withthe CSF framework would enhance our ability to mentor students to feel more confident abouttheir ability to contribute to their teams, value the talents of their teammates, and avoiddefaulting to stereotypical roles. For our Engineering students we work to instill anunderstanding of the CSF Strengths as natural talents. From this position of personal strength allstudents develop the required engineering skills, as defined through the lens of the ABET a-klearning outcomes. As each student possesses unique strengths, they will find a unique path tomastering the skills required for engineering practice. Figure 1: Strengths poster displayed in department commons.We were motivated to integrate Strengths into our Curriculum
Paper ID #37009Jeopardy in Structural AnalysisSeyed Mohammad Seyed Ardakani Dr. Ardakani is an assistant professor in the Civil and Environmental Engineering Department and the Coordinator of Statics for the T.J. Smull College of Engineering at Ohio Northern University. He has previously served as Project Engineer at Englekirk Structural Engineers and Lecturer at South Dakota State University. He obtained his Ph.D. in Civil Engineering from the University of Nevada, Reno. His research interests include seismic performance and design of reinforced concrete structures, computational modeling of structures, and engineering
AC 2009-1016: THE UBIQUITOUS MICROCONTROLLER IN MECHANICALENGINEERINGMichael Holden, California Maritime Academy Michael Holden is an assistant professor at the California Maritime Academy, a specialized campus of the California State University. He teaches instrumentation and controls. Professor Holden also works as an engineer in the autonomous vehicle field. Page 14.1258.1© American Society for Engineering Education, 2009 The Ubiquitous Microcontroller in Mechanical EngineeringIntroductionThis paper will describe a project aimed at integrating the teaching of microcontroller skills inseveral classes
these systems. It has long been a desire of the department to see our students participatein these types of design/build experiences throughout the curriculum. Oregon State University(OSU) has been a pioneer in developing a “Platform for Learning2” using their TekBotsplatform3. The TekBots platform is an electronic robot vehicle that is built by every student inthe electrical engineering program at Oregon State University. The program sponsors state that“using a common platform throughout the curriculum helps to integrate the material fromseemingly disjointed courses4.” While the Oregon State University TekBots program provides amodel of a Platform for Learning, it is not necessarily a perfect platform for other Universities.The sponsors
to enhance their knowledge of both microcontrollers and analog circuits, such as A/DC(analog-to-digital conversion), D/AC and integrated-circuit temperature sensors. The system alsoprovides students real-world examples of microcontrollers application and helps studentsunderstand how a microcontroller, C language programming, and analog circuits work togetherto become an embedded system. In addition, it provides a tool for the students to programhardware specific driver codes and to test the system to meet design requirements. The designinvolves integration of an 8051-based microcontroller, a 12-bit serial A/D converter, an 8-bitD/A converter, an instrumentation operational amplifier, a keypad, and a liquid crystal display.Once the C-language
profession ofengineering or with studying the elements of an engineering course of study at a college oruniversity. Even more than the other elements of STEM, or of the equally important othercurricular areas such as the humanities and the arts, engineering learning objectives do not standalone but link with other subjects. Just as elements of mathematics, such as data analysis orgraphing, must be used in social studies to understand population dynamics, and reading is basicto science instruction, engineering practices, such as design, require the synthesis of disparatetopics to arrive at a solution. In fact, engineering can act as an integrator that provides relevanceand rigor to the study of virtually any subject.The project to define engineering
One of our largest recruitment tools is the Extreme Information Technology (IT) Day which is an annual event sponsored by the university. The Extreme IT Day event has been held since 2010. Since its inception, more than 1,400 high school students have attended Extreme IT Day. The mission of this event is to develop skills and promote career opportunities in mainframe technologies, integrated IT systems, and cloud computing technologies. The event brings together educators, industry partners, and approximately 400 highly motivated high school and college students annually from the southeastern United States for a day of fun and innovation. Industry partners help set goals and expectations for students and serve on our School of
awardscoveted by companies all over the world. The main focus here, is to documentsuccess in seven selected areas : leadership, strategic planning, customer’s marketfocus, information analysis, human resources, process management and business results.Following the footsteps of Dr. Deming’s teachings, the author re-visits the learningpyramid and examines Deming’s ‘14 Points for Management’ and their usefulnesswhile discussing an engineering subject matter. The author uses those principles ofTQM to investigating ways to promote good teaching and raises a number of issues aboutsupporting innovative and creative teaching methods in an institution of higher learning.Based on his classroom experiences, he concludes that a culture of creative changes
advanced, the field of mechatronics has expandedto include mechanical engineering, electronics, computer engineering, and controls engineering.This multidisciplinary nature of mechatronics makes it an ideal basis from which to constructnew capabilities and knowledge. Within the mechatronics course at The Citadel, manymechanical engineering students comprehend some basics of the mechatronic disciplines, butnow must integrate these areas while implementing new devices for the labs. The suggestedapproach in the mechatronics course is a progressive project that builds on the previous iteration.Students can choose their own mechatronics application project. This paper briefly describesseveral hands-on labs that progress in difficulty. Students are
processes and outcomes by thevarious stakeholders, are powerful drivers for more fundamental research in engineeringeducation. The two are interconnected and both embed the idea of the need to know what worksand why and how practices can be continuously improved. While the obvious focus might be inmeasuring the implementation of new practices and systems, there is an underlying expectationthat fundamental and applied research will guide these reforms. The NSF Strategic Plan in 1995identified the integration of research and education as a core strategy and Fortenberry 7foreshadowed new programs from the NSF to support educational research in Science,Mathematics, Engineering and Technology disciplines, ranging from fundamental research, toapplied
Paper ID #29583Belonging in EngineeringMr. Robert M O’Hara, Clemson University Robert is a doctoral student in the learning sciences program a Clemson University. His research focus is on examining the relationship between sense of belonging and the learning/achievement process for undergraduate students and how factors influence this relationship. Prior to starting the Learning Sciences program, Robert, worked as a student affairs professional in higher education focusing on residential curriculum, social justice advocacy and awareness, and Intergroup Dialogue.Candice Bolding, Clemson University Candice Bolding is
presented in the frame ofMechanical Engineering and Industrial Design curriculums. Innovation as suggested is the creationof a new product-market-technology-organisation-combination (PMTO-combination) consisting ofthree key elements: 1) Innovation is a process and should be managed as such, 2) the result is atleast one new element in the company’s PMTO-combinations. 3) The extent to which theinnovation is new may range from incremental, small step innovation, through synthetic innovation,i.e. the creative recombination of existing techniques, ideas or methods, to discontinuous, radical,quantum-leap innovation. Often new means: new, somewhere on the continuum. The company inthis case - a very small business - wanted just an aluminium
collaboration.Paper OverviewThis paper will firstly outline and review the areas or lines of activity which need to be addressedto ensure a successful ongoing engineering technology international collaboration from thedepartment head’s perspective. Each of the areas is briefly discussed in terms of variousapproaches towards making progress in the form of guidelines, protocol proposals, course andcurriculum matching, language and terminology normalisation or matching, calendarcomparisons and actions to be taken.The paper will then go on to provide an overview and then address in some detail the practicaland organizational issues which need to be addressed. These will include comparison ofdepartmental organizational structures, curriculum subject mapping
Up to an Integrated Curriculum to Full Implementation, “ Frontiers inEducation, Puerto Rico, 1999.2. Hall, D.E. and Barker, M., “Living with the Lab – Boosting Experiential Learning and Creativity in 1st YearEngineering Students,” Intelligent Automation and Soft Computing, 13 (1), 2007, 3-18.3. Parallax, Parallax Home Web Site, http://www.parallax.com/.4. Swanbom, M.E., Hall, D.E., and Crittenden, K.B., “Centrifugal Pump Design, Fabrication and Characterization:A Project-Driven Freshman Experience,” American Society for Engineering Education Annual Conference andExposition, June 2008.5. Swanbom, M.E., Harbour, D., Hegab, H., and Eddy, D., “Microprocessor-Based Control System for Integrated
at the University of SanDiego was made beginning in the Spring 1992 semester. The vehicle chosen is a course taughtby the Electrical Engineering program for non-engineering and non-science/math majorsentitled, "Engineering 2 - Introduction to Electro-Technology" which is taught every Springsemester. This new technology course is unique in that it fulfills the General Education PhysicalScience requirement for non-engineering and non-science/math majors. The goal of Engineering2 are:1. Provide an additional opportunity for General Education study in science and technology in the liberal arts curriculum which develops the foundation sciences necessary to understand the nation of fundamental technical applications.2. Integrate the scientific
of engineering (forexample, academic research and/or industrial practice); 2) introduce undergraduates at theearliest stages to “real engineering” (again, either within the academic research environment orindustry); 3) develop a methodology and mechanism with which faculty can utilize multimediatechnology to further integrate their research and teaching efforts; and 4) demonstrate amethodology compatible with a growing a sustainable library of authentic engineeringexperiences for incorporation into the undergraduate curriculum. Such an approach could also bereadily adapted to provide virtual exposure of more authentic engineering activities such as co-op experiences and large-scale design projects earlier in the
Session 3460 Changes in Engineering Education in the United Kingdom Darwin Liang*, William Shepherd**, Brian Manhire** *University of Bradford, UK / **Ohio University, USAAbstractThis paper provides an overview of the current status of engineering education in the UnitedKingdom. A comparison of traditional undergraduate and post-graduate engineering pro-grammes offered by universities and technical polytechnics against proposed engineering &technology programs is highlighted in view of recent changes. In addition, current issues in-cluding student enrolment and graduates’ professional development are
science instructors make use of pedagogical strategies thathelp students improve their understanding of programming concepts and become betterprogrammers. One such tool that implements these strategies through a cyber-learning platformthat incorporates an array of learning engagement strategies (e.g., collaboration, socialnetworking, gamification), is SEP-CyLE.SEP-CyLE attempts to overcome these technical and retention issues in three main ways. First, itbreaks large concepts like software programming and testing concepts into smaller learningobjects providing a less overwhelming experience for students. Second, integrated learning andengagement strategies show that software testing and other foundational programming conceptsare relevant. Finally
problem, for which studentsmust share responsibility for the actualization of a creative resolution. This speaks directly toproject-based and problem-based learning. But it just as much speaks to the value of engagementbeyond the walls of the university. Without some external engagement in the curriculum,projects and problems remain reason-based and/or hypothetical. For example, an imagined end-user does not speak back; however, someone with direct experience of an engineered technologymay have something to say about where problems within a given device lie. Ethics educationarguably has the same problem if the extent of ethical training remains in the student’simagination and if ethics is not something consciously lived out within the context of
is currently an Associate Professor at the Computer Electronics and Graphics Technol- ogy Department at Central Connecticut State University. She holds a Ph.D. degree in Information Science from the University of Pittsburgh. Dr. Wu’s teaching and research interests include computer communica- tions and networks, multimedia systems, performance modeling and evaluation, and network applications. She is a member of IEEE and ASEE.Prof. Karen Coale Tracey, Central Connecticut State University Dr. Karen Coale Tracey is currently a Professor and department head for Computer Electronics & Graph- ics Technology at Central Connecticut State University. She is a recognized leader in curriculum devel- opment and
Practice-Oriented Approach to Teaching Undergraduate Data Mining CourseAbstract - Data mining is a fast-growing field of study in Computer Science andInformation Systems. Many schools have developed data mining course forundergraduate students. The course content has been well defined and streamlinedbecause of the availability of outstanding data mining textbooks. However, the focus ontheoretical contents of data mining makes it hard for undergraduate students to digest,and thus, compromises the overall learning outcome. To create an effective and dynamiclearning environment, we introduce a practice-oriented approach. This paper describeshow we integrate the hands-on component into the course work to enhance the
population of the engineering students and retaining them to the end of their educationaljourney, and toward the ultimate goal of professional licensure.Service leaning has been proven to be an invaluable tool to recruit and retain engineering students, a studyconducted by Astin et al (2000) found that in a study of 22,000 students, integrating service learning hadsignificant positive effects on 11 outcome measurements including critical thinking skills, values,leadership and self-efficacy. Eyles & Giles (1999) studied 20 universities and the effect of a service-learning based curriculum on over 1500 students. The results indicated an increased positive impact in the
,applications engineering, sustaining engineering, and systems integration. All of this indicates aneed to revisit the current curriculum and program structure. In addition, other factors have been driving the need for a major curriculum revision. Forinstance, the state legislature is now recommending that all four-year degree programs reducetheir total required credit hours to 120. While this is not realistic for an engineering technologyprogram, the total number of credit hours required for graduation is now a consideration forincoming students. To be more competitive within the University and the College ofEngineering, the faculty targeted a reduction from 132 to 128 hours. Recruiting of qualitystudents has also become an important concern
enable students to discuss their Wearable Technology projectand think about how to program the project so it will be successful.Project-Based Learning The Femineer® Program encourages students to engage with the curriculum in a hands-oncapacity. Hands-on learning helps students process abstract concepts while connecting them to thedesired educational outcomes [6]. Using a hands-on approach can help foster 21st century skillsand enhance student achievement [7]. Hands-on learning is an integral part of the Femineer®Program. The Femineer® curriculum is based upon a 30-hour project that students completethroughout the year. With project-based learning, the instructional approach empowers students towork collaboratively to solve a complex
more research-based Program. c. Students with an HBCU background report a heightened sense of academic resourcefulness and an enlarged awareness of career opportunities.Institutional Integrations • The advising and course transfer process into Northeastern University is now well established. • Formal curriculum ties/advancements between the S-POWER partnering schools have been established. • Curriculum changes including: o Adding C++, SolidWorks and new labs at one of the partner schools. o New program tracks at Community Colleges in Electrical and Chemical Engineering. • Regular student meetings as social cohorts occur at each of the participating
Activity Diagram.Integrated design. The integrated CCB design is shown in Figure 6. Pictured in Figure 6 (left) isthe CCB heating chamber. The chamber is constructed of 1” particle board but has an aluminuminterior liner. The heating elements and temperature sensors are mounted to the floor of thechamber. A heating rack is mounted 1” above the CCB floor. The rack protects the elementsand sensors and also provides a stable platform for the concrete samples. Pictured in Figure 6(right) is the CCB control panel that provides user interface and system integration. 1. LCD 5. Status indicator 9. Power cord 2. Reset button 6. Control
the key to successfully cultivatingOutstanding Engineers, and puts forward the implementation principles of being under theguidance of industry, strengthening school-enterprise cooperation, considering the differentclassifications of colleges and universities, and promoting with various models, whichrequires colleges and universities to integrate the school-enterprise relationship, and shiftfrom the paradigm of “on-campus cultivating” to the paradigm of “open school-enterprisecooperation training”.Therefore, an in-depth study of school-enterprise joint training of the Outstanding EngineersPlan will broaden the depth and breadth of the Outstanding Engineers Plan educationresearch at the theoretical level, improve the quality of the Outstanding
faculty and administrators in Engineering for three years, and previously in the Science and Education disciplines. She has a background in teacher education, curriculum development and evaluation and has worked as an education consultant for a number of organizations in the USA and South Africa conducting program evaluations. She received a Ph.D. in Educational Leadership and Organizational Development (Higher Education) from the University of Louisville and has M.Ed, M.Sc, B.Sc (Hons) degrees and a postgraduate Diploma in Adult Education from the University of Natal, Durban, South Africa.George Rouskas, North Carolina State University George N. Rouskas is a Professor of Computer Science at NC
be shown how this is also critical to the study of the Integration aspect ofautomation where data is passed back and forth between a spreadsheet and the CAD system increating and manipulating geometry and product structures. Teaching the CATIA automationobject structure is accomplished through study of macros recorded during manual modelingactivities with the GUI. The benefits and challenges in using this approach are discussed.Overviews of assignments and project work are given. Assignments include the creation of abeam bending program in Excel that controls beam section and length parameters in CATIA andthat extracts section properties in calculating beam deflection and stresses. An example of projectwork that involves automating the
respect to integrating computation, and attempts to outline the common challenges thephysics and engineering communities face and the opportunities they have to cooperate to theirmutual benefit in curriculum development efforts.This paper starts tracing recent physics education developments using data from a nationalsurvey that was commissioned by the magazine Computing in Science and Engineering (CiSE).This publication is co-sponsored by the American Institute of Physics and the IEEE-ComputerSociety, hence its interest in working at the intersection between physics and engineering. Thepaper continues with a description of an effort by the Committee on Instructional Technology –the counterpart to CoED within the American Institute of Physics