inquiry based science and math instruction using a design context can develop learners’competencies including cognitive models of how systems work, communication skills, the abilityto synthesize ideas, STEM knowledge, and the ability to evaluate designs20.(d) an ability to function on multidisciplinary teamsAn integral part of the work of engineers and most professions is the ability to work effectivelyin teams. Engineers often collaborate with people from various fields in order to effectivelydesign solutions. One of three general principles that have been proposed for K-12 engineeringeducation is to promote engineering habits of mind, which include collaboration1. K-12engineering education should involve students working in teams on design
students feel lost, afraid, and confused along the way.In her monograph, they’re Not Dumb, They’re Different: Stalking the Second Tier (29),Sheila Tobias echoes some of these concerns. Her work addresses some specificclassroom characteristics that, if paid attention to, might help calm down the secondtier students (i.e., those high achievers who are serious about their learning andcareer goals but who, for some reason, chose to opt out of engineering).Tobias assertsthat many traditional science courses suffer from lack of community( both betweenthe instructor and the students and among the students themselves) and that manystudents desire this relationship and become more successful learners when itprevails in the classroom. She further states
Table 5: Stakeholder Requirementsstrategies, the MRC lab will cultivate an educational setting that prepares graduates to makemeaningful contributions as soon as they enter the workforce.This approach to the design, of the MRC Lab reflects a multidisciplinary perspective, integrat-ing aspects of mechatronics, robotics, and control to create a dynamic environment for learningand innovation. Here, students, researchers, and practitioners can engage in practical problem-solving, collaborate across disciplines, and develop new technologies and solutions focused onrobotic dexterity and precision.Furthermore, the Measures of Effectiveness (MOEs) for the MRC Lab, as detailed in Table6, are defined and related to the stakeholder requirements. They are
aboutcurrent developments in the field of engineering education between teachers, researchers andstudents in the various European countries. Additionally, it facilitates cooperation betweenhigher engineering education institutions and promotes cooperation with industry. It also acts asa link between its members and other collaborating scientific and international bodies such as itsEuropean sister organization IGIP, the American Society for Engineering Education, and theBoard of European Students of Technology.The objectives of SEFI are achieved through the activities of thematic working groups(curriculum development, continuing education and lifelong learning, physics, mathematics,women in engineering, ethics, information and communication
creating inclusive learning environments that support all students success. Dr. Subi˜no Sullivan earned her Ph.D. in cultural anthropology from Indiana University in 2012 and had taught courses in anthropology, near peer mentoring and teaching and learning in higher education at multiple institutions in the US.Lance Matthew Crawford ©American Society for Engineering Education, 2023 Rapid Change to Refined Teaching: lessons learned and lasting impacts the COVID-19 pandemic had on how we teach engineering.Authors: Boni F. Yraguen, Lance M. Crawford, Carol Subiño Sullivan, Adam M. SteinbergAbstract This research paper will assess the impact the COVID-19 pandemic had on learningstrategies
STEM education. In her dissertation work, she developed and validated a new interdisci- plinary assessment in the context of carbon cycling for high school and college students using Item Re- sponse Theory. She is also interested in developing robotics-embedded curricula and teaching practices in a reform-oriented approach. Currently, a primary focus of her work at New York University is to guide the development of new lessons and instructional practices for a professional development program under a DR K-12 research project funded by NSF.Sonia Mary Chacko, NYU Tandon School of Engineering Sonia Mary Chacko received her B.Tech. degree in Electronics and Communication Engineering from Mahatma Gandhi University
historical and social context of key problems associated with equal educational achievementin pre-college education was discussed in a three-year study conducted in elementary andsecondary classrooms in four states on teacher interaction patterns with their students.4 Some ofthe findings indicated that teachers interacted more with male students; boys were more likely tocall out answers; minority females were asked the fewest number of questions; and the samepatterns of interaction were observed among teachers regardless of the teachers’ gender andethnicity. Several ideas for organizing the classroom and questioning strategies to eliminate biasassociated with academic achievement involve providing opportunities that allow all students toparticipate
earned a Doctor of Philosophy in Policy and Governance at the Australian National University in Canberra, a Bachelor of Engineering (Mechanical) from Carleton University in Ottawa; a Certificate of Graduate Studies in Natural Resources Organization Management from the University of Michigan in Ann Arbor; and Master of Arts in Environmental Security and Peace from the University for Peace in Costa Rica. For approximately a decade, Sergio worked on sustainable energy policy and finance throughout Latin America and collaborated with leading U.S. government agencies, multilateral banks, and public interest organizations involved in international clean energy policy and rural electrification, including the
business; this is particularly valuable for a youngPh.D. fresh out of graduate school and often with a narrow, discipline-specific “tunnel vision”perspective (“Beware of the man with only a hammer; to him every problem is a nail”). That is,engineering consulting rapidly drives home the fact that design, research, development, andmarketing in the nonacademic world are often multidisciplinary in nature. Real problems don’tlend themselves very well to formal academic boundaries and the new engineering consultantrapidly is forced to expand knowledge, skills, and outlook to a variety of disciplines in order toarrive at optimum solutions and interact with clients
directconnection to chemical engineering topics, where the majority of participants (graduate students,post-docs, and faculty) are conducting research in related areas. These case studies providedconcrete examples of analyses of research topics with social justice in mind, ideally givingparticipants a framework for similarly analyzing their own research. Additionally, by placingparticipants in case studies with topic areas distinct from that of their research, we aimed toeliminate any preconceived notions about the topic, minimize thoughts of personal relationshipor guilt during the workshop, and maximize the value to participants. We note that a fewparticipants (6/102, 6%) indicated that they would have preferred to be in case studies related totheir own
University as a research assistant. His research interests include designing specialized hardware to accelerate applications on advanced FPGA platforms, developing network and communication algorithms on modern USRP/SDR platforms and prototyping ultra-low power nodes for IoT applications. Currently his main focus is on power consumption and performance optimizations for mmWave and THz communications. As part of the ’COSMOS educational team’, he designs exciting and interactive problem-based STEM learning experiences for K–12 students and teachers. The team organized a teacher professional development program, using wireless communications and NGSS to create hands-on engineering lessons and promote STEM. He was part of one
team workand esprit de corps among students as they served on several construction teams dedicated to Page 22.1241.8collectively constructing a specific feature of a home; Student Assessment of Habitat Program 5 4 3 2 1 0 ! Increased Student Engagement Improved Student Cooperation Figure 2: Participant Feedback for Areas of Interest Concerning Habitat for Humanity Integration into ETCE 1222, “Construction Materials.” (Note: Scores indicate the statistical mean for all student responses
technology centered, discovery-based, extracurricular learning experience for urbanyouth from underserved neighborhoods with a minimum of 120 contact hours per year for twoyears. Researchers envisioned student participants meeting the following short term programgoals: a) gain in-depth knowledge of STEM concepts by working on intellectually engaging andsocially responsible complex problems; b) learn collaboration, teamwork, and workplace skillsmentioned in the SCANS report12 through mentoring experiences that include interactions withadults, peers, and younger peers; c) confront stereotypes about females and minorities in STEMprofessions through cognitive apprenticeship offered by diverse mentors; and d) gain thenecessary knowledge to engage with
students as part of a sophomore-level systems analysis and design course. In this evidence-based practice paper, we report on students’ reflections regarding their perceptions of teamwork.This study approaches the following research questions: What are students' reflections about therole of communication while working in teams in a cooperative project-based learningenvironment?The guiding pedagogical framework for this course is cooperative learning. The course requiresthe students to work in teams in a semester-long software development project. To elicit reflectionon action about their teamwork experience. Specifically, we exposed students to concreteexperiences as part of their teamwork interactions, which became the basis for observations
team-working, andallow students to tackle problems of larger scales and complexities than they could otherwise doalone. Furthermore, there is evidence that collaborative learning methods are more effectivethan the traditional teacher-centered methodology 3,4. Finally, the Accreditation Board forEngineering and Technology (ABET) expects students to gain proficiency in team work5. Whilethe reasons for their inclusion are numerous, team-based projects, and team-based assessments inparticular, are not without their problems.One focus of our research has been in addressing the difficulties students experience in team-work. We have developed a framework of guidelines and practices that facilitate effectiveteams. The framework has been successful
projects inindustry require group efforts. That is the main reason why employers are concerned thatalthough these new engineers may have good technical skills, they may lack other knowledgeskills necessary for success. For instance, life-long learning habits in the students,communications skills, and the cultivation of good ethics and perception toward theirprofession are all important.3. Cooperative learning: theoretical bases and implementation issues Jordan and Le Matais described four general theoretical perspectives that explain thebeneficial effects of cooperative learning on performance [8]. One perspective involvesmotivation, and the second is the social cohesion perspective, while the third and fourthperspectives are the cognitive
students. Participants from the students’ homecommunities indicated that there were few opportunities for students to learn more aboutengineering careers and provided suggestions for how colleges and universities could be moreinvolved with students from their community. Phase 3, scheduled for Spring 2020, will bring thefindings from Phases 1 and 2 back to rural communities via two participatory design workshops.These workshops, designed to share our findings and foster collaborative dialogue among theparticipants, will enable us to explore factors that support or hinder transfer of findings and toidentify policies and strategies that would enhance each community’s ability to supportengineering as a potential career choice.Project OverviewDespite
technology to exchange ideas, solve problems and present solutions; be a leader; ateam member; and an ambassador1, 7, 13. However, preparing engineering students with all theprevious mentioned attributes is no small task given that engineering programs are alreadyoverloaded with credits, content, and other demands.Eight international prestigious universities, chaired by TU Darmstadt, started in October 2005 aninitiative to conduct the first worldwide scientific study on “Global Engineering”2. The results ofthis study lead to four recommendations: 1. Global competence needs to become a key qualification of engineering graduates; 2. Transnational mobility for engineering students, researchers, and professionals needs to become a
out in these landmark works:1. Encourage contact between students and faculty.2. Develop reciprocity and cooperation among students.3. Use active learning techniques.4. Give prompt feedback.5. Emphasize time on task.6. Communicate high expectations.7. Respect diverse talents and ways of learning.Traditional face-to-face instruction provides on-going opportunities to structure the learningenvironment in class in ways that incorporate these best practices. Cooperative learning strategies(See [4]) and classroom assessment (See [5], [6]) are well-established pedagogies that we haveboth used for years. Teaching online and face-to-face concurrently in the same course provided uswith opportunities to incorporate these effective
engineering education. Her research interests include undergraduate and graduate student personal epistemology as well as diffusion of innovations.Mr. john David ivanovitch, Oregon State university I am a third year doctoral student studying organizational change and science education at the collegiate level. My education includes a BA in cell and molecular Biology and a MSc. in integrated biochem- istry/microbiology. Prior to entering the Doctoral program at Oregon State University I worked for over a decade as a biomedical researcher, with projects ranging from biochemistry to molecular virology. My current education research interests include transdisciplinary integration of STEM, and teaching-related cultures at
Engineering Education, 2021 Paper ID #35494 safety, and broadening inclusivity and belonging in engineering, especially among the LGBTQ+ commu- nity. His previous funded research has explored the effects of implicit bias on ethical decision making in the engineering classroom.Landon Bassett, University of Connecticut Landon Bassett is a graduate student at the University of Connecticut who focuses primarily on under- graduate engineering ethics and process safety American c Society for Engineering Education, 2021 Workshop: Gamifying Engineering Education - A Playful
,and graduates will rest on a very weak foundation and much make-believe.Previous European projectsThere are previous initiatives that have focused on the assessment of international mobility ofstudents, some examples are: Mapping Internationalisation (MINT), Indicators for Mapping andProfiling Internationalisation (IMPI), Erasmus Mobility Quality Tools (EMQT), Certificate forQuality of Internationalisation (CeQuInt), Reforming Dual Degree Programmes forEmployability and Enhanced Academic Cooperation (REDEEM), Memo©, Mapping UniversityMobility of Staff and Students (MAUNIMO), International Medical School 2020. The maineffort among them has been to assess the quality and effects of internationalization actions andmobility. All of them have
opportunities for research, in-class projects, creative and analytical thought, and real world problem solving. That said, I never felt nearly as comfortable in the Math department as I did in Engineering. “ “Don't discount the positive effect of the TA problem sessions (both attending and becoming a TA later in school).” “Having everyone from the secretary to the janitor encouraging you makes more of a difference than you might think.” “I can't say enough good things about the flexible, interdisciplinary focus and the unique worldview it provides students, and I would guess that this strength is a key reason the student body is so diverse.” “Hands-on projects, machine shop, and team
effectively in interdisciplinary teamsWith these in mind, we actively seek collaborations with other schools on campus and outsideentities. Since there is strong interest among engineering students to learn about business andentrepreneurship, we wanted to develop a program for engineering students to gain fluency inbusiness concepts, especially product development, as well as the ability to effectively partnerwith business students. Product development in today’s environment must account for manyfactors other than technology, such as product placement and branding12. While students arerequired to take an “Engineering Economy” course that provides fundamental business andfinance concepts, we found that it did not provide an authentic experience of the
Graduate School of Imaging Science andTechnology (http://www.eng.chiba-u.ac.jp/joho.htm). Japanese universities, individualprofessors hire younger faculty members to form a distinctive research effort in severalimportant areas. Thus, there is no formal “center” but rather a group of three or four talentedfaculty members and a continuum of graduate and undergraduate students who work on a widerange of electronic imaging problems. While Dr. Miyake’s laboratory will support one or twovisiting professors (normally from out side of Japan) there are no formal postdoctoral positions.The funding for the research comes mostly from the school and the Ministry of Education.While there are strong ties to industry, there is little financial support for the
placed upon them as freshmenby providing a collaborative environment in which they will learn to seek assistance from andprovide support to peers.The primary objectives for Project SUCCESS are:1. Enhance student learning by: • introducing students to basic computer engineering projects, • providing an environment for students to practice teamwork skills, • connecting students to the computer engineering faculty and facilities through authentic, real-world situations, • promoting problem solving, critical thinking, and ethical reasoning, • providing an environment for students to practice presentation skills, and • developing an understanding of study skills and their learning styles.2. Provide an environment to facilitate the
developing abroader computer science curriculum aimed at preparing students for real-world problems in amultidisciplinary, global world. ICACE is collaboration among three US and three EU universities joinedforces to create a core curriculum in Ambient Computing. The curriculum will include aspects of socialscience, cognitive science, human-computer interaction, organizational studies, global studies, andparticular application areas as well as core computer science subjects. Programs offered at partnerinstitutions will form trajectories through the curriculum. A degree will be defined in terms of combinationsof trajectories which will satisfy degree requirements set by accreditation organizations. The curriculum isevolving with student and faculty
maintain a mentoring relationship. Twenty-eight (28) colleges and universities were representedUndergraduate and Graduate StudentsA lack of interest in the topic of engineering and the lack of a supportive network are often citedas reasons for women leaving the study of engineering. Mentoring support provides studentswith an opportunity to learn about the direct applications of the coursework they are pursuing aswell as learn first hand about employment opportunities. Recognizing the importance of theseconnections, both peer mentoring and student/professional mentoring programs have increased inschools with Women in Engineering Programs. Training in the development of mentoringprograms has been offered by WEPAN through its National Conferences
examined, to offer insightinto how students’ perceptions regarding their professional communication skills evolve underdifferent teaching approaches. Additionally, differences in the achieved learning outcomes forthe effective communication among these student groups were explored and compared, usingquantitative and qualitative research methods.Quantitative Analyses Survey data was used to conduct quantitative analyses. Overall response rate in the firstwave of the survey was 100% in the Supply Management Class and 68% in the Principles ofMarketing class. In the second wave of the survey, the response rate in the Supply Managementclass was 85% and in the Principles of Marketing class 72%. The observed response rates werereasonably high for
undergraduate course is ‘good enough’ for their needs in agraduate program and you are telling the undergraduate students that the course is suitedfor graduate-level credit, thus setting up false expectations for student success and qualityof the various courses. Dedicated undergraduate and dedicated graduate courses are muchmore effective in my opinion. [10]”The reasoning behind this is that graduate courses should be different: “A graduatecourse should be more than just a lecture. There should be a deeper discussion about thetopic, as well as more personalized assignments that directly relate to graduate research,rather than just a regurgitation of the lecture.”Category #2: Reasons why piggybacking can’t be effective in some courses. In somecourses