generally [20]. Students gain and apply technical as well as professional skills while designing a solutionto a real-world problem. This one-semester course consists of three components, some of whichoccur concurrently. In the first component, students develop technical skills (e.g., 3D printing)that are applicable to many of the design projects. In the second component, students learn aboutthe various stages of the engineering design process. In the third component, students apply theengineering design process to solve a problem presented by a client. In the early portion of the semester, students complete two projects selected from areassuch as computer-aided design and 3D printing, circuits and microcontrollers, woodworking
mental health problems and their application in clinical practice. American c Society for Engineering Education, 2021 Work in progress: Measuring stigma of mental health conditions and its impact in help-seeking attitudes among engineering students.AbstractIn this work in progress we explore the relationship between stigma of mental health conditions(MHC) and help-seeking attitudes among engineering students. The prevalence of mental healthconditions among college students has been increasing during the last few decades, and it willonly be compounded by the challenges currently faced in our society. Nevertheless, it has beendocumented that college students have
educational settings,the use of strategic doing in such environments is growing. Some recent examples includedeployment at individual universities seeking to reform their curriculum, as a technique forstudents to better organize teams in classes like capstone design, the transformation of academicdepartments, and the formation of cross-disciplinary research teams to address “grandchallenges.”This paper describes the process and its application to engineering education, specifically in aneffort to increase the range and quality of innovation and entrepreneurship offerings forundergraduate engineering students.Program descriptionThe Pathways to Innovation (Pathways) program is an initiative of the National Center forEngineering Pathways to Innovation
MATLAB software to model and analyzesimple systems. All sections were coordinated and involved instruction in a computer classroomwith emphasis on hands-on exercises. Another of the desired changes to the course was toincorporate laboratory experiments that could be performed by the students to further increasetheir interest in engineering and to generate real-world data sets for processing, analysis andreporting. It was decided that the computer-based data acquisition system be controlled usingLabVIEW software in order to provide the students with a foundation for higher-level classeswhere MATLAB and LabVIEW are used. During Spring 2005 and Spring 2006, considerableeffort was expended on the design of suitable hands-on PowerPoint lectures for
traditional instructional methods will be implemented next year as studentcomments indicated they felt they did not feel they gained the CAD skills we hoped they would.The field trips to a complex automated recycling facility, a wind power industry (housed in agreen designed and engineered building) and a water treatment and supply facility provided awelcome break from the regular academic schedule and gave students an opportunity to see somereal world applications of engineering that required technical skills, design abilities, and had verypositive societal benefits. An added benefit was an opportunity to spend time with theirinstructors in a casual environment (including a stop at the Ben & Jerry’s factory!). Studentcomments on the field trips
Enables for Women in Engineering. The Bridge 30 (2000) 6. National Academies Press, 2006. Rising Above the Gathering Storm. 7. U.S. Department of Labor. February 22, 2008 . 8. Rice, J., T. M. Bayles, G. Russ, and J. Ross, “Preparing Freshmen for Future Energy Issues”, Paper AC 2007-1748 published in the Proceedings of the 2007 American Society for Engineering Education Annual Conference & Exposition. Presented in the Hands-on & Real world Studies Session in The Freshman Programs Division Session #2253 at the ASEE Annual Conference, Honolulu, HI, June 26, 2007. 9. Bayles, T.M., T. Foster, D. Sheridan and C. Parker, “Let it Roll
step 1 of the IDEO design process – Understand the Problem. Please document your classroom discussion and complete any part of the discussion that was cut short due to lack of time. You should address the client, market, technology and constraints. 2. Complete step 2 of the IDEO design process – Observe People in Real Life Situations. You should discuss why the “bug” you chose bugged you, your experience with other people experiencing the problem, and how the people you observed coped or fixed the bug. 3. Step 3 of the IDEO process was to visualize new-to-the-world solutions. a. Include a cell phone picture (or other electronic illustration) of the
throughdecision support systems (i.e., to become “power users” not programmers). Emphasis is placedon the analysis of data in order to make more efficient and effective decisions. The coursesemploy a series of “in-class labs”, integrating the traditional lab and lecture sessions into one,and all in-class activities are done on student-owned laptops [1, 2]. The labs are crafted tocapture the student’s attention the entire time owing to the large distraction of having acomputer. Many of the homework assignments and case studies come from industrial sponsoreddata and represent real world situations. Course content as well as teaching methodologiesemployed and developed have been described in earlier research [1, 2]. Even though this courseis offered in two
. • Work as an effective contributor in a team environment. • Prepare written documentation and make oral presentations that effectively explain project progress or results. • Present hand-written technical information in a clear and orderly manner. • Manage time and commitments with minimal supervision. • Design and conduct experiments, as well as analyze and interpret data.For completeness, the seven outcomes not listed as being directly reinforced by the coursefollow: • Pass the Fundamentals of Engineering Exam • Prepare and Interpret schematics and engineering drawings • Perform basic engineering economic assessments • Possess real-world experience obtained through internships and co-op programs
different than their other classes. Even though students found the class enjoyable,they expressed some negative perceptions regarding some stages of the engineering designprocess, and the pacing of the course. Further, some 7th graders described the 3D CAD softwareas being hard to follow. Additionally, students learned that collaboration is an important component of theSTEM-ID curriculum. In real-life settings, engineers collaborate with their peers throughout thedesign process. It is important that students be able to collaborate because a critical stage of theprocess is the selection of the most promising solution among several competing ideas.Collaboration among classmates was perceived as a positive experience by STEM-ID studentsacross
engineeringeducational system, yet their vision can be realized within the structural barriers inherent inhigher education. CSU’s new pedagogical and organizational model emphasizes knowledgeintegration and interweaves thematic content threads (creativity, foundations, andprofessionalism) throughout the curriculum. While ECE material is known for being extremelyabstract and mathematically intense, multifaceted faculty teams are working collaboratively tohelp students connect the dots between topics and demonstrate why their knowledge is relevantto the world outside the classroom. Embarking on a range of initiatives to cultivate a student-centric culture that embraces people of all backgrounds, the CSU RED team is drawing on thelatest technologies and active
course.In addition, the lecture component is also used to introduce the students to what is required to becompleted in the labs., This lab course also include a design project based on applying the digitaldesign techniques addressing real world problems. Students work individually in all the labs andas a group for the final design project, and they are required to write individual lab reports at thecompletion of each lab.To implement the QEP process in the course students are introduced to the writing expectationsduring the first week of the course. The expectations of the lab reports are explained to thestudents as a means of expressing the material learned and discussing the results obtained duringthe lab. Students are also introduced to the
advancement of the internet and transportation technology, our ability topositively impact the world we live in has greatly increased. This is particularly relevant forengineers, who often work on problems, solutions, and products which have direct globalimplications. Furthermore, engineering approaches vary based on geographical, economic, andsocietal factors [1]. To prepare engineering students for broad success, the development of globalawareness is an important skillset [2,3]. Furthermore, international research experiences are avaluable opportunity for undergraduate students [4]. Previous international research experiencesfor undergraduate students have incorporated heavy technical preparatory work [5], limited priortraining due to available
beginning his doctoral studies, Hassan worked for five years at General Electric where he graduated from their Edison Engineering Development Program (EEDP) and then worked as a gas turbine fleet management engineer. In addition to his technical role, Hassan supported the recruiting, interview, and selection process of the EEDP Program, where he mentored interns, co-ops and Edison associates from the Middle East and Africa regions by developing and teaching a technical training cur- riculum, providing guidance for graduate school applications, and providing career consultation. c American Society for Engineering Education, 2020 A Systematized Literature Review: Students’ Upbringing Influence on
existence of a topic related to dimensions of variation 1,but no awareness of different possible values in that dimension, or using Marton’s words, thedimension is still closed to this learner’s awareness. In “Way 2”, there is awareness of twodimensions of variation, but the learner is only aware of the variation in only the DoV 1,meaning that this dimension is opened to the learner, while the other is still not. “Way 4” wouldbe the most advanced one, and in this case, the learner will be aware of the variation on alldimensions of variation and will recognize all the critical features in each dimension of variation.Ensuring quality when using blended phenomenographySin [29] proposes several applications of the rigor and quality criteria for
artifact that may not behaveexactly as they predicted on paper. Due to their effectiveness, hands-on design projects areimplemented in numerous design courses across the world [3].Using 3D printing as an option allows students a technical method to prototype that is moreadvanced than simple low-fidelity models, but also safer and more accessible than constructingprototypes in a machine shop. As a result, 3D printing is used in a variety of design coursesincluding high school, undergraduate, and graduate levels of STEM education [4-6].Incorporating 3D printing into a course allows students to build upon critical thinking andproblem solving, as well as increasing writing and speaking skills [4]. However, as with mostnew technologies, teaching
is the convergence of experientiallearning and informal interactions that students learn to apply the technical knowledge, create acommon language to communication across cultures, and deepen their understanding of what itmeans to be an Electrical and Computer Engineer.To make experiential learning most effective, increasing intentionality and integration within theECE curriculum in needed. Intentionality within the classroom and the curriculum requiresfaculty to both incorporate high impact learning activities within the classrooms, and continuallyassess learning outcomes [21]. For example, service learning opportunities that bridge thetechnical engineering skillset learned in the classroom within a real-world context offer studentsan
the sun may radiate from throughout the year relative to a building in a givengeographical area. Furthermore, the heliodon shows where the sun is at the specific time and dateEnergy3D is currently set to. After the heliodon is turned on, the student starts the animate sunsimulation. Animate sun shows the suns movement throughout the day starting at Energy3D’scurrent set time. The animate sun simulation runs for four seconds, and half a second. Eachsecond is approximately one hour of real world time. The student hen turns off the heliodon andimmediately turns it back on. Next, they animate the sun for one and four seconds and place twopanels while running the animation for a final twenty-one second run. In their final move theirturn the
used as the experimental and the other as control. The classes met at the same time duringthe Fall semester of 2016. The experimental class had 38 students, while the control classconsisted of 35 students. Both classes used the same course package containing concepts,derivations, and real-world examples covering a range of basic to advanced skills. The coursepackage was provided by courtesy of Howard and Williams [20]. The textbook was the 10thedition of Mechanics of Materials by R. C. Hibbeler.The authors selected two course topics for comparison in this study. The two topics were shearand bending moment diagrams and the Mohr’s circle. In teaching those two topics, one instructorfollowed the traditional techniques (see the subsection on
starting at UCDavis to be better prepared.Computer programming is a skill required in most undergraduate engineering programs, oftenusing MATLAB. Incorporation of MATLAB/computer programming in discipline-specificcourses can connect practice exercises in programming fundamentals to real-world applications.In one such example [7], the authors used MATLAB and C programming in a first year electricalengineering course, with the application being the control of hardware devices such as sensors,input devices, and output devices. Many non-computer programming UC Davis engineeringcourses also require students to apply their knowledge of programming with MATLAB todiscipline-specific problems. For example, the UC Davis chemical engineering
2014 to six tracks of 135 students in 2017 to seven tracks of180 students in 2018. We focus on the 2017 program in this analysis but are continuallycollecting data with each new cohort. To scale the program up in a sustainable way, all studentsenroll in the same “umbrella” course but then engage in different international tracks, allowingeach individual track to remain a reasonable size (25-30 students). Tracks meet individually onehour per week during the semester, and then travel together for two weeks in May. Rather thanhaving each track as a separate program, using the umbrella format with multiple tracks in thesame program helps consolidate administrative processes (e.g., one application process instead ofmultiple processes for each
impressionthat the ma term (the so-called inertia force) is a real force. Since this is certainly not the case,the instructor has to make sure to mention over and over that it is only a fictitious force. He canalso emphasize this by choosing a different color for the inertia forces in the free-body diagramwhen doing example problems on the board.I feel that the application of d’Alembert’s principle has several advantages: By drawing the inertia forces (which of course show the reaction forces at bearings) into the FBD, the student get a better feel for what is happening in the system. In many systems they will be able to immediately determine the direction in which the bearing forces point. Multiple-body system are easier
greaterimpact on students' entrepreneurship than formal ones, namely supporting measures andeducation training; the effectiveness of entrepreneurship ecosystem depends largely onwhether it can shorten the path from technological innovation to technologicalentrepreneurship, achieve efficient technology transfer by transform technologicalachievements from universities into real business opportunities, and thus add the interactionbetween technology transfer network and universities to the network interaction (Liu Juan etal.,2017); the interaction between alumni and universities is included in the networkinteraction based on the previous literature review and expert interviews.The indicators of self-evolution are divided into four second-level indicators
-SES engineering students [6, 17, 18]. Active learning instructional techniques ask students toconstruct their own comprehension of content through use of engaging instructional methodssuch as real-world problems, open-ended questions, student/audience participation, interactiveproblem-solving, group work and discussions, and formative feedback [19]. This model shiftsthe centeredness away from the teacher, to the students, and forces students to be moreaccountable for the learning process [6, 20, 21]. Active learning provides opportunities forstudents to be more emotionally and behaviorally engaged in the material [22] and improvesstudent achievement through increased peer to peer interaction and formative feedback [18].While particularly
9 .Some have suggested that strategies to improve retention in the first year include hands-onengineering projects 10,11 and real-world experience 12 . Participation in co-ops increasesself-efficacy which is reported to improve retention; albeit co-op experiences do not usually occuruntil after the first year 8 .Other researchers argue that student’s pathways through engineering are guided by theiridentification with engineering rather than a homogeneous curriculum acting like a pipeline 13 . Inessence, freshman engineering retention might be improved by stronger identification withengineering careers 14 . Studies have shown positive results from efforts in career planning 15 anddeveloping a better understanding of what engineers do 14
,literature24 points out that a fundamental challenge in developing fulfilling and rewardingexperiences for each student is the identification of appropriate community partners and projects.In this study, we describe a one credit hour service-learning course designed for enteringfreshman with MPE scores below 15 and explore potential impact. The course was developedand offered for the first time in Fall 2015 semester to 79 entering freshman. While 66 of the 79students were students with MPE scores below 15, the remaining 13 students were enrolled inthe course for other reasons, including interest and needing one more credit hour for full-timestatus. The learning outcomes of the course include experience in applying engineering skills tosolve real-world
Capstone Design Materials Lab* Heat Transfer* Thermo Lab* Dynamics Define and Refine the ProblemGather information, identify andunderstand the needs of the real x x x x x x x XproblemSet goals, objectives, define criteria x x X X X X Xfor
students, an instrument was developed to measure theminimum competency in ethical conduct, i.e. the ethical sensitivity of construction students.Ethical sensitivity is derived from Rest’s four component model of cognitive moral developmentwhich includes: moral sensitivity, moral judgment, moral intent, and moral behavior. Componentone, moral sensitivity, involves “imaginatively constructing possible scenarios, and knowingcause-consequence chain of events in the real world; it involves empathy and role-taking skills”6.For the purpose of this paper, ethics are associated with the rules of conduct recognized in aparticular profession or area of human life and morals are associated with personal values thatdrive ethical behavior7. Adopting Rest’s
. The discussions have informed the authors nonetheless. ENES 100 instructional team survey The instructional team expressed many positive comments about their experiences with the new project. One of the most commonly expressed sentiments was that it was reinvigorating to not have a set of known solutions for the new project. Instructors and students alike found this to be exciting and it provided the opportunity for genuine creativity. In addition, many on the instructional staff appreciated the introduction of 3D printers and a GPSlike navigation system, citing that this was representative of what students would experience in the real world. Next, many noted that the number of teams with successful vehicles increased from the number
world to the “doublebind” of being a woman and a person of color. It was a phrase coined during the exploration ofthe status of minority women in science. The “double bind” was comprised of the effects of dualoppressions, being both a woman and a person of color. After all, African American women areat the intersection of two of the most pervasive prejudices in this country: racism and sexism12.On the most general level, oppression denotes structural and material constraints thatsignificantly shape a person's sense of possibility and opportunities13. Oppression restricts bothself-determination and self-development, and ultimately limits who they can imagine becomingand the power to act in support of their own rights and aspirations14. The