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To what extent has Building Information Modeling (BIM) technology positively impacted
civil engineering stakeholders in the past decade?
EAP Research Project
Final Draft
Korkem Alibek
0546
EAP Reading and Writing Tutor: Nurly Marshal
EAP Group: 11
Word Count: 2303
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Table of Contents
Abstract
Introduction
BIM Technology Efficiency
Cost Efficiency
Safety Efficiency
Transparency
Enhancement of collaboration and transparency through BIM.
Integrity enhancement
Adoption Barriers and Challenges
The Obstacles of the Adoption Process
The Negative Aspects of the Implementation
Addressing the issues
Conclusion
References
Annotated Sources
Annotated Source One
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Abstract
Building Information Modeling technology, an innovation that has empowered the
productivity, efficiency, quality, and sustainability of constructions, providing a clear vision of the
project on its every development state. This technology over the past decade has attracted
extensive attention from the Architectural, Industrial and Construction industries, keeping
abreast with information technology. The purpose of this study is the analysis of benefits of BIM
incorporation in the construction industry and a better comprehension of its usefulness within
different stages of the projects. The study was conducted by reviewing primary and secondary
research in this field. The results indicate that notwithstanding the possible complexity of
adoption, the liability towards long-term return on investment (ROI) outweighs its drawbacks.
The paper concludes that the integration of BIM stands as a crucial force that transforms and
navigates the landscape of civil engineering and architectural practices. It extends beyond
technological advancements with its transformative impact, redefining industry standards and
fostering innovation within the field.
Introduction
In the past decade, the architectural industry has experienced abrupt changes, shifting
practices from traditional to contemporary. The construction sector has transitioned from paper
based methodologies to computational, bypassing the difficulties of conventional physical files
loaded flow. Building Information Modeling (BIM), a transformative force within the realm of civil
engineering, has emerged as an effective innovation. It acts as an impactful technology,
generating data and managing it throughout the lifecycle of a project. To be precise, BIM
technology is a kind of Computer-aided design program aimed at the storage of information of
the structure or a building in an integrated database, that asserts an assembly and effective
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conceptualisation of the infrastructure by the use of 3D design virtual models. BIM’s inherited
transparency has brought a unique perspective on complex structures of infrastructure and
construction projects. As this technology becomes more and more assimilated into the workflow
of engineering professionals, it has been derived as a key force for significant improvement.
In the ever-evolving industry of civil engineering, the implementation of Building
Information Modeling (BIM) technology serves as a rapid enhancement of a workflow, providing
a better understanding of design, construction process and management of infrastructure
projects. Despite the transformational potential, a sufficient number of stakeholders remain
concerned and distant in regard to the implementation of the technology. This project is
centralised on the investigation of the extent of BIM’s impact on the collective efforts of civil
engineering stakeholders. The paper aims to investigate through a methodical analysis, a list of
advantageous impacts, and a record of how it stands out against potential risks. By closely
researching the improvements of this technology, this project intends to array the ways BIM
addresses and relieves concerns, while showcasing its transformative benefits.
BIM Technology Efficiency
Cost Efficiency
Building Information Modeling technology generates a sufficient amount of beneficial
impact, touching upon several specific domains, such as cost and safety efficiency. Cost
efficiency is an important advantage associated with BIM, notwithstanding the considerable
initial investment required in this technology. As a computer-aided design program, BIM
transforms the construction process with its 3D visualisation capabilities and influences market
dynamics. Jiang (2021) emphasises that those features enable precise calculations and
assessment of design elements, provoking the identification of potential issues in the early
stage of the project. By a comprehensive view of the projects, BIM minimises the possibility of
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minor errors and reduces excess correction which contributes to substantial cost savings.
Continuing the idea, Eadie (2013) presents compelling evidence, asserting that BIM adoption
contributes positively towards investment. Referencing the fact that two-thirds of the users
reported experiencing financial gains. The advantages of the implementation expand throughout
the lifecycle of a project, attesting a long-term financial sustainability. This financial success
could be attributed to BIM’s ability to streamline processes, enhance collaboration and reduce
inefficiencies throughout the project development process. Doumbouya (2016) emphasises
another capacity of the cost efficiency of BIM, underscoring its role of clarifying and disclosing
various project aspects. It allows a better understanding of possible scenarios, energy
consumption and displays visual aspects of infrastructure. Such an advanced comprehension
specifies cost indicators and results in a minimization of the probability of failure. Therefore, by
suggesting insights into potential flaws early in the project, BIM assists investors and informs
them about the decisions that can prevent costly setbacks later on, confirming technology’s
effectiveness.
Safety Efficiency
A key objective in the implementation of Building Information Modelling technology is
also the advancement of the safety performance of construction projects, which has a
considerable impact on the sustainability of the structure. Guo et al. (2019) indicate that the
implementation of BIM technology advances the reinforcement of document integrity and
mitigation of isolation. By being updated automatically and sharing information through a
centralised and federated model ensures a cohesive and well-coordinated approach through the
construction process.
Moreover, as stated in Kjartansdottir et al. (2017, as cited in Ullah et al., 2019), BIM
performance also extends to the construction phase. This technology is essential in evaluating
the infrastructure of complex architectural building systems, not only optimising the construction
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process but also contributing to the rise of the standards of safety. By applying BIM technology
during the construction phase, project groups gain solid insights into the compound systems of
architecture, which instigates more informed decision-making. The ability of this technology to
enhance the planning of the resources and its further exploration of alternative sequencing
options clarifies its role in optimising construction methodologies.
Generally, the adoption of BIM emerges as a transformative force, aligning sustainability
goals with enhancements of safety and efficiency within the architectural industry. The
automatic updates contribute to the collaboration and ensure that all of the involved parties are
working with the most up-to-date data. Simultaneously, the detailed assessment of building
systems during the process allows the effective distribution of the resources and assumes
alternative variants of the sequencing options, therefore fortifying the foundations of sustainable
construction practices.
Transparency
Enhancement of collaboration and transparency through BIM.
Building Information Modeling technology is an innovation that has brought numerous
benefits to its industry. One of the advantages of BIM is information accessibility, which widely
broadens the opportunities of the parties involved. This feature remarkably enhances
collaboration and communication in architectural practice, including data exchange and a clientoriented basis. BIM enables comprehensible processes and as stated by Jasinski (2021) as a
consequence of accurately prepared BIM models, design documents are systematically
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arranged and exhibit full coordination. As a result, it prevents misunderstandings among
contractors, stakeholders and other involved parties.
The Building Information Modeling technology is also beneficial regarding client-oriented
context. Due to the difficulty of paperwork, rough calculations, and unspecified visual
representation, it would be less effective to present the product and provide necessary
information without embracing BIM technology. This could be supported by Jasinski (2021), who
asserted that BIM simplifies communication with clients and facilitates the preparation of
marketing materials. Therefore, BIM has brought numerous benefits to the communication part
of the industry, ameliorating collaborative fundamentals.
Integrity enhancement
In such a broad-ranging field of the construction industry, the issue of corruption and
unethical behaviour is an inevitable component, which is a crucial dilemma that requires a
resolution. BIM is an innovation that has enhanced every domain of the corporation, additionally
touching upon integrity. This technology assists in providing extra transparency and
accountability to the construction project, which is the necessary factor needed for combating
unethical practices in the industry. This technology broadens the transparency and
accountability of the project, reducing the possibility of unethical practices in the industry, which
plays a crucial role in this field. Ya’acob (2022) states that this process is held by the use of a
single repository cloud storage in order to keep the data assembled, therefore accessible to
every stakeholder, restricting counterfeiting, cut-off corners, or submission of false documents.
Abovementioned statements demonstrate the utility of BIM, concluding that it is not only
effective in regards to basic and statistical efficiency, but towards integrity and reliability.
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Adoption Barriers and Challenges
The Obstacles of the Adoption Process
The introduction of Building Information Modeling technology to the construction industry
has resulted as a transformative force within this field, producing a sufficient amount of benefits,
such as enriched project efficiency, enhanced collaboration, and prevention of excessive
expenses. However, despite the previously mentioned advantages, the process of the
assimilation of such an innovative technology is sieved with various barriers and complications
that hinder its accessibility, mostly pertaining to human parties, affecting cultural, client-oriented,
and stakeholders regard.
As identified by Ismail et al. (2017, as cited in Ullah et al. 2019) one of the significant
obstacles of implementation confronted were the cultural resistance among countries like China,
India, and Pakistan. The issue of inner scepticism and unacceptance of advancement of
traditional practices have gained an established position, creating a fixed barrier to the
straightforward incorporation of BIM. In addition to the problem, the uncertainty and the
underlaid challenges are reinforced by high investment costs requirements, which creates an
oppressive, financially tensioned environment for the stakeholders of these regions. The lack of
awareness towards BIM and concerns about further return on investment (ROI) aggravated the
resistance incoming, creating a complex landscape for incorporation.
Similar complication occurs in Australia, where the issues are specified towards the
deficit of distinct knowledge among subcontractors and unawareness of the technology among
clients, which is additionally followed by high implementation costs (Hosseini et al. 2016, as
cited in Ullah et al., 2019). These issues play a fundamental role in the realisation process, as
the influence directed towards subcontractors affects the utilisation of the technology. Clients
equivalently invest a considerable impact, supporting projects financially and maintaining the
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stability. As predominant investors, they need to be informed of the capabilities of the BIM
technology, learning required advantages and possible consequences. Yet, their lack of
awareness serves as a hindrance. The financial burden of implementation could be discouraged
for organisations, yet again, leading to the hesitation of embracing BIM.
It has additionally been concluded by Ahmed (2018) that there is a possibility of narrow
understanding among stakeholders and unawareness of the substantial functionalities of BIM.
This may result in bypassing the possibility of accelerated revolution of the processes, moreover
in resistance of the investors towards the change, hesitating to fund the training and technology
adoption. On that account, the challenges are sharpened more aggressively, emphasising the
need for targeted education and outreach initiatives.
The Negative Aspects of the Implementation
Moving beyond adoption barriers, BIM implementation also launches considerable
negative aspects. As noted by Ishrad et al. (2018), perceived intricacy and complexity of BIM
programs admits potential apprehension among clients. The entangled details that require
learning may may result in keeping individuals distant from full comprehension. Tonis and
Voordijik (2023) further emphasise this point, asserting that the complicity of BIM restricts its
accessibility to certain groups of people. Such a limitation could result in a digital divide, having
a part of stakeholders left behind to the challenges posed by BIM.
Hence, considering above mentioned research, the incorporation of BIM technology,
despite its significant advantages, faces considerable barriers and challenges, which require
modifications. Cultural resistance, high investment cost, lack of awareness and the complexity
of programs hinder its widespread adoption. Addressing these issues requires an effort from
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industry’s stakeholders, policymakers and educational institutions to organise a conducively
tilted environment for the successful assimilation and maximum utility of BIM.
Addressing the issues
Even though the studies of the adoption barriers and negative aspects of BIM took place
in this research, this study mostly focuses on the maximisation of benefits and addressing the
issues, rather than bare evidence of disadvantages. The article by Lindblad and Guerrero
(2020), for instance, touches upon several of previously mentioned issues, discussing the
complexity of programs, lack of awareness and high investment costs. However, the paper
suggests ongoing advancement in user-friendly BIM interfaces and the simplification of
required tools, as well as continuing initiatives to increase awareness, education and training
programs that could successfully address this matter. It also advocates for the change of
perspective towards high investments costs, centralising it around long-term basis and returns
on investment (ROI). Similarly, the study by Sakin and Kiroglu covers the evolution of 3D
technology, emphasising its current growth from complex and expensive technology to a widely
used and versatile tool in the architectural industry. In essence, notwithstanding the drawbacks,
the BIM technology remains an evolving domain within the vastness of the construction industry,
with the poise to thrive over the course of several decades, establishing the ascendancy to the
field, with no barriers emissioned.
Conclusion
This paper has analysed the consequences of the implementation of Building
Information Modeling technology (BIM) in the construction industry throughout the past decade.
It established that notwithstanding the revealing transparency of the technology, it has
significantly enhanced traditional practices. This project has additionally included the negative
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aspects of the incorporation, such as revealing transparency or illustration of the adoption
barriers, limiting BIM’s spreading effectiveness. Cultural resistance, high initial costs, and
complexity in implementation present barriers that require careful considerations and strategic
interventions. However, the focus of my research project is mostly directed towards the positive
impact of incorporation, emphasising that this innovative technology generated beneficial impact
and relief to civil engineering stakeholders. It plays a significant role in cost efficiency, safety
efficiency and breadth of client-oriented practices, positively impacting on market dynamics;
identifying potential issues at an early stage of the construction; enhancing the clientstakeholder relations, and reducing possible acts of dishonesty. Future research should cover
the refinement of Building Information Modeling technology, addressing concerns of
accessibility, awareness limits and education initiatives in order to direct the industry towards an
effective, collaborative and sustainable future. Ultimately, the integration of BIM stands as a
crucial force that transforms and navigates the landscape of civil engineering and architectural
practices. Extending beyond technological advancements with its transformative impact,
redefining industry standards and fostering innovation within the field.
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References
Ahmed S. (2018). Barriers to Implementation of Building Information Modeling (BIM) to the
Construction Industry: A Review. Journal of Civil Engineering and Construction, 7(2),
https://doi.org/10.32732/jcec
Doumbouya, L., Gao, G., & Guan, C. (2016). Adoption of the Building Information Modeling
(BIM) for Construction Project Effectiveness: The Review of BIM Benefits. American
Journal of Civil Engineering and Architecture, 4(3), 74–79.
http://article.civilengineeringarchitecture.com/pdf/AJCEA-4-3-1.pdf
Eadie R., Browne M., Odeyinka H., McKeown C., McNiff S. (2013). BIM implementation
throughout the UK construction project lifecycle: An analysis. Automation in Construction,
36, 145-151. https://doi.org/10.1016/j.autcon.2013.09.001
Guo, H., Yu, R. and Fang, Y. (2019). Analysis of negative impacts of BIM-enabled
information transparency on contractors’ interests. Automation in Construction, 103, 6778. https://doi.org/10.1016/j.autcon.2019.03.007
Jasinski A. (2020). Impact of BIM implementation on architectural practice. Architectural
Engineering and Design Management, 17(5-6), 447-457,
https://www.tandfonline.com/doi/full/10.1080/17452007.2020.1854651
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Jiang Z. (2021). Research on the development of BIM technology based on the application in
the field of civil engineering. E3S Web Conferences, 261.
https://doi.org/10.1051/e3sconf/202126103025
Lindblad, H., & Guerrero, J. R. (2020). Client’s role in promoting BIM implementation and
innovation in construction. Construction Management and Economics, 38(5), 468–482.
https://doi.org/10.1080/01446193.2020.1716989
Sakin, M., & Kiroglu, Y. C. (2017). 3D printing of buildings: Construction of the Sustainable
Houses of the future by Bim. Energy Procedia, 134, 702–711.
https://doi.org/10.1016/j.egypro.2017.09.562
Ya’acob, I. A. M., Yee, S. L., & Rosli, N. M. (2022). The usage of building information
modelling (BIM) towards reducing the unethical issues in the Malaysian construction
industry. In E3S Web of Conferences (Vol. 347, p. 01012). EDP Sciences.
https://doi.org/10.1051/e3sconf/202234701012
Tönis, K. J. M., & Voordijk, H. (2023). Advantages and disadvantages of BIM use:
Differences between experiences of its users and expectations of its non-users.
International Journal of the Built Environment and Asset Management, 2(3), 183.
https://doi.org/10.1504/ijbeam.2023.130528
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Ullah, K., Lill, I. and Witt, E. (2019). An Overview of BIM Adoption in the Construction
Industry: Benefits and Barriers. 10th Nordic Conference on Construction Economics and
Organization (Emerald Reach Proceedings Series) 2, 297-303.
https://www.emerald.com/insight/content/doi/10.1108/S2516285320190000002052/full/html
Annotated Sources
Annotated Source One
Jasinski A. (2020). Impact of BIM implementation on architectural practice. Architectural
Engineering and Design Management, 17(5-6), 447- 457,
https://www.tandfonline.com/doi/full/10.1080/17452007.2020.1854651
The journal article “Impact of BIM implementation on architectural practice” was
published in a peer-reviewed journal in 2020. The leading author Dr. Artur Jasinski has received
a PhD in the architectural major in 2009 and a post-doctoral qualification (habilitation) in the
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same field in 2013. Since his graduation until present he is an Associate Professor of Faculty of
Architecture and Fine Arts at Andrzej Frycz Modrzewski Krakow Academy: Krakow, PL.
The paper discusses the impact of BIM adoption on the architecture practice over a 10year time frame and analyses the implementation process from theoretical and practical
perspectives. The article aims to define the impact of BIM on architectural industry, mainly with
a focus on real-life results, observations and statistical data. The article’s approach and
methodology involve a combination of practical observations from a specific case study and a
review of relevant literature to contextualise and analyse the findings. Jasinski delves into the
challenges faced during the BIM implementation process, including infrastructural, human and
business factors. He points out the complexity of the transition from traditional 2D information
systems to the current 3D data framework. The study’s findings reveal several benefits of the
BIM technology, which are the improvement of design, quality and enhanced coordination.
Unlike the initial expectations, the article highlights that the introduction of BIM did not result in a
significant turnover or profit. Instead, it led to heightened running costs, reduced profits and
increased liability. Generally, this paper emphasises two main aspects of BIM technology
implemented: adoption barriers, cost distribution and client recognition.
This article would be beneficial in my research project in a manner that it would highlight
the aspects of BIM implementation in architectural practice. I have used the data from this paper
two times in section 2 in order to emphasise the positive effect on accessibility and
communication. The reference list includes 18 resources and was helpful in the search of other
information.
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Annotated Source Two
Lindblad, H., & Guerrero, J. R. (2020). Client’s Role in Promoting BIM Implementation and
Innovation in Construction. Construction Management and Economics, 38(5), 468–482.
https://doi.org/10.1080/01446193.2020.1716989
The article “Client’s role in promoting BIM implementation and innovation in construction”
was published in 2020 under the Taylor & Francis, an international scientific journal publishing
house, headquartered in the UK. The leading author Hannes Lindblad has received a Doctorant
Degree in Real Estate and Construction in 2019, currently a key account manager for Siemens
Smart Infrastructure Norway.
The paper explores various roles public client organisations may enact in order to
promote innovation in the construction industry, with a focus towards the largest transport
infrastructure client in Sweden. The focus is mostly forwarded towards two initiatives aimed at
promoting innovation, the implementation of BIM and the fostering of innovation in general. The
article delves into the rationale behind the initiatives, analysing its effect on the client
perspective and examining the interactions within those initiatives. This study questions the
main influence of clients on the fostering of innovation and inquires about complexities and
opportunities associated with this role. Further content consists of general aspects of
technology, touching upon the financial field, complex structure and education process. The
findings in this research have been conducted from a case study at the Swedish Transport
Administration (STA), that purposefully promotes the adoption of Building Information Modelling
technology among the construction industry. However, it additionally analyses potential
difficulties in establishing intra-organisational acceptance for a change towards BIM, as well as
suggesting initiative in order to address this matter. The investigation strategy is based on an
explorative case study and qualitative research, therefore fulfilling the purpose of this paper.
The paper conducts the necessity of ongoing advancement in user-friendly BIM interfaces and
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the simplification of required tools, as well as continuing initiatives to increase awareness,
education and training programs that could successfully address the matter.
In my research project this article was used in order to provide evidence for rebuttals,
emphasising BIM’s development progress throughout the decade and underlying its importance
in the construction industry.
Annotated Source Three
Sakin, M., & Kiroglu, Y. C. (2017). 3D Printing of Buildings: Construction of the Sustainable
Houses of the Future by BIM. Energy Procedia, 134, 702–711.
https://doi.org/10.1016/j.egypro.2017.09.562
The article “3D Printing of Buildings: Construction of the Sustainable Houses of the
Future by BIM” by Sakin and Kiroglu was published in 2017 under Procedia Engineering
platform of peer-reviewed scholarly literature. The paper is additionally peer-reviewed under the
responsibility of KES International. The leading author of the article, Mehmet Sakin is currently a
president of BIM4TURKEY, a center of transformation for the construction industry. Mehmet
Sakin is a Doctor of Philosophy in the field of Construction Management, received the degree in
2019 at Hasan Kalyonchu University.
The paper briefly analyses the subject of Building Information Modeling technology,
summarising the benefits of the implementation in the architectural industry. The study generally
covers the evolution of 3D technology, emphasising its current growth from complex and
expensive technology to a widely used and versatile tool in the architectural industry. It
additionally compares traditional construction techniques, mentioning advantages of the
contemporary practices in regards to cost efficiency, safety measures, time consumption and
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pollution. The results of the research concluded to expand advantages of the incorporations to
the effectiveness of energy efficiency, better design, cost reduction and isolation of the
structure. In the methodology part of the article, the author discusses brief examples of 3D
printing, providing instances of companies, such as Stupino Town, Moscow, Russia.
The article would be beneficial to the research project in order to provide additional
rebuttals in the field of emphasising the growth and development of BIM subsequently.