University. She excels at leading cross-functional projects, and on MEERCat, she drives the Center’s overall strategy, operations, and research-to-practice initiatives. At Purdue, Angela’s passionate about driving change in the School of Mechanical Engineering and making the experience even better for future students.David Allen Evenhouse, Purdue University, West Lafayette David Evenhouse is a Graduate Student and Research Assistant in the Purdue School of Engineering Education. He graduated from Calvin College in the Spring of 2015 with a B.S.E. concentrating in Mechanical Engineering. Experiences during his undergraduate years included a semester in Spain, taking classes at the Universidad de Oviedo and the Escuela
projects into two design courses at Mines and assessthe ways in which HCD protocols, which included significant stakeholder engagementcomponents, impacted students’ understandings of sustainable development and their perceptionsof their roles in sustainable development initiatives. One of the selected courses was, Projects forPeople, and the other was the College of Engineering and Computer Science (CECS) SeniorDesign Capstone course. The courses were chosen because of their focus on applying HCDprotocols, as well as the instructors’ willingness to participate in the project. Also, both of thecourses are required for students enrolled in the Humanitarian Engineering (HE) minor. The HEprogram, home to the HE minor, began at Mines in 2006 with the
aspects of the design process, including iterativebrainstorming, hands-on prototyping & fabrication, CAD, materials, machining, assembly, andbasic microcontroller design. Seniors then complete a yearlong capstone sequence in which theypursue a client-mentored project and apply the skills they have developed in the prior courseswithin the curriculum [2]. All projects in the introductory design skills course and the vastmajority of projects in the capstone are client-sponsored, pre-identified problems or need areasthat the client pitched to potential teams, such that students who take these core design coursestypically do not have the opportunity to identify clinical or patient-centered needs as part of thecourse structure. However, a growing
reflections is analyzed elsewhere but shows that overwhelmingly students felt a sense of vulnerability during the simulation which could have influenced their chosen design solution. Design Quality Rubric: Each final project was evaluated by two researchers using a design quality rubric, as described by Sobek and Jain [14]. The assessment rubric was developed to evaluate the outcome quality of engineering design capstone projects. The rubric is designed to be objective so only the prototype quality is assessed. For the present study, the satisfaction of the end user was not considered because there was
development of facilities inlimited square footage for a combination of physical laboratories, teaching and computingspaces, in varying areas ranging from 3D Printing and Additive Manufacturing to EngineeringMechanics. Additional laboratory design activities have also been carried out for creative andinnovative design spaces including some for integrated capstone and cross-disciplinary projects,along with off-campus development. This paper will summarize educational learning andresearch facility development trends in academia including selection of educational equipment,digital tools, flexible furniture, and utilization of white board paint or magnetic boards. Safetyand environmental issues are covered. The trends in K-12 education and their
themes in engineering have focused on sustainability, entrepreneurship, designthinking, internationalization and social justice (Murphy et al., 2009; Tranquillo 2013;Tranquillo 2017; UNESCO 2010). As improved health care intersects all of these trends,biomedical engineers are well suited to take on leadership roles. In parallel, pedagogicaltrends have moved toward design challenges, wicked problems, project-based learningand engagement with live case studies (Blumenfeld et al. 1991; Prince 2004; Omenn2006; Bell, 2010; Beaurey 2010; Mote et al, 2016). Biomedical engineering faculty havein fact led the way in developing many of these learning opportunities (Tranquillo andCavanagh 2009; Gimm 2011; Abby et al., 2013; Dolan 2013).This paper outlines
typicallynot expected of sophomore-level students. Figure 1. Programmable controller for sophomore capstone design projects.While various resources are available for learning about the Arduino and the shields used in thekit in isolation, students beginning in their study of microcontrollers might have difficulty insynthesizing that information. To speed their development, a custom user manual was developedfor the specific set of shields provided for the capstone project. The manual begins by discussinginstallation of the Arduino development environment along with options for powering theArduino board. Next the Grove shield is introduced along with code to read the various sensorsin the kit and light LEDs using the common Arduino commands
low-tech automated controlsystems, and PBL small group discussions during the weekly group meetings. There are fivesuch courses at our institution – ENGR 199 (freshman level), ENGR 200 (sophomore level),ENGR 350 (junior level), and ENGR 400/450 (senior level capstone). In the SPIRIT meetings,ENGR 199 participants were paired with ENGR 350 participants, while ENGR 200 participantswere paired with ENGR 400/450 participants. However, group work and project managementdiscussions involved participants from each grade level. Groups were asked to record theminutes of their discussions and respond to several pre-prepared discussion prompts.During the semester-long projects, ENGR 350 participants were required to deliver an alphaprototype and to
participated in hands-on workshops, class workand independent projects since its inception.In conjunction with establishing the PIDS, the required first-year drawing course was modified toinclude design projects scoped at a district hospital. The projects selected were a traction systemfor femoral fractures and a manual cast-cutting device. With the curricular modifications, allfirst-year students completed several steps in the engineering design process and createddimensioned drawings as well as low-fidelity prototypes of their design solutions in the PIDS.The final-year capstone design courses in mechanical and electrical engineering have also beentransformed to emphasize prototyping. Final-year students with access to the PIDS completedmore steps
sustainability b. Evaluate a product/ engineering system’s environmental impacts using Life Cycle Assessment c. Design/ redesign a product/ engineering system to using the engineering principles to improve environmental impactsThe achievement of these goals was assessed through students’ self-evaluations and analysis ofstudents’ coursework. In addition, the objectives are also planned to be assessed throughstudents’ capstone senior projects. But at the time of creation of this work-in-progress paper, thestudents who took this course have not worked on their senior project yet, as a result, this part ofthe assessment is planned to be conducted once the students worked on their senior projects. Toextend and complete this work-in-progress, it
Capstone Design project to create a reference design for a low-cost, easyto build “house” that could be monitored and environmentally controlled. As shown in Figure 3,the project included the layout and implementation of a three-room house that has a removableroof and windows. Within each room of the house, a LaunchPad/BoostXL-SensorPack monitorsa number of environmental variables such as temperature, humidity, light intensity, etc. Thesedata are then published to the Cayenne broker for storage and display. The Launchpad, attachedto a “mother board” designed by the Capstone team, controls multiple environmental actuatorsincluding heating, air conditioning (pump, blower and dampers), lights, fans, and a windowblind
Exposition, Montreal, Canada, Junew16-19, 2002.[7] K. Ali AlBahi, “Development of a Design Phase Checklist for Outcome Based Active/Cooperative Learning Courses,” 2006-1883, ASEE Annual Conference and Exposition, Chicago, IL, June 18-21, 2006.[8] D. McStravick, and M. O’Malley, “Improving Interdisciplinary Capstone Design Projects with Cooperative Learning in the Medi-Fridge Project,” AC2007 – 1674, ASEE Annual Conference and Exposition, Honolulu, HI, June 24-27, 2007.[9] P. Golter, B. Van Wie, G. Brown, D. Thiessen, and B. Abdul, Shifting Gears: Moving Away from the Controlled Experimental Model While Improving Rigor in Engineering Education research,” AC2010-2415, ASEE Annual Conference and Exposition, Louisville, KY, June 20
engineering analysis.In 2013 UNHM established the Engineering Computing Laboratory (ECL). Initially the ECLwas intended to house the Senior Capstone project laboratory for Engineering and ComputingTechnology students. The 1,900 square foot facility was funded by a private foundation and hasseveral workbenches outfitted with electronic work stations and light material fabricationequipment. In 2016 a 3D printer laboratory was added, currently there are eight 3D printers and atable top CNC machine, shown in Figure 1. Initially the facility was secured and onlyEngineering and Computer Technology students were allowed badge access to the space whilethey were enrolled in a capstone project class. As students, other faculty, and staff became awareof the
projects combining both technical skills and elements of the entrepreneurial mindset.This lab modification is part of a curriculum-wide effort to integrate EML to different coursesequences. Students will be repeatedly exposed to entrepreneurial skills when applying them totheir capstone design as well in the other course sequences.CoE’s a long-term vision is to graduate students who have visionary leadership to create valueand innovative solutions not only for themselves but also for their employers and for the benefitof society. CoE also intends to address the ABET question, paraphrased as: where to do you seeyour graduates three to five years beyond graduation?The authors of this paper attended an “Innovating Curriculum with Entrepreneurial (ICE
American Society for Engineering Education, 2018 Modeling a Perceptron Neural Network Using Verilog Developed Floating- Point Numbering System and Modules for Hardware SynthesisAbstractThe purpose of a capstone design project is to provide graduating senior students the opportunityto demonstrate understanding of the concepts they have learned during the course of their studies.As with many engineering programs, students of the computer engineering program at Utah ValleyUniversity (UVU) conclude their degree programs with a semester capstone design experience.This paper presents the details of a sample project that a student has done in this capstone course.This senior design project implements the perceptron neural network using Systems
improve a novice programmer’s ability to identify robot program errors during simulation? (3) What is the theoretical basis for how VR interfaces might provide cognitive support or reduce cognitive workload in a robot programming environment?Methodology Figure 3 depicts the overall process of this project. A convenient sample strategy will beused, to recruit participants from TEC 392, the senior capstone course for EngineeringTechnology majors, and from TEC 234, the introduction course for Robotics. Stage One Stage Two Stage Three Observation & Data Recruit
curriculum.Each student’s curriculum begins with the same foundational EE coursework, but theexperiential learning activity and subsequent course elections vary according to their interests.Student 1 researches neural biosensors, then she enrolls in the sensors and microsystemstechnical track; Student 2 co-ops at Intel, assisting in the development of a specializedmicroprocessor, then he enrolls in courses in the computing and embedded systems technicaltrack; and Student 3 collects data from local schools to improve education in Ghana whilestudying abroad there, then he elects to take courses in data analytics. The three collaborate on asenior capstone project that requires their collective expertise to develop a wearablephysiological monitor for
that the shipping solution becapable of keeping SNF below this temperature threshold.For such an extensive project, the best fit within MUSE’s curriculum is Senior Design. MUSErequires every senior engineering student to complete a two-semester capstone design course.Senior Design projects allow teams of 3 to 4 students to apply their engineering knowledge in areal-world setting prior to graduation. The student teams collaborate to design, build, and test anengineered product under faculty supervision. Faculty serve as technical advisors to the studentteams and are available to help offer specific technical advice to students while promotinglearner autonomy. In addition to the engineering concepts being considered, students must alsotake into
) water use minimization orrecycling; and (4) harsh or hazardous chemical or catalyst substitution. Once students areintroduced to these concepts, they are expected to incorporate them to the extent applicable intheir chemical process selected for the capstone design experience in Design III. The fourthconcept of hazardous chemical substitution has rarely been implemented based on theinstructor’s experience in the senior design courses, since this tends to be more in the purview ofchemical product development rather than chemical process formulation and simulation. The listof chemical processes offered to students for their senior design project topic are commonly bulkorganic chemical production processes that typically include reactor conditions
assessment of answers feedback to the faculty. provided Industrial Advisory • The board reviews selected Capstone Quantitative rating scale of 1-5 Board (IAB) Projects • The board reviews elements of each Qualitative assessment of answers academic program and provides provided “Commendations and Recommendations” Employer Surveys • % of MET graduates answering survey Quantitative rating scale of 1-5 questions positively Qualitative assessment of answers
: i. Team competition based on real Quanta OpU project ii. Supplemental year-long capstone-design (senior design) projects iii. Student organization focused on utilities/industrial construction project managementThe value-added course additions include; increase specialized project management courses,introducing industry course focused on teaching power generation (a new electrical powersystems and machinery course proposal was submitted recently), and requirement of additionalbusiness courses in accounting, economics, and finance although this recommendation maybring serious challenges of extended program requirements of more than 124 credit hours whichis not welcome by both the University administration and
; Management required to effectively deliver capital projects….” Senior Capstone Design 22 Required, final spring semester, intensive semester-long project with ~6 students per team, includes outside speaker from industry on leadership Professional issues 17 Required, fall, module on leadership at end of semester focused on leadership knowledge (not skills practice) Project Management 1 13 Technical elective; focus on pre-construction estimating and scheduling Introduction to Civil 7 Required, first semester, teams of 4-5 students
way for her to create this opportunity. Meanwhile, Claudiawas completing her senior year capstone. The knowledge she gained from her initialentrepreneurship experiences with the EPICS project played a major role in the capstone projectshe selected. Claudia described the process of creating a capstone project when she said: I knew exactly what I wish I had for [previous project name]. I knew exactly the type of device I wanted. What I wish it could have done. All these different things from having spent all this time fighting against these walls because I couldn't get this one to do this. I couldn't get through this and get this policy and so I knew exactly how to do it. And so I pitched that to then I shifted to
this is a feasible approach, wemay also find it necessary and appropriate to design new classes that are innovation-centric. Thedecision on whether or not to do so will be made as we iteratively evaluate and improve theprogram as it evolves.For the Senior Design/Capstone classes and projects, we will look to expand the participationbeyond CoE and WCOB students to those in other colleges as naturally occurs by virtue of theprojects available.In parallel, we will be developing relationships with local businesses and corporations to developmultidisciplinary innovation-based internships, innovation-focused co-op opportunities, andinnovation-based real-life Senior Design/Capstone projects.In the next iteration of the McMillon Innovation Design
. Malini Natarajarathinam, Texas A&M University Dr. Malini Natarajarathinam joined the faculty of Industrial Distribution Program at Texas A&M Univer- sity in 2007. Natarajarathinam received her Ph.D. in Supply Chain Management from The University of Alabama. She received her Bachelor of Engineering (Major: Industrial and Systems Engineering) from Anna University [Tamilnadu, India], her MS in Industrial Engineering from Auburn University, her MA in Management Science and MS in Applied Statistics from The University of Alabama. She has experi- ence working with many industries such as automotive, chemical distribution etc. on transportation and operations management projects. She works extensively with food banks
objects.Dr. Scott T. Huxtable, Virginia TechMr. Sathyanarayanan Subramanian, Virginia Tech I am a Graduate Mechanical Engineer at Virginia Tech, specializing in Thermal-Fluid Sciences.Prof. Zahed Siddique, University of Oklahoma Zahed Siddique is a Professor of Mechanical Engineering at the School of Aerospace and Mechanical Engineering of University of Oklahoma. His research interest include product family design, advanced material and engineering education. He is interested in motivation of engineering students, peer-to-peer learning, flat learning environments, technology assisted engineering education and experiential learning. He is the coordinator of the industry sponsored capstone from at his school and is the advisor
education, product design for developing areas, and the utilization of renewable resources for the production of chemicals.Ms. Terri Christiansen Bateman , Brigham Young University Terri Bateman is adjunct faculty in the Brigham Young University College of Engineering and Technol- ogy where she has worked with Women in Engineering and Technology at BYU, numerous mechanical engineering capstone senior design teams, and the Compliant Mechanisms Research Group. She received her bachelor’s and master’s degrees in Mechanical Engineering from BYU and also worked at the Ford Motor Company as a manufacturing and design engineer in Automatic Transmission Operations.Prof. Carol J. Ward, Brigham Young University Carol J. Ward is
register and can be calculated using integer division and the modulusoperator. The Verilog code for doing this is shown here:Student Final ProjectThe final project is the capstone for this class. Table III is a list of all video game projects in2017. Table IV shows whether the lab assignments and student projects have a focus on gamingfrom 2015 to 2017. Each project group was formed by students and had between one to threestudents per group. Students can choose their project with a gaming focus or a project of otherfocus using the Basys-3 board. Table V shows the number of student projects with a gamingfocus and other design focus, as well as the project evaluation outcome.Table III List of video game projects in digital system design course in
quarter. They wanted toimprove the users’ experience with added features. The remaining seven groups proposedprojects from a variety of areas: one group worked on an project for a third world country, onegroup looked at determining thyroid levels, one group developed a warning system for a facultymember’s research, one group looked at developing a device for physical therapy, one groupworked with an ME Capstone Design group, one group adapted a workout device for athletes,and one group developed a toy for college students.Students were required to write an in-depth proposal for their project. Their writing abilityshowed marked improvement along with their ability to express the social, environmental,economic, and ethical aspects of their
inter-disciplinary teamwork, instead ofjust ‘working’ in groups together. Students demonstrated their potential to advance the scienceand technology frontier through effective inter-disciplinary collaboration (Exhibit 1).Colleagues from College of Architecture and engineering technology program in the College ofTechnology developed learning objectives and a pedagogical approach before co-teaching thecourse in Fall 2017. As project-intensive inquiry-based learning course it provided a platform forstudents to innovate within a real world project by applying design strategy and technicalsolutions developed in their capstone projects and studios.Exhibit 1Interdisciplinary Collaboration: Students Presenting to Campus Sustainability Committee1.3