classrooms and impact the way that thousands of children learnand think. Among early proponents, contrasting camps formed around the degree to which Logowould change education [7], [17]. On the one hand, some of Logo’s creators envisioned its in-cremental role in reforming education, while, on the other hand, some creators, including Papert,thought it had revolutionary potential to shift education from teacher-centered, instructionistpedagogy to student-centered, constructionist learning. It has long been noted that constructionisttheories and technologies disrupt the traditional teacher-student hierarchy, particularly in schoolsettings. In Papert’s radical efforts to revolutionize education, the role of teachers shifts from onewho transmits
study groupand other in-person small-group study sessions have been introduced as part of the on-campusteaching and learning assistance services. Research on the effectiveness of the many differenttypes and formats of peer tutoring at various colleges and universities has been reviewed byTopping7, advocating for implementing peer tutoring and other small-group study methods in"high-risk" subjects, i.e. subjects that typically pose a greater challenge in passing, such as staticsand thermodynamics in mechanical engineering. Zhao and Kuh5 examine the relationships 2between participating in learning communities and student engagement in a range ofeducationally purposeful activities of first-year and
for the NSF-funded STEP 1b program ”Convincing Outstanding-Math-Potential Admits to Succeed in STEM (COMPASS)”. She is currently a Co-PI for the Girls EXCELling in Math and Science (GEMS) and WISE@UCF industry funded women’s mentoring initiatives. Through iSTEM Dr. Dagley works to promote and enhance collaborative efforts on STEM education and research by bringing together colleges, centers, and institutes on campus, as well as other stakeholders with similar interest in STEM initiatives. Her research interests lie in the areas of student access to education, sense of community, retention, first-year experience, living-learning commu- nities, and persistence to graduation for students in science, technology
within engineeringeducation, with a strong emphasis on ecological as well as economic sustainability. For exampleParsons16 was engaged in developing a handbook for U.S. engineering students planning to workin developing countries. Emphasis was placed on listening to the community. For a review ofappropriate technology courses that involve a service learning component see Sandekian et al.17A strong model for service learning and appropriate technology is the ETHOS program at theUniversity of Dayton. The program connects students with service learning opportunities indeveloping countries, and offers a course which includes language and cultural preparation aswell as readings in appropriate technology to prepare students.18 Explicit recognition is
effectiveness, collecting andanalyzing the data, and using the results to guide further improvements to the app. Additionally,the fabrication of the handheld tool will be completed, including mounting strain gauges,installing electronics, and writing MATLAB code to convert raw data into stress values thatstudents can visualize and explore through the app. This research will lay the foundation forfurther studies aimed at evaluating and refining the handheld tool in conjunction with the app.These subsequent investigations will focus on optimizing the tool's design, enhancing integrationwith the app, and exploring its impact on student engagement and learning outcomes in greaterdepth.References[1] S. Brown, D. Montfort, and K. Findley, “Student
research lab will serve as the training site on health and safety issues of nanomaterials. Dr. Tate is a mechanical engineer by training and has 16-plus years of academic and two years of industry experience. His research areas include developing, manufacturing; and characterizing the high-performance polymeric nanocomposites for rocket ablatives, fire-retardant interior structures of mass transit and aircraft, lighter and damage-tolerant wind turbine blades, and replacement of traditional composites using bio-based materials. He has mentored under- graduate African-American students under NASA-PAIR at NC A&T University, an HBCU, and Hispanic students under H-LSAMP at Texas State. He is a member of AIAA, ASME, ACMA
engineering education? Among these organizations are the National Science Foundation (NSF)7, the Accreditation Board for Engineering Technology (ABET), 8-10 the National Research Council’s Board on Engineering Education,11,12 and the American Society for Engineering Education, 13,14 and the themes of “application of emerging technologies” and “education for manufacturing”? 11; 3. Will current teaching strategies be able to keep pace with emerging technologies and their related instructional requirements?15 4. Given that students’ motivation increases if they understand why they should learn a topic, how can they be motivated to engage and master concepts not directly related to their chosen field? 16,17
students demonstrating an ability to identify, formulate, and solve complexengineering problems by applying principles of engineering, science, and mathematics; an abilityto apply engineering design to produce solutions that meet specific needs with consideration ofpublic health, safety, welfare, as well as global, cultural, social, environmental, and economicfactors; an ability to communicate effectively with a range of audiences; an ability to functioneffectively on a team whose members together provide leadership, create a collaborative andinclusive environment, establish goals, plan tasks, and meet objectives; an ability to develop andconduct appropriate experimentation, analyze and interpret data, and use engineering judgementto draw
. The system was made accessible andoperational in real-time through the web portal. This system made the hands-on learningexperience more accessible to students with limited instructional resources.The robotics course introduces students to robotics, conveyance, and parts feeders as individualsub-systems and how they interact together to form an integrated system. Topics include: 1)history of robotics, 2) robotics impact on production and the labor force, 3) general robotcharacteristics, 4) physics of robot motion, 5) use of teaching pendants, 6) different types ofrobot control systems, 7) robot end-of-arm tooling, 8) applications of robots, 9) sub-systems ofan IST and how the robot interacts with the system, 10) control devices in the system
minoritized students and these students’ communities. ● Most of the respondents (8/11) reported currently working with minoritized students in STEM and wanting to learn how to better support them. ● Most of the respondents (9/11) reported feeling comfortable having conversations with peers and colleagues about systemic inequity and its impact on minoritized students in STEM. Finding #3 The faculty respondents still have much to learn about ways to navigate issues related to access, equity, diversity, and inclusion.The survey finds that, even though faculty want to do this work, they still have much tolearn about how to incorporate access, diversity, equity, and
faculty. Student cohorts develop as a community having a social and emotionalidentification, cohesiveness, and connectedness. The progress within the socialization process ishelped if students are able to develop in-group status with their peers. [17], [26]. One of changes that was identified across all participants was the change in the level ofsupport that the graduate students felt while navigating in their respective engineeringenvironments. Courtney recounts her experience her first year dealing with a male advisor whowas international as being disruptive in her attempts to integrate herself as a graduate student inan unfamiliar, and seemingly hostile environment. My first PI…you know you have your weekly meetings with your PI
Mount Union American c Society for Engineering Education, 2021 A comparative analysis of teacher and student perceptions of sources of motivation in freshmen engineering design courses at liberal arts universitiesAbstractLiberal arts universities and colleges aim to provide students with an education in problem-solving skills, critical thinking ability, and communication tools. With more liberal arts institutesstarted to have engineering programs, it is important to understand and evaluate the impacts ofengineering curriculum in liberal arts settings on students, faculty, and the programs. Thus, thispilot study examines an introductory
/qual communication w/ partner 4.50 4.11 want to be in XXX again 4.36 4.33 V was good match for students & course na 3.95 V got useful feedback from T na 3.79 T had reasonable expections for V role & prep na 4.39 Impact on Students V helped students comprehend new ideas 4.29 3.74 V increased student interest in science 4.36 4.05 Students improved perceptions of science 4.57 4.00 V a good role model for students 4.64 na Students got better idea of what S/E entail 4.50 na Impact on
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 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. Figure 1. An early version of EC 2000’s a-k student learning outcomes [35].The most significant thing to note about EC 2000 is their overall emphasis on professional skills(see Figure 1). Of the eleven a-k learning outcomes, at least seven, and
aerospace engineering. He aspires to work in the manufacturing industry and engage in manual design.Siloe-Noah Selebangue, University of Maryland College ParkAlayna Isabella Sheahy, University of Maryland College Park Alayna Sheahy is a junior undergraduate majoring in chemical engineering. Her academics has focused on core principles of transport phenomena, reaction engineering, and thermodynamics, which she hopes to apply to applications in drug development and delivery.Shravan Suresh, University of Maryland College ParkMarklin Yi, University of Maryland College ParkAndrew Elby, University of Maryland, College Park Andrew Elby’s work focuses on student and teacher epistemologies and how they couple to other cognitive
manufacturingteam allowed students to understand production constraints and revise the external casing toreduce complexity and cost. This real-world design evolution greatly contributed to theirreadiness for professional engineering environments.Student Learning Experience and Industry FeedbackStudents described the experience as one of the most impactful elements of their academiccareers, highlighting how it gave them confidence in applying theoretical knowledge to a practicalchallenge. They also appreciated learning how to effectively communicate with stakeholdersacross organizations. According to a post-project reflection, one student shared, "It felt like wewere really part of something that matters—and it gave me a sense of purpose beyond
identification as an engineer and their expressed communication of interest insociotechnical innovation and justice. This collective in the field experience includedartifact exploration, recorded group discovery conversations (recordings taken as a partof preparation for a particular exposure event (i.e., visiting the Floating Farm) in thefield and/or immediately following one), interviews, photographs and video. Having arange of engagement from students across various engineering disciplines had noinfluence on the fact that none of them had a confident awareness of sociotechnicalinnovation. Not only did students prove scared to define it, but they also had no ideaof exactly what “qualified” as sociotechnical innovation. It was apparent that
new engineering education strategies as well as the technologies to support the 21st century classroom (online and face to face). He also has assisted both the campus as well as the local community in developing technology programs that highlight student skills development in ways that engage and attract individuals towards STEAM and STEM fields by showcasing how those skills impact the current project in real-world ways that people can understand and be involved in. As part of a university that is focused on supporting the 21st century student demographic he continues to innovate and research on how we can design new methods of learning to educate both our students and communities on how STEM and STEAM make up
few participants mentioned that engineering was about helping others afterthe project even though every project they selected was intended to help a disadvantagedpopulation. Nonetheless, before the project, the participants often mentioned that engineeringwas “building,” whereas after the project they thought more of engineering in term of problemsolving, considering trade-offs, and working with constraints. Although other studies haveindicated that students do not see engineering as a field used to “help others,” 7, 8 interventionslike the one described in this study can help high school students change their overall perceptionof engineering and make it more relatable to their lives. Community engagement and givingstudents autonomy in
are evidenced in the universally positive feedback on the CIM program’s value andeffectiveness. The Robert H. Smith School of Business brings world-class business faculty andexcellence in graduate level teaching experience. The A. James Clark School of Engineering’sMaryland Technology Enterprise Institute (Mtech) brings extensive practitioner experience fromworking with thousands of technology entrepreneurs, small business owners, and graduate andprofessional students since 1983. In 2008 alone, Mtech engaged with 394 companies and over1,000 active and aspiring entrepreneurs. Page 14.6.12Through this unique partnership, the co-development and
those communities impacted by their work, sotheir training must meet international standards to ensure success. The Washington Accordsets the criteria for competent and future-ready engineering graduates, emphasizing lifelonglearning, problem-solving, research, engineering practices, and digital skills. However,studies reveal disparities between current engineering education and the evolving needs of thefield. This study aims to identify perceptions held by industrial engineering students,graduates, and faculty members at a private university in Chile on the existing gaps in theirtraining, compared to the competencies outlined in the Washington Accord. Aiming to reducethese through a transformation in the teaching practice of industrial
-2012 before retiring as the National Dean of Technology programs. Page 24.598.1 c American Society for Engineering Education, 2014 Faculty Technical Currency and Professional Development: 2013 Status Report on a National Survey of Engineering Technology Faculty AbstractFaculty professional development activities and technical currency play an important rolein promoting student learning and success. Especially for non-research institutions thatoffer technology driven programs, one of the most important factors
at Whatcom Community College and Oklahoma StateUniversity for Statics. Institutional characteristics are provided in Table 1. WhatcomCommunity College had one course with an enrollment of 14 students (Cohort 1); OklahomaState had two courses, one main offering and one honors, with enrollments of 274 and 69(Cohorts 2 and 3, respectively). The two institutions varied greatly in enrollment, studentmajor/interest, geographical location, and questions deployed. The instructor at WhatcomCommunity College, Eric Davishahl, had previous experience with concept-based learningexercises while the instructor at Oklahoma State, Carisa Ramming, was new to the exercises. Inaddition, the CW was introduced at different times during the duration of the
each workplace competency was designed to be “clear,concise and independent of all others”2. Each competency was associated with a specific set of“observable and measureable Key Actions”2 that when demonstrated by students confirmachievement of that particular competency. Definitions of all the ISU competencies and KeyActions (now expanded to 15 in number) are available at ISU Department of Agricultural andBiosystems Engineering web site5. As an example, one of the ISU workplace competencies,communication, along with its associated key actions is defined as follows: Communication Competency: Clearly conveying information and ideas through a variety of media to individuals or groups in a manner that engages the audience and helps them
toevaluate the research question: Was there a difference in undergraduate studentperformance in a junior-level microcomputers course based on the delivery format?Further, student opinions of course instruction, which captured student feedback using bothLikert-scale questions and open-ended equations, will be analyzed to evaluate qualitativedifferences based on delivery format. These details are expected to help other engineeringeducators in evaluating how delivery format may impact their own courses as they are designingnew courses or revising existing courses.Summary of ECE 383The electrical engineering course analyzed for this work was a 15-week course delivered at theUniversity of Alabama; a large, southeastern public university in the United
Philadelphia as the model. We also looked at how theperception of manufacturing has changed, particularly from an economic development perspectiveand the impact that perspective had on the development of this economic sector.The Urban Industry Initiative works with the community to entice manufacturing to stay in theirrespective cities. In 1970 Philly had 20% of its pop in manufacturing. The 10 square miles aroundPort Richmond had 340 manufacturing firms. The community’s next to factories were resided byowners and workers. Over time, this comradery was broken. The Manufacturing Alliance ofPhiladelphia has a goal to increase the qualified workforce for the next generation ofmanufacturing labor. With the advent of rapid prototyping and using processes
were the predictors of student motivation[F(8, 121) = 15.19, p < .001, R2 = 0.50, R2adj = 0.47)]. The results confirmed that enjoyment had apositive impact on student motivation, whereas anxiety and shame were the negative predictors.Overall, the study showcases that helping students to develop positive emotions can lead to highermotivational levels among students. Therefore, instructors need to create learner-centered writingcourses that allow the students to express their ideas and feel motivated.Introduction and BackgroundCommunication skills have become an indispensable part of 21st-century university education.University students today are expected to have a variety of skills, including communication skillssuch as writing and
the close interactions between students and faculty extremely helpful,especially having a faculty mentor. I have learned a lot from these [interactions]. I also enjoy the"doing" aspect of the program. I learn much more effectively by doing, and the hands-on designchallenges [that] are perfect for this.”The impact of these new programs is rigorously assessed through the administration of theNational Survey for Student Engagement, providing valuable insights into the effectiveness ofthe initiatives. The findings from these assessments inform enhancements and modifications tocontinually improve engineering student engagement and success. The NSSE is routinelyadministered for first year students and senior’s institution-wide, every four years
and inclusion by measuring latent support for exclusionary practices, and designing interventions targeted at improving gaps in graduate student success and support, and faculty hiring, tenure, and promotion. Additionally, his research attempts to understand the impacts of online platforms and their algorithms on political contention in the United States.Lizandra C. Godwin, University of New Mexico Dr. Lizandra C. Godwin is a faculty member in the Electrical and Computer Engineering Department at the University of New Mexico. Dr. Godwin earned her M.S. and Ph.D. degrees in Materials Science and Engineering from the University of Florida, and her B.S. in Mechanical Engineering from Florida A&M University. Her
course structure. During the Fall 2020semester, the course design team integrated the theme of engineering as a social discipline intomultiple aspects of the course. In the following sections of this paper, we will describe thisintegration and the impact on first-year students’ understanding of engineering as a socialdiscipline. We will also discuss potential future work related to these efforts.Center for Socially Engaged Design (C-SED)The Engineering 110 course design team partnered with the Center for Socially Engaged Design(C-SED) at the University of Michigan in this work. The purpose of C-SED is to help studentsconsider broad contexts that impact the practice of engineering, including social, cultural,political, economic, and environmental