Department of Electrical Engineering The University of Texas at Tyler, Tyler, Texas. AbstractWith current technology advancements, the primary focus on today’s engineering problems is inautomating the systems. This can start from a simple automated temperature monitoring system ina home environment to advance Industrial automation using drones and robots in real-time. Theseadvancements have been a major drive for job opportunities and have opened doors forinterdisciplinary research across all domains of Engineering. Due to the huge scope of theproblems in the current modern world, Engineering solutions are becoming increasingly software-driven. Hence there is a high demand for
-Than-Air] Vehicle design process, from PDR [Preliminary Design Review] through Trial Day (and soon enough, through Race Day), is enjoyable and easy to understand. I wish I could have spent more time working on the blimp. I think the best parts of the course are the projects: the LTA and the articulated figure. I think hands-on time is the most important. Thoroughly enjoyed actually doing the research and working toward understanding the results. Also, enjoyed the oral presentations. The project involving a real case study was the best part by far. The design project is a lot of fun and seems like a real world application of the material. The concept of following one
technologiesand systems with modern engineering practice.One of the more exciting additions to the range of inexpensive robotic technologies is unmannedaerial vehicles (UAVs), or drones. Drones have a wide range of real-world applications and thefull potential of these devices has yet to be explored by either industry or educators.Drones have an enormous capacity to engage students and facilitate classroom learning. Dronesoffer a challenging platform for existing engineering design modules where students facechallenges in electronics, control, programming and project management.However, one of the challenges facing educators is how to integrate drones within their courses ina meaningful way; so that UAVs are not viewed as mere toys, but as devices that
is more and moreevident the importance of engineering sciences applications in the global world. Industries,governmental agencies, Banks, commercial sector and even civil social groups need engineersprepared in order to solve complex problems and to develop innovative solutions. Page 22.1442.5Why engineers? Because engineers are prepared to apply the principles of science andmathematics to develop solutions to solve problems. Engineers are naturally driven by results asa characteristic of their mind added by the formation. They work using scientific discoveries topropose applications that meet the needs. It is expected that engineers are
concepts with real world applications. More computerwork has also been added including a tutoring type interactive software and NI-MultiSim toallow students to perform circuit simulation as pre-lab assignments.In the next several sections, we will provide details about the revision process and discussassessments results to illustrate the effectiveness of the implemented changes.Course DescriptionThe Electrical Devices & Measurements is a 4-credits course offered in the fall for MET andEET students at the sophomore level. The course has a lab component with a 3hrs-lecture, 2hrs-lab per week format that provides the basics in the field of electricity and electronics. Topicscovered include basic circuit theory, energy conversion, electric
substantial dollar savings through optimal energy management schemes.CHP systems provide an excellent platform for students to study thermodynamics, certain unitoperations and process design principals, optimization, data reconciliation, and emissionscontrol. Even better, many Universities have ready (albeit remote) access to such a system ontheir own campus. At LSU, we are opening our newer (commissioned 2005, 20 MW, $20 MM)cogeneration system to the world of engineering education through real-time data delivery usingformats which can communicate with virtually any control/data acquisition system and thenbroadcast compressed data via the net. Easy to use (from Excel) education modules have beendeveloped which make use of these data to teach the
%. Thislast data is of great importance since it demonstrates interest and participation of female studentsin a field generally dominated by males.CONCLUSIONThe presented 3D modeling curriculum follows the stream of educational standards andguidelines which point towards a stronger integration of engineering design practices in scienceand engineering education for K-12 students. It is a modular curriculum contextualized in thedesign of parts for Linkbot modular robots. Through the tutorials and exercises in the curriculum,students learn the basics of the mechanical engineering design process and how to combine theseskills with their own creativity to solve real-world engineering problems. The curriculum can beused in conjunction with the robotics
lab exercises, where students can modify the code and viewcorresponding changes in motor operation, will inspire students to progress through our program.And help bridge the gap between theoretical knowledge and real-world applications. The motorsselected for exploration include DC motors, servo motors, and the planned integration of steppermotors. The paper outlines the course design, specific lectures, labs for each motor type, andcourse evaluation methodologies and concludes with insights drawn from the ongoingimprovement efforts. 1. IntroductionThe course, also known as the “ Freshman Circuits Course,” is structured to provide ElectricalEngineering Technology students with a preparatory understanding of electrical circuits
. Our university has a 128-node cluster of computers funded through NSF to be used forundergraduate education and research. We and other colleagues from our department haveattended several workshops conducted by National Computational Science Institute, a majororganization involved in developing national initiatives to promote computational science in theK-12 and undergraduate curriculum 1. Our department had also sponsored some of thesesummer workshops. These workshops introduce resources and modeling and simulation toolslike Stella 12, Agentsheets, MATLAB, and Madonna to K-12 teachers and college faculty to helpstudents acquire computational thinking, abstraction and modeling skills that are essential tosolve real-world application problems
systems. ©American Society for Engineering Education, 2024 Academic Parallels from a Military Merit ListAbstract To explore the extent that military training can provide pedagogical insight, this research seeks todiscover relationships between classroom (on-campus formative assessment) and “real world”performance (summer training summative assessment) for Army Cadets. This analysis examinesdata from three years of one program’s Army Reserve Officer Training Corps participants. Weestablish what factors on-campus correlate to Cadet Summer Training success.The goal of this research is to spur a discussion about different assessments that could reflect real-world performance. Another goal of this
, students are not able to get exposed tomany of the technologies used in industries. This course is designed to include much of thetheories and technologies, all combined into one real engineering application that serve anautomobile sector in the United States. The course is designed to educate engineers andtechnologists, and prepare them for entering real world where engineers they work togetherin design teams. The course includes hands-on the design of electronic components of theelectric vehicles. The course features the student integration from EE and EET into adesign project, and a team of faculty from EE and EET design and teach the course.II. Innovations• The new course is a departure from any traditional EE or EET senior electives, and
teach and supplement technologyeducation. After attending various workshops, brainstorming sessions, and focus groups, it wasclear that each case study should have five components: • A set, to get the reader’s attention. • A background narrative, to provide a historical and real world workplace context. • A problem, which can be small and very specific or large and general. • Questions, to provoke critical thinking and guide the analysis. • Finally, an instructor’s guide, to provide comprehensive support including instructional strategies, possible solutions, alternative problems, and any other related materials .Twenty five case studies were developed by the five teams and they are now being edited,reviewed, revised
product development team integrate all of theThe complex task of Product Development has been a individual components into a working system.major challenge for product manufacturers anddevelopers since the introduction of complex This approach works under two conditions:mechanical systems. The current approach to ProductDevelopment planning and execution, for many 1. Breakthrough technology; such as NASAcomplex commercial products, is resource based as satellites or new military technologiesopposed to learning based. The future competitiveness 2. Hypothetical unlimited markets and unlimitedin the world market is being driven by a need to enlist a
approach, Table 1, it isevident that the students were able to satisfactorily meet the stated objectives. Thestudents showed that they were able to implement and integrate many of the conceptsdiscussed in the class and laboratory lectures. The proposed experimental design showedthe students’ ability in dealing with a real-life application with little supervision.The problem-based learning activity described above and its outcomes were alsocompared with the traditional approach used in previous semester. Several noticeableobservations were made including the students’ ability to think independently and to relyless on the material discussed in class. For instance, the students were able to select real-world applications and apply the first and
students with limited priorknowledge or experience with hardware, as it enables them to engage with these concepts, grasptheir fundamental principles, and apply them to real-world situations. Our curriculum is rooted ininclusive practices, incorporating Universal Design for Learning (UDL) [7] and CulturallySustaining Pedagogy (CSP) [8] principles. We also include experiential learning and inquiry-based learning pedagogies. Our primary goal is to provide a curriculum that resonates with allstudents, fostering self-efficacy, building expectations for positive outcomes, triggering andsupporting interest, and guiding career choices in hardware engineering.Our project employs a design-based research (DBR) [9] methodology to improve the
encompass the ideas of “SEE” and “MAKE”. These focal points have alsobeen described as “visualization” and “fabrication” in the Industrial Design Department at IowaState, and the two parallel the ideas of “digital prototyping” and “real prototyping,” which is alsopart of iterative thinking in design and STEM. Table 1- Inventory of FLEx equipmentThe SEE module primarily involves two sets of virtual reality headsets. One presents a sereneItalian Tuscany Villa Oculus Rift demo, where orientation and navigation in a virtual world isself-directed and non-threatening. A keyboard and mouse augment the headset for movementand orientation around the space in a manner very similar to computer games such as Minecraftwith
various different disciplines. From the 43responses received, the top five student expectations from an internship experience (with thefrequency in parantheses) are as follows: 1. Get real world experience (30) 2. Acquire knowledge about the companyv(16) 3. See applications of what they learn in class (9) 4. Build new relationships (4) 5. Gain hands on training (3)It is very interesting to see that pay or location or nature of the job do not make the list. It is allabout students getting a taste for what they going to face in the real world when they graduatefrom college2. The survey results here show that the students do no nevessarily decide on anintership based on the wages; However, the students expect at least theur
in theproject activity to support the question. The score of 5 indicates that the student found astrong correlation between the project activity and the question being asked. The score of3 reveals that the student observed some but not overwhelming evidence of the questionin the project activity.1. Did the ECE project stimulate your interest in the following categories? (a) Design and validation of engineering systems (b) Application of STEM concepts to solve real-world problems (c) Understand the different components used in the project activity (d) Consider electrical engineering as a career option2. Rate your contribution to the project activity in the following categories. (a) Assembly and set-up of the project (b
a. Analyzing file system artifacts • Processes and Memory6. Malware Analysis (4330: Malware Hacking) • Introduction to malware analysis • Identifying malware features and artifacts7. AI/ML Course (CYBI-4336: Cybersecurity Engineering with AI/ML) • Feature Engineering • AI/ML Infrastructure & Computing Tools • Real-world applications of AI/ML in Cybersecurity • Case studies and examples8. Capstone Project (CYBI-4340: Capstone Project) • Capstone project focused on AI/ML and cybersecurityThe holistic framework ensures comprehensive learning, combining foundational skills withadvanced topics to effectively support AI/ML applications in cybersecurity. These modulesprovide a structured approach to
knowledge frompast courses at the United States Air Force Academy to design, build, test, and deliver aproject that the instructor assigns to them, which benefits a real-world user. Along theway, the cadets also meet certain milestones, give briefings and demonstrations, andprepare technical reports. The course is geared so that technical and non -technical cadetscan team up to perform meaningful work in an engineering design format. In the midstof a unique and often challenging group dynamics environment, the cadets are challengedto find their own solution to an ill-defined problem, and then actually perform hands onfabrication and testing of their project. Examples of past projects and the performance ofcadets in building those projects will be
machine learning, privacy, user-centered design, real-world data collection, and user study design. Dr. Wiese’s research excellence has been recognized by awards including: recognition as a Yahoo Fellow in 2014, the Stu Card Fellowship in 2012, a Carnegie Mellon Usable Privacy and Security IGERT trainee, and the Yahoo! Key Scientific Challenges Award in 2011. He publishes work in top Computer Science and HCI venues including CHI, CSCW, and UbiComp. He received his Ph.D. in Human-Computer Interaction from Carnegie Mellon University in 2015.Dr. WEI XING, UNIVERSITY OF UTHAKatrina Myquyen Le, University of UtahMr. Thomas Becnel, University of Utah American c
projects like this one, the coordinator needs to have a team of students thatnot only have the engineering discipline background but also have the initiative to meet the manychallenges that will inevitably occur.The automotive industry sponsor felt it was a large success, both for the students and for thecompany. “The students were able to practice their studies in a real world application. When thestudents are challenged to explore new ‘outside of the box’ ideas they help us keep a freshperspective and an open mind. It’s great for the industry and great for the students as well.They used CFD software to design and countermeasure their virtual model. They were then ableto collaborate with our company to turn the virtual model into a working wind
introduced to engineeringexperiments and calculations through a series of modules in measurements. The primary goal ofthis course is to expose freshmen engineering students to multidisciplinary projects that teachengineering principles using the theme of engineering measurements in 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 engineers workin multidisciplinary teams on a variety of complex problems. The fundamental principles ofmeasurement and their application are crucial to the solution of these
Page 7.191.5interest to other institutions which might be considering trying to attract overseas students. Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition Copyright Ó 2002, American Societ y for Engineering EducationPositive points· Real motivation of all students to study telecommunications technology/the IT world.· An excellent group dynamic (none of the students registered on the “Induction Course” wished to leave France at the end of the course!).· Inquisitiveness about France, the French people, Europe/the European Union, the arrival of the Euro currency on 1 January 2002.· Dedicated college professors at ENST Bretagne, who were willing and able
support student success in theproject. In addition, the diverse background of the mentors can provide students with diverseinsights into their projects using thorough examples rooted from real-world applications. Fig. 3 Evaluation of the effectiveness of multidisciplinary team on the learning process Fig. 4 Evaluation of the effectiveness of diverse background of mentors on the learning process Fig. 5 Values of the program, ranked by studentsConclusionThe authors have proposed a PBL curriculum that involves collaborating with multiple industrypartners, using real-life open-ended problems, and working in a multidisciplinary team setting totrain students with a broad range of
aircraftgeometry. The [program name redacted] provided the manufacturing capability of variousplatform designs to assist the class group during the semester. This paper presents the details ofthe implementation and the results of the data collected from this study.2. MethodsIn this section, we will (1) define the theoretical framework of inductive learning and teaching,(2) introduce the class project, (3) M:2:I at Iowa State University, and (4) the outcomemeasurement through survey.Inductive learning and teaching methodInductive learning and teaching methods have shown to be an efficient tool in motivatingstudents by utilizing adequate challenges in class (e.g., cases in the real-world applications,complex problems, experimental data, etc.), see Ref. [7
that elect to stay inengineering1. Therefore, the Dwight Look College of Engineering (COE) at Texas A&MUniversity has been exploring ways in which lower division courses could increase themotivation of students without sacrificing academic rigor necessary for success in upper divisioncourses and after graduation.Several strategies have been developed to help students develop a better understanding for thepractice of engineering and the breadth of issues that must be considered in actual engineeringproblems. One strategy is to offer application problems: problems that require students to applyconcepts of science, engineering and/or mathematics that are currently under study to a problemthat has real-world elements. This strategy was used
new tool that has a good potential to optimize theparameters of the intelligent systems. Classical AI was incompetent to serve the increasingdemand of search, optimization and machine learning in information systems with largebiological and commercial databases and factory automations for steel, aerospace, power, andpharmaceutical industries2. The failure of the traditional AI opened up new avenues for thenon-conventional models in various engineering applications. These new computational toolsgave rise to a new discipline called computational intelligence1. CI could be defined as Nature-inspired method (s) + real-world (training) data = Computational intelligence5.The IEEE Neural Network Society changed its name in 2004 to IEEE
teaching tools help you learn most? Please rank the following from greatest (5) to least (1), using each number only once. a. Classroom Demonstrations _____ b. Homework & Analytical Proofs _____ c. Field trips & guest speakers _____ d. Class Projects _____ e. Group Work _____ 3. What are you most interested in? Please rank the following from greatest (5) to least (1), using each number only once. a. Industry or “Real world” applications _____ b. Inter-collegiate competitions
upcomingmathematical development. Module 4, the analytical heart of the course, presents free andforced responses for SDOF and MDOF systems. Equations are more easily understood becausethey correlate to observations made during Module 3. The course ends with Module 5, practicalapplications.1. IntroductionMy colleague and I sat on a park bench during Summer 2000 and discussed my recent teachingof our undergraduate vibrations class in Spring 2000. From her experience and mine, weobserved overall student understanding of vibrations was disappointing. What were the keyissues? Lack of interest in the subject Modeling concepts, real systems transformed into SDOF/MDOF models Application of dynamic principles to obtain equations of motion