In an educational environment that pressures new faculty to become effective anddynamic teachers there is a tendency to overuse and perhaps misuse the new cadre ofinformation transfer tools as well as the lecture. In undergraduate engineering education lecturesare commonly used to promulgate two levels of proficiency: Those that deal with basic skills andthose that deal with synthesis of knowledge. These two learning levels are similar in that theymust maintain the integrity of the lecture structure, but different in their content, complexity, andcommission. Student success in skill-developing courses is absolutely critical if the metamorphosisfrom engineering student to the engineering intern is to occur. It is impossible to
assessment. As a result, many faculty members displayed limited interest intransforming their educational practices. Other faculty members saw EC 2000 as a Page 8.582.1catalyst for continuous improvement, but lacked the expertise to modify their courseProceedings of the 2003 American Society for Engineering Education Annual Conference & Exposition. Copyright © 2003, American Society for Engineering Educationdesign and teaching techniques to an outcomes-based environment.The Transferable Integrated Design Engineering Education (TIDEE) consortium wasoriginally formed with NSF funding to provide leadership in lower-division
Society for Engineering Education Annual Conference & Exposition, 2002. 4. Gibson, J.D., Brackin, M.P., “Techniques for the Implementation and Administration of Industrial Projects for Engineering Design Courses,” Proceedings of the 1999 American Society for Engineering Education Annual Conference & Exposition, 1999. 5. Noble, J. “An Approach for Engineering Curriculum Integration in Capstone Design Courses,” International Journal of Engineering Education, 14(3), 197-203, 1998. 6. Vila-Parrish, V., Raubenheimer, D., “Integrating Project Management & Lean-Six Sigma Methodologies in an Industrial Engineering Capstone Course,” Proceedings of the 2012 American Society for Engineering Education
engineering colleges reported their first-year retention rates associated with an integratedcurriculum versus traditional first-year program.15 The Ohio State University reported an 85-90% first-year retention rate for their integrated curriculum versus 70% for the control group. Atthe University of Alabama, the integrated first-year curriculum demonstrated a 20% higherretention than for their traditional program. The University of Florida showed a 10%improvement from 50 to 60%. Thus, first-year engineering retention rates are quite variable andsome engineering colleges have first-year retention rates close to 90%.The disparity of interest in engineering by gender continues as a major concern. TheUCLA/HERI Cooperative Institutional Research Program
a short project evaluationwhich is summarized below.1. Overall ENG1101 ProjectAs shown in Table 2, the components used from ENG1001, were the initial research and projectmanagement, design construction, design pre-testing and testing, and the final report. Two of thethree instructors did require students complete an integrated design project ethical analysis. Theremaining instructor included engineering ethics via traditional case study analysis. The ethicsanalysis identified cultural and environmental concerns when utilizing wind energy based on a Page 25.129.7University of Massachusetts-Amherst Renewable Energy Resource Laboratory fact
has been limited curriculum development that heavily integrates the SDGs into engineeringproblem-solving.Beyond the SDGs themselves, there is heightened interest in the role of technology andengineering in addressing what has traditionally been considered “social” problems [8], [9],above and beyond simply addressing basic human needs [1]. Engineers may even be moreeffective if they embrace a role as a “bridge” between the stakeholders and the policymakers inimplementing solutions to such challenges [3], or even serve as policymakers themselves indesigning and effecting social change [10]. To effectively take on these nontraditionalengineering roles, engineers themselves must stretch beyond a traditional engineeringbackground. Issues such as
withcustom PCB work, the EE team integrated commercial off the shelf (COTS) components into theoverall electrical architecture shown on Figure 6, primarily the CPU’s, motherboard, andArduinos, components that were used after students made an informed decision that someexisting circuit boards would meet all requirements and promote system simplicity andreadiness.The computer science (CS) team were uniquely challenged by the hands-on experience gainedthrough Robosub. CS students, in general, rarely have the opportunity to work on a hands-onproject throughout their curriculum. The CS team was responsible for the AUV’s computervision system and the integration of the EE team’s navigation algorithms into a largernavigation/overall vehicle communication
an active participant. The following methodologies were incorporated into thepedagogy of the course curriculum which has shifted the element of competition from theequation of learning and has replaced it with cooperation.a) Active Listening and Notes TakingStudents were positively rewarded to participate and inculcate in the active listening and notestaking process. This activity has integrated the students in the classroom engagement. Studentswere positively rewarded for further elaborating the notes and subject matter on their own(synthesizing).b) Maintaining of Portfolio that reflect the student work in totemStudent were required to maintain their total work, this was evaluated at the end of thesemester as the log and meter to fathom the
Manufacturing Management) Production/Operations Management Operations Research Project Management Quality ControlThere are also common courses that are electives or preferences in many of the universities.These are shown in table 3.Table 3. CURRICULUM OVERLAP Computer Integrated Mfg. Cost Accounting Facility Layout/Location Linear Programming Logistics Safety Scheduling Statistical Quality Control Technical Writing Total Quality Management Work MeasurementConclusionsIn many ways Industrial Engineering and Engineering Management are very similar. IndustrialEngineers are faculty members in Engineering
misconduct as a member of the Academic Integrity Review Board, and is committed to fostering a supportive environment for diverse students at UCSD by serving on the faculty advisory board for the IDEA Student Center. Her research is focused on engagement strategies for large classrooms and the development of K-16 curriculum in earthquake engineering.Dr. Nathan Delson, University of California, San Diego Page 24.1351.1 c American Society for Engineering Education, 2014 Using Touch Interface Technology for Spatial Visualization TrainingAbstractSpatial
theassessment and evaluation of the program by an accrediting body.Currently, there are no required or agreed upon set of skills for the M&S graduates, no list ofaccepted qualifications, and no established M&S program is available in the U.S. at theundergraduate level in electrical engineering. In an effort to address some of the aboveissues, we propose a set of criteria for critique and feedback from our colleagues who may beinterested in developing such a program in their institution. Page 14.999.2Defining a curriculum for undergraduate M&S-based electrical engineering is difficult, partlybecause M&S is usually regarded as a fragmented
I understand the research process in my field. 3.86 I have the ability to integrate theory and practice. 4.07 I understand how scientists work on real problems. 4.28 I understand that scientific assertions require supporting evidence. 4.43 I have the ability to analyze data and other information. 4.39 I understand science. 4.00 I have an ability to read and understand primary literature. 4.07 I have skill in how to give an effective oral presentation. 4.22 I have skill in science writing
Paper ID #6184Professional Development System Design for Grades 6-12 Technology, Engi-neering, and Design EducatorsDr. Jeremy V Ernst, Virginia Tech Dr. Jeremy V. Ernst is an assistant professor in the Department of Teaching and Learning at Virginia Tech. He currently teaches graduate courses in STEM education foundations and contemporary issues in Integrative STEM Education. Dr. Ernst specializes in research focused on dynamic intervention means for STEM education students categorized as at-risk of dropping out of school. He also has curriculum research and development experiences in technology, engineering, and design
programs have been challenged with adaptingtheir curricula to the rapid developments in technology without increasing the number of credithours for their programs. Resulting from the demands made from students, employers, and therapid advancement of technology has been a tendency to develop more specialized curricula thatcontain fewer common courses among the engineering disciplines. Specialized courses havebeen added to the curriculum at the expense of an incomplete foundation of mathematics, Page 24.306.2science, and engineering principles3. In order to have professionals that can respond successfullyto the contexts of global economy and knowledge
. The multi-discipline nature of the projectallows students to apply theoretical knowledge in these areas to an applied technology, which haspotential to allow the students to retain the knowledge and skills.This project was working towards developing electro-thermal MEMS actuators that could becontrolled via a specific amount of input voltage. As such, the largest objective is the fabrication ofthe MEMS devices. Over the course of three sessions in a cleanroom setting, the electro-thermalactuators needed to be monolithically integrated onto silicon wafers with precise handling so as toalign all the thin film layers with minimal resolution error (<5 μm).The design for the electro-thermal actuator and its corresponding finite element modeling
, and advancing quantitative and fully integrated mixed methods.Dustin Grote (Assistant Professor) © American Society for Engineering Education, 2022 Powered by www.slayte.com Characterizing the Curricular Complexity Faced by Transfer Students: 2+2, Vertical Transfers, and Curricular Change AbstractThis paper reviews a method for quantifying the accessibility of a curriculum for transferstudents. When first conceptualized, the Curricular Analytics framework implicitly described thetrajectory of a first-time-in-college student. Accordingly, using the metrics within the frameworkfor transfer student
that they needed to change how theyapproached, taught, and interacted with Latinx students.Over the past year:- School X embraced the PDSA cycle and integrated it into the classroom setting, specifically inBiology 180. This class consisted of 12 Latinx students. The primary goal was to incorporatescientific inquiry within the Latinx community. As part of the curriculum enhancement, TinyEarth, a program that inspires students to engage in scientific research, was introduced to addressanti-fungal resistance in crops. Each student experimented, and based on their findings, theywere offered an opportunity to join the science lab. To foster a sense of identity within the lab,Latinx students were informed about the significance of specific native
drive the University curriculum remain at theforefront of administrative priorities. Fortunately, modern language study at MichiganTechnological University (hereafter MTU) is no longer a “vague notion.” Thecollaboration of modern language and engineering faculty has begun to acquire the toneof a more integrated pedagogy, one that would allow modern language and engineeringfaculty to more fully contribute to the mission of a technological university in the 21stcentury. This mission, as recently outlined by an MIT consortium of educators duringthe Colloquium on International Education held at the University of Rhode Island,November 2-5, 2006, is multi-focused: to strengthen international engineering educationwith emphasis on the global community
Oklahoma State University. She spent 12 years teaching secondary science and engineering in Oklahoma, and is a 2014 recipient of the Presidential Award for Excellence in Mathematics and Science Teaching.Dr. Nick Lux Lux, Montana State University Dr. Nicholas Lux has is an Associate Professor of Curriculum and Instruction in MSU’s Department of Education. His teaching and research interests are in the area of educational technology. He has worked in the fields of K-12 and higher education for 18 years, and currently teaches in the Montana State University Teacher Education Program. He has experience in educational technology theory and practice in K-12 contexts and teacher education, with a focus on STEM teaching and
for a versatile graduate, capable of working professionally in various vehicle-related industries, but graduates of the options discussed are too few as yet to make anyquantitative assessment.Bibliography1. Hsu, Tai-Ran. “Development of an Undergraduate Curriculum in Mechatronics Systems Engineering” Journal of Engineering Education, Apr.1999, p.173 –1792. Landsberger S, Ellzey J, Hull B, Rosinski J, and Wright J. “Undergraduate Degree with an Emphasis in Nuclear and Energy Engineering for the University of Texas of the Permian Basin”, ASEE AC 2007-6233. Mokhtar W, Duesing P, and Hildebrand R, “Integration of the Project-Based Learning (PBL) into the Mechanical Engineering Programs”, International Journal of Learning, Common
areessential to understanding software verification. It does not make sense to individually list eachterm or assign an assessment to each term, but the knowledge of terminology must be captured ingrading. Similar issues arise with quizzes, whereby quizzes are not always mapped directly tomeasurable concepts in the same way that the labs have been mapped.References[1] C. A. Tomlinson and J. McTighe, Integrating Differentiated Instruction & Understanding by Design: Connecting Content and Kids, Alexandria: Association for Supervision and Curriculum Development (ASCD), 2006.[2] D. Iamarino, "The Benefits of Standards-Based Grading: A Critical Evaluation of Modern Grading Practices," Current Issues in Education, vol. 17, no. 2, 2014
Academy for Excellence in Engineering Education (AE3) at UIUC. At the national level, she served as the Executive Director of the biomedical engineering honor society, Alpha Eta Mu Beta (2011-2017) and is an ABET evaluator (2018-present).Prof. Marina Marjanovic, University of Illinois, Urbana-Champaign Dr. Marina Marjanovic is a Teaching Associate Professor in the Department of Bioengineering and Asso- ciate Director of Center for Optical Molecular Imaging in the Beckman Institute for Advanced Science and Technology at the University of Illinois at Urbana-Champaign. She is teaching several undergraduate and graduate courses, and she is active member in the Undergraduate Curriculum Committee. She has been Principal
Duhem equation using Legendre transforms Thermo: Compute property changes on mixing using65 partial molar properties Thermo: Compute fluid properties from two and three66 parameter corresponding statesProposed Modularization - SafetyImplications and Takeaways• Most LO’s, especially the “important” ones, were sorted as Undergraduate Level Eun B. (2017). The zone of proximal development as an overarching concept: A framework for synthesizing Vygotsky’s theories. Educational Philosophy and Theory, 51(1), 18-30. https://doi.org/10.1080/00131857.2017.1421941• In our BOK, the graduate core curriculum indicated that the mastery of undergraduate learning is essential for CHE
well asselected experiences elsewhere in academic arena, a significant number of engineering seniors aswell as graduate students have problems with at least systems thinking, integration of risk anduncertainty into design, and schedule overruns. Current teaching practices and educationalmaterial do not seem to be sufficient to help overcome these challenges. Consequently, it is safeto expect that similar problems will occur when graduates join the workforce, contributing to theindustry problems mentioned in Section 2. This study proposes that new multidisciplinaryeducational material and an improved curriculum are necessary to equip engineering studentswith crucial design knowledge and skills from a systems perspective. Based on the industrial
engineers in the 21st century is also addressed by theNational Science Foundation’s Restructuring Engineering Education: A Focus on Change 2.There an integrated systems approach is highly regarded as the way to accomplish the changesneeded in the curriculum today. Page 5.331.1As the call for new pedagogical thinking and curriculum planning is heeded, reforms in theaccreditation process by ABET have been initiated. ABET’s Criteria 2000 3 has instituted manyof the same ideals as outlined by NSF and ASEE in their recent reports. To satisfy ABET’s newcriteria engineering and technological institutions must show evidence that graduating seniorspossess
industrial foundations as well as corporate and alumni sponsors.At Stevens Institute of Technology, an appreciably modified undergraduate engineeringcurriculum is currently being implemented that acknowledges the trend of enhancing traditionallecture-based courses with a design spine and a laboratory experience that propagates throughthe entire curriculum. The incorporation of design and laboratory components into allengineering courses places a significant strain on the spatial, temporal and fiscal resources of theinstitute. To accommodate the anticipated enrollment, new concepts for the implementation ofaffordable integrated experimental and design laboratories had to be developed that allow for therequired student through-put using the limited
result, writing is notwidely recognized as a discipline, so few courses are available. Canadian universities such as theUniversity of Toronto (U of T), tend to graduate highly skilled technical students who may notbe as well prepared for written and oral communication in the professional world as some oftheir American counterparts. In light of this issue, we explored one option for providingadditional writing instruction in a technology-heavy curriculum.In an attempt to help improve the writing skills in the Faculty of Engineering, the University ofToronto’s Language Across the Curriculum (LAC) program provides the Engineering WritingCentre (EWC) and numerous short workshops aimed at targeting specific concerns. (E.g., labreport workshops, oral
impact of green engineering on both R&D andmanufacturing in several chemical industries. This has been accomplished through industry-university partnerships with pharmaceutical and petrochemical companies. Several grants fromthe US Environmental Protection Agency have supported initiatives in green chemistry,engineering and design. These projects have the broader goal of supporting sustainability in thechemical industry.IntroductionToo often the teaching of a technical subject like green engineering is limited to an individualclass experience or one dimensional laboratory or design experience. The teaching of greenengineering in the curriculum is greatly enhanced by active participation of students throughoutthe curriculum and in real-world
consists of three road-legal vehicles which are used for hands-on learningactivities by the students in the HEV Engineering curriculum, and can also be used for a widerange of outreach and community education opportunities. The vehicles, a Chevy Volt ExtendedRange Electric Vehicle (EREV), a Chevy Malibu Belted Alternator Starter (BAS), and a SaturnVue Mulit-Mode HEV represent a majority of the technology currently available in Hybrid andelectric automobiles today. Data acquisition is done with ETAS hardware running INCAsoftware. The data acquisition system interfaces with the vehicles CAN bus through the OBD-IIconnector. Plans are underway to utilize a National Instruments CAN module running in aCompact DAQ chassis as an alternative to the ETAS
phenomena of single-phase fluids and transportphenomena of multiphase fluids. Moreover, a significant gap is developing on the use ofconventional transport phenomena principles and computational fluid dynamic tools. CFD hasopened up the possibilities of analyzing in the classroom complex flows in complex geometriesunimagined ten to twenty years ago. Students need further training to effectively use modern CFDcodes and to understand how CFD results can be used as an innovative process design tool as wellas a diagnostic tool. Thus, the broad goals of this initiative stem directly from ongoing researchand educational programs at MSU, Akron, and Tulsa. The proposed multi-disciplinary, multi-institutional curriculum development project will integrate