programs in the US include a capstonesenior design experience, the level of training that the students receive in the product design anddevelopment process can vary considerably between programs. In some cases, students learn theproduct design process in parallel with their capstone senior design project. In others, there areone or more previous courses that focus on teaching different phases of the product design anddevelopment process. Also, there are other factors that impact student learning such as variationsin the design process favored by each faculty member supervising a capstone senior designproject, the specific design process presented and the terminology used in different productdesign textbooks, and the product design textbook
Paper ID #32395Lessons Learned Developing and Running a Virtual, Faculty-Led,International Program on Sustainable Energy in BrazilDr. Courtney Pfluger, Northeastern University Dr. Courtney Pfluger an Associate Teaching Professor at Northeastern University in the College of Engi- neering. In 2011, she joined Northeastern as a teaching professor in the First Year Engineering program. As part of the First Year Engineering faculty she focusing on curriculum innovations and implementing educational lessons and engineering design projects on sustainability. In 2017, she moved full time into the Chemical Engineering department
mathematical and statistical models in various domains, including educational settings.Ms. Ying Ying Seah, Purdue University at West Lafayette Ying Ying Seah is a Ph.D. candidate in Technology in the Department of Computer Information Tech- nology at Purdue University. Her research interest mainly focuses on developing and validating novel curricular approaches and technology-enhanced learning environments in STEM education, integrating scientific and engineering thinking in the relevant disciplines. Specifically, her current project focuses on designing, implementing, and validating a Learning by Design curricular approach in science class- rooms across education levels. Combined with a CAD design task, as well as
expanded their offerings to international graduate stu-dents beyond residential studies. Advances in teaching and learning technology have played a keyrole in enabling remote instruction to these students. In particular, synchronous instruction andengagement with peers within a cohort have been shown to improve the educational experienceand lead to high persistence rates.It has previously been reported that instructional technology can be used to teach a full master’sdegree program in electrical and computer engineering to international graduate students in a syn-chronous fashion. To increase engagement, students study in the program as cohorts and collab-orate in the classroom and in completing a significant engineering project. This technology
with solving a relevant industry problem identified by a sponsoringcompany. A member of the Industrial Engineering faculty is assigned to each team and serves asa mentor. Faculty mentors are matched to projects that align with their respective areas ofexpertise. Approximately 40-students are enrolled in the course each semester.The course instructor introduces students to their respective team assignments during the initialclass meeting and provides an overview of the course organization, expectations, and lessonslearned from previous semesters. After the initial class meeting, students are responsible for theproject's overall management, including coordinating with the sponsor's point of contact andtheir assigned mentor, determining roles and
ofenrollment and graduation, U.S. institutions will fall short of producing the needed HPCprofessionals [6]. Worse yet, groups largely untapped by this field, women and minorities,make up a significant portion of the nation’s growing talent pool [7], but are extremelyunderrepresented in HPC related disciplines.A Research Experiences for Undergraduates (REU) Site is an important mechanism to combatthe shortage of HPC professionals. The REU program by the U.S. National ScienceFoundation (NSF) supports active research participation by undergraduate students in any ofthe areas of research funded by the NSF. REU projects involve students in meaningful ways inongoing research programs or in research projects specifically designed for the REU program.As one
the course as a one-credit seminar two times during 2016 to ~40 students from diverse academicdisciplines, personal interests and backgrounds, including many with no prior background with computerprogramming or electronics. We used the Arduino computing platform [7] combined with programmablelight-emitting-diode (LED) lighting technology and encouraged students to design and build projects thatexpressed some aspect of identity. An example project, shown in Fig. 1, is a wearable light-up pin that showsthe colors of the pride flag (ROYGBV) or the pansexual flag (pink, yellow, blue); the process of creating this pin provided opportunities to focus discussion on identity and
brought in specifically to focus on IPRO courses, and has led over 50 IPRO project teams in the past four years. He has an undergraduate degree in liberal arts and mechnical engineering, and graduate degrees in Business and Industrial Engineering. For over 20 years he led consulting businesses specializing in financial and information process design and improvement, professional training/education for industry, market research and professional publications. He has been instrumental in implementing many of the assessment processes and interventions now used by the IPRO program. He also supervises the student employees providing operational and systems support for the IPRO program.Margaret
Introduction to Engineering – Project-Based is taken by all incoming engineeringfreshmen first semester at the University of New Haven as part of the Multi-DisciplinaryEngineering Foundation Spiral curriculum. Throughout the course, students are introduced tobasic engineering concepts through a series of hands-on projects. Student understanding isenhanced as these topics are revisited in subsequent courses taken during the second semesterfreshman year and through the sophomore year. This approach requires significant collaborationbetween faculty involved in the spiral curriculum courses in order to achieve the program’sintended results, namely, academic consistency across sections, and the need to adequatelyprepare students for the next tier of
. Page 11.1361.1© American Society for Engineering Education, 2006 Undergraduate Research on Appropriate and Sustainable TechnologyAbstractThis paper describes the funding sources, educational outcomes, and diversity of students servedby conducting research on appropriate and sustainable technology. Since 2001, more thantwelve undergraduate students have conducted research on the water treatment effectiveness ofthe Filtrón, including eight students independently and four students as a class team project. TheFiltrón is a point-of-use drinking water filter that can be produced inexpensively in communitiesworld-wide. Some of the student researchers were participants in the EnvironmentalEngineering
and embedded systems design courses, and studies the use of context in both K-12 and undergraduate engineering design education. He received his Ph.D. in Engineering Education (2010) and M.S./B.S. in Electrical and Com- puter Engineering from Purdue University. Dr. Jordan is PI on several NSF-funded projects related to design, including an NSF Early CAREER Award entitled ”CAREER: Engineering Design Across Navajo Culture, Community, and Society” and ”Might Young Makers be the Engineers of the Future?,” and is a Co-PI on the NSF Revolutionizing Engineering Departments grant ”Additive Innovation: An Educational Ecosystem of Making and Risk Taking.” He was named one of ASEE PRISM’s ”20 Faculty Under 40” in 2014
. Serving as a model for waterquality and quantity management, students engaged in hands-on experiences using a small-scalewetlands setup in the Cook Laboratory for Bioscience Research at Rose-Hulman Institute ofTechnology. In independent research projects, undergraduate research students measured waterquality parameters including TSS, BOD and nutrients (nitrogen and phosphorus) and optimizedremoval of various contaminants. In the classroom in Environmental Engineering Laboratory,students measured water quality parameters of various water bodies within a watershed andresearched the impacts of excess nutrients on water quality and economies. Students toured theconstructed treatment wetlands and were able to learn directly from a peer who had
Paper ID #30577Art in Space: Using Art to interest K-12 students in aerospace design[STUDENT PAPER]Maria Baklund, University of St. Thomas Undergraduate Research Assistant for the Playful Learning Lab at St. Thomas under the direction of Dr. Annmarie Thomas. Served as the Art in Space contest project lead. Third-year Mechanical Engi- neering major with a Peace Engineering minor. Has led many STEM activities and is interested in using engineering to encourage peoples’ interests and collaborate with developing countries.Miss MiKyla Jean Harjamaki, Playful Learning Lab I am an undergraduate student studying mechanical
investigating the microbial community ecology in biofilters used for air pollution control. He obtained his undergraduate degree in Engineering Science from the University of Oxford. c American Society for Engineering Education, 2018 Building Engineering Professional and Teamwork Skills: a Workshop on Giving and Receiving FeedbackIntroductionThis paper describes the fourth out of a series of six workshops on teamwork targeted atundergraduate engineering students. The series has been designed to provide teamwork theoryand skills in the context of an existing team project within a course, allowing the new knowledgeand skills to be applied authentically and at the time of learning. The
engineering students participating in virtual team projects was used in theanalysis. Results from the analysis are presented suggesting a statistically significant impact ofthe intervention on self-management skills when comparing randomly assigned teams with andwithout the intervention. The intervention is designed to be scalable so that it can be embeddedinto existing project-based courses. Our findings have important implications for thedevelopment of teamwork skills in engineering courses and provide evidence of a successfulstrategy that can be integrated into the existing engineering curriculum.KeywordsVirtual teams, team effectiveness, information and communication technologies, engineeringeducation, collaborative learningIntroductionThe
and Technical College with responsibility for guiding the College’s strategic planning process and developing and administering grant projects. Over the past five years, Dr. Reutter has secured more than $20 million in grant funds for the college. Previously, he served as Dean of Instruction for two Alabama community colleges and also taught computer science classes for over 28 years at various colleges and universities in California and Alabama. He is a Senior Fellow of the IEEE Society and the founder of two Silicon Valley software companies. Dr. Reutter began employment at Drake State in 2006 as Dean of Instruction and assisted the President in spearheading the campus efforts to achieve regional accreditation
Harriger has been a Co-PI on two NSF funded grants focused on aerospace manufacturing education and is currently a Co-PI on the NSF funded TECHFIT project, a middle school afterschool pro- gram that teaches students how to use programmable controllers and other technologies to design exercise games. Additionally, he co-organizes multiple regional automation competitions for an international con- trols company. c American Society for Engineering Education, 2016 Leveraging Industry Partnerships to Create New Educational Focused Laboratory FacilitiesAbstractThis paper details an innovative partnership between academia and multiple manufacturers,distributors, and vendors
. c American Society for Engineering Education, 2017A Tiered Mentoring Model for Deepening Student Learning AcrossUndergraduate and Graduate Design CoursesAbstractThe authors are experimenting with implementation of a tiered mentoring model acrossundergraduate and graduate-level concurrently-taught design courses.The undergraduate course is a senior-level design course in which students learn the fundamentalsof designing steel structures. It is structured around an authentic semester-long team-based designproject in which student design teams develop the structural plans for a real building based on anarchitectural concept. A series of intermediate project deliverables are sequenced throughout thesemester to ensure that the undergraduate
components are not necessarilyunique to service-learning, but taken as a whole, they are what makes service-learning.1. Service – A service is provided to an underserved area or people. In engineering, it may involve direct contact with people through educational programs for children or the elderly or project work, such as a solar power system for a remote village in the Andes Mountains or research and data analysis such as environmental data.2. Academic content – Service-learning is a means to learn engineering principles and content more effectively. In service-learning, the service is directly linked to course studies to help Page
Scholar. Page 23.616.1 c American Society for Engineering Education, 2013 Freehand Sketching for Engineers: A Pilot StudyAbstractThis paper describes a pilot study to evaluate Freehand Sketching for Engineers, a one credit,five week course taught to undergraduate engineering students. The short-term goal of thiscourse was to improve engineering students’ freehand sketching ability and to assess theirprogress with metrics. The long-term objective (desired learning outcome) of this course is toimprove the creativity and innovation of student design projects by enhancing students’ ability
systems education integration project” started in the Fall 2013 semester with theoffering of the graduate “Software Requirements Engineering” and “System RequirementsAnalysis and Modeling” courses in one combined section. The first course is required for themaster’s program in Software Engineering, while the second one is an elective course for thestudents enrolled in any other graduate engineering programs. The encouraging coursediscussions and student feedback received during Fall 2013 halfway into the semesterstrengthened the faculty belief in the software and systems integration effort and prompted theimplementation of the other proposed combined sections. Therefore, the Spring 2014 semesterwas scheduled to feature two new combined sections
, because the graphical nature of theprogram will help to make the structures easier to comprehend. The potential to enhance first-year student learning motivated a pilot approach at a large university’s introductory engineeringclass to use graphical programming as the dominant computer tool within the class. Design wastaught through the use of a graphical programming language that culminated in a service-learning project in which students developed computer programs designed to excite middleschool students about math and science. This paper will discuss the curricular structure, theimplementation of the graphical programming language, examples from the class and initialassessments from the experience.IntroductionComputers are an integral part of
mediated discussions of historical and emerging water engineeringissues and projects in the western United States. Within the context of the case studies, studentswere exposed to philosophical and legal concepts, hydrologic principles, water resourcesengineering design and management techniques, water management modeling and analysis tools,social and behavioral science theories, water law, and more. One unique aspect of the course wasthe use of position papers with random assignment of position that forced students to analyze andargue points from perspectives outside of their discipline and sometimes against their personalbeliefs. The outcomes of the course were assessed through a written survey, informal studentdiscussions, and end-of-course
design and development projects.The majority of these projects are funded by local industry, faculty research grants or departmentalbudgets. Clearly, projects such as these are central to developing the design, problem solving andproject management skills that are lacking in the traditional engineering coursework. Often miss-ing, however, in the industry and faculty sponsored design projects, is the spirit of invention, inno-vation and entrepreneurship. One way to promote the entrepreneurial spirit is to provide studentswith the opportunity to propose their own original enterprises. Accordingly, funding from the Na-tional Collegiate Inventors and Innovators Alliance (NCIIA) has created a Venture Capital Fund,specifically ear-marked for the
Manufacturing (CIM) class that is designed to teach students how tointegrate industrial robots into a production system; (3) for advanced level programming classesor other specific topics such as robotic simulation, and OLP, where robotic projects can be usedto facilitate real world experience for the students and motivate their interests in the varioustopics. Offline programming is the technique of generating a robot program with using a realrobot machine. This OLP method presents many advantages over the on-line method (Physicallyuse a robot teach pendent to generate a robot program): (1) robot programs are generated withoutinterruptions of robot operation, (2) removal of the students from the potentially dangerousenvironment, (3) there is a greater
competency represent asignificant step to achieving global economic competitiveness.This can only serve to complement local industry needs and TAC/ABET accreditation criteria. Page 3.233.2 -2-The EIA Skill Standards versus the AEA Skill StandardsThe AEA project resulted in a publication entitled Setting the Standard – A Handbook on Skill Standardsfor the High-Tech Industry [Ref. 3]. The EIA project produced a publication entitled Raising the Standard– Electronics Technician Skills for Today and Tomorrow [Ref 4]. These two publications provideconsiderable insight into the role and the expectations placed on electronics technicians. Copies of theAEA publication are available to public
labs, courses and projects throughout theengineering curriculum. In reality, there is a competition between theoretical content andpractical application that often compresses the design component of a course or lab into a verysmall portion of the work.Students are hungry for the practical experience and applications of the theoretical conceptspresented in class. In the days of discrete electronic components and repairable appliances manystudents came to engineering school with a strong background in practical problem solving,repair, and often design. Today, consumer appliances tend to be modular, integrated, anddisposable. Students rarely have experience building a simple electronic or mechanical device athome, and so they lack the framework
multiple research projects that involve transdisciplinary collaborations in the field of engineering, medicine, and technology, as well as research on teacher preparation and the conducting of evidence-based practices in multiple contexts. Jennifer’s publications appear in the Journal of Autism and Developmental Disorders, Review Journal of Autism and Developmental Disorders, Focus on Autism and Other Developmental Disabilities, and Journal of Science Education for Students with Disabilities. Before joining the CTE, Jennifer was an Assistant Professor in the Department of Special Education at Towson University. Prior to joining higher education, she was a special education teacher at the Kennedy Krieger School
technologies, processes, and policies in organizations.Katherine Scharfenberg, Northwestern UniversityDr. Jill Hardin Wilson, Northwestern University ©American Society for Engineering Education, 2024 Work in Progress (WIP): Rewriting capstone - The unexpected solution to our assessment problemAbstractIndustrial engineering capstone courses provide students the opportunity to apply the technicaltools they learn in their major classes to a real-world project. To effectively demonstrateunderstanding of learning objectives, students must communicate clearly to a wide range ofaudiences, including instructors, other team members, and the project client. Full assessment oflearning objectives may
) related collegedegree programs have experienced lower U.S. student enrollment1 and unwillingness of K-12students for science and mathematics courses2. The enrollment in undergraduate engineering andengineering technology disciplines was down by 16% during the 1986-2006 period3 and thenumber of awarded bachelor’s degrees in engineering fields fluctuated between 60,000-80,000during the comparable period4 in spite of more than 10% projected job growth in engineeringdisciplines in the near future5. Due to their tendency to pursue social sciences and to attendprograms at two-year institutions, underrepresented groups such as Hispanics, women orAfrican-Americans have generated even a larger deficit in enrolling STEM disciplines6. Thecurrent trend in