Paper ID #41383Impact of an Industrial Internship on Construction Students’ Sense of BelongingDr. Kimberly Grau Talley P.E., Texas State University Dr. Kimberly G. Talley, P.E. is an associate professor in the Department of Engineering Technology, PERSIST (Promoting the Engagement and Recruitment of Students In STEM) Lab Director at Texas State University, and a licensed Professional Engineer. She received her Ph.D. and M.S.E. from the University of Texas at Austin in Structural Engineering. Her undergraduate degrees in History and in Construction Engineering and Management are from North Carolina State University. Dr
consistentmethodology for gathering ACCE data. However, the paper does not concentrate on assessmentanalysis. Rather, it focuses on developing a preliminary framework for XR-based assessment ofSLOs. The authors plan to collect assessment data, analyze it, and establish assessment criteria aspart of their future work.Research MotivationSeveral researchers have introduced and implemented VR and AR into construction education [5].Integrating technology in education has always enhanced students' productivity and learningstrategies. There are two primary reasons for this research: 1) to introduce technologicalinnovations in the classroom that not only showcase fancy, state-of-the-art equipment but also helpstudents achieve their SLOs by engaging with technological
thatpositively impacted instructor and student collaboration included comfortable and flexible(movable) furnishings, sufficient space between collaborative groups, an abundance of white-board surfaces, and digital technology for sharing ideas. Providing a flexible, open design allowsfor easier movement and encourages social interaction among peers and students, enablesstudents and instructors to share knowledge, and creates a feeling of community and engagement[6].Flexibility in the university classroom is becoming increasingly important to meet limitedclassroom space needs and support multiple learning and instructional methods. Studies haveindicated positive perceptions of students and instructors when furnishings allow for moving andadjusting to
to promote student engagement and significantly impact student learning.The effectiveness of an active learning method varies from many methods that are often used inonline settings due to its focus on engaging learners through interactive and participatoryactivities. Active learning requires students to actively participate in the learning process byengaging in discussions, problem-solving activities, and collaborative projects, as opposed topassive learning methods where students passively receive information [6]. This hands-onapproach encourages deeper understanding, critical thinking, and retention of knowledge [7].Active learning approaches also promote interaction and collaboration among learners,cultivating a sense of community and
discussions. Each group consisted of three participants to ensure active engagement andmeaningful interaction. For this study, a semi-structured interview protocol was developed toguide the discussions, incorporating open-ended questions to explore participants’ experiences,motivations, and challenges in pursuing a degree in CEM. The interviews took place in acomfortable and private setting to encourage open and honest communication, and field noteswere taken to capture contextual information. At the end of focus group interviews, a follow-upquestionnaire was distributed to quantitatively measure the gender disparities surrounding femalestudent’s enrollment in the author’s university program.Data Analysis and ResultsTo assess the extent of issue on
be local students. Figure 2. Students’ socio-demographic background, n=61Circular Economy Concept Map Developed by StudentsThe concept map development activity helped students to conceptualize their solutions and theimplications of their decisions. Since this activity involved actively working on a real-worldproblem that impacts the environment, there was an increase in student engagement andcollaboration. Students’ involvement in this activity enhanced their ability to conceptualizesystems thinking by focusing on how the concepts and patterns in one system influence othersystems in the circular economy. During the group activity in the combination learning module,students were divided into groups of 4. Overall, 15 student
Indiana. Her focus includes innovative course development and the impact of built environments on human well-being with positive outcomes. ©American Society for Engineering Education, 2023 Applying a Flipped Learning Approach to Construction Cost Estimating: Fostering Increased Student Engagement in Guided Active Learning ExperiencesIntroduction:Learning the art of construction estimating is invaluable to a student’s overall understanding ofthe construction process and in promoting workforce readiness. With limited contact hours eachweek, the traditional face-to-face lecture and tutorial-based format can impede engagement andlearning, not allowing time for quality
the School of Engineering at the Universidad Andres Bello in Santiago, Chile, where currently collaborates with the Educational and Academic Inno- vation Unit, UNIDA (for its acronym in Spanish), as an instructor in active learning methodologies. Her research interest topics involve university education in STEM areas, faculty and continuing professional development, research-based methodologies, community engagement projects, evaluation tools and tech- nology, and gender issues in STEM education. https://orcid.org/0000- 0002-0383-0179 ©American Society for Engineering Education, 2023 Remedial courses effectiveness on timely graduation rates and degree progression within construction
every lab session.Roles were switched each week. This approach aims to transfer the knowledge of a commonly used toolwhile improving their leadership abilities and communication skills.The main objective of this study was to evaluate the effectiveness of implementing Procore® into the labassignments on the students' learning, teamwork, and lab activity engagement. In order to accomplish thestudy’s main objective, a designed quasi-experiment survey was sent to the students asking for theirfeedback. The survey included questions aimed at the students’ perception of using Procore during and afterthe lab session to accomplish individual and group assignments. The results of this study support thedevelopment and implementation of practical
. ©American Society for Engineering Education, 2024 Assessing Stress Levels and Stressors Among Architecture, Engineering, and Construction (AEC) Students: Underpinnings for Mental Health Curricula DevelopmentAbstractEven in this post-pandemic world, it cannot be overlooked that the global community has yet tofully recover from the long-term mental impacts of the pandemic and its associated challenges.Among these, the shift to remote learning and isolated lives has significantly affected students’mental health. While it is widely discussed that engineering students are more prone to mentalhealth conditions, investigating the mental well-being of students specializing in Architecture,Engineering, and Construction (AEC
noise pollution; and (5) land use and theimpact on the biodiversity [6], [11], [12], [13]. Social sustainability involves evaluating thesocial impacts of construction projects and understanding their influence on how individuals live,work, engage in recreational activities, relate to one another, organize to fulfill their needs, andcope as integral members of society [14]. As such, social sustainability strives to ensure that thesocial impacts of construction projects result in positive outcomes, fostering equity, communityengagement, preservation of neighborhood character, as well as enhancing the health, safety, andwell-being of individuals, communities, and employees [12], [13], [14], [15]. Finally, economicsustainability involves the
engineering students at Universidad SanFrancisco de Quito (USFQ) to assist them in their learning processes. The study allowed for theevaluation of the program's impact on the learning process and, consequently, on the developmentof critical thinking skills. Through surveys, data were collected from students of different academicyears, providing insights into their development of critical thinking under various circumstances,with a qualitative focus on their perception of implementing AI as a learning method. Additionally,the study analyzes potential factors influencing the relationship between AI usage and academicperformance. Through this research, a comprehensive understanding of the implications of AI oncritical thinking in construction
research focus.While there is considerable emphasis on the development and design of case studies, theliterature reveals a lack of research focusing on systematic testing and evaluation of theseeducational tools in CEM. Testing case studies is not just a quality assurance measure; it is apedagogical necessity that ensures the case studies are effective in enhancing student learningand engagement [17] [18]. This involves assessing the clarity of the case, its relevance toindustry scenarios, and its ability to prompt thoughtful discussion and critical analysis amongstudents [19]. Moreover, because the construction industry is unique and constantly changing,especially in its technologies and project management methods, it’s important to regularly
established interpersonal relationships to timely address issues with the concernedproject team member as the situation requires, to prevent those issues from impacting the projectgoals. Interpersonal relationships aid the open clear communication strategy [19] and decision-making process required for project goals to be met. Good interpersonal relationship skills not onlyfacilitate communication but essentially foster mutual understanding and trust that promotescollaboration, coordination, and teamwork for the successful execution of construction projects.Further, the ability to influence is an essential leadership skill [26] as it correlates with one of thesignificant differences between a top-performing field leader and an average-performing
: "Other students at thisuniversity seem interested in my opinions, ideas, and questions related to classwork," thisuptick, although modest, suggests a growing culture of academic engagement and respect fordiverse viewpoints within the classroom. It reflects the positive impact of collaborative andinteractive teaching methods on fostering a supportive learning environment where studentsfeel their contributions are valued. In the latter case, both before and after the intervention,students' perceptions remained low, yet there was an increase from 43% to 48% in the levelof agreement. Finally, Item 12: "I feel confident reaching out to another student if I have aquestion about a specific assignment" (Pre: 71% - Post: 95%), shows a significant
observe the impact and relevance throughPAR [13], women of Color STEM faculty may be positively impacted in profound ways. PAR'sprocess contains porosity in which the community percolates and engages in decision-makingand debates [13]. This platform allows women of Color STEM faculty, to share in decision-making and debates but also widens the scope to extend to other allied and underrepresentedcommunities within or outside the academy. The malleable methodology of PAR radiates across diverse contexts as it builds onsharing and collaborating relationships between the researcher and the community on addressingissues and producing meaningful outcomes [13]. Homing in on educational aspects, Photovoice(an example of a PAR approach) captured
by facilitating the connection between 2D sketchesand 3D objects. This custom AutoCAD plugin has been developed that allows students to self-verify their 2D drawings by checking the 3D versions of what they have drafted. Students couldthen engage in what-if scenarios to visualize the interpretation of 2D objects in a 3D space bychanging their drawings and the properties of the assigned line types. As a pilot test of thisplugin, this study will collect feedback on the usability and training tutorial for the plugin fromstudents who are enrolled in AutoCAD classes in the Construction Science and Managementprogram in a large Hispanic Serving Institution in the South-Central United States. This pilotstudy guides the plugin tutorial’s refinement
engaged; usingdifferent building assemblies to create an authentic experience for the students through AR byoverlaying digital models on physical assemblies; and creating an adaptive learning approachwith AR integration to meet individual students’ needs and foster their learning. The contributionof this review study lies in providing the current state of the art in AR applications in CMeducation as well as future research directions for the integration of AR into CM education.Keywords: Augmented Reality, Construction Management, Higher Education, BibliometricLiterature ReviewIntroductionIn today’s world, many nations are turning to technological innovations to boost their economies.Globalization reshaping development [1] underscores the
preceding the applicationof the technology, underlining its pivotal role in their successful engagement. Additionally, thestudy delved into various barriers and considerations associated with seamlessly incorporatingthis technology into the established course structure.This research presents an opportunity for extension to other pertinent undergraduate courses,aiming to deepen our understanding of the technology's impact on students' learning outcomesacross various academic domains.References[1] M. Khalid et al., “Industry Perception of the Knowledge and Skills Required to ImplementSensor Data Analytics in Construction,” Journal of civil engineering education, vol. 150, no. 1,Jan. 2024, doi: https://doi.org/10.1061/jceecd.eieng-1902.[2] B. Choi, S
North Carolina in Charlotte. His re- search focuses on organizational performance benchmarking within facility management, construction, and business services. His industry experience includeProf. Kenneth Timothy Sullivan, Arizona State University ©American Society for Engineering Education, 2023Human Dimensions Differences Between Job Roles for Specialty Field Leadersand General Contractor Project ManagersABSTRACTThe shortage of workforce in the construction industry has placed a demand on engineering andconstruction firms to attract and retain even more workers. The competition for qualified skilledworkers within the construction sector and from other industries has impacted the labor turnoverin the
classroom. Figure 1 details the process of developing a live knowledge transfer-basedpedagogy. The course that was developed is titled "Engaging Technologies in ConstructionProject Management." Students enrolled in this course are junior-level students who take 14credits of courses in the summer semester and then perform co-op in the Fall semester. Thus, thecourse on VDC and advanced technologies provided the latest knowledge base for these studentsbefore they do co-op in the Fall semester. Faculty Residency Porogram Applying and Approval of Identifying the area of Develop collabortaive Residency interest strartegies CM
ofemerging technologies, proposes a preliminary matrix through the learning outcomes fromvarious accreditation bodies, and explains the steps required to implement drones intoconstruction education by reviewing multiple industry case studies. The study also identifies thechallenges and effectiveness of utilizing these technologies in classroom education througheducators' perspectives.Keywords: Emerging Construction Technology, UAVs, Student Learning OutcomesIntroductionIn recent years, the construction industry has introduced new advanced emerging technologiessuch as drones, artificial intelligence (AI), information and communications technology (ICT),sensors, and transportive modality technologies. This study focuses on how to utilize andimplement
engineering and technology education, specifically in the field of ConstructionEngineering, has been relatively limited and its efficacy as a learning and training tool remainsuncertain. To assess the impact of game-based learning on students’ performance, this studyutilizes game-based learning, employing LEGO sets, in teaching construction engineeringstudents. The incorporation of LEGO as a means of enhancing learning activities allows learningby playing. The students engage in collaborative group of two students to construct a single-family home using LEGO sets. The primary objective is to facilitate the practice andenhancement of the main important skills for construction engineers: communication, leadership,analytical, and decision-making skills
Factor Identification and Assessment The Risky Business Called Construction Why do Companies Decide to Engage in Risky Business Such as Construction? Risk Defined Risk Preference Theory Risk Perception and Personal Attitudes (risk-averse or risk-taker?) What Can Go Wrong? Construction Industry Top 107 Project Risks Typical Reactions, Positions, and Attitudes of Practitioners Toward Contract Changes Project-Related Risks and Their Direct and Indirect Impacts on Owner, Architect/Designer, Contractor, Subcontractors, Material Contractors, Public Risk Management Options The Use of a Risk Register and Risk Matrix to Capture Project-Related Risks on Specific Items of WorkTable 4B. Proposed course content on contract conditions Conditions of
basswood as a bridge-building material and to give students practical learningopportunities. The construction process for the bridges as well as the testing methods used toassess their durability, stiffness, and strength are described in the study. The experiment'sfindings show that basswood is a suitable material for making bridges and that students' practicalskills in problem-solving, critical thinking, and communication were enhanced by the hands-onlearning. The presentation finishes by emphasizing the possibility of utilizing affordable andeasily obtainable materials in engineering education and the value of hands-on education instimulating student engagement and learning.Davis and Cline [5] discussed the importance of laboratory experiences
construction industry. Furthermore, the study aims to gauge students' overall learning experience, focusing on the course content's engagement, challenges, and practicality. Understanding students' perceptions is crucial as it directly influences their motivation, learning outcomes, and overall satisfaction with the course. ● Graduates' evaluation of the course's contribution to job placement: Another key area of interest is to evaluate the course's effectiveness from the graduates' perspective. This includes assessing how well the course has prepared them for their careers and its impact on their job placement. The study seeks to understand the graduates' views on the course's role in
student learning.PurposeTo prepare students entering the workforce, a simulated experience targeting the constructionbidding process has been adopted as a culminating project in a construction cost estimatingcourse. This paper will discuss student preparation throughout the semester and the integration ofthe simulated experience, its format, interactions, and use of technology. The reflective nature ofthe report will provide a detailed examination of the impact the intervention had on studentlearning using direct and indirect measures currently within the course as well as identify futureassessments through subsequent coursework and feedback provided by program constituents.Current direct measures will include student performance in specified
, communication, collaboration, andparticipation, issue negotiation and resolution, and reflection and self-assessment) werediscussed as major factors impacting the productivity of a team. While a team possesses uniqueaspects, and each aspect imposes a different effect on the structure, processes, feedback loop, andoutputs of the team, it is vital to consider major common characteristics when developing a teamto perform tasks or, on a larger scale, a project. Koolwijk et al. [2] explored the effects of a no-blame culture on the effectiveness of project-based design teams across different project deliverymethods in the construction industry. They concluded that project managers should determinethe level of teamwork and encourage collaboration within a
repetition,their effect on the students, and how to attract the student's interest to the assessment are discussed.The practice of making teams more inclusive is also explained. The strength and weaknesses ofdifferent methods are shared and debated. Other ways of assessing and motivating the students toteamwork engagement are also applied.This paper concludes with the teamwork assessment's suggestions, methods, and challenges. Thesemethods can be helpful for the business's teamwork assessment, particularly in the constructionindustry.Keywords: Teamwork, Group work, Peer assessment, teammate evaluation.BackgroundTeamwork skills are crucial for construction engineers and managers. So, undergraduateconstruction students must develop teamwork skills for
, political, ethical, health and safety, manufacturability, and sustainability (d) an ability to function on multidisciplinary teams (e) an ability to identify, formulate, and solve engineering problems (f) an understanding of professional and ethical responsibility (g) an ability to communicate effectively (h) the broad education necessary to understand the impact of engineering solutions in a global, economic, environmental, and societal context (i) a recognition of the need for, and an ability to engage in life-long learning (j) a knowledge of contemporary issues (k) an ability to use the techniques, skills, and modern engineering tools necessary for engineering practice” The plan was