Engineering at West Point was established in 1989 as an outgrowth of theformer Department of Engineering (now the Department of Civil and Mechanical Engineering.)Brigadier General (Retired) James L. Kays was the first head of the newly formed department and had theresponsibility for not only developing the academic programs under the department but also most of thecourses. The department was designed with four overarching objectives that have endured through threedepartment heads [1]: focus on cadet education; foster faculty growth and development; remain linked tothe industry we serve - the Army; and integrate state-of-the-art computer and information technology intothe education process.The Department established the Systems Engineering major after
modeling and toolpath programming. It not only covers essential softwarecommands but also integrates best practices in machining into CNC programing, providingstudents with a comprehensive understanding of the CNC field. The course is designed to includehands-on experience, ensuring that students gain practical skills.The paper discusses how the course materials bridge the gap between academic learning and theskills required by the industry, aligning the curriculum with typical industry settings. Variousassessment methods, such as self-assessments and project-based evaluations, are outlined forevaluating student learning. Due to limited class time, executing each student's CNC program ona CNC machine may not be feasible; therefore, the paper also
worldamong young people that are bent on trying to improve the lives of humans on the planet in asustainable way.”28Though Munoz describes humanitarian engineering as a discipline and established it as a fullprogram at the School of Mines, this paper showcases the integration of humanitarianengineering in an existing engineering course/curriculum.27 The argument is made that wherehaving humanitarian engineering as a program may be challenging due to time and resourceconstraints, Colleges can integrate humanitarian engineering in already existing courses. Thisintegration provides students the opportunities to be globally competitive, but more so to betterappreciate cultural diversity which has a boomerang effect on creating an inclusive
threesystems and the resulting integrated outcomes employed for curriculum design anddevelopment at this new institution are compared and analyzed.Alfaisal College of Engineering EnvironmentAlfaisal University is an independent, private, non-profit, research-intensive university ofscience and technology located in Riyadh. Founded by the King Faisal Foundation, theUniversity’s degree programs in Engineering, Science, Medicine and Business are designedto have an international outlook and are intended to be competitive with the highest qualityinstitutions worldwide. Engineering degrees at BS, MEng, MS, and Ph.D. will be offered,with Bachelors degrees initiated first. Additional details are available in an earlier article5 andon the university’s website
Putting the horse before the cart – Fitting a new project into established design and writing pedagogy W. Riddell†, S. Bakrania†, K., Bhatia†, J. Courtney, K. Dahm†, R. Harvey‡, L. Weiss†† College of Engineering† College of Communication‡ College of Liberal Arts and Sciences†† Rowan UniversityProject-based learning has been an important aspect of the Rowan University College ofEngineering curriculum since its inception in 19961. In the fall of the sophomore year,engineering students take a multidisciplinary, integrated, project-based course that is designed toteach both
Putting the horse before the cart – Fitting a new project into established design and writing pedagogy W. Riddell†, S. Bakrania†, K., Bhatia†, J. Courtney, K. Dahm†, R. Harvey‡, L. Weiss†† College of Engineering† College of Communication‡ College of Liberal Arts and Sciences†† Rowan UniversityProject-based learning has been an important aspect of the Rowan University College ofEngineering curriculum since its inception in 19961. In the fall of the sophomore year,engineering students take a multidisciplinary, integrated, project-based course that is designed toteach both
somewhere else—anywhere else?In this paper, we describe a recent approach to teaching writing to first-year engineering studentsat the University of Hartford, in which we crafted a course based the concept of the nerd, a topicthat engineering students find engaging, and then developing their writing skills from thosematerials in an integrated way that is interesting to students and (most important) develops keycommunication skills. We developed two tracks, one using a gender approach and the otherusing historical reactions to innovations in technology; these are described, along with texts usedand writing assignments that grew from the readings. This rhetorical foundation becomes thebasis for the oral and written communication skills required by
somewhere else—anywhere else?In this paper, we describe a recent approach to teaching writing to first-year engineering studentsat the University of Hartford, in which we crafted a course based the concept of the nerd, a topicthat engineering students find engaging, and then developing their writing skills from thosematerials in an integrated way that is interesting to students and (most important) develops keycommunication skills. We developed two tracks, one using a gender approach and the otherusing historical reactions to innovations in technology; these are described, along with texts usedand writing assignments that grew from the readings. This rhetorical foundation becomes thebasis for the oral and written communication skills required by
effectively in engineering education.The following is a review of the quantitative results from this 2006 quasi-experimentalaction research study, which investigates the perceptions of teachers and studentsinvolved in problem-based simulation activities used in high school design engineeringcurricula. The purpose of the research is to investigate the potential for problem-basedsimulation activities to be used as curriculum and instruction aids for engineeringeducators. Also included is a discussion of survey results from engineering faculty whoattended NSF sponsored workshops designed to learn and practice problem-basedsimulation activities using dynamic analysis software, and reactions from universitystudents experiencing the experiential learning
cannot usually occurwithout individual and team development.High performance teams achieve both individual and team congruence. Achieving congruencebegins with awareness, continues to acceptance, authorship, articulation, and finally is achievedwith articulation (McLendon & Weinberg, 1996).Engineers and technologists are now required to work well beyond their technical world incontent and context; in addition, they are now often asked to work in multicultural teams and tolead or participate in projects. This requires an additional tool kit, one that includes tools to workwith people, tools in management, and techniques for integrating across disciplines and cultures. Therefore, it seems plausible that project management has become its own
. Such modules are currently being used in our introductory courses incircuits, electronics, instrumentation, and signals and systems, all of which are taught usingRensselaer’s Studio mode of delivery. The initial experiences by both faculty and students have beenvery positive, indicating that a combination of using interactive learning modules along with theStudio format of course delivery offers a new model for engineering education.I. IntroductionComputers are such an integral part of our day-to-day lives that they control the microwave that heatsour morning coffee, the publication of the newspaper we read with our breakfast, the car that carries usto work, and almost every aspect of the job once we get there. We gather information on the
-yearengineering students, signifying entry into the discipline. While surveying is not as integral tothe modern civil engineering curriculum as it once was, it continues to be instrumental inunderstanding the difference between training and education [1].In 2020, the COVID pandemic forced educators to pivot to an online teaching modality in themiddle of a spring semester. As the pandemic raged throughout the summer, educators werefaced with the prospect of delivering courses online for the foreseeable future. This presented avery real challenge for the venerable survey laboratory which is by nature very hands-on. Inpreparation for a summer offering of a surveying and geomatics class in the Civil Engineeringprogram at Northern Arizona University, faculty
theArduino Uno, which consists of an ATmega328 microcontroller, 14 digital input/output pins, six(6) analog input pins, a USB port to connect to a computer, and more. A diagram of the ArduinoUno is shown in Figure 1 for reference. Figure 1: Arduino Uno Diagram from Jameco Electronics [14]In the realm of electrical engineering technology and electronics, the Arduino platform plays animportant role. To give context, the education of electronics faces the challenge of the rapiddevelopment of technologies of today [15, 16]. Electronics are constantly being integrated withmore applications as time passes, which then increases the importance and dependence onelectronics. The importance of electronics should then also justify a quality
the Math Review, but with engineering context.Problems had physical meaning and were not merely number manipulation. The instructorswanted to reinforce ‘time on task’ and ‘learning by doing’ early in the semester. With fewcourses assigning homework and no major requirements in the first few weeks, there is afreshman student perception after a few weeks of college that they can survive by doing verylittle.Chemistry for EngineersThe Grinter Report4 recommendations resulted in most engineering programs requiring at leastone semester of freshman chemistry and many programs adding a second required course. Inthe 90s, Drexel University5 initiated an integrated curriculum which combined chemistry intolarger modules with math and engineering content
students are boarders at the campus. Students tend tobe economically advantaged. The culture of the institution is directed toward excellencein teaching, and faculty members identify their work with students as their top priority.The student-faculty ratio is 15:1. Curricular innovation has historically been a hallmarkof the RHIT institutional culture. In 1995, after ten years of debate and study, RHITbegan admitting women. RHIT functions within an academic quarter system as opposedto the more typical semester system.Rose-Hulman Institute of Technology has had two integrated engineering programs. Aninnovative integrated first year curriculum in science, engineering, and mathematics(IFYCSEM) was initiated in 1988-1989 and piloted for three years
an Associate Professor and Chairperson of the Computer Systems Technology Department at New York City College of Technology, CUNY. She received her Ph.D. in Mathematics. Her focus are working with faculty constantly to keep curriculum updated to respond to the growth of computer technol- ogy; researching in project-based learning with digital generation; and promoting the retention of female students. Her research interests include artificial neural networks and applications in system identifica- tion and forecasting. She has worked on projects that have applied neural networks in highway rainfall drainage problems, the estimation of crude oil saturation and non-invasive glucose sensing problems
engineering curricula does a rather poor job of teaching hands-ondesign. While this is currently being addressed at many universities via the introduction offreshman/sophomore level integrated design courses and through NSF funded programs such as EXCEL andSUCCEED coalitions, many curricula still do not introduce a hands-on design course until the junior/seniorlevel. Thus, it is important that the first lab exercises have a high degree of structure. As the students gainbasic skills, the labs progress in complexity and freedom of design culminating in an open-ended designproject during the second course. The lectures and labs cover the general topics listed below in the orderlisted. Also listed are examples of topics covered in the associated
. Prior to his current position, he served as the CTO and acting CEO of IP SerVoniX, where he consulted for telecommunication firms and venture firms. He has also served as the CTO of Telsima (formerly known as Kinera), where he carried out extensive business development with telecommunications and wireless carriers, both in the US and in India. Before joining Kinera, he was the CTO at Comverse in Wakefield, Massachusetts. Prior to joining Telcordia, he was an associate professor at Clarkson and Wayne State Universities, where he developed the communications curriculum and conducted research in computer networking and source coding algorithms. Dr. Mohan authored/co-authored over 95 publications in the form of books
schools level in earth science and chemistry prior to moving to engineering. He has 33 years of experience in engineering education.Morteza Sadat-Hossieny, Northern Kentucky University Morteza Sadat-Hossieny is an Associate professor and a graduate faculty of Mechanical and Manufacturing Engineering Technology at Northern Kentucky University. Dr. Sadat-Hossieny is actively involved in consulting and research in different areas of Mechanical and Manufacturing Engineering Technology fields such as CADD, Automation, and technology transfer mechanisms. He regularly publishes papers in different proceedings and journals
in Engineering Education, 2014. 22(2): p. 283-296.28. Caminero, A., et al. Obtaining university practical competences in engineering by means of virtualization and cloud computing technologies. in Proceedings of 2013 IEEE International Conference on Teaching, Assessment and Learning for Engineering (TALE). 2013. IEEE.29. Wang, Y., M. McCoey, and Q. Hu. Developing an undergraduate course curriculum for ethical hacking. in Proceedings of the 21st Annual Conference on Information Technology Education. 2020.30. Al Kaabi, S., et al. Virtualization based ethical educational platform for hands-on lab activities on DoS attacks. in 2016 IEEE Global Engineering Education Conference (EDUCON). 2016. IEEE.31. Willems
2004_1612Coupling Engineering and Entrepreneurship Education through Fuel Cell Product Development Tze-Chi, Hsu and Bee-Shan, Han Department of Mechanical Engineering, Yuan Ze University Taoyuan, Taiwan, R.O.C. metchsu@saturn.yzu.edu.twAbstractThis paper presents an overview of the entrepreneurship curriculum at Yuan Ze University. In thiscurriculum, thirteen courses are identified as required courses for students that intend to apply fuel cellas the key component for starting a new company. The thirteen courses include fuel cell
computing technology [2]. As part of this curriculum redesign, a two-course sequencein computer programming has been implemented for freshmen students studying MechanicalEngineering.It is well-known among engineering educators that while traditional introductory programmingcourses are an important foundation for future study, the typical tasks assigned in introductoryprogramming courses (sorting, “Hello World” output, etc.) fail to excite and motivate manyfreshmen engineering students [1]. This is especially true of many students in MechanicalEngineering, who are drawn to the discipline by a strong desire for “hands-on” applications. Inan effort to motivate the use of programming techniques, and to stimulate interest among thestudents, a
events. Ethics and systems thinking are integrated in the course.Technical aspects include crystallography, phase diagrams, microstructures, processingtechniques, and nanotechnology. MATE 232 is a required undergraduate course for all MaterialsEngineering students. During the term that this exercise was conducted, 51 students wereenrolled in MATE 232.The overall framework for the exercise was to first provide a focused lecture related to theenvironmental fate and toxicity of nanomaterials to the participating students from both classes.Then an assignment was provided to the CE 587 students to develop suggestions for responsiblemanufacturing of nanomaterials. Next, these suggestions were provided to the MATE 232students as an assignment. The MATE
Dublin- The University of Dublin. he is a Fellow of ASEE and Life Fellow of IEEE. he is an Honorary Fellow of the Institution of Engineers Ireland. He has special interest in education for the professions and the role of professions in society. He is author of Engineering Education. Research and Development in Curriculum and Instruction; The Assessment of Learning in Engineering Education; The Human Side of Engineering, and Empowering Professional Teaching in Engineering. He co-authored A Case Study in Curriculum Assessment - GCE Engineering Science (Advanced).Prof. Carl O. Hilgarth, Shawnee State University Carl O. Hilgarth, M.S., is current division chair of the ASEE Technological and Engineering Literacy
Paper ID #22892Ten Ways Academic Libraries Can Help their Departments Increase Reten-tion of Women Engineering StudentsMs. Jean L Bossart P.E., University of Florida Jean Bossart is an Associate Engineering Librarian at the University of Florida (UF). She assists students with research, data support, and citation management. She investigates and integrates creative technolo- gies, such as 3D printing into the STEM discipline library services. She has a BS in chemical engineering and MS in environmental engineering from UF, over 20 years of experience in industry and consulting, and is a licensed professional engineer in
executetrade-offs, balancing competing priorities, and communicating with colleagues that havedifferent technical backgrounds. This paper presents the implementation of a system-based,sponsor-partner, collaboration focused, learning approach within the curriculum of theDepartment of Automotive Engineering at Clemson University which meets these real-world design engineering needs.The program implementing this real-world approach is called Deep Orange (DO). TheDeep Orange initiative is an integral part of the automotive graduate program at theClemson University International Center for Automotive Research. The initiative wasdeveloped to provide first-year graduate engineering students with hands-on experience ofthe knowledge attained in the various
Committee is to define the expected relative contributions of theundergraduate and masters degree educations and to design curricula that support this.III. Why Get Involved NowThe United States Military Academy at West Point is a public university with a studentpopulation of approximately 4,000 undergraduates. Upon graduation, every student iscommissioned as an officer in the U.S. Army. USMA offers majors in 32 disciplines, six ofwhich are ABET accredited engineering majors. West Point confers only a bachelor’s degree andhas neither the ability nor the desire to start a masters program in engineering. The decision bythe West Point civil engineering program to join the curriculum design partnership effort wasbased on the following
computer vision andmachine learning, are revolutionizing multiple industries [1]. Many companies have integratedAI and machine learning platforms into their customer user face and employee workflowsoftware. This trend calls for preparing the next generation of learners for this transformation,which requires innovation in the education sector, especially within the K-12 system [2].ImageSTEAM, an NSF-funded initiative, was created in 2019 to bridge this gap by empoweringmiddle school educators to integrate visual computing and AI technologies into their classrooms.The program provides professional development workshops for teachers and co-creates learningmodules with researchers, fostering a learning environment where students engage with AIconcepts
engineering path selection in colleges and universities wasobtained, and content analysis technology was applied to analyze the data in a bid to verifythe theoretical model extract key factors in the construction of new engineering in collegesand universities eventually.Results Research shows that the path of discipline integration, the path of disciplinederivative, the path of Exogenously industry-led, and the path of Endogenouslydiscipline-driven have become the main paths for the construction of "new engineering" incolleges and universities. Moreover, the path of engineering innovation has also been fullyaffirmed by some universities. The nature of disciplines along with the types andcharacteristics of colleges and universities exerts an influence
between the phenomenon (the VTSexperience) and the experiencer. Additionally, this research focuses on understandingtransformation from an experience through multiple types of collected data and utilizes a mixed-method design collecting and analyzing qualitative interviews and quantitative data fromvalidated instrumentation [23] as the methodological framework for this research.Methods and DesignResearch ParticipantsParticipants in this study were undergraduate students (n = 22) enrolled in HON 2400 – HonorsDiscovery: Using Art Exhibits to Improve Communication in Engineers. This course wasspecifically developed for this research study utilizing VTS. HON 2400 qualifies as an electivefor honors students and are typically courses that can integrate