building and testing the design andcomparing results to the initial goals and expectations. Finally, in Improve, we analyze testresults, identify the most impactful changes, and refine the design for better outcomes. Thisrefinement, or iterative process, occurs throughout the entire cycle. EDP engages learners inactive problem-solving and collaboration, emphasizing that learning and success come fromtesting, reflection, and adaptation.Example 1: NanobugsThe Nanobug Challenge was designed to highlight cyborg research at North Carolina StateUniversity. Researchers are exploring how far and fast cyborg cockroaches - or biobots - movewhen exploring new spaces. A cyborg is formed by the union of biology and technology9- in thiscase, cockroaches, which
thisenterprise and its impact on student learning for those that have participated.IntroductionThe award winning Construction Engineering Management (CEM) program at ClarksonUniversity has been a leader in construction higher education for the past decade or longer.There are several markers for this including 100% placement rates over the last 10 years, risingstarting salaries starting at $60,410 in 2019 to over $73,220 in 2024 [1], [2], to year over yearAssociated Schools of Construction (ASC) regional top 3 honors, and national awards. A criticalaspect of this success is the robust approach the program has taken to engaging in constructioneducation, through curricular, co-curricular, and extra-curricular activities and elements. Thishas been driven
agriculture, wherefood waste reduction is a pressing issue.[1] Mobile processing plants that can rapidly betransported between sites to recover foodstuffs, chemicals, or other products from wasteagricultural products are attractive, yet there are few reports of detailed designs in the literature.Mobile processing plants require the processing equipment to be packaged in a transportableformat, necessitating compact equipment design and plant layouts with minimal on-site wastegeneration. Additionally, the need to supply utilities (power, water, steam) and packagingequipment in a transportable format poses inherent design challenges, presenting opportunitiesfor educators to involve students from multiple engineering majors. Our collaboration
engineering and construction context aims to engage engineering and constructionmanagement students in world history in a way that is more interesting for them than a typicalhistory course. Essays throughout the course ask them to reflect on aspects of the projects thatdirectly relate to construction such as (1) challenges that were encountered during theconstruction, (2) examples of modern structures that were inspired by the projects, and (3) howconstruction techniques and project management have evolved over time. Students are alsoasked to reflect on political, economic, and social aspects of the projects, which help to engagethem in the historical context and be exposed to the fact that many complexities of constructionprojects go beyond just
change, it is clear that we need to develop a deeper understanding of the experiences andsupport systems that enable women to thrive in CE.This study sought to address the ongoing gender gap in CE by examining the essence of the livedexperiences of four women during their first year in a CE program, with a focus on the sourcesof their self-efficacy. Self-efficacy is an essential construct in understanding women’s success inCE, as it directly affects their motivation, resilience, and performance. Drawing from Bandura’stheory [1], self-efficacy is shaped by four main sources: a) mastery experiences that buildconfidence through achievements, b) vicarious experiences that strengthen confidence byobserving others' success, c) social persuasion, such
The Development of Concept-Space, a Digital Workspace that Mirrors How the Brain Organizes and Expands Knowledge, Reveals Positive Impacts for Learners, Teamwork and Teachers.1. IntroductionA tool that facilitates effective communication of knowledge and ideas in a way that mimics howthey are generated in the mind is likely to aid in accomplishing three key objectives: 1)enhancing learners' ability to comprehend and construct complex concepts, 2) facilitating thecreation of a shared understanding among teams, and 3) aiding teachers in assessing thecomprehension of their students and the orientation of their teams. This idea started a researcheffort in 2010 to develop such a tool [1], which crystallized in 2020 into the principles
article as supporting text. The combination of hands-on practice andsubsequent research equips students with enough information to discuss the phenomenon.Learning outcomes are assessed through a group presentation about the phenomenon to classmatesand instructors. This project-based learning (PBL) methodology was previously discussed byCutri, Eiras and Mattasoglio Neto [1]. In summary, the authors reported that the laboratorypractices enhance student's understanding of theory in addition to reading and interpreting ascientific article and reproducing an experiment reported in that scientific article. During projects,students act more independently and develop skills to experiment and research, to collect, interpretand use data, and, consequently
efficacy of theEOP-aligned module in fostering a deeper understanding of environmental sustainability and riskassessment among engineering students.IntroductionEngineering education is at a critical juncture where the infusion of sustainability into thecurriculum is not just beneficial but essential. As society grapples with the depletion of naturalresources, the rise in emissions and waste, and the impact of climate change, engineeringcurricula must evolve to address these challenges [1-2]. The integration of sustainability conceptsinto engineering courses is pivotal to cultivating a workforce capable of creating a moresustainable future. Prior research highlights significant gaps in the current engineering educationparadigm, particularly in its
. Students were required toreview the OER materials and complete the lab experiments on their own, outside of class time.Having these tutorial resources available online freed up class time that previously had been usedto demonstrate use of the software and to assist students as they completed lab exercises in class.The class time saved has been used for active in-class problem solving and for review sessionsprior to examinations. The additional time available to work with students actively in class hashad the salutary effect of improving student performance in the course: the class GPA has shownincreasing trends (effect size = 0.42) after incorporation of the OER materials. Other positiveeffects of the OER grant are: (1) Student competence with
.The EWB Research Program is a project-based service-learning initiative to support capstonecourses6. EWB-A works with its partners and volunteers to identify projects suitable for finalyear engineering undergraduate or masters coursework students. These are not the firstpriorities for the partners, as those are the focus of volunteer placements, but commonmotivations for partners proposing and supporting projects include: 1. time available, partners are typically focused on implementation and on the ground work with very limited time for research, feasibility studies or design improvements. 2. additional expertise, both in terms of undertaking quality research and depth of specialist engineering knowledge. 3. access to
levelrepulsive/attractive forces surrounding the water droplet. This highlights a commonmisconception about what can actually be seen and not seen under a microscope. Students alsorepeatedly attributed the shape of the droplet to positive/negative charges rather than surfacetension. This can possibly relate to not comprehending the existence of varying length scalesbetween the atomic and macro scales. In summary, the presentation will discuss how inquiry-based activities on the topic of nanoscale science can serve to identify misconceptions in scienceclassrooms and guide instruction in this area.IntroductionVarious efforts exist to teach nanoscale science & engineering (NSE) content at theundergraduate level [1, 2] and there is a growing NSE
section, taught by an academicresearcher with experience in engineering leadership education (Instructor B), was recentlyadded. Although the instructors collaborate, their pedagogical approaches and some of thecontent in their respective sections differ. The creation of a new version of the course providedan opportunity to conduct a comparative assessment of the course’s influence on students’understanding of leadership.PurposeThe purpose of this study was two-fold: 1. To evaluate the effects of an engineering leadership course on students’ perceptions of leadership, as measured by the Leadership Attitudes and Beliefs Scale (LABS- III),1 and 2. To compare the two instructors’ sections, with the goal of identifying
that MOOCs can be marketed as professional developmentof working engineers and dissemination of highly technical information.IntroductionMassive open online courses (MOOCs) are a relatively young and rapidly growing concept inonline education. The term, MOOC, has been defined as “any online educational course that isavailable at no or minimal cost, is open to a very large number of students, and for which theeducational materials and resources are freely available online” (p. 218).1 In general, MOOCsare free of the typical educational barriers of prerequisites, fees, and hard requirements forparticipation in the course, creating an investment-free option to access learning materials.2Indeed, those who enroll in MOOCs are free to enter and
project. Finally, MEP mentors participatedin several planned social events with MSEN participants in order to help build relationships amongmentors and MSEN students. The project culminated in a poster session where participantsshowcased their design projects to an audience of K-12 administrators, corporate partners, facultyand parents.Preliminary ResultsThe Student Attitudes toward STEM (S-STEM) for Middle and High School (6-12)20 uses a 5-pointLikert scale (1=strongly disagree, 2=disagree, 3=neither agree nor disagree, 4=agree and5=strongly agree) to evaluate students’ confidence and attitudes toward math, science, engineeringand technology and 21st century learning. It was administered in a pre/post format. To get a betterunderstanding of
processes, enterprise engineering and en- gineering education. Page 26.1699.1 c American Society for Engineering Education, 2015 Vertical Integration of Capstone Projects in Multiple Courses in the Engineering Technology ProgramsThe Senior Project at NKUIn Engineering Technology Programs the objective of capstone projects is two-fold: provide anopportunity to evaluate the use by students of the knowledge acquired during the program and tofacilitate the program assessment process by addressing the attainment of the “Student LearningOutcomes”, as defined by ABET [1].The project
-section in which square grids were drawn along the faces of the specimen. Upon twistingthe specimens take the shape as shown in Figure 1. Figure 1 Demonstration of warping in rubber specimens in torsionWarping was further demonstrated by using the membrane analogy. A steel plate with a squarehole was used. Rubber sheet was rigidly clamped at the edges of the hole and made to bulge byapplying pressure from beneath the plate. The resulting bulges (torsional hills) for the squarehole is shown in Figures 2. Page 26.1712.3 Figure 2 Torsion Hill for Square Cross Section
. Figure 1 and Figure 2 show snapshots of the concept test question and student responseson PollEverywhere.com from Graphical Communications, and Dynamics courses respectively.Figure 3 shows a snapshot of the open-ended question and student responses from ControlSystems. The lectures were punctuated by multiple-choice conceptual questions or open-endedquestions to test students’ understanding of the material. In the multiple-choice conceptualquestions, often the distracters (incorrect responses) reflect typical student misconceptions.These questions are good indicators of students’ conceptual understanding, especially infundamental courses. The open-ended questions provide the senior-level students an opportunityto improve their critical thinking
even more critical for the local economy. For example, the impactof one successful skilled job placement in Iron County has the same economic impact asskilled job placements in Salt Lake County. This Southwest Aerospace and ManufacturingStrategic Workforce Investment, (SAMSWI) will prepare individuals for high growth andhigh wage jobs to meet local aerospace and manufacturing needs, critical to grow the localeconomy.Rural southern Utah lags behind the overall state scores in median income and per capitaincome, and most counties served by this proposal have higher unemployment rates and agreater percent of persons in poverty as shown in Figure 1. While the focus of SAMSWI isto build our Iron County job placement and 9 additional Southern Utah
respondents said “that their studyabroad experience helped to significantly develop or improve their intercultural skills, flexibilityand adaptability, self-awareness, curiosity, and confidence.”14 In addition, the majority ofrespondents said, “that study abroad helped to cultivate their interpersonal, communication, andproblem-solving skills to some degree.”14The American Institute for Foreign Study (AIFS) report is a study of 1,600 AIFS study abroadalumni from 1990 to 2010. This report describes how their alumni regard the impact of theirstudy abroad experiences. One key finding indicated that 58% of 2,700 respondents said that“developing skills and intercultural competencies which contributed to obtaining my first jobafter graduation.” 1 Another
to do research aboutthe ADAU1761Z evaluationboard, as well as testing it. Figure 1 From left, Professor Elaine Cooney, with Michael Bauchert, Colin Eades,She also worked with the Kaci Darrough, and Alex Perr working in the Engineering Lab on the project.Arduino Mega and a TFTtouch shield to create a user interface and research serial communication.Collin Eades is a sophomore Music Technology major minoring in computer science. He isinvolved in music composition, studio engineering, and performance around the localIndianapolis area. Collin wrote a large portion of the program that runs the device created andcame up with several of the design concepts that were used in the device.”Alex Perr is a senior Electrical Engineering
programs or other industry training.In order to exam the feasibility and usefulness of such program, MSU Denver conducted a seriesof survey. Survey responses would only be used internally at MSU Denver to direct curriculumdevelopment and potentially market the new degree. In this paper we use secondary survey data.The first survey aimed to understand the interests in such degree from employers’ point of view.1Distributed with the help of the Presidents of the Rocky Mountain chapter of the AssociatedBuilders and Contractors and the Associated General Contractors of Colorado, the result of thesurvey indicated strong support for the type of degree proposed, referring to Figure 1. Surveyresponse: importance of a pathway to a 4 year BA degree in
attitudes were characteristic of bothengineers and themselves. Three groups participated in the study: (1) ~120 first year civil,environmental, and architectural engineering students; (2) 18 senior civil engineering students;and (3) 21 students at the end of their junior year of college (in 7 different engineering majors,attending 5 different institutions). Students in all of the groups were presented with a list of 18attitudes and asked to indicate which five were the most representative of engineers and thenwhich five were most representative of themselves; groups 1 and 2 answered this question as partof a written survey in fall 2015 while group 3 answered the question as part of interviews inspring 2015. The interview participants explained why
main sections of the course: (1)Programming applications using LabVIEW, (2) Data acquisition, sensors, and signal conditioning,and (3) Design of measurement systems. Weekly laboratory activities mirror the lecture materials.Part of the requirements in the course includes an end-of-semester team design project where onepossible option is the design and implementation of an automated test & measurement system for apower supply and control board (PSCB). For this project, students design and build the PSCB tomeet these requirements: one DC output voltage, one function generator output with user selectablewaveform type (sinusoidal, triangular, square waveform) and user selectable amplitude andfrequency adjustments, four simultaneous TTL outputs
.), and Ph.D. in Industrial Engineering (University of Pittsburgh). Prior to entering academia, Dr. Nicholls was a practicing industrial engineer in the freight transportation industry. Address: Donald L. Harrison College of Business, Southeast Missouri State University, One University Plaza – MS 5815, Cape Girardeau, MO 63701; telephone (+1) 573.651.2016; fax: (+1) 573.651.2992; e-mail: gnicholls@semo.edu.Dr. William J. Schell IV P.E., Montana State University Dr. William J. Schell holds a Ph.D. in Industrial and Systems Engineering – Engineering Management from the University of Alabama in Huntsville and M.S. and B.S. degrees in Industrial and Management Engineering from Montana State University (MSU). He is an
learnedspecific course objectives. Standards-based grading (SBG) is an alternative approach thatdirectly measures the quality of students’ proficiency toward course learning objectives. Thefollowing paper assessed the use of standards-based grading by ten instructors at six institutionsto identify instructor perceived benefits for students, obstacles to implementation, and bestpractices for integration. Introduction Grading systems have been used since the late 1700s to determine how well students meetrelevant academic goals1. Most higher education instructors use a traditional, summative score-based grading system. An example grade book based on this system is shown in Table 1. Scoresare assigned and tabulated for various assignments throughout
instructional video related to their tinkering experience.MethodsParticipantsThe participants were sixth-graders (N=76) from a diverse urban public middle school (30%Black, 29% Asian, 21% Hispanic, 12% White; 10% English Language Learners). The teacherssigned up for a field trip and agreed to participate in a follow-up lesson in their classroom.DesignThe study involved two phases. In Phase 1, students went on a field trip to the tinkering space ofa local museum, where they participated in one of two activities, Marble Machines (N=46) orWind Tubes (N=30). Due to administrative constraints, students were not randomly assigned totinkering activity, but teachers were instructed to assign students such that the groups werebalanced on class performance and
course.Student perceptions of the use of iPads in the classroom and student attitudes and studentaccomplishments are considered with similar results as reported by Goyings, Klosky, andCrawford [1], and Zhu [2].II. Classroom Instructional MethodsStudents who are in a traditional lecture setting often are so busy trying to capture what is beingsaid at the instant the speaker says it that they do not have the time to reflect upon what is beingsaid. Therefore, they may miss significant topical points because they are trying to transcribe theinstructor’s words. [3][4]. In a flipped classroom, the class-lecture time is replaced by in-classactivities. Lectures and other learning material are delivered so that students are able to view andimmerse themselves in
self-reported their race and/or ethnicity, 65% identified as being students of color, as shown inTable 1. This suggests a racially and ethnically diverse demographic. In addition to racial andethnic diversity, our engineering students are culturally diverse. Collectively, a class ofIntroduction to Engineering students can be expected to speak nearly 20 different languagesfluently, with greater than two out of three students being multilingual.In addition, many of our students were enrolled in a dual degree program where they have theopportunity to take college credit classes as junior or senior high school students. 26% of ourstudents were considered to be high school students attending college. On the other hand, 16%of our students were non
assessing the students’ learning as well as emphasizing the common threads.IntroductionCase studies have been utilized in engineering to teach ethics and demonstrate the practicalapplication of learned skills 2,4,6 since the 1960s and 1970s 7 . Data has been collected regardingtheir use in lieu of, or supplementing, lecture-based delivery of information 1 , and utilizing casestudies enables students to actively participate in class and allows them to see engineering as itapplies in the real world 8 . While some of the faculty interviewd by Haws use both real andhypothetical case studies, there is no mention of engineering achievements utilized in the study ofmechanical and electrical engineering programs at seven universities 3 . However, it seems
Paper ID #17345Combining Ordinary Differential Equations with Rigid Body Dynamics: Teach-ing a Second-year Engineering Dynamics Course to Two-year College Grad-uatesDr. Roes Arief Budiman P.Eng., University of Calgary Received PhD in Materials Science and Engineering at University of Toronto in 2001. Currently a Senior Instructor at University of Calgary and have been teaching Probability & Statistics for Engineers course in the past three years. Maintain a small research group (1 PhD, 1 MEng) on pipeline failure and reliability.Vishash Kumar Sharma c American Society for Engineering Education