. Typically this process involves an applicant responding to an openposition with a cover letter and résumé (or curriculum vitae) often submitted electronically. It isproposed that an engineering portfolio format allows engineering students to showcaseaccomplishments and provides potential employers with greater insight into their competenciesand abilities. The material presented in an applicant’s professional portfolio may includeresearch findings, artifacts from course work, results from extracurricular activities, and personalendeavors. It is proposed that an applicant with a high quality professional portfolio also has highdegrees of creativity, innovation, and initiative, all of which may resonate with future employersand increase their
resultshave direct implications for engineering curriculum design and teaching practices; in short, it iscritical that students are given reasonably difficult tasks that incorporate physical testing, aregiven time for multiple iteration cycles, and are supported as they design.IntroductionEngineering educators seek to engage learners in authentic engineering practices, includingtesting and iterating on designs (NAE and NRC, 2009). Failure is an integral part of the iterationcycle in the engineering design process; designs often fail, that is, do not meet all criteria andconstraints, and a central disciplinary practice in engineering is interpreting this failure asfeedback on those designs (Lottero-Perdue & Parry, 2014; Cunningham & Carlsen
incorporate a material selection design textbook with an associated professional-level software program. Materials selection concepts and methods were interspersed throughoutthe course and integrated into three student-group design projects involving springs, bearings,rotating shafts, and gear elements. This approach resulted in a practical and effective method ofintroducing materials selection into the design process and provided needed skills for the follow-on, senior-level capstone design course. At the end of the class, an easy-to-follow, student-written material selection reference guide (with examples) was produced to provide guidance forfuture classes and students needing a quick overview of the materials selection process and useof the
product development in an engineering context, with an industry- based project, and integrated leadership labs. Incoming students have an average of five years of industry experience.Iowa State Iowa State University offers university-wide Certificates and MinorsUniversity (2009) in Leadership. These include a series of linked 1-credit courses, a project and leadership electives. Engineering students have access to both, and take the same core courses but have engineering specific leadership course electives. Leadership is also explicitly integrated into the graduate attributes of the Construction Engineering program.Southern SMU’s
American Society for Engineering Education, 2016Restructuring Digital Design Courses in Electrical and Computer Engineering Technology Programs, Preparing the Engineer of 2020AbstractAs the complexity of microelectronic systems is steadily increasing, universities must updatetheir curriculum to cope with the increased demands of the industry. New technologies and toolsare frequently introduced into the engineering workplace, and educational programs must find away to integrate many of these into their offerings. In the areas of digital system design, theindustrial use of programmable logic devices (FPGA, CPLD), associated EDA tools and HDLlanguages is increasing rapidly and consequently the demand for highly qualified engineers withthis
Engineering Technology degree will be able to fill a number ofproject management related positions.This research takes a pragmatic approach to develop a course on technical project managementto be used as an elective for an Industrial Engineering Technology Program at a University inLouisiana. The paper proceeds by discussing the method used to carry out the research. Afterthat it provides a summary of the results. The paper concludes by a discussion of the key findingsand provide directions for future development of the course.MethodThis paper uses a case-study approach. The curriculum of an Industrial Engineering Technologyprogram from a university in Louisiana is selected. A faculty team of the EngineeringTechnology department reviewed the
Paper ID #17044Developing a Creative K-12 Manipulative: An ECECS CapstoneDr. Mike Borowczak, Erebus Labs Mike is the chief scientist and founder of Erebus Labs - a Hardware Security and Engineering Outreach company located in Laramie, WY. He is also the Senior Data Scientist at a recently acquired startup. He has worked with university faculty to promote and extend K20 STEM outreach in Ohio, Oregon, Texas and Wyoming. He also has over a decade of industry and research experience - mostly revolving around the semiconductor and bio-informatics industries - with specific experience at Texas Instruments, Intel and
different experiencebackgrounds, we can begin to T-shaped professional development at an extremely high level ofeducation. This is achieved through a redesigned course curriculum that combines lecturematerial with hands on experience.Course Program Due to the limited laboratory availability, the course was limited to only 20 students.Almost immediately the course was filled within the first week. The course consisted of graduatestudents pursuing a degree in Mechanical and Aerospace Engineering with the exception of onestudent pursuing a degree in environmental engineering. The course demographic also containedmostly master students, with the exception of five students pursuing a PhD. In accordance with the previous course structure, the
risk management topics in the presented curriculumto future engineering management graduates. Based on this analysis, they will then makerecommendations on how to incorporate risk management aspects, in an integrated way, into thecurriculum of various courses in their EM program. The goal of conducting this study is to providea systemic or holistic perspective on risk management to engineering management graduates,which will more effectively prepare them to serve in scientific and engineering communities andindustries.IntroductionWith increasing complexity of engineering projects, the focus on risk and risk management is notonly increasing but it is also changing considerably. Risk management in engineering firms thatdeal with large complex
objectives within the curriculum. They recommend BIMfind its way into multiple courses in the construction curriculum. Since this study was local toAuburn, the authors recommended expanding the study’s geographic scope and including moreindustry influence. This study did not identify the specific skills and competencies required forthis integration, a limiting factor for a school planning to implement BIM.Implementation of BIM into university curriculum requires understanding of industryexpectations of CM’s in the field BIM. Without knowing what the desired outcomes are fromindustry, academia cannot properly prepare students in this area. A method of curriculum andcourse development uses an instructional design (ID) process. The first phase of ID is
in constructswithin motivation for first year students during the revision of a first year curriculum. Results of thesurveys can be applied in foundational courses to reveal critical information about students’ motivation,attitudes, and beliefs about engineering and their intention to completing an engineering degree.Although the motivational constructs did not present statistically significant differences between the twoversions of the course, our identification of differences in motivational constructs between the beginningand the end of the semester in both courses replicates findings from prior studies that indicate thatstudents’ motivation decreases over the first year in an engineering program. The finding that the moremature offering
, no. 3, pp. 497–510, 2008.19. A. Gross, J. Harmon, and M. Reidy, Communicating science: The scientific article from the 17th century to thepresent. Oxford, UK: Oxford University Press, 2002.20. J. Fahnestock, “Rhetoric of science: Enriching the discipline,” Technical Communication Quarterly, vol. 14, no.3, pp. 277–286, Summer 2005.21. J. Swales, “On models of applied discourse analysis” in Research and Practice in Professional Discourse, C.Candlin, Ed. Hong Kong: City University of Hong Kong Press, 2002.22. L. Flowerdew, “An integration of corpus-based and genre-based approaches to text analysis in EAP/ESP:countering criticisms against corpus-based methodologies,” English for Specific Purposes, vol. 24, no. 3, pp. 321–332, 2005.23. C. R
Paper ID #16496Teaching an Undergraduate Introductory MATLAB Course: Successful Im-plementation for Student LearningDr. Kyle Frederick Larsen, Eastern Washington University Dr. Larsen currently teaches mechanical engineering at Eastern Washington University. He received his B.S. and M.S. degrees in mechanical engineering from California State University Sacramento and his Ph.D. in mechanical engineering from Brigham Young University.Dr. N.M. A. Hossain, Eastern Washington University Dr. Hossain is an Associate Professor in the Department of Engineering and Design at Eastern Washington University, Cheney, WA. His research
framers from various industry companies, he found that safety is held at the same level of importance as productivity. He is also inter- ested in educational contributions and research opportunities towards integrating field-level construction knowledge in BIM models and exploring their benefits in classroom environment with feedback from jobsite project managers.Dr. Clint D. Martin, Georgia Southern University c American Society for Engineering Education, 2016A Case for International Study in Construction Education and Industry PracticeIntroductionA Construction Management (CM) student at Georgia Southern University was offered a uniqueopportunity to do an internship with a
an Associate Professor of Engineering Education and Mechanical Engineering at Purdue University, joining Purdue in August 2014. He has been teaching mechanics for nearly 20 years, and has worked extensively on the integration and assessment of specific technology interventions in mechanics classes. He was one of the co-leaders in 2013-2014 of the ASEE Virtual Community of Practice (VCP) for mechanics educators across the country. c American Society for Engineering Education, 2016 Analyzing an Abbreviated Dynamics Concept Inventory and Its Role as an Instrument for Assessing Emergent Learning PedagogiesAbstractThe Dynamics Concept Inventory
otherwise leave STEM majors due to lack of engagement and/or motivation1. Despitegrowing interest, many universities struggle with how to best update engineering curriculum andovercome barriers to adequately merge and teach new concepts, like sustainability, in an alreadyfull curriculum2,3.Two methods for integrating sustainability into engineering curriculum predominate theliterature; these methods have been generalized as a stand-alone course-based method and amodular-based method. In the stand-alone course-based method, an engineering programestablishes one or two distinct, stand-alone courses into the students’ curriculum that focus onsustainability in engineering. In the modular-based method, engineering programs integratesustainability
Paper ID #15908Multidisciplinary Vertically Integrated Project (VIP) Teams at the Universityof Hawaii: Challenges and SynergyDr. A Zachary Trimble, University of Hawaii at Manoa A Zachary Trimble is an Assistant Professor of Mechanical Engineering and self described Gizmolo- gist. Zac received his bachelor’s from the University of Utah and both his Masters’ and PhD from Mas- sachusetts Institute of Technology (MIT) for his work on Vibration Energy Harvesting. Currently Zac is pursuing research in precision astronomical instruments, Anisotropy in 3D printing, Frequency Tuning of Vibration Energy Harvesters, automating
engineering profession to think more rigorously about sustainability and theenvironment. A growing number of academics and professionals in CCEM infuse sustainabilityprinciples, including alternative energy, energy efficiency, and others, into their research.Sustainability is generally taught in upper-level classes, yet lower-level classes may includesome supplemental sustainability course. Although undergraduate students may have an interestin sustainability, their exposure to it comes later in their educational curriculum [3]. Sustainability has been identified as a “wicked problem” [4, 6], unstructured and thusdifficult to model, with multiple interconnected and integrated aspects that spans policy domainsand levels of government. Research
Paper ID #14461Evaluation of Engineering & Mathematics Majors’ Riemann Integral Defini-tion Knowledge by Using APOS TheoryDr. Emre Tokgoz, Quinnipiac University Emre Tokgoz is currently an Assistant Professor of Industrial Engineering at Quinnipiac University. He completed a Ph.D. in Mathematics and a Ph.D. in Industrial and Systems Engineering at the University of Oklahoma. His pedagogical research interest includes technology and calculus education of STEM majors. He worked on an IRB approved pedagogical study to observe undergraduate and graduate mathe- matics and engineering students’ calculus and technology
significantly lower down the difficulty for students inlaunching a new project and provide strong support during the whole implementation process. Inparallel, the second approach VIP offers students at different levels a great opportunity to worktogether on building advanced systems. Through VIP programs, students can continuously getinvolved in engineering practice, receive training on diversified skills and develop interests,motivation and concentration. In addition, an adopted mobile laboratory tool, Analog Discovery(AD) kit has greatly facilitated the implementation of these two approaches.KeywordsExperiential Learning, Educational Module Library, Vertical Integration Project, AnalogDiscovery Kit
(Eds.), Physics Education Research Conference, 818, 37–40, AIP (2005).8. T. Dray, B. Edwards and C. A. Manogue, “Bridging the gap between mathematics and physics”, (2008).9. R. Beichner, L. Bernnold, E. Burniston, P. Dali, R. Felder, J. Gastineau, J., et al., Case study of the physics component of an integrated curriculum. Physics Education Research Supplement to American Journal of Physics, 67(7), S16-S24, (1999).10. W. Blum, & M, Niss, Applied mathematical problem solving, modelling, applications, and links to other subject: States, trends and issues in mathematics instruction. Educational Studies in Mathematics, 22(1), 37- 68, (1991).11. J. Mestre, Implications of research on learning for the education of
Management and Engineering Management programs. His courses at these institutions have included Lean Construction, Total Quality Management, Quality Control Systems, and Construction Productivity Improvement. As a Principal Consultant with Harding Associates Inc., of Miami, Dr. Forbes provides lean and quality improvement solutions for the construction, service, and manufacturing industries. His book ”Modern Construction: Lean Project Delivery and Integrated Practices” (Forbes and Ahmed, 2010, CRC Press), is an internationally recognized reference. He has published and presented many papers internationally on the application of lean techniques and quality initiatives in the construction environment. In previous
research focus is developing and teaching Android App development to engineers and entrepreneurs with innovative tools that can be utilized by programming novices.Prof. Luke Nogales, New Mexico State University Luke Nogales loves to help innovators reach their potential. Luke is an Assistant Professor in the En- gineering Technology department at New Mexico State University (NMSU) and an Enterprise Advisor at NMSU’s on-campus incubator, the Arrowhead Center. He teaches core mechanical engineering tech- nology courses and is developing innovation and product development curriculum for the College of Engineering and the College of Business. He is an advisor and co-founder of NMSU’s Aggie Innovation Space. Prior to working
a teaching and learning community that spans the disciplines. 3. Dedicating time in departmental faculty meetings to first personalize the vision of this proposal for their department and then to share teaching pedagogies tried in classes as well as techniques for implementing classroom changes, thus creating learning organizations within each department.The three routines described are focused on continuous learning and improvement. They developnew ideas that lead to changes. Furthermore, they make continual changes to the overallstructure, seek grassroots innovation, and involve people with different views, thus increasingbuy-in among the major stakeholders. The passing of expertise in integrating active learning intoSTEM curriculum is
Paper ID #16543On the Use of Outcomes to Connect Students to an Engineering Identity, Cul-ture, and CommunityProf. Rebecca A. Bates, Minnesota State University, Mankato Rebecca A. Bates received the Ph.D. degree in electrical engineering from the University of Washington in 2004. She also received the M.T.S. degree from Harvard Divinity School in 1993. She is currently a Professor in the Department of Integrated Engineering program at Minnesota State University, Mankato, home of the Iron Range and Twin Cities Engineering programs. She is also a program director at the National Science Foundation for TCUP and HBCU-UP in
accessto physical lab equipment.One hallmark of an engineering technology program is hands-on laboratory experience. In fact,the criteria for accrediting engineering technology programs specify that theory courses shouldbe accompanied by coordinated laboratory experiences. A laboratory course accompanies almostevery electronics engineering technology course in the IET curriculum at East CarolinaUniversity. In these laboratories, students design and construct electronic circuits and machines,then use electrical test equipment to measure the characteristics of the constructed circuits andmachines to compare their findings with theory presented in the corresponding lecture courses. Atypical hands-on laboratory station provides the student with a
of internationalization inhigher education given by Dr. Jane Knight, who described it as a process of integrating aninternational dimension into teaching, research and service.5, 6, 7There have also been many professors from U.S. universities who have gone overseas to helpmake improvements to global higher education, who play important roles in global highereducation, and who provide services for changes to be implemented into the education systemsof other countries. This also serves as an opportunity for the U.S. professors to be able to learnabout other educational systems worldwide and then identify best practices that they canincorporate into their own educational system.8There are also many cultural benefits that can beobtained by the
IOE system integration. Logging to or control from remote servers, cloud or smart phones 15 Review and Finals Table 1 – Internet of Everything Course TopicsAs one can see from the table, the course starts with a quick overview of the general concepts ofthe IoT. Since there are no prerequisites for the course, some time is spent on an overview ofbasic electronics concepts and components including basic control elements and sensors. Focusthen shifts to the Raspberry Pi platform and its operation and capabilities. How one interfaces tothe Raspberry Pi is covered in detail including the interfacing of the Arduino platform. Usinghome automation as a framework to look at IoT
ways of doing things can be discovered” (p. 126). The un-programmatic programs described in this paper seek to create such an environment.Next Steps: Developing an Intellectual Model for Integrating Creative Thinking andProblem Definition with Planning and Implementation ProcessesThe model we have arrived at broadens the back end of the entrepreneurial process byexpanding, deepening, and diversifying the activities that precede the creation of a business plan.The model is depicted visually below. STEP 1 - Socio Technical Systems Thinking! STEP 2 – Design Thinking Culture! Technology! STEP 5 – Business Plan Organiza3on! STEP 3 – Customer
ofcollaboration technologies. Although there has been great emphasis on developing collaborationcompetencies in the engineering curriculum, empirical evidence of successful strategies fordistributed team settings is scarce. As an attempt to fill this gap this study investigates theimpact of a scalable intervention in developing virtual collaboration skills. The intervention,based on instructional scaffolds embedded with collaboration technologies, is aimed atsupporting specific processes including planning, goal setting, clarifying goals and expectations,communication, coordination and progress monitoring. A quasi-experimental design was used toevaluate the impact of the intervention on student teamwork skills. Data from 278 graduate andundergraduate