Paper ID #34149Redefining Assessment Formats to Replicate Real-world AerospaceEngineering ApplicationsDr. Amelia Greig, University of Texas at El Paso Dr. Amelia Greig has degrees in Mechanical and Aerospace Engineering, and Science from the Univer- sity of Adelaide, and a PhD in Physics from the Australian National University. She currently leads the small satellite and propulsion research activities at the University of Texas at El Paso as part of the Center for Space Exploration and Technology Research (cSETR). Dr. Greig has been interested in engineer- ing education research since learning how effective humor can
be easily read on a laptop and plotted andanalyzed using a spreadsheet. Experiments can be chosen based on student interest, andhave included straight-line people-mover train rides, automobiles at constant speedaround a corner, automobiles traveling over speed humps, and elevator rides. Thisexperiment allows students to see the applications of dynamics equations in the realworld around them, and allows them to more deeply engage in the experimental aspect ofthe course.IntroductionFor an undergraduate Dynamics course, instead of a controlled and prescribed experimentin the laboratory, students were assigned to take data in the real world and analyze it. Anaccelerometer was used to measure motion, and students were required to analyze
broadly-defined Grand Challenges. For instance, they mentioned electronic ink (E-ink), radiation fromcell phones, lab on a chip, and other real-world problems catalyzing a better understanding ofsociotechnical thinking, both at simplistic and more complex levels. For instance: FG03, Mozzarella: 01:18 It's kind of a well-rounded class and [the instructor] definitely makes an effort to tie in different engineering challenges, so you get a lot more real-world applications. For example, we just talked about the solar panels in our little wave unit and on my spring break trip, we drove past a massive solar farm and it was kind of cool because it was like, "Hey, she's talked about those." I have a much better understanding
for NASA MUREP Aerospace Academy program at ECSU. His areas of interests include embedded systems design, cloud instrumentation, remote computing applications, UAS applications re- search, mobile robotics, and innovative uses of educational technologies. Dr. Rawat may be reached at ksrawat@ecsu.edu.Dr. Ellis Eugene Lawrence, Elizabeth City State University Dr. Ellis E. Lawrence is a Professor in the Department Of Technology at ECSU. He holds an Ed.D. in Vocational and Technical Education with a cognate in Industrial Engineering from Virginia Polytechnic Institute and State University (popularly known as Virginia Tech) in Blacksburg, Virginia. He worked as Graduate Research Assistant in the Vocational Technical
). It is very important for aneducator to make the students fully understand the problem before they have the chance to thinkof creative solutions while keeping in mind the importance of real-world application. By havingthe students understand the theory by means of application, the development of creative thinkingtakes place, transforming the students into better problem solvers (O'Brien and Abulencia, 2010). In a conventional classroom, lower levels of Bloom’s taxonomy: knowledge,comprehension, and application are practiced (Bloom et al., 1956). The instructor introduces atopic, shows its applications, and assigns practice problems to the students with the goal ofrepetitive solutions making them familiar with engineering concepts
and compare small scale energy projects using major economicmeasures of pay-back period, simple rate of return, net present value, and internal rate of return;4. Evaluate manufacturing energy consumption and methods to increase energy efficiency; and5. Relate properly their hands-on laboratory experiences to solving real world clean energy andenergy efficiency engineering problems.In order to provide an enhanced hands-on laboratory experience, the students work with realworld industrial case studies associated with green energy11,16. Table 3 provides an overview oflecture and laboratory series in INDE t280 Clean Energy and Energy Efficiency. Teaching thiscourse presents challenges of teaching applications rather than a discipline. In that
constraint.” ○ “We often discuss issues that have occurred in the engineering world and learn how money, politics, and environmental impacts all play a role in what happens. Therefore it is interesting to know what issues are affecting the engineering process and where things are going right.”Although these comments do not address the activities specifically, it is clear that students havean appreciation for practical applications and engineering opportunities. The class activitieslikely contributed to their appreciation.4. Identify links between course knowledge and real world systems: 87% of students statedthere was a connection between coursework and real world systems, and 70% were able toidentify a
equipping them with the necessary skills and knowledge for the construction sector and how these have translated into real-world applications and employability. This evaluation will provide insights into the long-term benefits of the course and its alignment with professional requirements. ● Teachers' perspectives on implementation and effectiveness: Finally, the study aims to gather insights from teachers regarding the course's implementation and effectiveness. Teachers' perspectives are invaluable in evaluating the course structure, teaching methodologies, and the overall delivery of the curriculum. Their views on what works well and what could be improved are essential for continual course
Paper ID #44595Implementation of a Semester-long, Real-World Problem Project in aCritical Systems Thinking CourseProf. Mary E. Johnson Ph.D., Purdue University at West Lafayette (PPI) Mary E. Johnson is a Professor and Associate Head for Graduate Studies and Research in the School of Aviation and Transportation Technology (SATT) at Purdue University in West Lafayette, Indiana. She earned her BS, MS and PhD in Industrial Engineering from UTArlingtonMr. Gustavo Adolfo Sanchez, Purdue University at West Lafayette (PPI) Gustavo is a Ph.D. student in the School of Aviation and Transportation Technology at Purdue University. He
Paper ID #11446On the Role of Adjuncts in Engineering Education: Developing PracticalCourses and Solving Real World ProblemsDr. Waddah Akili, Iowa State University Waddah Akili has been in the academic arena for over 37 years. He has held academic positions at Drexel University, Philadelphia, Penna (66-69), at King Fahd University of Petroleum & Minerals, Dhahran, Saudi Arabia (69-87), and at the University of Qatar, Doha, Qatar (87-00). Professor Akili’s major field is geotechnical engineering and materials. His research work & experience include: characterization of arid and semi arid soils, piled foundations
of a variety of student outcomes, mainly including the application of knowledge ofengineering (outcome a), the ability to design a system with constraints (outcome c), the abilityto function in multidisciplinary teams (outcome d), the ability to formulate and solve engineeringproblems (outcome e), and the ability to communicate effectively (outcome g). Beyondencompassing several skills, this type of multidisciplinary experience impacted engineeringstudents by giving them a unique experience to create and innovate and prepare them for real-world environments. The lessons learned during the process are presented below.Lessons learnedSelect or design the project to be developed carefully. When selecting or designing amultidisciplinary real
for others interested in designing and refining hands-on mechanics activitiestoward specific learning goals.IntroductionIn engineering statics courses students work with contexts and concepts from a broad range ofreal-world applications. While there are a variety of formulae and procedural ideas to be learnedand understood, it is also important to develop conceptual understanding of key course ideas.Active learning supports students’ performance in the STEM disciplines as compared totraditional lecture [1], particularly for students from historically marginalized groups [2], and cansupport the development of conceptual understanding. One way to do this is to use 3D models ofcommon statics concepts, such as vectors, forces, and moments to
: Deep Learning Based Plant Classifiers and Their Real- Life Research Applications AbstractDeep learning structures, such as Convolutional Neural Networks (CNNs), have beenintroduced to the undergraduate students in Central State University for the past three years.Funded by an 1890 Land Grant Evans-Allen research program and a USDA CapacityBuilding Grant, a number of students with minimum deep learning background weretrained to develop customized CNNs. After training, the students were able to solve givenplant classification problems and develop plant classification apps to showcase theperformance of the customized CNNs. In particular, two students’ research projects werediscussed in
engineering study means more than justattending classes or taking exams. The experiences also include meaningful community andsociety involvement and contributions.Impacts on college studentsService learning is a very good way to achieve several objectives for the education ofengineering students, including: 1) Ensure what the students learned are practical and realistic, applicable to the real world. 2) Guarantee that the students have in mind of serving the community when they are in school and keep that after they graduate. 3) Help the students to start to build good and sustainable community relationships while still in school. 4) Facilitate the students’ learning actively
structures and the people who use them.The idea is summarized in a graphic syllabus (see Figure 1), as well as the standard courseoutline provided to the students (see Figure 2). Figure 1: Graphic SyllabusFigure 2: Standard Course OutlineIn order to make the tour more authentic, country themes were added to the handouts used by theinstructor and where possible, real-world examples were mimicked so students could readily seethe applications of the different analysis techniques being learned. In addition, the pictures ofstructures selected not only were there to inspire the students, but could act as talking points todiscuss the country’s culture during class and to maybe highlight key societal differences or inthe
Page 26.869.12Observing the reactants and products listed in Table 2 demonstrated the need for the students toproperly balance chemical equations and to be more steadfast in literature review. Specifically,the students proposed that acetylene was a product of the reaction between sodium borohydride,water and acetic acid. However, sodium borohydride is not known to reduce acetic acid and theacid’s presence is there only to reduce the pH of the system and facilitate faster hydrogenrelease. It became clear that more time spent on chemical principles would improve this aspect ofthe design experience. However, the use of infrared thermography to observe reactionprogression in real time is an interesting application that could gain traction as an
viable.For us, this starts with developing a community of support to give faculty the confidence toeffectively introduce wicked problems into their existing courses. Through this community,faculty may leverage one another’s expertise in order to expose students to real-world wickedproblems. In the spirit of holistic engineering education, our hope is to enable instructors toconfidently develop their students’ non-technical skills which are integral for generatingsustainability-minded leaders of the future.5,6Research MethodsIn this paper, our primary research objective was to develop a valid and reliable psychometricinstrument that measures a series of sustainability-related learning objectives that are central toWPSI. Our second objective was to
termwithout support by the other. UAF has begun a holistic program to address deficiencies in both camps,using robotic vehicles like UAS as a primary means to achieve this.BackgroundThe University of Alaska Fairbanks (UAF) hosts the Alaska Center for Unmanned Aircraft SystemsIntegration (ACUASI), a collaborative research program linking education in engineering, aviation, andremote sensing with real-world applications for geospatial data products collected by unmanned aircraftsystems (UAS) [1]. As part of this mission, the center promotes STEM learning opportunities relevant tothe burgeoning UAS field at high schools in Fairbanks and rural Alaska.As a part of UAF and in partnership with the Federal Aviation Administration’s (FAA) Pan PacificUnmanned
Paper ID #28669Assessing Grassroots Engineering Applications in BrazilDr. Cristiano Cordeiro Cruz, Aeronautics Technological Institute I currently develop a post-doctorate research at the Aeronautics Technological Institute (ITA) with a schol- arship from FAPESP (#2018/20563-3). I hold a PhD degree in Philosophy (University of S˜ao Paulo, 2017), a bachelor degree in Philosophy (Jesuit Faculty of Philosophy and Theology, 2008), a master degree in Electrical Engineering (University of Campinas, 2002), and a bachelor degree in Electrical Engineering (University of Campinas, 1999). My research area encompasses philosophy of
of ethics education are most effective. In his review of ethics educationprogram, Hess and Fore note that “there is neither a consensus throughout the engineeringeducation community regarding which strategies are most effective towards which ends, norwhich ends are most important. [7]” Bairaktarova and Woodcock assert “that engineeringeducators struggle with is how to best accomplish this goal,” and, in a historical review of ethicsin engineering, Perlman and Varma note the lack of agreement on how ethics education shouldbe performed, noting that classes solely focused on ethical theory are not likely to be sufficient inpreparing engineers for real-world ethical dilemmas. [8, 9] Colby and Sullivan also note the lackof consistency in methods
and students in completing challenging real-world assignments. • Allow students to choose accelerated learning options to earn relevant industry credentials. • Combine a college-career ready academic core with challenging technical studies that will prepare students to live and work in a global workforce and marketplace. • To impact the health and wealth of the students and community that services through sister schools in Balfate, Honduras. • To conduct international professional development, teacher-to-teacher via Zoom. Introduce the Global Sister SchoolsSTEM Projects involvementThe Global Sister School project was developed to connect schools with similar time zones. Forexample, in the USA as our primary
real-world application of this project. The aircrew needs the ability to understand and recognize themechanical properties of the aircraft components in real time. The proposed method will providethe mechanical properties of the part within a single Excel file. This is similar to the informationthat a laptop mounted within the cabin of the aircraft, known as a “tough book,” delivers. Thisinformation is in turn used for critical decisions in any air missions.IntroductionThe use of sensors mounted on critical aircraft components has proved to be a reliable methodfor Structure Health Monitoring (SHM). The main focus of utilizing sensors in SHM is tomaximize the chance of detecting system failure or potential damage with a limited number ofsensors
Paper ID #16847 Shareef wrote and designed the RTTD software. He works for VTCSecure and NTID on the FCC’s Accessible Communication for Everyone (ACE) application. ACE is an open source platform that allows video calls and so much more. Shareef is pursuing his BS degree in Computer Science at RIT.Mr. Jason Dominick Lee, Rochester Institute of Technology, Center on Access Technology I am fifth year Electrical and Mechanical Engineering Technology in the College of Applied Science & Technology at RIT. For over two years, I have worked as a hardware engineer under Center on Access Technology (CAT) department. During that period, I have developed first generation Real-Time Tracking Display (RTTD). I currently work on
in a well-known real world application helps the future STEM students understand math as a tool for innovation and supports the depth of leaning new mathematical concept such as root finding algorithms explored in this paper. Also by having an already configured setup where students can change out different algorithms will help students to focus on the mathematical concept being explored and will enhance their learning experience. In this paper a simulation approach was given but an actual experimental setup can be built to demonstrate the concept. This will enhance the student’s interest even more but need to be done under supervision due to high currents and voltages.Reference[1] Sterba, J
Paper ID #12707Searching the World Wide Web – Finding the Right Information the FirstTimeMs. Kristine Donate, Florida Atlantic University Twenty years in the RF Analog/Mixed Signal Design and EDA software industries doing design, customer support, application engineering, technical writing, training development and delivery, project manage- ment, AE and business management. Current focus is on telephony and IVR technologies. Realization of software development as a true passion of mine led to the pursuit of a Master’s degree in Computer Science at Florida Atlantic University, graduated in December, 2013.Dr. Ravi T
in a science, technology, engineering or math field in college. I would recommend Tech Trek to others.Additionally, the girls were asked the four outcome questions given in Table 3 about their TechTrek experience. Table 3. Camp Outcome QuestionsPost and Six Month Opportunities to learn about real world applications of STEM.Surveys Only Opportunities to build your skills in critical thinking, problem solving and creativity. Opportunities to build your skills in collaboration and team work. Opportunity to learn about STEM fields.They were asked to rate these opportunities as
beadapted to meet the unique characteristics and motivations of students enrolled in AE or BEdegree programs. For example, course instructors can connect theoretical course content to real-world examples. Meeting the challenges of a growing world population will require broadeningparticipation in agriculture and biological engineering. Promoting the potential of these fields tosolve real-world challenges related to food, water, energy and healthcare will help inspire thenext generation of agricultural and biological engineers to meet these needs.IntroductionThe fields of agricultural and biological engineering represent a distinct facet of engineeringapplied to living things (1). Growing from agricultural engineering in the early 1900s, programsnow
on2D/3D graphics and built using a specific game engine. GBVLs are becoming increasinglypopular at various levels of education. In addition to designing the story plot and game logic, otheressential tasks during the creation of GBVLs are to virtualize the real world and to insert all of thevirtual representations of the real objects into the GBVLs’ environments. The traditional methodfor virtualizing real objects is to design the models of these objects with some CAD software andthen to convert these models to the model format of the GBVL. In creating these models, oneneeds to not only measure the real objects but also to draw their features. These processes aretedious and time-consuming, thus considerably limiting the potential application
publishingconcepts, mentored in designing and testing hypotheses, and then involved in two challengesrelated to self-driving and networked vehicles. Two teams of 4 designed, implemented, testedvarious self-drive and V2X algorithms using real vehicles on a test course, analyzed/evaluatedtest results, wrote technical reports, and delivered presentations. After the summer program wasover, the technical reports were published in peer reviewed conferences and journals.Survey results show that students attained significant & real-world computer science skills inautonomous vehicle development leveraging real vehicles available. The programs alsoProceedings of the 2024 ASEE North Central Section ConferenceCopyright © 2024, American Society for Engineering
authors to connect students to real-world applications that mechanical engineeringstudents might encountering in their future careers. Campell20 uses an enticing approach in hisuse of “model making and breaking”. Students design structures to strict specifications and thenbuild and test the structures to the point of breaking. The appeal to the student is high because itis fun to break things, and the relevance is there for structural engineers, but mechanicalengineering students may still struggle to see the connection to their careers. Sophomore-levelstudents do not yet have the experience to see that the tools used in analyzing structures will alsobe useful in analyzing moving parts--unless we give specific examples.Some real-world problems