for navigation systems, autonomous ground vehicles, and battery management systems. As an instructor, he specializes in teaching and designing 1st year engineering courses as well as specialized control systems courses. © American Society for Engineering Education, 2022 Powered by www.slayte.com Evaluating ABET Student Outcome (2) in a Multidisciplinary Capstone Project SequenceAbstractIn 2017, ABET published a revised list of student outcomes detailed under ABET GeneralCriterion 3, which replaced outcomes (a) through (k) with outcomes (1) through (7). The revisedstudent outcomes place greater emphasis on measuring students
toacknowledge the material realities (e.g., the intersections of the sociocultural landscape, historyand cultural and political past and present that create complex interactions and interpretations oflived realities) of students whose embodied knowledge may not align to the structural norms offormal schooling [12]. The assumption that engineering is only created through one kind ofknowledge impacts the “acceptance of difference” [13]. It is important that students, especiallyLatinx students, see themselves reflected in the curriculum and provide spaces to engage them inengineering activities in their own language, culture, and communities.This paper introduces a new paradigm by inverting the logic portrayed in many studiesinvolving research that
Paper ID #29554Exploring an Active Learning Focus in a Liberal Arts EngineeringCurriculumDr. David Robert Bruce P.E., Fulbright University Vietnam Dr. Bruce has a passion for technology development with a focus on empowering society through altering perception and perspective. He holds a B.A.Sc. in Environmental Engineering from the University of Waterloo, an M.A.Sc. in Materials Science & Engineering from McMaster University, and a Ph.D. in Chemical and Biological Engineering from the University of British Columbia. This varied engineering education has taught him to view our world through a multifaceted lens. Dr
Bioengineering from Clemson University. © American Society for Engineering Education, 2022 Powered by www.slayte.com BSTiE: A Proposed Conceptual Framework for Black Student Thriving in EngineeringAbstractMotivation & BackgroundStudies of Black students’ experiences and journeys to success at Predominantly WhiteInstitutions (PWIs) show that the experiences of Black students are uniquely complex and needto be examined through a lens that can capture the distinct intersectionality of Black students inengineering programs. In a previous pilot study, we explored the experiences of two Blackstudents at a PWI. That study captured their stories in which they
. 11, no. 2, p. 6:1-6:4, Jul. 2011, doi: http://doi.org/10.1145/1993069.1993070.[35] R. Ladner and T. VanDeGrift, “Special Issue on Broadening Participation in Computing Education (Part 2),” ACM Trans. Comput. Educ., vol. 11, no. 3, p. 13:1-13:4, Oct. 2011, doi: http://doi.org/10.1145/2037276.2037277.[36] A. Repenning et al., “Scalable Game Design: A Strategy to Bring Systemic Computer Science Education to Schools through Game Design and Simulation Creation,” ACM Trans. Comput. Educ., vol. 15, no. 2, p. 11:1-11:31, Apr. 2015, doi: http://doi.org/10.1145/2700517.[37] N. Pinkard, S. Erete, C. K. Martin, and M. McKinney de Royston, “Digital Youth Divas: Exploring Narrative-Driven Curriculum to Spark Middle School
undergraduate students to learn through research, and in developing active and place-based teaching methods for environmental engineering courses.Dr. Michael Robinson P.E., Rose-Hulman Institute of Technology Michael Robinson is an Associate Professor of Civil and Environmental Engineering at Rose-Hulman Institute of Technology.Dr. Jennifer Mueller Price PE P.E., Rose-Hulman Institute of Technology Page 26.484.1 c American Society for Engineering Education, 2015 Developing a Course-based Master of Environmental Engineering Degree
mechanical engineering courses offered better learning outcomescompared to traditional and online course delivery [2].A research study by Duan and Bassett shared experiences and lessons learned during theexploration of hybridization between classroom and online teaching in mechanical engineering,suggesting that this blended approach effectively combines the advantages and avoidsdisadvantages of both modalities. The current assessment indicates it provides a promisingalternative for teaching undergraduate courses. [3] Alkhatib explored an interactive learningapproach for engineering education, implemented through a flipped classroom model within ablended learning framework. This approach shifts traditional lectures to an online, self-pacedformat
and industry populations.IntroductionMany universities are encouraging global awareness, education, and citizenship among studentsand staff, including through cross-national research collaborations, partnerships with foreigninstitutions, study abroad programs, recruitment of international students and teaching staff,distance education initiatives, and international conferences and workshops.1,2 In addition, manyinfluential stakeholders have been urging universities to cultivate a new generation of “globalengineers” who are prepared to practice effectively in an increasingly diverse, interconnected,and rapidly changing world.3,4,5,6 ABET’s EC2000 accreditation criteria, established in 1997,lends further support to this movement by requiring
(2009). Beyond thecognitive. The affective domain, values and the achievement of the vision. Journal ofProfessional Issues in Engineering Education and Practice (ASCE). 135 (1), 47 – 56.[44] Heywood, J (2017). The Human Side of Engineering. Morgan and Claypool.www.morganclaypool.com[45] Griffin, C (2012). A longitudinal study of portfolio assessment to assess competence ofundergraduate student nurses. Doctoral dissertation. Dublin. University of Dublin.[46] Blandin, B (2011). The competence of an engineer and how it is built through anapprenticeship program: a tentative model. International Journal of Engineering Education28(1), 57-71.[47] Sandberg, J (2000). Understanding human competence at work. Academy of|Management Journal, 43(3), 9-25.[48
goals. The method isdesigned to measure the GrAD variables over a 1-year period using multivariate time seriesanalysis. Questions regarding perceived stress and critical events to observe fluctuation over timewill be included. The method gathers data through text message-based (SMS) surveys and SMSinvitations to web-based surveys. Data collection can occur at varying time spans to measurefactors daily, weekly, monthly, and semesterly. The paper will detail the process of developing thequestions, SMS system, and time series analysis. This paper provides a framework for the futureresearch to engage this longitudinal data collection method. The method will allow thedevelopment of a model based to understand the trajectory and fluctuation of
performance tests, their final product,and the next time the robot would need to perform the tasks from the test they had justcompleted.Context and Details of the Revised AssignmentThe revised assignment was included in the spring 2019 offering of the course. The tasks therobots needed to perform were presented through the scenario of assisting at an arcade. Theseincluded starting when a light in the floor was illuminated, pushing one of two buttons, insertinga lost token in a slot, sliding some foosball counters, flipping a lever, and signaling the end of arun by pushing a large button. There were four performance tests during the semester thatcollectively included each of the tasks required of the robots. Each week also included a “stretchbonus
A Framework for Teaching Project Based Structural Engineering CoursesPaul McMullinPaul is an educator, structural engineer, and mountaineer. He holds degrees in Mechanical and Civilengineering, and is a licensed engineer in numerous states. He worked through college as a steel detailer,and spent the last 20 years working on unusual (and ordinary) projects. His favorite work is on historic,industrial structures, on the verge of falling down (or well on their way). He is the lead editor of theArchitects Guidebook to Structures. In his spare time, he loves being with his wife and kids; climbing,hiking, sewing packs, remodeling the house, and living life. © American Society for Engineering Education, 2023A Framework
, Dr.Jones secured an RTP award to allow him to travel from Namibia to Ghana where he gavelectures and otherwise shared his Namibian experiences with Ghanaian colleagues.Collaboration while in the countryBecause of an existing history of research collaboration between TUD and Deltares, the researchDr. Rice collaborated on often involved both institutions with the common thread ofinvestigation Backward Erosion Piping (BEP) in levees and their foundations. In a nutshell, BEP 2is the erosion of subsurface soils caused by water seepage through and beneath an earth structuresuch as a dam or levee and has been attributed to be a leading cause of dam and
. Page 12.747.1© American Society for Engineering Education, 2007 First Time Accreditation of a Multi-disciplinary Engineering Physics ProgramAbstractIn 2006, Tarleton State University successfully achieved ABET accreditation of EngineeringPhysics, its first engineering program. This Engineering Physics program is a multidisciplinaryengineering program with emphases in electrical engineering, computer engineering, andmaterials physics. Several challenges above and beyond the proof of continuous improvement inCriteria 1-8 had to be overcome to accomplish this accreditation. Tarleton State is a traditionallyliberal arts school and serves a predominantly rural area with only a few local engineeringindustries
engineering capstone design course (Senior Design) at theUniversity of Arkansas has been structured to facilitate ABET 2000 Outcomes. Criterion 3Attributes “a” through “k” are listed and a discussion of how each of these attributes areenhanced in the course is provided. For example, capstone design courses offer a uniqueopportunity to learn about professionalism and ethics (attribute “f”) in a realistic, appliedcontext. Because the department does not have a separate ethics course, an ethics unit is taughtin Senior Design. The concepts learned are applied by the project teams to hypotheticalscenarios specific to their projects. The key is to make the ethical dilemma relevant to theirproject work.The University of Arkansas was one of the first two
2003, American Society for Engineering Education 6. Okudan, G.E. and Devon, R., “Embedding Engineering Management into Product Design Education,” Proceedings of the 2002 ASEE Annual Conference & Exposition, session #1327. 7. Ochs, J.B., et. al., “Cultivating an Entrepreneurial Spirit Through Cross-Disciplinary Student Teams in Freshmen Projects Course,” Proceedings of the 2002 ASEE Annual Conference & Exposition, session #3454. 8. Hollar, K., et. al., “Bugbots! A Multidisciplinary Design Project for Engineering Students,” Proceedings of the 2002 ASEE Annual Conference & Exposition, session #2426. 9. Brackin, P. and Gibson, J.D., “Capstone Design Projects: Enabling the
byshow of experience in their curriculum vitae or through a teaching demonstration during theirinterview. It is very common for new and experienced faculty and instructional staff to have littleto no formal training in teaching, and those who do have typically sought it out on their own.The UW College of Engineering has offered dedicated TA training for over 25 years through theCollaboratory of Engineering Education and Teaching Excellence (CEETE) and the organizationfrom which it grew, Teaching and Learning Services. This training was the first complete TATeaching and Learning training program of its kind at the University and addressed teaching andlearning skills, onboarding information, and professional and instructor identity development[10
andcourse themes are included in Appendix A1. Students explore these themes through self-directed,online modules accompanied by a weekly, in-class discussion (18-20 students per discussionsection). In Fall 2020, 50% of the first-year undergraduate engineering students (765 students) atour institution enrolled in this elective course.Engineering 110 is engaged in the Foundational Course Initiative (FCI), a multi-year partnershipwith the Center for Research on Learning and Teaching (CRLT) at the University of Michigan,created for the purpose of transforming large-enrollment introductory courses to better fosterstudent success. Through this partnership, Engineering 110 has undergone course visiondevelopment, curriculum expansion and redesign of its
experientiallearning of the intern and also considered the observations and analysis of feedback obtained fromcompany officials about the inputs and performance of the intern. The case study methodologyshowcased the student’s readiness to perform different tasks while on the job as a result ofacademic and stimulatory preparations through the construction management program of study.The following list explains the common case study protocol that guided the researchers’methodology (adapted from Yin, 1994)1: Purpose and rationale for case study Significance of the international industry practice Research questions: is an international internship of value to the CM student and if positive can this value be quantified? Design based on
combustion-based power. In combustion the very same process of raisingtemperature, and consequently Carnot efficiency, is responsible for the destruction of the workpotential (exergy) through the products attaining the adiabatic temperature. This even furtherdegrades the efficiency of combustion-based technologies. All that and other considerations limitthe electrical conversion efficiency to 20-30 % and 30-37 % for micro turbines and reciprocatingengines6, respectively. Beyond the scope of this paper, an extended comparison of exergydestruction in combustion and fuel cells is given by Chen11. The fuel cells do not operate in acycle, but rather in a constant temperature-pressure environment, so that the efficiency is basedon the reversible
observations. The paper ends with recommendations and future work.Literature Review of Circuits and Instrumentation Course ProjectsThere is mounting evidence that pedagogies of engagement result in higher learning and greaterretention11,12. A deeper level of learning beyond surface learning occurs when students actively engagein the topic, rather than passively accept information. To be actively involved in learning, students mustengage in such higher-order thinking tasks as analysis, synthesis, and evaluation, which are notfacilitated through traditional lecture or labs that explain every step. Introductory computer andelectrical engineering courses have traditionally focused on theory and quantitative analysis, which areoften complemented by
that allow both traditions to be incorporated into the same survey validation.Second, we discuss how quantitative and qualitative data can be mixed to form a deeperunderstanding of the participants, their educational context, and how survey results might beinterpreted in that context among those participants. This paper contributes to research inengineering education by providing a dialectic data integration approach to support surveyvalidation through the use of mixed methods. Page 26.35.2The Need for Mixed Methods Survey ValidationSurveys, tests, and other types of assessment instruments are often used as tools to collect dataon students
–project is embedded in each course of allthe 17 engineering diploma programs. As there are about 30 courses in a normal three-yearprogram, every student gets opportunities to work in about 30 different groups for undertaking30 different micro–projects depending upon the elective courses being chosen by him or her.With continuous feedback from the teachers, every student has to generate a micro–project report(apart from the model/product) at end of each course which serves as an indirect tool to assessthe attainment of the course outcomes and competency of the respective course. As the studentsprogress through the different courses of the respective engineering programs, they get ampleopportunities to integrate different types of skills-sets very
expression rather than the subject matter of thewriting or the ideas expressed.6Patents and trademarks or services marks are beyond the scope of this paper, other thanillustrating the definitions of intellectual property (even though they may be of great interest tofaculty and universities engaged in discovery of useful inventions or processes). The focus of Page 14.1056.2this discussion will be the copyright aspect of intellectual property.7In the academic setting, teachers are generally dealing with issues concerning tangibleexpressions of ideas, such as written works, software and multimedia productions. Intellectualproperty is a legal framework
AC 2012-2979: CRITICAL THINKING: A PEDAGOGICAL INSTRUMENTFOR NEW ENGINEERING AND SCIENCE EDUCATORSDr. Robert M. Brooks, Temple University Robert Brooks is an Associate Professor of civil engineering at Temple University. He is a Fellow of ASCE. His research interests are engineering education, civil engineering materials, and transportation engineering.Jyothsna K. S., Jyothsna K. S., Department of English, St. Joseph’s College, Bangalore, secured a Gold Medal for the highest aggregate marks in the Post Graduate English Literature course at St. Joseph’s College (au- tonomous). K. S. has been working for the Department of English, St. Joseph’s College for almost two years now, teaching both undergraduate and
freshmancourse, Civil Engineering Concept Design Studio, for one of the three classes. The paper willbriefly describe the progress of trial teaching in the Fall semester of 2014 as well as that ofthe pilot curriculum in the Fall of 2015. Major elements of futures thinking and fundamentalcivil engineering design concepts extracted during the process of incorporation will bepresented along with an assessment of student learning. Suggestions for future curricularimplementation will also be made.Introduction This paper describes an experimental project that introduces futures thinking into afreshman cornerstone course in a civil engineering curriculum in response to calls for reformin engineering education. Through collaboration between civil
pieces of research indicated that mentoring has both psychosocial and vocationalfunctions.23 The psychosocial functions of mentoring consist of (a) role modeling (the mentorcan be observed while functioning in various roles or situations), (b) encouragement (the mentorworks to raise the confidence of the protégé, (c) counseling (the mentor dissuades the fears of theprotégé or discusses the protégés professional and personal matters, and (d) colleagueship (theprotégé perceives him/her self to be the mentor’s peer).The vocational functions on the other hand involve the mentor in actively “educating” theprotégé to advance his/her skills through critical feedback. It may take the form of “consulting”with the protégé about the political landscape
and the delivery methods of aquaponicsinformation in an online medium. By structuring an effective online learning method, thisresearch seeks to empower diverse learners to engage with aquaponics as a viable method forfood production and environmental management. The project evaluates the educationaleffectiveness of tutorials through surveys assessing student comprehension, engagement, andease of implementation. Findings will inform future instructional design improvements andcontribute to the broader field of online education for aquaponics. IntroductionOnline education is growing and changing for both traditional and non-traditional students.Educators are at odds with open source, think spaces such
candidate who focuses on engineering in the 21st century. He is passionate about enhancing professional competencies for engineering workforce development in academia and beyond. He is trained in Industrial and Systems Engineering and has a combined 6 years experience spanning both academia as well as lean manufacturing at Fortune 500 companies. Tahsin’s long term goal is to bridge the engineering competency gap between industry demand and academic fulfillment. A global engineer and researcher, Tahsin is an advocate and ally for better inclusion in STEM and beyond.Lloyd Herbert Morris (PhD Management Sciences) Lloyd Morris is a professor in the Department of Industrial Engineering at the Catholic University of Pereira
degree in computer systems also complete the requirements for the web associatedegree. The associate degree provides students with the core computer systems foundation usingweb technology projects and assignments. Thus, students gain a common depth of knowledgewith a web emphasis that might otherwise be hard to achieve in classes using other types ofcomputer technologies.Students seeking only the associate degree are qualified to work in many entry-level web-developer jobs [2]. Students seeking the bachelor’s degree have the foundation of webtechnology while continuing to build depth and add breadth as they move through the moreadvanced classes of the computer-technology program.A major innovation in the new curriculum is the inclusion of studio