The National Center for Engineering and Technology Education Christine E. Hailey, Kurt Becker, Maurice Thomas, Tom Erekson Utah State University (USU)/USU/USU/Brigham Young UniversityAbstractThe National Center for Engineering and Technology Education (NCETE) is a recently fundedNational Science Foundation Center for Learning and Teaching. This paper provides a broadoverview of NCETE activities that will span the five years of the program, consistent with thegoals of ASEE’s Emerging Trends in Engineering Education session. The long-term goal ofNCETE is to understand how to infuse engineering design into technology education in grades 9-12. The paper describes the relationship between engineering and
Paper ID #37613Work in Progress: A Novel Professional DevelopmentProgram for Addressing Systemic Barriers to ComputingParticipationCecilé Sadler Cecilé Sadler is a graduate student at the Massachusetts Institute of Technology in the MIT Media Lab with the Lifelong Kindergarten group. Her interests lie at the intersection of computing and education in designing equitable learning environments that cultivate creativity through technology-mediated creative learning experiences. She focuses on investigating how computing can be leveraged to create spaces for young people of color to practice agency and develop their
content and evolution of their journal writing (details will bediscussed in a separate publication). In short, PIPELINES is an example of how different entities can work together towardsachieving their respective goals, all of which are focused on increasing a currently dwindlingengineering workforce in the U.S.Workforce Learning through STEM Design Experiences PIPELINES Navy design experience emphasizes collaborative, problem-based learning,with a focus on Navy STEM problems. Such activities support and encourage students todevelop skills, such as critical thinking and problem solving that are essential for academic andworkplace success. A survey of the literature reveals that engineering students leave their major
assessment. Part IV ponders upon the results of a surveycompleted by students a few weeks later when they have received the grades and considered topics fortheir senior capstone projects. Part V states concluding remarks with future plans.part II: course content and objectivesStudents have taken one semester-long course in each of the three fundamental areas of electricalcircuits, semiconductor electronics, and C programming prior to taking a Digital Electronic coursewhich is a prerequisite for this Embedded Systems course. With the heavy emphasis on hands-onexperience at electrical & computer engineering at this university, each of those courses has a 3-hourlab in addition to having a 3-hour lecture class. By the time students get to Embedded
incorporate the newest technologies in theclassroom either as new course modules or as entirely new courses. Textbooks and laboratoryguides for these courses either don’t exist yet or are out-of-date due to fast-paced changes intechnology, low textbook volumes, and the significant expertise required to write them.The VR course at Colorado State University - Pueblo was designed to introduce graduate studentsto VR concepts through lectures and practical exercises culminating in a mechatronics-related VRproject. However, the developers of this VR course had to overcome a number of challenges. TheSherman and Craig [1] textbook chosen for the course is technologically outdated (published in2003), but is well organized and provides good explanations of
in Design, which is a semester-long introduction to engineering course for freshmenstudents at a large research university in the northwest. The course is an interactive, hands-onexperimental introduction to several engineering discipline projects and employs a flippedclassroom approach to explain fundamental engineering concepts before students apply and testthose concepts in the classroom experiments. This structure exposes students in year one toengineering applications, with an additional piece of the course designed to further engagestudents in the engineering school and research activities. The Engineering Engagementassignment, which is the focus of this study, is posed to broaden student exposure to engineeringoutside of the classroom
this survey, the graduating seniors were asked toprovide specific documentation through writing the page numbers of their final ME475project report where it is documented that they have utilized the skills corresponding to ABET Page 12.342.6criteria (a-k), and attach it to their final Capstone Design project report. Each team of two orthree members was asked to complete one survey form. The five instructors of the CapstoneDesign Course (ME470 and ME475) also made separate assessment as to which of the ABETcriteria (a-k) has the individual student satisfied. The individual assessment by the studentsand the instructors were compiled and averaged for
developing countries. He also writes and does research in the areas of engineering ethics and engineering education.Edmond John Dougherty, Villanova University Edmond John Dougherty is a graduate of Villanova and Drexel universities. He is the Director of the Engineering Entrepreneurship program at Villanova University. He is also President of Ablaze Develop- ment Corp and a Founder of Wavecam Media. Ablaze provides electronic and software product design services. Wavecam designs, produces, and operates a number of aerial remote camera systems for sports and entertainment. He specializes in product design, engineering project management, artificial intelli- gence, and creativity. He was a key part of a team that won an
. However, for students in Aerospace, Biological, Civil, andMechanical Engineering, this is the fundamental course on which many of the higher levelcourses are based.With this constituency in mind, the CIMS for Statics were developed as part of a larger Internetbased system known as the Virtual Laboratory for the Study of Mechanics (VLSM). The CIMSfor Statics consist of five separate modules with each focusing on a particular set of topics taughtin the course. The titles of the five modules are as follows: Concurrent Force Systems; Non-Concurrent Force Systems; Trusses, Frames and Machines; Friction; and Geometric Propertiesof Shapes. Although all modules have elements that can help with demonstration of concepts “Proceedings of the 2001 American
Paper ID #43102Board 196: An ’Inspiration Kit’ for Building a Culture that Fosters EngineeringIdentityDr. Yen-Lin Han, Seattle University Yen-Lin Han is an Associate Professor in the Department of Mechanical Engineering at Seattle University. Dr. Han received her BS degree in Materials Science and Engineering from National Tsing-Hua University in Hsinchu, Taiwan, her Ph.D. degree in Aerospace and Mechanical Engineering and her MS degree in Electrical Engineering from the University of Southern California. Her current research interest focuses on soft robotics in medical devices, for which she recently received the NSF
Paper ID #41264A Wellness Course for Engineering StudentsGlaucia Prado, University of California, Davis Glaucia Prado is an Assistant Professor of Teaching in Chemical Engineering at University of California Davis. She began her career in food engineering from the University of Campinas (Brazil) before earning a PhD in chemical engineering from the University of Alberta. She teaches a variety of courses such as thermodynamics and senior design and developed a new food engineering elective course for chemical engineering students that consists in applying engineering concepts in the context of food processing. Her
CTaaS Stack Figure 3. CTaaS ArchitectureCTaaS Pedagogy ComponentsCTaaS Pedagogy Components cover theory/concepts, lab modules, assessments, and Q&Asessions.Theory/Concepts ModulesWe created the theory/concepts teaching modules specifically for the course. They cover varioustopics that interest the job market and enterprises deploying or migrating their business to thecloud. The following is a summary of each module. Appendix A gives a summary of all teachingmodules.1. Cloud Computing Fundamentals Module 1 introduces the topic of cloud computing and the evolution of computing in general.2. Cloud Computing Service Models Module 2 introduces the CC Stack and the IaaS, PaaS, and SaaS service models. It
a commitment to delivering education content in the most accessible andeffective manner.Course Curriculum and ScheduleThe course curriculum is thoughtfully structured to provide a comprehensive understandingof key concepts in digital design through hands-on laboratory experience. It comprises sevendistinct lab activities, each designed to build upon the knowledge and skills acquired in thepreceding labs. The lab activities include: ● Lab 1: Introduction to Computer-Aided Design - This lab introduces students to the fundamentals of digital design using computer-aided tools. ● Lab 2: Combinational Circuit Design Using VHDL - Students explore the design of combinational circuits using VHDL descriptions. ● Lab 3: Combinational Circuit
expectations for global educational experiences hasbegotten a lack of common assessment instruments and strategies. However, there are notableexceptions. For example, administrators at Purdue and many other institutions are using theIntercultural Development Inventory (IDI).18,21,22,23 The IDI is standardized, validated, and has along history of use, making it easy to administer and suitable for comparative research. But whileIDI may allow measurement of cross-cultural sensitivity in general, this proprietary instrument iscostly, not readily modifiable, and not specifically tailored to global practice in technical fields.Hahn et al. have used multiple assessment methods, including self-reflection writing, oralpresentation, and interviews, to assess
Paper ID #36489Human-Swarm Interaction Robotics as Context for TrainingDiverse Undergraduate ResearchersReagan Curtis (Professor) Chester E. & Helen B. Derrick Endowed Professor of Educational Psychology, WVUEvana Nusrat DootySumaia Ali RaisaJason N. Gross (Assistant Professor) Associate ProfessorYu Gu Dr. Yu Gu’s main research interest is in improving robots’ ability to function in increasingly complex environments and situations. Gu is a three-time NASA Centennial Challenge winner, a NASA NIAC Fellow, and an NSF REU site director. He has led the design of autonomous robots from one degree of freedom (DOF) to
Paper ID #26372Mandatory but not Required: Examining Change in the Year Two Imple-mentation of a Novel Engineering Mathematics CourseDr. Janet Y. Tsai, University of Colorado, Boulder Janet Y. Tsai is a researcher and instructor in the College of Engineering and Applied Science at the University of Colorado Boulder. Her research focuses on ways to encourage more students, especially women and those from nontraditional demographic groups, to pursue interests in the eld of engineering. Janet assists in recruitment and retention efforts locally, nationally, and internationally, hoping to broaden the image of engineering
], especially since the field isalready small in size. This problem causes many NDM programs to be without the resourcesnecessary to make such essential programs accessible to students. One solution described byMandayam and colleagues [10] was to write equipment and teaching resources into a moresubstantial NDM method development grant. This grant seeks to discover new methods to exploreconcrete and rebar structural health. I would agree with the author that this might be a suitablesolution; there may also be others.Another issue to recognize is that companies in this review are also discussed as being without thenecessary resources. Specifically, companies who use NDM technology are also strapped with theresources to continually retrain their
, which improves self-efficacy. At the time of writing it is too early todetermine the graduation rates of the female students in this study, but this will be reviewed inthe coming years.ConclusionUsing Everyday Examples of Engineering has been found to improve student interest andengagement in course topics, especially in female students, and to improve student learning inboth the long- and short-term for both genders. As both student performance and student interestplay key roles in persistence rates, the use of E3s should be beneficial to all students. If a facultymember chooses to only introduce one or two E3s into a course, choosing E3s that illustratetopics that students find the most challenging will result in the greatest overall increase
) are part of the degreerequirements of all WPI seniors. Usually a team effort, the MQP is completed in the major fieldof study, spanning most of the academic year. The purpose of the MQP is to provide a capstoneexperience in the student's major that develops creativity, instills self-confidence, and enhancesthe ability to communicate ideas and synthesize fundamental concepts. To complete an MQPsuccessfully, the student must formulate a problem, develop a solution, and implement itcompetently and professionally; be exposed to interaction with the outside world before startinga career; be able to work in teams; and communicate well orally and in writing. This projectactivity has become a cornerstone of the WPI education and has been highly
study suggests that students who are exposed to enquiry - based learningdevelop early confidence that results in better performance in subsequent years of study [13].Surveys of industry and university alumni consistently point to the importance of design,communication and teamwork skills, but more importantly, students’ ability to make soundjudgments in conditions of technical, commercial and sometimes ethical uncertainty. Industryvalues student learning in rich contexts, and they acknowledge the value of supportingextracurricular student teams.The incorporation of rich, contextual components is desired, but not at the expense ofengineering science fundamentals. This presents a conflict between retaining this essential
of teachers (69.3%) indicated that leaning about the EDP is one of the mostimportant learning from the engineering TPD, 42.9 % of teachers planned to teach the EPD inclass. Similarly, a lot of teachers wanted to introduce various forms of engineering into theclassroom: integrating engineering into different subjects (33.7 %), fundamental knowledgeabout engineering and technology (22.3%), and engineering activities (15.6%): “I will definitely begin using engineering lessons in my classroom. I think that the engineering design process will be a great help to my students, and I am looking forward to teaching my students how to use their own creativity to come up with solutions to problems.” “I love the extension of
Paper ID #33440Assessing and Communicating Professional Competency Development ThroughExperiential LearningDr. John H. Callewaert, University of Michigan John Callewaert is Director of Strategic Projects in the Office of the Associate Dean for Undergraduate Education, College of Engineering, University of Michigan. He previously served as a program director with the University of Michigan’s Graham Sustainability Institute, Director of the University of Michigan- Flint’s Office of Research, and the Director of the Institute for Community and Environment at Colby- Sawyer College. He completed doctoral study in Resource
true freshmen who enter with substantialadvanced placement (AP) or dual enrollment credit.Introduction Today, many people are opting to begin their engineering education at communitycollege and then transfer to a four-year institute. Escalation of college costs1-4 is the majormotivation driving this trend,5 but community colleges offer more than just a less expensive trekthrough the first two years. They often provide a smaller, more intimate campus, and a greaterflexibility in class scheduling, with more evening classes. They also offer an opportunity to pickup remedial math and science for those who decide to pursue engineering too late to prepare forthat path in high school.6 With a transfer in mind, taking fundamental freshman
Paper ID #25605Sociotechnical Habits of Mind: Initial Survey Results and their FormativeImpact on Sociotechnical Teaching and LearningDr. Kathryn Johnson, Colorado School of Mines Kathryn Johnson is an Associate Professor at the Colorado School of Mines in the Department of Elec- trical Engineering and Computer Science and is Jointly Appointed at the National Renewable Energy Laboratory’s National Wind Technology Center. She has researched wind turbine control systems since 2002, with numerous projects related to reducing turbine loads and increasing energy capture. She has applied experiential learning techniques in
characteristics by semester cohorts are included in Table 2 below. Overall, semestercohorts averaged 17% female students, 81% Australian domestic students and 51% school-leavers(defined as students who enroll in university directly after high school). The university entry scorein Queensland is known as an “Overall Position” (OP) and varies between 1 (the highest) and 25(the lowest). It can be seen that the OP score is highly consistent among the semester cohorts,averaging 7 overall.Production of WEVs Videos were produced using a Microsoft Surface Pro 4 computer, including the pen accessory.Microsoft OneNote was used as a blank page to capture writing on the screen. The first set of videosmade for Dynamics used Microsoft Screen Expression for screen and
usedpersonas, popular in web interface and product design, to package much of our data into a formthat can be used for planning spaces and services within the new library. Such efforts to studyour users have enabled us to keep students and researchers at the heart of designing new spacesand services. It should be noted that this paper does not discuss the findings of the data collectedin detail, but focuses on our processes of gathering user-research data and effective methods foruser studies that are applicable in other libraries.II. Designing for the userProviding excellent spaces, services, technologies, and websites are now fundamental to themission of the academic library. At the heart of these efforts is the need to design with the user inmind
-disciplinary freshmen course, which introduces students from both NSM and ECScolleges at CSUF to kinematics of motion, mechanism analysis and synthesis concepts and theirapplications in mechanical, biomedical and bioengineering. The course material is broken intotwo main parts. The first 8 weeks of the semester are focused mostly on mechanism, DNA,protein and human kinematics, while the second 8 weeks are related to lectures and activities onDNA structure fundamentals and the design of DNA nano-mechanisms/structures. Each of thetwo main parts of the course ends with a team cross-disciplinary project challenge related to theDevelopment of Assistive Devices and DNA nano-structures, respectively. The outline of theclass is listed below.Part I. Mechanism
AC 2012-4493: ALIGNING THE AGENDAS OF THE ACADEMY ANDTHE COMMUNITYDr. Christopher Bull, Brown University School of Engineering Christopher Bull is a Senior Lecturer and Senior Research Engineer at the Brown University School of Engineering. He teaches, writes, and researches topics ranging from appropriate technology and neural implants to the university’s role in the larger community and how that might overlap with engineering education.Maureen Kay Sigler, Brown University Maureen Kay Sigler is a lecturer in education and Director of the History/Social Studies Education pro- gram at Brown University. Before coming to Brown, Kay Sigler worked for several years teaching in Washington, D.C., in both a public
the entrepreneurial spirit of earlier pioneers in flight, and use their knowledge of aerospace engineering to design the first “space resort.”2) Scratch Game Development, Middle School: Through the creation of Scratch games, students will learn important mathematical and computational skills, while also gaining a deeper understanding of the process of computer programming and game design. This project includes computer programming, computer animation, multimedia technologies and technical writing. Students will use Scratch to create interactive stories, animations and games that focus on STEM content and concepts and will share those creations on the Internet.3) Bio-acoustics, Middle School: Students will explore how sound is
. Through the stressful andexciting moments, you can learn a variety of lessons the first time you teach. You can even learna lot the second time you teach, the third, and so on. Because of this cyclical learning process,reflection can be an essential component to continual improvement. Through my experiences,I’ve found that preparation, expectation, motivation, and reflection are fundamental elements thatcontribute to whether someone is left with either a sweet or bitter taste after teaching as agraduate student.This paper will examine lessons learned on preparation, expectation, motivation, and reflectionin teaching and mentoring through the experiences and perspective of a graduate student. First, Itaught an engineering design course intended