to the “MAEF Model” of community engagementto understand the step-by-step approach to building diverse relationships within the2015-ASEE-K12-Proposal-Form EYE Page 3 of 6 WORKSHOP PROPOSAL FORM 2015 Annual ASEE K-12 Workshop on Engineering Education “Authentic Engineering: Representing & Emphasizing the E in STEM” Presented by Dassault Systems Saturday, June 13, 2015 8:00 A.M. – 5:00 P.M. Sheraton Seattle | Seattle | WAcommunity, leveraging these relationships to yield rich real-world STEM connections, andcreating new STEM lessons with the support of
ourorganization, we describe the entrepreneurial mindset as identifying opportunities to create valueor satisfy a human need through ventures requiring new resources or approaches. Further, weplace value on empathy for the stakeholders by viewing problems as opportunities, determiningtolerance for risk, and prioritizing long-term value creation. For the Lab, this mindset is instilledthrough the activities listed above, which are both explicit and implicit training.The Lab’s focus on healthcare applications for real-world learning opportunities is part of thelarger mission of Santa Clara University to raise a student population who will be the innovatorsand problem-solvers of their generation. Across our institution, design thinking is a key area
Mixed-Signal Testand Product Engineering course presents the methods test engineers use to validate the perfor-mance of mixed-signal circuits, such as comparators, digital-to-analog converters (DACs), andanalog-to-digital converters (ADCs). This course, developed in conjunction with industry, inte-grates material from many core courses including analog circuits, digital circuits, signal analysis,feedback control, programming skills, statistical analysis, and data analysis. Students are expectedto integrate their experiences from their core courses and apply those skills in this industry-focused “real-world” application. A complete overview of the course can be found in Hudson et.al.7 In this work, the authors will primarily focus on the
. Page 23.35.5Previous PBL applications in construction education show the satisfactory results. The PBLapproach will be able to bring positive impact on CEM courses. The following summarize somecharacteristics when PBL is incorporated into CEM courses 29, 33, 35: Learning can be initiated with real-world problems which require specific CEM domain knowledge to think critically and solve the problems. Problems can drive students motivated and engaged in the student-centered and self- directed learning. Students as a group can be actively involved in problem-solving, thereby improving their social, communication, and collaboration skills.With the understanding of these PBL characteristics, the roles of
endeavor in engineering doctoraleducation, emphasizing the importance of interdisciplinarity and convergence in the developmentof trustworthy AI systems. Through its innovative approach –melding systems engineering withcomputer science – the program is successfully fostering a unique educational environment. Thisenvironment not only cultivates technical skills but also nurtures a deep understanding of theethical, social, and contextual dimensions of AI technology. The incubator's studio-basedlearning, combined with its focus on real-world applications, prototyping, and communitybuilding, has proven to be a robust model for encouraging cross-disciplinary collaboration andinnovation.The iterative nature of the program, highlighted by adaptations and
, the CC faculty attended 4 research seminars throughout the summer that focusedon the research being conducted by faculty on UCB campus in various areas. The CC facultyalso attended sessions by the leaders of the research topics (alternative energy, cyber security,wearable medical devices, green and sustainable manufacturing, and nanotechnology) that gavethem an overall view of current research goals and progress. The goal of hosting these seminarsis to describe real world problems being worked on, as well as providing access to leading-edgeresearch outside of their own primary laboratory.Beyond these seminars and workshops, CC faculty were asked to complete weekly homeworkassignments that asked them to reflect on their research progress and
and applications. This ensures that students not only learn programming but also understand how to apply these skills in the RBE context. • Collaborative Learning: The course is aimed to promote collaborative learning through team-based projects that mimic real-world robotics programming challenges. This approach fosters a deeper understanding of both the individual and collective aspects of software development in robotics.This tailored approach is to ensure that students gain not only programming proficiency but alsoan understanding of how these skills intersect with robotics, preparing them for advanced coursesand real-world applications.The effectiveness of the course was evaluated through a combination of formative
aprice. These software development tools hide many of the fundamental computer engineeringissues, so that the programmer can focus on his/her application. If your mission is to create andmarket products, then one can successfully argue that these software tools are effective. On theother hand, since our goal is to educate student to potentially work on future embedded systems,we must expose our students to the underlying hardware, let them program in low-level languagesuch as assembly or C, and force them to face real engineering tradeoffs. Such an approach isalso possible and desirable because our students have had exposures to digital logic and softwareprogramming
models allowing students to manipulate, experiment, and translate theories into real-world applications. Visualization is an important factor in modern education. Traditional lectureformat teaching methods sometimes fall short of conveying the complex analysis and designprinciples that need to be mastered in reinforced concrete design course. One of the methods ofreducing this short fall is to use simple animated virtual models, which demonstrate basicstructural design concepts that can be used to enhance the students understanding. Theinteractive computer aided learning (Haque 2001) allows students to proceed at their own pace,motivated by a curiosity about “what happens” interactivity and “the need to know” the design/analysis
and modeling (http://www.engr.iupui.edu/˜jz29/) c American Society for Engineering Education, 2019 Integration of 3D printed Drone Project in General Engineering CurriculumAbstractWe recently developed a new project-based 3D printing module in general engineeringcurriculum. Specifically, students are required to make a drone using 3D printed components.The revised engineering course with the new module has received extensive interests andpositive feedback from students. They learned how to apply the fundamentals, applications, andimplications of 3D printing or additive manufacturing (AM) in a real-world project.1. Introduction With technology getting better every year, it is imperative that students
web. Enhancing World Wide Web developments, the newopportunities for interactivity and flexible access to various media format (text, sound, staticillustrations, 2D and 3D dynamic illustrations, Virtual Reality worlds) challenge the traditionalexperience in shaping learning environments for web-based education (Klett, 2002). The student-centered distance-learning archetype should include dynamic demonstration of theoreticalengineering models allowing students to manipulate, experiment, and translate theories into real-world applications. Visualization is an important factor in modern education. Traditional lectureformat teaching methods sometimes fall short of conveying the complex analysis and designprinciples that need to be mastered in
) comparison of math and English asrule-based disciplines, (2) in-class practice in solving the problems and (3) emphasis onthe real-world application of the tools students were learning, Since the math class followed immediately after the English class, Dr. Townsendhad the opportunity to compare and contrast the two disciplines in real time. In English,ambiguity of meaning is often encouraged; not so in math. At this level, math is a smallcollection of rules, much like those of English grammar. Anyone performing a symbolicmanipulation must use one of the rules. The job of the students is to then practice using these rules, i.e., do homework andsolve in-class problems, until they build an intuition on which rule to use. It is a
growing demand for AI competencies and its influenceon academic preparation, guiding higher education institutions towards training students for alabor market that increasingly values industrialization, robotics, and virtual and augmentedreality technologies. The following section provides a literature review showcasing AI'simportance in engineering and this sector's required skills and competencies.AI todayArtificial Intelligence (AI) has made significant advances in recent decades, with experimentsand studies outlining its capabilities and limitations. Its paradigms have recently beenreassessed, generating innovative applications to solve diverse real-world problems. Thisprogress marks an era of notable change and expansion in the AI field [1-3
concepts in different areas ofSTEM education. In material science, students must possess a profound and intuitiveunderstanding of its complex, 3D concepts to fully comprehend the fundamental interplaybetween structure and properties of different materials. Mixed reality technology offersmaterial science educators the possibility to create 3D visualizations, overlay them on aclassroom environment and allow students to interact with them in real-time. In this paper,we introduce an innovative and interactive mixed reality application, “Holo-MSE” - designedto help students visualize and fully control holographic models of threshold material scienceconcepts. This paper is an interim report on an on-going study to implement Holo-MSE appin teaching
promotingand expanding education in the field of penetration testing.3.1. Cybersecurity CompetitionsAs a means to foster tomorrow's cybersecurity professionals, cybersecurity competitions havebecome a popular way to promote interest in cybersecurity and train cybersecurity professionalsin a controlled network environment. During the competition, individual participants or teamsuse their knowledge and skills to resolve cybersecurity issues they might encounter in the real-world. The challenges provide opportunities to help them strengthen their problem solving anddecision-making abilities.There are a wide variety of local, state, regional, national, and international cybersecuritycompetitions held in the formats of face-to-face, virtual, or a
topicsthey will learn in other courses, a clear reference to andragogy’s idea of students’ orientation tolearning. In fact, providing students with real-world research experience even at theundergraduate level is the concept behind MIT’s Undergraduate Research Opportunities Program(UROP), started in 1969. Overall, several areas within the campaign priority section refer toaspects of andragogy. The Georgia Institute of Technology’s strategic vision and plan, a relatively shortdocument, looks out to 2035 to help shape where the institution wants to go in that time. Whilethe nature of the document does not discuss the role of the learner in general, it does detail avision on the future curriculum. The plan recognizes the need for a very flexible
theories into real-world applications (Haque 2003). Visualization is an importantfactor in modern education. Traditional lecture format teaching methods sometimes fall short ofconveying the complex analysis and design principles that need to be mastered in reinforcedconcrete design course. One of the methods of reducing this short fall is to use simple animatedvirtual models, which demonstrate basic structural design concepts that can be used to enhancethe students understanding. The interactive computer aided learning (Haque 2001) allowsstudents to proceed at their own pace, motivated by a curiosity about “what happens”interactivity and “the need to know” the design/ analysis principles
courses, yet these are typically taught in isolation from corebiology and physiology classes. We argue that computational modeling can be used as a tool forunderstanding these concepts. Using coding and modeling as a tool also exposes students to awider range of applications for computer programming and provides them with opportunities toapply computational thinking to real-world applications. We plan to continue innovating ourcourse and move towards more accessible tools, such as Jupyter Notebooks, CVSim [8], andCircAdapt [9], as platforms for enhanced learning of cardiovascular function in BME curricula.
Eodice (Oklahoma) describe an innovative way forteaching thermodynamics. Rather than the traditional classroom model in which the focus is on theanalysis of thermodynamic energy systems and their real world application, instructors might encour-age students to creatively translate thermodynamics into languages they can clearly understand.They asked sophomore-level students to generate a creative interpretation of Thermodynamics. Theresultant presentations were “a high-energy event in rhythms and rhymes, as students presentedtheir creative work.” Subsequent evaluations found that the creative interpretations helped to clarifyconcepts and increased students’ appreciation of thermodynamics in particular and engineeringin general. This was supported
competence in engineering[2]. These findings suggest that students felt better equipped for local and global engineeringroles, likely due to GEES’s integration of real-world projects and industry networking.Practical Skill Development and Industry EngagementStudents reported positive changes in practical skills, particularly in simplifying complexconcepts, engaging with industry, and managing projects. For instance, industry interfacingskills saw a notable increase from an average rating of 3.11 to 4.09. This outcome isconsistent with the S-STEM program at Appalachian State University, which found that real-world experience and industry connections contributed to skill development [10]. GEES’semphasis on practical application appears to have
- 2021 ASEE Midwest Section Conferencesource CFD software OpenFOAM as well as open-source visualization program ParaView will beillustrated to model realistic wind flow. This open-source CFD software is a cost-effectivealternative tool for teaching and students can develop it further for their future research andindustrial applications. This work is an extension of Verma et al. [1], wherein OpenFOAM isintroduced. Verma et al. [1] contribution was primarily meant for the introduction of OpenFOAMand ParaView for teaching CFD and Fluid courses, so, the problem considered in [1] was relativelysimple and lacked several important aspects required to model a realistic wind flow case around abuilding that adequately resembles a real-world wind flow
• Northeastern Creates a new model of education where real world experience earns university credit, removing the divide between work and learning• GE Develops a workforce pipeline prepared and trained to accelerate the transformation to a Digital Industrial company• NU / GE Partnership selected as 1 of 8 university/colleges for DoE initiative Competency Based Bachelors Degree Reviving Apprenticeships• Builds on the foundational legacy of GE’s highly successful Apprenticeship programs• Expands from Northeastern’ s long proven co-op program and student experiences• Leverages GE training resources and expertise to develop a application based, relevant job-ready workforce• Augments the framework throughout with NU faculty expertise, learner supports
clips, as evidenced by their comments listed below. ‚ Dr. Pei does a nice job of mixing in movies to explain the concepts. ‚ The movie clips were super! ‚ I like the movie segment, which can help us learn and relax at the same time; also, it makes us understand the topic easier. ‚ Movies are useful to show real world examples of the processes discussed in class. Help to make the class more interesting. ‚ I liked the movies; they helped apply the information in class to real life. ‚ I enjoyed watching movies because I could understand them and apply the material in real life. ‚ I like the movies; they made me think and put what I have learned to use and made me think outside the box. ‚ I
both laboratory and real-world settings. This concept is an inversion of the traditional laboratory curriculum paradigm.The current situation is that freshman programs focus either on a design project or discipline-specific experiments that may not be cohesively integrated. In real-world settings engineerswork in multidisciplinary teams on a variety of complex problems. The fundamental principlesof measurement and their application are crucial to the solution of these problems.IntroductionThe College of Engineering at Rowan University was created through a $100 million gift fromHenry and Betty Rowan in 1992. The College of Engineering’s key features includecollaborative teamwork in inter- and multi- disciplinary laboratory and
- continuous periods of time in university research labs due tomicrofluidics, and bio-inspired robotics. Each module was the cooperative education schedule.inspired by a real-world task, and students completed hands-on Problem-based learning (PBL) is ideal for integratinglaboratory projects as part of each module’s learningprogression. Through this course, student co-operative education biomechanical engineering classroom, laboratory, andexperiences, and biomechanical engineering senior design cooperative education. In PBL, the process is student-centeredprojects, we will improve education of biomechanical engineers
their understanding so that they maintain control, creativity, anddecision-making agency within the engineering design process. This activity fills that need byproviding a guided, hands-on experience where students leverage AI to help brainstorm, generateideas, and iterate on design choices, all while focusing on client needs and preferences.Further, accessing real-world clients in the first-year can be difficult, especially with constrainedresources and scaling client-interactions to large numbers of students. Generative AI provides anopportunity for students, early in their engineering education, to practice the steps of conductingclient interviews and incorporating client feedback into their engineering designs. Doing sowithin the context of
all the cases discussed the results werevery accurate as seen by the comparison between the expected and the obtained results and thesteady state errors in all the cases was less than 0.15%.References:[1] "How does a Speedometer work", Test & Measurement World, February 15, 2000.[2] "Modern Control Systems", Richard C. Dorf, Robert H. Bishop, Prentice Hall, 2008.BiographyNavarun Gupta is an Assistant Professor in the Department of Electrical and ComputerEngineering at the University of Bridgeport, Connecticut. He received a Ph.D. from FloridaInternational University in 2003. His interests include the application of digital signal processingto acoustics and biosignals.Sarosh Patel received the B.E. degree in Electrical and Electronics
for modern days engineering problem-solving [4]. Furthermore, existing curricula often treat engineering disciplines in isolation,lacking an interdisciplinary focus that is essential for solving real-world challenges where AI isapplied across domains (e.g., robotics integrating AI for autonomous decision-making, orembedded systems for IoT-based applications). This gap creates a disconnect between theoreticalengineering education and the growing demand for AI-enabled solutions in professional practice.Thus, integrating AI into various engineering curricula becomes a crucial step to modernizeundergraduate education and meet evolving industry needs. To response to this change, a fewuniversities in Canada started to offer AI-infused engineering
applications that this field addresses. (a) To develop a software collection of machine learning related algorithms based on MATLAB with accompanying documentation and usage examples based on real-world problems. (b) To develop educational material regarding selected, current topics in machine learning that will be used as chapters of an introductory textbook in Machine Learning for undergraduate students. 3. Involve students from 2-year community colleges (BCC and SCC) in this educational development process. The plan is to involve 10 community college students per year. Page 11.544.4 4. Disseminate
, spanning from 2020 to 2023, propelled the adoption of online education tounprecedented levels. Initially implemented as an emergency measure to address school closures,online modality has since been embraced by numerous higher education institutions due to itsinherent advantages [1, 13], which include enhanced flexibility, increased interactivity, and theability for students to pace their own learning.Historically, online engineering programs have faced skepticism, particularly due to concernsover the lack of hands-on lab experiences. There has been a strong belief that students mustphysically engage with real machines, equipment, and circuits that closely mirror those used inreal-world applications—something simulations alone cannot fully