of the learner, but rather the fundamental methods by whicheach person absorbs and processes information. Type 2 learners typically enjoy lecturepresentation because it allows them to think abstractly and observe how others solveproblems and gather knowledge. Type 4 learners, on the other hand, welcome theopportunity to test new knowledge in real world applications and experiment with it innew ways. Instructors also have learning preferences, and they tend to teach using toolswith which they are familiar and that are suited to their own learning personality. Although the general population is divided relatively equally amongst the fourlearning personalities, this does not seem to be the case in particular fields of study.Harb, Hurt, and
whichinformation is accessed. Understanding different learning styles can help instructors developeffective teaching strategies that target student diversities. Laboratory experiences can helpaddress the needs of diverse learners as well as develop skills and emphasize the relevance andreal-world application of course content10. Through engaging students in engineeringinvestigations by means of a 3-D virtual laboratory, our goal has been to spark interest,excitement and the concomitant retention of engineering students5.Few engineering courses have a laboratory associated with them. One reason is that physical Page 23.1269.3laboratory investigations are
. The projectspecifically addressed the sizing of components of an existing SAE Baja race car gearbox (sizethe shafts, keys, gears, and bearings). Phases 1 and 2 of the project asked students tocalculate/estimate the external loads acting on the input and output shafts of the gearbox. Inthese first two phases students were able to start experiencing a typical real-world situation inwhich, unlike textbook problems, the loads acting on the system were unknown and had to bedetermined. It required searching the internet, consulting textbooks, inspecting the Baja, andmaking assumptions. In the last phases, the students compared the results of their sizingcalculations to the existing components and applied critical thinking skills (discern the true
. Student InvolvementAs previously mentioned, community engagement in engineering education is key because itbridges the gap between theoretical knowledge and real-world applications. Student involvementis a key focus of our neighborhood revitalization initiative, and it offers a multitude of benefits toour students [5], including: • Preparing students for professional practice by engaging them in some of the nation’s most difficult and enduring challenges. • Exposing students to interdisciplinary work fostering innovation and collaboration and encouraging students to think critically, creatively, and holistically. • Developing students’ research capacities and skills. • Reinforcing students’ team work skills and expose
satisfyof applications that could be used or develop to support their needs.terrorist intervention including recruitment of cooperatives ormembers which can be sent through Bluetooth request or other III. METHODOLOGY want us to ask ourselves every day, how are we using The purpose of this paper is to illustrate how innovation and technology to make real difference in people’s live” is a greatnew product development can also lead to some vulnerabilities statement acknowledging how human had been veryand features that both help provide satisfaction to customer as dependent of technology and in particular the smartphone ofwell as some anxiety and issues that lead to security
traditional, lecture-basedformat without the use of simulation. Since much of the class materials are derived fromprofound advances in early-mid decades of the 20th century as well as availability ofcomprehensive textbooks (Bird, Stewart, and Lightfoot; Truskey; Fournier), instructors haveoften continued to cover “classical” problems and methods in teaching transport phenomena. Theteaching format usually consists of thorough analytical analysis and application of mathematicsto gain insight into physical phenomena. This format struggles to engage students and does notreflect the reliance of modern computer simulation on specific, real-world biomedical transportproblems. As educators, we sought to re-evaluate our traditional teaching of transport to
layout problems. Real world problem are rarely used. Inan Engineering Technology program, the course structure and layout should reflect on how touse these formulas to solve real world application. While In an industrial Technology, the coursestructure and layout will use top-down approach rather than a bottom up approach comparedwith the previous cases. A top down approach is an approach where the course instructor startswith the real life problems and further breaks down the problem into smaller sub problems. Withthe help of simplified formulas; students will be able to prove safe the design.No-matter what course in which program; a successful course should include the threeeducational constituents (Figure 1). Figure 2 shows the extend
presented in the general engineeringproblem solving module. MATLAB was widely used in many of these modules in moreadvanced contexts than in the first general module. For example, the biomedical engineeringmodule focused on various brain imaging modalities. This module contained a thresholdingassignment requiring students to use the image processing toolbox to determine approximatetumor volume using a series of digitized brain scans. Applications of MATLAB in otherdiscipline-specific modules incorporated scripts, advanced matrix calculations, and variousregression statistics as they related the module content in a real-world or research intensivecontext.Vertical Integration/Expanded UsageThrough consistent software innovations over the past 14
, TNLaunched June 16, 2015Agency sponsor: DOEStartup funding: $70M public,$159M co-investment+344,000 square feet in five core regions– composite manufacturing, laboratory,instructional and collaboration space 1) Clear, unique Institute FocusEach Institute has a clear mission based on a critical Industry need Opportunity Lightweight composites offer benefits to energy efficiency and renewable power generation, overcoming limitations through deployment of advanced technologies to make composite lower cost, faster, using less energy that can be readily recycled offer tremendous opportunities for US manufacturers. Big Idea The Institute will provide access to world-class resources to partner with industry and develop new low-cost, high-speed, and
students interact closely with a team of mentors consisting of faculty, industry experts, and research engineers. Close interaction with mentors and industrial projects in systems engineering and information technology ensures that the students can apply what they learn in the classroom to real-world problems. Mentors also help students assess their leadership capabilities and plan activities to improve their leadership skills. • Preparation and presentation of case problems. Students interact with each other and industry experts to solve industry problems. This prepares them for life in the workplace. They develop case problems based on their industrial experiences. Finally, they present the case
? Experience Why? Application Reflective Observation How? What? Abstraction and Conceptualization Figure 1: Kolb Learning CycleThe Kolb Learning Cycle describes a natural process in which individuals first acquire a "mentaldatabase" of experiences, more or less at random, by exposure to the real world. With repititionand time for reflection, connections between these experiences emerge and coalesce into conceptsthat lend themselves to formulation of
thecurrent 2nd Generation systems.The above depth in theory, breadth of laboratory and computer simulation experiences, andexposure to advanced applications, provides the fertile ground for students. They can then ask,“Can we use similar techniques to develop a wireless spread spectrum based system?” And, notonly to answer in the affirmative, but have the confidence that they can do it themselves.IV. Senior Systems Design ProjectWhen the students have completed all of their general courses and are deep into their selectedemphasis, they enroll in a mandatory senior design sequence. The senior design project, alsocalled “Systems” is a three-semester capstone course designed to teach engineers how to conducta real-world project. This project goes
way The oral pitch 2 No projects within my major of interest 3 Meeting with experts 2 More time to work in class 3 The open-ended nature of the project 1 A bigger page limit for deliverables 2 Having responsibility for one camp 1 Increased time for oral pitches 1 componentSome examples of responses are listed below: “I enjoyed collaborating with my group members and their respective components to create one cohesive design for the camp.” “I liked doing work and learning skills that are directly applicable to the real world and emphasize making a positive impact
no application callbacks registered. Within a Mixzone, applications do not receive any user location information, so their identities are mixed. Themore people within a Mix zone, the higher the assurance level is that their identities andinformation are anonymized; this is called the anonymity set. This concept will allow forpseudonyms to be used instead of real names. It will enable people using those pseudonyms tomove freely under anonymity without the risk of being meticulously being tracked step by step bytheir location data. C. Information Privacy There is an exponential increase in ubiquitous and pervasive sensors being deployed in everywalk of life. These systems store information indefinitely. It is more crucial now than it ever
inmechanical engineering and (ii) Exploring Engineering, History and Culture in Vietnam which is a technicalelective. Visits were arranged to hydropower stations, local traditional industries such as wooden boatmanufacturing, basket weaving, lantern making and honey bee farms, world heritage national parks, andnumerous local points of interest which were an integral part of this DOC program. Homework, projects,book reports, presentations, two tests and a final exam were based on the standard syllabi and site visits.Learning environment was conducive to promote interdisciplinary academic pursuits, experiential learning,and practical applications in fluid mechanics, mechanical design, hydropower, geology, socio-economicsetc., as well as independent
the development ofcritical assessment tools to ensure that the space is meetings its intended goals of bridging thegap between classroom and real-world through hands-on engagement.Conclusion Since inception, the Aggie Innovation Space at New Mexico State University hascontributed to student retention and persistence by fostering innovation and entrepreneurshipacross the engineering curriculum, engaged corporate partnerships to ensure transferability ofknowledge gained within the undergraduate curriculum to real-world application, and hasestablished a network of collaborations across the academic institution. The space has become abridge between the academia and industry and, collectively, is contributing to the developmentof broad
successfullyby labeling the parts and place them into the storage area for packaging process. Figure 4: Automated Labeling System Page 13.79.8 Figure 5: Wiring Diagram of Components of Automated Labeling SystemIII. Assessment of StudentsIn this performance assessment project, students were observed working with complex tasksassociated with a real world project. The project afforded students an opportunity to put intopractice many of the competencies learned in their field of study including design, softwaresimulation, wiring, and system construction. A team of faculty members utilized a capstoneproject matrix instrument
Session 2525 Designing Global Monitoring System to Locate Missing Children and Alzheimer Patients Mark Rajai, Hugh Blanton East Tennessee State UniversityAbstractThis paper presents a joint effort between engineering students from various majors, and theiradvisors to design a sophisticated global monitoring system to monitor location of children,Alzheimer patients and other valuable items. This project was part of a capstone design coursedeveloped to introduce engineering students to real world problems. This funded project wasdeveloped in response to
. The four Senior/First-year-Graduate level coursesare broken down into two principles courses, a hands-on laboratory course, and a designcourse. One principles course is on therapeutic applications of lasers and the other onoptical monitoring and biosensing applications. They both include outside lectures fromfaculty within other Engineering disciplines and from the Medical collaborators. Inaddition, the lectures are supplemented with critical reviews of the literature and groupdiscussions. With this pedagogy in the classroom courses, the laboratory course, and inparticular, the design course, the emphasis will be placed on real world problem solving.The curriculum is being developed with input from an industrial and faculty advisoryboard
into theuse of immersive virtual reality was considered by Jones et al.17 This research focused on theextension of two-dimensional graphical animations used in commercial discrete simulationsoftware packages for manufacturing simulations with a three-dimensional immersive displayenvironment. Recent research, however, suggests that the need for immersive virtual realityenvironments in educational applications may not be significant.18 This finding argues for thedevelopment of an interactive, non-immersive, virtual manufacturing laboratory initially.The Virtual Reality Modeling Language (VRML) was proposed as an architecture-neutral meansof describing three-dimensional objects within the context of the World-Wide Web.19 Level 2of the VRML
into theuse of immersive virtual reality was considered by Jones et al.17 This research focused on theextension of two-dimensional graphical animations used in commercial discrete simulationsoftware packages for manufacturing simulations with a three-dimensional immersive displayenvironment. Recent research, however, suggests that the need for immersive virtual realityenvironments in educational applications may not be significant.18 This finding argues for thedevelopment of an interactive, non-immersive, virtual manufacturing laboratory initially.The Virtual Reality Modeling Language (VRML) was proposed as an architecture-neutral meansof describing three-dimensional objects within the context of the World-Wide Web.19 Level 2of the VRML
in the natural design process can help children develop positive associations with engineering, and increase their desire to pursue such activities in the future 2 . • Engineering projects integrate other disciplines. Engaging students in hands-on, real-world engineering experiences can enliven math and science and other content areas. Engineering projects can motivate students to learn math and science concepts by illustrating relevant applications 1,7,8. • Engineering fosters problem-solving skills, including problem formulation, iteration, testing of alternative solutions, and evaluation of data to guide decisions 9. • Engineering embraces project-based learning, encompasses hands-on construction, and sharpens
that can be used to create more efficient and sustainable technologies. Connectingbetween biological systems and engineering design requires critical thinking and investigationfrom numerous system levels and viewpoints, thus emphasizing systems thinking [16]. In applyingbio-inspired design, functional modeling in engineering is performed analogous to functionaldecomposition of biological systems [17]. Integrating bio-inspired design approaches into anengineering course fosters creativity and innovation, enhances interdisciplinary learning,encourages sustainable and ethical design, develops problem-solving skills and providesopportunities for real-world applications [16], [18]. This effectively provides engineering studentswith a more holistic
design”, students were not expected to explicitly describe their understanding of theEDP. To this end, an EDP category was added to the judging rubric to explicitly score thestudent’s understanding and application of this process.We also added a presentation category to explicitly focus on all team members’ ability for oralcommunication in addition to the written information provided. In addition, we saw a need tohighlight the technical skills of those middle school teams who did have working prototypes witha bonus point in the scoring rubric. Finally, the importance of a real-world connection ishighlighted through the addition of a “relevance to one health” category. This ensures that teamsare researching and aiming to address relevant issues
make adaptations to suit students with less flexibleschedules, especially engineering students, reflected a commitment by faculty and administratorsto be entrepreneurial in seizing opportunities to develop the program.Engineering ChangesAs entrepreneurship activities proceeded in the Business Department, in the Engineeringdivision, a first-year introductory course intended to familiarize students with computerapplications for engineers was modified in 2013 to follow a new paradigm wherein coursecontent was presented paralleling a real-world engineering consulting project. Topic-specificlectures focused on requisite computer application, analysis and writing skills were paced withperiodic “business meetings.” Those meetings were related to a
course offerings, SCL hasbeen taken to another new higher level, thus empowering students like never before. Different types of SCL techniques have been successfully implemented in MS SustainabilityManagement, MS Engineering Management and MS Environmental Engineering programs.Graduate level applied engineering programs are offered through onsite live classes and onlineclasses. The specific SCL techniques used include: - Knowledge-centric SCL promoting development of critical thinking by applying learned outcomes to real world problem-solving - Learner-centric SCL promoting students to be more creative and use of prior knowledge - Assessment-centric SCL promoting opportunities for feedback and improvement - Community-centric
University. She is the co-PI and co-Director of the NSF-funded Engineering for US All (e4usa) project and Executive Director of e4usa, the non-profit. Dr. Klein-Gardner is a Fellow of ASEE. ©American Society for Engineering Education, 2024 High School Students’ Perspectives on Mathematical Modeling in the Engineering Design Process (RTP)AbstractMathematical modeling skills are essential for engineers to solve real-world problems. Whilethere is a growing emphasis on pre-college engineering education, it remains unclear howpre-college students utilize and perceive mathematical modeling within the engineering designprocess. Engineering for US All (e4usa) is dedicated to crafting engineering
The Design of a Robust Tool for the Measurement of Understanding the Impact of Engineering Solutions Michelle Albanese Dr. Richard J. Puerzer Department of Engineering Hofstra Universityintroduction The modern world is changing at a rapid pace and the nature of engineering problems is evolvingalongside it. It is not sufficient to consider engineering solutions only in terms of the formulas to beapplied. Rather, factors such as environmental issues, cultural practices, and political situations must beconsidered in order to develop appropriate
"Hello-world" app with a button that talks the message stored within the app, a "To-Do list" app that allows students to store and manage a list of daily tasks, a "Tiny-banking" appthat simulates a concise banking system with a default balance of 200 dollars and buttons forwithdrawals and deposits, and a game of "Tic-Tac-Toe" are just a few of the applications thatstudents built. Each of these applications allowed students to use their newly acquired knowledgeand see how the ideas they learned, in theory, could be used in real-world situations.Students learned about cryptography's fundamentals through practical exercises at theCryptography Lab. Students' understanding of encryption and decryption algorithms wasimproved by these exercises
Paper ID #39595Board 106: Innovation through Making Course: Creating a DistinctivePrototyping Experience as Part of a New Entrepreneurial Pathway (Work inProgress)Mitra Varun Anand, Worcester Polytechnic Institute Mitra Anand serves as the Associate Director of Makerspace, and Innovation and Entrepreneurship, in addition to being an Adjunct Faculty of Mechanical Engineering at Worcester Polytechnic Institute. Anand’s research interests lie in combining hands-on Maker skills with an entrepreneurial mindset and value creation, aiming to develop practical solutions for real-world problems. He is enthusiastic about