from University of California Berkeley.Dr. Thomas P Seager, Arizona State University Dr. Seager is an Associate Professor in the School of Sustainable Engineering & the Built Environment at Arizona State University in Tempe AZ.Prof. Amy E. Landis, Arizona State University Dr. Landis joined ASU in January 2012 as an Associate Professor in the School of Sustainable Engi- neering and the Built Environment. She began her career as an Assistant Professor at the University of Pittsburgh, after having obtained her PhD in 2007 from the University of Illinois at Chicago under the supervision of Dr. Thomas L. Theis. She has developed a research program in sustainable engineering of bioproducts. Her
work full-time after graduation, 59% accepted positions withsponsoring organizations. This shows how, beyond enhancing performance in QUEST learningoutcomes, this course provides students with career-building opportunities and provides clientswith a talented pool of prospective full-time hires.Suggestions and Practical ImplicationsMany elements of this course are not unique to the QUEST program and may be replicated inother courses and at other universities. By identifying and assessing learning outcomes, we areable to better understand what our students are learning and make improvements to the course.This has been critical in enabling comparisons to be made across projects and across years.Additionally, by involving a number of stakeholders
’ math and science learning, it is of paramountimportance that their heightened interest to learn new concepts be employed to engage them tolearn fundamentals of computer programming. An early development of interest in math,science, and computer programming will enable students to remain interested in and excel inSTEM disciplines as they progress through the educational pipeline. Finally, introduction to andengagement with hands-on STEM learning will encourage students to consider and pursue Page 26.17.2STEM studies and careers.13,16In this paper, we consider the use of a blocks-based visual environment to demonstrate and teachrobot-programming
oftheir engineering careers. The culminating event of the Oral Exams is just a fewweeks before graduation with one student being asked questions (akin to adissertation defense) by three faculty members. Ahead of this, there are writtenexams on the Fundamental Knowledge each semester, and there is another formof the Oral Exam but in a group setting with peer evaluators. This was anindicator used to assess Student Outcome i, the recognition for the need forlifelong learning. In a group setting, a faculty member asked each student a seriesof questions of nuclear engineering facts and concepts. The questions persistedfor 10-15 minutes while faculty member and two other students evaluated thequality of the responses. This was worth 5% of the course
United States. However, they are not pursuing careers in STEMfields, partly because they feel unengaged in their courses and they feel a lack of communityamongst STEM learners and faculty1.Millennial learners have many unique and positive qualities that pose a challenge for college Page 26.30.2educators to engage them in learning3. They have been attributed with the qualities of beingcooperative, team oriented, technology driven, socially aware, and highly optimistic about theirfutures4. Given their unique characteristics, research suggests that various teaching strategiesshould be implemented in the classroom to engage this generation
nonetheless preferredto have the choice as to whether to participate in a service-type activity. WoS also found the interaction with the female mentors was helpful on various levels.Besides assisting with the technical aspects of civil engineering design and project management,the mentors shared their perspectives and advice on career choices and work-life balance. The mentors, too, found the experience rewarding. For the most part they did not have muchcontact with female engineers when they were new graduates and they enjoyed critiquing thetechnical deliverables of the team members, as well as sharing their work experiences. From thementors’ perspective, the construction and design industry needs more diversity, and mentoringfemales and other
lecturers,approximately 40 Teaching Assistants, and 80 laboratory class hours per week were required torun the first introductory course. In addition, 8 class hours per week in the large lecture halls thatare at a premium on campus were required. Introduction to Engineering II, generally taken second semester on campus, was also atwo-credit course, and independent sections were run by the individual departments with avariety of different curriculum models ranging from hands-on topics such as robotics, basicelectronics, and MATLAB programming in some departments, to having students listen torepresentatives from industry and faculty talk about career paths in other departments. Somedepartments taught basic skills such as AutoCAD, Solidworks
Effectively manage projects Character Discern and pursue ethical practices4. Thermodynamic Course Module4.1 OverviewStudents tackle an iterative, team-based design problem, where they are small start-up companiescompeting to build an electric-generating power plant. The project provides students not onlywith the understanding of how to apply electric-generating power plant theory, but also howdesign is integrated with, and influenced by, economic, socio-political, and environmentalfactors. These are all factors the entrepreneurially-minded engineer must be aware of, and keepin mind, throughout their career.4.2 DetailsThe work proposed here consists of an educational module designed for thermodynamics (a
, increasing student’s 21st century skills, and increasingGeorgia’s capacity to provide high quality K-12 STEM professional learning opportunities1.One component of STEM Georgia, implemented as a result of the intended long term objectiveof developing and ensuring a skilled STEM workforce, is STEM certification for elementary,middle, and high schools throughout the state of Georgia. One of the primary goals of STEMcertification is to increase the number of students pursuing careers in STEM-related fields and/orpost-secondary STEM related education/training1.“Well educated, specialist teachers of [STEM] disciplines are the critical link for the next STEMgeneration”5. To obtain Georgia STEM certification at the elementary level, a critical componentis
,” Association of American Colleges and Universities, 2010.[6] http://ocw.mit.edu/courses/ocw-scholar/[7] Kekelis L.S., and Wei, J., “Role models matter: Promoting career exploration in afterschool programs,” ITest white paper. Available at http://afterschoolconvening.itestlrc.edc.org/sites/afterschoolconvening.itestlrc.edc.org/files/ITEST_white_paper _10_Techbridge.pdf (Retrieved September 10, 2014).[8] Valla, J. M. and Williams, W.M. “Increasing Achievement and Higher Education Representation of Under- represented Groups in Science, Technology, Engineering, and Mathematics Fields: A Review of Current K-12 Intervention Programs,” J. of Women & Minorities in Science & Engineering, 18(1): 21–53, 2012
Paper ID #11860A Two Semester, Multi-Approach Instrumentation Project for MechanicalEngineering StudentsDr. Dale H. Litwhiler, Pennsylvania State University, Berks Campus DALE H. LITWHILER is an Associate Professor at Penn State, Berks Campus in Reading, PA. He re- ceived his B.S. from Penn State University, M.S. from Syracuse University, and Ph.D. from Lehigh Uni- versity all in electrical engineering. Prior to beginning his academic career, he worked with IBM Federal Systems and Lockheed Martin Commercial Space Systems as a hardware and software design engineer
. Garzolini, Boise State University Judith (Jude) Garzolini is the National Science Foundation (NSF) Grant Project Manager for the Idaho STEP grant at Boise State University. She is responsible for managing the $1 Million grant to plan and implement activities focused on increasing the throughput of graduates in Science, Engineering, and Mathematics. During her over 23-year career in industry she worked for Hewlett-Packard Company where she contributed as both an R&D project manager and program manager in the disk drive and printing supplies businesses. Jude received a B.S. in Chemical Engineering from Wayne State University and a Master of Business Administration from the University of California, Davis. She was
Paper ID #13224Design and Implementation of a Solar-Powered Smart Irrigation SystemDr. Esther T. Ososanya, University of the District of Columbia Dr. Esther T. Ososanya is a professor of Electrical and Computer Engineering at the University of the District of Columbia, and the current BSEE program director. During her career, Dr. Ososanya has worked for private industry as a circuit development engineer and as a software engineer, in addition to her academic activities. She received her education in the United Kingdom, where she achieved her Ph.D. in Electrical Engineering from the University of Bradford in 1985, and a
on the job. We contacted all the 65 students of the class andsought updated information about their career journey, domicile and non-academic activitiesduring their college days. We received data form 43 students out of which, five were notemployed. Some of them had opted for higher studies and some others had decided to be full-time parents, resulting in 38 valid responses. This information along with the college recordsabout academic performance and family background provided us the required basis to decideresponse and explanatory variables that are described in the next sections.Response VariablesWe chose employability and on-job performance as two response variables and have describedthem in the next sections.Employability assessed
, students also learned fundamental multidisciplinary principles inorder to achieve a compact, portable, and an affordable system while taking consideration of cost,performance, and functionality.The final class grade confirmed effective learning outcomes of the project team. All five studentsof the team received class grade A or B while the course success was defined a grade C orhigher. In addition, a class survey administered to the team students showed the students' fullsatisfaction with the course on how their learning of multidisciplinary mechatronics engineeringimproved for their professional career development in the future. As a result, students learnedclear lessons on how a multidisciplinary engineering design project is implemented. In
concepts and skills for analog and digital interfacing. Therefore,mastering microcontroller techniques is considered to be one of the important factors forstudent’s future study and career development.Our school used to offer a Z80 based microprocessor course. Due to the microcontrollers’ lower Page 26.553.2prices, more powerful functions, and wide application areas, we replaced our previousmicroprocessor course with a course in microcontrollers in the year 2010. The PIC18microcontroller from Microchip was chosen as the learning platform. The traditional “lectureplus lab” model was used in the first two years of teaching. However, in order to
), (2), some exposure(3), (4), expert understanding(5). 9. What is your level of understanding of ICS hardware/software, critical infrastructure, and the control of physical processes? Almost none(1), (2), some exposure(3), (4), expert understanding(5). 10. How likely are you to pursue a career that involves critical infrastructure cyber-security? Not likely(1), (2), unsure(3), (4), very likely(5).8. Final discussionThe outline for course modules and laboratory experiments has been presented, including thediagram for a hardware trainer. The key problems to be addressed are the gaps in CIS educationof ICS-specific cyber-security, the gaps in engineering education of cyber-security principles,and the siloed
-preparedstudents and students from under-represented groups. Page 26.578.2 c American Society for Engineering Education, 2015Effect of Student-Centered Programs on Retention of Engineering Students Page 26.578.3Background/RationaleRecent research indicates that engineering students tend to leave their major at a rate similar tostudents enrolled in the humanities, business, and education. However, students who changemajors are then far less likely to select engineering as their next career choice.1 This relativeoutflow without a
learning activities within technology education. Theauthor concluded that the highest ranked strategy was the one with product-oriented andlaboratory-based content. The second highest rank was for strategy using technology focus, andthe lowest was for strategy that relied heavily on classroom orientation.Having hands-on laboratory is one condition, but the laboratory practices should be relevant toprepare graduates for their manufacturing career. Miller3 surveyed 25 department heads of USmanufacturing programs and concluded that an exemplary manufacturing program should: a) Require more technical coursework, b) Require or strongly encourage cooperation with industry, c) Maintain closer relationships with industry, d) Has more manufacturing
to access and edit theirnotebook at any time of day or night and could upload various forms of media to their website(videos, photos, Twitter feeds, etc.) that used to be a challenge to include in the paper version ofthe notebooks. In addition, instructors had unlimited access to the websites for grading,feedback, and evaluation purposes which was not possible when the notebooks existed in aphysical form. Another factor influencing the use of the new platform was that all students onthe project team would have access to the portfolio during their entire college career and afterthey graduate. This would allow them to showcase their robot in interviews with potentialemployers. These many factors were integral in enhancing the student
: the graduation rate is 16% of DHH ascompared to 30% for their hearing peers4.Currently there are over 31,000 DHH students enrolled in college and this enrollment number isup 15,000 over the past 10 years5. While careers demand highly qualified engineers with variousskills, including visual skills, most classrooms are not designed to utilize students’ visual skillsand are not fully accessible by DHH students, including engineering classrooms6. Whenclassrooms maximize the benefits of visual learning, the barriers of traditional pedagogy, such asusing spoken English as the primary mode of communication are partially ameliorated7. Specifically, DHH students also struggle in solving engineering problems8. While a universitymay provide resources
Geonosis where the battle droids beingassembled by robots on an assembly line. We then show another video of modern dayautomobile assembly line where the car body parts being welded together by robots on theassembly line. During the process, we emphasize the connection among the three items andconveyed a clear message to each student: trigonometry is an exciting subject and you will use itin your future engineering career. Figure 2. Two link robot model used in auto assembly lineStudents received this introduction enthusiastically based on the amount of questions andinteraction. From instructor point of view, the introduction provided a convenient reference pointin subsequent lecturing on all trigonometry topics. For example
my major and career. 3.80 4.24 4) I will stick with a computing problem until I have a solution. 2.92 3.92 5) I am good at solving problems that are ambiguous. 3.67 3.89 6) I am good at working within and contributing to a team. 4.25 4.77 7) I consider going into Computer Science major or minor. 2.21 2.80 Table 2: Mean Scores of the Surveysing outcomes, e.g., computational thinking, team work, critical and creative thinking in solvingambiguous problems, and learning from failure.4 Methodologies and Results4.1 Surveys for Students Self-evaluationThe modules were deployed in a CS 1 course in
sustainable design (20%) f) Sustainability is included in the standard curriculum (16%)17. Outside of your engineering studies, how interested are you personally in green andsustainable information and causes? a) Extremely interested (21%) b) Somewhat Interested (36.8%) c) Neutral (26.3%) d) Not very interested (10.5%) e) Not at all interested (5.3%)18. What is the primary motivation for your interest in green and sustainable information andcauses? a) It sounds like an interesting topic to learn more about (11%) b) It will give me a competitive advantage when applying for jobs (50%) c) It is necessary in my career as an engineer (16.7%) d) I want to do well in the world (16.7%) e
Paper ID #11372Innovative Embedded Systems ProjectMr. Stephen A. Strom, Pennsylvania State University, Erie Stephen Strom is a lecturer in the Electrical and Computer Engineering Technology department of Penn State Behrend, and holds a B.S. in electrical engineering from Carnegie Mellon University. His career includes over thirty years experience in designing and programming embedded systems and has multiple patents for both hardware designs and software algorithms Page 26.971.1 c American
arewell poised to support this development through targeted programs that are hands on, promoteskill development, solidify career interests, and enhance social skills for young people.Additionally, university-community partnerships in service learning can support civicengagement goals and help solve social problems.2 The Community Based STEM Program isone example of a program that builds on students’ academic foundation and relies heavily ontechnical skills to promote students as involved leaders who engage with their community toenact change.The freshman and sophomore curriculum in the College of Engineering, like at many otherschools, focuses on chemistry, calculus, physics, engineering design and English. It leaves littleroom for elective
CAREER award in 2010 and is working on a study to characterize practicing engineers’ understand- ings of core engineering concepts. Page 26.980.1 c American Society for Engineering Education, 2015 Instructor Concerns and Use of Resources in the Development of Course MaterialsIntroductionA national push to reform engineering education has been in effect to enable the United States tostay globally competitive1. In doing so, the field of engineering education has grown rapidlywhich has led to the development of new research-based innovations2. An innovation
at many colleges and universities have been tweaked and even overhauled insome cases in response to ABET’s criteria, the changes are in mostly into the coursework? Ingeneral, there appears to be a mismatch on both sides that it is not happening quickly enough(Hannon, 2003).ABET continues to work though these issues in order to better the curriculum, however, manyuniversities are still struggling of how best to meet industry’s needs while meeting the criteria ofABET. According to ASEE, employers like to have an engineer who will be able to do thefollowing in his/her career (ASEE, 2003):• An ability to apply their knowledge of mathematics, science and engineering to design, conductexperiments, and analyze data• An ability to perform on
, 70, 767-779, 1996.17. G. C. Williams, R. Saizow, L. Ross, and E. L. Deci, “Motivation underlying career choice for internal medicine and surgery,” Social Science and Medicine, 45, 1705-1713, 1997. Page 26.1041.1018. G. C. Williams, M. W. Wiener, K. M. Markakis, J. Reeve, and E. L. Deci, “Medical student motivation for internal medicine,” Journal of General Internal Medicine, 9, 327-333, 1994. 19. S. W. Raudenbush, and A. S. Bryk, Hierarchical Linear Model: Applications and Data Analysis Methods. Thousand Oaks, CA: Sage, 2002.20
, construction modeling and visualization. Meanwhile, the Central Valley hasseen a slow but steady rising trend in green building and adoption of BIM. Industry recruitershave clearly indicated strong market demands for new graduates with knowledge and skills insustainability and BIM. It is a high priority of the program to sustain a nimble and practicalcurriculum that is responsive to industry trends and able to cultivate the desired talent for localemployers. Hence, in this study the course redesign was purposely aligned with the programstudent learning outcomes (SLOs) and emerging industry needs. The goal was to develop studentcompetencies with effective means and better prepare them for their future career roles in aninterdisciplinary project-based