instructors plan to attempt to augment the participation from the disciplines outside ECE by incorporating short modules in core classes of the subject areas of human factors, cybersecurity, and other relevant disciplines to introduce the concept or ResCS and encourage participation in the ResCS course. To provide more in depth exploration and completeness of projects the ResCS course will have an optional second semester structured as an undergraduate capstone or graduate thesis support to encourage completion of concepts into implemented designs. The team seeks to disseminate the successes of the course and the Grid Game to other universities and continue to encourage related disciplines at universities to participate in this interdisciplinary
with them; often,these collaborations are each run separately and therefore can be considered to be separatecollaborative efforts. Such collaborations often focus on providing projects for students, for theircapstone design course or a similar class. One example of this is Olin College. Another model iswhen a university has a strong experiential learning program that features co-op or internshipexperiences, such as the co-op program at Kettering University, Drexel University, or theUniversity of Cincinnati. Collaborations may also focus on the professional development offaculty members, as at Rose-Hulman Institute of Technology.Olin College (www.olin.edu)As in all engineering programs, Olin College students perform a capstone project. In the
research project investigating the development and measurement of general learning outcomes. Natalie comes from an Australian Senior-Secondary/ Post-Secondary teaching background, with experience at the State-wide level in curriculum development, large-scale assessment, and evaluation and assessment of outcomes based education.Dr. James A. Kaupp, Queen’s University Assessment and Quality Assurance Coordinator (Msc ’06, PhD ’12) at Queen’s University, Kingston, On- tario, Canada in the Faculty of Engineering and Applied Science. Educational research interests include engineering education development, cultural change in higher education, higher-order thinking develop- ment and assessment, outcomes-based data-informed
schedule.Choosing appropriate activities tied into themes allowed for consistent reinforcement of not onlythe engineering design process, but also explicit instruction of science concepts. Following asuccessful Capstone Project model, the students concluded the camp by completing theengineering design process to solve a problem that they defined as socially relevant. Figure 1provides a brief description of the activities completed in camp.Pictures of campers doing sample activities:Figure 1: Camp Schedule and Activities Day Theme Activity Description Move into Dorms, Students move into dorm rooms, work with Orientation and
. As a result, it is hoped that the students will determine an effective collaborative learningapproach that informs each others’ areas of interest regarding international developmentsustainability, while building a knowledge base for better understanding the interrelationshipsamong these disciplines to evaluate long-term interactions between an engineered infrastructureand a recipient community.We emphasize that this course is not design-based, such as an Engineering Capstone project, nordoes it teach technical design. Instead, it focuses engineering minds on the non-engineeringinfluences that must be considered to produce a successful, sustainable engineering design for arecipient outside the designers’ own sociocultural experience.Course
-scale interventions and chose to approach changes cautiously byconducting a small pilot study involving the courses in the professional “core.”Three course were selected (CVEEN 1000, 3100, and 4910) as appropriate candidates. Thesecourses represent students from across the program and constitute the core of the department’sprofessional skills-related offerings. Practical issues caused the co-authors to implement theinfrastructure theme in only two courses: CVEEN 1000 and 3100. The capstone course (CVEEN4910) was already overloaded with a focus on development and execution of design projects; aswell, many aspects of an infrastructure perspective were already embedded in the course from theoutset of this study.4 Rubric DevelopmentThe initial
Paper ID #17396Approaches to Entrepreneurship and Leadership Development at an Engi-neering UniversityMrs. Galina Burylina, Kazan National Research Technological UniversityDr. Phillip Albert Sanger, Purdue University - West Lafayette Dr. Sanger is a professor in the School of Engineering Technology in the College of Technology of Purdue University. His focus and passion is real world, industry based, senior capstone experiences both domes- tically and internationally. He has successfully developed this area at Purdue and at Western Carolina University. Prior to his career in academia, Dr. Sanger had a successful 30 year
, families, and students from underrepresented communities. c American Society for Engineering Education, 2016 Early Internships for Engineering Technology Student Retention: A Pilot StudyAbstractResearch in engineering technology major retention suggests that early internships present anoutstanding opportunity for freshman and sophomore students to engage, socialize, and learn incommunities of practice and to “discover” the link between theory and practice early in theiracademic tenure, leading to a consequent improvement in retention rates. At Texas StateUniversity, the traditional senior-level capstone internship program was reengineered andconverted into a sophomore level
course.IntroductionEngineering design projects that focus on real world problems can help prepare students for thechallenges that they will face later in research settings and industry. In some architectural and/orcivil engineering curricula, students are exposed to design in first-year and/or senior capstonecourses. In an existing academic curriculum that lacks first-year and/or senior capstone coursesit may not be feasible to add new courses that are entirely focused on design. As an alternative tostandalone design courses, design components can be integrated into other courses that arealready part of the curriculum. Bucciarelli1, in a review of a workshop held by the EngineeringCoalition of Schools for Excellence in Education and Leadership (ECSEL), describes a set
Paper ID #15347Work in Progress: Enhancing the Undergraduate Research Experience throughPartnership with a Non-profit OrganizationMs. Margo Cousins, University of Texas, Austin Ms. Cousins oversees undergraduate and graduate academic advising at the Department Biomedical Engi- neering at The University of Texas at Austin. She directs the office in strategic academic and professional development advising, capstone projects program, industry partnerships, first-year interest groups, and other special programs.Lynda K. Gonzales, University of Texas, AustinDr. Erin Dolan, University of Texas, AustinKathryn E. Flowers, Texas 4000
“computer intensive (CI)”. In the ENV programcurriculum, the two senior capstone project courses satisfy the WI and OPO requirements;Hydrology and Air Quality are the two courses that are designated as CI and satisfy thegraduation requirements.Engineering topics that are part of the curriculum are appropriate to the discipline ofenvironmental engineering in many ways. Courses like CADD Laboratory, Engineering ProjectAnalysis, and Professionalism & Ethics, Statics, Strength of Materials, EngineeringThermodynamics and Fluid Mechanics support material and concepts in courses such asEnvironmental Engineering Hydraulics, Water Quality, Water and Wastewater Treatment, AirQuality, and Air Pollution Control. Moreover, topics covered in the above
. The Wickenden Report5(1930) recommended design projects for sophomores and juniors, and the Grinter Report6 (1955)recommended engineering programs contain both technical (including design) and social(general education, social sciences) goals. Credit hour caps reduced or eliminated courses suchas shop, design and manufacturing technology by the 1960’s. Reconsideration of these changesbegan in earnest by the late 1980’s. For example, a 1997 National Science Foundation reportSystemic Engineering Educational Reform- An Action Agenda7 listed teamwork, project-basedlearning and industry interactions as important areas of emphasis. In addition to the creation ofsenior year capstone design classes, existing freshman introductory classes were modified
Coppens’s experience in transforming the capstone Chemical ProcessDesign course at his former US university, and a project-based course on fractals in chemicalengineering taught in the USA and the Netherlands. Working together, this new elective courseprovided students with an introduction to the emerging research area of Nature InspiredChemical Engineering, leveraged new technologies to help improve the learning process, andprepared them for applications in the future workplace.Centre for Nature-Inspired EngineeringThe overarching vision of the Centre for Nature-Inspired Engineering is to use nature as aguiding platform to seek potentially transformative solutions to engineering grand challenges,such as sustainable energy, clean water, and
having computing professionalsperform the development or using service learning as part of a capstone design course tocomplete the project.12-13 Having a real-world end user in the form of elementary school childrenchanged the perspectives of the programmers; for example, these are some of the remarks madein the post-activity survey: “This program was geared towards kids from fourth to sixth grade so we had to keep that in mind. It wasn't just a game that we were trying to do, the overall outcome of the application was for the kids to learn from it.” “[The program was] a real program to be used by real people, and not being shoved into some archive where it will never see the light of day.” “We had to think differently
first program was an optional senior capstone project taking place with a community inCentral or South America, including two weeks of field work abroad. The second program was agraduate research program with a local service component developing sustainable developmentteaching materials with K-12 teachers based on the graduate student’s research. The thirdprogram involved short-term (three months) of field research in East Africa embedded within atwelve-month long research program on small-scale infrastructure research. The fourth programwas the Engineers Without Borders chapter at MPuT. The last student program was a graduateprogram comprised of one year of campus course work, followed by two years of field researchin a community partnering
participants in non-STEM graduate programs. The hierarchy of disciplines,then, are: Technology Liberal Arts Management Health and human sciences Engineering AgricultureWhat separates STEM from non-STEM program offerings is the orientation toward technicalleadership versus first-, second-, or third-line leadership. More specifically, STEM is strictlyleadership of STEM oriented endeavors, providing various courses in six sigma, qualityinitiatives and business statistics with a coupled directed project. Non-STEM program offeringsare for leadership positions with a general understanding of team collaboration, human resourcemanagement and similar non-technical courses, culminating with a capstone project.The
integrating industrial platforms for educationalpurposes is widely spread among engineering institutions – colleges and universities. Forinstance, students of engineering programs are required to undergo an internship at industrialenterprises of the region and perform a capstone project to demonstrate the new competenciesthey have obtained within the internship period. While regional academic-industrialcooperation through cluster partnership demonstrates positive results for training highlyqualified specialists at present, it should involve international experience in order to remainup-to-date in the forthcoming years.However, the idea of expanding clustering to an international level brings up the series ofpotential issues that arise from the
course of a single semester so steps eight through ten of theVaughen’s Design Project Road Map are reserved for the capstone design course students takelater in the curriculum. If the topic chosen for the risk assessment is not for a chemical process, itstill needs to address the first seven steps and the instructor may provide insight on how to alterthe scope slightly to allow it to be approved.The students gain a base knowledge of the area of risk assessment prior to receiving the aboveassignment in a manner that caters to multiple learning styles as described by Felder andSilverman. The learning styles of this index were updated in 2003 and their applicability for theprescribed pre-work is shown by the bracketed text in the following
final exam questions, are included.Preliminary findings indicate that in general this approach can work, but that there arecertain content areas in which the available resources are very weak. A summary ofresources used and student ratings of each will also be provided.BACKGROUNDThis paper describes work completed at Ohio Northern University (ONU), a small, private,comprehensive university focused on undergraduate education. At ONU, engineeringstudents are heavily involved in design projects throughout the curriculum. A course in thesenior year called “Process of Design” is required for all mechanical engineering students.This course provides content to accompany the capstone projects, a model that is notunique1.Previously, this course was
production 2. Lawbooth Makes legal consultation easy with an online platform 3. GoodEats Meats Brings local, high-quality, smoked barbecue to our Boulder and beyond 4. Innate Introduces information display to your bathroom mirror 5. Kitables Puts all of the components for your next DIY project in one, organized container shipped to your door 6. Pallas, Inc. Mitigates hair loss in chemotherapy patients with a novel cold cap technology 7. Surya Conversions Produces hybrid conversion kits for auto-rickshaws in developing countries 8. Vektor Tech Automates the
themas a cohesive framework to connect and integrate the individual courses. The lab framework willkeep the lecture content intact but update the experiments and projects to make students aware ofthe big picture, help them to relate the individual subjects, and apply and integrate the previouslearning in a new context. The labs spread over all hardware related courses, including freshman engineering,introductory digital systems, advanced digital systems, computer organization, embeddedsystems, hardware-software co-design, and senior capstone design. The complexities andabstraction levels of the experiments and projects gradually grow as students progress throughthe curriculum. The key concepts are repeated in different courses with increasing
and future generations. Currently a project-basedapproach to promoting student knowledge and skill in sustainability design is limited to upperlevel environmental engineering courses. The long-term goal is to introduce sustainability-related activities and projects throughout the curricula and to assess levels of expertise insustainability as students progress towards graduation. This longitudinal study will attempt to elucidate differences between Civil andEnvironmental teaching strategies implemented to integrate sustainability concepts in coursedelivery. Continual assessment will help identify more effective teaching methods and yearlysenior level capstone design course assessments will evaluate student skill in
biomedical problems. During biomedical design, a range ofstrategies can be used to identify a problem and to generate and evaluate solutions. At ColumbiaUniversity, we have an established program for teaching biomedical design to undergraduateswhich culminates in our capstone ‘Senior Design’ course. However, no specified designexperience exists for terminal degree BME Master’s students. Design courses are traditionallytaught utilizing a textbook, lectures, and a team design project, with often limited time forinteractions between and among teams and instructors in the classroom. We also recognized thatthe background and educational and professional goals of undergraduates and graduate studentsare unique. Therefore, we saw a valuable opportunity to
, Urbana-Champaign Dr. Marcia Pool is a Lecturer in bioengineering at the University of Illinois at Urbana-Champaign. In her career, Marcia has been active in improving undergraduate education through developing problem-based laboratories to enhance experimental design skills; developing a preliminary design course focused on problem identification and market space (based on an industry partner’s protocol); and mentoring and guiding student teams through the senior design capstone course and a translational course following senior design. To promote biomedical/bioengineering, Marcia works with Women in Engineering to offer outreach activities and is engaged at the national level as Executive Director of the biomedical
programs are non-thesis Masters Programs, with only a few requiring a capstone project. Although not conclusivefrom this data we can see that in general, the graduate degree programs offered in logistics &transportation have a heavy focus on workplace readiness by encouraging interaction withrelevant corporations and by helping working professionals to further advance their careers in thelogistics & transportation fields.IntroductionUS domination in manufacturing in the 1980s were declining steadily until recently due to themass outsourcing of US products and services to overseas countries (see figure 1). On the otherhand the logistics transportation sector is booming in the US (see table 1) [1]. Even though massoutsourcing is blamed for
Engineering has worked for years to continuouslyimprove its approach to professional formation, relying heavily on input from constituentsranging from alumni and corporate partners to faculty and current students. The most influentialstakeholder group has been the department’s Industrial Advisory Board (IAB), and for the pastdecade the IAB has driven a number of initiatives designed to teach and build capacities forprofessional skills, often called “soft skills.” As shown in Table 2, the IAB’s recommendationshave been delivered in silos, mostly via the senior design capstone experience. ECE 202 CircuitTheory Applications – which now includes a project design component in the sophomore year –has served as the vital lower-level course for introducing
avionics, are segmented into separate design tasks. Technical componentdesign teams must iteratively integrate critical information from adjacent technical systems into theirdecision-making process.31 Thus, communication of knowledge about the design of an aerospace vehicleneeds to occur through time as the design evolves.Aerospace engineering capstone design courses are typically one to two semester courses that askstudents to design an aerospace vehicle using a given set of requirements while interacting on a team.While there is some variability in the requirements of a design task, most capstone design projects coverthe conceptual design phase of the aerospace engineering design process.33 Fixed wing design courseprojects generally ask students
realizing their design through 3D printing. In this module, a historic background about 3D printers is first introduced, and then the impact of 3D printers on third industrial revolution is discussed. Students will be able to immediately hold, evaluate, test and use their designs as well as share it with each other and the world. 3. Capstone Design Project The main goal of the third module is to design an assistive technology mechanical object to help people with special needs. Each group of students deliver well-defined 3D solid models, fully functional assistive technology device, formal design report, and formal design presentation.Survey Findings & AnalysisThis paper was written at the
students improve their technical writing skills. Thispaper details a comprehensive study of a GTA training program implemented in a largemechanical engineering department. Situated within the field of Writing Across theCurriculum/Writing in the Disciplines, the program was developed to meet the unique needs ofthe department’s GTAs and address perceived deficiencies in undergraduate student writing byteaching best practices in writing evaluation. Two methods were used to assess the efficacy ofthis program: 1) Qualitative methods such as interviews and an open-ended survey were used togain the perspective of the GTAs and their students on a variety of issues; and 2) A summativeassessment compared Senior Capstone Design final reports completed prior
Paper ID #16899Designing Communications and Power for an Instrumentation System forNatural Resources Research in a Remote Mountainous LocationDr. Herbert L. Hess, University of Idaho, Moscow Herb Hess is Professor of Electrical Engineering at the University of Idaho, where he teaches subjects in He received the PhD Degree from the University of Wisconsin-Madison in 1993. His research and teaching interests are in power electronics, electric machines and drives, electrical power systems, and analog/mixed signal electronics. He has taught senior capstone design since 1985 at several universities. c