2018
DOI: 10.1080/00207543.2018.1503426
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An interactive risk visualisation tool for large-scale and complex engineering and construction projects under uncertainty and interdependence

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Cited by 24 publications
(10 citation statements)
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“…The detailed discussion is illustration in further sections. Also, the identified interdependencies among the IMBs enable concerned construction stakeholders to prioritize project risks (Kimiagari and Keivanpour, 2019), task inter-relationships (Fong and Lung, 2007) and the impact of trust on project key performance indicators (Yang and Cheng, 2021). Hence, this research presumes the importance of investigating with this context.…”
Section: Discussionmentioning
confidence: 94%
“…The detailed discussion is illustration in further sections. Also, the identified interdependencies among the IMBs enable concerned construction stakeholders to prioritize project risks (Kimiagari and Keivanpour, 2019), task inter-relationships (Fong and Lung, 2007) and the impact of trust on project key performance indicators (Yang and Cheng, 2021). Hence, this research presumes the importance of investigating with this context.…”
Section: Discussionmentioning
confidence: 94%
“…The risk assessment methods that capture the interdependency between the risk events usually employ analytical network process (ANP) (Boateng et al , 2015), network theory (Fang et al , 2012), Bayesian belief network (Cárdenas et al , 2013; Yazdi and Kabir, 2017), simulation (Ou-Yang and Chen, 2017) and artificial neural networks (Barakchi et al , 2017; Kabir et al , 2016; Lee and Kim, 2017). Different other popular multi-criteria decision methods (Li et al , 2013) are also available for specific project to manage the complex risk networking such as FMEA (Lee and Kim, 2017), FTA (Khakzad et al , 2013), ETA (Ferdous et al , 2011), VIKOR (Kahraman et al , 2015), fuzzy set theory (Kimiagari and Keivanpour, 2018), AHP (Al-Harbi, 2001) and TOPSIS (Zegordi et al , 2012) etc., but these methods are not capable of capturing interdependencies between events. Consequently, the above mentioned artificial intelligence methods except ANP do not consider a pair-wise comparison between the criteria and sub-criteria of different events.…”
Section: Research Methodology: Procedural Stepsmentioning
confidence: 99%
“…collected expertise data from interviews to visualize the risk dependencies on a matrix and formed a hierarchical structure to create a risk map. From a different perspective, Kimiagari and Keivanpour (2018) represented the pairwise comparison of different projects based on their risk scores using area, correlation, and scatterplot matrix charts. In summary, visual presentation of the results of risk analysis dominates the literature on risk communication.…”
Section: Communication and Visualization Of Risk Informationmentioning
confidence: 99%