implement asset-based approaches such as asset mapping.Keywords: Asset based practices; community cultural wealth; engineering designIntroductionThe design process is the foundation of the engineering profession and a cornerstone ofundergraduate engineering curricula. The design process draws on students’ strengths and skillssuch as communication, tinkering, modeling, and brainstorming, informed by their uniqueexperiences and expertise. However, social dynamics may result in women, gender minorities,and racial and ethnic minorities being relegated to clerical or social roles on teams [1]–[3],preventing full participation and benefit from technical design, experimentation, and fabricationactivities. This may result in less engagement in hands-on
environmentwere evaluated using survey responses. In general the response was positive with students’recognition of the value of in-class demonstrations to help them visualize concepts and withstudents advocating further use of ELVIS in other Engineering courses.Motivation One reason that students have a difficult time understanding the functional aspects ofelectrical circuits is that they are difficult to visualize: you can't see electrons, but you can seewhat they do in real devices. Grasping concepts like electrical circuits or even basic electricity isnot an easy task for many students 1. Engineering students’ difficulties are often compounded bytraditional instructional methods that fail to engage their thinking 2. Instruction that goes beyondthe
project at the end. This paper presents our study with differentlab delivery formats, including preparation, implementation, survey data, observations, andfindings.Course BackgroundIntroduction to Engineering in our institution is a 3 credit course. The course includes one 1-hourlecture, and two 2-hour labs/week. In the lecture, students develop the skills needed during theirstudy of engineering. Topics include task/time management, effective use of notes, engineeringresearch, oral and written communications, problem-solving techniques, ethics and professionalresponsibility and institute resources. In the laboratory, students work in teams to complete avariety of engineering tasks.Each class is set to 85 students maximum. The lecture is held at a
work is carried out in teams: whereresearch, education and communication are carried out in integrated interaction with industry. Page 10.850.1“Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright 2005, American Society for Engineering Education”There will always be an academic debate to whether product development and design should betaught primarily by establishing a foundation of theory, or by engaging students in looselysupervised practice. For a broader activity of product design and development, both approaches arerejected at Aalborg
. Page 24.500.2Introduction and Research QuestionThe preliminary research described in this paper explored the impact a course on engineeringeducation may have on participants and the subsequent impact that participants may have onstudents in the K-12 classroom. Participants in the course explored engineering design,engineering practices, NGSS and the application of these to the K-12 classroom. This paperhighlights preliminary results on teachers and their K-12 students through teacher reflections,student work, and class observations focused on the following questions: What key ideas fromthe engineering education capstone course (engineering design, engineering practices, etc.) areused in a teacher created unit for the K-12 classrooms? What do
concurrent engineering and mechatronic design approach,which emphasizes team collaboration, has become the new industry standard in product designand development. Mechatronic technology has been identified as one of the top 10 highlyinfluential emerging technologies of the 21st century by MIT’s Technology Review and by theInternational Center for Leadership in Education3-4.2. Mechatronics Technology Center: Platform for Inter-Departmental CollaborationThe Mechatronics Technology Center (MTC) provides a unique platform for faculty and studentsto engage in hands-on work. Faculty members and students from different programs (mechanicalengineering technology, electro-mechanical engineering technology, computer engineeringtechnology, and industrial
Envision online scoresheets introduce 64sustainability and resilience credits which the design teams used to assess the sustainability ofthe proposed designs. The emphasis on sustainability by incorporating both the UN SDG’s andEnvision expanded the focus of the design to consider the overall plan, construction,maintenance and life cycle of the projects. The incorporation of both criteria helped to guidestudent decisions, evaluate the environmental impact of the designs and address the benefits theproposed design had on their respective communities. The exposure to both the UNSDGs andthe Envision Rating System was supported by the professional mentors. One company evenprovided funding to support students to complete the Envision training and
) convenes annually and has done so for the past 25years. The IAC comprises representatives from industry, government agencies, academia, andother segments, offering advice on current industry trends and the latest state-of-art technologies.These close partnerships with industrial companies enable our students to explore careers andinternship opportunities with leading engineering enterprises. Several IAC members are formergraduates actively engaged in addressing the professional needs of the department.Through collaboration with the IAC and former students now employed in the service industry,we have identified a gap in our workforce education and a demand for skilled PLC and Roboticstechnicians. The city stands as a prominent job hub for banking
clarification. There are several ways to accomplish this. A student who has correctly answered or described the topic in previous classes as a homework item can perform the review. A teaching assistant can perform the review and it has been found to be beneficial to record these or at least have the teaching assistant provide a set of ‘narrated PowerPoint Slides’ so that the slides can be collected in a data bank and used for future classes. Students engage and are very responsive to hearing these reviews from other students. 2) Videos: At first, a couple of videos were used from ‘Muddiest Points’ collection on ‘YouTube’, but it was found that the explanations lose impact if they are too long. For best results, if
integrating engineering on middle school students’ interest and engagement in STEM. She has also received funding to conduct teacher professional development in the areas of engineering education, problem based learning and inquiry instruction.Ms. Esther R. Wain-Weiss, Universtiy of Akron c American Society for Engineering Education, 2018 A Doctoral Teaching Program in Engineering at The University of AkronI. IntroductionAs the decades progress, new faculty hires at engineering colleges across the US are being askedto reach different and, often, higher bars on their way to tenure. While this information isanecdotal, it is based on the authors’ own experience, as well as in speaking to many others
educating low-incomestudents (e.g., one of the two transferred to a top 30 university). The other two students left Fall2020 due to health and personal reasons. The departure of these students is a new occurrence forthe PATHS program that we attribute to the COVID-19 health crisis. Recruitment of PATHSscholar applicants has increased each year since 2018. There were 53 PATHS scholarshipapplicants in 2019, 169 in 2020, and 227 in 2021. PATHS provides financial support foracademically talented students who face financial and socialization struggles common tolow-income and first generation college students 4,5 . PATHS results verify the importance ofcreating a pathway of personal connection and community from high school to career forlow-income
with Entrepreneurial Mindset (ICE) workshop, and focuses on fusing Curiosity,Connections, and Creating Value (the 3C’s) throughout the Flow of Air in Ducts learningmodule, including an HVAC design project.New lectures and assignments covering topics related to HVAC industry were added to thelearning module curriculum. An existing HVAC design project was revised and updated toincorporate Entrepreneurial Mindset Learning (EML) outcomes. The project required students tocomplement in-class learning with i) content knowledge learned from previous courses; ii)independent research using credible sources; and iii) a proposed HVAC design. New projectdeliverables were related to project economics and the environmental and societal impacts of theproposed
5990 Capstone Thesis and ProjectElective Courses – (Two are selected by each cohort) EMGT 5460 Product and Process Improvement: Lean Six Sigma I ENGR 5790 Mechatronics: Modeling and Simulation EMGT 5040 Administration of Technical Businesses MPD 5750 Design for XThe thirty-three hours of coursework and a three-credit thesis are complemented by a two-week,full-time “January Experience” that jumpstarts the program and give the students a chance toform bonds while working on a challenging design project. This cohort kickoff is one of themost memorable experiences in the program and consistently receives positive feedback fromstudents.2As the program has matured, it has
,graduate and undergraduate students enrolled in STEM programs at two historically blackinstitutions were recruited to participate in a virtual peer mentorship program to broadenparticipation in science, technology, engineering and mathematics (STEM).A total of 34 students participated in the program during the 2020/2021 academic year (n = 8mentors, n = 26 mentees) and were assigned a role of mentor or mentee based on theirqualifications for the program. Additionally, all participants completed targeted online peermentor or mentee training (based on their assigned roles), engaged in a mentoring relationship,and were provided the opportunity to attend STEM webinars featuring UMWs with careers inSTEM. Of the 34 program participants, twenty-two
distinguish them from those who simplymake a wage in a certain occupation. For Samuel Florman, service is “the main existentialpleasure of engineering . . . to contribute to the well-being of his fellow man.”13Professionals may provide pro bono work for the indigent or be active in local governmentalboards, such as traffic commissions or city planning committees. Engineers without Borders, inparticular, is laudable as an activity that has a significant, positive impact on project recipients;our campus chapter, for example, has gone to Tanzania for the past three summers to dig wellsand provide the infrastructure in a remote community that currently does not have access to cleanwater. From these experiences, students learn important lessons about
2009 IEEE Region 3 Hardwarecompetition. Only four of twelve applicants for this project were accepted, with the membersrepresenting Electrical, Mechanical and Computer Engineering and Electrical Engineeringtechnology. This team carried the work according to schedule, maintained engagement withfaculty mentor, and finished high at the IEEE Hardware competition and won a localcompetition.Appendix D list the SOW used by students to compete in the 2008 IEEE Region 3 Hardwarecompetition "RFID on the moon” and Appendix E list the SOW used by students to compete inthe 2007 IEEE Region 3 Hardware competition.Team Deliverables during the first semesterAll teams participating in COE senior design program are expected to produce industry-standard
intervene when inappropriatebehavior occurs. The report also recommends engaging the entire community (students, faculty,and staff) in their diversity and inclusion efforts [1]. Following these recommendations andimplementing other best practices through the use of qualified, in-person trainers and activeinstruction [28], here we develop and implement custom trainings, covering aspects andbehaviors that contribute to an inclusive culture.Methods:Determination of Department ClimateTo gauge and improve the climate in the department, the student-run graduate student advisoryboard (GSAB) writes and administers annual “Quality of Life” surveys. To ensure anonymity,students do not identify the lab group to which they belong, precluding correlations
engage with their ideas, making the design process both tangibleand impactful.7. Conclusions and Future WorkThe “Will It Float?” project demonstrates the educational value of integrating hands-on designchallenges into first-year engineering curricula. Through iterative cycles of design, testing, andrefinement, students developed a deeper understanding of buoyancy principles and theengineering design process. The project fostered critical thinking, teamwork, and adaptability,equipping students with essential skills for professional practice. By leveraging 3D printing,students gained practical experience in prototyping and manufacturing, reinforcing their abilityto translate theoretical knowledge into tangible solutions.The study also highlights
able to present literature that documentsstudents’ initial resistance to active learning,17,18 as well as my own SOTL on the positive impactof flipping on student outcomes.10 After my presentation and a visit to my classroom to see howstudents were grappling with the subject matter in real time, the board members enthusiasticallygave me their full support in continuing my flipping.Anna – I'll echo Julie's recommendation to connect with professional and institutional groups.Finding a network of colleagues and, if possible, a community of practice in which fellowfaculty meet and discuss how they are engaging in flipping, is not only individually beneficial,but there is also evidence that it might contribute to departmental and institutional
courses to provide students with extrinsicmotivation to learn the material and not resort on short cuts that often fall into the category ofacademic misconduct.Previous studies have designed and implemented oral exam assessments in introductorycomputer science courses. In one study, students rated the difficulty of oral exams equivalent totheir traditional written exams [6]. In another study, the oral assessment was designed to mitigateacademic misconduct, advance student communication skills, and alleviate negative emotionsassociated with traditional exams [7]. Another study concentrated on theoretical computerscience courses and found oral exams more effective than written exams as an evaluation method[8].Additionally, the coding interviews
topics: active learning in engineering education,PI in Engineering; and POGIL in Engineering. As such, prior literature pertaining to both topicsin the context of teaching engineering disciplines, with an international focus, is explored in thissection.Active Learning in Engineering EducationUsing classroom observations, faculty interviews, student surveys, and focus groups, Shekharand Borrego [5] examined an engineering instructor's postworkshop implementation of activelearning in an electrical engineering course. The findings demonstrate the influence of facultyconceptions of teaching in the selection and design of activities and the subsequent impact ofthese design choices on student engagement. The authors report the instructor's and
a community of practice (CoP) centered around their maintenance andimprovement [11]. This group has worked for the past 10+ years to reform these courses, andwanted to understand how the impact of these changes on students’ entrepreneurial mindsetbefore making a concerted effort to intentionally incorporate the 3Cs. Targeting courses takenearly in students’ college careers means they have taken little to no project-based courses, wherethe 3Cs are more apparent. Student answers are less likely to be subconsciously swayed by thesecourses designed to have students work through a real-world application using content they havelearned in other courses. The majority of their learning experiences thus far have been traditionallecture and lab
communication skills, emphasis on team teamwork, and pragmatic interest and strongwork ethic all help make veterans assets to the engineering profession [10].What student veterans bring into the engineering classroom and engineering field is not limitedto their professional dispositions and skills at just an individual level, which impacts only theiracademic resilience and professional success. Veterans also bring unique experiences from themilitary with them into the engineering classroom and industry. Based on their prior militaryexperiences student veterans naturally have deep knowledge of real-life issues and pragmaticinsights to understand the impact of engineering decisions in a global, economic, environmental,and societal context [10].Student
many engineering programs, just as in many plant process systems,the path from input (high school) to the output (qualified graduate) is quite separate for thedifferent streams (i.e. mechanical engineering stream, versus the electrical engineering, versusbiological engineering).In this conceptual model of the education of young engineers, the decision of which processstream the students enter would, in their minds, have a huge impact on their careers. Studentsspend a great deal of time and suffer sleepless nights deciding which stream to enter, notknowing at the start what they will end up looking like at the end, nor what sort of careeropportunities they will have when they graduate. Unfortunately, a student has very little
functional groups: laboratory sectionswhere a prototype exemplar was present and laboratory sections where no example was provided.Assessment of the prototype exemplar impact was accomplished through a two-pronged approach.First, through photographs and performance data taken at multiple stages in the design experienceand analyzed by the faculty, and second, through a twelve-statement survey given to all students. Inaddition to assigning numerical values (on a scale from 1 to 6) for their responses to the surveystatements, students were asked to respond with short, written statements.This study is in its second year. Survey results from the first year indicated similar backgroundsbetween control and exemplar groups as well as similar internal team
thatinformed this study were: 1) What are the elements applied in a culturally responsive trainingmodel within a summer intervention program? 2) How does the implementation of a culturallyresponsive training model prepare program mentors to engage with culturally diverse students inintervention programs? 3) What lessons learned can be translated to similar interventionprograms? Relevant LiteratureSTEM Intervention ProgramsSTEM intervention programs (SIPs) integrate student culture and curriculum by designinginterventions that focus on aiding the non-dominant cultural groups in “catching up” [11]. SIPsare structured in many ways, they vary in their purpose, curriculum focus, and academic level;regardless, SIPs work
Paper ID #24669Effective Faculty Development – More than Time in the SeatDr. Louis J Everett P.E., University of Texas, El Paso Dr. Everett is the MacGuire Distinguished Professor of Mechanical Engineering at the University of Texas El Paso. Dr. Everett’s current research is in the areas of Mechatronics, Freshman Programs and Student Engagement. Having multiple years of experience in several National Laboratories and Industries large and small, his teaching brings real world experiences to students. As a former NSF Program Director he works regularly helping faculty develop strong education proposals
), The Impact of the Physics, Statics, and Mechanics Sequence on Student Retention and Performance in Mechanical Engineering, Paper presented at 2018 ASEE Annual Conference & Exposition , Salt Lake City, Utah.[6]. Holdhusen, M. H. (2015, June), A “Flipped” Statics Classroom, Paper presented at 2015 ASEE Annual Conference & Exposition, Seattle, Washington.[7]. Le, X., & Roberts, R. L., & Moazed, A. R., & Duva, A. W. (2012, June), Applications of SolidWorks in Teaching Courses of Statics and Strength of Materials, Paper presented at 2012 ASEE Annual Conference & Exposition, San Antonio, Texas.[8]. Powell, O., & Richards, M., & Jensen, D. D., & Brown, N. M. (2014, June), Increasing Conceptual
fruitful collaborative relationship. At the request of theCollege of Engineering, the Department of Mathematics has begun a reconstruction of theCalculus sequence generally with particular emphasis on the development of calculus sectionsfocused on students pursuing degrees in Engineering. There is much more to be done, but to thispoint Mathematics has set aside special sections for engineering students in which there havebeen some curricular changes (e.g., increasing the focus on applications), re-sequencing of sometopics and the engagement of instructors with an understanding of the engineering perspective. To further improve students’ readiness for more advanced engineering classes, we haveincorporated application of math in engineering
engineering principles and design into existing science classes that can becontinued year after year and last through and beyond the training period 6. Some of the keyfactors identified for effective professional development include: engaging teachers in practicingconcrete tasks related to teaching, assessment, and observation of learning; drawing uponteachers' questions, inquiry, and experiences; including time for collaboration, sharing andexchange of ideas and practices; building on teachers' current work with students; and providingmodeling, coaching, and problem-solving around specific areas of practice.The planning of professional development programs that effectively lead to desired teachingpractices is not a simple process. Too often, short