, andintegration of national, regional and hemispheric systems. Job Creation: To engage with Industry to create an ongoing real world experience for students,stimulate employment through internships and coops, and drive a sustained Industry / Academiainteraction around producing appropriate outcomes.TRANSLATIONEftA’s purpose is to promote economic and social development through quality engineering education forinnovation and hemispheric collaboration in job creation is concentrated on education. Efta’s purpose istranslated into action through an Advisory Committee and the following organizations: Latin AmericanConsortium of Engineering Institutions (LACCEI), Pan American Federation of Engineering Societies(UAPDI) and Pan American Academy of Engineering
whitecolleagues do not [6]. Question 2: How can we impact the K-12 education system so that women and people of color are being situated for success in a STEM field?Patrice Storey (Ph.D. Student and Assistant Director of DEI)At the University of Arkansas, this summer, we're immersing young girls and boys of allidentities in camps. We have camps spread throughout the state of Arkansas, from first grade upto senior year. I know that's not the complete answer, but it is a start. All those camps thissummer are filled. We have one that’s just for young girls, and a staff member said, “We needmore people of color in this camp”. We went out and sought students from church and otherlocal secondary schools. We had grants and aid to cover the
newproject authors. A communications and marketing plan is being developed to promote the use ofRWEP in classrooms and as part of first-year curriculum. An assessment plan to determine if theRWEP having the intended effect will seek answers to the following questions. How manyfaculty are using the projects in their lesson plans? How many students have used the projects?How have faculty viewed the project? How have student users viewed the project? The long-term plan is use of the projects helping to expose first-year students to the real practice ofengineering and having an impact on retention and recruitment of new students to these fields.We are currently looking at RWEP assessment plans and how to move forward.VIII. RWEP STATUSSince 2007, the
introduced to computational tools used by the professionalmaterials science community to develop their computational literacy, a skill that is becomingincreasingly important for the development of a modern workforce. The 2011 Materials GenomeInitiative called on scientists and engineers to revolutionize materials development by integratingexperiments, digital data, and computational tools [9]. Furthermore, industry [10], the NationalScience Foundation [11], and the National Research Council [12] have all identified enhancedinstruction of cyberinfrastructure concepts and preparing “technologically agile” [11] students asvital for a modern engineering workforce. Thus, it is important to incorporate computationaltools in the materials science
learning skills in a freshmanengineering course where the students are required to develop and reflect on their learningstrategies.27The response of academia to these accreditation criteria through project based learning was notlimited to to introductory design courses. One can easily find several examples of project basedcourses in statics28, structures29, vehicle engineering30,31, architecture8, computer sciences32, energyconservation33, energy conversion34, and industrial engineering.35In the late 1990, MIT's Department of Aeronautics and Astronautics engaged in a rigorous process todetermine the knowledge, skills and attitudes that graduating engineers should possess. This resultedin a framework known as CDIO, short for Conceive, Design
assist in the research on 3D printing and education in any way that I can.William Easley, University of Maryland, Baltimore County William is a Ph.D. student in the Human-Centered Computing program at the University of Maryland, Baltimore County (UMBC). He earned a B.S. in Information Systems and a M.S. in Human-Centered Computing, both from UMBC. His primary research investigates the impact that Making may have on youth engagement in STEM education and careers.Dr. Foad Hamidi, University of Maryland, Baltimore County Dr. Foad Hamidi is a Postdoctoral Research Associate at the University of Maryland, Baltimore County (UMBC). His research interests include Human-Computer Interaction, Participatory Design and Assistive
additional breakout areas were part of thesymposium and included a section on higher education that showcased 18 higher educationorganizations and several educational initiatives. A second section hosted 20 manufacturingcompany exhibits where students observed a variety of manufacturing products made in CT andalso received numerous free samples. Finally, there was an exterior lobby entry where a numberof engaging demonstrations were held including a moving robot; a submarine from ElectricBoat; guitars from Kamatics and a space launch rocket. Cash donations from industry,government, educational and professional organizations totaled over $175,000. In addition, in-kind donations surpassed $250,000 and included time donated by a rigger company to
] and visual cuing [7], [8], [9], [10] represent effective methods implemented inthe classroom, the most impactful towards strengthening student learning, engagement, andsuccess is classroom environment [5], [14], [15], [16], [17]. Studies reveal that the climate, tone,or ambience that influences the setting minimizes classroom power relations, strengthens student-instructor communication, fosters an active learning environment, and increases studentcollaboration [11], [12], [13], [23], [24], [25], [26]. Pascarella et al. further concluded that thesocial and academic fabric of institutions are necessary for students to experience academicsuccess [18] [21], [22]. For instance, studies suggest that retention rates, opportunities to
would be motivated to engage with these exercises throughout thecourse, we designed them to be easy and enjoyable to use. We also focused on making sure thecontent of these exercises closely matched the required content of the class, so students felt that thatthese exercises are valuable to improving their competency in the class. All three of thesefactors—ease of use, enjoyability of exercises, and a clear connection to increased competency—arecorrelated with improving motivation.5, 6, 26The exercises themselves are designed to increase students’ confidence and ability to design andanalyze algorithms which are the core learning goals of the course. We anticipated that theexercises will increase students ability to better understand the process
learnedengineering design concepts in an after-school studio setting with mentor/facilitators and acollaborative ICT-embedded environment. The driving research questions guiding theinvestigation were: 1. How are students’ perceptions of their abilities shaped by learning engineering design with an information communication technology (ICT) component in an afterschool setting? 2. How are students’ attitudes toward engineering, science, and computer technologies impacted by the intervention? 3. How are the actions of the teachers and other facilitators related to the motivation students have to learn engineering and participate in the design activities?These research questions were well suited to the theoretical framework of social
, Product Design for the Developing World, atCaltech over the last three years. The course gives engineering and design students theopportunity to be creative and to take active leadership roles, exposing them to social, ethical,and political issues that will prepare them to be industrial and community leaders in a worldincreasingly influenced by issues raised by globalization.Similar efforts are taking place at MIT [3-6], while at other institutions, such as Georgia Tech,these efforts take a complementary approach in what we now know as “SustainableEngineering”. Sustainable Engineering emphasis is on conservation and balance of problemsbrought about in a post-industrial society, problems such as pollution, unmanageable urbansprawl, natural
colleges to considerrevisions in their P&T guidelines to provide clear and appropriate value to undergraduateresearch mentors.References1. Boyer Commission on Educating Undergraduates in the Research University, Reinventing Undergraduate Education: A Blueprint for America's Research Universities. 1998, Carnegie Foundation for the Advancement of Teaching: Stony Brook N.Y.2. Kuh, G.D., High-Impact Educational Practices: What They Are, Who Has Access to Them, and Why They Matter. 2008: Association of American Colleges & Universities.3. Laursen, S.L., A.-B. Hunter, E. Seymour, H. Thiry, and G. Melton, Undergraduate Research in the Sciences: Engaging Students in Real Science. 2010, San Francisco: Jossey-Bass
made our designsuccessful, and where it may be brittle when used in new contexts [2]. Finally, we describe howwe will engage attendees in the CoNECD session.ContextWithin our Partnering Across Insider-views of RED (PaiRED) project, we are working todevelop an understanding of how power and privilege play out on leadership teams within NSF-sponsored Revolutionizing Engineering Departments (RED) projects. The RED program aims tosupport departments to make “significant sustainable changes necessary to overcome longstanding issues in their undergraduate programs and educate inclusive communities ofengineering and computer science students prepared to solve 21st-century challenges”(https://www.nsf.gov/pubs/2017/nsf17501/nsf17501.htm).The RED
speakers from distant locations, theproject team will weigh the tradeoffs of holding some or all future seminars fully or partly inperson. For any seminars that include an online component, the project team will strive to makethem more engaging for students. For example, student engagement may benefit fromemphasizing the importance of keeping cameras on during seminars, for those students who areable to do so. Given that some ACCESS students reported that they would find this moreengaging and beneficial to community building (while not wanting to be the only student withtheir camera on), some encouragement may go a long way. Further, students may appreciate thathaving their camera on can allow them to connect to seminar speakers more directly
do the work. Similarly, it was important for their time and talents to beappropriately compensated.Also, I originally thought I would target activities for the largest classes for the maximum impactfor the largest number of students. However, a more effective route was to engage with facultywho were warm to DEI efforts and let them identify where the activities would best fit in theirclasses, and often those classes were ones that had a strong teamwork component alreadyintegrated into their course.Another surprise was just how difficult it was to make long-term change due to the logistics ofuniversity life. Many faculty did not teach the same courses consistently or would find out theirteaching assignments close to the beginning of the
it more difficult to align the diverse and different goals from each stakeholder.In addition, the implementation of sustainability also faces another challenge in which consistencyof communities’ engagement in the context of higher education is in many cases lacking.Although, higher education had multiple difficulties on implementing sustainability, there aremany exemplary curricula for integrating of sustainable development as well as for integratingsimilar concepts, such as sustainable design [3], [4]. However, in terms of K-12 classrooms, thereare no organized efforts or research that explore how sustainability should be taught in K-12classrooms, even though higher education initiatives also advocate for implementing sustainabilityin
strategies such as think-pair-share andproblem-based learning (Prince and Felder – 2006). Although there is still much value for thesein-class strategies, chemical engineering education has yet to take advantage of the skillspossessed by a media savvy generation of students. More specifically, millennials have beenbrought up in a world of SMS messaging, Facebook pages, podcasts, and video blogs, which havetrained them to communicate and manage information from multiple sources and formats (i.e.text, video) both quickly and effectively (Schuck – 2008). How can chemical engineeringeducation best leverage these skills? Electronic or “online” learning is one of the first instances of using digital media foreducation. In this setting, learning
community, STEP seeks to pave the way to achieve a prosperous future for allInland Empire citizens based on the sustainable growth of a high technology industry.Specifically, STEP seeks to: Raise parental, industry, and community awareness of the skillsgap between K-12 students and the labor needs of the high tech sector; stimulate and inspirechildren’s interests in pursuing mathematics, science, engineering and technology educations;motivate parents, teachers, the K-12 educational system, and business leaders to create a set ofplans to address the educational situation to help achieve success; and stimulate the Inland Page 15.1254.5Empire into
backgrounds and experiences, the team members will approach solution generation with a different lens. This leads to a greater diversity and quantity of ideas, which has a positive impact on the overall quality of ideas. Promoting team discussion to build on the ideas of others helps the students reflect on their work and identify the solutions that would work best in the user’s context.Figure 8: Student sketches exploring a problem in the campus community: Student Safety Services offers late-night rides to students, and needs a way to protect their vehicles from so-called "vomit situations." 4. Prototyping & Evaluation The students embark on three rounds of prototyping (sketch prototypes, functional prototypes, and refined
importance that all students receive high quality educationalexperiences in science, technology, engineering, and math (STEM) fields so that they becomedesigners and creators of our technology-rich future instead of being mere consumers oftechnological products.There are numerous on-going educational programs that seek to integrate and infuse varied mannerof technologies in STEM instruction and learning (e.g., computers, internet and mobileapplications, robotics, etc.). Recent research1,2 has shown that robotics can serve as an effectivepedagogical tool in STEM education. Educational robotics kits have been shown to enhancestudent engagement in STEM content.3 Moreover, robotics is known to stimulate excitement andencourage participation of students
, and financial software) that negatively impact and exclude non-dominant identities[2], [4]–[10]. Identity-inclusive computing (IIC) explores how identity impacts and is impacted bycomputing [11]. This growing area of research blends social science with computer science toinfuse topics related to identity (i.e., race, ethnicity, gender, sexuality, ability, and class),discrimination, and intersectionality throughout the discipline, with the goal of creating moreinclusive and equitable academic/professional environments (and ultimately, less biased/harmfultechnologies).To date, most efforts to increase diversity have centered on marginalized students, without fullyacknowledging or addressing the people, practices, and policies that systemically
framing, limitingtheir impact on holistic skill development.To bridge this gap, engineering education must shift from task-oriented training to pedagogies thatprioritize creativity, adaptability, and ethical reasoning. For instance, integrating sustainabilitychallenges into core technical courses could align curricula with Kazakhstan’s green technologygoals and improve innovative thinking.Reconceptualizing engineering education through intervention techniques: The role of acreativity WorkshopTo bridge the gap between technical training and real-world problem-solving, engineeringeducation must adopt structured interventions that push students beyond rigid, discipline-specifictasks. One effective approach is introducing hands-on workshops or
measuring these skillssimultaneously has existed in the literature prior to the Engineering Professional SkillsAssessment (EPSA)5. Table 1.ABET Criterion 3 Professional Skills Student Learning Outcomes 3d Ability to Function on Multidisciplinary Teams 3f Understanding of Professional and Ethical Responsibility 3g Ability to Communicate Effectively 3h Understanding of the Impact of Engineering Solutions in Global, Economic, Environmental, and Cultural/Societal Contexts 3i Recognition of and Ability to Engage in Life-Long Learning 3j Knowledge of Contemporary IssuesThe major accomplishments of the four years of on-going research conducted college wide sincespring 2007 using the EPSA method at the program level for evaluating the efficacy of
students who referred to themselves as "extroverts" and stated that thecourse had little impact on their social interactions. However, there were some notablestatements from students who considered themselves to be "introverts". They admitted that thecourse forced them to become more social. It is interesting that this happened in all three years,including the traditional year. For 2011, it was noted that the social interaction was based uponan interdependence developed through study groups. For 2012 and 2013, while the study groupsdid continue, many of the students noted that they were forced to communicate with otherclassmates more often due to the SBL process. However, the 2013 cohort mentioned that itpreferred "face-to-face" opportunities to
per team works to control a gripper’s end-effector to lift a virtual I-beam from adistance. Each user contributes to the task by employing far manipulation techniques to controltheir own gripper while assisting teammates in operating theirs, fostering collaborative problem-solving and skill development. Throughout task two, detailed step-by-step instructions areprovided via a virtual avatar, voice commands, and visual displays. The avatar, equipped withbody and hand gestures, allows to maintain student engagement by providing a visually andaudibly interactive guide. The use of an interactive avatar helps direct students' attention,ensuring they remain focused on the learning process. Additionally, the instructions are non-skippable, meaning
. Given the relativelysparse literature on the topic, we encourage researchers addressing faculty careers to ask aboutdisability in their work and to analyze disability-related data to increase our understanding of theissues impacting this population. Moreover, we offer departments and institutions strategies thatthey can take related to institutional and departmental policies related to accommodationrequests, hiring practices, faculty evaluation, and other relevant areas; departmental culture;physical environments; collaboration and communication, and information technology. Weconclude with recommendations to researchers and practitioners regarding the development ofpractices that will lead to increased engagement and success of women in faculty
developing nations and resource-poor rural areas. Doingso is a powerful context for teaching and learning, and for motivating and preparing students inWV to pursue STEM educational and career paths that enable them to contribute to their homecommunity.We build on existing approaches to eliminate gaps between classroom mathematics/science andreal world problem solving in engineering [7]. These approaches include developing specialskills of modeling more abstract concepts and utilizing a greater number of hands-on activities inthe classroom [8]. These approaches benefit all students including those in lower achievingbrackets [9]. The benefits of folding authentic contexts into classroom tasks provide anopportunity for greater engagement of students in
specifically for mobility engineers. Since examination is oneof the pillars toward licensure, the gap reflects the lack of a complete roadmap toward theprofessional career of mobility engineers. It implies the effectiveness of education programs andquality of practice in this field could be undermined. For example, decision making generatedfrom engineering judgment may lack the grounds of widely accepted norms. Besides,engineering practice could be less tracked, disciplined, or protected. Eventually, less regulatedpractice could lead to adverse impacts on public safety as well as the health of the engineeringcommunity.One of the most important purposes of professional engineering licensure is to provide assuranceto the public of a minimum level of
learning approach focused onassistive technology as applied in a freshmen level engineering course which also integratesoutreach with the local K12 system. Project-based design projects in freshmen introductoryengineering courses have been shown to improve student engagement, use of divergent thinking,and teamwork skills 1,2 . Assistive technology is a field that provides a rich opportunity forstudents to engage with their peers, their community, and the world at large in a meaningful way 3 .Broadly speaking, assistive technology provides a means of achieving greater independence andstandard of living through the integration of technology with the tasks of everyday life and work.Target populations for the development of assistive technology can
STEM professions. Suggested audience also includesindividuals who are dedicated to understanding and positively impacting marginalized orunderrepresented populations. An understanding of this population will better inform practicesand policies aimed at broadening participation in engineering.FormatThis workshop is designed to be interactive and informative of pressing issues impacting theexperiences of Black women in engineering. The session will begin with a Privilege Activity thatserves as a catalyst for engagement and aims to increase participants’ understanding of privilege.Following the Privilege Activity, the presenters will lead a discussion that focuses on emergingthemes from the Nyela project. Special attention will be dedicated to