. He currently consults on learning and talent development programs within the architecture, engineering, and construction industry. Mr. Leidig has focused on community-engaged engineering and design for over fifteen years.Andrew Pierce (Laboratory Manager) © American Society for Engineering Education, 2022 Powered by www.slayte.com Assessing Multidisciplinary, Long-Term Design ExperiencesIntroductionCommunity-engaged design experiences offer many benefits to engineering, the designcommunity, and higher education in general. These experiences offer opportunities for studentsto engage with real users and to see how designs can positively impact people
various database views to concepts functions practice security for various domains ● Conduct various administrative tasksAssociation of database ● Practice various database model Decide on the most appropriateconcepts to real-world ● Study database concepts database model given a set of scenarios requirements Figure 1: Sample Introductory Class Session Activity Flow The advanced course was designed for senior students at the end of their undergraduatecoursework who were comfortable with database fundamentals and (in most cases) had
the rate of heat transfer(and the factors which influenced it). In addition, they discussed the ethical and professionalresponsibilities which impact the design of their balloon, from an environmental, global,economic, and societal context. Teams provided a real-world context for the use of their hot airballoon design (i.e., deliver medicine to a remote location in a third- world county; spread seedsafter an area has been destroyed by a forest fire; deliver painting supplies in an efficient, andenvironmentally sound approach, etc.). This allowed teams to be able to address the impact oftheir design in global, economic, environmental, and social contexts.ThermodynamicsIn the Thermodynamics course, a homework assignment is posed, and students
, 2016, 2014, 2011 and also 2010 National Aeronautics and Space Administration (NASA) Summer Faculty Fel- low at the NASA Glenn Research Center in Cleveland, Ohio. For over 36 years, he has supported the professional development of over 300 graduate Manufacturing Engineers and over 600 CSU STEM and non-STEM student graduates who are now serving as Plant Managers, Senior Executives, Supervisors, Quality Control Engineers, etc., these graduates are all supporting Manufacturing and allied industries and businesses in the U. S and across the World. He was an Air Force Research Laboratory (AFRL) Summer 2013 Faculty Fellow at the Eglin Air Force Base in Eglin, Florida and a Summer 2018 AFIT/WPAFB Research Faculty. He
; Using basic drawing and modifying AutoCAD 11.2 9.5 commands; Setting up drawing layouts and establishing scale. Understanding common statistical analyses and Probability terminology; Using t-tests, standard normal and 10.8 8.0 curves, box and whisker plots and exceedance Statistics probability curves to interpret real-world data. Visiting project site to assess existing conditions
and Rating Online Resources for a Numerical Methods Course in EngineeringSince 2002, with major funding from National Science Foundation, a wide variety ofweb-based resources have been developed for, and implemented in, an engineeringcourse in Numerical Methods for Engineers at University of South Florida. Theseresources include textbooks, worksheets in different computational packages such asMaple1, MathCAD2, MATHEMATICA3, or MATLAB4, PowerPoint presentations,multiple choice tests, anecdotal stories, audiovisual lectures, real-world applications inengineering majors, blogs, experiments, etc. The resources that have been developed arebroad in scope and method and as of spring 2008 address the main topics typicallyaddressed in
possible. As this is an industrial applicationmost of the engineers working in the facility in which it is used have only concerned themselves with ladder logicprogramming. However, ladder-logic, while providing a rich visual interface to an unexperienced programmer leavesa lot to be desired when it comes to more advanced programming applications. For this reason, the system wasdeveloped as a hybrid system, with an embedded controller handling the processing of the gage data and a PLCcontrolling the industrial automation. The idea is to allow ladder logic programmers to have an easy jump into C++programming.The educational purposes of this tool are not for classroom-style education but instead a very hands-on real worldapplication example. The
. Space for optional comments was also available andincluded feedback, such as “[The SI] is awesome, he made us think and explain things well. Hegave us real world applications to assist in our understanding;” “[The SI is] very organized andhelpful. You can tell he cares a lot about the students' understanding of the material;” “Withoutthe SI Leader I felt like this class would have been ten times harder;” and “I am not about tomake it to class most of the time, however, I have an A thanks to my SI Leader...” While the lastof these comments does not reflect the intention of the program, this general opinion was notedon several of the evaluations
teams, which are made up of young adults whoare also full time students. These student teams are student driven and apply classroomknowledge to real world work under limited faculty supervision, specifically when hands-onwork is being executed. As student focused organizations, these teams often rely on theiruniversity’s or college’s guidelines to develop a set of standard operating procedures. Thoughthese set a base for the team, the guidelines are no substitute for training that is specific to thesafety risks associated with the work the team is doing. It is also difficult to convince studentteam leaders to invest time into training team members who may not participate on an ongoingbasis.By developing a hierarchical level based safety
collaboratively. Alternatively, consider inviting guest speakers from across campus to present on relevant topics.) 3. Each module will be linked to a semester theme listed below. 4. Course learning outcomes must be both contextual (e.g., LCA) and developmental (e.g., writing skills). 5. Instructors should explore ways to have real-world examples (i.e., case studies) integrated within their modules.Semester Themes*Year 1 • Water (chemistry, treatment, quality) • Sustainability (LCA, industrial ecology, systems modeling)Year 2 • Energy (Urban ecology, LCA, biofuels) • Resources and Residuals (Solid wastes, plastics, biosolids utilization)*Some modules may be specific to one theme per year or demonstrate an integration of both
, Texas A&M University Ramesh Talreja is a professor of Aerospace Engineering at Texas A&M University. He has taught for 30 years in various disciplines of materials engineering, mechanical engineering and aerospace engineering in Europe and in United States and has lectured extensively around the world. Dr. Talreja has a Bachelor’s degree in Civil Engineering from University of Bombay, a MS degree in Structural Engineering from Northeastern University, and PhD and DTechSci degrees from the Technical University of Denmark. His technical expertise lies in composite materials and he is currently engaged in educational and research activities in sustainability
the same structure using classical and computer-based applications. Theclassical methods set the stage for walking through the Direct Stiffness Method inherentin most commercial analysis packages through the use of Excel spreadsheet software toperform matrix manipulations and MathCAD computational software to performmathematical computations required as part of the Direct Stiffness Method. The resultsfrom the classical methods, manual direct stiffness analysis and commercial applicationsare compared to more fully provide connectivity between the techniques and inherentassumptions.This paper describes the courses and the use of the classical methods to provide insightinto the computer-based black box analysis packages. It also provides an
companies.Florida Tech’s engineering management curriculum offers innovative courses in technicalmarketing, high tech product strategy, fast cycle time product development & launch, andengineering entrepreneurship. In these case study courses, students develop real world marketingand business plans for commercializing innovative new products and technologies. Some of theinnovative product development and technology commercialization ideas have won accolades atregional business idea pitching competitions.Concurrently, Florida Tech’s intensive undergraduate engineering programs (in ECE, CS, ME,CE, ChE, AE and Ocean Engineering) have resulted in a number of outstanding crossfunctionalSenior Design Projects. The Florida Tech Senior Design program has
physical intuition since the students had not had a course in statics. Forexample, one class exercise included using visual inspection to determine tension and compressionmembers within statically determinate trusses. Several real-world examples, ranging from thosefound in nature to ancient structures to modern buildings and bridges, were presented for eachstructural form.Six homework assignments were given during the seminar. Each assignment consisted of readinga case study from the book Why Buildings Fall Down – How Structures Fail by Salvadori andLevy.3 To assure that the reading was completed, students were required to submit a 500-wordbrief that described specific case details (i.e. when, where, what occurred, why, and who wasresponsible) and
the degree structure introduced in 1996 were:• A common first-year program with its solid foundation of engineering science fundamentals and emphasis on context and real life engineering applications.• Requirement that courses include project based learning wherever possible, in each year of the degree• Design courses in each discipline at each level of the degree• A common core of courses that prepare graduates for professional life, such as Engineering Management, and Professional and Community Issues• The common core included a course on Environmental Principles which emphasized sustainability and social responsibility to all engineering students in Part I, and a course entitled Human Social and Cultural
develop studentcomprehension, but also to a) increase the learner’s investment, motivation, and performance, b)empower the learner to make real world connections, c) promote independent, critical, andcreative thinking, and d) facilitate collaboration. One model for active learning takes the form oftutorials, or more accurately described as active learning modules (ALMs), aimed at improvingstudent learning in historically difficult subject areas in engineering through the application offinite element analysis. The tutorial set developed here includes learning modules for varioussubject areas in Mechanical, Electrical, and Biomedical Engineering courses. The purpose of thisstudy is to determine if ALMs of this type are effective active learning
% 20% 10% 0% 1 2 3 4 5 1 – None and 5 - MostFigure 12: Comparison of student entrepreneurial experiences in senior design teams by schoolsSummary and RecommendationsOver the years, the senior project experience has provided a value to the students’professionalism as engineers. This experience is obtained through “hands-on” interactivelearning within a “real-world” team environment. Via student survey, this paper explored thestudent perceptions of the entrepreneurial mindset within the context of the senior design project
understanding of students’problem solving procedures and being able to identify student misconceptions and differentSTEM (Science, Technology, Engineering, and Mathematics) constructs.I. IntroductionHow to best prepare engineers to be successful from the start in the workforce is an importantquestion. One important way to prepare students to be engineers is with real world engineeringproblems. This is vital because there is a need for students to become more interested in STEM(Science, Technology, Engineering, and Mathematics) fields in part because there has been aconstant amount of students finishing degrees in STEM fields in the last fifteen years but thenumber of jobs in STEM fields has grown.1 Keeping students interested in STEM throughout K-16 is
participation. Novice teachersoften ignore or fail to recognize student misconceptions. Most of their actions are rationalizedand they view this time in their development as means to gain real world experience.The second phase, advanced beginner, is closely related to novice. It typically occurs during the2nd to 3rd years. In this phase verbal, episodic, and case knowledge are added to the knowledgegained during the novice stage.3 As a result, the use of reflection is important: teachers in thisphase frequently reflect on their experiences and how those experiences contribute to theirknowledge; based on these reflections, they then begin to make alterations to their teachingpractices. Moreover, their experiences, particularly in powerful or memorable
engineering courses incorporating CUREs highlights facultyrecognition of the benefits of integrating authentic research experiences into their teaching.However, CUREs may not be suitable for every course, particularly when research topics do notalign well with course content or when balancing research activities with foundational conceptlearning proves challenging. When effectively integrated, CUREs can align with faculty researchinterests, potentially advancing their projects while providing valuable real-world context for 8students [20]. As shown in Figure 8, faculty found CUREs beneficial for their research andexpressed willingness to implement them
engineering judgements in formulating conclusions about real-world problems.The last objective listed above is particularly important for a fluid mechanics laboratory course;being able to observe fluid mechanics at work (through sight and sound) can help students connectconcepts they learn in the classroom to practical applications [3]. From an accreditation perspective,the objectives listed above are also emphasized in ABET Student Outcome #6: “an ability to developand conduct appropriate experimentation, analyze and interpret data, and use engineering judgementto draw conclusions.” [4] The hands-on experience gained through a fluid mechanics laboratorysupports student learning and is an important component of the mechanical engineering
Paper ID #41408How to Develop a Culture of Coding for the Future: A Case Study of themegaGEMS Coding AcademyGeorge Zaccheus Sikazwe, University of the Incarnate Word George Z. Sikazwe is an undergraduate electrical engineering student at the University of the Incarnate Word in San Antonio, Texas. Mr. Sikazwe is passionate about applying engineered solutions to real-world problems. As a student research assistant in the Autonomous Vehicle Systems Research Laboratories his focus is in computational intelligence, specifically applications of deep learning onto hardware. For the GEMS (Girls in Engineering, Math, and Science
from math and physics into relevant real-world applications of the concepts.This difficulty in the transfer of foundational knowledge has long been a significant challenge tostatics students, but it appears that in recent years it has begun to evolve into a barrier todownstream success for many students, such that investigators are seeking ways to better fostersuch knowledge transfer [2].It has been shown that students’ pre-statics math and physics preparedness impact knowledgeretention and transfer in early-career college-level engineering courses. Studies have shown thatmath skills [3], [4] combined with algorithmic and logical skills [5] are essential, but not entirelysufficient to be successful in engineering courses, where higher-level
the different phases in the iterative process of engineering design; ● Create innovative technological solutions for underserved communities; ● Gain an understanding of their role in the engineering community; ● Learn to consider the consequences of design decisions at both local and global levels; ● Learn how engineering underpins everyday life; ● Learn how to place people at the heart of their designs; and ● Develop skills in engineering, communication, planning and project management, effective distribution of work and collaboration.In Fall of 2021, the project was focused on a real-world scenario in the Cape York Peninsula inAustralia. Students were provided with a Design Brief, which included extensive informationabout
understanding traditionallyclassical programming challenges will help them adapt to modern twenty-first century challenges,just like Stevie Wonder did when he took music theory classes. The lesson is that even the mostgifted musicians and programmers can improve their composing proficiency by gaining a deeperunderstanding of the capabilities and limitations of their instruments.The second innovation in Stevie Wonder’s music that lends itself well to a computer sciencemetaphorical framework is his adoption of synthesizers into his music composition. His feelings ofcreative confinement were not limited to Motown’s compositional control or ideologicalrestrictions. He felt there were sounds in his mind that he couldn’t get out into the real world
practices.Notably, this is an area where more reported attaining the skill in prior years than reportedseeking it. It is likely that small program changes could be incorporated, in an onlineenvironment, to stress time management and time responsibility that would provide additionalparticipant benefit.In three other areas, real-world project experience, particular technical topic experience anduniversity community recognition, one less individual reported benefit attainment than reportedseeking it. These areas would seem to more likely relate to the individual project the participantwas working on, as opposed to program structure, so there are no obvious online programchanges to be implemented from this data.The improved presentation skills area is one
Applications in Engineering Education, 17(1), pp. 108-18, March 2009.38. T. De Jong, M. C. Linn, and Z. C. Zacharia, “Physical and virtual laboratories in science and engineering education,” Science, 19;340(6130), pp. 305-8, April 2013.39. Beverly A. Burnell, “The “Real World” Aspirations of Work-Bound Students,” Journal of Research in Rural Education, 18(2), pp. 104-113, Fall 2003.40. P. J. Kannapel and A. J. DeYoung, “The rural school problem in 1999: A review and critique of the literature,” Journal of Research in Rural Education, Vol. 15,pp. 67-79, 1999.41. Miguel De Oliver, “Geography, Race, and Class: A Case Study of the Role of Geography at an Urban Public University,” American Journal of Education, Vol. 106, No. 2, pp. 273
expire, students phase in and out, but once tenured, faculty are entrenched. Because facultyplay such a primary role in the life of the university, it is essential to better understand theirattitudes and actions towards diversity.12A review of the literature indicates that most faculty support the notion that a diverse studentbody is good for student learning even though many faculty believe that students of color are notas qualified as applicants from the majority group.13-15 While many institutions, colleges, anddepartments have developed diversity plans, statements and initiatives, a disconnection oftenexists between institutional policy and faculty commitment to diversity.16 Most troubling is thatengineering faculty, who are predominately
Session 1170 Teaching: NCTM math embraces the longstanding doctrine of progressive education. Student- initiated learning is favored over teacher-led instruction. Students spend a lot of time playing math games in small groups. The process of problem-solving is valued over right answers because right answers don't have an objective existence; they are "constructed" by learners. But what happened to reformers' insistence on real-world math? From engineers to airline pilots, people use mathematics to model the world in which they actually work, not to construct their own, more accommodating versions of reality. State and district policies that have followed the NCTM standards tend to present reform as religion. And
mediated by a “more knowledgeable other”61. The focus inthis case is less on direct instruction and more on facilitation. The third implication is theimportance of scaffolding, which comes from the Vygotsky’s theory known as the Zone ofProximal Development, which is “the distance between the actual development level asdetermined by independent problem solving and the level of potential development as determinedthrough problem solving with a more knowledgeable other”60, 61. The final implication is thatlearning activities are grounded in authentic, real-world contexts. Thus, these labs will bedesigned to provide students with the opportunity to work collaboratively on real-world cases,with the instructor serving as a facilitator who is scaffolding