Abstract

Building Information Modeling (BIM) is recognized as one of the most significant technological breakthroughs in the Architecture, Engineering, and Construction (AEC) industry. The pace of implementation of BIM in AEC has increased during the past decade with an enhanced focus on sustainable construction. However, BIM implementation lags its potential because of several factors such as readiness issues, lack of previous experience in BIM, and lack of market demand for BIM. To evaluate and solve these issues, understanding the current BIM implementation in construction organizations is required. Motivated by this need, the main objective of this study is to propose a tool for the measurement of BIM implementation levels within an organization. Various sets of indexes are developed based on their pertinent Critical Success Factors (CSFs). A detailed literature review followed by a questionnaire survey involving 99 respondents is conducted, and results are analyzed to formulate a BIMp-Chart to calculate and visualize the BIM implementation level of an organization. Subsequently, the applicability of the BIMp-Chart is assessed by comparing and analyzing datasets of four organizations from different regions, including Qatar, Portugal, and Egypt, and a multinational organization to develop a global measurement tool. Through measuring and comparing BIM implementation levels, the BIMp-Chart can help the practitioners identify the implementation areas in an organization for proper BIM implementation. This study helps understand the fundamental elements of BIM implementation and provides a decision support system for construction organizations to devise proper strategies for the effectual management of the BIM implementation process.

Highlights

  • This study highlights the critical factors for the successful implementation of building information modeling (BIM), which will help better understand the fundamental elements of BIM implementation from a global perspective

  • The top ten factors are identified through a preliminary survey

  • The literature related to each significant factor was studied thoroughly to develop indexes comprising four levels to measure individual factors

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Summary

Introduction

To overcome the problems and associated risks, numerous initiatives were launched to realize continuous improvement [3]. These efforts range from the adoption of new contractual/procurement arrangements such as partnering, concurrent engineering, and integrated project delivery to technological innovations in design and construction processes such as building information modeling (BIM) [4,5,6,7]. BIM is a digital representation of a facility0 s physical/functional characteristics that serves as a shared knowledge resource used for reliable decision-making during the Sustainability 2021, 13, 9270. Training on the utilization of software tools to apply different dimensions of BIM.

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