to support not only embedded systems software courses, but to have Page 26.1167.2the ability to be used in other courses such as instrumentation, control systems, andcommunications. Bringing technologies that can meet the demanding needs of industry into theeducational classroom/laboratory can also provide new opportunities for academia-industrycollaboration and development projects.Based on a number of successful appliedresearch and capstone design projects, theControls and Data Handling Branch at NationalAeronautics and Space Administration -Johnson Space Center (NASA-JSC) recentlyformed a development partnership for its uniqueModular
mathematics, science, and engineering (b) an ability to design and conduct experiments, as well as to analyze and interpret data (c) an ability to design a system, component, or process to meet desired needs (d) an ability to function on multi-disciplinary teams (e) an ability to identify, formulate, and solve engineering problems (f) an understanding of professional and ethical responsibility (g) an ability to communicate effectively (h) the broad education necessary to understand the impact of engineering solutions in a global and societal context (i) a recognition of the need for, and an ability to engage in life-long learning (j) a knowledge of contemporary issues (k) an ability to use the techniques, skills, and modern engineering tools
created. The students see adrop in the pH level which demonstrates the concept of acid rain. Once again, a contemporary environmental problem such as acid rain is used to exposethe students to the phenomenon of acid rain itself and they learn to use the pH sensor in thisexperiment. Following the acid rain experiment, through discussions, students are exposed toother factors that may affect the environment. Next, the students take on a role of environmentalengineers and suggest experimental designs incorporating different sensors to monitor howvarious factors may impact the environment and how to lower such impact. One RAISE Fellowengaged his class in a semester long project where the students monitor pH, dissolved oxygen,conductivity
used forcontroller implementation. This proved to be a struggle for students due to the available time. Datacollection and system identification, controller design, and controller implementation andvalidation could have each taken a full lab period. Unfortunately, only two lab periods wereallocated. Future project iterations will budget additional time for this stage.Assessment of Entrepreneurial Mindset Example BehaviorsStudent surveys were used to qualitatively assess the effectiveness of the EML experience inteaching mechatronics and instilling an entrepreneurial mindset. To limit the length of the survey,only a few dimensions of the entrepreneurial mindset were included. For initial implementation,the more accessible and relevant
, "Multidisciplinary Experimental Experiences in the Freshman Engineering Clinic at Rowan University", Proceedings of the 1997 Annual Conference of ASEE, Milwaukee, Wisconsin, June 15-18, 1997. Page 6.725.5 4. K. Jahan and R.A. Dusseau, “An Introduction to Environmental Design for Multidisciplinary Engineering Teams”, Proceedings of the 1998 Annual Conference of ASEE, Seattle, Washington, June, 1998. 5. K. Jahan, S. Mandayam and D.B. Cleary “Multidisciplinary Research using Nondestructive Evaluation” Proceedings of the Annual ASEE Conference, June 2001, Albuquerque, New Mexico. 6. Gabler, H.C
course (ENES 101) at UMBC was revamped in 2001 and has itsorigins in work done by Dally and Zhang2, and in work the author did while teaching in theFreshman Engineering ECSEL3 program at the University of Maryland, College Park. ENES 101includes an overview of engineering and an introduction to various topics within engineering. Theemphasis of the revision of the course was to make it a project based inquiry experience. Thestudents must work in interdisciplinary teams to design, build, evaluate, test, and report (both aformal written report and oral presentation) on a specified product. ENES 101 is a three-creditfreshman engineering course which consists of two fifty-minute class sessions and a two-hourdiscussion session each week over a 16 week
, soils, emerging contaminants, chemical exposures from goods and materials, green manufacturing, and sustainable urban design [6, 10]. o Engineering Sciences. ABET definition. Engineering sciences are based on mathematics and basic sciences but carry knowledge further toward creative application needed to solve engineering problems. These studies provide a bridge between mathematics and basic sciences on the one hand and engineering practice on the other [7]. • Science (concept). Intellectual and practical activity encompassing the systematic study of the structure and behavior of the physical and natural world through observation and experiment [8
chosen major, has been addressed in thetext, in lectures, guest lectures, labs, assignments, in the simulated design experience, and in the“A day in the life” experience. Page 3.292.4 4 Page 5Student and faculty response to the course The general response to the course thus far has been very positive. A survey was taken atthe completion of the 1997 Fall semester; pertinent results are shown in Table 1 below. Thesurvey addressed several specific items
reviewed publications in these fields.Mr. Lawrence David Landis, Intel Programmable Solutions Group Senior Manager University Academic Outreach, Intel Programmable Solutions Group Lawrence has 35 years’ experience in a wide variety of functions in the electronics industry including marketing, sales and project management for numerous ASIC and FPGA products. Larry teaches part time digital electronics and ASIC design at Santa Clara University and UC Berkeley.Prof. Perry L. Heedley, California State University, Sacramento PERRY L. HEEDLEY earned his Ph.D. and M.S. degrees from Auburn University and his B.E.E. from the Georgia Institute of Technology. He has over 20 years of industrial experience designing analog and mixed
torecruit youth into the STEM pipeline by raising STEM awareness and curiosity during a highlyinfluential time in their development11.The technology of remote laboratories also opens up a wide range of possibilities, because itbreaks physical barriers and allows access to them from any computer at any location and atany time using the Internet. In addition, remote laboratories must be used through a computerconnected to the Internet, and this allows the use of advanced features that enhance the learningexperience -- thus richer learning experiences can be created. Furthermore, from a pedagogicalpoint of view, these remote laboratories open new fields of innovation based on the developmentof different competencies and, by involving parents, new
experience. According to Hlebowitsh, “…the whole child must beeducated, not just the mind [and]…curriculum, as a result is comprehensive in its scope, isinterdisciplinary in its overall organization and is activity-based in its sense of experience.”3 The entireWWU ET Department, and specifically the IT-VD program, embraces this philosophy and provides awide range of hands-on educational experiences for the students to engage in during their courses ofstudy. While the initial design phase of the Hybrid Bus project has limited classical hands-on labexperimentation activities, the concept of a specific vehicle with many established design targetsserves as a concrete base for utilizing analysis and optimization techniques discussed in class
asked to improvethe existing device by re-designing the electronic circuitry using the printed circuit board (PCB)technology altogether. At the last week of the summer project, they have the opportunity tocharacterize the device that is designed and made by students. During the ten-week summerresearch, students from Cañada College have the opportunity to experience entire engineeringdevelopment flow: idea > design > prototyping > validation. In addition to learning theelectronics design using the state-of-art electronic design automation (EDA) tool, the studentsare exposed to the challenges in designing electronic systems for biological systems. Theinterdisciplinary thinking could benefit their future STEM careers. The feedback from
The logical circuit's design was optimized to exhibitlearning experience, employing a reward system designed largely unpredictable behavior and possess a unique solution.to foster persistence and critical thinking. The project also To ensure that the circuit only had one solution, the logic gatesexplores the educational potential of the puzzle box as a tool comprising the circuit were limited to AND gates and NOTfor teaching foundational engineering logic to young gates. This had the added benefit of limiting the supplies neededchildren. to physically implement the design. To
via socialmedia channels (e.g. Mendeley and Twitter).Two workshops were given during the Summer of 2017 entitled, “Self-Healing Infrastructure,”to a cohort of female underrepresented minority (URM) middle school students participating inGirls Inc and a group of URM high school student participating in the Franklin Institute STEMScholars program. The session's design created a context for students to (i) actively harvestresearch information using engineering library databases , such as Compendex on EngineeringVillage, (ii) gain hands-on experience observing healing of concrete by bacteria, and (iii)synthesize and present their findings via graphical abstracts, all in a compressed timespan of 3-4hours. The graphical abstracts produced by these
wellbeing of theircommunities, also observed in a service learning program at a university in Ghana. 2 Similar tostudents from the University of Trinidad and Tobago, 5 prior to the design course UTG studentsdid not see the connection between their studies and the ability to help people in theircommunities.In the fall, the PV system design course was offered. Twelve UTG students completed thiscourse. Students were highly energized by the practical applications offered in this course, eventhough they struggled with the higher than typical workload. In the spring, students complainedthat the spring design course was “like taking 10 courses,” in terms of semester workload – butthey responded very well and were eager to take their experience into other
. Strategies designed to help produce futureDOE minority scientists and engineers are: (1). To involve HBCU students and facultymembers in computational science projects at national laboratories and research institutions;(2). To assist HBCU faculty members in integrating interdisciplinary computational sciencecourses into their undergraduate curricula, involving freshmen to senior students; and (3). Toprovide support and expertise to HBCU researchers using state-of-the-art computationalscience technologies and methodologies.Alabama A&M University (AAMU) is one of the HBCU members. In 1999, DOE-MICSawarded AAMU a Grant to conduct High performance computational (HPC) scienceresearch and education [2]. In 2003, a new DOE grant was awarded to AAMU to
provides funding for a 3 year continuing award to support aResearch Experiences for Teachers (RET) in Engineering Site program at the TennesseeTechnological University (TTU) entitled, “RET Site: Research Experience for Teachers inManufacturing for Competitiveness in the United States (RETainUS)”. One of the RET researchprojects accomplished by the project team and one high school math teacher was on thegeneration of knowledge-base for the 3D printing end-users. Analytical and experimental studieswere performed using the 3D printing software and equipment located at the RemotelyAccessible Rapid Prototyping Laboratory of Tennessee Tech University (TTU). The objective ofthis research was to generate a set of new information so that
% 37.5% 45.0% Table 1: Weightings for three example quiz selections.A significant aspect of the course were 15 laboratory experiments, where students learned tomodel circuits using an HDL and implement them on an FPGA-based development board. Weplaced heavy emphasis on the experiments and subsequent lab reports because they were themain active learning component of the course. All courseware was available to students at nocost, including the development environment supporting the HDL, which allowed students tocomplete the experiments outside of the lab. Students used VHDL during the spring quarter andVerilog during the fall quarter.Each of the ten quizzes was two pages in length; the first page was a design problem
AC 2007-449: MULTI-DIMENSIONAL AND INTERACTIVE LEARNING MODELFOR INTRODUCTION TO MECHANICAL ENGINEERINGAmir Jokar, Washington State University-Vancouver Amir Jokar is an Assistant Professor of the School of Engineering and Computer Science at Washington State University Vancouver. Prior to WSU Vancouver, he was a research assistant professor at Kansas State University where he earned his Ph.D. degree in May 2004. His general research area is in thermal/fluid sciences with more background in micro/mini-channel heat transfer and fluid flow, thermal system design and simulation, two-phase flow, condensation and evaporation. His other areas of interest include electronics cooling/thermal management and
projects. 12. To develop skills in locating information resources (library and other). 13. To introduce some of the computer tools and laboratory equipment available in the department.The list of objectives is a tall order for a course that meets for two “lectures” a week, onMondays and Fridays and a three-hour lab period on Wednesdays. Traditionally, the lab periodshave been used for special topics related to the design project in the beginning and to theplanning and construction of the project in the latter part of the semester. The lectures arefocused on the subjects from the textbooks4-6 and some in-house papers. Topics covered in thelectures are: 1) Team Work, Personality Type, Conflict Resolution; 2) Keys to Success
perceptions of these outcomes, when they are exposed to the different access modes. These differences have powerful implications for the design of remote and virtual laboratory classes in the future, and also provide an opportunity to match alternative access modes to the intended learning outcomes that they enhance. Prof Lindsay is the Foundation Professor of Engineering at Charles Sturt University. His research inter- ests include engineering education, telecontrol (particularly internet-based telecontrol), artificial neural networks, and rehabilitative technologies for people with sensing impairments. Prof Lindsay was the 2010 President of the Australasian Association for Engineering Education. He is a Fellow of
faculty who primarily requires lower level skills. We believe this isa fundamental issue in all of engineering education that must be directly dealt with in courseplanning.Bloom’s taxonomy is a powerful tool for discussion among faculty related to teaching. Thisstrength comes from its ability to: ‚ Relate closely to faculty’s experiences related to students not being able to successfully solve real world problems and their difficulty with engineering design. ‚ Lead to examination of what activities (lectures, discussions, recitations, laboratories, out-of-classroom activities) are best suited to challenge students into engagement at higher cognition levels. ‚ Clearly show what testing or assessment methods are needed
enabling the understandingof the various study paths that students can follow. Elective Courses include Micro and NanoElectro-Mechanical Systems, Nanoscale Materials, Semiconductor Microfabrication, ProcessControl and Design of Experiments, and Thin Film Processing.IntroductionThe semiconductor industry has been one of the main engines of the U.S. economy, being thethird largest contributor to the U.S. GDP, by adding annually more than $65 billion to the U.S.economy, according to the Bureau of Economic Analysis1. Over the last few years with billionsof dollars in combined investments between the state of New York and leading internationalcompanies, the footprint of the nanotechnology industry has been expanded at a sustained pacecreating a strong
apply CO_2: Select and implement basic and advanced methods of artificial intelligence CO_3: Design smart systems based on the methods of artificial intelligenceThe assessment methods comprise laboratory exercises and projects which integrate the conceptsfrom the topics listed earlier with software implementations using Python, Keras, TensorFlow,and/or Caffe platforms. Proceedings of the 2022 ASEE North Central Section Conference Copyright © 2022, American Society for Engineering Education 3The course schedule is shown below in Table 1. There are twenty-eight sessions (two in a week)in the semester. Each session lasts eighty minutes. Table 1
. The numbered elements on the Figure highlight the key components. A smallbrazed plate heat exchanger (1) [8] has flow meters (2) connected to the hot and cold sides. Atotal of four integrated circuit temperature sensors (4) are used to measure the temperaturedifferential for both the hot and cold sides. All sensors are connected to a USB data acquisitionmodule from National Instruments.The heat exchanger apparatus has a number of subtle features based on experiences with thisequipment over time. The entire device is mounted inside a perforated stainless steel pan thatfits over the edge of a laboratory sink, see Figure 3, to contain any inadvertent leaks that occur.In addition, the HX apparatus has hose connections that quickly connect to the
0 0.05 0.1 0.15 0.2 0.25 0.3 0.35 Displacement(in) Figure 3: Tensile Test Results of Steering Racks made with Various AM Technologies5. Feedbacks received from Engineering StudentsThe following will provide a beneficial feedback about the impact of the current study toengineering education. The experience of two students will be shared here.Undergraduate Student:“Working on this project has provided useful feedback in how far AM has developed. During workon this project I have learned useful information about how to properly design parts that areadditively made so that they will withstand the forces placed on them during use, while still
two semesters undertaking a design project that is a culmination of their undergraduateengineering education. The department has an extremely robust senior capstone program, 54/79annual projects being financially sponsored by our industry partners such as Shell, Dell, Fluor,Siemens Energy, Trane Technologies, etc., and from government agencies like Los AlamosNational Laboratory, Sandia National Laboratory, Army Research Laboratory, Office of NavalResearch, etc. The remaining projects are sponsored by TAMU faculty as well as directly by theMEEN department.The project described in this paper is one such example. A team of 6 students was challenged tobuild a Science, Technology, Engineering and Mathematics (STEM) exhibit for use by 8-12 year
Laboratory at the Jet Propulsion Laboratory. Dr. Fontecchio received his Ph.D. in Physics from Brown University in 2002. He has authored more than 90 peer-reviewed publications. c American Society for Engineering Education, 2016The Recipe for a Gourmet Snack: NGSS, NAE, and STEaMAbstract At an urban high school in Philadelphia, a teacher-engineer team questioned if a project-based learning unit using Next Generation Science Standards (NGSS), National Academy ofEngineering (NAE), and Understanding By Design (UBD) frameworks could be designed andexecuted to successfully teach students about macromolecules. Molecular gastronomy (MG) is abranch of food science that studies the physical and chemical
will support fundamental and applied research through a defined program which willsupersede the REPP program. For example, NSF’s Division of Research, Evaluation, andCommunication has supported fundamental research on efficacy of small group learning by theNational Institute of Science Education. That research has demonstrated a significantimprovement in student learning15. The same division supported applied research on improvingthe efficacy of problem solving in engineering design classes16.Implementation research will result from analysis of projects supported through NSF’simplementation programs at the pre-college (e.g., Teacher Enhancement Program),undergraduate (e.g., Course, Curriculum, and Laboratory Improvement Program), and graduate
regularlyteaching the latter two Machine Design focuses on engineering analysis and the design andselection of machine components to meet specific requirements. Senior Design is the capstonecourse of the engineering degree plans (mechanical, electrical and computer, and generalengineering) program, and it brings to bear all of the students’ prior training to incorporatedesign creativity, engineering analysis, teamwork, budget management, and technicalcommunication.It is in the capstone course, Senior Design, that our second KEEN Innovator chose to integrateentrepreneurship concepts and skills into the student experience. The course is project orientedwhere students team up to solve a specific problem that is provided either from external industryor private