. Theengineering instructor reviewed all of the articles and selected sixteen that covered most of theissues. These were then shared with the English instructor for her approval. The articles(Illustration 1) were then copied to create reading packets for the students.The Engineering ConnectionPre-engineering students placing into the pre-calculus course are one to two semesters away fromtaking the first calculus course and being able to take courses in the engineering curriculum. Thetwo primary academic barriers for pre-engineering students have been passing the pre-calculuscourse, and because they are not yet in an engineering program, maintaining their interest inengineering. The Introduction to Physical Science and Engineering course, which can not
. It will ultimately help students to communicate abouttheir professional work in a larger global and technological context. (NSCU Coursejustification statement, FLS 212, http://courses.ncsu.edu/hon.html) The students will learn vocabulary commonly used in technology context and willdevelop the ability to comprehend and use Spanish in professional settings. They willalso develop an awareness and appreciation of Hispanic culture, including the culturaland historical importance of artifacts in the Hispanic world. As a result, in addition tomastery of the intermediate language curriculum with emphasis on speaking, reading, andwriting in Spanish, students will learn to appreciate cultural awareness as a practical toolin the application of
that these results will be useful for other academic institutions. Page 25.1298.2Research questions and hypothesisAs is the case with most university departments that provide very technical study programs,we are faced with the problem of high drop-out rate. Furthermore, it is a well-knownphenomenon that the non-persistence rate can vary appreciable from year to year even thoughthe curriculum, the teaching staff, and the overall study conditions have remained unchanged.We are also confronted with the fact that we invest more and more in individual supervision,social integration and special freshmen courses without significant sustainable
, wemean the wisdom to know when a simple “slide rule” calculation is sufficient for theengineering job at hand and when a rigorous, thorough computational analysis would beappropriate. To address the problem of little computer use between a first year programmingcourse and the canned “design” packages commonly employed toward the end of thefour-year program [5], some departments have added a numerical methods coursesomewhere in the curriculum. With an already overcrowded curriculum undergoingcredit hour reduction under a state mandate, the addition of a new course did not seem aviable option for us. To our way of thinking the heat transfer course that is taught in thesixth semester or thereabouts of the undergraduate mechanical engineering
hold is placed onstudent registration until they participate in an advising session, and advisors check each student'ssemester registration at the beginning of each term to confirm compliance. If any issues arise, students arenotified via email before the add/drop date. The program is working with the Registrar's Office toautomate the process of verifying successful completion of prerequisites.Assessment and AccreditationFigure 3 illustrates the Program’s overall assessment philosophy and integration between processcomponents. This figure illustrates how guiding principles such as the adopted Mission Statement andestablished Core Values connect with program educational objectives and student outcomes. In addition,the flowchart identifies how
technology in K-12 are contributing to an inadequate educational system. Our multidisciplinary and multi-step approach is motivated by the emerging policyinterest in instruction that better integrates science learning across years1, includes modernworkplace skills2 and more exposure to engineering3. Math as rote procedures can be a barrier toconceptual understanding in science. But math is the language of science and it explains criticalconceptual components of scientific ideas (e.g., the differences between constraints on area vs.constraints on volume, differences between linear and exponential growth). Studies have foundthat math can serve as a thinking tool for making conceptual analysis of complex scientificsituations more approachable
. With this concept in mind, this study focuses on the impact of a short-term (few week)cybersecurity micro-credential for K-12 teachers that included resources that aligned to the needsof their students. Over the of two iterations of this micro-credential study, the authors sought toanswer the research question, “What are the micro-credential cybersecurity successes andchallenges identified by the participants based on design thinking framework?” A total of 21 K-12 teacher participants engaged with two micro-credential experiences. The micro-credentialincludes unplugged activities via cybercards, essential vocabularies, and online research-backedresources and focused on an introduction to cybersecurity, the CIA Triad (Confidentiality,Integrity
students totruly engage in teamwork interaction as part of their multidisciplinary team. Previousresearchers of the pedagogical aspects of teamwork have discussed the challenges engineeringeducators have in motivating students to interact effectively on team-based projects. They statethat little in the professors’ backgrounds or experiences provide a basis for knowing howstudents might show an ability to work effectively in multidisciplinary teams.4 Manyresearchers have offered advice regarding this problem. It has been proposed that that teamteaching one integrated course results in the best opportunity for interdisciplinary interactions5.In the course used to evaluate the assessment instrument described in this paper, the professorsdemonstrated
/multi-team lab configuration. Proceedings of the 2014 American Society for Engineering Education Zone IV Conference Copyright © 2014, American Society for Engineering Education 88This multi-student, teaming capability expands the teaching horizon from individual exercises toinclude team based assignments such as Capture the Flag and Red/Blue team warfaresimulations. Access to multiple resources provides curriculum designers with the ability tosimulate both small/medium sized businesses (SMB) and larger, enterprise class environments.“Hands-on lab exercises play an important role in teaching a computer and network
coverage of safetytopics (i.e., flammability, chemical reactivity, HAZOP, pressure relief), with some institutionsexploring multidisciplinary approaches (like integrating students from other engineeringdisciplines) [1]. This broad variety of topics and skills attempted in these courses, with theattempts to recap content from previous courses in the curriculum favor the use of this course forthe assessment of ABET outcomes [1].Frequently, faculty show concerns on the class size, the quality of the project assignments, andthe weaknesses of students (i.e., lack of motivation, poor dominion of previous courses, lack ofteamwork skills, and inability to handle open-ended problems). They constrain reaching goals forhigher-level skills like critical
controls and signal processing research include the design and modeling of intelligent controls, Kalman filters, and automation. Engi- neering education research includes curriculum and laboratory development for these concepts. Page 26.314.1 c American Society for Engineering Education, 2015 BYOE: Affordable and Portable Laboratory Kit for Control Systems CoursesPresenter InformationFeel free to contact the presenter for help implementing this in your classroom or laboratory.Rebecca ReckDepartment of Industrial and Enterprise Systems EngineeringUniversity of
Journal of Engineering and other education theory and practicumpublications1 -13. The goal of LtW is twofold: to improve student writing skills through theaddition of informal and formal writing opportunities specific to a discipline, and to improvelearning in that discipline through creative and effective writing assignments. An overarchinggoal, of course, is to improve student preparation for successful communication skills in his/herchosen profession.LtW evolved from the ubiquitous pedagogies under the titles Writing Across the Curriculum(WAC) and Writing in the Disciplines (WID). Theories of learning in a discipline via writinghave been developed through years of experimentation with WAC and WID, resulting in a widerange of suggested
depersonalized description of the field does little to address “a key challenge [which] is toeducate students and workers about what manufacturing looks like today. ‘The next generationof shop-floors…doesn’t look like [it] did 20 years ago’ ” [28]. Solely focusing on technologywhen discussing AM does little to help a prospective professional envision his or her workpossibilities in the field or enable an existing community member to see his or her integral role.Figure 4. AM Stakeholders as Discrete EntitiesAs Figure 4 suggests, as far as setting an AM definition is concerned, educational stakeholdersappear to be disconnected from industry and governmental entities. As SME’s WorkforceImperative report noted, industry, government, and education must be an
engineering at Boeing. The following six weeksconsisted of individually-tailored "shadowing assignments," centering around eachfellow’s respective area of technical interest. During this time, the fellows wereindividually exposed to different management and technical programs and lived amongBoeing engineers and staff engaged in the day-to-day dynamics of engineering practice. Page 7.821.1These activities included participation in Integrated Product Teams, customer and partnervisits, planned tours of Boeing facilities, demonstrations of rapid prototyping, advancedProceedings of the 2002 American Society for Engineering Education Annual Conference &
of soils is part of the elementary school curriculum in countries such as Egypt,India, Iran, and U.S. By a judicious integration of engineering concepts and modern technology,students can be engaged in hands-on activities that are educational, interesting, and inspirationalfor them. The technology component of the work presented here serves as an entry point forelementary school students to be introduced to engineering. It is widely observed that studentsare naturally drawn to iPads, LEGO robots, and even 3D printing. These tools, considered fun bystudents, can serve as hooks to engage them in learning. That is, the educators must leveragethese contemporary manipulatives to engage students in the learning of the required standards
has been shown to be an effective means of addressing the needs of engineeringcurricula and the community [4]. Engineering, however, has lagged behind many otherdisciplines in the integration of service learning into the curriculum [5]. Recent examples ofengineering service learning include projects integrated into freshman-level introductory courses[5, 6], capstone senior design courses [7] and multidisciplinary approaches [8]. Other initiativeshave sought to integrate the co-curricular activities of student organizations with engineering Page 6.462.1service learning [9]. Proceedings of the 2001 American Society for Engineering
administration,and leadership. These topics may not be addressed in current or future courses. Instead, it maybe preferable to integrate the topics into existing courses. These outcomes can be difficult to document, unless case studies are included in thecurriculum. None of these documents specifically mentions failure case studies. This paperargues that they are one of the methods that may be used to address these outcomes. In February 2008, ASCE published the second edition of the BOK4. These 24 outcomesare different from the 15 in the original BOK, although the report provides tables to show howthe old outcomes map to the new. Page
enthusiastic participant in the activities of the Teaching-Learning Centre at IIT-M.Dr. Jefferey E. Froyd, Texas A&M University Jeffrey E. Froyd is a TEES Research Professor and the Director of Faculty Climate and Development at Texas A&M University. He served as Project Director for the Foundation Coalition, an NSF Engineering Education Coalition in which six institutions systematically renewed, assessed, and institutionalized their undergraduate engineering curricula, and extensively shared their results with the engineering education community. He co-created the Integrated, First-Year Curriculum in Science, Engineering and Mathe- matics at Rose-Hulman Institute of Technology, which was recognized in 1997 with a
funded by the National Science Foundation Combined Research- Curriculum Development program (CRCD) aimed at producing instructional lab modules for new and emerging techniques in robotic vision. VVL uses an integrated multi-media presentation format that allows the student to learn about robot vision techniques from textual sources, runtime algorithm codes, live and canned digital imagery, interactive modification of program parameters and insertion of student developed code for certain parts of the tutorial. It aims to translate a research paper in robot vision into a usable and understandable laboratory exercise that highlights the important aspects of the research in a realistic environment that combines both simulated virtual
main topic of this research paper.In this study, first-year engineering students from three universities across the northeastern USAparticipated in group discussions involving engineering ethical scenarios derived from theEngineering Ethics Reasoning Instrument (EERI) and Toxic Workplaces: A Cooperative EthicsCard Game (a game developed by the researchers). Questions were posed to the student groups,which center upon concepts such as integrity, conflicting obligations, and the contextual natureof ethical decision making. An a priori coding schema based on these concepts was applied toanalyze the student responses, based upon earlier iterations of this procedure performed inprevious years of the study.The primary results from this research aim
AC 2012-3208: STUDENT PERSPECTIVES OF FACULTY CLASSROOMPRACTICESDr. Shanna R. Daly, University of Michigan Shanna R. Daly is an Assistant Research Scientist at the University of Michigan in engineering edu- cation, earning her doctorate from Purdue University’s Engineering Education program in 2008. Her research focuses on the investigation and application of complex professional skills, specifically de- sign ideation, innovation practices, and creative processes within engineering, outside of engineering, and cross-disciplinarily. Her research includes an emphasis on the translation of research to practice in the form of pedagogy, curriculum development, and faculty support and programming in implementing
make judgments about what is likely to work in a given context in response to students’ needs.Data presented in this paper suggests that our program produces future teachers with a richlevel of skills in all five of these areas. The program provides these skills in a unique andpowerful fashion through a full STEM, liberal arts and professional curriculum. The T&Econtent plays a special role. T&E content includes substantial emphasis on the design process(an “adaptive optimization” process), open-ended projects, hands-on skills, teaming as wellas verbal and visual communication skills. T&E skills also provide direct experiences withBloom’s higher levels of learning (analysis, synthesis & evaluation) as well as several
aredefensive about what constitutes leadership and how to integrate it into the classroom.Moreover, a common belief is that leadership cannot be taught but is instead an inherent gift thatyou either do or do not possess. Crucial components of effective leadership such as properspeaking, articulate writing, active listening, skillful negotiating, and efficient time managementcan be taught and are imparted through university courses, workshops, and publications such asASCE Leadership and Management in Engineering and Harvard Business Review, both of whichregularly publish articles on effective leadership. 18, 19, 21 The problem is that leadership skills arenot consistently taught to civil engineering students. To be sure, some students participate
state of manufacturing anddemonstrate the skills needed, a tour of a modern manufacturing plant has been integrated in theworkshop for each cohort. This experience also provides an example to program faculty andstaff on how they can improve the image of manufacturing for their students, and gives modelsfor integrating first-hand experiences into their classrooms. Page 26.1056.3Consistent Curriculum Research conducted over the past decade by the SME through its ManufacturingEducation and Research Community (MER) and its Center for Education has shown that there isa need for a clearer understanding of the topics that define manufacturing
Session 1608 Session 1608 Sprints vs. Marathons: Two Potential Structures for Assigning Engineering Design Projects. Paul D. Schreuders, Arthur T. Johnson University of Maryland, College ParkAbstractWhile a major goal of an engineering education is the preparation of students for solving “realworld” problems, actually assigning these problems is rarely possible in a teaching environment.A number of different strategies exist for structuring student projects, so that they prepare thestudents for
Paper ID #20000The Quantitative Microbial Risk Assessment Interdisciplinary InstructionalInstitute (QMRAIII) – A Platform for Cross Disciplinary Training of Engi-neers with Social and Biological Scientists to Address Public Health IssuesDr. Jade Mitchell, Michigan Sate University, Dept. of Biosystems and Agricultural Engineering Dr. Jade Mitchell is an Assistant Professor in the Department of Biosystems and Agricultural Engineering at Michigan State University. She received her B.S. from the University of Pittsburgh in Civil and Envi- ronmental Engineering, M.S. in Civil Engineering and Ph.D. in Environmental Engineering from
and integration13with an emphasis on conceptual understanding over a period of time14. The researchers were alsoconcerned with the way in which concept mapping has been used to evaluate interdisciplinaryknowledge integration and the manner in which instruction can play into that integration15. Ourmethod draws heavily from Shallcross’s16 methodology that targets semi-structured mappingactivities by single students in a short time frame. This affords an efficient deployment of conceptmapping within a course setting without being disruptive. Due to the exploratory nature of theproject and diversity of approaches taken within each section, the authors avoid assessing theconcept maps to an exemplar developed by an expert or a singular complexity
RoboCell simulation software. Theseaid students in understanding the actual functioning of an industrial robot. The next section deals Proceedings of the 2003 ASEE Gulf-Southwest Annual Conference The University of Texas at Arlington Copyright 2003, American Society for Engineering Educationwith the relevance of robot simulation in technical education and the motivating factors leadingto integration of educational robot and simulation software. Then, we discuss the RoboCellsimulation software, highlighting simulation procedure. We conclude the paper by presenting thekey advantages of simulation in general, and RoboCell in particular. Robotic
1980s an expensive 16-bit ADC had a samplerate of only about 100Ksps. This could only unambiguously sample a signal with a bandwidth of50kHz or less, which was fine for audio, but not for broadband signals, and certainly not fordirect conversion of RF signals. Application specific integrated circuits (ASIC) helped advancehardware digital radios in the 1980s and 90s, and helped to usher in the era of digital mobilephones [2]. Today, ADCs operating with tens of Msps are relatively inexpensive, and for muchsteeper price, several Gsps sampling rates are available. This modern DSP technology hasallowed the ubiquitous use of SDRs, which has reversed the role of digital receivers. Relativelyinexpensive SDRs can now be quickly programmed for an
the survey results arepresented in this section.After the workshop, 47% of our participants agree on “the workshop achieving a sense ofcommunity.” We find it an encouraging result, as it proves that it is possible for online teachingto be as accommodating as regular face-to-face teaching. 63% of our participants specified thatthey will recommend our workshop to others, whereas the remaining 37% were neutral. In thepost-workshop surveys, the participants were asked a question “if you are a teacher, what portionof what you learned in this course you will incorporate into curriculum?” We are very delightedto see that, 60% of the participants plan to use at least 25% of our activities and resources in theirteaching. Indeed during the workshop