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
Education, 2017 Exploring the use of aviation databases in aviation coursesAbstractUsing real world data when learning new concepts is attractive to many students in engineeringtechnology programs. Even more attractive is using real world data when learning how toaddress challenges. Statistics courses are usually required for aeronautical engineeringtechnology and other aviation technology students to prepare them with data analysis skills forsolving practical problems. Students who major in aviation technology programs are encouragedto practice the learned statistical knowledge with real life aviation data. In aviation publicdatabases such as those available from the Federal Aviation Administration (FAA) and theInternational Civil
capability is driving increased interest in thetopic. A common feature of any engineering program is to reinforce theory learned in aclassroom environment with hands-on applications in the form of laboratory exercises. Forrotorcraft courses, simulation, wind tunnel experiments, and whirl-stands all have their role insupplementing classroom instruction. The purpose of this paper is to demonstrate the applicationof a laboratory conducted in an actual helicopter as one way to reinforce classroom instruction,provide practical context for the study of helicopters, and to inspire students.Background The Mechanical Engineering Program at West Point has offered courses in AeronauticalEngineering in some form or another since the 1920s. The leadership
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
cell is a power conversion device that converts hydrogen directly to electricity athigh efficiency. The operating principle is to combine hydrogen and oxygen in anelectrochemical reaction, which creates electricity, water, and waste heat.[6] The wholesystem produces zero emissions and therefore is considered a renewable energysolution.Many researchers have studied systems that integrate wind and photovoltaic powerwith fuel cells for a variety of applications and configurations. Most research hadmodel simulations for power generation greater than 100W. In a study by Wang andNehir, they simulated the sizing and power management of an 18 kW fuel cell hybridsystem to provide power to five American homes in the Pacific Northwest.[7] Hosseiniet al
, it is my long- term goal to continue doing work and research within this field. c American Society for Engineering Education, 2017 How Solar Boating Teaches the Lessons of Energy Conversion and ConservationAbstractStudents gain a tremendous amount of theoretical knowledge during their time in the classroom,but a practical application of that knowledge is required in order for the student to turn what islearned into a skill. This is especially true for students majoring in applied science, and evenmore so for those with a concentration in engineering. Students who participate in hands-onprojects that allow them to apply what has been learned in the classroom in a real
, and optimization. The main purpose of this workis introduce a wider audience of engineering students to aquaculture as a renewable energytechnology, and to demonstrate that such projects are feasible and instructive in mechanical andelectrical engineering programs. We provide some descriptive details to show that these andsimilar projects are well within the means and expertise of most science, engineering andtechnology programs, and represent a useful exercise as an initial engineering scale-up andfeasibility study of basic biological research for commercial applications. With the advent of genetic engineering, microbes can be readily harnessed for industrialapplications. Moreover, new sensors and image capture and processing can
Paper ID #17791An Electrical Engineering Graduate Course Sequence in Integrated CircuitsTargeted to Real-World Problems in Industry, Defense, and SecurityDr. Mary Yvonne Lanzerotti, Air Force Institute of Technology Dr. Lanzerotti is an Assistant Professor of Physics at Augsburg College (Minneapolis, MN), an Adjunct Associate Professor of Computer Engineering in the Department of Electrical and Computer Engineering at the Air Force Institute of Technology, Wright-Patterson Air Force Base, Ohio, and an Affiliate Re- searcher at the University of Minnesota (Minneapolis, MN). She received her A.B. summa cum laude from Harvard
system control. PI controllers are fairly common. A derivative action issensitive to measurement noise, whereas the absence of an integral term mayprevent the system from reaching its target value.In this paper, the result of the PID controllers in the student projects such as roboticcar and robotic arm, will be analyzed. The results are based on the application ofproportional, integral, and derivative control. In addition, a MATLAB and C++programs will be used to calculate PID values.This paper suggests one possible method to implement the concepts that studentshave learned in the other courses, and use them in the real world applications.Robotic car and Robotic arm are two examples of the projects implemented in oneof the courses in the
as high voltage power supply unit, pulse shaping circuit, andpulse counting circuit which is beyond the scope of Mechanical Engineering Technology. TheEE student noted that he learned the fundamental physics of radiation detection principles, andthe electronics manufacturing process during the fabrication of the device.In response to question 2, the Physics student emphasized that his improved knowledge inElectrical and Mechanical systems provided meaningful insight about the physical theories andmathematical reasoning which enabled him to understand its real world applications. The METstudent was able to integrate the new Electrical Engineering knowledge with his mechanicaldesign and manufacturing knowledge. Integration and blending of this
mathematical problems are now includingsymbolic capabilities, transforming them into symbolic-assisted numeric computational tools. Inthe area of power systems, pioneer work was performed in the late 80’s at the University ofWisconsin-Madison in the application and use of symbolic computing or symbolic-assistednumeric computational tools in power engineering education 3-7. There are four CAS featureswith potential for changing and improving engineering education1-9:1. Active student learning involvement;2. Experimentation and simulation as a means of understanding concepts;3. Solution visualization; and4. Solving real-world problems.These themes have continued as the principle set of arguments for CAS using, in the teachingengineering disciplines
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
was also logged into the virtual world and couldcommunicate directly with the students in the virtual world as the robot toured the physical lab.Live video from the robot was displayed to the students in the virtual world while the robotnavigated in the real space. This activity also allowed students from a senior robotics course tointeract directly with sophomore students in the virtual world. Overall, the online students in thevirtual world succeeded in remotely visiting a robotics class and experience a tour of afabrication facility via the telepresence robot. The operation of the telepresence robot andinteraction with the robotics class was very successful, opening up many future opportunities.The key to this demonstration is that
, robotics, and superchargers. Most importantly, students made connections betweenengineering principles and real-world applications: “My group had a real-world concept where statics are typically considered, but dynamics was needed as well. We were able to take into account the moving components in order to best select an appropriate life assist that is cost effective and could carry the load capacity. This was important to save the company money in the futures, as well as improve production.” “Our team had not covered tension in pulley systems in that manner. We had to understand that the tension on one side did not equal the tension on the other and work through the system.”Group dynamicsStudents
Sciences. 4: 155-169.5. The Wicked Problems in Sustainability Initiative. Engineers for a Sustainable World. Accessed 02/03/17.https://www.eswusa.org/drupal/wpsi6. Hess, J. L., Brownell, S. A., & Dale, A. T. (2014). The Wicked Problems in Sustainable Engineering (WPSE)Initiative: Pilot Results of a Cross-Institutional Project-Based Course Offering. Paper presented at the 2014American Society for Engineering Education Conference & Exposition, Indianapolis, IN.7. Hess, J. L, Brownell, S. A., House, R. A., Dale, A. T. (2015). Development and Application of the SustainabilitySkills and Dispositions Scale to the Wicked Problems in Sustainability Initiative. Paper presented at the 2015American Society for Engineering Education Conference &
skills needed for post-secondary coursework naturally reflect the demands of today’s information-based economy. So, those who master 21st-century skills like critical thinking, effective communicationand information literacy will be more likely to make a successful transition into universities, technicalschools and the workforce. Studies have found that up to 40 percent of students who enter U.S. collegesand technical schools need remedial coursework, which adds time and expense to their college education.Not surprisingly, these students are less likely to earn a degree or certificate than their better-preparedpeers, putting them at a significant disadvantage in the workforce.Solution: Solving real-world challengesTo build skills for success, we
to solve a real world problem in the field of corrosion. Thematerials were artificially degraded so that the effects of exposure time and service environmentimpacted the corrosion properties of the sample. The PBL project was structured to assistundergraduate students in learning how materials degrade with time, appreciating howenvironment can influence degradation, as well as identifying alternative career paths for thepurpose of employment or pursuit of graduate programs such as in the field of corrosion orfailure analysis. The project setup required the creation of a scenario in which the student wascalled upon by the court system to provide expert testimony in support of a mock case related tothe degradation and in service failure of a
create an effective educational device for showcasing information to a more generalaudience. An initial possibility that was considered in this study is the use of augmented reality (AR), adigital means of providing extra information for a live video feed which could be used forvarious applications in engineering, education, commerce, and even medicine [2]. For theColosseum simulation specifically, augmented reality may present several advantages overvirtual reality, such as the involvement of real-world settings and objects (like the Colosseumitself), as well as a wider choice of systems because applications for augmented reality can beimplemented on a larger number of devices and less specialized systems. Examples ofaugmented reality include
of the internet. Compared to traditional programs installed on computer hard drives, thesenew types of applications, or “APPs,” have smaller sizes, save memory resources, and offermulti-platform availability. In addition, portable smartphones and tablets are replacing traditionaldesktop computers as the major medium for information dissemination thanks to thedevelopment of CPU and GPU on mobile devices; more education might be more depending onpopular mobile operation systems such as Android and iOS in the future teaching practice. Therefore, one of the potential improvements of the VR implementation may includeexpansion to multiple platforms and operation systems, optimized graphics engines for fast real-time rendering, more versatile
” (see Appendix A)and a laboratory component titled “Engineering Applications” (see Appendix B). The twocomponents were taught back-to-back on the same day, and the class met twice a week. Theadvantage of the back-to-back format was that students were able to apply immediately conceptscovered in lecture-recitation component. According to the students, they thought the formatgave them the opportunity to make the concepts real and less abstract, and secondly, it helpedthem to understand and retain better the topics covered in class. In the following sections, theauthors will describe the course content in module 1, 2, and 3. The contents of these modulescan be found in Appendix A and Appendix B. Students was assessed by exams (an exam wasgiven at
operations, wasting time and money trainingnew graduates.Colorado State University, offers little training on lean manufacturing in any of the existingcurriculum. None of the departments in the College of Engineering offer lean manufacturingclasses prior to graduation. There is not an Industrial or Manufacturing program at ColoradoState University, thus the Mechanical Engineering program was the best candidate at CSU toeducate students on lean manufacturing and perform this research study. The capstone class ofthe Mechanical Engineering program at CSU is MECH 486, a class focused on a yearlongendeavor that incorporates the full lifecycle of an engineering design project. Students gain real-world engineering design experience by working in teams that
with Teamwork outcome. Figure 34summarizes the assessment results for all the learning outcomes. As shown, all the outcomeshave been assessed above 80%, which is very encouraging.Further Observations on Student Learning1- The project exposed two students to design process of a real world electrochemical marking system for strain measurement application with realistic design requirements and design constraints.2- The students developed a design approach to design the electrochemical etching system.3- The students learned how to apply the fundamentals of mechanics of materials to measure and calculate plastic true strain using circle grid analysis.4- The students gained hands-on experience working with Multisim as a modern simulation
American Society for Engineering Education, 2017 Project-Based Learning Using the Robotic Operating System (ROS) for Undergraduate Research Applications Project-based learning (PBL) has been shown to be one of the more effective methodsteachers use in engineering and computer science education. PBL increases the student’smotivation in various topic areas while improving student self-learning abilities. Typically, PBLhas been employed most effectively with junior- and senior-level bachelor of science (B.S.)engineering and computer science students. Some of the more effective PBL techniquesemployed by colleges and universities include robotics, unmanned air vehicles (drones), andcomputer science-based technologies for
Paper ID #18868Development of a Design Canvas with Application to First-Year and CapstoneDesign CoursesDr. William A. Kline, Rose-Hulman Institute of Technology Bill Kline is Associate Dean of Innovation and Professor of Engineering Management at Rose-Hulman. He joined Rose-Hulman in 2001 and his teaching and professional interests include systems engineering, design, quality, innovation, and entrepreneurship. Prior to joining Rose-Hulman, his industry experience includes roles as cofounder and Chief Operating Officer at Montronix and development manager at Kennametal. Bill is a Phi Beta Kappa graduate of Illinois
report writing on a weekly basis and of technical Project Report writing andproject oral presentation based upon the Final Project. These classroom practices and laboratoryenvironment provides a challenging and invigorating environment that prepares them for alifelong learning process and career path [13].XII. ConclusionThis paper provides the reader with a logical framework for an introductory undergraduatemicrocontroller’s course with an emphasis on open-loop and close-loop control systems. Thecourse guides through details of necessary C programming skills following strict observance toStructured Coding methodology. The course also demonstrates how microcontrollers interface tothe real world using various types of transducers and actuators
the classroom, and creates a working prototype thatcreates value for these customers. This real customer interaction fosters empathetic design whileproviding a more meaningful classroom experience as students are able to see directly theimpact their designs have in creating real value – value as it is defined, not by the student orinstructor, but by their customer. In the junior year, engineering students are typically engaged in much of theirdiscipline-specific engineering coursework. Thus, this thread of entrepreneurially mindedlearning is extended by means of discipline-specific applications through projects deployed inmultiple junior-level courses. Finally, the senior capstone experience brings together students’engineering
Development: A Prototype Mobile Application for the Rapid Development, Deployment and Sharing of Laboratory Experiments.AbstractLaboratory activities are ubiquitous in schools and universities and allow students toinvestigate the relationship between real-world phenomena and theoretical models in acontrolled setting. As well as traditional ‘hands-on’ laboratories, both simulations andincreasingly remote laboratories are widely used and their educational benefits have beensupported by the research. Despite the prevalence of laboratories across educationalprograms, both the number of new experiments being designed and the sharing of the designof these new experiments has been more limited than might be considered desirable.However
paired withgoal setting, observations and reflections to build understanding, testing, application of ideas,and presentation. This structure suggests an experiential learning framework where students takean active role in applying their knowledge to authentic, real-world learning experiences.Experiential learning is “the process whereby knowledge is created through the transformation ofexperience. Knowledge results from the combination of grasping and transforming experience”(Kolb, 1984, p.41). This theory also has strong foundations in cognitive learning (Piaget, 1964)and pragmatism (Dewey, 1933). Kolb’s (1984) learning cycle explains learning as a cycle ofconcrete experiences, reflective observations, abstract conceptualization (analysis
is Engineering is systematically engaging in the practice ofengineering? What makes design to achieve solutions for specific problems. Engineersengineering different from apply their understanding of the natural world (scientificother disciplines?) knowledge) to design solutions for real world problems. This endeavor results in new technologies. In the K-12 context, “science” is generally taken to mean the traditional natural sciences: physics, chemistry, biology, and (more recently) earth, space, and environmental sciences… We use