equipping them with the necessary skills and knowledge for the construction sector and how these have translated into real-world applications and employability. This evaluation will provide insights into the long-term benefits of the course and its alignment with professional requirements. ● Teachers' perspectives on implementation and effectiveness: Finally, the study aims to gather insights from teachers regarding the course's implementation and effectiveness. Teachers' perspectives are invaluable in evaluating the course structure, teaching methodologies, and the overall delivery of the curriculum. Their views on what works well and what could be improved are essential for continual course
construction of a house or a bridge, eventhough it was a 1:100 scale model. They learned the problems they will face once they startworking, like the time it takes for the concrete to set and dry, and how the materials, like wood orcardboard (which some groups used, as it was a scale model), can sometimes stick to the concreteand cause delays in the work. The application of practical projects in classes teaches civil engineering students how todeal with problems they will face in the real world. But there were areas that have to be madequestions to measure and see is the spectrum cand get wider on what other areas are involved andhow they can be tested. The impact of this educational initiative was assessed through qualitativeand quantitative
, research-based methodologies, community engagement projects, evaluation tools and technology, and gender issues in STEM education. https://orcid.org/0000- 0002-0383-0179 ©American Society for Engineering Education, 2024 Beyond the Classroom: Problem-Based Learning in Real Scenarios, Fostering Self- Efficacy and Sense of BelongingAbstractThis complete research presents how engaging students in practical, real-world activitieswithin the Project-Based Learning (PBL) approach enhances their sense of belonging andself-efficacy. Situated in the practice course 'Building Processes I' of the ConstructionEngineering program at a private university in Chile, this study aims to address the issue oflow
effectively. C. Infrastructure and Resources Ensure that the institution has the necessary hardware, and software, resources to support the implementation of LiDAR technology. D. Accessibility and Inclusivity Consider the accessibility of LiDAR technology to all students. Ensure that the technology is inclusive and that students with diverse backgrounds and abilities can effectively engage with and benefit from its use. E. Industry Collaboration Foster collaboration with industry partners who are using LiDAR technology. This collaboration can provide valuable insights, real-world applications, and potential student internship opportunities
in the field. A cornerstone of most undergraduate CEM programs is the seniorcapstone course, traditionally designed to bridge the gap between academic learning and real-world application [19]. However, as observed across various professional fields, CEM programshave encountered challenges in producing graduates with the necessary problem-solving andcritical thinking skills required by the modern construction industry [12]. In response to thisissue, there is a growing need to rethink and innovate the structure and content of senior capstonecourses to better align with the evolving needs of the industry. To address this need, the authors’program has proposed the development of a novel senior capstone course using a scenario-basedlearning
connected to learning. Becker and Parker [13] describenon-digital educational simulations as live face-to-face learning situations where instructorsguide learners through a process that is often built around project-based activities. This approachto delivering a simulated experience, though absent of any virtual reality technology or digitalenvironment, can still embrace the use of technology and processes associated with industry-specific real-world applications. “Simulation-based learning offers a wide range of opportunitiesto practice complex skills in higher education and to implement different types of scaffolding tofacilitate effective learning [14].” “Simulation-based training techniques, tools, and strategiescan be applied in designing
around bridging theeducational disparity in understanding the spatial and temporal constraints inherent inconstruction procedures because CM students are not exposed to these processes as they arebeing taught concrete concepts with abstract teaching methods in the classroom. AugmentedReality (AR) is a promising way to improve education by bringing virtual site visits into theclassroom [5]. According to Rankohi and Waugh [6], this approach enhances students'understanding by using the real-life examples in the course material delivery. Due to its ability toprepare students for real-world applications as they develop transferable skills, AR in CMeducation is gaining attention [7]. When AR-based learning methodologies are used, students'practical
growing demand for AI competencies and its influenceon academic preparation, guiding higher education institutions towards training students for alabor market that increasingly values industrialization, robotics, and virtual and augmentedreality technologies. The following section provides a literature review showcasing AI'simportance in engineering and this sector's required skills and competencies.AI todayArtificial Intelligence (AI) has made significant advances in recent decades, with experimentsand studies outlining its capabilities and limitations. Its paradigms have recently beenreassessed, generating innovative applications to solve diverse real-world problems. Thisprogress marks an era of notable change and expansion in the AI field [1-3
: a. Develop specific courses or modules dedicated to AI in construction management. Topics can include AI applications in project scheduling, risk assessment, supply chain optimization, and predictive analytics[8]. b. Cover fundamental AI concepts, including machine learning, neural networks, natural language processing, and computer vision, while also emphasizing their relevance to construction management [7].2. Guest Lecturers and Industry Experts: a. Invite professionals and researchers in the field of AI and construction management to give guest lectures. Their real-world insights can provide students with a practical perspective on AI's role in the
-trivial cognitive challenges in traditionalpedagogical approaches while learning circular economy concepts due to the complex interactionof social, environmental, and economic systems in the circular economy. Although a simulation-based pedagogical approach can help students to learn about these concepts, they may not becapable to implement the circular economy concepts to solve complex problems in theirprofession. Hence, there is a pressing need for an innovative pedagogical approach that not onlyimproves students’ knowledge about the circular economy but also improves their ability tosolve real-world problems using circular economy principles.The problem-based learning is an unconventional mode of teaching that has been found toimprove the
in this paper and aid them in implementing hands-on and real-life project planning andscheduling courses that cover the areas of project planning and 4D scheduling.Keywords: Project Planning, 4D Scheduling, Virtual Design and Construction, BuildingInformation Modeling, MS Project, Primavera P6.IntroductionProject planning, scheduling, and control course introduces the techniques for planning,scheduling, and controlling construction projects. As taught at the University of Cincinnati, thetopics include a refresher on the characteristics of the construction industry, a refresher onconstruction materials and methods, aspects of construction planning and the need for planning.The course also covers scheduling techniques and analysis of critical
construction industry. In addition to their primaryuse of surveying and mapping construction sites, they can also be used to teach students aboutthe regulations and guidelines related to drone operations in construction. By incorporating dronetechnology into the construction management curriculum, students can gain hands-on experiencewith this emerging tool and develop crucial skills highly sought after in the constructionindustry. Moreover, drones in the construction management curriculum can provide studentswith real-world experience in incorporating emerging technologies into construction projects.This experience can help students understand how to apply drone technology in various stages ofconstruction, such as site analysis, design, and
] Ayinla,M. (2013, August 26). Tackling endless Tragedies of Building Collapse. National Mirror p. 22-24[3] Okunola, O. H. (2022, April 6). Quantifying frequent building collapse and disaster risk reduction in Nigeria. Brookings. https://www.brookings.edu/articles/quantifying- frequent-building-collapse-and-disaster-risk-reduction-in-nigeria/[4] Gbonegun, V. (2023, April 26). Nigeria has highest number of collapsed buildings in Africa, says SON DG. The Guardian Nigeria News - Nigeria and World News. https://guardian.ng/news/nigeria-has-highest-number-of-collapsed-buildings-in-africa- says-son-dg/[10] Aina, D. (2023, February 26). Real estate, construction sectors add N8.9tn to GDP – Report. Punch
VDC Course Development Develop syllabus Develop modules Student Learning Outcomes and Assessment Strategies Mapping SLOs Develop project based assessments Figure 1 Course Development ProcessAdditionally, the student learning outcomes were flexible enough to be tied to real-time casestudy projects conducted by the faculty member within the context of the industry partnership.Figure 2 details the timeline of the course development process. As mentioned, the approvaltiming for the faculty resident was one of the compelling reasons to develop this course in thesummer. The AGC approved the faculty residency application
the concepts taught in previous classes. This real-world experience providedcontext and relevance to the course material, making it easier to grasp and apply in academicsettings. The confidence I gained from successfully managing responsibilities in the internshiphas positively influenced my approach to coursework. Now, I feel better equipped to tacklecomplex topics and challenges, knowing that I have practical experience to draw upon and aclearer understanding of how classroom knowledge translates into real-world applications. Thisnewfound confidence has undoubtedly enhanced my readiness for continued learning at theuniversity and I am excited for that!!”“Before this internship, I always felt that I was behind everyone in my classes due to
mimics thebasic processes that practitioners go through. Cost estimating has a set of processes that have not changedthat much even in today’s digital world using Building Information Modeling (BIM) technologies. Costestimating is in part science and part art and should be taught using hands-on real-life methods. A reviewof cost estimating syllabi indicate a lack of consistency or standardization in the content covered. Inaddition, the literature on cost estimating as published in ASEE conference papers provide little or noexample of the typical cost estimating workflow, and applicable templates for quantity takeoff, pricing,detailing the scope of work, and criteria for grading students’ work.Literature reviewCost estimating is the foundation of
) Figure 2: Course map of the new BS in Construction EngineeringDesign During the design phase of the program, the program was meticulously developed and defined,including its structure, content, and delivery methods. This involved the creation and refinement of courseoutlines, syllabi, and other instructional materials, as well as the development of a comprehensivecurriculum. As part of this process, 17 new courses were created, including the culminating senior designcourses, CONE 481 and CONE 482, which provide students with the opportunity to apply theirtheoretical knowledge and technical skills to real-world engineering problems. Another course, CONE412, was specifically designed to assist students in preparing for the NCEES Fundamentals
their learning potential. Additionally, the current educational landscapeembraces the integration of novel technologies to foster enhanced learning experiences.Background Artificial intelligence is a technology that has come into common use in education due toits applications in the learning process. Both in the United States and in Ecuador and other partsof the world, artificial intelligence is becoming an important and used tool by students, removingall cultural barriers that may exist in civil engineering in different countries [9,10]. AI is the partof computer science involved in the design of intelligent computer systems, i.e., systems thatexhibit the characteristics related to intelligence in human behavior, such as understanding
application in the field of CEM presents a distinct set of challenges and opportunities.The existing literature offers a multitude of guidelines on "how to write a teaching case study,"emphasizing general pedagogical approaches and strategies suitable for diverse fields rangingfrom business to healthcare [3], [4], [5]. These resources often describe the principles ofeffective case study design, such as developing real-world scenarios, fostering critical thinking,and promoting active learning environments. However, there is a noticeable gap in literaturespecifically tailored to the unique needs of construction engineering and management education.This gap is evident in the lack of detailed guidance on incorporating modern constructiontechnologies
Industry Solutions and Evaluating Teaching Methods for Delivering BIM in Senior Design ClassAbstractBuilding Information Modeling (BIM) has been adopted by the Architecture, Engineering, andConstruction (AEC) industry to simulate the construction environment before it is constructed inthe real world. However, the adoption of this technology has been challenging for both the AECindustry and engineering education at the undergraduate level. Some challenges faced by the AECindustry include a lack of BIM professionals, and a lack of guidelines for BIM implementation, sothere is a need to emphasize the importance of finding solutions to those challenges, which iscritical for successful BIM implementation. The growing demand for BIM
students and the AECO industry [16]. Most BIM courses involve a multifaceted approach55 that integrates theoretical knowledge, practical skills development, and real-world applications56 [17]. Students are expected to learn BIM concepts, fundamentals, theoretical knowledge, and57 existing industry practices through lectures [18]. Also, practical workshops and labs are often58 combined with BIM courses [19]. Students in BIM education often have hands-on exercises for59 creating 3D models, clash detection, and construction sequencing using BIM software like60 Autodesk Revit or Navisworks [20], [21].61 BIM competencies are defined as the set of qualifications required for BIM-related jobholders or62 candidates, enabling them to
, andprojects. This helps them in evaluating students through various assessment tools. In addition,students complete their undergraduate degree with an average of 130-140 credit hours with theaddition of one or two mandatory co-ops or internships during their course of study. While this isnot the same for all CM programs, the authors focused on one of the universities in the NewEngland region to establish this research. These mandatory work experiences help the students togain a practical understanding of how subject matter is applied to real-world projects while at thesame time achieving specified metrics for assessment through the organized learning outcomesfrom the accreditation bodies.According to the ACCE, there are 17 learning outcomes that
taskinterdependence expanded, the perception of teamwork increased as well.The subject of teamwork in construction and engineering programs has been discussed inliterature too. While team building, performance, communication, and leadership are essentialskill sets that students need to learn and excel in, the subject is not extensively embedded inconstruction and engineering curricula, and therefore, students’ perceptions may not be alignedwith the career requirement in a real-world environment. Students’ perceptions and attitudes canalso directly impact or facilitate teamwork practice in academic programs. Mendo-Lázaro et al.[13] developed an instrument to measure the attitudes of students toward teamwork. The analysisof data obtained from 750 first- and
customization are also considered when presenting prefabrication for housing in the United States and Europe from the early 1900s to recent years. Following, two lectures cover the architectural career and work of two modernist architects, namely Mies van der Rohe and Le Corbusier. We discuss how major societal events have contributed to their work, such as World Wars, and technical advances, such as concrete and steel. The fifth lecture on modernism discusses how it influenced urban planning and the organization of contemporary cities. During the class, we discuss the motivations and issues behind the segregation of land uses and their effect on land prices. In this lecture, the instructor also outlines how the popularization
peer-to-peer learning by embracing various active learningstrategies such as group work, case studies, simulations, and role-playing exercises [8].Moreover, such teaching methods often incorporate real-world applications and practicalexercises, allowing students to apply theoretical concepts to real-life scenarios. Additionally,active learning methods offer immediate feedback and assessment opportunities, enablinginstructors to analyze student progress and address any misunderstandings in real time [9].This study leveraged active learning strategies to deliver sustainability and resilience educationin online settings. Literature has suggested that learner-centered online learning can beparticularly effective for sustainable development
Management: A Study of Applied Risks East Carolina University Greenville, North CarolinaSince the launch of ChatGPT by OpenAI on November 30, 2022, its adoption in educational settings hasattracted significant academic interest. However, less attention has been focused on its use in writing-intensiveconstruction courses. This paper reviews and summarizes the key applications, policy approaches, andpotential academic challenges associated with the development of ChatGPT to improve writing skillsmanaged by practitioners in the construction industry. It explores contentious topics such as thetrustworthiness of AI-generated content, the
which this researchis conducted consists of a syllabus in which the subject of Structures is compiled of fivecourses: Applied Statics, Structural Analysis, Timber and Steel Construction, ReinforcedConcrete Construction, and Earthquake-resistant Construction. All five courses occurbetween the training program's fourth and eighth semesters. Researchers have identified thissubject area as representing a historic bottleneck where students experience the highestfailure rates in the entire degree program.Courses in structures contain principles and concepts that are difficult to associate with real-life applications, including energy and stiffness methods, making them hard for students topass [12]. A study by the University of Michigan contends that
a moresolid basis and reveals a variety of additional ways in which these sustainability-focused projectshave the potential to add real value to their stakeholders [17]. To this end, the Envision ratingsystem is briefly described in the following section.The Envision™ Rating SystemThe Institute for Sustainable Infrastructure (ISI) and the Zofnass Program for SustainableInfrastructure at the Harvard University Graduate School of Design collaborated to create theEnvision rating system. This rating system includes 64 sustainability and resilience indicators, or"credits," inside a precise framework made up of five categories: Quality of Life (QL),Leadership (LD), Resource Allocation (RA), Natural World (NW), and Climate and Resilience(CR). The
thecurriculum. For personal stress, initiatives like mindfulness sessions and emotional intelligenceworkshops can enhance students’ resilience. Academically, offering time management coursesand stress reduction techniques helps manage workload pressures. Enhancing soft skills, crucialfor both academic success and career readiness, involves communication and teamworkworkshops, coupled with real-world project experiences. To mitigate work-related stress, careercounseling, industry engagement through webinars, and practical advice on navigating jobmarkets are key. These strategies collectively aim to prepare students not just for professionalchallenges but also to enhance their personal development and academic performance, creating awell-rounded
challengesand contrasting traditional methods with modern technologies, the scenarios prompt participantsto critically evaluate their skills and comfort level, contributing to a comprehensive assessmentof their digital literacy and preparedness for the evolving demands of the construction industry.For instance, in Workshop 1, Scenario 1 focused on technology selection, simulating thechallenge of capturing precise site details for planning and design. Participants were prompted toconsider the most appropriate technology for the task, encouraging critical evaluation of eachtechnology’s suitability based on scenario requirements.In Workshop 1, Scenario 2 immersed participants in a real-world problem faced by designengineers: capturing accurate building