own historical performance in feedbackand not compare with their peers. Since similar to leaderBoard, RPG competition among studentsmay frustrate lagged students to lead fixed mindset trend. One of characters of students with fixedmindset is they feel threatened by the success of others 1 .3.1 Experience Points (XP) and LevelsIn RPGs, experience points (XP) and levels are often used to reward players and demonstrate theirprogress through the game. Players earn XP and level up by accomplishing tasks such asdefeating enemies, overcome obstacles, pick up trophies, etc. We design XP and levels in asimilar way but in an educational context.The first design consideration is whether XP/levels are applicable for only a single course
become EnvisionSustainability Professionals.Design assessments/rubrics were developed for each oral presentation and written submission toevaluate student understanding. These assessments aligned ABET 1 – 7, the UN SustainableDevelopment Goals and the Envision Rating system. The UN SDG’s and the Envision RatingSystem served as a guide for the student teams to develop sustainable design solutions whichconsidered the economic, environmental and social impacts of the designs.Consideration of sustainability within the undergraduate Capstone Design is linked to ProfessionEthics for all Civil Engineers as noted in the BOK3, “strive to comply with the principles ofsustainable development in the performance of their professional duties.” Using both the
two groupsof students. The data for the first group includes the analysis of qualitative and quantitative post-test data, while the results of the second group will include a pre-test/post-test comparison tomeasure the students’ increase in cultural awareness.MotivationAs the world increasingly becomes interconnected via the Internet and other social media apps,many engineering schools are internationalizing engineering courses and curricula to preparestudents for careers across countries and cultures. These so-called “global engineers” need to beable to work in a diverse, interconnected, and rapidly changing world [1]. In the field ofstructural engineering, many large firms regularly work overseas on projects or at leastcollaborate with
active learning techniques, and it helpsstudents integrate their knowledge and skills in a hands-on experience [1, 2]. This paper studiesPBL in the context of a freshman/sophomore engineering core class. The project combineshardware and software components and it is aimed at making programming more relatable toevery-day applications for students. Student surveys have been used to quantitatively evaluate theeffectiveness of the project on different learning objectives. Our studies demonstrate that PBLfacilitates student learning both for basic concepts and for real world applications.I. IntroductionProgramming is an essential part of engineering education. One of the challenges in teachingprogramming is that students find the material very
course, three different examples were used 1) Blood flow throughan artery (Biomedical), Flow over an airfoil (Aeronautical), Erosion in elbow(Mechanical/Civil). Arteries are used to transport blood using the pressure developed by thepumping action of the heart. The pulse, which can be felt over an artery lying near the surface ofthe skin, results from the alternate expansion and contraction of the arterial wall as the beatingheart forces blood into the arterial system via the aorta.Blood flow through an artery is laminar due to low velocity, which means that blood flows inparallel layers with no disruption between the layers. In some cases, the blood flow may beturbulent due to restrictions and blockages in the arteries when vascular conditions
at the Center for Postsecondary Success within Florida State University. He received Ph.D. degree in Higher Education and Student Affairs from the Ohio State University. His re- search His research interests broadly focus on two areas: (1) higher education policy, particularly policies related to college access and success; and (2) internatinalization of higher education, with an emphasis on the global mobility of students and scholars. c American Society for Engineering Education, 2020 Improved Student Performance in a First-Year Engineering Course with Integration of Entrepreneurial Minded LearningAbstractIntroductionIn collaboration with KEEN, a network of thousands of
through student responses to a survey administered at both thebeginning and end of the course. Survey results indicate that the EHMs enabled students toincrease their perception of their understanding of environmental engineering and its effect onsociety’s environmental challenges.IntroductionAs our world continues to evolve, an increase in the development of technical solutions is criticalfor meeting society’s growing needs. Today, there are many environmental and social problemsfacing our world. Zero hunger, clean water and sanitation, affordable and clean energy, Fig 1. 17 Sustainable Development Goals of the United Nations [1].sustainable cities and communities, and positive climate action are among several of the 17Sustainable
instructionaltechnology tools enabled learning. The tools were selected to engage students in multiple formats:1) those that attended class in person, 2) those who participated in the live stream class, and 3) thosewho would watch the recorded class later in the day. The Matlab Grader feature was instrumentalin providing students practice with computational solutions to vibrations problems. With this tool,instructors create assignments that students solve with a Matlab script. When the student submitshis or her own code, it is automatically graded against the specified output of the instructor solution.Though it would be useful regardless of delivery mode, the Grader was particularly valuable ingetting real-time feedback to students in keeping with the fast pace
. Graduatesshould be comfortable learning new technologies and hardware, adopting technology from otherdisciplines (e.g. electrical engineering) to meet the needs of the civil engineering discipline.As an example of technology in industry, Unmanned Aerial Vehicles (UAVs) are beingincreasingly used by civil engineers in a variety of applications [1]. UAVs are used for structuralhealth monitoring, levee assessment, earthwork quantity estimating in construction, and waterresource management [2-5]. The potential advantages of deploying UAVs in these applicationsinclude expanded data sets, more accurate field measurements, the ability to access areas that aredangerous or remote, and faster and less intrusive study methods (e.g. compared with field crewsand
in improving minority students’ overall performance and professional skills.Introduction and BackgroundConstruction management (CM) is one of the growing careers in the booming US constructionindustry since there is an increasing demand for professionals to manage construction activities[1].The growth in demand is projected to increase by 10 percent from 2018 to 2028, with theanticipated increase in construction activities over the coming decade [2]. However, due to thegrowing complexity of construction processes and the dynamic nature of the constructionindustry, there is a necessity for an innovative pedagogy that could help CM students familiarizethemselves with real-construction site issues and engage in problem-solving skills
research outputs within the state of Florida, identify potential areas ofregional/geographic collaboration, and develop meaningful library-related services/resources tobetter assist these engineering researchers and faculty.introductionScientometrics, as part of the larger work of bibliometrics, has been a long-standing tool forevaluating the scientific rigor, impact, and trends of scientific output at major academic andresearch institutions. By looking at the popularity and frequency of subject terms and journal titlesin which researchers publish, it is possible to get a clearer overview of how researchers bothspecialize and collaborate within their field and subject area [1]. Keyword analysis, which drawson similar metadata retrieval and
Education Policy, and have been working as a graduate research assistant to Clemson’s Associate Dean of Undergraduate Education on projects involving tracking and analyzing data on student engage- ment in high-impact practices, proposing and writing grants for joint faculty curricula development, and revamping Clemson’s general education requirements/curricula. c American Society for Engineering Education, 2020 Interactions Between Engineering Student Researcher Identity and Epistemic ThinkingAbstractThis paper describes a multi-phase, multi-institution project with the objectives of 1) exploringhow undergraduate engineering researchers develop their researcher
of 4.14/5 for being helpful to learn the material vs. 3.05/5 for paper homework (HW), p <0.001 and effect size d = 1.11σ. On relevant exam questions that semester, students scoredsignificantly (p = 0.014) higher with an effect size of d = 0.64σ when using Circuit Tutorcompared to paper HW in one class section, with no significant difference in the other section.1. IntroductionA meta-analysis has shown that step-based tutoring, where each step of a student’s work isimmediately evaluated, is considerably more effective than answer-based tutoring (where onlythe final answer to a problem is checked) and is almost as effective as a skilled human tutor.Specifically, step-based systems caused improvements of 0.76σ, compared to 0.31σ and 0.79σ
paper reports on the first half of this ongoing project, including the summer workshops and summer andfall coaching sessions. This paper reports and reflects on coaching session notes and discussions with participants.Evaluation includes trend analysis to identify themes raised during coaching sessions, and assessment of theeffectiveness of the coaching meetings. Future survey data will be used to measure the effectiveness of coachingsessions for implementation and accountability of project goals.IntroductionOver the last two decades, the Kern Entrepreneurial Engineering Network (KEEN) with support from the KernFamily Foundation has actively supported, developed, and promoted programs to create a change in engineeringeducation [1]. Specifically
framework for students’ collaboration on a practical project. The frameworkconsists of four modules divided between the three disciplines: 1) project scope, systemintegration, and teamwork incorporation; 2) system engineering, cybersecurity design, andapplication development; 3) system cybersecurity algorithms, data collection, organization, andanalytics; 4) system business planning, cybersecurity applications operations implementation, andmaintenance. The paper also presents an example for an IoT based project to apply the frameworkand show the projected course model in developing the IoT project.INTRODUCTIONThe demand for qualified cybersecurity professionals is increasing in an unprecedented rate.Advancement in Internet of Things (IoT) and
Paper ID #31251on sabbatical leave from OSU) Books Published • Integrative Design, Building Systems for Architectsand Architectural Engineers, 2016, Cognella Academic Publishing, San Diego, California, USA, ISBN# 978-1-63487-265-2 • Recommended Practice for Daylighting Buildings, 2013 (co-author), IESNA,New York, USA, ISNB # 978-0-87995-281-5 • Design Guidelines for Sustainable Biological Stations,2010, Oklahoma Academy of Sciences, Stillwater, Oklahoma, USA, ISBN # 978-0-9843264-1-9 (onlinebook) Selected Conference Papers • Mansy, Challenging Conventional Wisdom in the Age of Computing,ASES National Solar Conference, 2018, Boulder, Colorado, August 5-8, 2018 • Mansy, Energy perfor-mance within integrative design, barriers in academia, ASES
and engaging learning experience fornovice designers and innovators.1. Introduction and Background1.1 Introduction The Georgia Institute of Technology has recently introduced a pilot program of mini-mester offerings into its curriculum. The program divides the traditional semester into three five-week terms during which students can take one-credit mini-mester courses on a variety of non-traditional classroom topics. This makes students’ experience at Georgia Tech more personalizableby enabling them to explore areas of interest outside their main program of study, and gainknowledge across different academic disciplines. The abbreviated mini-mester format allowsstudents to receive an introduction to a subject without the traditional
on the job.The easy to use system incorporates a heads-up display (HUD) controlled by a machine vision camera andmicrocontroller. The camera detects objects of interests, whether they be potentially hazardous vehicles orexpensive company assets, that are labeled by a color-coded tag. The system is an attachment that has beendesigned to fit comfortably on standard hard hat models. The major goal of this project is to offer customersa turnkey solution for operator safety. The main educational goals of the project is for the team of studentsto (1) identify an engineering problem to solve; an engineering challenge, a new or novel idea; (2) developan optimal solution for the problem in terms of cost and engineering constraints, and industry
. c American Society for Engineering Education, 2020 Interleaving Lenses to Scale Our Units of Analysis for Engineering Education ImprovementIt is clear from multiple sources that the current state of engineering education is not preparingstudents for useful practice in the 21st century [e.g., 1-3]. One of the key drivers of this is thelarge barrier that exists between the research and the implementable action items developed bypractitioners [4, 5]. Changing research, practice, and forming stronger connections betweenthem, at all scales, is required to close the gap between the engineers we are producing today,and the graduates industry is seeking.How then do we establish a defined link between research
competitions as cost effective solutions thatprovide the international experiences employers are seeking while not extending the time astudent needs to obtain their degree.Key words: Globalization, international experiences, international competitions, undergraduateengineering educationIntroductionIn the age of globalization, the boundaries in technical industries such as engineering andconstruction have blurred over the years. Academic institutions, engineering professionals, andcorporate organizations continue to benefit from the commercial advantages, creative ideas andcompetitive advantages that can be obtained from a well-organized multicultural educated team[1], [2] Additionally, companies within the U.S. and abroad are concerned with the
which produces 7.5 times the amount of energy that it consumes. In addition,the participants visited cultural sites, educational institutions and co-operative Greencommunities. The trip concluded with two days at the SmarterE Conference, one of the largestsolar conferences in the world. See Appendix B for itinerary and site details.2.3 Professional Development Learning ActivitiesA proven curriculum, developed over the course of CREATE's prior international study tours, wasemployed to ensure academic rigor and to deepen participant learning. The learning plan consistedof 1) pre-travel online activities and webinars, 2) daily knowledge capture, individuated researchand collaborative sharing during travel, and 3) post-travel reflection and
andgraduate) work under the supervision of their faculty advisor to populate this lab with relevantIoT devices to simulate that of a smart home. This setup would allow us to simulate possiblereal-world smart home events (i.e. IoT device compromise, IoT device as a witness) which we canthen investigate to both find answers to aforementioned questions and develop efficient methodsto investigate these IoT devices. In this paper we will discuss several ways in which IoT devicesin a smart home can be compromised and also investigate these devices after the compromise todetermine what data can be recovered, how to recover the data and where this data resides.1 IntroductionInternet connected devices are constantly being introduced to the public as
Interactions in Engineering Teams: Findings from a Multi-Year Mixed Methods Study at Three InstitutionsIntroductionA key learning outcome in engineering is the ability to work in collaborative and inclusiveteams. As engineering becomes a global endeavor, this outcome gains increasing importance toundergraduate engineering education. When it comes to working in teams in this globalenvironment, research shows positive and negative findings for students working in diverseteams (i.e., race/ethnicity, gender, sexual orientation, disability status). Positive findings includeincreased divergent thinking, idea generation, higher quality products, and increased productivity[1]-[3]. Negative findings highlight sustained conflict in teams, decreased
small numbers, already face heavier service loads than their majority, men peers. So,in this study we asked, “What differences have these programs made in the hiring outcomeswithin our college?”This case study describes some of the recent interventions implemented at the University ofColorado Boulder (CU Boulder) College of Engineering and Applied Science (CEAS), apredominantly White, very high research activity doctoral institution [1]. We present thedemographic history of the college’s tenured/tenure-track faculty compared to national averagesin the United States, a discussion of changes incorporated into the tenured/tenure-track facultysearch processes over the past five years, the hiring results over the past decade, and insights
currently serving as the Interim Chair for the Industrial Management and Technology De- partment. c American Society for Engineering Education, 2020 Introduce Virtual Reality to College Technical Training Program — Intensified VR Training for Safety and Economic EfficiencyIntroductionWith the advancement of technologies in many fields, educational technologies are becoming morediversified nowadays. Especially with the development of immersive learning and educationgamification [1], both the learner and educators are seeking innovative, effective, and cost-efficientways for education today. As educational institutions that offer technical training in colleges, theavailability of the educational technology in
of a degree at High Point University is 50 credits.With the current ABET Engineering Accreditation Commission requirements of a minimum of 30semester hours of science and mathematics, and 45 hours of engineering topics appropriate to thename of the program [1], this is problematic. Mapping an engineering curriculum to exclusivelyfour-hour courses is also difficult, as most traditional courses and texts are built to be taught inthree hour blocks, forcing some creative combination of courses.The entire curricula for both electrical and computer engineering have been approved, and theprograms accepted their first freshmen in fall 2019. This paper discusses the implementation ofthe programs, the challenges already addressed and those yet to be
, curriculum, discipline specific content (E) “Include topicsrelated to professional responsibilities, ethical responsibilities, respect for diversity, and qualityand continuous improvement” is addressed in these educational experiences(1). 1. IntroductionEngineering Technology (ET) is one of the six academic departments in the College ofEngineering (COE) at the University of Toledo and it is the largest in terms of number ofundergraduate students enrolled, currently around 1000 students. The ET Department offersABET-accredited Bachelor of Science degrees in five areas of study, namely Computer Scienceand Engineering Technology (CSET), Construction Engineering Technology (CET), ElectricalEngineering Technology (EET), Information Technology (IT), and
Depart- ment of Civil, Architectural, and Environmental Engineering at Missouri University of Science and Tech- nology.Prof. William Eric Showalter P.E., Missouri University of Science and Technology c American Society for Engineering Education, 2020 Introduce High School Students to Engineering Disciplines: Activities and Assessment Nicolas A. Libre 1 , Stuart W. Baur 1 , Mark Fitch 1 , W. Eric Showalter 1 Department of Civil, Architectural and Environmental Engineering, Missouri University of Science and TechnologyAbstractPre-college summer camps are part of the successful recruiting efforts at Missouri S&T
elementary school [1]. First-year engineering programsoften take on the task of providing students with engineering experiences to help mold theirexpectations of what an engineer does and what various engineering disciplines are available tothem in an effort to improve retention [2].As many different first-year engineering (FYE) programs have shown, students can beintroduced to engineering experiences earlier in their education through course work, designprojects, or lab experiences. A challenge of this discipline-exposure component of a first-yearengineering curriculum is how to efficiently use course time to introduce so many differentengineering disciplines in ways that are impactful and meaningful to students. One such way ofproviding first-year
atimproving interest and literacy of BME and neuroengineering principles to high school students.The authors will also introduce the program into our current undergraduate curriculum as part ofa project that will be conducted alongside our current EEG experimental laboratory during thenext year, as it will reinforce principles learned during the existing course content and provide aBME application of the laboratory.Introduction:Advancing an interest and literacy in Science Technology Engineering and Mathematics (STEM)fields in high school students through summer and after school programs has been widelypopular since the 1990’s, and these programs are effective at improving retention and persistenceafter graduation [1]. These initiatives have been