EducationAssociation (ITEA)6 has asserted that an increasing knowledge of engineering may increase thenumber of students who choose engineering and technology as their future career. This isespecially crucial because the number of students enrolling in engineering and technology hasbeen constant or declining in recent years. At the same time, the need for engineering andtechnology related school graduates is higher than ever.13 There has been a growing interest in Page 13.1083.2integrating engineering curriculum at the K-12 level as a result of the higher demand ofengineers and technicians.6,14,15 Science education research has shown that conceptions
comparative judgment, integrated STEM learning, Technology & Engineering Design learning, and self-directed learning. I have taught at the middle-school, high school, and collegiate levels and am dedicated to strengthening Technology & Engineering Education.Mr. Andrew Jackson, Purdue Polytechnic Institute Andrew Jackson is currently pursuing a PhD in Technology through Purdue’s Polytechnic Institute, with an emphasis on Engineering and Technology Teacher Education. His research interests are engineering self-efficacy, motivation, and decision making. Andrew is the recipient of a 2015 Ross Fellowship from Purdue University and has been recognized as a 21st Century Fellow by the International Technology and
CircuitsIntroductionAt the University of Idaho, an intermediate circuits course is required before students can takejunior-level classes. However, most community colleges only offer a first course in circuits, sotransfer students are immediately behind in their academic progression. One way to address thisis to develop an online lecture course with a suite of labs that a student can perform beforecoming to the university, say over the summer, so that the student can be on-track for graduation.In addition, as the number of online courses grows, these labs can be used by students whocannot come to campus.In our curriculum, the intermediate electrical engineering lecture and laboratory course beginswith sinusoidal sources, then introduces the students to steady
lines of accountability, cross-agency resource control and authorityGlobal Health Engagement – A strategic approach to the mobilization of interagency and non-governmental public health assets to advance U.S. leadership and public diplomacy efforts Strategic Interagency Capabilities - All ScenariosGlobal Hazards Planning and Response – An integrated USG preparedness planning and rapid response function capable of managing the interagency response to significant global hazards in partnership with other nations and non-governmental actors as appropriateHuman Resources Model for Global Affairs – A revised set of cross-government HR policies, procedures, and incentive structures to enable the rapid assembly of capable
all should have the ability to designand conduct experiments and to analyze and interpret data-skills which are central to practice ofquality engineering. In this paper, we present the plan and implementation of a guided projectthat integrates the learning and application of the Taguchi Method into a hands-on productdesign and test optimization experience. Made popular by Japanese manufacturers, the Taguchimethod has since received widespread acceptance as the de facto standard technique to optimizethe process and quality of engineering in major industries such as automotive and aerospace.With the task of design and construction of a catapult as the context of activities, the projectserves as an ideal vehicle through which students can learn
AC 2012-4295: HOW AWARD WINNING COURSEWARE IS IMPACTINGENGINEERING EDUCATIONDr. Flora P. McMartin, Broad-based Knowledge, LLC Flora P. McMartin is the Founder of Broad-based Knowledge, LLC (BbK) , a consulting firm focused on assisting educators in their evaluation of the use and deployment of technology assisted teaching and learning. Throughout her career, she as served as an External Evaluator for a number of CCLI/TUES and NSDL-funded projects associated with community building, peer review of learning materials, faculty development, and dissemination of educational innovation. She is PI for the project ”Where have We Come From and Where are We Going? Learning Lessons and Practices from the Projects of the NDSL
. an ability to function effectively on a team whose members together provide leadership, create a collaborative and inclusive environment, establish goals, plan tasks, and meet objectives.While this Student Outcome is more concerned with significant projects such as capstoneprojects, students need to learn how to work effectively in teams well before their capstoneprojects.Teamwork, sometimes referred to as collaboration, is critical in most engineering positionsbecause many problems are larger and more complex than can be handled by single individuals.Lahdiji made a relevant observation, “Today’s engineers are becoming an integrator, and acoordinator of information, technology, and people” [10]. This clearly requires
Paper ID #3728621st Century Engineering Learning and Teaching: MalaysiaPerspective and DirectionSyed Ahmad Helmi Syed Hassan (Associate Professor) Syed Ahmad Helmi is an Associate Professor at the Faculty of Engineering, Universiti Teknologi Malaysia (UTM). He received his Bachelor of Science in Mechanical Engineering from the University of Alabama, USA, Master of Engineering in Advanced Manufacturing Technology (AMT), and PhD in Engineering Education from UTM. He is currently a fellow at the Centre for Engineering Education, and Head of the University’s Research Group in Engineering Education (RGEE). Prior to
satisfied). Two of these questions were asked on the RIT 1997 survey. Page 9.8.8 “Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition Copyright c 2004, American Society for Engineering Education”Both of the RIT surveys also requested information on the favorite/least favorite course and theprogram emphasis that was most important to the graduate. Engineering Economics, Ethics, andTechnical Writing and Presentation were listed as the most important courses in the 2002 surveywhich should be included in the curriculum. No courses were really the least.RIT graduates felt that
students would use the learning from the intercultural assignments to work better inthe binational teams and therefore be more effective in the project.One working hypothesis for the class was that the combination of these components wouldincrease students’ intercultural maturity and make them engineers who are better prepared for theglobal market. An important aspect of this course is that it is integrated into the engineeringcurriculum. A common issue with global competency courses is that they add extra courses tothe students’ curriculum. Therefore, demanding additional time and effort from the students whowish to develop those global competency skills. The ENGR410 course is part of the engineeringdegree plan counting as a technical elective
Paper ID #36811Refining Instructional Modules for Engineering Lab Writing Using aCommunity of Practice ApproachDr. Charles Riley, Oregon Institute of Technology Dr. Riley has been teaching mechanics concepts for over 15 years and has been honored with both the ASCE ExCEEd New Faculty Excellence in Civil Engineering Education Award (2012) and the Beer and Johnston Outstanding New Mechanics Educator Award (2013). While he teaches freshman to graduate- level courses across the civil engineering curriculum, his focus is on engineering mechanics. He im- plements classroom demonstrations at every opportunity as part of a
Marie SchmiedekampDr. Peter J. Shull, Pennsylvania State University, Altoona Campus Dr. Peter J. Shull is an associate professor of engineering at Penn State University. He received his under- graduate degree from Bucknell University in mechanical engineering and his graduate degrees from The Johns Hopkins University in engineering science. Dr. Shull’s research has two main foci—nondestructive evaluation methods as applied to process control (NDE) and pedagogical methodology. Dr. Shull’s peda- gogical efforts include meta-cognitive strategy learning to improve student academic success, an interest in women’s issues within the engineering environment, integrated, experiential techniques to improve engineering students
respective departmental capstone course. Communication andscheduling between the teams were the biggest challenges in this model. In an effort to improvemultidisciplinary design, faculty from 3 engineering departments at UCSB met over the courseof an academic quarter to discuss a more integrated multidisciplinary capstone design programfor seniors. One complicating factor was departmental pressure to maintain the discipline-specific integrity of the engineering experience throughout the student body. Anothercomplicating factor included the disparity between course units and timelines created by eachdiscipline. In response to these challenges, we have created a supplementary multidisciplinarycapstone course (SMCC) to be coupled to the existing
Knight, University of Tennessee at Knoxville Laura Knight is an Assistant Professor of Practice in the Department of Industrial and Systems Engi- neering at The University of Tennessee, Knoxville, and an advocate for expanding the numbers of future engineers through education and community outreach. Laura returned to academia after over 25 years of working in locations across the country and raising a family. She held engineering and manufacturing leadership roles with a variety of private and public com- panies, including President/Owner of a developing children’s discovery museum, which brought outreach programs to underserved populations. Collaborating across communities, industries, and academic disciplines
electricalsciences, telecommunications today is strongly rooted as an independent academic discipline.Although the telecommunications industry has well-equipped laboratories for its R&D, suchlaboratories at universities are usually lacking and often treated as incremental additions over thoseof the allied disciplines like electrical and computer engineering. The University of Oklahoma isone of a select group of universities that offers a graduate degree in Telecommunications Systemsout of the School of Electrical and Computer Engineering. In recognition of the need to have a well-equipped laboratory as an integral component of any engineering program, the University ofOklahoma established, in 2001, an Interoperability Laboratory to provide the best
i) arespecialized, ii) have reaction speed close to the real-time operation of the physical system andiii) use open-loop movement of finger and hand as opposed to closed sensory-motor loops forvariable modification. This paper presents circuit modules covering resistive circuits, networktheorems, amplifiers, RC-RL-RLC circuits, resonance, and energy and power. Each modulefocuses on a specific topic. It gives the user the choice of circuit and signals within a family andallows him/her to rapidly modify element values and initial states. Circuit variables such asvoltages, currents, and power are displayed on the monitor. The modules, as an integral part ofthe courseware, can play an important role in helping students develop concepts
provide an ideal learning tool for students in STEMeducation, allowing them to gain hands-on experience regarding the mechanics, planning, andcontrol of robotic arms.Here, a robotic arm kit was introduced that is composed entirely of off-the-shelf components thatcan be assembled using a screwdriver and wrench. The assembled kit is low-cost (< $200), easilytransportable in a small plastic toolbox, and can be powered utilizing a built-in battery or standard5V USB cable (< 500 mA) connected to a laptop computer. This low-cost, transportable, anduntethered robotics platform was used to evaluate the design of experiential learning experiencesthat complement existing robotics curriculum focusing on the mechanics, planning, and control ofserial
Program at the University of Maryland, Dr. Eagle’s current work is on the integration of diverse perspectives to discover unique engineering de- sign spaces and on the development of multi-disciplinary courses that bring together students of multiple colleges and/or universities. American c Society for Engineering Education, 2020 Preliminary Results of the Conceptual Fluency Approach for Introductory Thermodynamics1. IntroductionThis work-in-progress (WIP) paper presents an overview and initial results of a novel assessmentmethod for Thermodynamics that was recently adopted at the University of Maryland, labeled the
Engineering Education & Practice. 1995;121(2).3. Berthouex P.M. Honing the writing skills of engineers. Journal of Professional Issues inEngineering Education & Practice. 1996; 122(3).4. Bransford J. How people learn: Brain, mind, experience, and school. National Academy Press;2000.5. Yalvac B, Smith H.D., Troy J.B. Promoting advanced writing skills in an upper-levelengineering class. Journal of Engineering Education (Washington, D.C.). 2007; 96(2).6. Carvill C, Smith S, Watt A, Williams J. Integrating writing into technical courses: Stepstoward incorporating communication into the engineering classroom. Proceedings of the 2002American Society for Engineering Education Annual Conference and Exposition
relationships andprogrammatic efforts; c) to integrate theory and research in a way that could provide tentativehypotheses regarding the relationship between the various characteristics and outcomes ofmentoring; and d) to offer evidence-based practices for the administration of formal mentoringprograms.There is an important distinction between academic advisor and mentor. An advisor isresponsible for providing information on degree requirements and guidance for students tocomplete a degree plan. A mentor, on the other hand is a positive role model who can guide andmotivate student professionally. A mentor can provide resources and tools that will stimulateengagement in discussions about intellectual issues that will increase student’s aspiration
circuit element early and fully integrate it throughout thecourse. DC circuits are designed using voltage and current dividers to deliver specified currents,voltages or power; interface circuits are designed when neither the source circuit nor the loadcircuit is alterable; and instrumentation systems are created to interface transducers to aparticular output device. A major departure from most circuits courses occurs in our approach todynamic circuits. We begin by introducing a separate block on signal waveforms includingsingularity functions, exponentials, sinusoids and their combinations. This better prepares thestudent for finding solutions of first- and second-order circuits using the classical differentialequation approach. The most
resource engineering, as does the expanding field ofknowledge. Attention must be devoted to hiring appropriately trained instructors to actualize thetransition.Background The main thrust of the presentation will be oriented towards presenting an analysis of thearea following an accepted protocol for examining curriculum questions1. Specific problems thatdevelop the above definition of the natural resources engineer will be presented in this context. Page 6.322.1 Proceedings of the 2001 American Society for Engineering Education Annual Conference & Exposition Copyright © 2001. American Society of
there are many reasons why students choose not to use skills that theyknow will improve their performance, in this workshop we will focus on a technique to increasestudents use of effective and efficient success skills.Low Cost—High Impact Success SkillsIn response to low retention rates and student performance, I have developed success skillsspecifically designed to augment curriculum and success courses and to be used by facultyteaching discipline related courses, i.e., these methodologies can be implemented anywhere. Themethodologies, grounded in current neuroscience, have been tested with over 1,000 students inengineering and other disciplines. These success methodologies are termed Low Cost—HighImpact success skills. By design, these
related to the integrated approach we discuss here. 5. Foundation course We present an high level outline of a course that help introduce parallel programming to students that have completed one or more traditional programming course. It is useful to professional programmers who have experience in programming single processor computers. The items below point to key topic areas that should be covered in such a course. It also gives relative hours to spend with a percent value for each topic. Proceedings of the 2009 American Society for Engineering Education Pacific Southwest Regional Conference 355 • Executing code on
, and digital learning approaches• Students earn an accelerated Bachelor of Science in Advanced Manufacturing Systems – first of it’s kind in the nationPartnership Vision:The integration of work and learning Grand challenges, similar to a capstone, synthesizing and assessing learning across all accelerators Accelerators feature rotations through functional shop areas. Integrating digital learning instruction, shop floor practice with real time GE mentoring culminating with challenge assessments
called for anew standard of quality, one based on the quality of student development. Pascarella andTerenzini have also concluded that there is an urgent need for a shift in the decision-makingorientation of administrators toward learner-centered management. The main objective of theinstructional module generated by instructors must be to ensure that the subject matter content iseffectively integrated with the presentation format (Grasha, 1990, 1996). In other words, thetask in front of the instructor would be to blend the content and presentation in theory as well aspractice (Gagne, 1992; Briggs, 1991). Here, the instructor assumes the role of a facilitator andeffectively utilizes modern technology to experiment on innovative ideas that can
increasing presence of new technologies in consumer products, are now becomingenabling technologies for bringing nanotechnology into our daily lives. Perhaps the best example is anintegration of ever increasing functionality into cell phones (Fig. 1). The introduction of projectioncapability in cell phones in 2008 will initiate the integration of HDTV and computer (operating system,RAM and storage may be placed on a network server) in cell phones.The integration of an air quality monitor (equipped with nano sensors) Computer Networkinto cell phones, expected in the next few years, will provide ‘air Interfacelabeling’ making it possible to monitor the air we are breathing and HD Video, PDAany
increasing presence of new technologies in consumer products, are now becomingenabling technologies for bringing nanotechnology into our daily lives. Perhaps the best example is anintegration of ever increasing functionality into cell phones (Fig. 1). The introduction of projectioncapability in cell phones in 2008 will initiate the integration of HDTV and computer (operating system,RAM and storage may be placed on a network server) in cell phones.The integration of an air quality monitor (equipped with nano sensors) Computer Networkinto cell phones, expected in the next few years, will provide ‘air Interfacelabeling’ making it possible to monitor the air we are breathing and HD Video, PDAany
the New York State Education Department Office of Higher Education for several Institutional Capability Reviews for distance learning programs. Over the past five years, she has participated in an E.U.-U.S. project to develop international quality standards for continuing education centers. She is also a co-creator of the Bray-Scalzo Partnership Model for creating and sustaining successful partnerships. Scalzo is currently serving as a member of the Faculty Advisory Council for Teaching and Technology at SUNY and as Chair-elect for the Continuing Professional Devel- opment Division of the American Society for Engineering Education (ASEE). She is also a member of the International Association of Continuing
Paper ID #28122Board 14: Materials Division: Measuring Student Learning of Crystal Struc-tures Using Computer-based VisualizationsDr. Susan P. Gentry, University of California, Davis Dr. Susan P. Gentry is an Assistant Professor of Teaching Materials Science and Engineering at the Uni- versity of California, Davis. In her current position at UC Davis, she is integrating computational modules into the undergraduate and graduate materials curriculum. She is specifically interested in students’ com- putational literacy and life-long learning of computational materials science tools. c American