between the phenomenon (the VTSexperience) and the experiencer. Additionally, this research focuses on understandingtransformation from an experience through multiple types of collected data and utilizes a mixed-method design collecting and analyzing qualitative interviews and quantitative data fromvalidated instrumentation [23] as the methodological framework for this research.Methods and DesignResearch ParticipantsParticipants in this study were undergraduate students (n = 22) enrolled in HON 2400 – HonorsDiscovery: Using Art Exhibits to Improve Communication in Engineers. This course wasspecifically developed for this research study utilizing VTS. HON 2400 qualifies as an electivefor honors students and are typically courses that can integrate
. This summer program has been offered everyother summer through 2012 and then, due to student demand, we switched to offering theprogram every year. A cohort of between 15 to 25 students from across the engineeringmajors completes two courses during the six weeks, a core curriculum liberal arts course andeither engineering statistics or engineering economics. The latter engineering courses arerequired for all of the engineering majors and can be taken as an elective by the computerscience majors. The students are typically rising juniors though we occasionally allow risingseniors and rising sophomores to participate. An engineering faculty member accompanies thecohort and several technical and cultural excursions are included in the
Integrity, Ethical Behavior, and Professional Competence o Understand and Applies Good Personal JudgmentAt the ASEE Annual Conference in 2010, SIG stakeholders attempted to translate the attributesinto specific competencies that could be identified by levels of importance and proficiency atcertain intervals of an individual’s education and professional development. The initial listtotaled 48; however, through in-person meetings at the Conference, and through bi-weeklytelephone conference calls and other electronic communication, the list was ultimatelysynthesized and consolidated. After further review and validation from CMC members, a totalof 20 competencies associated with the attributes of a global engineer emerged. These are:1
discussion of howelements of an engineering academic-industry partnership support professional socialization.Figure 1 presents a summary of elements found in the literature to support professionalsocialization in various professions [15, 26].Through this lens, stakeholders from other academic-industry partnerships can take a closer lookat how designing experiences to support students to gain knowledge, skills, and values that canhelp narrow the skill gap and increase career readiness to support retention in full-time roles inengineering. Through this socialization, we propose that engineering students are able to makemore informed decisions about finishing their respective engineering curriculum, entering into an
students to process material differently from traditionalmethods. Taking notes; preparing for class discussions, tests and quizzes; and even applyingacquired knowledge to new problems or situations – sometimes an exhaustive list of learning andassessment activities in the traditional classroom – are peripheral in terms of the preparation andprocessing required for producing a video narrative.Creating video requires that students reflect on what they are learning and to consider theirnewly acquired knowledge and skills through the purpose of the video. The defined learningoutcomes of the course dictate the guidelines for a video project. Are the students being asked to“teach” the material, demonstrate an integrated understanding of the concepts or
engineering and technology programs and curriculum, improving teaching and assessment of student learning, assessment of program outcomes and objectives, and ABET accreditation. She is a founding member of Mi-Light Michigan Photonics Cluster, and is active in the ASEE, ASME, and OSA professional societies serving in various capacities. c American Society for Engineering Education, 2016 NSF ATE MPEC Midwest Photonics Education CenterAbstractThe International Year of Light was celebrated in 2015 with events all over the worldhighlighting the strategic importance of photonics and light-based technologies. As an enablingtechnology, photonics plays a key role in fields as diverse as manufacturing
Receiver/Transmitter (UART), (c) integration of sensors and otherdevices into one "Base station", and (d) using the "Base station" with an ESP8266 WiFi moduleto send data to the cloud. One of the term projects required the students to use the collectiveknowledge of the laboratory experiments outlined above to create an IoT-based detectionsystem.. Despite the health pandemic, remote instruction and delivery of course materials, aswell as the evaluation and assessment of the submission of each student was successfullyaccomplished.IntroductionEmergent technologies in wireless data communication and computing are rapidly altering theengineering landscape. The engineering programs at universities across the world must adapttheir courses and curricula
exist that will be further refinedwhat works and what does not in both internal and external collaborations.Experimental Centric Based Engineering Curriculum for HBCUsIn Fall 2013, Howard University, in collaboration with the 12 HBCUs listed above, receivedfunding for the NSF ECP project. The project had the significant outcome to create an “HBCUEngineering Network” that is focused on the development, implementation, and expansion of anExperimental Centric-based instructional Pedagogy in engineering curricula used in theseHBCUs.The project started during the 2013-2014 academic year by implementing a hands-on approachthat introduced concepts related to circuit analysis and experiment design to selected ECE. Bythe end of 2016 over 100 curriculum
integrated in an environmentalengineering curriculum, how service learning can be a valuable tool in educating tomorrow'sengineers, and how service learning can be beneficial to the communities and the academicinstitution(s) involved. The experiences of Tufts University are used as specific examples of how communityservice learning has enriched the traditional environmental engineering curriculum. Whetherapplied in courses, in student-driven or university-funded initiatives, or in independent projects,community service learning has benefited students, the instructors, and participatingcommunities. As a result, community service learning projects carry more meaning andencouraged greater learning because they involve a real problem
andcompression, and then advance to analysis and design topics as they are more empiricallypresented in the relevant building codes. The importance of hands-on active learning has longbeen an integral part of education theory. Educational Psychologist Jean Piaget states thatoptimal learning occurs through “active methods” which “require every new truth to berediscovered or at least reconstructed” by the student1. The National Science Foundation2 arguedin 1993 that “Engineering curriculum reform is necessary to meet the objectives of enhancing theacceptability of US industrial products in the international market” and that hands-onexperiences should be an integral part of that reform3. Having students design, fabricate and testreinforced concrete beams
. DiFrancesca, C. Lee, and E. McIntyre. “Where Is the "E" in STEM for Young Children? Engineering Design Education in an Elementary Teacher Preparation Program.” Issues in Teacher Education 23(1), 2014.14. S.W. Thomas, S.W. Campbell, M.D. Subramanyam, C.R. Ellerbrock. “Contemporary STEM issues: Engineering training of pre-service teachers for middle school STEM curriculum development.” ASEE Annual Conference and Exposition, Conference Proceedings, 2019.15. L.J. Genalo, M. Gallagher, J. Golder. “An engineering linkage to K-12 teachers,” ASEE Annual Conference and Exposition, Conference F.C. Tseng and F.Y. Kuo. “A study of social participation and knowledge sharing in the teachers' online professional community of practice
and the programs areprovided with a new mode of completing the education outcomes which results in studentsworking on high level research projects.References 1. Lew, V.M. and Mirman,C.R.: Integrating Technology into the Mechanical Engineering Curriculum. Proceedings of the 1996 ASEE International conference on Engineering Education and Practice, Washington, DC, 6/96. 2. Otieno, A. and Mirman, C,: An Engineering Technology Capstone Experience - An Industry Based Partnership. Proceedings of the 2003 Conference for Industry and Education Collaboration, Tucson, Arizona, 1/03. 3. Jones, T., Lambert, A., Et al.: Organizational Leadership and Effective Team Problem Solving Strategies in
majordriving force behind this trend. Surprisingly, the full potential of these technologies arenot currently used in the classroom settings 5, 6. There is no comprehensive educationmodel fully integrating available Internet technologies into classroom with an emphasison the improvement of students’ skills in information seeking and communication 7. Inmost cases, it is limited to the on-line course delivery, emails and e-bulletin boardbetween students and instructors 8. Therefore, the authors have implemented a quasi-webbased approach to explore the use of Internet for active learning and informationseeking skills enhancement in engineering curriculum. Page
engineering design in the Next Generation Science Standards[17] means that engineering design and the engineering design process [18, 19] are now consideredcore science concepts, though specific curricula and interpretation of engineering design varywidely. At the elementary and middle school levels, students sometimes take integrated STEMcourses, either as an elective or as a requirement, or as a part of a gifted education curriculum. Atthe high school level, engineering courses are now offered as electives, many of which grew outof woodshop and other more vocational curricula [20]. Some of these courses are grounded in 3engineering design as a
university system, and perceptions of who should be in the STEM fields are sometimes hiddenas implicit biases. Research shows that even individuals who deny gender and science stereotypescan still hold those beliefs at an unconscious level [8]. Questions arise such as: What do theybelieve they can do? How does their self-efficacy affect staying in engineering?To change the culture and education experience, Burke [7] recommended best-practice factorssupporting women and minorities in STEM; the listed factors below are directly applicable to thecurriculum and co-curriculum. 1. Create a classroom environment that makes it easy to ask questions. 2. Use group projects that foster cooperative learning. 3. Show how STEM knowledge is used in industry
(ANSAC) and Engineering Accreditation Commission (EAC),respectively. These programs follow an “Introduce, Reinforce, Master” curriculum map as partof the assessment plan where each student learning outcome (SLO) is assessed in at least threecourses of different levels, so that each SLO is assessed at each of the three levels (introduced,reinforced, and mastered). We seek to effectively assess, at the introductory level, the proposedANSAC SLO (5) and the new EAC SLO (4) with a series of case studies and a rubric in ourintroductory physics course. There are two primary difference between the SLOs from the twocommissions. Firstly, the EAC requires that the students recognize while the ANSAC requiresthat the students understand ethical and
education facility, using existing equipment andfacilities as a basis upon which to build. This facility will be used in courses that emphasizecomputer-aided manufacturing, computer-controlled systems, robotics, and real-time physicalsystems with the goal of incorporating the concepts of teamwork, communication, concurrentengineering, and continuous improvement as a major part of the curriculum as well as developinga steady supply of students interested in science, engineering, and technology.As part of our effort, we are incorporating an outreach component to encourage local students tostudy science and technology and to learn about the career potentials in these fields. We believethat modern computer integrated technology needs to be incorporated
between the AOEs and NACME Partner Institutions by increasing awareness about engineering careers and ensuring that AOE programs incorporate learning standards and content consistent with industry-recognized skills. Examples of opportunities for participation include:• Serve on Advisory Boards of the Academies of Engineering• Conduct presentations about engineering opportunities• Support a research or an engineering design project by giving advice and guidance to a team of students enrolled in an AOE• Provide an opportunity for students to shadow an engineer for a day• Provide summer internship and full-time job opportunities for NACME Scholars 19NACME STEM Integration
thermodynamics and civil construction materials from being electives torequired courses in the curriculum, combining air pollution and solid and hazardous waste designinto one course, and shortening the requirements for completing senior design from two semesters toone. These changes have ensured that students enrolled in the program take a similar number of totalcredit hours as their peers in other engineering programs, provide consistent and attractive electivesfor students outside of environmental engineering to take, and increase competency in FE and PEenvironmental engineering exam topics.Recently, the faculty in environmental engineering has begun contacting local employers (Phillips66 and Xcel Energy) to propose an environmental engineering
Engineering and Sciences (AES) department. Thecollege is part of a larger university and being an urban commuter campus, its mission is as muchon giving students real-world experiences as it is on providing a sound liberal arts education.With a setting in the largest city in the state, many opportunities arise for students to enhancetheir post-graduate skills with an extensive professional development curriculum. With over 25years of history supporting Capstone, faculty members in the AES department have formulatedseveral approaches to this professional development. From a more traditional approach ofhosting a semester long project where students are embedded with industry partners, toindividual or small group projects either with a faculty member or
an Associate Professor in the Department of Mechanical Engineering at Baylor Univer- sity. 2017 FYEE Conference: Daytona Beach, Florida Aug 6 Session T2C First-year Redesign: LabVIEW, myRIO, EML, and More John Miller and Carolyn Skurla Baylor University, John_Miller1@baylor.edu, Carolyn_Skurla@baylor.eduAbstract - Over the past year, faculty at Baylor previously published [1]. One of the qualifying requirementsimplemented a new curriculum in a pilot course for first- is that
://www.engr.iupui.edu/˜jz29/) c American Society for Engineering Education, 2018 Experimental Design and Measurement of Internal and External Flow Convection Coefficient Using 3D Printed GeometriesAbstract The convection heat transfer is explored for a new academic laboratory experiment to helpaddress the lack of practical experimentation due to the continued integration of technology. Theobjective is to design an experiment to be used in the laboratory that enhances the studentunderstanding of convection process and principles. A cost-effective design is generated with threecore principles: 1) Low Cost, 2) Low Maintenance, and 3) Concept Visualization. This is achievedthrough the following
Engineering ProblemsStudents expressed perspectives on the relationship between social and technical dimensions ofengineering problems – an extension from Theme 1 in Spring 2018 – on two axes, as shown inFigure 5. In this visualization, the horizontal axis ranges from technical-social dualism on the leftto sociotechnical integration on the right, and the vertical axis represents how muchresponsibility engineers have over the social and technical dimensions of engineering problems.Illustrative quotes are provided for each case. By sorting student perspectives into these fourquadrants (I-IV), our team can better represent patterns in students’ perspectives, attempt tounderstand whether any resistance to sociotechnical integration is a result of dualism
for certain conditions or cases. In addition, Hsieh has developedan Integrated Virtual Learning System for Programmable Logic Controller (Virtual PLC). Thisweb-based system uses a combination of animations, simulations, intelligent tutoring systemtechnology, and games to teach about programmable logic controllers [3-5]. Both of thesesystems are good examples of how technology can be used to help students learn simple PLCprogramming concepts.However, for learning to write complex programs, there is no good substitute for hands-onexperience programming a real PLC. Therefore educating students with integrated knowledgeabout automated systems is a pressing need. A project-based curriculum seems to help studentsdevelop an integrated knowledge of a
the department’s external advisory council, which was composed of private andpublic employers as well as a dean from another institution outside of Texas. Employers and theexternal advisory council, as well as the students and faculty, continue to be an integral part ofthe assessment process. The sources of input provided by the different constituencies, internaland external, are shown all considered during assessment for continuous improvement.Following publication of BOK2 report in 2008, a comprehensive review of the BSCE curriculumwas conducted to ensure that it embodied the revised program outcomes contained in thatdocument. The curriculum as it exists today is also presented in Appendix III and the breakdownof credit hours is shown in
Session 3454 The Enterprise Program at Michigan Technological University Results and Assessment To Date Dr. Mark R. Plichta Mary B. Raber Michigan Technological UniversityAbstractIn 2000, Michigan Technological University restructured its entire curricular offering in associa-tion with an academic calendar change from quarters to semesters. As part of this restructuringthe university developed the Enterprise Program (www.enterprise.mtu.edu), a new andinnovative experience that provides all students on
Case 2, they have to guess Rc, the radius at which Cso 0, and integrate to determine if Cs 1 at r 1. The assignment is designed to reinforce their understanding of how mass transfer resistance can influence the actual reactionrate, and teach them that ACSL provides the user with an opportunity to insert a FORTRANprogram in the Initial section and another program in the Terminal section. Very sophisticatedsimulations can be done taking advantage of the numerical integration programming in theDynamics section and user-written programs in the Initial and Terminal sections.Chapter 4The simulation of
. The innovation we are prototyping in this projectcreates an applet-rich shared space whereby a pedagogical agent at each learner’s stationfunctions as an instructional assistant to the teacher or professor and tutor to the student. Theplatform is intended to open a series of new -- and instructionally potent -- interactive pathways.IntroductionThree different learning technologies and an intriguing opportunity to integrate them are at theheart of an educational research effort funded by the US National Science Foundation [1]. Eachin its own right is at the forefront of a particular research domain. Each has emerged andmatured over the past decade; and each has presented compelling and oftentimes movingopportunities to alter educational
education needs facing the next generation of civil engineerscannot be satisfied with a four-year baccalaureate degree. The necessary professional Page 10.529.2skills must be integrated in various courses throughout the curriculum, and must extendbeyond the traditional bachelor’s degree.Civil Engineering Education Reform – and the Body of KnowledgeToday’s world is fundamentally challenging the way civil engineering is practiced.Complexity arises in every aspect of projects, from pre-project planning with variedstakeholders to building with minimum environmental and community disturbance.Addressing this increased complexity will require understanding and
teachers in this area. Anattempt to address this demand led to the introduction of the Pre-College Engineering forTeachers (PCET) program by Tufts University with a grant from the National ScienceFoundation [2]. The primary goals of this program are to familiarize the participating teacherswith the engineering design process, to introduce them to an assortment of projects to enhancelearning and to incorporate engineering principles in their curriculum. Starting in 2002, thisprogram has already been implemented at the high school and middle school levels and is now inprogress at the elementary school level. Table 1 shows the progression of the programimplementation and the grade levels of participating teachers.ImplementationHow it works: Each