. c American Society for Engineering Education, 2018 Aksense: A General-Purpose Wireless Controlling & Monitoring Device for Teaching First-Year Electrical and Computer Engineering FIRST-YEAR PROGRAMS DIVISION CALL FOR PAPERS1. AbstractThis Work-in-Progress paper describes the integration of Aksense, a low-cost general-purpose wireless controlling and monitoring device, within the first-yearmultidisciplinary Introduction to Engineering at Sonoma State University. Our focus inthis project has been creating an affordable educational open source wireless platformthat enables first-year engineering and non-engineering students with any background todesign their own engaging
. Inthis paper we will present the curriculum module, student activities, and an evaluation of studentlearning.IntroductionRecruiting and retaining minority students are major concerns of educational institution acrossthe United States. Furthermore, as technology becomes increasingly important in the globalmarket, there is an ever growing need for minority engineers to support this market1. Asinternational participation in advanced science and engineering increases, and as our nationalpopulation becomes more diverse, it becomes even more important to provide quality educationto [minorities]2.Literature review suggests the growing importance of minority recruitment and retention.Presidents of universities and deans of colleges identify minority
competitions as an educational tool, competitions have been shown to be usefulin promoting student interest in engineering and science.31,32 A NSF report examiningcompetitions indicated that the participation rate of girls in competitions was comparable to thatof boys.32 In addition, other studies have noted that both genders felt that competitions wereenjoyable and integral to the class atmosphere and that competition competency between malesand females was similar.23 Our observations of the summer camps have indicated that couplingcollaborative teamwork with the competitions effectively engages all participants in the activitiesregardless of gender or race.Challenges and Lessons Learned to Date
Entrepreneurshipwas a prerequisite to the Engineering Service Learning course, required of first semester juniors.In the original curriculum design, students in Engineering Entrepreneurship were tasked withproviding an entrepreneurial solution for a predetermined client. The course instructors weretakes with identifying an acceptable community partner for the class. The project was thencarried into Engineering Service Learning in the following academic year. Engineering Servicelearning was designed to assist the students with the design, testing and implementation stages ofthe engineering design process.BackgroundThe FGCU mission statement includes statements regarding “valuing public service”,“encouraging civic responsibility” and a requirement of community
comprehensive definition of it. The model provides a comprehensive overview of educationalenvironments and considers not only the internal factors that influence a particular curriculum orprogram, but also several external stakeholders that have an impact on them. This model has beenused previously in research about courses, degree programs, college and even institutions as awhole [9]–[15]. The academic plan model recognizes the importance of multiple internal andexternal key stakeholders and their roles influence decision-making processes. Figure 1 providesan overview of the academic plan model.The academic plan model provided a better understanding of how to holistically approach ourevaluation and provided input on the way we developed our focus
. Forassessment to be formative, facilitating feedback to students to nurture improvement such thatstudents will perform better in the future, the assessment tasks would have to be progressive /continuous. These tasks can be weekly short WebCT quizzes, fortnightly short reports, and shortwritten tests. Figure 2: Aligning Curriculum Objectives, Teaching and Learning Activities, and Assessment Tasks“If the curriculum is reflected in the assessment, …, the teaching activities of the teacher and the Page 13.111.7learning activities of the learner are both directed towards the same goal” [7]. To this end, wehave designed a system for teaching an
virtualized environments. 1. Use plug and play technologies that require minimum installations in setting up software and hardware platforms. This may significantly reduce the hindrance in learning. 2. Provide extensive preparatory and discussion material throughout the course to ensure adequate support is available to the students. Video recordings of the experimentation and synchronous sessions are good resources to come back to for the students. Schedule periodic support sessions and assessments to avoid gaps in understanding. 3. Adjust the curriculum to modify the component and component integration skills that the students would acquire in a virtualized
active interactions among group members are crucial, arediscussed. An in-depth understanding of the impact of formative and summative e-assessments onstudents' active learning can be beneficial for instructors, students, and curriculum developers inhigher education institutions.Keywords: Formative Assessment, Summative Assessment, E-Assessment, Active LearningIntroductionAssessment, which is key in students' learning process, plays a vital role in efficient instruction,enhancing students' learning achievement5. Since the assessment process is an active part of thecurriculum that enables students to achieve their planned learning objectives, it is important toknow the impact of different assessment methods on the learning process, especially in
integrate student learning of nanotechnology across the civil andenvironmental engineering curriculum [7].The problem-based learning framework is embedded with assessment instruments, such asdecision worksheets, that are intended to capture student knowledge and critical thinking. Thisparticular research project aims to assess methods for evaluating critical thinking fromillustrative and written responses on worksheets completed in an engineering-focused classenvironment. It is proposed that this can be accomplished by: examining how students absorb,process, and apply new information through multiple iterations of similar active learningexercises, when new information is presented between each iteration; examining how groupdynamics influence
thermodynamics, fluid mechanics, and thermal systems courses. TheTHERMOVIEW software is being designed within the LabVIEW programming environment. Itis hoped that by making use of the visual environment of THERMOVIEW and LabVIEW thatstudents will gain greater insights into the processes involved and the flavor, if not the actualfeel, of how systems behave in the real world. The purpose of this paper and presentation will beto provide an overview of the project to date and a description of current evaluation results.I. Introduction Advances in technology and pedagogy imply that the engineering curriculum must beperiodically reformed or supplemented in order to provide the best education possible forstudents. Particular shortcomings must be
. The synchronization of these processes should be optimizedto maximize the efficiency of the production. Among all of the methods that have beenintroduced, the white light scattering is the one with minimum environmental restriction.We adopt this algorithm along with some surface profile parameters definition introducedin ISO 4287 to build an automatic surface quality control system. With the integration ofthe machine vision camera in this system, feedback quality control would be the strongestfeature of this system. It has been noted that LabVIEW has been more widely used than anyother development platform. The reasons are highlighted in amongst which are thatLabVIEW provides object-oriented and platform independent development environment
Page 15.563.2this definition of spirituality, it is hard to imagine anyone who would not be interested inthis pursuit, or who would not benefit from discussions of how their chosen disciplineinterfaces with spirituality. In a new book entitled Educating Engineers: Designing forthe Future of the Field2, the authors call for a broadening of engineering education byasserting “…that an approach that integrates knowledge, skill, and purpose [emphasismine] through a consistent focus on preparation for professional practice is better alignedwith the demands of more complex, interactive, and environmentally and sociallyresponsible forms of practice.” Human spirituality is intimately related to a sense ofpurpose, which governs human concerns and
] emphasizes the importance of real-world experience in education, reporting on 29 programs that have successfully infused real-worldexperience into the curriculum. This course explores the use of real-world experience at a deeperlevel within the curriculum, with students engaged in team-oriented instructional methods. In recent years, strong interest has gained traction for the incorporation of project-basedlearning (PBL) in a variety of different engineering disciplines, e.g. [26-33]. These previous effortscan inform proposed curriculum. However, few prior efforts have occurred to implement PBLthroughout an entire engineering curriculum. One exception is the Iron Range Engineering (IRE)program, which started in 2010 and uses 100% PBL with no
, and documenting their work.3 In the absence of a freshman-level design coursein our curriculum, we find early design experiences in typical engineering sciencecourses indispensable.This paper offers one example of an early design project in vibration engineering withstrong instructional content that enhances the learning environment. The students engagein reflective engineering problem definition and solution procedures, work as part of ateam, communicate their engineering ideas, and achieve high performance. Our targetaudience is students in the second semester of their engineering curriculum. The designis a culminating event for the first half of the course.III. Background of the ProblemThe appliance industry is continually moving toward
deconstructing andreconstructing their schemas. Again, students tended to rely on ends-means analysis withoutinvoking deeper conceptual understanding. When trying to construct an appropriate physicalsituation corresponding to a given Jeopardy expression, we found students tended to focus on alimited numbers of constants rather than the variable of the integration or differentiation to helpthem construct the physical scenario. They often used dimensional analysis and unit matching tofind out the physical quantity that was being calculated in the expression. Thus, students haddifficulty in deconstructing their calculus schemas in Jeopardy problems of navigating multiple
Professor in the Department of Technology Leadership and Innovation in the College of Technology at Purdue University.He has expertise in Human Resource Development and Curriculum Development. Page 24.973.1 c American Society for Engineering Education, 2014 Pathways to Technology LeadershipAbstractTechnology-rich organizations need people who can pair technical knowledge, skills, andabilities with an ability to lead people. Organizations have historically focused on hiringemployees with either a strong technical competence or a strong leadership competence. The 21stcentury
surveillance. In these areas, he developed and applied technologies including distributed, component-based software ar- chitectures, software and systems engineering process models, intelligent control, the semantic web, and real-time artificial intelligence. In 1999, Dr. Hawker joined the Computer Science Department at the University of Alabama as an Assistant Professor focusing on software engineering, and in 2004 he moved to the Software Engineering Department at RIT. Dr. Hawker is also co-director of the Laboratory for En- vironmental Computing and Decision Making, which focuses on modeling and understanding the impact of freight transportation and automotive industry activities and public policies. Dr. Hawker also
Paper ID #12477Outcomes of a Systems Engineering Project for K-12 TeachersProf. Greg Bartus, Stevens Institute of Technology Greg is an Adjunct Teaching Professor and Senior Curriculum and Professional Development Specialist in STEM Education for the Center for Innovation in Engineering and Science Education at Stevens Insti- tute of Technology. Greg has an MAT and BS in Agricultural and Biological Engineering from Cornell University.Dr. Frank T Fisher, Stevens Institute of Technology (SES) Frank T. Fisher is an Associate Professor in the Department of Mechanical Engineering and co-Director of the Nanotechnology Graduate
system theory curriculum in many Engineering schools is limited to computer simulations, mostly because of the limited control lab equipment suppliers and modest resources. The Electrical and Computer Engineering (ECE) program’s faculty and graduate students were tasked to design a low-cost system that connects the theoretical concepts learned in class and real-world applications. This system was designed with a modular approach to develop new experiments using the existing system. The developed system is an integration of National Instrument’s (NI) LabVIEW software, NI’s myDAQ (a portable and easy-to-program low-cost data acquisition device), a DC motor with a built-in rotary encoder, and a PCB with the motor
- munications. Dr. Talarico research interests include digital and mixed analog/digital integrated circuits and systems, computer-aided design methodologies, and design and analysis of embedded systems-on- chip.Dr. George D. Ricco, Gonzaga University George D. Ricco is the KEEN Program Coordinator at Gonzaga University in the School of Engineer- ing and Applied Science. He completed his doctorate in engineering education from Purdue University’s School of Engineering Education. Previously, he received an M.S. in earth and planetary sciences studying geospatial imaging, and an M.S. in physics studying high-pressure, high-temperature FT-IR spectroscopy in heavy water, both from the University of California, Santa Cruz. He
electrical and computer engineering from the Ohio State University, Columbus, OH, in 2007 and 2010, respectively. He worked as an analog IC designer at Texas Instruments, Dallas, between 2011 and 2012. He was a Member of Technical Staff, IC Design at Maxim Integrated, San Diego, CA, between 2012 and 2016, and a Staff Engineer at Qualcomm, Tempe, AZ, between 2016 and 2019. In 2019, he joined the School of Electrical and Computer Engineering at Oklahoma State University, where he is currently an assistant professor and Jack H. Graham Endowed Fellow of Engineering. His research interests include power management IC design, hardware security, and energy-efficient computing. ©American Society for
andcomplete an ethics component related to their studio projects.Preparedness for what lies ahead is essential to making meaning of the ArchitecturalEngineering Technology curriculum and academic experience. Through our third yeardesign studio we successfully help prepare our students for the professional ahead.College Mission:The mission of the College of Engineering, Technology, and Architecture is to a deliver ahigh-quality education and prepare individuals for professional careers in engineering,technology, and architecture, or for further graduate studies. Preparing individuals tofunction as effective members of a global society, our programs promote technicalexcellence, reasoning ability, communication and interpersonal skills, and
partnership is in cooperative education.Cooperative education is an excellent method of enhancing student learning by providing realworld experience. The need for better integration of theory and practice, particularly inengineering and technology, has been an issue in education since the first cooperative educationprogram was established in 1906 [1]. The value of cooperative education is well documented. Arecent survey conducted by the National Association of Colleges and Employers reported that29% of interns were “converted” to full-time employees and 55% of new employees hired bymanufacturers have coop-type experience [2]. A 2004 survey of college graduates conducted byMonster TRAK indicated that 74% thought relevant work experience was the most
), electrical engineering (in the wiring and sensor installation), andcomputer science (in the development of the man-machine interface) are integrated. Such a work-cell provides an opportunity to test simple PLC programs and moveto more advanced programming such as state transition. It provides the students withtools where they can evaluate different control and monitoring strategies, either using thePLC or the computer as their primary control tool and it also develops the logical thinkingof the student. The work-cell is suited for use in stand-alone courses where there is afocus on the constituent components of the work cell but the real benefit is to see thesystem as a fully integrated array of disciplines.Biographical Information
of designwith an outside institution or company can provide students with a strong educationalexperience. Interpreting a problem from a systematic view, especially with components whichmust interface with current designs provides a significant challenge and supplement to anengineering education. The design proposed is under review by Innovation First Inc. and moredesign iterations are happening.Robotics in Engineering EducationMany engineering students lack practical experience with innovative technologies and expressinterest in taking classes which provide hands-on labs and experimentation. Today, real worldengineering problems are complex and integrate components of all engineering disciplines. Asteams of engineers work together to solve
horizontal bar represents breadth, with the boundarycrossing into several different areas (the students understanding of many disciplines and systemsand ability to communicate said understanding). Developing T-Shape professionals through aninnovative curriculum would provide students with a major advantage in any competitivetechnical field. Although the idea of transforming an entire curriculum could encourage thedevelopment of T-shaped professionals on all fronts, it requires a significant amount of time andresources. However, small steps can be made to begin transforming engineering education bymodifying individual courses. This paper focuses on the development of Fuel Cell Science and Technology, a newinnovative course that was designed to
ASEE Annual Meeting 2005 Session # 3568 A Control Systems Lab Sequence Designed to Foster Understanding1 Bradley T. Burchett Department of Mechanical Engineering, Rose-Hulman Institute of Technology, Terre Haute, IN 47803AbstractRose-Hulman Institute of Technology has a unique sophomore curriculum that culminates in amulti-disciplinary system dynamics course. Because of this curriculum, seniors entering theironly required control systems course in the mechanical engineering curriculum have
: Creating a First-Year Culture with a Multi-Faceted ApproachAbstractThis complete evidence-based practice paper presents an update of analysis and observations in arequired first-year engineering curriculum at Northeastern University, which is a medium-sized,private, urban university. A curricula redesign resulted in a “cornerstone to capstone” approachwith a pilot program rolled out to 2 sections of a first-year engineering course in the Fall of 2014.The goal of this cornerstone approach was to integrate design, programming, graphicalcommunication, and engineering analysis previously taught in two separate first-yearengineering courses by creating an 8 credit hour, 14 week course that focuses on real world,hands-on design
introduce anentrepreneurial mindset among our faculty members, and to motivate them to teach theseconcepts to their students.ICE WorkshopsStudents will not develop an entrepreneurial mindset unless they see it first in our faculty. Topromote this among we have done a number of activities. The KEEN network has created anumber of workshops called ICE. This stands for Innovating Curriculum with EntrepreneurialMindset. They have had a number of short meetings on one topic. We have had faculty attendworksops on: • Materials engineering • Engineering mechanics • Engineering ethicsThe first author made a presentation at the engineering ethics meeting8.The network is now sponsoring multiday ICE workshops on entrepreneurial minded learning,active and
mindset (KEEN,2018). Across the country, undergraduate engineering programs are pursuing the integration ofentrepreneurial studies within STEM curriculum. Private and public institutions aresupplementing a didactic education (e.g. earning a Minor in Entrepreneurship) with co-curricularactivities, such as encouraging engineering student participation in related student organizations,in themed living learning communities, in entrepreneurship competitions, in internships atstartups, and in networking events with alumni entrepreneurs, to name a few. Finally, within thelast few years, there has been an upsurge in physical spaces created to support on-campusstartups and networking with entrepreneurs-in-residence. These so called co-working spaces