outcomes, increased retention rates, and enhanced overall educationalexperiences. Thus, the assessment and understanding of student engagement have becomecritical in shaping pedagogical strategies and educational policies.Measuring student engagement, and resulting skill development, provides educators andinstitutions with valuable insights into the effectiveness of their teaching methods and curriculumdesign. It helps identify students at risk of disengagement and allows for timely interventions.Additionally, it aids in assessing the impact of pedagogical innovations and educationaltechnologies on learning outcomes. It is also a feedback mechanism for students to assess theirown engagement and skill development required to successfully complete
Metals, and others are mainly mechanical and auto-partsmanufacturers, based in the region.Certificates and micro-credentials are being increasingly perceived by employers, students, andeducational institutions as a practical alternative for professional development in a fast-pacedindustry environment. The ability to acquire technical skills when and where they are neededmakes these programs very attractive to employees and employers alike. Details are provided oncurriculum development and the upgrade of the existing facilities to support the courses as wellas its integration with the future Engineering Innovation Design Center.The region’s industry competency gaps in the work force were identified by surveys conductedamong graduating students
states simultaneously [1]. This unique feature enables quantum computers to processvast amounts of data at unprecedented speeds, making them incredibly powerful tools forspecific types of computations predicted to provide us with new technological innovations andalso needs to safeguard our current infrastructures [2]. It holds the potential to revolutionizevarious fields, including cryptography, drug discovery, financial modeling, artificial intelligence,and more. Quantum computers can solve complex problems that are currently beyond thecapabilities of classical computers, such as simulating large molecular structures or optimizinglarge-scale systems in logistics and manufacturing [3].However, as this technology rapidly advance the challenges of
Department of Engineering Education at Virginia Tech. He earned his PhD in Engineering Education Systems & Design at Arizona State University and has a BS/MS in Biomedical Engineering. His research focuses on exploring and understanding engineering learning environments. He harnesses these insights to propose solutions that encourage the creation of safe and inclusive educational environments conducive to learning, professional development, and innovation. His research interests include graduate student mentorship, faculty development, mental health and well-being, teamwork and group dynamics, and the design of project-based learning classes. ©American Society for Engineering Education, 2024
Asynchronous Professional Master’s Degree:Effective Strategies for Design, Delivery, and Engagement," presented at the 2021 ASEE VirtualAnnual Conference July 2021, doi: 10.18260/1-2--36654.2021[15] D. Dolezal et al., "Did COVID-19 Improve our Teaching?," ICERI2020 Proceedings, pp.3981-3992. [Online]. Available: https://iated.org/iceri/publications/2020.[16] "Distance Education and Innovation," Federal Register, 2020. [Online]. Available:https://www.federalregister.gov/documents/2020/09/02/2020-18636/distance-education-and-innovation.[17] C. Winslow, L. Allen, "How They See It: Employer Perceptions of Online VersusTraditional Learning at the Graduate Level," Journal of Educational Leadership in Action, 2020.[Online]. Available: https
Engineering Education Pacific Southwest Annual Conference Copyright © 2007, American Society for Engineering EducationThere is also concern for students who manage to graduate.5 A 1996 study reported that 81% offour-year colleges in the U.S. offer remedial courses and 30% of incoming freshmen requireremediation.6A 2006 National Academies committee report calling for improvement in K-12 science andmathematics education lists the falling rate of innovation in the U.S. and the increase inoutsourcing of information technology jobs to other countries among the reasons for concernabout the inadequate size of our locally developed talent pool in math, science and engineering.7Goals of the School Robotics InitiativeThe School Robotics
will help them to understand and implement innovative design solutions in more advancedcourses and it will promote lifelong learning. Freshmen introductory courses, which have beendeveloped at four-year institutions nationwide, familiarize students with the engineering fieldand improve retention rates1. Many of them include hands-on project activities coupled withlectures aimed at the development of problem solving skills and introduction to availableresources1,2,3,4,5. However, few provide a sufficient exposure to global engineering issues. Theimportance of this component in engineering education is emphasized by ABET in the list ofStudent Outcomes included in the 2013-14 General Criteria Section 36. Specifically, Outcome hstates that
organized a Conference onStatistical Detection of Potential Test Fraud [1]. It is basically true. Cheating has existed and hasbeen an issue since the eternity. The standard testing methods that are adopted in schools andcolleges have a high scope for cheating. Students have always come up with innovative andmany very amusing ways to dodge the situation and cheat. The buddy method has been theoldest where in one can cheat off the buddy’s paper. Some of the other more typical waysinclude the shirt cuff method where in the student has a variety of data and formulae behind thecuffs of the shirt or taking notes on the desk prior to the exam (Figure 1a and 1b) and cheatingoff it during the exam, and many also used the big hat method where in the eye is
o Reviews, test, integration o Manufacturing o Logistics, inventory, technical support • Legal aspects of businessThree textbooks used in ECE 590 covered presentations, integrity, and technical development(Harvard Business School Press 2007, Cloud 2006, Fowler and Silver 2014). Throughout thesemester students are expected to develop other sources of information for their team projects.Finding and using these other sources of information then folds into the goal of developing toolsfor lifelong learning.PresentationsA major component of this class has been the presentations. The students start within the firstweek of class giving short presentations. The first one is a very short talk on one innovation overthe past 200
industry.Table 1: Comparison of Mechanical Engineering and Engineering Technology Programs [10]Program Overview Mechanical Engineering Engineering Technology Program ProgramAttributes of the Innovator using advanced Implementer of current state of theProgram Graduate mathematics, engineering science, art applied engineering practices engineering principals, and and basic mathematics and science incorporating economic, social, in design, operation or testing of environmental & ethical issues to engineering & manufacturing
students a project centeredlearning experience in their first year. One approach was to allow students to identify their ownprojects, providing them with an understanding of project phases and importance ofdocumentation. A second innovative approach was to form student teams to work directly withfaculty researchers on current research projects. Faculty presented their research projects andstudents selected those that they would like to work on. Although faculty research does nottraditionally employ first year students, this approach set out to raise awareness of currentresearch and engage the students for future involvement in research projects.The results of both approaches provide the basis of this paper. It includes a view of the selectionof
including system layout and component selection.Finally, an additional change was the use of grading rubrics to describe our expectations for the classprojects [4]. The grading rubric defines a C as work that correctly following the SDP and uses theappropriate techniques. An A is work that is done correctly and is creative and innovative. This is inconcert with the guidance from the USMA Dean of the Academic Board [12 and 13].ConclusionAt West Point, we strive to educate and inspire cadets to become future Army leaders. The courseredesign using our new text has directly impacted about 450 students per year (about 150 majors and 300systems engineering sequencers). We have received excellent cadet feedback for the redesigned courseand we have already
developing and delivering acourse on engineering for non-engineers, with the hope of finding better ways to teach engineering topicsto students who usually learn very little about them. The course was innovative in three areas: gave aquantitative understanding of engineering design to liberal arts majors, it based on solving an interestingengineering problem rather than on the basics of any engineering discipline, and it was interdisciplinary,including excursions into history, literature, science, ecology, and philosophy. The problem area was thatof manned space flight, which was chosen because of its inherent fascination for many people, because itprovided opportunities to touch on a wide variety of engineering topics, and because of the
1 Robotics in Multidiscipline Multicultural Projects MAJ Christopher M. Korpela and LTC William J. Adams {christopher.korpela, joe.adams}@usma.edu Department of Electrical Engineering and Computer Science United States Military Academy, West Point, NYAbstractThe United States Military Academy at West Point seeks to maximize the number of students thathave the opportunity to participate in multidisciplinary and multicultural learning experiences.Meeting this increasing requirement while faced with budgetary constraints requires a low-cost,innovative approach. Faculty in
unable to find the time, money or resources to learn the technologies demanded by emerging industry. In reality, this is due to a lack of effective NA education methodology which can be solved by applying an elastic system with the best practices of: educational curriculum support, network technology, engineering and management, which can make the NA curriculum effectively adapt to the drastic changes of industry requirements. Consequently, college education in NA needs to adapt and promote viable curriculum innovation in order to improve the efficacy and preparedness of the next generation network administrators. 3URFHHGLQJV RI WKH 6SULQJ 0LG$WODQWLF 6HFWLRQ
, andrepairing of the sewer and storm-water infrastructure. In addition,construction related to using the sewer and storm-water line pipe inventoryfor conveyance of communication and other types of utility lines, especiallyin the metropolitan areas, will be an increasingly recognizable constructionactivity. For instance, main fiber optic artery installations have reachedperipheries of all major cities but need the sewer lines for final connectionto the buildings. This will lead to special construction and installation workin the sewers. The technology of sewer and storm-water construction is alsochanging due to new innovative construction methodologies being used. Forexample, the cut-and-cover methodology, increasingly unfavorable in theeyes of the
textual or other static visual materials. And many researcher have shown that illustrating dynamic scenario using static and lecture-based paradigms compromises the teach- ing effectiveness. This problem on computer network education prompted us to use graphical simulation. Courses related to computer communication and networking can be benefitted if computer simulation is wisely adopted. In this paper, we describe a study in which we count on computer simulation to illustrate important and complicated algorithms of congestion control and queue management in the TCP/IP protocol suites. Comparing with current queue management techniques, Active Queue Management(AQM) is an innovative mechanism in router packet scheduling. We noticed that AQM is
2018 ASEE Annual Conference & Exposition Proceedings, ASEE Conferences, 2018. doi: 10.18260/1-2--30730.[7] M. L. Pedler, R. Willis, and J. E. Nieuwoudt, “A sense of belonging at university: student retention, motivation and enjoyment,” J Furth High Educ, vol. 46, no. 3, pp. 397–408, Mar. 2022, doi: 10.1080/0309877X.2021.1955844.[8] T. Dwyer, “Persistence in higher education through student–faculty interactions in the classroom of a commuter institution,” Innovations in Education and Teaching International, vol. 54, no. 4, pp. 325–334, Jul. 2017, doi: 10.1080/14703297.2015.1112297.[9] C. R. Glass and C. M. Westmont, “Comparative effects of belongingness on the academic success and cross- cultural
transformation awards, we first analyzed the publicsummaries of these projects published on NSF’s website. In addition, we further reviewed thepublications listed on each project’s dedicated webpage on NSF’s website. Finally, we alsosearched and reviewed news articles and related commentaries available on the internetpertaining to these projects. We coded the three data sources according to the two researchquestions outlined in the methods section. FindingsProject MotivationIt is clear that every project supported by the CCE STEM or ER2 program is dedicated to theexploration and evaluation of innovative methods for fostering ethical researchers within STEMdisciplines. In addressing Research Question #1
Paper ID #41914Board 91: Work in Progress: An Interdisciplinary Subject on HardwareAccelerated ComputingDr. Glenn J Bradford, University of Melbourne Glenn J. Bradford is a wireless engineering professional with experience in industry and education. From 2020 to 2023 he was a Teaching Fellow in the Department of Electrical and Electronic Engineering at the University of Melbourne, Australia, where he worked to create innovative curriculum incorporating practical, hands-on experiences to better drive student learning. He worked previously as a wireless systems engineer at both Intel Corp. and Motorola Solutions, Inc. Glenn
distributed energy systems forcampuses or urban districts [2]. These systems may incorporate solar, storage, and othertechnologies across mixed-use districts, served by a standard electrical distribution feeder. Thecompetition engages students in engineering, urban planning, finance, and related disciplines torethink how districts generate, manage, and utilize energy. Its objective is to design, model, andpresent the most innovative and cost-effective systems possible. Teams compete in divisionsaround specific districts, with designs evaluated based on offsetting annual energy and financialsavings through techno-economic analysis [2]. While Illinois State University students have participated in this competition since 2021,it was adopted in
deficit views of communities, bring a savior complex to their work, and/or are overly focused on student learning. CES: CE that takes “a scholarly approach”, which means being grounded in previous work and “documented through products that can be disseminated and subjected to critique by peers from a variety of contexts”; a goal of CES is “to generate, disseminate, and apply new knowledge.” Further, “Effective CES demands that the scholar produce diverse forms of scholarship in innovative formats—such as documentaries, websites, briefs, or manuals—for non-academic audiences and uses.” [13, p. 59] “CES is recognized as teaching, discovery, integration, application and engagement that involves the faculty member in a mutually
Computer Science Program,” UC Irvine, 2022. Accessed: Feb. 01, 2024. [Online]. Available: https://escholarship.org/uc/item/9t4906d1[10] A. N. Washington, “When Twice as Good Isn’t Enough: The Case for Cultural Competence in Computing.,” in Proceedings of the 51st ACM Technical Symposium on Computer Science Education, SIGCSE 2020, Portland, OR, USA, March 11-14, 2020, 2020, pp. 213–219. doi: 10.1145/3328778.3366792.[11] A. N. Kumar, “A study of stereotype threat in computer science,” presented at the Proceedings of the 17th ACM annual conference on Innovation and technology in computer science education, 2012, pp. 273–278.[12] E. McGee, “‘Black Genius, Asian Fail’: The Detriment of Stereotype Lift and Stereotype Threat in High
betweenlearners' waning interest in STEM and the growing need for these skills. In addition,disciplinarily, the misalignment between humanities and STEM education is another challenge.The humanities play a critical role in STEM since they provide the ground for science andtechnology innovation from human needs (Carrell et al., 2023), and problem-solving in STEM toserve society better. Taking engineering as an example, serving society and meeting the needs ofsociety is the ultimate goal of engineers to build things (Crawley et al., 2014). However, it isironic that engineering courses rarely incorporate humanities (Wisnioski, 2015), whichcontributes to the failure to cultivate more comprehensive crtical thinking skills for learners.Lastly, from an
production systems design company called Tiger SystemsDesign (TSD) that is trying to meet a design deadline which includes a verified and validatedsimulation model. In particular, the scenario is as follows: TSD is competing with other companies for a multi-million dollar contract to design and build a state-of-the-art bike production facility for the Innovative Bicycle Company (IBC). To win the contract, TSD must provide both the design concept and a dynamic simulation that demonstrates the capabilities of the design. TSD has a winning design; a simulation has been created; but… the SIMULATION IS NOT WORKING! Your team has been tasked with fixing, verifying, and validating the simulation model. However, THE DESIGN DEADLINE IS IN ONE
pure intrinsic characteristics of a language,a programs performance is influenced by the programmer [9]. Extrinsic factors related toinstitutional support, industry support, etc. must be considered [10]. In addition, businessconsiderations may play a dominant role. Languages that are implemented as compiled codeprovide considerable protection of the intellectual property in a given program.Proceedings of the 2012 Midwest Section Conference of the American Society for Engineering EducationTraditional programming languages and procedural programming approaches should not bedefault choices. Advances in computing technologies and innovation based on computingresources may be better served by alternatives. Proactive efforts by science and
of these offering of new forms of security monitoring embedded in thecapabilities into a cohesive instructional program. back-end, and probably cloud-based, operations control center.Note: An early draft of this paper and was created while the In this paper we want to acknowledge the significant challengesauthor was a member of the Cyber Security R&D group within that need to be understood to create a safe and secure world ofAccenture Technology Laboratories that was supporting a recently smart things and smart systems. We want to raise awareness in theestablished company-wide strategic innovation initiative on the context of an engineering student's educational program of howIndustrial
developing and delivering acourse on engineering for non-engineers, with the hope of finding better ways to teach engineering topicsto students who usually learn very little about them. The course was innovative in three areas: gave aquantitative understanding of engineering design to liberal arts majors, it based on solving an interestingengineering problem rather than on the basics of any engineering discipline, and it was interdisciplinary,including excursions into history, literature, science, ecology, and philosophy. The problem area was thatof manned space flight, which was chosen because of its inherent fascination for many people, because itprovided opportunities to touch on a wide variety of engineering topics, and because of the
including system layout and component selection.Finally, an additional change was the use of grading rubrics to describe our expectations for the classprojects [4]. The grading rubric defines a C as work that correctly following the SDP and uses theappropriate techniques. An A is work that is done correctly and is creative and innovative. This is inconcert with the guidance from the USMA Dean of the Academic Board [12 and 13].ConclusionAt West Point, we strive to educate and inspire cadets to become future Army leaders. The courseredesign using our new text has directly impacted about 450 students per year (about 150 majors and 300systems engineering sequencers). We have received excellent cadet feedback for the redesigned courseand we have already
on the “Global Challenges of Energy Production.” Courseparticipants attended lectures and discussions with leading energy researchers and professionalsand visited a variety of energy facilities. The site visits included a hydroelectric power station, anuclear power plant, the control center for Brazil’s national electric grid, a landfill gas to energyproject, and the manufacturing facilities of two engineering firms specializing in thedevelopment and production of wind and hydropower turbines.Collaborative Field Course BackgroundThe innovative field course model used in the SEAS/Poli-USP Collaborative Field Course wasoriginally developed and deployed by Harvard University (including DRCLAS) and Brazilianpartners in 2008, with the first