. The LSBL interventionperiod of the study lasted five class periods each lasting 75 minutes and took place within a threecalendar week period. Both the experimental and control groups participated in the interventionat the same time during the regularly scheduled class time. The study was conducted at thebeginning of the fall semester in order to minimize the number of confounding variables thatcould impact the results. At the beginning of the term, the students did not have any formalaircraft design instruction/experience, other than what they would have brought with themthrough internships, cooperative education experiences, or voluntary underclassmen participationin capstone projects such as the Design, Build and Fly effort. The research
as theyformulated plans for integrating ethics into their curricula, e.g., IIT 1, Towson State2 and OregonInstitute of Technology.3) It became clear that if departments were to be successful in integratingethics into engineering courses, some form of development would be required for most facultymembers.Shortly after the need for a faculty development activity became clear, the College of Engineeringand the College of the Liberal Arts received a gift from an Alumnus to start joint activitiesinvolving engineering and ethics. This gift explicitly linked the Douglas and Julie Rock EthicsInstitute in Liberal Arts and the Leonhard Center. When the Directors of the Institute and Centermet to discuss possible joint projects, they quickly decided
the Capstone requirement, a culminating field experiencedesigned to immerse the student into a practitioner role inside and organization or group thatconnects to their respective discipline, area of interest, or career goals. A minimum of 30 credithours is required for the Saint Louis University’s Master of Sustainability. Continuousassessment is an integral part of the program to ensure its quality and continued updates.Introduction:In 2008 the International Commission on Education1 for Sustainable Development identified aneed in the marketplace for practitioners in sustainable development, with core competencies innatural sciences, engineering, social sciences, and management. Within higher education,sustainability related curriculum was
completed in the prior year, and, (2), the students will haveexperienced systems methodologies in that third year. Included in the capstone design will bemission analysis, preliminary design, and some detail design, using computational and graphicalsoftware, to allow the students to acquire skills that they will utilize in their careers. Studentlaboratories are included throughout the entire senior year as well, with focus on fluids,structures, controls and propulsion during differing portions of the year. Because of the year-long design sequence, there is potential for connecting some elements of a vehicle configurationto an experimental design and implementation. Indeed, our long-term goal is to transition fullyto a project-based laboratory
Materials Lab I/111 Equipment usage, raw materials Winter Materials Lab II/122 Traditional processing methods, glassesJunior Fall Processing Lab I/231 Processing methods, design of experiments Winter Processing Lab II/242 Microstructure design and characterizationSenior Fall Charcterization/362 Mechanical, electrical, & optical properties Fall Design Lab I/261 Capstone project Winter Design Lab II/262 Capstone projectTable 2. Sophomore laboratory exercises in Ceramic Engineering. Fall Semester Winter
reality modalities to im- prove medical training, (2) analyzing the mechanisms of slip and maintaining balance, (3) characterizing neuronal endolysosomal vesicle stages in Alzheimer’s Disease, (4) developing a spectroscopy device to age bruises primarily for domestic abuse, (5) designing an angioplasty balloon catheter to increase the ac- curacy of stenting, and 6) creating a treatment device for paravalvular leak. Currently, Matthew continues most of his research from his undergraduate career, and is developing a contactless device for measuring vitals for his Master’s capstone. Although mainly focused on medical device research and development, as an aspiring physician-scientist, Matthew has a deep commitment to
to get patents done, and people are always really excited about trying to get this to commercialization.Students continue to pursue publications of their work, though the primary focus is on the patentas their capstone experience. As the feedback from one completer (above) suggests, studentsmay be involved in more than one research project with more than one leading to patentproposals.Additionally, candidates have specific opportunities to develop entrepreneurial skills such asenrollment in courses offered by the College of Business with a focus on entrepreneurship andinnovation including Entrepreneurial Decisions, Entrepreneurial Strategy, Innovation Analytics,Evaluating Entrepreneurial Opportunities, Entrepreneurial
questions. Therefore, it is desiredto use a low cost open educational resource (OER) that can be adapted to the needs of eachcourse. One such OER is MyOpenMath, a mathematics based online tool that integrates intocommon learning management systems and is free for both faculty and students. In this paperwe discuss how this tool is currently implemented in a senior capstone design course and a unitoperations laboratory in chemical engineering. This presentation includes characteristics ofMyOpenMath, benefits for instructors, available instructor training, and benefits over usingcurrent quizzes in the Canvas LMS. Not limited to chemical engineering courses, MyOpenMathis applicable to any equation based course. This paper focuses on the faculty
AC 2007-2407: ENGINEERING MANAGEMENT WITHIN A SYSTEMSENGINEERING PROGRAMJohn Elson, National UniversityShekar Viswanathan, National UniversityHoward Evans, National University Page 12.646.1© American Society for Engineering Education, 2007 Engineering Management within a Systems Engineering ProgramIntroduction Designing curricula may seem to be just another design effort, similar to other design projects.And this might be a reasonable analogy if the design project is considered in its entirety, fromassessing marketplace needs all the way through to design and quality verification. Thus, onemight have this mindset when designing
certificate programincludes the following seven new undergraduate courses13: 1. Introduction to Nanoscience 2. Engineering of Nanomaterials 3. Nanofabrication and Nanoelectronics 4. Introduction to Bio-Nanotechnology 5. Environmental Nanotechnology 6. NanoOptics 7. Capstone DesignTo complete the NCP and receive a Certificate in Nanoscience and Nanotechnology, studentsmust complete 12 credit-hours of advance junior and senior level course13.Nanotechnology at Texas State University-San Marcos (Texas State) & University of Texas(UT) at TylerIn a collaborative project between Texas State and University of Texas at Tyler, an introductoryand advanced curricula was developed that addresses the “nanotechnology safety
goal of preparing them for a lifetime of further learning…” (3)Indeed “reinventing undergraduate education” (not just in engineering) was the theme of theErnest L. Boyer Project of the Carnegie Foundation for the Advancement of Teaching. (4) (5) (6) (7)These reports were also considered by members of the task force as we considered “reinventing”undergraduate engineering education. The following recommendations were considered fromamong the broad conclusions in these reports: (6)• Make research-based learning the standard• Construct an inquiry-based freshman year• Build on the freshman experience• Remove barriers to interdisciplinary education• Link communication skills and course work• Culminate with a capstone experience
with term projects,capstone projects, career advising, and job searching. Each mentor was assigned up to 10mentees. Each mentor was supposed to spend approximately 100 hours per year. Each mentorcompletes two surveys during the academic year and submits a summary report at the end ofeach year. Based on student response rates to portfolio activity, we expected most of our ETstudents to take advantage of this service. We recruited 10 professional mentors in the first yearand increased the number to 20 by fifth year.Measuring Program EffectivenessOur project was expected to impact the following number of individuals (Table 3)Table 3: Benchmarking impact throughout the projectCC Recruitment 15,000 STEM majors at area CCs (CC)Regional
reportsatisfaction with the experience, because of both the visible results at course end and theperceived relevance of the process that they used.The course described in [1] and [2] has made a visible impact on the computer engineeringprogram at Mississippi State University (MSU). Computer engineering student projects in thecapstone design course have greater complexity and are of higher quality compared to previousyears. One obvious disadvantage to the course is that prerequisite requirements necessitate thatthe course is taken very late in the program, usually the penultimate or final semester. While theimpact on the capstone design course is clear, the faculty was confident that capstone studentprojects would be improved further if the embedded systems
current curriculum design calls for 66 instructional modules to be included in the associatedegree manufacturing engineering technology program. Modules average approximatelyequivalent to one quarter credit each. Seven other courses are planned to be drawn from thetraditional curriculum in such areas as humanities, social sciences, English composition, and thefundamentals of oral communication. The capstone experience completes the curriculum.The development of 17 modules took place during the first three years of the project fromJanuary, 1995 through December, 1997 along with the creation of the curriculum and thepedagogy. Of these, four were directed toward secondary level instruction while the remaining14 are at the associate degree level
proposal and grant. Seeking guidanceand feedbacks from experienced colleagues, mentors, or grant writing professionals to a rapid startand refine your research proposal can identify areas for improvement, ensure clarity and coherence,and strengthen your funding application.3.5 Capstone Projects and PublicationsEngaging students in capstone projects and facilitating publication opportunities are integral com-ponents of undergraduate-focused research programs. New faculty members involve into the cap-stone projects that integrate theoretical knowledge with practical applications, allowing studentsto solve real-world problems and challenges. By providing mentorship, guidance, and supportthroughout the research process, faculty members can empower
Engineers, 2006. Frontiers in Education Conference.6. Education and Training of the Nanotechnology Workforce. Fonash, S. s.l. : Journal of NanoparticleResearch, 2001.7. Zeigler, B.P. Theory of Modeling and Simulation. Malabar : Krieger Publishing Company, 2000.8. Using Computational Fluid Dynamics to Excite Undergraduate Students About Fluid Mechanics. Pines,D. s.l. : American Society of Engineering Education, 2004.9. The Use of Advanced Simulation Tools in Capstone Design Projects. Barber, T. s.l. : World Scientific andEngineering Academy and Society, 2007.10. Use of Computational Fluid Dynamics (CFD) in Teaching Fluid Mechanics. Sert, C. and Nakiboglu, G.s.l. : American Society of Engineering Education, 2007.11. Computational Aerodynamics Goes to
articles in this area, co-authored the book How Learning Works: 7 Research-Based Principles for Smart Teaching, and developed several innovative, educational technologies, including StatTutor and the Learning Dashboard.Dr. Laura Ochs Pottmeyer, Carnegie Mellon University Laura Pottmeyer is a Data Science Research Associate at Carnegie Mellon University’s Eberly Center for Teaching Excellence and Educational Innovation. She consults with faculty members and graduate students on implementing educational research projects. She assists with study design, data collection, and data analysis. Laura’s training includes a Ph.D. in Science Education and M.Ed. in Educational Psychology from the University of Virginia, where she
theclassical methods defined in Table 1. Many schools require a senior capstone project to solidifywhat the undergraduates learned over their previous years. Topics should be chosen to ensurethat case studies, ESE and multi-discipline interactions are incorporated to add a system thinkingelement to each capstone project.It is worth examining if undergraduate systems engineering and industrial system engineeringdegree programs include architecture related courses earlier than other degree programs. Asurvey of curriculums [24] shows that they do not. This is likely because the art of architecturalsynthesis is often too abstract to teach and too difficult to grade at the undergraduate level. Mostundergraduate engineering assignments start with well
industrial and systems engineering. Relevant tothis paper, these studies have been completed on implementing lean and six sigma methods into Page 24.78.4a senior design capstone project course24, and the usefulness of industry design projects forgraduate students25 and senior undergraduate students26.Taking into account the results of this current study1,2 on motivation and satisfaction and alsotaking into account the prior work cited from the literature, changes were implemented to boththe curriculum and the manner in which the engineering economy course was delivered.Incorporating senior level students with work experience and student group
isbased on the idea that the best measure of critical thinking regardless of what is being evaluated,is the assessment by experts in that field.Course two major projects were presented to a group of twenty experts in the field (chemical,food, and environmental engineering professors that teach engineering design capstone coursesand alumni with such expertise) that assessed students’ critical thinking by means of aspecialized rubric3 (Appendix A). Possible performance levels were from exemplary (value of 4,skilled, marked by excellence in clarity, accuracy, precision, relevance, depth, breadth,logicality, and fairness) to unsatisfactory (value of 1, unskilled and insufficient, marked byimprecision, lack of clarity, superficiality, illogicality
-year transfer institution, reduce the effects of transfer shock, and enhance their academicsuccess at the baccalaureate institution, the COMETS program provides opportunities toparticipate in the Intersegmental Enrollment Program. Every fall semester for each year of thegrant, four Cañada College sophomore students—one each from the areas of civil, mechanical,electrical, and computer engineering—are selected to participate in upper-division courses orsenior design capstone courses at SFSU.For the 2010-2011 academic year, the civil engineering student participated in the design andconstruction of a timber bridge. The mechanical engineering student participated in a project onMaterials and Manufacturing. Both the computer engineering and the
are two constructs that directly influence choices: (1) expectation of success, whichis the belief in your likeliness to succeed in a task and is related to competence and (2) taskvalues, which is your desire to engage in a task. Task values includes four components:attainment value (alignment with sense of self), intrinsic value (interest or enjoyment), utilityvalue (usefulness), and cost value (expense) [15] - [16]. Expectancy-value theory hasdemonstrated utility in understanding faculty motivation related to teaching capstone design [17]and engaging in the research-practice cycle [18]. The latter study found expectancy of success,cost value, and utility were salient motivation factors for faculty members to transformengineering education
upon and ties together the concepts presented across thecurriculum. This elective would serve as a focused course, a capstone of sorts, which wouldcreate an opportunity for students with strong interest in Computer Security to explore the inter-relationships between several key topics and perhaps even attempt to apply the knowledge they Page 10.215.10acquired previously to some kind of project. With the support of the thread, an existing course in “Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright © 2005, American Society for Engineering Education”Computer
capstone project. Course HistoryENGR 4150 was first offered in Spring 2021, to support the first round of students in the newmechanical engineering program. The course was offered twice (Spring 2021 – 3 students, Spring2022 – 8 students) before the author started teaching the course in Spring 2023. In these first twoiterations of the course, the instructor used instrumentation design as the main teaching tool. Thestudents designed three pieces of equipment (a U-tube manometer, a Venturi, and a pump efficiencyrig) and in the process, learned key fluid mechanics concepts. One of the benefits of this approach is Proceedings of the 2025 ASEE Gulf-Southwest Annual Conference
our students. Each year, engineeringstudents complete approximately 30 senior capstone projects for a variety of businesses. In anygiven semester, over 150 engineering students are out in the work-place on one of their three co-op rotations. Internships in other disciplines drives the number of students to over 300. Withoutour industry partners, we would be unable to provide authentic projects for students or ensurethat they graduate with real-world employment experience.One of the major challenges in getting a mandatory co-op program up and running was buildingour employer network and helping them to understand the benefits of the co-op model. SincePCEC’s co-op model is rare among universities, many companies had no experience workingwith
graduate students as well.Although the course was originally planned for upper level cohorts of undergraduate students—ideally juniors, as preparation for senior design and senior capstone project work—it attractedseveral graduate students and it was early realized that graduate students in the class mightcontribute to better diversity of skill levels and performance of the teams. On the other hand,their presence made for more difficulties in gauging the appropriate depth and breadth of thecourse content. Page 24.392.11Difficulties with team work: One of the major goals of the STFS project was to increasestudents’ abilities to be successful in
curriculum-based course projects and capstone initiatives, which are typicallyinstructor-led and driven by curriculum credits, the SIG program champions extracurricularprojects fueled by student initiative and passion. Its core objective is to entrust and empowerstudents to spearhead ambitious innovation and technology ventures that will shape the future.The program fosters an environment where students are encouraged to translate their innovativeconcepts into tangible solutions, collaborating with peers across various academic disciplineswho share common interests. Figure 1. Bio-inspired robotics SIG: A robotic fish Figure 2. Electric Vehicle SIG: A fully functional designed and built by students that set two Guinness electric vehicle
elements(e.g., modality, structure, depth, breadth, etc.) were perceived to be satisfactory and results showfavor for lab-based learning over project-based learning (PBL). Finally, results indicate positiveself-reported progress in four general competency areas: design, problem-solving, © American Society for Engineering Education, 2023 2023 ASEE Illinois-Indiana Section Conference Proceedingscommunication, and group/teamwork. A second cohort will take the transformed gatewayexperience in the Fall of 2024 to strengthen the overall sample power, and data from the fouryears (Fall 2018-2022) preceding the transformation will be collected and analyzed incomparison to groups involved in the revised course.Key Words
A. Middlebrooks Award from the Geo-Institute, Collingwood Prize from ASCE, National Science Foundation Graduate Research Fellowship, U.S. Society of Dams Scholarship, and Dwight D. Eisenhower Transportation Fellowship twice. Dr. Ajmera has delivered over 20 invited presentations. As an Assistant Professor, she has supervised over 100 high school, community college, undergraduate and graduate students on various research projects. She serves as President of the North Dakota Section of the American Society of Civil Engineers and a Councilor in the Engineering Division of the Council on Undergraduate Research and serves as their representative for the National Conferences on Undergraduate Research (NCUR) Oversight
imagination. The abilityto bring more “hands-on” activities to the class and training rooms will be an immense asset tostudents and practicing engineers.The use of this VR environment will be applied to SEAONC trainees and students in the seniordesign or capstone project course series. For the student version of this VR application, it will becomparable to the professional training series. Students will be allowed to navigate the VRenvironment to review the damage done to the building. They will be asked to identify evidenceof damage (e.g. cracks) and potential reasons for this damage (e.g. shear forces). After they gatherall this data, they will be asked to determine whether the building should or should not beaccessible to the occupants. After this