Framework for Automated Generation of Constructible Steel Erection Sequences Using Structural Information of Static Indeterminacy Variation in BIM

Kim, Kyungki; Park, J.; Cho, Chunhee

doi:10.1007/s12205-020-0163-6

Cited by 10 publications

(5 citation statements)

References 28 publications

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“…[21, 25,27,28,32,34,[40][41][42][48][49][50][51][52][53] 13 Structural health monitoring with BIM models.…”

Section: Bim and Iotmentioning

confidence: 99%

“…Regarding the planning phases for construction and erection, the use of BIM is highlighted as a repository of costs to identify the pricing of machinery and labor to be used in construction [23][24][25]50], and to control the structural state of the parts arriving from the factory before and after assembly [40][41][42][43][44][45][46][47][48][49][50][51][52][53]. The literature highlights the use of BIM to identify materials with reusable potential in deconstruction stages to minimize the costs of future projects and reduce the carbon footprint in the construction industry [3,37,57].…”

Section: Bim and Iotmentioning

confidence: 99%

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Integration of BIM in Steel Building Projects (BIM-DFE): A Delphi Survey

et al. 2022

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This study aims to design a BIM integration model for steel building projects (BIM-DFE). It was developed in the following three phases: (i) theoretical phase, (ii) validation phase, and (iii) statistical analysis for the theoretical phase. A literature review was conducted to study the applications of BIM in steel building projects and to develop an integrated BIM process map for the construction lifecycle of steel buildings. Subsequently, in the validation phase, 32 participants were invited to complete a two-round Delphi questionnaire to validate the BIM-DFE proposal. The participants were classified according to their knowledge level (skilled or expert). Based on the literature review, a process map that integrates BIM in different phases of a steel building project was created. In the first round of the Delphi questionnaire for the validation phase, the various groups studied (skilled vs. expert) were in moderate agreement with the BIM-DFE proposal; however, after the second round, this agreement became better. Therefore, this study contributes to the current body of knowledge by providing a BIM integration model to improve the management of steel building projects as defined by critical stakeholders in the steel industry. In addition, a real-time case is presented to elucidate a part of the research contribution.

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“…[21, 25,27,28,32,34,[40][41][42][48][49][50][51][52][53] 13 Structural health monitoring with BIM models.…”

Section: Bim and Iotmentioning

confidence: 99%

Section: Bim and Iotmentioning

confidence: 99%

Integration of BIM in Steel Building Projects (BIM-DFE): A Delphi Survey

et al. 2022

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“…It uses BIM technology to automatically arrange and delegate tasks to welding manipulators and operators, thus optimizing product quality and reducing production costs on the production line. In summary, the current research related to smart construction in the construction industry focuses on BIM-based steel structure research 13 , BIM-based assembly building research 14,15 , and smart technology and construction-related research 16,17 . Research on smart production of prefabricated steel structure mainly focuses on the application of BIM technology, IoT and other intelligent technologies in steel structure, assembled building design 18 , assembled construction 19 and management 20 .Intelligent management of assembled steel structure production process is of great significance to improve safety efficiency.…”

mentioning

confidence: 99%

Incentive strategy of safe and intelligent production in assembled steel plants from the perspective of evolutionary game

Wang

Chen

et al. 2023

Sci Rep

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Due to the numerous cross-operations and poor information communication, it is easy to cause production safety accidents in traditional assembled steel plants. The transformation and upgrading of smart production in the assembly steel plants is helpful to improve the efficiency of safety management. In order to effectively reduce the safety risks in the production of assembled steel components, this paper integrates policy incentives and safety supervision, constructs an evolutionary game model between the government and assembled steel producers, and analyzes the strategic evolution rules and stability conditions of stakeholders through the replication dynamics equation. Moreover, based on the empirical simulation of the Fuzhou X Steel Structure Plant project, the effectiveness of the evolutionary model incentive strategy setting is verified. The results show that whether an assembled steel plants adopt a smart management strategy or not is influenced by the government's incentive subsidy mechanism, penalty mechanism, the benefits and costs generated by traditional/ smart management, the probability and loss of safety accidents and other factors. The conclusion is important for upgrading the safety management mode, improving the safety production efficiency and constructing the safety supervision system of the assembled steel smart plant.

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“…and to control the structural state of the parts arriving from the factory before and after assembly (AbouHamad & Abu-Hamd, 2019;Akanmu & Okoukoni, 2018; H. M. Chen & Huang, 2013; L. K. Chen et al, 2021;K. Kim et al, 2020;Liao et al, 2012;Mischo et al, 2019;Navaratnam et al, 2022;Nekouvaght Tak et al, 2020;Yang et al, 2020;Yoo et al, 2019;Yu et al, 2021;Zhang & Bai, 2015Tummalapudi et al, 2021.…”

Section: Bim Is Used To Identify Reusable Materials In the Deconstruc...mentioning

confidence: 99%

“…Design Phase: The proposed design phase begins with the BIM-DFE act from the previous phase, and the next sub-process is the incorporation of the finite element analysis of the structure; the BIM estimation model from the previous phase (AbouHamad & Abu-Hamd, 2019;Akanbi et al, 2018;Akanmu & Okoukoni, 2018;Asgari Siahboomy et al, 2021;Bartenbach et al, 2019;Bortolini et al, 2019; H. M. Chen & Huang, 2013; L. K. Chen et al, 2021;Costin et al, 2021;DIng et al, 2018;Ding et al, 2019;Galic et al, 2015;Jeong et al, 2016;K. Kim et al, 2020;Liao et al, 2012;Z.…”

Section: Bim Is Used To Identify Reusable Materials In the Deconstruc...mentioning

confidence: 99%

BIM for Steel Buillding Projects BIM-DFE

Avendaño Bernal

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Steel is an essential material for the construction industry; as a result, its consumption and production per capita have grown considerably, owing to population growth and increasing demands for industrialization in developing countries, among other factors. Steel offers certain advantages over other construction materials, such as low weight, adequate structural behaviors, a high degree of prefabrication, and increased construction speed. However, the use of steel as a construction material has increased the complexity of projects, particularly in terms of information management, because it is imperative to ensure quality and timely information for the different actors involved in the workflow. The inefficient use of information results in fragmentation during construction, to cope with such fragmentation, it is necessary to include building information modeling (BIM) that facilitate collaboration between the different actors involved in the building life cycle. BIM has been associated with improved productivity and cooperation among teams. However, the benefits of using BIM in the steel building process have not been explored comprehensively, even more when BIM does not exhibit continuity throughout the phases of a steel construction project; as a result, its benefits are curtailed. Therefore, there is a need to investigate, develop, and propose BIM integration that generate continuous communication, coordination and management between steel building phases, in order to ensure deliverables that conclude with a building that meets the initially established project requirements.The present PhD thesis proposes a BIM integration model called BIM for design, fabrication and erection in steel buildings (BIM-DFE) to improve communication, integration, comprehensible procurement processes, and production processes defined by critical stakeholders in the steel industry. These operating benefits can result in benefits for steelbuilding projects. Although this research is oriented to steel-building projects, the proposed BIM-DFE model can be extrapolated to different materials with similar processes such as concrete, wood or any prefabricated material for the construction industry.

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Framework for Automated Generation of Constructible Steel Erection Sequences Using Structural Information of Static Indeterminacy Variation in BIM

Cited by 10 publications

References 28 publications

Integration of BIM in Steel Building Projects (BIM-DFE): A Delphi Survey

Integration of BIM in Steel Building Projects (BIM-DFE): A Delphi Survey

Incentive strategy of safe and intelligent production in assembled steel plants from the perspective of evolutionary game

BIM for Steel Buillding Projects BIM-DFE

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