an opportunity through graduation and power electronics projects that thestudents become familiar through design to the EMC/EMI concepts and practice. In order toinvolve the student in real world EMC/EMI applications, some projects are included in thecurriculum. These projects are samples of the industry applications where the knowledge of thesubject can be applied. The projects include further technical content that lies outside the subjectboundaries but that is useful to improve students’ motivation. A practical printed circuit board(PCB) layout project has been designed for the purpose of EMC education at the undergraduatelevel. Because the scope of EMC design is rather wide, the project focuses only on controllingradiated emissions from
mechanical engineeringdegree: real-life application, design, problem solving, impacting society, fundamental technicalknowledge, and building tangible artifacts.Participant 3 most felt like an engineer when he was doing a real-world design in an engineeringproject team at university. He also enjoyed the creativity aspect of design, and building tangibleartifacts. This experience drove him to become a Mechanical Engineer in the future.When asked “Have there been any experiences that were more important to shaping yourthinking about your future career?”, Participant 3 answered: I would say that my work on the Solar Car Team has put me leaning a lot more towards the design aspect of engineering, you know, actually building something
aspects ofunmanned systems are not or cannot usually be taught in classroom settings. Students and/orresearch projects are effective ways of exposing students to the state-of-the-art in unmannedvehicles technologies. Moreover, multidisciplinary projects provide students opportunities tolearn real-world problems in a team environment. The projects include many aspects ofunmanned vehicles technologies such as Sense & Avoid, Computer Vision, Path Planning,Autonomous Routing and Dynamic Rerouting, Geolocation Techniques, et cetera, and involvemore than 90 students from Aerospace, Electrical & Computer, Mechanical, and IndustrialEngineering, and Computer Science Departments. The projects have been found to effectivelyengage students in
engineering courses for motivationalpurposes and to focus attention on the development of problem solving skills applicable to real-world problems. Also, because of the continuing trend towards the use of technology for solvingalmost all engineering problems in industry (and the fact that businesses are beginning todemand web-savvy employees), we believe it makes sense to have students learn problemsolving skills in the mode that they will be using those skills, i.e. on a networked computer. Page 5.75.2 Table 3: Goals and ObjectivesPrimary goal: to improve the overall quality of our engineering graduates by identifying
stations would be a good investment based on the rate of consumption andreserves of natural gas [35]. As another example, Corum and Garofalo [34] focused on usingmathematical modeling to support middle school students’ understanding of engineeringtechnology applications. The engineering technologies included speakers, motors, andgenerators. Corum and Garofalo [34] designed the engineering task using the model-elicitingactivity framework [34], which is a pedagogical approach for teaching mathematics-basedconcepts that requires one to represent real-world situations mathematically. The engineering-based mathematics task allowed the students to draw on their knowledge of pre-algebra, algebra,and magnetism to develop a multivariable mathematical model
interpret data, and apply computational and mathematical thinking to explain phe-nomena and demonstrate understanding of core ideas. In addition, students are also expected todemonstrate understanding of several engineering practices, including design and evaluation1.Over the last three years, our research group has developed an innovative community-situated,challenge-based, collaborative learning environment (C3STEM) that harnesses computationalthinking, modeling, and simulation situated in the framework of real-world problem solving tosupport ubiquitous STEM learning in high school classrooms.Real-world problems are typically quite different from the types of problems students solve inregular classroom assignments, primarily because they are ill
ranges can be realized with special hardware. Table 1: RFID Frequencies, Applications, and Typical Ranges 5System Description:The ALTS implements RFID to read the tag on a piece of luggage as it is being loaded onto aplane. In the real world application an airline employee will enter a passenger’s information intothe system and he associates this information with the tag’s unique ID. There is a Graphic UserInterface ( GUI ) that is strictly for the employees to enter this information and add the tag.Another GUI is provided for the passengers to confirm their flight and check their
formerFulbright Scholar. Page 25.1301.2 c American Society for Engineering Education, 2012 The GasDay Project at Marquette University: A Learning Laboratory in a Functioning BusinessAbstract The GasDay Project is a working software business within a university in whichundergraduate and graduate students apply what they have learned in the classroom to create andlicense a product that solves a real-world problem. Multidisciplinary teams of engineering,mathematics, computer science, and business students produce software licensed by U.S. utilitiesto forecast over 20% of the nation’s daily
creatingconnectedness in an online group[10]. Then they are asked to respond to a series of questionsabout who they are, where they grew up, where they go to school, their NEES research site, andtheir goals for the summer. Then to initiate dialog among the students they are asked to talkabout their favorite and least favorite classes, where they want to be in 10 years, and their “bestadventure.” The best adventure question tends to really open up the students to talk aboutthemselves. Groups form in the “real world” as well as online on the basis of identifyingcommonalities and shared interests[10]. As with other online assignments, students are asked toread and comment on the introductions of at least two other students. REU staff also read andcomment on posts
: Page 21.33.15 http://education.ti.com/sites/LATINOAMERICA/downloads/pdf/Revista_innovaciones_2012_web.pdf34. Aravena, M. D., & Caamaño, C. E. (2009). Mathematical models in the secondary Chilean education. In M.35. Bonotto, C. (2007). How to replace word problems with activities of realistic mathematical modelling. Modelling and Applications in Mathematics Education, The 14th ICMI Study, 10(32), 185–192. doi:10.1007/978-0-387-29822-1_1836. Lombardo, D. H., & Jacobini, O. R. (2009). Mathematical modelling: From classroom to the real world. In M. Blomhoj & S. Carreiro (Eds.), Mathematical applications and modelling in the teaching and learning of mathematics (1o ed., pp. 35–46). Dinamarca: Roskilde University.37. Von
toworkplace experiences. One effort has been a technical writing course, collaborativelydeveloped with the Department of English, offered exclusively to students from the Departmentof Agricultural and Biosystems Engineering. We created a real-world case simulation of abiotechnology company, Omega Molecular, in which the students were employees. An on-linedatabase provided company history, policies, memos, emails, and product data. “Employees”were charged with the task of developing technical reports in a virtual corporate environmentthat forced them to consider ethical and personnel issues. Students had the opportunity todevelop and demonstrate these competencies which are linked to the ABET Criterion 3(g)communication outcome: communication, general
Session 3149 Vital resources available to develop innovative curriculum and effectively reduce the time span needed to gain new knowledge and expertise in regard to the latest CADD packages Morteza Sadat-Hossieny Northern Kentucky UniversityAbstractThe fast evolving world of Computer Aided Drafting and Design (CADD) makes it verychallenging for educators to stay up-to-date on issues related to the upgrades and development insoftware applications. Educators need to continuously explore new ways to gain the necessaryknowledge needed for
., McClellan, J. H., Oppenheim, A. V., Parks, T. W., Schafer, R. W., and Schuessler, H. W., ® Computer-Based Exercises for Signal Processing Using MATLAB , Prentice-Hall, 1994.[9] Wright, C. H. G., Welch, T. B., Morrow, M. G., and Gomes, W. J., “Teaching Real-World DSP Using MATLAB and the TMS320C31 DSK,” Proceedings of the 1999 ASEE Annual Conference, session 1320-06 [CD-ROM], June 1999.Commander THAD B. WELCH, PhD, is an Assistant Professor in the Department of Electrical Engineering at the U.S.Naval Academy (from 1994-1997 he was an Assistant Professor in the Department of Electrical Engineering at the U.S.Air Force Academy). His research interests include
:• Alternative pathways to higher education that remove barriers to participation by groups that are underrepresented in engineering programs;• An engineering curriculum that promotes experiential learning with three important goals: using multi-modal pedagogies that address the learning needs of diverse learners that meet them “where they are”; integrating math and science instruction with engineering topics that are focused on building skills to solve real-world engineering problems; encouraging student agency and ownership in their own learning;• A student-centered learning environment that is accessible and diverse, focused on building relationships between students, instructors and other support personnel; emphasizing
initially designed as BS in Applied Statistics and focused heavily on statistics components. It is likely that BS in DSASprogram will seek accreditation rat ABET ANSAC It lists its Student Learning Outcomes as• Students who complete the DSAS degree should have sufficient preparation to extract meaning from and interpret real world data and to effectively communicate the results.It will not be difficult for BS DSAS program to adopt ABET ANSAC Student Outcomes. However, it is very important that the programfocus more on graduates’ ability to• understand ethical and professional responsibilities and the impact of technical and/or scientific solutions in global, economic, environmental, and societal contexts. (SO 5)• function
engineering usingMicrosoft Excel. Bourg [11] presents a more practical application for real-worldproblems. This large number of materials with this purpose proves the importance of thissubject nowadays.Specifically, for geotechnical slopes some works have applied the use of spreadsheets forreliability analysis [12], [13], [14]. These works use matrix functions and Excel's Solveras optimization tool for calculations. Cao et al. [15] developed a tool for solving MonteCarlo simulations more efficiently at relatively small probability levels. Wang et al. [16]presented another application in geotechnical engineering to apply Bayesian equivalentsamples to obtain meaningful statistics and probability distributions of geotechnicalproperties from the amount
categorized into four groups that areexplained in the findings section below.FindingsPerception of Engineering. Overall, these three teachers understand engineering as a flexible,systematic process, in which engineers apply science and mathematics to design, build, make, orsolve real world problems. In the following paragraphs, the teachers’ perceptions of engineeringwill be expanded and explained in terms of the overarching themes; (1) engineering as a designprocess, (2) creativity and problem solving, (3) engineering as the application of knowledge, and(4) engineering as a complex endeavor.Engineering, from all three participants’ descriptions, is soundly centered on the design process.The design process, as Molly described, starts “off with a
styles, it is imperative that students understand how changes ineducation will contribute to their long-term development. Changes are commonly met withresistance, but opposition can often be diffused if students have some say in the process.Creating an environment that is engaging and energizing will improve student’s understanding ofthe material and retention rates after transitioning into the work force. Although flippedclassrooms require an adjustment period, this learning approach allows instructors to preparestudents for problems outside the textbook. Bishop and Verleger (11) addressed the concern thatengineering graduates lack the ability to solve real-world problems. Students commonly work ona senior-level end of curriculum problem, but
main display panel Fig. 7 - 2x16 Backlit LCD display Page 12.43.6 Fig. 8 - DC motor fan controlled by servo Fig. 9 - DC motor drives rear wheels through gearbox Fig. 10 - Headlights, two LED’s each Fig. 11 - Brake lights, two LED’s eachSensorsIn order to make the use of this board easy for all students, instructional sheets containinginformation about each sensor is developed and attached to the board for easy reference. Eachinstructional sheet deals with a sensor describing the physical principle behind the operation ofthe sensor, how it is used in real world, salient features and other relevant specifications
expensivetesting in central clinical laboratories, and providing more tools for the control of epidemics,especially in the developing world. The recent epidemics of SARS and Ebola, and theworldwide decades-long scourges of HIV, tuberculosis, malaria, hepatitis, and numerous otherviral, bacterial, and parasite infections underscore the need for rapid diagnostics tests, includingmeans to test the safety of water, food, living quarters, and air. In the developing world, POCtests will find wide use in doctors’ and dentists’ offices, hospital bedsides, nursing homes,schools, food processing plants and distribution and retail centers, restaurant kitchens andcafeterias, and at-home patient monitoring for drug therapy. The later applications underscorethe role of
abilities and includes attributes of time management, stress management, and communication. Findings suggest that the virtual REU program can be successfully implemented to equip students with research and entrepreneurial skills while delivering accessible, equitable, and impactful education to underrepresented and minoritized students. Figure 2. Summary of Preliminary Findings4. ConclusionBased on the preliminary results, the virtual REU program offers benefits such as professionaldevelopment opportunities, academic and industrial research experience, collaborating withpeople with diverse backgrounds, real-world project experience, job skills development, andmotivation, thus exposing STEM students to a convergent
time required”, “inadequatecompensation”, “ownership issues”, “more work to develop and teach online”, “technicaldifficulties”, and “inadequate training, support and the addition of new roles.”2Teaching Engineering Economy Face-to-FaceIn general, engineering economy does not require rigorous mathematical background which iswelcome news in the construction management program. Most daily real-world engineeringeconomy problems can be solved with knowledge of algebra. In spite of the relatively simplemathematics knowledge requirement, students “sweat” in engineering economy course(Vajpayee 2001, v)3 which has been addressed in previous ASEE Annual Conferencepresentation.4 The reasons students sweat, I imagine, are as varied as respondents. In
, includingmedical imaging systems, medical imaging applications and advanced medical imaging (forgraduate) in consecutive semesters. This traditional way gives students lectures that regardexplanations of physics principles, mathematical derivations, system descriptions and textbookmaterials 5, 8-9. Homework and tests are related to these instructions. Laboratory classroom teaching is the second stage of teaching. We establish a multi-department and multi-laboratory teaching schedule for students’ visits to medical imagingsystems that are on-site in actual laboratory settings. Students can absorb new ideas much fasterwhen they are exposed to the real world than by learning from textbooks, especially in thosesubjects involving items of equipment 4, 8
ofincreasing complexity, to ultimately incorporate each of the essential levels of design describedby Voland. Because each individual project is designed to be completed within one class period,students acquire these skills in a practical manner, and develop an appreciation for their inter-relationship within the design process.Mini Design problems are particularly effective in teaching design because they expose studentsto ‘real world’ design projects, all the while fitting into the limitations of the classroom.Constraint on time is a limitation every instructor must overcome to teach students effectively.Mini Design problems can be completed within one class period. Since they are completed in ashort period, students who miss a class are not behind
, service learning, and real world experiencescan help nurture and grow these skills2,3. Through such approaches, students are more engagedand show greater interest6,7.Women in EngineeringHighlighting engineering as contributing to society through service learning is more appealing towomen4,8. Furthermore, Fouad and Singh9 recommend promoting the human-value ofengineering and supporting women’s self-efficacy not only in technical skills, but careermanagement and workplace skills and behaviors to recruit and retain women in engineering.Self-efficacy and confidence are important factors for recruiting and retaining women, as mostwomen who drop out of engineering report lower confidence in engineering skills even thoughtheir competence is comparable
more inclusive way about their work. And in turn I hope that that makes the class a more welcoming inclusive environment. (Sean)After the phase one training, participants more clearly articulated their commitment toaddressing broader societal issues related to equity, with specific plans to integrate discussions ofsocial justice, systemic inequities, and real-world applications into their courses, highlightingemerging growth in the critical consciousness element of the CRP. For example, Yvonne iscreating a project to specifically address health inequities while also connecting that to broaderstructural issues around race and gender, Dominic is expanding his students’ peer reviewassignments to teach them to critically reflect on
memo [24] summarizing the main ideas and themes. This helped the author to condensetheir findings into one document and made it easier to review their work. Author 2 then worked with theother authors to finalize the set of themes and resolve any disagreements.ResultsTable 1 displays the number of utterances found for each of the six themes related to agency, byparticipant.Table 1Themes by Participants Prescribed Challenges Agency Prob Set & Outside Selecting Agency of OE Outcome Real-World Resources Tools problems Comparisons Cristina 6 3 2
to succeed in engineering programs.Some efforts are purely academic; others touch on students’ lives outside the classroom. Somefocus on challenges specific to engineering students; others address challenges that are notspecifically connected to engineering. Some attempt to cross the boundaries that separateengineering from life beyond engineering, the classroom from life outside the classroom, andindividual students from others around them who can serve as a support.Engineering is very applicable to real life and the world around us. Within engineeringeducation, more and more emphasis is being placed on applying classroom knowledge to real-world problems and real-world contexts [9],[10]. The effort described here seeks to combinemany of the
studentswithin each of these non-URM groups, and ethnicity is not always easily defined. Some of theseequity gaps present themselves as differences in academic achievement betweenunderrepresented minority URM students and non-URM students or women in STEM fields andarise due to numerous academic and social factors. Significant factors for attrition areperceptions about careers in the STEM fields, poor experiences with the academic culture andteaching pedagogy, and declining confidence due to demanding curriculum. One study showsthat students without early exposure to real-world applications of their major, that give positiveinsight into potential careers, do not always connect with upper-classmen to use as successfulpeer role models. This research has
Shockerphant Aerospace: Towards a sustainable model for teaching production system concepts Lawrence Whitman, S. Hossein Cheraghi, Janet Twomey Department of Industrial and Manufacturing Engineering Wichita State UniversityAbstractUnderstanding cause-and-effect relationships is key to evaluating and designing aproduction system. Traditional instruction methods including textbook study andlectures introduce students to concepts, theories, and formulas involved inmanufacturing systems. Developments in simulation technology have enablededucators to give students a "real-world" model to apply the theories andtechniques learned in the classroom. Simulation has proven to be effective