faculty plan to maintain this focus with the support of Green Dot Bioplastics and otherindustrial partners. We have been communicating with PSU alumni at iMFLUX in order tomodify a test bar mold for the Arburg injection molder. The modification will allow pressuresensors for iMFLUX Automatic Viscosity Adjustment (AVA) technology to be introduced intothe mold. AVA technology can then adjust parameters to maintain consistent production withvaried materials including PCR and bioplastics. Our capstone course gives students the ability towork in teams with one focused project over the course of two semesters, allowing them to learnabout the details of their project at a much greater depth than shorter-term laboratory orclassroom learning
help reinforce classroom knowledge and help students understandthe creation of and adherence to a timeline. However, the pandemic forced these projects to goremote. Some research has been done on hands-on team projects during the pandemic, such asstudying the impact of COVID-19 on senior capstone design courses (see, e.g., [13]), but there isless research on team projects in regular lecture and laboratory courses. As universities begin toreturn to pre-pandemic instruction methods and experiment with hybrid classes, it is important tostudy these courses in which students are again having to adjust study habits and team-workingbehaviors.We present a quantitative analysis of engineering students’ responses to survey questions relatedto their
community vision with Pitt’s core compe- tencies of research and education, Sanchez has built up Pitt Hydroponics in Homewood, founded Con- stellation Energy Inventor labs for K-12 students, and re-created the Mascaro Center’s Teach the Teacher sustainability program for science educators in the region. As a teacher he designed and created the Sustainability capstone course which has annually partnered with community stakeholders to address sustainability challenges at all scales. Past projects have in- cluded evaluating composting stations in Wilkinsburg, studying infrastructure resilience in Homewood, enabling community solar in PA, improving energy efficiency in McCandless Township, and improving water quality in
), driven bysupport from the Packaging Machinery Manufacturers Institute (PMMI) Foundation and the“PMMI U Skills Fund” exemplifies that unity. Using industry-standard software, equipment, andresources, like that provided by LinMot Inc. USA, allows students and workforce trainees tolearn using the newest equipment, learn about emerging technologies in packaging andprocessing, and provide a pipeline of workforce-ready talent. In this paper, the authors explainthe steps to design, fabricate, and build a testbed trainer to be used with the existing trainers inthe hands-on activity laboratories, student/industry projects, and capstone design. This project isa good tool for students to practice utilizing innovative technology and hands-on skills using
in improved understanding and exposure to real-life product development practices. Furthermore, AM can unlock the creativity of students byenabling them to produce innovative parts with almost no restrictions on part geometricalcomplexity. Building on students’ interest in drones, Tipker et al. [3] presented freshmanengineering class basic drone electronics kit and asked them to design and build, using AM,suitable drone structure, assemble it, and fly it. In a senior capstone project, Hur et al. [4]demonstrated how students used AM to manufacture metal and plastic propellers for small-scalethrusters for underwater robots. Rios [5], 3D-printed and compared them to their CAD models toillustrate several geometric dimensioning and tolerancing
projects and buildingparticipants’ confidence as educational researchers. This project was funded based on impactrather than knowledge generation; thus, this paper will report on the impacts of the ProQualInstitute in terms of participants served and evaluated outcomes and project team observations.The key evaluation questions we answered were: 1. To what extent did the project design and implement a high-quality and culturally responsive training program? 2. What knowledge and skills did participants gain because of participation in the ProQual Institute? 3. How could the ProQual Institute be built upon to improve participant outcomes?Background & Conceptual FrameworkThe target audiences for the ProQual Institute were STEM
efforts and the successes and challenges encountered as we work toaddress business research needs in the engineering curriculum.Introduction and Literature ReviewThe teaching of business competencies to engineering students is exploding in engineeringeducation due to a variety of factors. First, there is a critical need to develop professional skills,including leadership, communication and teamwork, and capabilities for “real-world”engineering design and operations, along with learning the core math, science, and technicalaspects of engineering [1], [2]. Interviews and surveys of early-career engineers revealed notonly technical skills were needed but also skills for industry, like complex project managementand soft skills, that newcomers had to
Professional Engineers (SHPE), National Society of Black Engineers (NSBE), andSociety of Women Engineers (SWE) to reach out to URM students in engineering through peermentoring, tutoring, and networking. Also, the ESC will promote engagement and a sense ofbelonging by connecting URMs with successful alumni and industry experts through paneldiscussions, workshops, networking, seminars, career fairs, and other forums. The ESC directorwill establish partnerships with local Bay Area companies to seek internship opportunities for ourdiverse student body, sponsor our Capstone Design Projects, and organize semiannual career fairsand interviews on campus. Industry partnership in senior design projects will provide a year-longculminating hands-on experience on
year.Since I also teach two CFD courses at the University of Denver, it is easy to create newgeometries for different airfoils meaning that student projects will have slightly different resultsfrom year to year depending on the chosen airfoil.In additional to using a computational wind tunnel, in recent years, the students are additionallyexposed to a low-speed wind tunnel experiments with an airfoil either at the end of “Introductionto Aerospace Engineering I” or in “Mechanical Engineering Capstone Lab”, both of which aretaught by the me. In the future, students will use our makerspace to 3D print airfoils for use inthe wind tunnel while performing computational wind-tunnel analysis on those same airfoils.Since developing this course with a PBL and
clearlydifferentiated, and coordinated patterns of interdependence are specified (Mohammed &Dumville, 2001). In undergraduate engineering contexts, like capstone design projects, problemsare more complex and less constrained (Howe et al., 2017). Given the complexity of designcontexts compared to the more structured contexts found in the current shared mental modelliterature, it is not yet clear if the measurement techniques used in those studies are useful.Moreover, though we might expect the findings to carry over into the design context, it is notclear if results and findings related to shared mental models found in more structured problemsettings will have the same characteristics compared to a more complex problem-solvingenvironment.2.2 Engineering
racism.Collaborative problem-solving experience is a key quality sought by most employers. It is welldocumented that effective teamwork can facilitate career progression, often leads to moreinnovative solutions, and has the potential to increase job satisfaction. Throughout theirundergraduate education, students are tasked with team-based projects to provide this requiredexperience, however they are rarely provided with the skills to be a successful team member andleader. Ambrose et al. [3] highlight that in addition to content knowledge, teamwork furtherrequires higher-order qualitative skills such as task delegation, conflict resolution, and contentsynthesis. Furthermore, research shows that stereotypes and biases towards women and studentsof color can
growing body of work is focused on training students to practice EM [12]–[16].A few authors have focused on specific faculty development workshops or programs, as shown in Table1. Of these prior works, our project is the only one focused on student research structures and EM.Table 1. Summary of prior literature focused on faculty development programs and EM. Author Date Group Trained Training Focus Jordan et al. [17] 2016 Engineering Faculty Workshop and grant program for EM Mayled et al. [18] 2019 Engineering Capstone Workshops, coaching and EM Instructors Dillon et al. [19] 2020 Engineering Faculty Coaching structures for
, and use engineering judgment todraw conclusions. The breadth of this requirement may be achieved by wide varieties of pedagogicalapproaches. Regardless, the core challenges facing students are: recognizing the actual problem, developingpotential solutions, applying experimental methods, understanding the significance of appropriate datacollection, and ability to execute engineering judgement. These outcomes is often realized in labs and upperlevel courses once technical knowledge is solidly mastered. Mapping learning outcomes in the architecturalengineering program, we recognized the need to institute a disciplined inquisitive mindset early on,therefore, establishing the foundation for future advanced coursework. The resulting project known
. The modulefollows an entrepreneurship approach, modeled after the successful Engineering Projects inCommunity Service (EPICS) engineering design process, where students research an issue intheir own community and design a program to help people solve it [6]. Through these activities,students learn many valuable lessons including the role of community service in society, thesignificant impact that their engineering skills can have on their community, and that assistingothers leads to their own substantial growth. The module teaches design, planning, codeversioning, collaboration, and aspects of human-computer interaction (HCI) and usability. Thefinal product serves as a capstone project for the course. Industry volunteers and local
grid clinics Implementing Smart Grid clinics Senior/Junior capstone design and hands-on experiences in projects. senior and junior projects Smart grid The effect smart grid is having Its effect on climate change environmental effect on the environment Smart grid future What are the aspects that the More social power/connections/ industry smart grid industry is willing to legacy system upgrade/ improve in the future modernizing gridsFinancial process of The financial process/cash flow Budget, financial support,smart grid project for a smart grid project
project, and overall course grades as aculmination of student course performance. Student surveys of the course's flipped learningformat provide an indirect assessment of student perceptions and were gathered for Fall 2022.Additional data will be gathered in future semesters, as will direct and indirect assessment datawhen students complete their senior capstone project.Furthermore, this paper presents a review of the literature discussing related research and thepedagogy of flipped learning. It provides a basis for the rationale of implementing flippedlearning in the university classroom and strategies for construction management programs.It is the authors’ intent to discuss this topic within the framework of the university constructioncost
exercise. In addition to this theinstitute has invested significantly in simulations and software, which are hosted on the cloudand made accessible to all WILP students supplementing their practical experience. Theinstitute has also built physical labs hosting equipment that students can remotely access andwork with, while monitoring the process, via cameras mounted around the physical labequipment.Every program requires the students to undertake a capstone project from their place of workin the final semester, which is mentored by their organization supervisor and a faculty expert.This is periodically reviewed, assessed and graded. It is a required course for all theprograms.Assessments: The institute follows continuous assessment policy, which
Capstone Design projects at our machine shop at Innovation Drive located near GMU’s Science and Technology Campus in Manassas, VA. Along with assisting undergraduate students with their class projects, I also help our research professors at Innovation Drive with fabrication of parts or any other needs that may arise for their lab. ©American Society for Engineering Education, 2023 2023 ASEE Southeastern Section Conference SeaPerch and SeaGlide Camp Implementation Leigh McCue, Vanessa Barth, Johnnie Hall George Mason UniversityAbstractThis paper provides a summary of the activities and format of
important experience forthe participants. At first glance, not many applications were received, when compared to thenumber of expected participants (12). The compensation package was low. Finding corporationsor agencies willing to host an internship was difficult, and the MOU formalization process wasquite long. Formative evaluation of internship participants is critical to ensure students havesuccessful internships. Corporations A and D joined the Program for a first-round cohort. The program’s goal wasto hire six interns in year one, and six were hired. 17 applications were received for the first poolof applicants. The Department has approximately 600 majors, with 50 among them completingtheir capstone/senior project experience—who would
project on ethical andresponsible research and practices in science and engineering undertaken at a large publicuniversity in the southwestern United States. The objective of this research is to improveinstructor training, interventions, and student outcomes in high schools and universities toimprove awareness and commitment to ethical practices in STEM coursework. The paper willdescribe the progress made in several components of the grant: i) Preliminary analysis ofmeasures of ethical knowledge, reasoning skills, attitudes, and practices of several hundredundergraduate freshmen and seniors, correlated with demographic data based on data captured inthe first year of the grant; ii) Progress made in the development of the concept of “ethical self
Pitt Hydroponics in Homewood, founded Con- stellation Energy Inventor labs for K-12 students, and re-created the Mascaro Center’s Teach the Teacher sustainability program for science educators in the region. As a teacher he designed and created the Sustainability capstone course which has annually partnered with community stakeholders to address sustainability challenges at all scales. Past projects have in- cluded evaluating composting stations in Wilkinsburg, studying infrastructure resilience in Homewood, enabling community solar in PA, improving energy efficiency in McCandless Township, and improving ©American Society for Engineering Education, 2023
the engineering profession, cultivating an innovative spirit from an early age can be aformidable task. Project Lead The Way (PLTW), a program dedicated to transformative STEMteaching for K-12 students, focuses on skills relevant to innovation and entrepreneurship such asproblem-solving and critical thinking. The PLTW program, however, has a limited focus on thehumanities which is presumed to turn women and minoritized populations away from STEM [2].In university-level engineering programs, with the heavy technical curricular demands, inclusionof coursework dedicated to innovation and creativity may not always be perceived as logisticallypossible. Allocating valuable course time that help engineers recognize opportunities and createvalue
have access to industry practitioners with the appropriate expertise to meet theirpractical course-support needs (e.g., site visits, guest lectures, and mentors for capstone projects).Researchers [20,21,22] have also argued that knowledge is distributed among people and theirCoP and that learning occurs by connecting with the CoP to aggregate information from thecommunity and participate in meaningful activities with the community.Despite the perceived benefits of integrating academia and practice, the education communitystill experiences marginal and unequal access to the CoP. Access is usually achieved via one-on-one contacts and relationships, leaving institutions or instructors, and consequentially students,without such connections or
surprise. Instructors at all levels had to quickly learn and adoptnew tools for online course delivery. The adoption of new tools that could capture the uniquefeatures of design courses, which are primarily project based and open-ended, and require in classdiscussions, feedback and teamwork represented a major challenge in an online environment. Itwas not clear how the online environment would affect the perception of instructors and theperformance of the students. The primary purpose of this paper was to investigate potentialrelationships between the perception of instructors of the impact of the course delivery on thestudent learning, namely the final course grades and student performance against expectations.The instructors’ perceptions
• Hands-on use of various elicitation methods to gather requirements • Hands-on requirements analysis using various analytical methodsEMSE Senior Senior- • Teams apply systems thinking to holistically Applying,4190/4191 Capstone Fall/Spring examine a selected problem. System Analyzing Project I & II modeling, dynamics, literature reviews, (4190) methodology development and multiple decision analysis techniques are employed
“I push my own point of view.” Problem solving “I examine ideas from both sides to find a mutually optimal solution.” Avoiding “I try to avoid a confrontation with the other.”MethodsA conflict management workshop was designed and facilitated for three different project-basedlearning courses involving year-long design projects: a first-year foundations of engineeringcourse, an interdisciplinary design course for first through fourth-year students from multiplemajors, and a senior interdisciplinary engineering capstone course. The workshop utilizedMentimeter (Menti) to promote engagement and support data collection. Menti is an instructionaltechnology that enables instructors to collect responses to specific prompts from
civil engineering in a real-world setting. Students are able to assess the importanceof stakeholder input within each project. Capstone and community projects bring solutions toissues local communities face, while removing the students from the center and putting the focuson how they can make the lives of others better. The primary skill set is not just technical, but theability to listen and consider the perspectives of others. Additionally, ethics and social impact co-curricular activities such as NSBE (National Society of Black Engineers), or Society of WomenEngineers (SWE) and Engineers Without Borders (EWB) help students view socialresponsibility in a more impactful way as a young professional [22].Self-SelectionIn some instances, students
twoinstances (A2 and E2), there were other educators involved. In both cases, the educator reportedhaving to explain ungrading and negotiate the use of ungrading in order to arrive at the ultimatedecision. Further, in the case of E2 (the capstone course), there was a department expectationthat a significant portion of the grade would be based on student performance.Dimension: Emphasis. Across the instances of ungrading, there were three instances in whichungrading mediated the entire grade (A1, A2, and E1). In the remaining instance (E2), studentswere told that the ungrading effort would account for 30% of the grade (and the rest of the gradewould be based on the capstone project effort).The notion of tradeoffs may not be relevant to motivations, but
implementations through the Massachusetts Health Information Exchange. At Wentworth, Dr. Feldman is focused on project-based instruction, hands-on simulations, experiential learning approaches, and first year curriculum. Dr. Feldman is one of the lead instructors for Introduction to Engineering courses, with enrollments in the hundreds each fall. His re- search and teaching interests, in addition to first year engineering, include telemedicine, health informat- ics, rehabilitation engineering, and medical robotics. Dr. Feldman has collaborated with researchers and engineers from organizations including Tufts School of Veterinary Medicine, Boston Children’s Hospital, Vecnacares, and Restoreskills.Dr. George D. Ricco, University
Ohio Northern University, where he currently teaches first-year programming and user interface design courses, and serves on the college’s Capstone Design Committee. Much of his research involves design education pedagogy, including for- mative assessment of client-student interactions, modeling sources of engineering design constraints, and applying the entrepreneurial mindset to first-year programming projects through student engagement in educational software development. Estell earned his BS in Computer Science and Engineering degree from The University of Toledo and both his MS and PhD degrees in computer science from the University of Illinois at Urbana-Champaign.Dr. Stephany Coffman-Wolph, Ohio Northern