few forty-somethings and aneasy majority of engineering elders. Why would an “old guard” be the dominant courseinventors for this topic, when new engineering courses are typically initiated by youngerfaculty ? Why would accomplished senior researchers and a former dean and departmentheads teach a course characteristically populated by undergraduates outside theirdepartments and college? And why did no consensus technology literacy emerge at thisworkshop, when undergraduate engineering courses are famous for their uniformitywithin the US, due largely to common utilization of a few widely accepted texts in eachdiscipline? Reflection on the individual presenters showed that their academic journeys werelogically similar in origin, but not
Committee (HLPE) of the Committee on Food Security (CFS) of the UNFood and Agriculture Organization (UN FAO); and the Intergovernmental Panel on ClimateChange (IPCC).Results of partial assessment of pilot courseA new course, “STEAM (Science, Technology, Engineering, Art, and Math) Diplomacy,” isbeing offered in the Spring of 2018 to a total of 9 students. Table 1 presents a summary ofcourse demographics. The results were captured as part of a required exercise for U 0, andadditional student demographic data were collected from information provided by each studentand cross-referenced with the database maintained by the Registrar.Table 1. Demographics of 9 students enrolled in “STEAM Diplomacy” in the Spring semesterof 2018
recorded conversation of a “well-informed interviewer questioning an interviewee.”Interviews generated by this project are important additions to the Oral History Collection ofIEEE. They serve as historical documents for future historians researching a range of importantissues in the history of engineering and technology. More immediately, they fit into IEEE’sinterests in recognizing women’s outstanding achievements in IEEE fields and in facilitating thedevelopment of programs and activities that promote the entry into and retention of women inengineering. The IEEE History Center, the IEEE organization that curates the Oral HistoryCollection, supports these activities by preserving, researching and promoting the historical roleof women in
Paper ID #15955Spatial Visualization Ability and Learning Style Preference Assessment AmongConstruction Related Undergraduate Engineering and Technology StudentsRichelle Fosu, Purdue University, West Lafayette Richelle Fosu is a PhD Fellow/Candidate in the Computer Graphics Technology department at Purdue University. Her specialization is in Building Information Modeling. Richelle Fosu has a BS in Electrical Engineering and Computer Science from Jacobs University, Bremen Germany; and a MS in Computer Graphics Technology from Purdue University. Her research interests include Building Information Mod- eling, Spatial
engineering, including circuit analysis, digital logic design, systems methodology, modeling and analysis, and data and information engineering,Learning Objective 5) value the roles that a systems, top-level perspective and a detailed, component-level perspective can both play in design and the importance of designing systems to adapt to change, andLearning Objective 6) apply what they have learned in the TLP throughout their careers Page 14.507.5Structure of the Technology Leaders ProgramThe Technology Leaders Program curriculum consists of a four-year
validity. The first, the measure of Engineering Identity Survey [1]evaluates three engineering identity constructs: recognition (by others), interest (in theengineering subject), and performance and competence (student’s belief that they can performwell in the engineering subject). The second survey that informed the design of our instrumentwas the Name and Resource Generator instrument [13]. This instrument explores forms ofcapital first-generation engineering technology students recognize and leverage compared totheir continuing-generation peers in the major. With influences in the sociological sciences,Martin et al. [13], created this instrument specifically to measure social capital amongengineering students both prior to and during their
middle represents T&E practices derived from 21st Century Skillsand engineering habits of mind [1]. The practices reflect the knowledge, skills, and dispositionsthat students need in order to successfully apply the strands in the different T&E context areas.The outermost blue octagon in Fig. 3 represents the eight major contexts in which T&E conceptscan potentially be applied. While this is not all-inclusive, it does provide local school districtcurriculum developers and teachers flexibility in how the standards are addressed [12]. Unlikethe strands and standards, it is not expected that students master all eight contexts. Furthermore,these contexts may evolve over time as new technologies emerge. The T&E standards within
universities. Therefore, the publication ofacademic papers can be seen as the academic research achievements and efficiencyof institutions of higher learning ,to understand the development of engineeringtechnology practice.1.3.3 Library resourcesLibrary resources provide all kinds of information related to scientific andtechnological innovation activities, which is conducive to the technology transferand the transformation of scientific and technological achievements in universities.The amount of academic information in university libraries is directly related towhether the needs of academic scientists and graduate students for information aremet.1.4 Performance of scientific and technological innovationAs an important part of the national innovation
begun to explore the many ways that technology can enhanceinternational education for professional school students, and there is a need to share our “bestpractices.” The Technological Innovation and Cooperation for Foreign Information Access(TICFIA) Program is a Title VI funded initiative designed to support projects that will developinnovative techniques or programs using new electronic technologies to collect information fromforeign sources.”. Engineering needs to become “engineering-plus-international flavoring”[1]. By example,Mazumder and Bean [23] write: “…an engineer must possess not only technical skills, but alsocross-cultural skills based on knowledge to the other culture and their own cultural biases”. Theydescribe the
not have adequate knowledge of sustainability concepts. With the rapid growth ofsustainability initiatives and emerging technologies globally, civil engineering education needsto be adapted to accommodate technological innovations and promote a culture of sustainability.The primary goal of the Engineering for One Planet (EOP) Framework is to provide engineerswith the necessary skills and knowledge to safeguard the planet and its ecosystems, ensuringtheir sustainability for the benefit of all living beings (EOP, 2020). Rochester Institute ofTechnology is committed to advancing sustainability on campus and in the curriculum. Effortsare also in place to develop innovative and interdisciplinary academic programs to support itscommitment to
-down leadership team approach. In the CalWomenTech Project for example, each collegehas a key leader and a co-leader along with a leadership team of ten key stakeholders. The keyleader, in many cases, is the dean or department chair that oversees the technology programs oris the dean of workforce development. The co-leader is often a key instructor. Leadership teammembers include: Dean/chair of targeted program(s)/department(s) Faculty in program(s)/department(s) Recruitment/Outreach Director Public Information Officer Director of Counseling and/or staff Director of Tutoring/Learning Resource Center and/or staff Equity/Women's Center Coordinator (if available) Representative from feeder high
) provides common understandingamong the faculty on the interpretation of an outcome, thereby removing any ambiguity in theinterpretation of an outcome, (4) informs students of the expectations from the outcome, (5)provides focus on the type of data to be collected, (6) provides validity to the assessment results,(7) clearly identifies specific problem areas to be addressed as a result of the assessment process.To ensure that the performance criteria developed can be used by different programs, they weredeveloped based on the program outcomes for Engineering (ABET Criterion 3, a-k outcomes),Engineering Technology (TAC Criterion 2, a-k outcomes) and Computer Science (CAC criterion
thephenomena can be given in an open and clear way, not only by text and picture. Furthermore, the Page 23.602.3student has the possibility to immediately conduct research by changing some parameters11-17.During recent years the traditional education system has witnessed dramatic changes. Thereasons for this lay in the global orientation of the world economy, strong competition and thechange of the social structure. Information and communication technologies (ICTs) have rapiddevelopment. They open up new horizons for progress. Modern information and communicationtechnologies are transforming the way people learn. The new information techniques make
motivate them to continue the path? Training • Did you have a role model who inspired you to further a career in science and technology? Who? Professional- • What are the main limitations to women pursuing a science or gender issues technology career in your area of expertise? Future • What is being done in Chile to promote the participation of girls perspectives and women in science and technology? What do you think still needs to be done, and what is falling behind?Data collection gathers information on possible future strategies and perspectives to open up thevisualization of the event, strengthen the initiative and increase its
Engineering Education, 2018 Develop and Test an Interdisciplinary Course of Sustainable Urban Design and Technology Innovation Xiaojing Yuan, Bruce Race University of Houston, xyuan@uh.eduAbstractArchitecture and engineering technology students are entering professions that demandinnovation and interdisciplinary leadership. Community policies, building codes, professionalorganizations’ ethics, and emerging business models are shifting. Urban development policy andbuilding practices are emphasizing climate and people friendly cities. Cities are pursuing policiesfor new and existing development to meet aggressive greenhouse gas (GHG) energy, waste, andwater targets
devices and technologies. Thisapproach aligns with the current trend in engineering education that emphasizes the integrationof emerging technologies into the curriculum to prepare students for the demands of the modernengineering industry [7]. The integration of IoT in a mechatronics lab can provide opportunitiesfor students to develop skills in sensor data acquisition, data analysis, and control system design,which are crucial for success in mechatronics-related careers [8]. Section 2 gives an overview ofthe course, while Section 3 presents detailed information about the lab modules. Section 4explores student feedback and suggestions for potential improvements to the course. Finally,Section 5 concludes the paper. Proceedings of
students were exposed to the VR tool earlier and more frequently in theirundergraduate degree. Further testing in other disciplines of engineering at Queen’s Universitywould help to fully understand the impact of VR on design education. It would also beinteresting to share this educational tool with other accredited post-secondary institutions to seeif the results can be replicated in their engineering programs. For future work, eye-tracking datacould be collected from this tool to develop intelligent aids to continue to improve outcomes inengineering design.8.0 References[1] W. Alhalabi, “Virtual reality systems enhance students’ achievements in engineering education,” Behaviour & Information Technology, vol. 35, no. 11, pp. 919–925
creative ideas thatstand a good chance of working well. Self perception of extrovertiveness emerged as the bestpredictor for creativity and “quality of design”. This observation provided the motivation todetermine the improvement in the students’ self-perception of their creativity (SPOC) throughtheir experience in a first year problem solving course presented by the author and to find thecorrelation of their SPOC with their performance on the practical part of the course.2. Technological Innovation: the course PROBLEM DEFINITION (Detective, Explorer) IDEA GENERATION (Artist) CREATIVE IDEA EVALUATION
. iii) incorporating necessary equations and calculus while minimizingcomplexity.In this light, the utilization of end-of-semester case study presentations in fluid-thermo coursesoffers several benefits. Throughout the semester, instructors prioritize applied fluid-thermoconcepts. In addition, it allows students to study deeper into topics of interest, includingconcepts, equations, applications, and emerging technologies. Moreover, students gain valuableinsights from peers’ presentations while receiving feedback and detailed explanations frominstructors during Q&A sessions. Additionally, these presentations inspire the development ofnew labs for continuous course improvement in subsequent semesters. The survey and courseevaluations results
second largest manufacturer of computers in theworld [6]. With three large local DEC manufacturing facilities nearby, our electronics andcomputer technology, two-year associate degree programs were thriving enterprises that led tograduates landing well-paying jobs with ample career advancement opportunities. Additionalprograms like the Mechanical Technology and Information Technology program also flourishedand supplied employees for the DEC enterprise. At the same time, the funding body for the statecommunity college system in Massachusetts – the state legislature, saw fit to adequately fundthese and most other programs and the community college system was in a growth mode.However, over the course of time things change. DEC is no longer in
University of Nebraska, Omaha and Western Michigan University, USA. Prof. Yehia is a registered Professional Engineer in the states of Nebraska and Michigan. He is the Co-developer of the newly conductive concrete application for deicing operations. His research interests include behaviour of reinforced and prestressed concrete, composite structures, special concrete, infrastructure management systems and engineering database management and information technology. ©American Society for Engineering Education, 2023 Work in Progress: Low Enrollment in Civil Engineering Departments: Exploring High Technology as a Potential SolutionAbstractThere is a recurring issue of low enrollments across
computing) from Beijing University of Posts and Telecommunications China in 2015. He worked as a software engineer at Sina for one year after he graduated as a master from China Agriculture University in 2009. He received the Best Paper Award from IEEE Edge in 2019. ©American Society for Engineering Education, 2023 WIP: A Study Report in a Web Technologies Course: What Makes Feedback Effective for Project-based Learning? Alaa Jaber1 , Kimberly Lechasseur2 , Khairul Mottakin1 , Zheng Song1 akjaber@umich.edu, kalechasseur@wpi.edu, khairulm@umich.edu, zhesong@umich.edu 1 Computer and Information Science Department, University of Michigan at
Paper ID #25114Drone Labs to Promote Interest in Science, Technology, Engineering, andMathematics (STEM)Dr. Asad Yousuf, Savannah State University Asad Yousuf is the Coordinator and Professor of Electronics Engineering Technology at Savannah State UniversityDr. Mohamad A. Mustafa, Savannah State University Mohamad Mustafa is a Professor of Civil Engineering Technology and the Interim Dean of the College of Sciences and Technology at Savannah State University (SSU). He has six years of industrial experience prior to teaching at SSU. He received his BS, MS, and PhD in Civil Engineering from Wayne State University
introducing photovoltaiccourses into various college/university programs due to rapid development of photovoltaicindustry. However, most courses and programs being developed at the university or collegelevel target either engineering students1 or PV installers2. In addition, various privateeducational companies emerged that conduct training in photovoltaic (PV) systems and PVinstallations, with Solar Energy International being one such example3. A more comprehensiveapproach to renewable technologies training in general, and photovoltaic technologies inparticular, is used by the Consortium for Education in Renewable Energy Technologies4.However, in both cases, the courses or training workshops offered on photovoltaic topics aregeared more towards
Utilization of Knowledge in Design System Lifecycle, Improvement, Evolution, & Design Under Constraints Support Application & Deployment of Current & Research & Development of Future Emerging Technologies Technologies Hardware Manufacturing – Software Design Process, Phases, & Approaches Implementation Development Project Management Hardware/Software Integration Ensure Reachable Goals Test
, engineering economics, and biocomposite manufacturing.Because the role of the instructor is to utilize advances in research to bolster the classroom, andbecause the interest and actual utilization of biomass is currently burgeoning, incorporating thesetopics could provide a tremendous boost in student interest in coursework, as well as bolster theworkforce who will be working in the emerging bioeconomy.IntroductionTo meet the needs of dynamic markets and global technological changes, it is important forengineering and technology programs to adapt as they move toward the future. A thoroughreview of some of these needs has been provided.1 One area that is becoming increasinglyimportant is alternative energy, which has many facets to consider.2 Interest
“soft skills” within the technology curriculum.The engineering education community has recently initiated a new program, The Engineer of2020: Visions of Engineering in the New Century, sponsored by the National Academy ofEngineering which continues to question the type of education needed to prepare engineers forthe world of the future [4]. For the most part, this program is focusing in on several key areas; theinterdisciplinary context of emerging fields, communication skills, the diversity of the futureworkforce, and the increasing systems like nature of future engineering products. All of theseareas certainly pertain to technician level education also.Furthermore, over the past twenty-five years there has been a good deal of research
AC 2010-965: SIMCAFE: A WIKI-BASED REPOSITORY OF LEARNINGMODULES FOR DEPLOYING SIMULATION TECHNOLOGY IN MECHANICALENGINEERING EDUCATIONRajesh Bhaskaran, Cornell University Page 15.1065.1© American Society for Engineering Education, 2010 SimCafe: A Wiki-Based Repository of Learning Modules for Deploying Simulation Technology in Mechanical Engineering EducationAbstractComputer-based simulation technology has rapidly become a key component of mechanicalengineering (ME) practice. Commerical simulation packages are used by leading companies todesign, analyze and understand complex engineering systems. To help modernize the curriculumand better prepare students for their careers
above.Cognitive load theory [22] was already identified, however, to teach business economics withoutcontext to technology students and vice versa is very difficult as they have no previousknowledge to build on [23, 24]. By putting this new information in context it is absorbed mucheasier. Another key benefit of the game approach is the interconnectivity created, resulting inmany storage and retrievals of the information, via different connections and associations, thishelps with creating lasting knowledge [25]. Finally, the direct feedback and assessment ofchoices made through the game mechanics and the combination of details and broad discussionsfurther support the learning [26-28].Finally, students should not simply be let loose in a game. Extensive
homes orschools. We expect such technologies are promising for education and training related toalternative energy technologies at START. The Oculus Rift head-worn display is used to providethe student with a visually immersive 3D environment. The Razor Hydra, a motion-trackedhand-held controller, is used to simulate the users’ hands and provide a means of interacting withthe 3D environment of the VEC. The right hand projects a ray that can select interactive objectsat a distance.The goal is to take advantage of emerging low-cost hardware and improved networks to providestudents who cannot travel to the real solar energy facility with alternatives that providecomparable educational benefit. The virtual facility is augmented by visual guides