and WSN projects that ourundergraduate computer engineering students have done in their senior capstone course.IntroductionA smart home uses internet-connected devices to enable the remote monitoring and managementof appliances and systems. An efficient and smart home is a ubiquitous computing system thatcontrols any device in the house from anyplace. The field of smart home automation andsecurity is growing rapidly as many new ideas and possibilities are emerging from new advancesin technology. For example, through the voice recognition service, it is possible to control thedevices in the house by voice and remotely control the devices in the home using the individualsmartphone through the remote-control system. As the usage of smart home
-endedproblem-solving is because of the limited guidance or literature on how to effectively integratewicked, real-world problems into engineering courses at the level of technical core.1.1 Current Approaches: Capstone Design and Co-op/InternshipIt is known that capstone experiences instituted in various formats do provide an effectiveculminating opportunity to engineering students for gaining a real-world experience with theengineering design process. However, since capstone projects come at the very last semester(s)and since each project cannot cover the whole range of technical areas that students are expectedto learn in their degree program, this approach cannot be the only solution for creating learningexperiences that support the growth of
, robust control, time delay, compensator design for continuous-time and discrete-time systems, analog or digital filter design, and hybrid power system design. ©American Society for Engineering Education, 2023 Hybrid Fuel-cell and Battery Power Plant DesignAbstractThe push for more sustainable energy sources increases as energy demand increases. This paperpresents the configuration of a hydrogen fuel cell and a battery to increase the efficiency of apractical power source for a sustained Direct Current (DC) load for the milestones of a seniorElectrical Engineering capstone project. The goal is to design a switching schedule between abattery and the hydrogen fuel cell to run the load. The
graduate research program. At Trine University, a small private school in An- gola, Indiana, he focused on undergraduate education while teaching ten different courses ranging from introductory freshman courses to senior capstone. Scott also served as an advisor to many different un- dergraduate research projects. He then moved on to Michigan State University and took a position as a teaching specialist concentrating on undergraduate classroom instruction. Scott finally settled at York College of Pennsylvania. He has been at York College for over ten years and feels as if he has found a place where the focus on teaching and students aligns well with his background and interests.Dr. Stephen Andrew Wilkerson, P.E., York
programming and control techniques, the Robotics major willalso prepare students with the knowledge in mechanical modeling of robots, sensing andactuation, and embedded system design. Therefore, we developed the engineering and roboticscurricula with several cross-listed courses including Mechatronics, Embedded Systems,Computer Aided Engineering Design, and Engineering Economics, in addition to the commonfreshmen-year intro to programming and intro to engineering lab as well as some common mathand physics courses. Both majors require students to complete a two-semester-long teamwork-based capstone design project. We anticipate that engineering students and robotics students willcollaborate on some capstone design projects although the capstone
engineering design documentation through working on a design project,and senior capstone design. Freshmen students don’t have enough engineering knowledge to do “green”design, they were informed by learning different types of energy sources and their comparison. They werenot required to apply them due to the lack of essential engineering knowledge at the first semester of theirfreshmen year. The freshmen energy education falls into category 2) mentioned above which does notrequire students to implement it to their practice. Junior engineering students have learned enoughengineering knowledge which equips the students to study and find the strategies to “go green” in theirdesign projects. After practicing “green” requirements in engineering design
Photovoice with Entrepreneurial Design Projects as a High Impact Practice in Engineering Technology EducationIn the recent years, interdisciplinary research has become a necessary tool for successfullyfinding solutions to real-world problems. Yet, in the undergraduate engineering technologycurriculum interdisciplinary projects is extremely limited (if used at all), particularly in non-capstone project courses. In this study we present findings and lessons learned from aninterdisciplinary research project that integrates entrepreneurial mindset, bio-inspired design, andart into in an engineering technology classroom in the sophomore-year of the post-secondaryengineering technology education. Engineering
implies that the flow does not vary across the cross-sectional planeof the test section. It is crucial to achieving uniform flow because this condition occurs most oftenin realistic aerodynamic applications. After the test section, the air exits into the diffuser andthrough the fan to the right. As a Senior Capstone project for the mechanical engineering program in 2021, a team offive undergraduate students worked with a faculty advisor to utilize the wind tunnel. Theydeveloped a data acquisition system to experimentally determine the aerodynamic properties ofthe lift and drag force of objects in external flow [1], [2]. Figure 2 shows below a two-dimensional airfoil with air flowing from left to right. Thisillustrates the concept
sostudents have more opportunities to develop entrepreneurial knowledge, skills, and attitudes, andbecome better prepared for startup weekends and other projects.We are developing a Stage Gate model (e.g., [11], [12], [13]) for Palm Institute to guide andsupport student projects across the four years of undergraduate education. Project concepts mightoriginate in informal conversations, courses, or co-curricular workshops. Projects might developthrough early stages during a startup weekend or as course assignments or projects. Promisingprojects might develop as independent study courses, or capstone projects, and be supported withequipment, materials, space, or other resources.AcknowledgementsThis work was supported by the Naa Amerley Palm Education
from OSU in Electrical and Computer Engineering with research focus in integrated nonlinear optics. His engineering education research interests include Teaching Assistants (TAs), first-year engineering, systematic literature reviews, personality theory, and instrument validation. As a TA he has taught first- year engineering for 10 years. ©American Society for Engineering Education, 2023 GIFTS: Exploration Activities for Just-in-Time Learning in a First-Year Engineering Robotics Design-Build Project Abstract This GIFTS paper will provide an example of how Just-in-Time (JIT) learning can be used as a technique in a first-year
Advanced Graduate Project Spring ‘98 16.602 VHDL Based Digital Design Spring ‘98 16.517 MMIC Design & Fabrication Fall ‘00 16.210 Semiconductor Basics (at ADI) Spring ‘01 16.265 Logic Design Sum. ‘01 16.743 M.S
Native American Engineering StudentsABSTRACTEngineering students have limited opportunities for experiential learning, especially at TribalColleges and Universities, where engineering programs tend to be small, and resources areextremely limited. Typically, the first and senior years of a student's engineering educationjourney are infused with hands-on projects and capstone courses. However, the sophomore andjunior years generally need more opportunities for active learning, gaining professional skills,and developing a sense of professional practice. Also, scholars have increasingly realized thatarts subjects help students understand connections between different disciplines from acomprehensive perspective.This study highlights findings from
approach of Experiential Learning (EL), Entrepreneurial Mindset(EM), and real-world application using the entrepreneurially minded curriculum, for engineeringand technology courses.The purpose of this study is to highlight findings and lessons learned because of integrating anentrepreneurially minded interdisciplinary project (including bio-inspired design and STEAM)into the engineering technology classroom. Specifically, curriculum changes were implementedinto a course on programming industrial robots (as part of the minor in robotics). This course isdesigned for teaching technology students how to install, maintain, and work with industrialrobots through real-world applications. This course also assists students in discovering thecapability of
. Lutsenko, N. Seminikhyna and T. Svyrydiuk, “FosteringIntercultural Communicative Competence and Student Autonomy through Project-BasedLearning,” AWEJ Special Issue on Communication and Language in Virtual Spaces, pp.130-143, January 2023, DOI: 10.24093/awej/comm1.10[7] T. Fortune, S. Borkovic, A. Bhopti, R. Somoza, H. Chan Nhan and S. Rangwala,“Transformative Learning Through International Project-Based Learning in the Global South:Applying a Students-as-Partners Lens to a “High-Impact” Capstone,” Journal of Studies inInternational Education, vol. 23, no. 1, pp.49-65, November 2018,DOI: 10.1177/1028315318814571[8] P. P. Srinivasa, N.C. Niranjan and B.R. Shrinivasa, “Project Based Learning (PBL):Issues Faced by Faculty for its Effective
Paper ID #38369WIP: Designing disciplinary projects in an honors first-year engineeringcourse to improve retention and participation of first-year students.Dr. Joseph A. Lyon, Purdue University at West Lafayette (COE) Dr. Joseph A. Lyon is a lecturer in the College of Engineering at Purdue University. He holds a Ph.D. in engineering education, an M.S. in industrial engineering, and a B.S. in Agricultural and Biological Engineering from Purdue University. His research interests include models and modeling, computational thinking, and computation in engineering education.Dr. Jacqueline Callihan Linnes, Purdue University at West
Paper ID #38182Board 207: ACCESS in STEM: An S-STEM Project Supporting Economi-callyDisadvantaged STEM-Interested Students in Their First Two YearsErica ClineMenaka AbrahamSarah AlaeiDr. Heather Dillon, University of Washington, Tacoma Dr. Heather Dillon is Professor and Chair of Mechanical Engineering at the University of Washington Tacoma. Her research team is working on energy efficiency, renewable energy, fundamental heat transfer, and engineering education. Before joining academia, she worked for the Pacific Northwest National Laboratory (PNNL) as a senior research engineer working on both energy efficiency and renewable
Paper ID #36892Teaching engineering design through a team-based multi-disciplinaryhumanitarian engineering project: effects on engineering identity andsense of belongingDr. Shannon Barker, University of Virginia Dr. Shannon Barker completed her PhD at the University of Alabama at Birmingham, and completed two post-doctoral fellowships at the University of Washington and Ecole Polytechnique Federale de Lausanne, specializing in gene delivery. Shannon has been in graduate higher education leadership for six years both at the Georgia Institute of Technology and the University of Virginia, and is currently Associate Profes
solving real-world problems. He directs the operations of the Institute-wide Georgia Tech Capstone Design Expo, which highlights projects created by over 2000 Georgia Tech seniors graduating students on an annual basis. He serves as the faculty advisor for the student organization of over 100 student volunteers who all train, staff, and manage the operations of Georgia Tech’s Flowers Invention Studio – one of the nation’s premier volunteer student-run makerspace, open to all of the Georgia Tech community. Dr. Jariwala’s research interests are in the field of makerspaces, evidence-based design education, and advanced additive manufacturing process. During his Ph.D. studies, he was also a participant of the
addressing the demand to prepareengineers ready to grapple with complex global problems and effectively seek nuancedunderstandings in 2030 and beyond.New model for a holistic capstone experienceA decade ago, the Electrical Engineering Department at University of South Florida (USF)had one faculty member advising approximately 80% of the capstone projects. Initial internalevaluation of the capstone design courses and projects showed a disconnect between the twosemesters of the capstone design as well as project management and assessment challenges.In 2012, through a significant departmental-level reform, approximately 40% of the entiredepartment's full-time faculty got involved in capstone design. In the same year, a newcurriculum development
DesignIt has often been the bane of many employers that traditionally trained engineers lackunderstanding in the skills necessary to succeed in business. Often the engineer understands thetechnology, but not how that technology can benefit the business. It is skills like teamwork,communication, project management and financial implications of design, etc. that are missingfrom the traditional engineering education (Felder, Vest, etc). Authors like Sheppard et. al. saysthe classroom should be modified to allow ways these skills can be taught.Around 2010, a movement was started at Stevens to infuse Senior Capstone Design experiencewith necessary skills outside of the major discipline. However, the discipline specific SeniorCapstone Design Advisors
assignments facilitate students being able to learnremotely. Applications and lab projects can be controlled using IoT capabilities. As processorshave improved more affordable microprocessor or computer alternatives such as Arduino,Raspberry Pi and other similar platforms have become more commonly utilized in educationalsettings. In this project, IoT concepts, educational materials and methods are introduced tostudents through various avenues such as Independent Study courses, Capstone Senior Designcourses and Sensors courses.BackgroundFigure 1 shows a simple representation of an IoT system that utilizes a Raspberry Pi. TheRaspberry Pi could be replaced by an Arduino, Field Programmable Gate Array (FPGA), or aProgrammable Logic Controller (PLC). In
Raise Your Hand. The program brought together severalundergraduate capstone design teams, multiple sub-teams connected through a VerticallyIntegrated Projects (VIP) team, undergraduate researchers, extracurricular high school students,and a graduate student. The contribution of this work is the description of the evolving projectmanagements strategies that project leaders used to organize program efforts and integrate thestudent work for a successful deployment of the exhibit in Fall 2022.In this paper, we discuss the project context, team composition, learning outcomes, projectstages, and key techniques that coordinated and structured the project. The project contextdescribes the design vision for the Raise Your Hand exhibit, which was
design courses are typically project-based, where students work inteams to address a “customer-provided” problem and develop real working solutions. This typeof project-based learning requires that students synthesize knowledge and apply skills to anopen-ended design problem. The open-ended nature of “customer-provided” problems thatstudents encounter in capstone design courses contrasts with the structured and constrained“instructor-provided” problems seen in their earlier coursework [1], [2]. Solving complex,unstructured problems is an essential skill for a working engineer, but it requires a differentskillset than that which is needed to solve the standard textbook problems typically seen inclassrooms [2]–[6]. Solutions to textbook problems
can result in conflict or issues when completing project tasks. AtUniversity of Indianapolis’ R.B. Annis School of Engineering, we noticed that student interestlevel in a project topic is a significant factor toward commitment and contribution to projectcompletion.Our institution’s senior capstone course requires students to participate in design projects asmembers of multidisciplinary teams solving open-ended real-world problems. Assigning studentsto projects can be a complicated process, especially considering student preferences, majors,skills, and the needs/nature of the project. We are a young program continuing to grow and areinterested in a systematic approach to assign teams. Currently, a rank-based survey is used togauge student
utilizecompetencies developed in the first three years of the curriculum in the solution of a complexdesign problem.Educational excellence requires exposing students to the current edge of research. To ensure thatstudent projects are along the same trajectory that the industry is moving, educators mustcontinually introduce emerging techniques, practices, and applications into the curriculum. Thefields of Internet of Things (IoT) and Wireless Sensor Networks (WSN) are growing rapidly, andthere is increasing interest in providing undergraduate students with a foundation in these areas.This paper presents IoT and WSN projects that our undergraduate computer and electricalengineering students have done in their senior capstone course in wildfire
(CSUB). He recei ©American Society for Engineering Education, 2023 CORE FEATURE EXTRACTION WITH COMPUTER VISIONI. Introduction This work details the senior project capstone experience of a group of undergraduatestudents at the California State University, Bakersfield (CSUB), a medium-size, comprehensive,Hispanic Serving Institution (HSI). The work is novel and potentially commercializable in thefield of energy conversion and petrochemical extraction. A thorough description of theirmethodology is provided, and their results show promise. In addition, we discuss the curriculumand project management structure that enabled an undergraduate senior project group to interfacewith oil and gas companies to
thecertificate, both undergraduate and graduate students are required to attend 6 standards-relatedseminars. The seminar series is described later in this paper.Other requirements for undergraduate students include: • Completing a total of 12 credits (4 lecture courses or a combination of lectures and labs) with a grade of “B” or better in each course. The certificate courses may be selected from a list of MEEN, CEEN, and AEEN courses. • Completing a senior capstone project that has a significant component focused on standards.Graduate student requirements are similar with the following differences: • Completing a total of 9 credits (3 courses) with a grade of “B” or better in each course. The certificate courses are
a scanning electron microscope (SEM). There are several points ofcontention that make fatigue testing difficult while being observed by an SEM: (i) Building afatigue testing machine small enough to fit within the SEM chamber is a different task; (ii)Building a fatigue tester small enough to fit within the SEM is feasible but most of the onescreated for market use are costly; (iii) Building a fatigue tester that can still apply the loadscorrectly to the sample and at the correct frequency is a difficult task; and (iv) A system thatapplies cyclic loads to a sample will create vibrations and will obscure the SEM from correctlyobserving the sample. The goal of this capstone project was to design a micro-fatigue tester forin-situ monitoring of
points (referred to here as snapshots) were alsoincluded that encouraged effective project management. Students were required to review eachother’s designs, and students in the follow-on capstone course also provided feedback to theteams as their designs progressed. In this work-in-progress paper, details about the coursestructure and materials are presented, learning assessment approaches are discussed, andpreliminary assessment results from the initial offering are described.Introduction and MotivationEvery ABET-accredited engineering program is required to include “a culminating majorengineering design experience that 1) incorporates appropriate engineering standards andmultiple constraints, and 2) is based on the knowledge and skills
infiltrates many areas of engineering andscience. Yet within engineering programs, students often have few opportunities to developexpertise in data science or even to explore how data science is relevant to their degreespecializations. This paper reports on an NSF-funded study of a program that prepares STEMstudents to engage with data science in coursework and then mentors them as they secureinternships and complete a capstone that demonstrates their application of data science expertise.Drawing on a mixed-methods study, including student reflections, capstone project assessment,and survey reporting, this paper suggests not only that students make deep connections betweentheir existing majors and data science but also that students trained in our