzaneh, Aida; Monfet, Danielle; Forgues, Daniel

doi:10.1016/j.jobe.2019.01.029

Cited by 56 publications

(32 citation statements)

References 34 publications

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“…The detailed information of climatic zones and cities are given in the Supplementary Information. BIM facilitates the access of comprehensive building data such as building components and their properties during the whole building life cycle [51,52]. BIM-based Autodesk Revit is very useful for modeling, simulating, and optimizing performances [53][54][55].…”

Section: Methodsmentioning

confidence: 99%

Energy-Efficient Window Retrofit for High-Rise Residential Buildings in Different Climatic Zones of China

Hossain

et al. 2019

Sustainability

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The building envelope plays a significant role in the energy performance of buildings and windows are a key element in transmitting heating and cooling between the indoor and outdoor environment, and hence an adequate window system is one of the most important retrofit strategies of existing buildings for energy conservation. Therefore, this study presents a method with a theoretical case study to examine the improvement of energy efficiency in a typical high-rise residential building through window retrofitting. A building energy design model in Designbuilder along with a building information modeling (BIM) model in Revit are developed, with 20 common potential glazing alternatives being analyzed to predict the potential energy savings in the same case building with identical orientation located in a variety of climate zones in China. Based on different parameters and considerations, the results demonstrated that the currently relatively expensive low-e window glazing has the best energy performance in all climate zones, but is sufficiently close to conventionally glazed windows in its energy efficiency to discourage its adoption at present, and that, instead, a single dark conventional glazed window is preferred in a hot summer/warm winter climate, double dark traditional glazing in a hot summer/cold winter climate, and a double clear conventional window in a cold climate. Based on the simulated results, an indicative suggestion was provided to select an adequate window system for residential building retrofitting in the studied climates or similar climatic regions.

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Section: Methodsmentioning

confidence: 99%

Energy-Efficient Window Retrofit for High-Rise Residential Buildings in Different Climatic Zones of China

Hossain

et al. 2019

Sustainability

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“…Much of the discussion on BIM implementation centres on the required set of BIM requirements and specifications that should be delivered throughout a whole lifecycle of a project (Farzaneh, Monfet, & Forgues, 2019;Gao & Pishdad-Bozorgi, 2019;Ibrahim & Kingdom, 2013;Kamel & Memari, 2019;Parllaku & Underwood, 2017;Sacks, Gurevich, & Shrestha, 2016). Yet, very few studies have attempted to systematically review every aspect of BIM requirements from the perspective of policy, process, technology, environment and people-related interlocking pillars.…”

Section: R E S E a R C H O B J E C T I V E Smentioning

confidence: 99%

“…Yet, very few studies have attempted to systematically review every aspect of BIM requirements from the perspective of policy, process, technology, environment and people-related interlocking pillars. The review by Farzaneh, Monfet, and Forgues (2019) and Kamel and Memari (2019) disregarded the legal and process aspects of BIM requirements and included only the technical requirements of BIM technology. In another review study, Sacks, Gurevich, and Shrestha (2016) drew conclusions from the review of BIM protocols, guides and standards and not from the existing emprical studies in supporting the emerging findings of BIM requirements obtained through the BIM-based documents.…”

Section: R E S E a R C H O B J E C T I V E Smentioning

confidence: 99%

A Systematic Review of Bim Requirements Throughout a Whole Life Cycle of a Project

Shahruddin

2019

Asia Pr soc sci

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Research Highlights In this systematic review, we attempt to defend a view that the full potential of building information modelling (BIM) in enabling sustainable design and construction could transpire only through an in-depth understanding of every required component of BIM requirements across a construction project lifecycle. The findings from the study add to the body of literature by expanding the required components of BIM requirements through the amalgamation of variables that reside within the General Practitioners Information System (including IT infrastructure, process, people and environment) (Saleh and Alshawi, 2005) and the protocols for a BIM-collaborative design framework (including policy, process, and technology) (Kassem et al., 2014). The most striking result to emerge from the study is the process requirements of BIM. The fact that the accuracy and reliability of the information produced, shared, and reused across the construction project lifecycle may be affected without having a BIM process map and procedure for each of the BIM core activities being in place. Research Objectives Much of the discussion on BIM implementation centres on the required set of BIM requirements and specifications that should be delivered throughout a whole lifecycle of a project (Farzaneh, Monfet, & Forgues, 2019; Gao & Pishdad-Bozorgi, 2019; Ibrahim & Kingdom, 2013; Kamel & Memari, 2019; Parllaku & Underwood, 2017; Sacks, Gurevich, & Shrestha, 2016). Yet, very few studies have attempted to systematically review every aspect of BIM requirements from the perspective of policy, process, technology, environment and people-related interlocking pillars. The review by Farzaneh, Monfet, and Forgues (2019) and Kamel and Memari (2019) disregarded the legal and process aspects of BIM requirements and included only the technical requirements of BIM technology. In another review study, Sacks, Gurevich, and Shrestha (2016) drew conclusions from the review of BIM protocols, guides and standards and not from the existing emprical studies in supporting the emerging findings of BIM requirements obtained through the BIM-based documents. This gap necessitates the present study to holistically define the required components of BIM requirements by extending the base knowledge of BIM requirements as defined by Saleh and Alshawi (2005) and Kassem et al. (2014). Methodology The study employed PRISMA-P (Preferred Reporting Items for Systematic reviews and Meta-Analyses) (Moher et al., 2009) by first identifying related literature in the Web of Science, Scopus, and specific top-ranked journals covering BIM area of research. The following sets of keywords were used: (1) body of knowledge (including requirements, specifications and deliverables); (2) field area (including BIM, â€œbuilding information modelling,â€ â€œbuilding information model,â€ â€œbuilding information modelling and management,â€ â€œcollaborative BIM,â€ â€œintegrated BIM,â€ â€œlevel 2 BIM,â€ and â€œlevel 3 BIMâ€) and (3) context (including organisation, firm, SMEs, industry, â€œconstruction industry,â€ AEC, macro, micro, and project). The initial search produced a list of 423 records, but 24 records were removed because of duplication. The remaining 399 articles were screened based on the following criteria, among others: publication types (research articles), language (English publications), and year (publication from 2005 to 2019). Finally, an eligibility screening was conducted to finalise the relevant literature for the qualitative thematic analysis. The total number articles finalised for analysis in ATLAS.ti 8 was 39. Results The review of the study uncovered five main pillars and 41 subpillars of BIM requirements throughout a whole lifecycle of a project. The six main pillars are process (P1) (16 subpillars), policy (P2) (7 subpillars), technology (P3) (6 subpillars), environment (P4) (6 subpillars), and people (P5) (6 subpillars). Process requirements of BIM have been the primary focus of previous studies (n=29), from which the following 16 subpillars emerged under the â€œprocessâ€ pillar (P1): (i) benchmarking practices; (ii) BIM implementation plan; (iii) BIM model deliverables; (iv) BIM lifecycle process map; (v) BIM uses process map; (vi) BIM-information delivery manuals (IDM); (vii) COBIE; (viii) cost implementation plan; (viv) digital data management; (x) identification of project teamâ€™s capability; (xi) mobilisation; (xii) pilot project; (xiii) process flow redesign; (xiv) quality assurance; (xv) scoping activities and purpose and (xvi) risk management. Furthermore, majority of of the reviewed articles (n=25) discuss the policy pillar (P2) of BIM requirements, which further consist of the following seven subpillars: (i) BIM based documents; (ii) BIM execution plan; (iii) collaboration requirements; (iv) contractual documents; (v) employer information requirements; (vi) intellectual property and (vii) obligation of stakeholders. Meanwhile, sub-pillars including (i) BIM object library; (ii) collaboration server; (iii) ICT infrastructure; (iv) interoperability; (v) technical support and (vi) vendor evaluation have emerged across 23 studies under the technological requirements of BIM (P3). Also, in regard to the environment pillar (P4), the following six subpillars are discussed across 13 studies: (i) BIM research and development; (ii) incentives and reward; (iii) IT vison and mission; (iv) knowledge management; (v) organisational culture and (vi) senior leadership. Finally, the following six sub-pillars emerged within the people pillar (P5) of BIM requirements: (i) BIM competence; (ii) organisation experience; (iii) qualification; (iv) roles and responsibilities; (v) staff experience and (vi) training and education. Findings In can be concluded from the study that striking a balance between fulfilling the required components that reside within the process, policy, technology, environment, and people pillars of BIM requirements is crucial in achieving the full benefits of BIM adoption throughout a construction project lifecycle. Despite the policy and process requirements of BIM being the focus of discussion in previous studies, very few have attended to the investigation of people-related requirements of BIM, hence providing an avenue for further study. BIM adoption can no longer be viewed as a technological challenge but rather a strategy that requires organisational, managerial, and operational changes within the traditional practices. This shift would require the existing architectural, engineering and construction (AEC) industry players to equip themselves with different skill sets in order to remain competitive in the AEC industry sector. Acknowledgment The authors acknowledge the Ministry of Higher Education Malaysia (MOHE) and Universiti Sains Malaysia (USM) for funding the study. Credit also goes to Universiti Putra Malaysia, supervisors, and all lecturers for supporting this research.

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“…There is a large body of literature describing the implementation of BIM and environmental LCA into a project's processes [24][25][26][27][28]. However, few studies [25,27] have focused on a specifically relevant workflow.…”

Section: Introductionmentioning

confidence: 99%

“…Another aspect of BIM is energy modeling (in some references, this is described as the building energy model or BEM), which is very helpful in the design process as well as in the operational phase of building. A comprehensive outlook of this field with many references is provided by Farzaneg et al [26]. Another overview was produced by Ruben et al, who described a similar approach for the evaluation of office buildings in Western Europe [30].…”

Section: Introductionmentioning

confidence: 99%

Recommendations for Developing a BIM for the Purpose of LCA in Green Building Certifications

et al. 2020

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Building information modeling (BIM) and life cycle assessment (LCA) are two methods that can be helpful when designing buildings with lower environmental impacts. One of the most significant examples of environmental impact assessments in construction is green building certification. Certified buildings have improved performance and greater asset value. In this study, four certification systems were investigated for their potential interconnections with BIM and LCA. The main tasks were (1) to review a BIM-based workflow, (2) assess its usage as an input for the LCA within green certifications, and (3) provide suggestions for developing building models. Building models can be helpful during the design process, but the best results are expected when the specifically described steps are followed. These suggestions aim at improving building models in terms of their usage for green building certifications and particularly for LCA. All the investigated results were clarified and adjusted using a model of a recently finished building in Zug. As reference tools, One Click LCA and a manual process were selected. The outcomes were aligned with those of other studies and confirmed the necessity of good data and management quality for building projects.

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Review of using Building Information Modeling for building energy modeling during the design process

Cited by 56 publications

References 34 publications

Energy-Efficient Window Retrofit for High-Rise Residential Buildings in Different Climatic Zones of China

Energy-Efficient Window Retrofit for High-Rise Residential Buildings in Different Climatic Zones of China

A Systematic Review of Bim Requirements Throughout a Whole Life Cycle of a Project

Recommendations for Developing a BIM for the Purpose of LCA in Green Building Certifications

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