from any courses in the fall semester. In addition, there was asingle F grade in the collective courses of the nine students. These two markers can be comparedto the performance of non-FA first-year SCE students with math placement test scores of 2, 3, or4. There were 11 W’s and 22 F’s among the peers (figures 2a and 2b). Figure 2a Figure 2bFigure 2: Comparison of course (a) withdrawals and (b) failed grades of First-year Academy students and their peersWellbeingAs an integral part of the evaluation of the new residence experience curriculum, a survey wasdeveloped by the Office of Academic Innovation & Effectiveness, which was administered tostudents one-by-one by their
projects which require multidisciplinary teams in order to be successful. Manysuch programs have been initiated, including those discussed in [8][9].This effort described here differs from some of the above work in two major ways. First, theprojects varied considerably, including an industry-sponsored project, a national competition,and an internally-funded research project. Secondly, this was not done through the developmentof a new course. Rather, the multidisciplinary projects were simply some of the projects fromwhich students could choose as part of the standard capstone course. It is hoped that the lessonslearned from these initial teams will allow smooth integration of further multidisciplinaryprojects in the future.Design Teams:Four
issues expressed by government, academic institutions, and industries acrossthe nation. The ET program’s content provides an integrated educational experience directedtoward developing the ability to apply fundamental knowledge to the solution of practicalproblems in engineering technology fields. The majority of the ET courses at Drexel are fullyintegrated with training and laboratory experience and extensive use of software and industrialcase studies12. A new generation of industrial engineers, manufacturing engineers, and engineeringtechnologists must be educated and trained in various quality control-related techniques,methodologies, and corresponding equipment. Consequently, the role of NDE in assuring publicsafety is greatly increasing
the course.4. SummaryIn conclusion, based on the evaluations of the students, the TAs, the instructor and variousexternal observers, we felt that the course was a success. The following ideas were successful: · Offering a technical course to non-majors and exposing them to a wide variety of topics in multimedia systems. · Providing an experience for exploration of a particular project in depth using a diverse group of students and tools. · Using guest lectures from the UMASS community, integrating research and information technology into the curriculum. · Capturing the course through the use of low-cost video, Web site and CD-ROM.Recommended improvements to the course include: · Covering less material (a
experience that may ormay not be informed by effective strategies. And in this ad-hoc model, when scientists-in-training seek help to be better communicators, in our experience it’s often too late in thedevelopment of their communication task to integrate best practices into the novel design of thespecific piece of communication. At best, specific flaws may be triaged. Rarely is sciencecommunication integrated into a curriculum that addresses specific needs of science trainees inreal time. And, to our knowledge, science communication training has not been delivereduniversally through all levels of an institution – faculty to postdocs to graduate andundergraduate students – therefore, there is no common approach within an organization. As aresult
discontinued for now,with faculty choosing to focus more in depth on the first two case studies. However, it offersmuch for students, and may be substituted for one of the other case studies or added as the coursechanges.Case Studies in the LiteratureMany authors over the past two decades have pointed out the need to integrate lessons learnedfrom failure case studies in engineering education 6,7,8,9,10,11,12,13,14. The case for including failurecase studies in the engineering curriculum has been made by several authors, including Delatteand Rens 15, Delatte 16, Carper 13, Carper et al. 17, and Carper et al. 18. Over the years, the ASCETechnical Council on Forensic Engineering (TCFE) has carried out several surveys of civilengineer programs across the
in theiruniversities in terms of funding (S3-NU3; S11-NU10), learning materials (S7-NU6;S2-NU2), soft and hardware relevant to electronic design (S4-NU4; S5-NU5; S8-NU7).As discussed above, the OIPI initiative is not merely an open platform aggregatinghigh-quality open educational resources. More importantly, the facilities from SUniversity designed systematic learning and curriculum plans which ‘transformed thescattered raw materials worldwide to comprehensive and coherent knowledge contentsand flow’. (S7-NU6) As our participants recognized that ‘accessing resources is the firststep leading to success’, (S6-NU6) the accessibility to learning opportunities provided bythe OIPI initiative is the precondition for candidates’ learning and
Boomer is a graduate student completing his master’s degree in aerospace engineering at the University of Michigan. His focus in engineering education research has been towards bridging the gap between the undergraduate engineering curriculum and engineering industry practice.Cindy Wheaton, University of MichiganDr. Aaron W. Johnson, University of Michigan Aaron W. Johnson (he/him) is an Assistant Professor in the Aerospace Engineering Department and a Core Faculty member of the Engineering Education Research Program at the University of Michigan. His lab’s design-based research focuses on how to re-contextualize engineering science engineering courses to better reflect and prepare students for the reality of ill-defined
to as the digitalrevolution. Arguably the adoption of digital technologies, integration of robotics and automationare some of the key drivers of the third-industrial revolution. Although the third-industrialrevolution is still evolving, the invention of the internet and widespread use of digitaltechnologies and satellite communication systems fueled an entirely new period in the industrialrevolution. This new period which closely overlaps with the digital revolution is the fourthindustrial revolution, commonly came to be known as Industry 4.0 (I4.0). Figure 1 shows atimeline of evolution of industrial revolution.The term Industry 4.0 (I4.0) was first coined by the German government in 2011 as a part oftheir High-Tech Strategy for Germany [8
Curriculum” Proceedings of the 1997 American Society for Engineering Education Annual Conference & Exposition, 1997. 13. Cronin, P.J. “ A simple problem which students can solve and check using an inexpensive calculator ”, Proceedings of the 2000 American Society for Engineering Education Annual Conference & Exposition, 2000. 14. Baker, J. R., Capece, V. R., Lee, R. J. “Integration of Finite Element Software in Undergraduate Engineering Courses” , Proceedings of the 2001 American Society for Engineering Education Annual Conference & Exposition, 2001. 15. Pike, M. “Introducing Finite Element Analysis in Statics”, Proceedings of the 2001 American Society for Engineering
conceptualknowledge, and of course in skill sets.A course in Dynamics is part of a series of courses in Engineering Mechanics, the others beingStatics and Mechanics of Materials. In a Mechanical Engineering curriculum, it is an importantpre-requisite for courses in Dynamical Systems, Fluid Dynamics, and Mechanisms andMachines. Therefore, a clear conceptual understanding of the basic principles of Dynamics iswarranted, so that students can undertake critical thinking in future courses and in theirprofessional career.The principles of Dynamics, as part of a course in Engineering Mechanics, is better understoodby intensive problem solving. Because of limited time in classroom lectures, problem solving inhomework assignements is an integral part of the learning
School of Engineering and Technology. One of the major suggestions from the IAC wasto provide an environment for students to practice multi-disciplinary innovative productdevelopment in our curriculum. The faculty pointed to this course much to the delight of theIAC. On another occasion the IAC was meeting one year after the completion of the first ENGR350 course; they were viewing the capstone projects of the first students to have completed theentire PBL sequence from freshman through senior. One of the IAC members pointed out thatthe projects that year tended to be of a higher caliber than those of previous years, noting thatthese students were the first to finish the entire PBL sequence.References[1] Self, B. P., Widmann, J. M., Prince
available in an engineering curriculum. At TSUenvironmental justice is presented to students in the context of how these issues caninfluence the ethical practice of Environmental Engineering with regard to the design andsiting of hazardous and solid waste facilities. Two class assignments based onhypothetical scenarios demonstrate the nature of environmental injustice and how theseoccurrences impact decisions regarding waste facilities. A third assignment based on acase study presents a series of ethical failures leading to harm to human health and theenvironment and emphasizes the role of environmental justice concerns in precipitatingthe ethical failures. The assignments are briefly described below. The actual assignmentsare accompanied with a
country. The Human-CenteredComputing (HCC) PhD program at Georgia Institute of Technology has a particular focuson human-computer interaction (HCI), learning sciences and technology (LST), cognitivescience, artificial intelligence (AI), robotics, software engineering and information security.Students must complete three core classes that include Introduction to Human CenteredComputing, Prototyping Interactive Systems, and Issues in Human Centered Computing. Theymust also take 9 credit hours in an area of HCC specialization, and 9 credit hours in a minor oftheir choosing outside of courses offered by the college. The curriculum was designed to providestudents with depth and breadth of knowledge in HCC areas. Similarly, in the HCC PhD degreeprogram
construction education and training impairs the ability of our undergraduate constructionstudents to obtain practicality and feel for engineering construction, knowledge of overall structural behavior,creative thinking and problem solving, accuracy of assumptions made in the design, and engineeringjudgment. Such impairments have directly or indirectly contributed to construction failures and accidents withthe often tragic loss of human lives. As such, the traditional education and training in our current constructioncurriculum must be enhanced. To overcome this problem, the COVR model is currently being developed andwill be integrated into our curriculum. This model encompasses the erection process of a bridge superstructure--one of the most
Paper ID #42621Enhancing Understanding and Retention in Undergraduate ECE Coursesthrough Concept MappingProf. Yang Victoria Shao, University of Illinois at Urbana - Champaign Yang V. Shao is a teaching assistant professor in the electrical and computer engineering department at University of Illinois Urbana-Champaign (UIUC). She earned her Ph.D. in electrical engineering from the Chinese Academy of Sciences, China. Prof. Shao has research interests in curriculum development, assessment, student retention, and student success in engineering, developing innovative ways of merging engineering fundamentals and research
intelligence. Technology-enabledlearning aims to improve the effectiveness and efficiency of education by providing newopportunities for engagement, personalization, and collaboration [1]. The use of advancedtechnologies in education has grown dramatically over the past few years, with LearningManagement System (LMS), social media, interactive simulations, and game–based learningplatforms. Integrating educational technologies in training programme provides the facility torecord the learning process in the form of data. The potential aspect of data collection on differentaspects of learning engagement and experiences have increased the usage of technology. Toprovide a better learning experience through technology, the domain of learning analytics can
Session 3661 Collaborative Teaching: Reflections on a Cross-Disciplinary Experience in Engineering Education Mark A. Shields University of VirginiaIntroductionMost of us know a lot more about cooperative learning than about collaborative teaching. We arealso far more sympathetic to the former than the latter. The principled virtues and practicalbenefits of having our students work together in teams seem altogether less attractive when weenvision ourselves joined in (chained to?) a common teaching enterprise. While collaborativelearning seems to offer an
been especially important in the one-month- course modality at NU. From the first class ofthe month, students are able to immediately commence a virtual lab exercise comprised of, notonly, an operating system but an entire application or solution stack such as WAMPP (WAMPplus Python)13 or Instant Rails (Rails, MySQL, PHP)14 installed on the VM. In DAT 605 WCC itis noteworthy that the introduction of a VM into the curriculum is, for the majority of thestudents, their first encounter with the technology and they are so excited at the prospects thatvirtualization offers in their employment opportunities and for their employer. Virtualization inDAT 605 WCC is used both on the student’s local computer as well as on public and privatecloud services
. FED-101 isintended to expose them to what to expect when they become an engineer in their chosendiscipline. No common curriculum across various universities dictates how such intendedoutcome would be delivered. Years ago, Mechanical Engineering Department at NJIT hadchosen to use 3Dimensional modeling using Creo Parametric 4.0 [1] solid modelling software,aka Pro/Engineer [1], Wildfire [1] in FED-101. Solid modelling is used as a design tool inmechanical product design. However, product design is not the only career path in MechanicalEngineering. From ideation to product realization, product design has many steps. Apart fromcompetency in product design, time management skills, hands on ability, intellectual-property-exploration skills
courses affected because of you being a disabled student?24. What are you extra curriculum activities?25. Who, in your opinion, should be responsible to enforce the legal rights and protection of disabled students?26. What are the obstacles you expect to face upon graduation and in the future beyond graduation?Specific Goals of This Study:As can be seen from the above list of questions, this study specifically aims at:1. Knowing and understanding the main obstacles facing disabled engineering students in the universities of Jordan, and2. Knowing and understanding the nature and characteristics of integrating disabled students with the rest of the students in the universities of Jordan.Data CollectionThe investigators contacted the
take, (2) lends itself to project work,and (3) is taken early enough in the curriculum that the students taking it are still developingtheir problem-solving skills. In addition, RIT does not have a first-year, comprehensiveintroductory engineering course where students can start to build the skills they will need inupper-level courses and in industry. Therefore, Materials Science seemed an appropriate placeto apply some of the principles learned from freshman engineering courses, through theincorporation of a hands-on, real-world group project.The failure analysis project was implemented as a team learning experience starting in the 2000-01 academic year as part of the Materials Science Lab component. Since the lab allows for morefree time and
of Color experiences as contentious and destructive which impede a conducive learningatmosphere and feed into the immense student of Color attrition rates [8]. Studies on racialclimates at PWIs suggested the issues were deep-seated and influential in perpetuating theadverse encounters for students of Color and persuading PWIs’ values. To much chagrin, theseconditions preserve the lack of multicultural policies and substantive practices which saturatecampus culture and translate into the classroom [8]. Classroom curriculum has little to nopriority in integrating cultural representation based on students of Color experiences in priorstudies [8]. Though academic institutions attempt to adapt social justice concepts as a guide,many educators
over the executionof the project and has some positive or negative bias towards either the student or theirproject. This bias is often introduced in the final assessment, making it difficult to compareand quantify the final results of a cohort of projects resulting from many differentsupervisors5. The integrity of the academic process requires fair and impartial evaluations andhonest academic conduct on the part of the faculty staff and the student. In engineeringdesign (similar to the requirements of design in mechanical engineering) it was also perceivedto be an assessment task which was difficult6. This assessment was entirely based on oral(20%) and written presentations (60%) with ‘client’ (student performance during the project
Paper ID #37080Reflection on Design Teaching Before, During and After PandemicDr. Reem Roufail, University of Waterloo Reem Roufail is a materials engineer that is interested in engineering teaching and applying new technolo- gies to engage students in class. Reem believes that learning is a continuous process that does not end with earning a degree. This explains her willingness to explore different fields of engineering as opportunities to learn. She explored mechanical engineering, environmental engineering, petroleum engineering, sys- tems design, and biomedical engineering in her career paths from an academic
to online classes attributable to Covid 19.Similarly, results showed in Graph 1 for "Motivation and Personal Involvement" (MI), match astudy, [27], where it is stated that even when professors in Latin America show a growing use ofInternet and associated software, improvements in conditions need to be adapted and offeropportunities in using digital resources for university education in an integral manner. Table 6. Variance analysis. Sum of Mean df F Sig. Squares Square Grouped by Between
under the same cost/qualityconstraints as a commercial developer, it is clear that CBT requires substantial upfrontcommitment that will be justified only in certain circumstances.There are a large number of tools for authoring multi-media computer-based trainingpresentations.6,7 The choice of the best tool depends on the needs and use. In addressinglaboratory tutorials, our target audience will have a computer available but may not haveaccess to the web. Further, cost constraints and the need for an established user and thirdparty community for support material were important to us. From these requirements wechoose to use Authorware Academic (Prentice Hall) as the initial cost was only $150and it provided a full set of development
Achievement Through Achievement 1 – Receive Acknowledge the importance of sustainability in the Undergraduate (be aware of, be practice of civil engineering. Education willing to receive, and be attentive to a Any evidence that the topic is covered in the particular curriculum. phenomenon or behavior) 2 – Respond Comply with the concepts and principles of Undergraduate (actively participate sustainability in the practice of civil engineering. Education in an activity, attend to a task, and react to Reflection piece on why concepts
Design course is one of the most important components of a Chemical Engineeringcurriculum because it allows the students to connect many of the concepts they have studiedduring several years, and to direct them towards the plannning of a chemical processing unit.This exercise offers inmense posibilities for the development of skills such as teamwork,communication, selfevaluation, integrative thinking, and creativity, among others. In addition,the design course provides an important opportunity for cooperation with industrial partners by Page 8.1082.1 Proceedings of the 2003 American Society for Engineering Education Annual Conference
curriculum (to includeEM 200) is intended to serve. 1. Officers who possess breadth of integrated, fundamental knowledge in the basic sciences, engineering, the humanities, and social sciences, and depth of knowledge in an area of concentration of their choice. 2. Officers who are intellectually curious. 3. Officers who can communicate effectively. 4. Officers who can frame and resolve ill-defined problems. 5. Officers who can work effectively with others. 6. Officers who are independent learners. 7. Officers who can apply their knowledge and skills to the unique tasks of the military profession.So how do we provide our students with these skills? Certainly, much of the burden lieson the students. They are the ones who