courses in the area of Computer Applications and Information Technology. Her areas of inter- ests include 3D CAD sketch, 3D printing, Hybrid Learning Instructional Design, Digital Media, Interac- tive Media, Instructional Technology Integration and network design. In addition, Dr. Jao is a certified Microsoft Office Master Instructor, and Cisco Certified Network Associate (CCNA).Ms. Kiana Lynn Curtiss c American Society for Engineering Education, 2019 Project-based Learning: An Integration of Real-World Project in a 3D Design ClassAbstract With the explosion of new practices in teaching pedagogies to prepare students to bebetter skilled in technical fields, it
memberstated, “I learned how to do material research that best suited our need since we needed corrosionresistant, lightweight, and inexpensive [materials]… I learned how to do preliminary static basicfinite element analysis on CAD models to determine the stress concentrations. This was doneusing the built in SolidWorks simulation. I was able to find stress concentrations on the cross-members that held the hull onto the frame statically. I also improved my understanding of rapidprototyping, in our case, 3D printing which was used to create many fixtures and mountingbrackets.” The experience former Robosub members gained not only prepared them for theconstraints of real-world engineering projects, but also provided a good learning environment forthe
. Ms. Wertz’s research interests include teaching and learning engineering in online course formats, and the development of information literacy in engineering students. Page 23.1247.1 c American Society for Engineering Education, 2013 Theory to Practice: A Reflection on the Application of Engineering Education Coursework to New Course Development I. IntroductionOne significant challenge for many students is translating theories learned in the classroom toreal-world applications. In this paper I present a model for translating learning and
operations, wasting time and money trainingnew graduates.Colorado State University, offers little training on lean manufacturing in any of the existingcurriculum. None of the departments in the College of Engineering offer lean manufacturingclasses prior to graduation. There is not an Industrial or Manufacturing program at ColoradoState University, thus the Mechanical Engineering program was the best candidate at CSU toeducate students on lean manufacturing and perform this research study. The capstone class ofthe Mechanical Engineering program at CSU is MECH 486, a class focused on a yearlongendeavor that incorporates the full lifecycle of an engineering design project. Students gain real-world engineering design experience by working in teams that
water. Sun Path mobile ap-plication helps user visualize Sun’s path at any given time and location. Students studyingthe Sun Path in various fields often have difficulty visualizing and conceptualizing it, so theapplication can help. Similarly, the application could possibly assist the users in efficient so-lar panel placement. Architects often study Sun path to evaluate solar panel placement at aparticular location. An effective solar panel placement helps optimize solar energy cost. So-lar System Oculus Quest VR application enables users in viewing the solar system. Planetsare simulated to mimic their position, scale and rotation relative to the Sun. Using the Oc-ulus Quest controllers, users can teleport within the world view, and can get
sanish.rai@mail.wvu.edu c American Society for Engineering Education, 2020IntroductionThe purpose of this research is to develop mobile application using innovative AugmentedReality (AR) technology for interactive study content targeted towards middle school and highschool grades. By using the developed AR application, students will be able to learn aboutdiverse science topics more efficiently and visually. The AR mobile application allows the userto project a 3D (3-Dimensional) AR model of science topics on a real-world surface (such as atable or a piece of paper). The users will be able to interact with the model as if it existed outsideof the mobile application using touch interfaces. Visual information helps us to
problems visual through report writing of the entiremultimedia representation, etc.) as application process and then presenting toclass activities, class assignment and Assessment the class while discussion theira multi stage class project Triangle Metacognition aspects as well.independently and in groups. (LO.1) Every student can easily apply the basic mechanics principles to a real world engineering problem; a 3- stage class
Science Foundation GK-12 fellow – teaching and bringing real- world STEM applications in two urban high schools. Since then, he has worked with university faculty to promote and extend K20 STEM outreach in Ohio, Oregon, Texas, and Wyoming. He has authored peer-reviewed articles and papers, presented at national and international conferences, and taught under- graduate/graduate courses in Computer Security, Data Mining, VLSI and pedagogy in STEM. c American Society for Engineering Education, 2019 Novel STEM Research Programs Could Minimize Attrition in Undergraduate EngineeringAbstractMany institutions across the country suffer from high attrition rates in their
sections 8.Other research groups and universities have embarked on similar projects to create education toolsfor control systems education; but are mostly outdated. A publication in ASME from 1998, similarlydiscussed a multimedia learning tool tailored for the Georgia Tech curriculum 9. It used 3representations of real-world applications with simple videos and diagrams to support the learningmaterial. Another publication in IEEE from 2003 developed a simulation tool; though the interfaceis similar to what is now readily available on Simulink 2020—deeming the tool itself outdated.Ultimately new technologies have been introduced and further accessible since these projectsdeeming them outdated. These
individual teachers, so attendance and all materials are free for educators. Since 2017,REACT has hosted ninety K-12 teachers from seventy different school districts. Similarworkshops are being developed at other universities based on REACT’s model. At times, thedistance between graduate school and K-12 education can seem very large, but as one REACTparticipant stated: “REACT has been an effective way to bridge the gap between the researchcommunity at the University and the education sphere.” I. Introduction & BackgroundWith the rising focus on engineering and inquiry-based science education, it is becoming morecrucial to incorporate real-world concepts and applications of science and engineering into theclassroom[1]. This need is heightened
strategiesE that promoted participants’ adoption of a deepapproach to learning.23 These experiences were described in three categories: reducing thepressure and stress of evaluation, incorporating real world applications, and accessing hands onopportunities.Isabel and Michael presented the idea that their courses were more fun and supportive oflearning when evaluation pressure and stress were reduced. Michael explained that learning inacademia could be more enjoyable when taking the "grade out of the equation." He went on tosay, "Because in the end, I "like' my classes, but the only thing I don't like is that I am beinggraded every single day, and I have to get certain scores to be okay." Both students explainedsome of the benefits associated with
isolated concepts and transferring them to new analogy, everyday contexts. examples, simulation, 5 Description The fellow uses real world examples to convey the breadth application of science of a simple science concept. Label Reformed-Based Teaching Practices inquiry, reinforce with Definition Any evidence of non-lecture based learning activities. labs, self-discovery, 6 Description The fellow utilized any of the three levels of inquiry to interactive discussions, engage the students in learning a new concept
engineeringscience requirements in higher education, but unlike the fundamentals-first approach, EiEstudents engage science content through a simple engineering design process. In this process,students are taught to iteratively “ask, imagine, plan, create, and improve” to meet the goal of arange of engineering design challenges.17 The design challenges in EiE work to engage studentsthrough real-world application of engineering design, often in cross-cultural contexts.Unit-by-unit, EiE students explore different science topics by applying engineering design toproblems that are contextualized in countries from Ghana to Denmark.18 In the physical science(iii
program will support many of the current and planned Research Clustersincluding: (1) Advanced Materials & Nanotechnology (new nanoengineered materials andmanufacturing processes); (2) Energy and Environment; (3) Biotechnology and Biosciences(new materials & applications of nanoscience in biology, agriculture and medicine); and (4)Computational Science and Engineering (computational aspects of nanotechnology) that are keytechnology areas for the current and future scientific, engineering and technology needs of thenation and the world. The rapidly spawning array of nanoengineered materials and techniques and theirapplications in research laboratories globally hold great promise for new nanoscale engineeringsystems and technologies
opportunity for creative or ill-structured solutions. The author alsodid not have any deep relationships with faculty members or other engineers that could sponsor adegree of identification and relatedness. The sum of these factors set initial conditions that did notfavor engineering identity development. The independent study facilitated an opportunity to change these factors and progresstowards an engineering identity. Through working with a senior faculty member at USMA theauthor was able to eliminate obstacles to engineering identity development. Motivation changedas the author began to understand the value of foundational engineering coursework in relation tosolving real world challenges. Engineering competencies increased as a result of
Educational Application/ Funding/ Entry Admission (or realschool Background; Acceptance Letter world) FundingStarting Coursework/ Classes Coursework Cohort/ Classes/ CourseworkCoursework Exams/ Projects
questionnaire.are prepared, then their students will become equipped for the challenging These characteristics of the EDP are thoroughly described in the Nature of Preparing PSTs to teach engineering design in elementary classrooms cantasks that take place in the real world. The increasing demands for STEM Engineering (NOE) views. Originally, authors were inspired by agreed
short-term impacts8,19–21 and longer-term outcomes14,18 ofundergraduate research experiences. However, pre- and post-testing asks students to report ontheir experiences after the fact. The case study described here was motivated by a desire todocument students’ thoughts and experiences in “real time” as they evolved during the course ofan undergraduate research experience.Materials and MethodsThe autoethnographic research study described here took place in the summer of 2012 atMichigan State University (MSU). The eight student participants in this study were a self-selected subset of a larger group of undergraduate research assistants participating in the MSUEnSURE (Engineering Summer Undergraduate Research Experience) program. This section
, intellectual and task-related, that are required in today’s workingworld, and claim that students’ dissertations and research interests are often disconnected fromother knowledge and real-world problems” (p. 5).15The work of making connections between research and practice is often described astranslational work. Some disciplines approach translational work directly. For example,translational medicine is a growing subfield of medicine, as evidenced by new research centersand degree programs (e.g., The University of Edinburgh, UC San Francisco, UC Berkeley), andjournals (e.g., the Journal of Translational Medicine). The aim of the Journal of TranslationalMedicine is to publish “articles focusing on information derived from human experimentation soas to
complex problem-solving activity, one needs to beable to weave in and out of divergent and convergent thought patterns in arriving at anappropriate conclusion specific for a given situation [3]. An understanding of how creativityaffects group dynamics helps to reinforce the goals of interdisciplinary collaboration programs tohelp students appreciate and capitalize on the strengths of others in solving real-world problems.[4].Four concepts that help to separate creative thinking from the idea of “ex nihlo” are: flexibility,fluency, originality, and clarity. Flexibility refers to the concept that a creative person approachesa given problem from many different angles. All of their ideas are not based off of the sametheme. The concept of Fluency
Dean’s Ambassador Program seeks to enhance leadership developmentand foster a spirit of pride among undergraduate as well as graduate students within the Batten College ofEngineering and Technology and the ODU community.● Society of Automotive Engineers (SAE): SAE provides students a hands-on opportunity to applyclassroom knowledge to real-world projects for international competitions.● Student Government Association (SGA): SGA recommends, promotes and advises the development ofrelevant programs and services; a medium between student body and university administration.● VEX U Robotics Team: Students from a variety of majors (not only engineering) who design, build andprogram robots for tournament competitions.● Engineering Makerspace and
addition to the extracurricular activities, there are work-study and co-opprograms that provide students with real-world experiences. Inside the classroom, studentsacquire the knowledge necessary to ultimately graduate with a Bachelor’s degree in their chosenmajor. All these experiences help transform the student from a dualistic to a relativistic point ofview. According to Dr. William Perry, author of Forms of Intellectual and Ethical Developmentin the College Years, there are nine positions of intellectual development that can be divided into Page 23.571.2two broad categories with position 5 as the pivotal point (see Appendix for Dr
students’thoughts versus a true or false or yes or no format. We also believed we could account for theopinions and thoughts of those who had not considered some of the statements we asked them torate. Students are also accustomed at The Citadel to respond in this way to surveys as part oftheir ongoing leadership development.DataSurveysSurvey categories were developed from previous internship maintenance studies, focusing onwritten, verbal, and visual communication; real world application of engineering concepts; andprofessionalism [15], [20], [21]. The first category of the survey asked the students to rate theirprofessional skills or traits after they completed the course. The students were rating on the basisof whether they had either further developed
from the evaluation they do our own ideas and predispositions in light of what is of the lead Professor. The ratings that learned in TPT. Teaching Fellows truly take 50% students give and, importantly, any specific ownership of the class to which they are assigned. comments that they make about the GTA’s That forces them to confront their own beliefs, and to contribution to their learning provide grow to meet the needs of the real instructional feedback to improve and evidence of his or world. It creates an opportunity for renewal of the her teaching experience to use during their course, to the benefit of instructors and students job search
BridgeCompetition, while other groups assist their own schools or municipalities withengineering projects or data collection efforts. Another important source of hands-onexperience for these student groups is often found through volunteering on communityservice projects such as Habitat for Humanity or park clean-ups. Regardless of whetherthe projects are competitive or not, they all have an important role in enhancing astudent’s engineering education experience. While some projects help students combineclassroom learning (i.e. steel design) with real world applications (i.e. steel bridge design,fabrication, and construction), other projects help introduce the many socio-economicaspects of engineering through a participatory process. These
presentations addressed real world 18 18 4 0 0 1 issues. The presentations conveyed the information 22 16 1 0 0 2 addressed in the abstracts. The overall format of the conference was 25 12 3 0 0 1 appropriate.As shown in Table 1 the attendees responded most frequently in a positive manner regarding theconference. When asked if the conference provided useful information regarding graduateresearch 56% of attendees that attended the conference responded in the most positive way.When looking at the overall format of the conference 61% of responders strongly agreed that itwas appropriate. For all the questions no responder felt like they
fromhttps://peer.asee.org/assessing-high-school-science-teachers-nature-of-engineering-noe-perceptions-with-an-open-ended-noe-instrument-fundamental)NOE Aspect DescriptionDemarcation criteria (What is Engineering is systematically engaging in the practice ofengineering? What makes design to achieve solutions for specific problems. Engineersengineering different from apply their understanding of the natural world (scientificother disciplines?) knowledge) to design solutions for real world problems. This endeavor results in new technologies. In the K-12 context, “science” is generally taken to mean
groups.Specifically, high GPAs (3.0-3.5 and 3.5-4.0) will be considered successful or high performanceand the students below 2.0 are considered low performance.The results were combined into a single document that can be distributed to students as a way toencourage more successful study habits. The analyses reveal the real-world help-seekingbehavior, as opposed the more often-analyzed student intentions. Similarly, the study habitsrecorded can help to shape tutoring and support services within the university. As awork-in-progress, the data are preliminary and future work will get a wider number of surveyresponses, answers to deeper questions, and have more analysis.The rest of the paper is organized as follows: Section 2 explores previous work found
themmake connections between the different building blocks of the course.VI. Student Responses and Revisions to Teaching Students had the opportunity to enter their feedback on the course and the instructoranonymously on the Personalized Instructor/Course Appraisal (PICA) system of Texas A&MUniversity. Student feedback for all three semesters suggested that the majority of the studentsenjoyed the learning experience they had in this course. Most of them appreciated how the coursewas structured and how the activities were organized. They enjoyed the real-world relevance ofthis course, which was included as an important situational factor in the course design. It was seenfrom their performance in homework assignments and quizzes that
education and Page 26.1095.4professions in its recommendations, seeking to address the impacts of stereotypes and implicitbias on both individual female students and the social, educational, and professional norms inSTEM disciplines. For example, the report focuses on mechanisms to reduce stereotype threatand identify implicit biases, and also addresses how changing student understandings ofintelligence and spatial skills to emphasize that these skills can be learned leads to improvedstudent performance. The report also points to research suggesting that the inclusion of real-world applications in coursework increases the retention of female students