modelling and scenario simulations, sensing and responding solutions for the built environment, as well as virtual space modelling and data management. In addition to these academic activities, Dr. Martani also has experience as an architect in practice and consultant in civil engineering. ©American Society for Engineering Education, 2023 Developing a new course in design, construction, and societyRecent studies have indicated a ‘culture of disengagement’ in engineering students, with an over-focus on technical aspects, to the detriment of social implications. Furthermore, the Architecture,Engineering, and Construction (AEC) industry is experiencing a burst of technologicaltransformations. Given
within theSchool of Engineering until ABET accreditation and final implementation of the program took about 8years (Figure 1). In this section, we will discuss the six-phase process for developing the new program(Table 1). It should be noted that these phases were not necessarily sequential and may overlap or occursimultaneously, depending on the specific circumstances of the program development. Conception Advisory Board Foundation Hiring of Pilot ABET of Idea Established Approval New Faculty Implementation Accreditation 2013 2014 2015 2016 2017 2018 2019 2020 2021 Study Internal CHE Curriculum Instructional
industry's nominal value added was 4.1 percent of the GDP andis projected to reach a Compound Annual Growth Rate of 5 percent from 2022-2026 [1]. Thisprojection of industry growth exacerbates the ongoing crisis of the current workforce shortage inthe U.S. construction industry. As the Millennial generation continues to enter the workforcewhile the Baby Boomers generation is approaching retirement, there is a growing concern thattraditional engineering and construction education systems do not prepare students for variousworkforce challenges, and the workforce demand will not be met in a timely manner. BabyBoomers are the generation born between 1946 and 1964 that are currently in management andleadership positions. Baby Boomers' generation stands
Paper ID #37868Analysis of Qualifications for Entry-Level Positions in ConstructionManagementOmkar GadakhDr. Luciana Debs, Purdue University Luciana Debs, is an Assistant Professor of Construction Management in the School Construction Man- agement Technology at Purdue University. She received her PhD from Purdue University Main Campus, her MS from the Technical Research Institute of Sao Paulo. Her current research includes the technol- ogy and teaching within design and construction and the impact of Construction and Education 4.0 in undergraduate curriculum. ©American Society for Engineering
) education environment," inAsee, .[34] A. Shirazi et al, "Design and Assessment of a Mobile Augmented Reality-BasedInformation Delivery Tool for Construction and Civil Engineering Curriculum," . DOI:10.1061/(ASCE)EI.1943-5541.[35] M. Setareh et al, "Application of a Virtual Environment System in Building SciencesEducation," . DOI: 10.1061/͑ASCE͒1076-0431͑2005͒11:4͑165͒.[36] F. Masum et al, "Adapting the Surveying Curriculum to New Dimensions of theProfession," J. Prof. Issues Eng. Educ. Pract., vol. 145, (2), 2019. . DOI: 10.1061/(asce)ei.1943-5541.0000408.[37] D. Nikolic, S. Jaruhar and J. I. Messner, "Educational Simulation in Construction: VirtualConstruction Simulator," J. Comput. Civ. Eng., vol. 25, (6), pp. 421, 2011. . DOI:10.1061/(asce)cp
pedagogical approaches to integrate cutting-edgetechnologies and computing into construction education [3]–[7]. Some educators utilizeconstruction gaming simulations, and others utilize project-based learning with technologyintegration [8], [9]. The pedagogical approaches have been constantly changed with realisticclassroom education requirements. With recent social media engagement, students' focusperspectives and knowledge retention have been enormously altered in the classroom. Manyresearchers develop studies on new pedagogical approaches to overcome classroom educationand assessment challenges through technological integration, expert mentoring, and service-learning opportunities [10], [11]. Most educators try to adopt pedagogies that blend
experience in structural design, analysis, and construction processes. He also served in several construction legal litigations as an expert witness. Dr. Maleki’s current research agenda is the application of new technologies to improve the undergraduate construction education. Dr. Maleki has published several technical and scientific papers in peer-reviewed journals and international conferences. He is a member of multiple scientific societies and serves as a peer reviewer for several journals. ©American Society for Engineering Education, 2024 Application of LiDAR Technology in Construction Education - Case study: Estimating CourseAbstractThis study explored the use of LiDAR
) use ofconnections that are easy to dismantle (e.g., using screwed, nailed, and bolted connections; usingmodular or prefabricated structure; and reducing chemical and welding connections); (c) usehomogeneous materials and reduce the use of hazardous materials; (d) design simple structureand forms that allow the standardization of dimensions and components; and (e) separation ofnon-recyclable, non-reusable, and non-disposal items such as mechanical, electrical, andplumbing (MEP) systems [3]. Although these circular economy approaches are one of the mostadvocated sustainability practices in the Architecture, Engineering, and Construction (AEC)industry, it is not yet widely practiced. Additionally, it is critical to educate the future
inengineering, construction, and architecture, is well known for producing 2D drawings, but alsoallows designing and visualizing objects in 3D (Zakaria et al., 2012).Most engineering and construction programs teach AutoCAD for 2D drawings in introductorycourses and offer courses in 3D visualization in upper-level classes (Hao et al., 2016; Otey etal., 2019; Oyebode et al., 2015; Anneberg et al., 1997). However, the students enrolled inengineering and construction programs often possess mixed entry skills in engineering andconstruction drawing. Some students may be experts in the subject due to their exposure to itduring their secondary school education, while others may find it entirely new for them. Thisdisparity in knowledge and experience creates a
(BIM) implementation in the Yemen construction industry”. Journal of Engineering,Design and Technology. 2019.[14] N. Ghalenoei, M. Jelodar, D. Paes, and M. Sutrisna, “Challenges of offsite construction andBIM implementation: providing a framework for integration in New Zealand”. Smart andSustainable Built Environment, 2022.[15] S. Seyis, and A. M. Sönmez, “Analysis of the benefits, challenges and risks for theintegrated use of BIM, RFID and WSN: a mixed method research”. Construction Innovation,2022.[16] K. Mostafa, and F. Leite, “Evolution of BIM adoption and implementation by theconstruction industry over the past decade: a replication study”. in Construction ResearchCongress 2018 (pp. 180-189), 2022.[17] A. Enshassi, and L. AbuHamra
Paper ID #37318Developing a Simulated Experience to Capture the Bidding Process in aCost-Estimating CourseMr. Veto Matthew Ray, Indiana University–Purdue University, Indianapolis Mr. Matt Ray is the Director of the Facilities Management Technology Program and lecturer for both the Facility Management and Construction Management Programs offered through the Purdue School of Engineering and Technology at Indiana University Purdue University Indianapolis. He has been with the school for the past 14 years. He is a graduate of the Purdue School of Engineering and Technol- ogy receiving degrees in Construction Technology
efficient collaboration. Integrating critical thinking into the curriculum promotes a deeper understanding and reflective evaluation of problems and solutions in construction. For this, courses should be designed to teach technical fundamentals and challenge students to analyze, question, and assess different approaches and solutions through case studies, debates, and collaborative projects. The emphasis on soft skills, such as effective communication and teamwork, is crucial even in a technologically advanced environment (P4).3. Establish and strengthen links between academia, the industrial sector, and technology companies: To prepare Construction Engineering students for current challenges, the academic program must establish and
expertise to drive AI advancements across various sectors, includingconstruction. Identifying AI experts with experience in the construction business to developtailored solutions for industry-specific issues is challenging. To tackle this scarcity, it isimperative to allocate more resources to STEM education and foster cooperation betweenbuilding specialists and AI researchers [8]. The focus of academic institutions has been on therate at which personnel acquire new skills and knowledge, emphasizing the need to integrate AIinto construction management education based on the current utilization of AI in theindustry[10]. The following are some strategies for incorporating AI into constructionmanagement education: 1. AI Curriculum Integration
. This approach seeks to equipfuture construction engineers with the practical skills necessary for success in their careers and tomeet the industry's demands effectively.IntroductionEducation plays a pivotal role in teaching planning. A well-structured teaching method not onlyfacilitates knowledge transfer but also encourages students to challenge their preconceptions andmotivates them to learn [1]. When it comes to engineering education, there are unique peculiaritiesdue to the specific competencies required in this field. Engineering education is characterized bya distinct design in most curriculums [2]. The aim is to cultivate interdisciplinary-minded andhighly talented practitioners possessing innovative thinking and problem-solving
) is also critical. This research focuses on examining the stresslevels and identifying key factors contributing to stress, such as academic workload, anxietiesrelated to job searches, and concerns over future professional prospects. In our previous research,we also highlighted the significance of mental health challenges among engineering students. Ourprevious study recommended integrating mental health resources into the engineering curriculum,particularly for civil and construction students [1]. Building on our prior research, this study aimsto assess stress levels and explore the relationships between various stressors and demographicvariables among AEC students. Following Institutional Review Board (IRB) approval, this studydistributed
advanced econometrics and statistical approaches. ©American Society for Engineering Education, 2024 1 Review of Building Information Modeling (BIM) Education in Enhancing 2 Students’ Communication Skills 3 4 5 Abstract 6 Building Information Modeling (BIM) refers to a highly collaborative process in the construction 7 management of built assets, changing engineering practices and pedagogical strategy from 2D 8 Computer-Aided Design to 3D visualization. BIM has been rapidly adopted in the Architecture, 9 Engineering, Construction, and Operations (AECO) industry. BIM enables industry professionals10 to create and share comprehensive engineering information, fostering multidisciplinary11
educational research alongside other research topicsbecause of its significance in guaranteeing that students and graduates are equipped for theindustry [11]. More attention has recently been paid to AR, a relatively new technology that isquickly developing into a helpful teaching tool in the classroom. AR technology is being used ineducation to complement traditional teaching methods and enhance student learning outcomes.Traditional teaching methods typically encompass in-person instruction, direct communicationbetween teachers and students, and reliance on textbooks and lectures, often incorporating use ofvideo or visuals [12]. While these methods are foundational, there is a growing shift toward moreinteractive and technology-driven approaches [4
Paper ID #41375Teaching Project Planning and 4D Scheduling in a Project Planning and SchedulingCourseDr. George Okere, University of Cincinnati George is an associate professor educator, and heavy highway chair (endowed position) in the Civil and Architectural Engineering and Construction Management Department in the College of Engineering and Applied Science at the University of Cincinnati (UC). George has over 23 years of construction industry work experience, and 11.5 years of which was with Kiewit, where he worked on various heavy civil projects. He received his PhD in Technology Management from Indiana State
considerations in shaping sustainability strategies. By incorporatingthese insights into the curriculum, educators can prepare students to navigate the complexities ofsustainable construction and make informed decisions that balance environmental, economic,and social considerations.ReferenceCheng, J. C. P., & Ma, L. J. (2015). A non-linear case-based reasoning approach for retrieval of similar cases and selection of target credits in LEED projects. Building and Environment, 93(P2), 349–361. https://doi.org/10.1016/J.BUILDENV.2015.07.019Da Silva, L., & Ruwanpura, J. Y. (2009). Review of the LEED Points Obtained by Canadian Building Projects. Journal of Architectural Engineering, 15(2), 38–54. https://doi.org/10.1061/(ASCE)1076-0431
teaching. She is the Director of the Construction Engineering program at the Universidad Andr´es Bello in Santiago, Chile, and a permanent contributing columnist for the Negocio & Construcci´on magazine. Her areas of interest include improving academic management in the Construction Engineering degree program and seeking new ways to enhance the experience of students and teaching professionals at the university. She also focuses her efforts on recruiting and retaining students to the program and ensuring they can learn key concepts in the most meaningful manner possible.Dr. Monica Quezada-Espinoza, Universidad Andres Bello, Chile Monica Quezada-Espinoza is a professor and researcher at the School of Engineering at the
construction engineering and technology educationThe construction industry is continuously evolving, with new technologies being introducedconstantly. To keep up with these trends, it is necessary to integrate these new technologies intothe current baccalaureate curriculum for construction management education. The constructionmanagement curriculum primarily focuses on applying these new technologies rather thancreating or developing them. This initiative aims to equip future construction leaders with thenecessary skills to lead the industry while maintaining traditional student learning outcomes inthe construction management curriculum.Various technologies utilized in the industry and their applications in different industriesnecessitate a minimum of
., & Kwon, H. (2012). “Key Competencies for U.S. Construction Graduates: Industry Perspective.” Journal of Professional Issues in Engineering Education and Practice, 138(2).2. Ashcroft, J., Warren, P, Weatherby, T., Barclay, S., Kemp, L., Davies, R.J., Hook, C.E., Fistein, E., & Soilleux, E. (2021). “Using a Scenario-Based Approach to Teaching Professionalism to Medical Students: Course Description and Evaluation.” JMIR Medical Education, 7(2).3. Branch, R. M. (2010). Instructional Design: The ADDIE Approach (2010 ed.). New York, NY: Springer.4. Budoya, C., Kissaka, M. & Mtebe, J. (2019). “Instructional Design Enabled Agile Method Using ADDIE Model and Feature Driven Development Method.” International Journal of Education
teaching methods (e.g., seminars and lectures) tomore integrated curriculums [4], [5]. Several research studies looked at the use of mixed realitytechnology as well as other tools and methods of delivery and their potential advantages, utilities,challenges, and opportunities in dissemination of construction and engineering content [6], [7],[8]. An important dimension of the construction industry is the close connection to relateddisciplines including architecture and engineering and therefore, the simulation of suchrelationships in construction education was investigated in numerous studies, revealing the valueand significance of interdisciplinary and collaborative leaning environments [9]. However,evaluation of these instructional delivery
.* Correspondence: Miguel Andrés Guerra, MAGuerra@usfq.edu.ecAbstractCivil engineering education plays a critical role in shaping the next generation of professionalscapable of addressing the complex challenges of modern infrastructure development. To promotehands-on learning experiences and bridge the gap between theoretical knowledge and practicalapplication this research project has adopted a novel approach by integrating real material scalemodels into its curriculum. This abstract provides an overview of the implementation, benefits,and student outcomes resulting from this innovative educational initiative. The incorporation ofreal material scaled models into civil engineering courses enriched the learning experience ofundergraduate students. By
foundational perspective on construction casestudies, [13] whose work in digital ethics curriculum development offered insights into complexproblem-solving, [14] who explored the integration of public policy in engineering education, aswell as the practical guidelines from the Boston University Center for Teaching & Learning [15].Additionally, the approach by Head et al. [16] in applying case studies to teach structuralanalysis and design was also influential. Secondly, complementing these borrowed structures,our research team engaged in thorough discussions to develop original questions. This dualstrategy ensured that our case study not only aligned with established educational practices butalso addressed unique aspects relevant to our specific
curricula steeped in alternative cultural and societal experiences and perspectivesthat differ from the traditional curriculum. A refreshing approach that may captivate a largerbase of students [5]. Multicultural engineers diversify the profession's mindset on problems anduse surrogate approaches to engineering projects, innovation, and multicultural competencyamong engineering coworkers [5]. A diverse faculty strengthens multiculturalism by attractingand retaining a diverse student and workforce [1]. The increase in diversity widens the diverserole models and mentors, especially for students experiencing challenges based on unjust factors[1]. Expanding diversity among faculty encourages inclusion in policies that preserve STEMmonoculture stifling