22 Introduction 23 Content Revision 54 Implementation 7 4.1 Lecture: Interactive MATLAB live script is incorporated . . . . . . . . . . . 8 4.1.1 Example 1 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 8 4.1.2 Example 2 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 10 4.2 Active learning by doing in-class group worksheets with MATLAB problems embedded . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 10
University with specializa- tion in Construction Management. His research focus is in the area of contract administration on heavy civil projects. His teaching areas include 1. introduction to the built environment and construction man- agement, 2. construction materials and methods, 3. construction equipment, 4. building construction cost estimating, 5. heavy civil construction cost estimating, 6. project planning, scheduling, and control, 7. temporary structures, and 8. contract changes and claims management.Mr. Chris Souder, M.S. Chris Souder graduated with an undergraduate degree in Construction Management in 1988 before going to work for Kiewit Pacific Co. in Northern California. Chris had a successful sixteen year
; supply chain design; and undergraduate, graduate, and online systems engineering education development and assessment. In 2018, she started the SmartBuildings CT program at UConn with funding from Eversource and the United Illuminating Company. She is part of the leadership team at the University of Connecticut that leads the newly awarded US Department of Energy’s Southern New England Industrial Assessment Center and that offers no-charge energy audits to 20 manufacturing facili- ties in CT each year to help them lower their energy usage and costs. Dr. Thompson was the recipient of the US EPA Environment Merit Award, Region 1 (2017).Prof. Matthew D. Stuber, University of Connecticut Dr. Matt Stuber is an Assistant
, Services, and Systems: Infusing the Entrepreneurial Mindset in Undergraduate and Graduate Industrial Engineering Training AbstractA typical IE course in sustainability engineering introduces students to engineering design,manufacturing, supply, and systems aspects while highlighting global sustainability, energymanagement, and life cycle analysis. Although such courses provide students with theknowledge required to assess the environmental impacts of existing products, services, andsystems, they suffer from a few common weaknesses: (1) they focus more on analysis and muchless on front-end design of environmentally sound products; (2) in many IE curricula, these areonly elective
virtual meetings and workshops, includinga virtual Kickoff Workshop, a hybrid Writers Retreat, and 1:1 coaching with the ProjectCoordinator and other writing mentors. By the end of the AWP, 27 authors had drafted 71activities in 17 areas of CS. Fifty-eight activities were revised and approved by the programas ready for classroom testing. Almost all of the authors planned to use the developed activitiesin their classes (88%) and share them with others (78%), while 75% planned to develop moreactivities. Almost all (88%) felt that the writing process impacted how they teach with POGILactivities. Thus, the AWP is an effective model to support faculty and produce quality activities.1. IntroductionCollaborative learning activities benefit student
redesigns, both to thiscourse and to other courses in our computing curriculum.IntroductionMuch work in computing education research has studied introductory programming or computerscience courses in undergraduate education, with the literature being extensive enough thatreviews consider hundreds or even thousands of published papers [1, 2]. Though programming istaught in many STEM disciplines, these introductory courses are often taught within computerscience and thus are typically referred to as CS1 [3]. Topics covered in a typical CS 1 courseinclude types, control flow, basic data structures (e.g., arrays), foundational problems andalgorithms (e.g., sorting), and simple recursion [4].CS1 courses are often seen as the entry point to computing
manufacturing landscape.As the demand for automation in assembly lines and manufacturing processes continues to rise,we recognize the importance of providing our students with relevant certifications [1, 2]. Our goalis to train and certify our faculty in the latest technologies, enabling them to guide students indeveloping integrated smart manufacturing systems that utilize industrial robots and PLCs fortasks like material handling, painting, assembly, and CNC machining. According to studies byDeloitte and The Manufacturing Institute, the skills gap in manufacturing may leave an estimated2.4 million positions unfilled over the next decade [3]. As the US manufacturing industry embracesIndustry 4.0 [4] and digital transformation, there is a growing
image processing. Pre- and post-course surveys suggest that these modules had a positive impact on student learning and that students recognize the importance of these skills in MSE.KeywordsMaterials science, Data science, Laboratory reportsIntroductionIn the modern age, scientists and engineers must be equipped with not only deep domainexpertise, but also several transferable skills if they wish to be successful at their jobs [1]. Wefocus on two of these skills in particular, data science (DS) and scientific writing (SW), whichhave been discussed in recent reports from the National Academies [2, 3], ABET [4], anduniversity educators [5–8]. These reports collectively highlight the importance of DS and SW inengineering practice and
Education.1. Introduction The competency-based education model, widely supported in the literature [1]-[3], hasbeen one of the paths taken by higher education institutions concerned with offeringundergraduate programs aligned to the market and societal needs. The concept of competencyaims to link the market and academia, stimulating debates about what future engineers areexpected to know, do, and behave professionally. This concept is also essential in studies onthe profile of the modern engineer, and higher education institutions have been underpressure to develop competencies in their students to align with society and the labor marketneeds [4]-[7]. Yet, to achieve that, a curricular transformation is necessary to adapt teaching to
) is an important concept for engineers. At the Old DominionUniversity, many engineering majors do not learn the TVM unless they choose to do anengineering management minor. This project-based investment exercise can be easilypedagogically justified by essential body of knowledge in favor of experiential learning [1] - [3],implementations of Kolb’s experiential learning cycle (KLC) [4] - [6], and project-based learning(PBL), the pedagogy implemented frequently in early engineering education [7] - [9]. Furthermore,the importance of TVM is emphasized in many Engineering Economy textbooks [10], [11] andengineering education articles [12], [13].Investment Project Description with Samples of Student WorkFigure 1 shows the description of the project
, Calgary AB T2N 1N4 May 1, 2023AbstractRecently, there has been increased pressure from industry, the local government, and theUniversity of Calgary to include industry-relevant learning opportunities in undergraduatecurricula to improve the transition of students from the university to the workforce. Inengineering education, laboratories are often viewed as a bridge between course content andindustry skills by grounding theoretical knowledge in practical experiments and developingfamiliarity with testing techniques and analyses used in industry. Yet nearly half of undergraduatemechanical and manufacturing engineering students enrolled in a mandatory third-year materialsscience course at the University of
,this method of instruction does not encourage deep thought or investigation into the significanceof standards and standardization. The need for improved integration of professional standards inengineering education has been long recognized [1].The inclusion of standards in the senior capstone course is part of the ABET accreditationprocess for engineering programs [2], and many students begin to develop a deeperunderstanding of the importance of codes and standards through the capstone experience. Thecertificate program described in this paper is designed to develop this deeper understanding ofcodes and standards earlier in a student’s academic career. The certificate program focuses onthe role of codes and standards within the engineering
understanding and application of both 2D and 3D visualization in their work.The following research questions guide this project:1. To what extent can a Spatial Visualization plugin for AutoCAD (SVA) contribute in improving the spatial visualization skills of architecture, engineering, and construction students?2. How do engineering and construction students perceive the usability and user-friendliness of the SVA plugin for 2D to 3D conversion in AutoCAD?MethodologyThe study consists of two major parts: 1) developing the SVA plugin and then, 2) assessing theeffectiveness of SVA in improving 3D visualization skills for engineering and constructionstudents and measuring the correlation between spatial visualization skills and planinterpretation
the evidence in the portfolio and triangulate with student ratings andtheir own observations of the faculty member’s teaching.Both the portfolio and peer review are guided by three pillars of effective teaching: StudentLearning, the Learning Environment, and Processes of Improvement. In the teaching portfolio,the faculty member documents 1) evidence of student achievement of learning outcomes, 2) howthe learning environment is used to motivate learning, and 3) the faculty member’s efforts tocontinuously improve as a teacher. The portfolio, essentially a teaching journal, is regularlyupdated and constitutes a real-time, growing record of the teaching stewardship.Then at each step of the tenure process, a snapshot of the portfolio is taken and
therequirements. Graduates entering the workforce need to present with both soft skills andtechnical skills to perform their job responsibilities successfully. Integrating a simulatedexperience within a construction cost estimating course provides an active learning environmentwhere students can better understand the full extent of the bidding process as a whole includingthe soft skills that drive and connect decision-making and the application of technical skills.Salas et al. [1] define simulation-based training as any synthetic practice environment that iscreated in order to impart competencies (i.e., attitudes, concepts, knowledge, rules, or skills) thatwill improve a trainee’s performance. The study [1] goes on to discuss the advantages ofsimulation
different universities. Students and departments have always praised him for his outstanding teaching and research excellence. He has been involved in numerous professional societies to supplement his teaching and research, including ASCE, ACI, ASEE, ASC, ATMAE, and TRB. His re- search output has been well disseminated as he has published 100+ journal papers and conference papers. His research interests are 1) Creating Innovative Sustainable Materials, 2) Digital Construction, 3) BIM and VDC, 4) Virtual Testing Lab, 5) Construction Education, and 6) Sustainability.Kathryn Bedette, Kennesaw State UniversityGiovanni Loreto, Kennesaw State University Giovanni Loreto is an Assistant Professor in the College of Architecture and
education, 21st century skills, and design and evaluation of learning environments informed by the How People Learn framework. ©American Society for Engineering Education, 2023 Switching research labs: A phenomenological study of international graduate students. AbstractInternational graduate students in engineering and science deal with cultural shock as theynavigate and try to adapt to a new educational system in the United States of America (US) [1].Many international graduate students deal with multiple challenges which some of their USnational peers may not deal with [2]. For different reasons, graduate students may request tochange from one research group to
ongoing work in developing and evaluating the effectiveness ofthe new robotics programming course.Literature ReviewThere are many K-12 initiatives involving robotics hardware and programming that encouragestudents to pursue STEM professions [1] - [2]. Additionally, there are undergraduate-levelcourses in robotics [3] – [7] typically designed to enhance motivation for students majoring inSTEM professions. Barba et al. [8] present the design of two graduate courses for non-majors,adult learners, and non-traditional students. The courses use Pixelsense and Arduino to teachcomputational thinking, programming, and design skills. The authors specifically mention theimportance of platform choice, assignment structure, maintaining student motivation, and
. ©American Society for Engineering Education, 2023 Student Persistence in Engineering Majors: A Description of Engineering Students at Two Universities Before and During COVID-19 Karen E. Rambo-Hernandez, Olukayode Apata, Syahrul Amin, Blaine Pedersen, Camille S. Burnett, Bimal Nepal, Noemi V Mendoza Diaz Texas A&M UniversityIntroduction This work-in-progress study describes persistence rates using institutional data todetermine which student demographic groups were more impacted by COVID-19 interruptions.Several have indicated the need for more engineers to address the urgent needs of industry andpublic safety [1]. Unfortunately, when compared to other majors
from phase 1 to phase 2 from the course instructors. Most importantly, the resultsof a student survey will share the students’ reflections on the modifications they made to theirprojects based on the receipt of feedback and course instruction during phase 2 of the DesignDays challenge.IntroductionEngineering design is an important aspect in STEM education [1]. Students need to have theability to integrate knowledge from several courses during their undergraduate education to learnto implement a successful design [2]. Unfortunately, engineering courses are normally taught insilos, not allowing students to visualize the complete aspects of a design [3]. Their designs arealso normally assessed based on the aspects related to the specific course
different universities such as Northeastern, Suffolk and Tufts. He has been teaching as a profes ©American Society for Engineering Education, 2023USING SOLIDWORKS TO IMPROVE STUDENT'S UNDERSTANDING OF TYPICAL CRYSTAL STRUCTURES OF CRYSTALLINE SOLIDS Xiaobin Le and Masoud Olia Wentworth Institute of Technology1. INTRODUCTION Materials science is a required course in our Mechanical Engineering Program. One importanttopic which is covered in this course is the crystal structures of crystalline solids [1~4]. Thetypical crystal structures are body-centered cubic (BCC) crystal structures, face-centered cubic(FCC) crystal structures, and hexagonal
settings commonly found in the real world. Systemsengineering practices are applicable to most if not all future classes, careers, and situations thatthe students will experience in their coming years; allowing them to become comfortable withthese tools early on improves the chances they will succeed in the future.Systems engineering is an integrated part of Project-Based Learning approach (PBL); this is ateaching tactic where students work with real-world practices, define goals, and execute a projectalong the way 1 . Project-based learning also helps students learn soft skills and experienceleadership roles 2,3 . Additionally, educators have found PBL inspires collaboration betweenstudents and allows teachers to just intervene when students ask
skills.An end-of-course survey was also given to provide insights on the extent to which projectelements reinforced targeted thermodynamics concepts. This paper will describe the project indetail, discuss the implementation of the project in the course, and provide an analysis of theproject’s impact on student learning of fundamental topics throughout the course.Introduction/Literature ReviewThe importance of hands-on experiences in engineering education has been recognized fordecades [1]. Despite this, in certain classes, such as thermal sciences courses, incorporating theseexperiences can be challenging. These classes tend to be taught in a traditional lecture format asa consequence. However, literature has shown that traditional lectures are
,Environmental Engineering, SDGsIntroduction and BackgroundThe Sustainability Gap in Engineering EducationDuring the 21st century, there have been various strategic initiatives to advance engineeringeducation toward more holistic approaches that push engineers to think outside the box whendesigning tools for the world [1]. These initiatives began in 2000 with the release of the GrandChallenges in Engineering, which has been followed by more recent and interdisciplinary calls toaction in engineering education, including the United Nations Sustainable Development Goals(SDGs) in 2015 and the National Science Foundations Big 10 Ideas [2]–[4]. These calls areprimarily targeted toward higher education institutions which have led university systems tobring
-play, peer reviews, and groupproblem solving or design exercises. This paper describes the authors’ approach to revising twolecture heavy game design courses to make use of a flipped classroom model that relies on activelearning, role-play, and gamification to present software engineering topics in game designcourses.Students learning software engineering principles and practices may find it difficult to applythem in the development of complex software projects. Software engineering involves acquiringapplication domain knowledge to understand the client’s needs. It is therefore important to domore than simply use a game as the term project in a software engineering course as someauthors have suggested [1], [2], [3]. Adding game topics to
. IntroductionEngineering curriculum frequently focuses on technical, analytical, and decision makingknowledge and skills, evident by the common focus of courses on math and physics principles[1]–[3]. Course problem sets and projects routinely focus on determining variables and solvingequations where there is one “right” answer [4]. However, engineering work is inherently bothtechnical and social [5], [6]. To address major problems of today’s world, engineering studentsneed to develop contextual and cultural competencies, ethical responsibility, and socialengagement knowledge and skills, as well as the ability to work across disciplinary boundaries[7]–[10]. Engagement in these skills, which we collectively call “comprehensive engineeringknowledge and skills”, are
Paper ID #40028Engineering Global Competencies through Study AbroadDr. Patrick Tunno, Pennsylvania State University Patrick Tunno is the inaugural Director of Penn State’s Center for Global Engineering Engagement and an Associate Teaching Professor. He has overseen and continues to lead the development and expansion of diverse international initiatives. Under his leadership, the college has established an award-winning Global Engineering Fellows Program, launched Penn State’s first 3+1+1 program for international stu- dents to pursue a one-year master’s degree, and initiated new interdisciplinary faculty-led study abroad
howindividuals experience disability. This paper will present a disability justice-informedperspective in hopes of allowing librarians who work with disabled STEM student to gain a morenuanced understanding of ableism and the many barriers disabled people encounter in STEMfields as well as more broadly in higher education. IntroductionIn recent years, there has been a significant and much needed focus on diversity, equity, andinclusion (DEI) in academia. Although some progress has been made regarding DEI policies,programs, and awareness [1], [2], critics have pointed out there is still much to be done, notingthat many students and scholars continue to regularly experience oppression and discriminationon
support for implementing these ideas into the classroom.Incentives Extra credit in academic settings is a hot topic depending on what side of the institutionyou reside. For instructors, it can be hotly debated on the practical use for increasing learningwhile others will debate the grade inflation aspect [1, p. 27]. As for students, a much moreoptimistic view of the concept is more widely accepted since extra credit works in the benefit ofthose partaking. In the existing literature, there is no universal positive or negative opinion onextra credit in the classroom as the practice is mostly left up to the individual instructor. Whetherthe practice remains in a contested environment or not, the use of extra credit can have positiveimpacts in
expectancy. We analyze the data of 600 engineering students enrolled in a CS1 courseand find that gender and PPE are statistically significant factors that influence students’ learningself-efficacy. We also find that learning self-efficacy and GPA are statistically significant predictorsof outcome expectancy. We believe these results will help advance our understanding of engineer-ing students’ motivational beliefs and help instructors identify specific groups of students that mayneed additional support and assistance.1 IntroductionAs the importance of acquiring computational skills increases, there is a growing emphasis onadding more programming and data analysis courses in the undergraduate curriculum, especiallyfor engineering majors [1