Paper ID #44340Board 84: A Teamwork-based Electrical & Computer Engineering IntroductoryLab CourseDr. Ying Lin, Western Washington University Ying Lin has been with the faculty of the Engineering and Design Department at Western Washington University since September 2010 after she taught for two years at SUNY, New Platz. She received her BS, MS, and Ph.D. in Electrical Engineering and MS in Applied Statistics.Prof. Todd D. Morton, Western Washington University Todd Morton has been teaching the upper level embedded systems and senior project courses for Western Washington University’s Electronics Engineering Technology
experience that closely matches that encountered by professional design engineers. And we can seek to develop those communication skills that are an inherent and vital part of engineering activity. Let us begin by examining the professional functions of an engineering technologist upon being given an open-ended design project. The ET will invariably work in a design group; will initially research the project fully; will create and consider several possible design paths; will prepare a Design Proposal and Cost Estimate that is subject to (client) approval; will carefully schedule the project work which may include prototyping; will prepare formal Progress Reports; may develop a
in the highlands of northern Ecuador with student teams responsible forevaluating local conditions, providing education to local stakeholders, and assessing the impact of theproject on both the community and the team members involved in the project. Communication of surveyresults helped the village to identify municipal project priorities that would unify the community. Thissocial process, initiated by the student visit, resulted in successful attainment of a grant to construct awater filtration facility for the community based on the water quality sampling test results and on a pilot-scale technology demonstration of slow sand filtration.IntroductionThe Tufts University chapter of Engineers-Without-Borders (EWB)1-3 was founded with two
Community Member First, Researcher Second: Tensions in Authentic Engineering Education Outreach (WIP) Yuliana Flores, University of Washington Dr. Jennifer A. Turns, University of WashingtonAbstract Community engagement and outreach in engineering education can create tensions forresearchers who are also community members, particularly when navigating dual identities andresponsibilities. This paper examines the complexities of community engagement through anautoethnographic study of a high school engineering outreach project on usability testing. Theproject, which began from personal curiosity and later connected to doctoral research, illustrateshow community
communicators, and have the skills towork globally and in multidisciplinary teams. For evaluation purposes, the Universityperiodically sends out surveys in which engineering alumni are asked about how well preparedthey perceive themselves to be for their post-graduation employment. Using the results from the2010 administration of this survey, this study seeks to answer the following questions: (1) Whatare alumni’s perceptions of their preparedness in these areas: ethics, innovation, communication,project management, global and international work, and multidisciplinary teamwork? (2) Canclusters be identified from the survey results? (3) What undergraduate engineering experienceshelped prepare them for these skills, and in what ways do they believe the
minorities and women, find projects to helpthose with disabilities immediately relevant and highly engaging. The Hands-on Experiencesin Rehabilitation Engineering Program (HERE) provides a stimulating, hands-on learningexperience while fostering mentoring among students at different ages and levels ofengineering training. The student participants – frequently from the poorest and least servedcommunities of Los Angeles, range from 6th graders in Compton, CA to graduate students andinstructors at the California State University, Los Angeles and the University of SouthernCalifornia. HERE provides direct contact between students and individuals with disabilities inthe context of team design projects. Projects often build upon earlier student work, with
. Especiallycommercially available computer algebra systems have become ubiquitous tools, althoughthere is some concern that they may detract students from understanding core mathematicalconcepts. Such an undesirable effect can be avoided by making use of high-levelprogramming languages in mathematics education. Computer programming does not onlystrengthen problem solving skills and logical and sequential reasoning, it also provides a highdegree of flexibility and an ample scope for applications in teaching and learning.Here we present an example of the synergistic effect of the interaction of computerprogramming and mathematics in undergraduate engineering education within the frameworkof team-oriented project-based learning. The students of an Engineering
achieve criticalcognitive learning objectives - such as fundamental design principles, basic engineering analysis,basic machine design, and design for manufacturing methods, as well as affective learningoutcomes - such as project management and teamwork skills, engineer identity formation, etc. Toachieve the desired learning outcomes through a student-centered pedagogical approach, thecourse integrates traditional lectures and assignments, with Project-based hands-on learningexperiences in the lab.Project-based learning (PBL) is rooted in the science of how people learn throughexperience[1][2][3], also grounded in social constructivist learning theory [4]. As aninstructional method under the umbrella of experiential learning, PBL provides
. Page 12.264.1© American Society for Engineering Education, 2007 Assessing Both Technical and Artistic Skills in Digital Media Courses within a Technology ProgramAbstractDigital media courses are usually found in art or communications departments where theinstructional emphasis is weighted toward artistic and creative aspects of project development. Indigital media courses offered in departments oriented to the technical professions, such ascomputer science and engineering technology, the instructional emphasis is usually on technicalskills. Regardless of where these courses are housed, graduates working in animation, 3Dvisualization, and interactive media fields are finding that an ability to apply both
modeling from an assembly of 3Dgeometry to that of a repository of project information and introduce a fully model-centric designprocess. The concept underlying BIM is using digital technologies to integrate all project data inorder “to build a building virtually prior to building it physically, in order to work out problems,and simulate and analyze potential impacts” 2.Definitions of BIM vary, but common to most is an emphasis on the integration of project data.The American Institute of Architects (AIA) defined BIM as “a model-based technology linkedwith a database of project information” 3. More specifically, BIM has been defined as acombination of graphical project data such as 2D and 3D drawings and non-graphicalinformation including
Paper ID #29715A Model for a Faculty Development Course Redesign Summer Working GroupDr. Michelle M Blum, Syracuse University Dr. Blum is interested in research in improving undergraduate engineering education; including develop- ment of inquiry based activities for first year engineering courses, improvement of student design projects, hands-on activities, professional skills development and inclusion and outreach activities. Dr. Blum also specializes in high performance materials development and characterization for tribological (friction and wear), structural, and biomedical applications.Dr. Katie D. Cadwell, Syracuse
Marchetti, Rochester Institute of Technology (COS) Dr. Carol Marchetti is an Associate Professor of Statistics at Rochester Institute of Technology, where she teaches introductory and advanced undergraduate statistics courses and conducts research in statistics education, deaf education, and online learning. She is a co-PI on RIT’s NSF ADVANCE IT project, Connect@RIT, and leads grant activities in the Human Resources strategic approach area.Prof. Maureen S. Valentine PE, Rochester Institute of Technology (CAST) Maureen Valentine, P.E., has been a faculty member at RIT for more than 21 years and held the position of Department Chair for the Department of Civil Engineering Technology, Environmental Management, and Safety
and practice. In our engineering program,senior engineering students are required to prepare their senior design proposals in a fallsemester and complete the project in the following spring semester. The topics of senior designprojects are chosen by students, not professors. Since last year, each team is required to evaluatethe project from a sustainability point of view in the final report. Accordingly, a new approach isproposed in this paper to enhance students’ understanding of sustainable engineering designprinciples and to help them synthesize sustainability concepts already introduced in previouscourses. This new process starts right after the students select the project topic and form inteams. A six-factor table proposed by Pawley et
computing in their education. This premise served as the basis for a projectfunded by the National Science Foundation CISE Pathways to Revitalized UndergraduateComputing Education (CPATH) initiative in 2007. The project is being carried out by theauthors comprised of a multidisciplinary team of faculty from six departments in the College ofEngineering and one from the College of Education at NC State University.The project has two overarching goals: (1) create a computational thinking thread in theengineering curriculum that spans from the freshman to senior years and bridges the dividebetween freshman year computing and computing in upper-level classes, and (2) enable studentsto take computing competency to the next level, where they are able to
collaborative research, they largely did not do sobecause of a lack of time, support, and concerns regarding conflict with potential collaborators.Suggestions to promote collaborative research among graduate students include providingspecific venues online and at conferences to encourage inter-student interaction and facilitatecollaborative work.IntroductionResearchers participate in collaborative projects to promote innovation,1 share resources andknowledge,2,3 and develop new products.4 Collaborations also provide researchers with theopportunity to learn through cooperation.2,5 For a given project, the collaboration may becomposed of researchers within the same discipline at the same institution, researchers acrossdisciplines at the same institutions
Page 15.604.2the introduction of these methods, we contend that one of the most challenging aspects ofteaching BME 271 is helping students to transfer basic skills in math and science to novelapplications in biomechanics. Specifically, we have identified conceptual questions involvingvector projections to be particularly problematic for many students, limiting their understandingof higher-level concepts that build on these skills.In order to support applied skills in BME 271, we have implemented several methods to engagestudents in a process of review and assessment intended to diagnose and address commonmisconceptions associated with vector analysis. These methods include online coursewaredeveloped by the VaNTH ERC1, PRS to enhance formative
. Page 24.154.1 c American Society for Engineering Education, 2014 An energy assessment of a large grain storage and transfer facility in Michigan: An industry, university and public utility company collaborative effort resulting in energy savings outcomesABSTRACT: In the spring of 2012 Lawrence Technological University was approached by DTEEnergy (the local utility company) with funding to have students and faculty work on an appliedresearch project with the Michigan Agricultural Commodities, Inc. (MAC) to undertake anenergy assessment of the MAC Marlette, MI facilities. The MAC is a private company in thebusiness of buying, selling, storage and distribution of agricultural commodities such
to design anentire system.2,8,15 This means that students must learn the team building and communicationskills to work with others outside of their own discipline. The Accreditation Board for Engineer-ing Technology (ABET) recognizes the importance of these abilities in its Criteria for Accredit-ing Engineering Programs: “Engineering programs must demonstrate that their graduates havean ability to function on multi-disciplinary teams”.1,5 The study of robotics provides an excellentinstrument for teaching and learning about working in multidisciplinary teams.The overall goal of this project is the development of a comprehensive undergraduate course inrobotics that emphasizes multidisciplinary teamwork by encompassing many of the diverse
Session 1843 Humanitarian Engineering at the Colorado School of Mines: An Example of Multidisciplinary Engineering Joan Gosink, Juan Lucena, Barbara Moskal Colorado School of Mines Golden, Colorado 80401Introduction:With the support of a grant from the William and Flora Hewlett Foundation, we aredeveloping a new program in Humanitarian Engineering at the Colorado School of Mines(CSM). The goal of this project is the nurturing of a new cadre of engineers, sensitive tosocial contexts, committed and qualified to serve humanity by contributing to the
teacher at Josiah High School. He has been teaching technology courses. He attended the CAPSULE professional development for teachers in summer 2010. He implemented a capstone project in his technology class by getting his students to design a low cost and portable USB power charger to charge cell phones.Ms. Kristina Buenafe, Josiah Quincy High School Kristina Buenafe is teacher at Josiah High School. She has been teaching mathematics courses. She at- tended the CAPSULE professional development for teachers in summer 2010. She implemented capstone projects in her geometry class by getting his students to design a three-legged chair.Ms. Jessica Chin, Northeastern University Jessica Chin is a Ph.D. candidate. She has
Mechanical Engineering Laboratory courses. In addition, Dr. Ayala has had the opportunity to work for a number of engineering consulting companies, which have given him an important perspective and exposure to the industry. He has been directly involved in at least 20 different engineering projects related to a wide range of industries from the petroleum and natural gas industry to brewing and newspaper industries. Dr. Ayala has provided service to professional organizations such as ASME. Since 2008 he has been a member of the Committee of Spanish Translation of ASME Codes and the ASME Subcommittee on Piping and Pipelines in Spanish. Under both memberships, the following Codes have been translated: ASME B31.3, ASME
providementoring on specific topics or with teams. The most significant number of corporate volunteersare engaged in the twice-per-semester design reviews. To ensure quality deliverables, theprogram has long hosted design reviews, in which volunteers from industry serve as expertpanelists, listening to the student teams’ presentations and giving feedback and suggestions toimprove the projects and support the students’ professional development. Engaging industry indesign reviews has led to a number of positive outcomes, including translation of the moreengaged design reviewers into volunteer team advisors, closer connection with industry partnersyielding financial sponsorships, and more opportunities for students to engage with potentialemployers. As the
students for engineering work after they graduate, especially as they become“innovators (who) seek out new solutions to problems facing our society” [2] many universitiesoffer experiential coursework, such as senior design (a required team-based capstone project),and extracurriculars (e.g., Baja SAE and Design, Build, Fly competition teams). These activitiesand courses provide the collaborative, hands-on, meaningful application of engineering learningthat students need. Explicit instruction in team citizenship, shared leadership, and projectmanagement as well as the other capabilities and knowledge needed by working engineers isusually beyond the scope of these courses and experiences, yet are critical to the completeengineer. To support
Paper ID #33992Integrating Laser-scanning Technology into a Construction Engineeringand Management CurriculumDr. Chengyi Zhang P.E., University of Wyoming Dr. Chengyi Zhang is currently an Assistant Professor of Construction Management at the University of Wyoming. Before joining the UWYO, he worked as an Associate Professor of Construction Manage- ment at Eastern Kentucky University. He has over 14 years of civil engineering and construction project management experience.Prof. David Arditi, Illinois Institute of Technology Dr. David Arditi is currently Professor of Civil and Architectural Engineering at Illinois
skillsets to continue workingcollaboratively in a virtual environment, and the class was more effective at including externalstakeholders in the process.However, several challenges also became apparent. The loose structure of the course, hastyadjustment of the project scope to accommodate remote work, and loss of access to informationand resources had a significant impact on the students’ experiences. Final project outcomes werelimited by circumstances, since the second semester is focused on fabrication and test. For somestudents, the experience and expectations for the more hands-on part of the project wereparticularly impacted. Added challenges associated with grieving the loss of a final semester,graduation ceremonies, and uncertain career
annual earnings. However, minorities continue to be underrepresented in scienceand engineering fields as reported by the National Science Board, Science & EngineeringIndicators. This work-in-progress project presents our attempts to tackle the challenges andimprove undergraduate training in EE program. Considering that the next generation electricalengineers should be exposed to the latest technology and have significant technical and scientificcapabilities, deep interdisciplinary understandings, and soft skills such as self-learning abilitiesand communication competence, Cyber-physical systems (CPS)/Internet of Things (IoT), thefeasible and effective platforms to present the undergraduate EE students with various sub-disciplines of EE, are
Paper ID #32831Building a Functional Cardiograph Over Four Semesters, Part 3:Estimating Heart Rate and Respiration Rate in the Time and FrequencyDomains Using MATLABDr. Gail Baura, Loyola University Chicago Dr. Gail Baura is a Professor and Director of Engineering at Loyola University Chicago. While creating the curriculum for this new program, she embedded multi-semester projects to increase student engage- ment and performance. Previously, she was a Professor of Medical Devices at Keck Graduate Institute of Applied Life Sciences, which is one of the Claremont Colleges. She received her BS Electrical Engi- neering degree
is focuses on engineering pathways, career and technical education, digital thread, cyber physical systems, mechatronics, digital manufacturing, broadening participation, and engineering education. She is a Director of Mechatronics and Digital Manufacturing Lab at ODU and a lead of Area of Specialization Mechatronics Systems Design. She worked as a Visiting Researcher at Commonwealth Center for Advanced Manufacturing in Disputanta, VA on projects focusing on digital thread and cyber security of manufacturing systems. She has funded research in broadening participation efforts of underrepresented students in STEM funded by U.S. Department of Education, focusing on com- puter science and cybersecurity pathways, and
classes, and to what extent it helps students tomeet their objectives and quality of their project work. Since our university operates on a quarteracademic system, each course needs to be completed in just 11 weeks. The number of membersin each group of a capstone is either 3 or 4. One example of the project dealing with anautomated bed clearing mechanism of a 3D printing machine is presented in this paper. A groupof 4 students developed two ideas of this system. The design details of one of these ideas ispresented in this paper. The 3D printer in this example uses Fused Deposition Modelling (FDM)process. Many automotive, aerospace and other sectors are focusing on using functional 3Dprinted parts to either reduce the weight or to replace metal
of their organization offers classes to teach art to their students. Because of the range in disabilities of their students, traditional easels did not satisfy their needs. Thus, in the Fall of 2016, the My Possibilities Art Table project began. The objective of this project is to develop a motorized easel (i.e. art table) that will allow My Possibilities’ students to self-sufficiently operate the table. The team solved this problem by developing an art table that would be wheelchair accessible, contain simple controls, and include vertical and rotational motion. In order to deliver the finalized product, the team segmented the system into subsystems to improve the design process. These systems included a