apply to more open-ended problems. Studentslearned how to use mechanical energy to recharge their flashlights, which tied into their physicscurriculum. They also learned how to identify needs in their community and engage stakehold-ers to develop solutions to these needs. Approximately 23 students participated, 19 of whom hadparticipated in the previous curriculum. Building on this momentum and under the leadership of a WISER teacher, the engineering clubhas thrived since 2015. As students quickly mastered flashlights, a WISER faculty member helpedthem apply their design skills to create a diverse set of projects for science competitions. Thoughthey had not participated in competitions previously, the WISER students quickly found success
Paper ID #31809Full Paper: [Fostering Entrepreneurship Through Targeted Adversity: ASenior Design Case Study]Mr. Nicholas Hosein, UC Davis Nicholas is a PhD candidate at the University of California Davis with a background in computer ar- chitecture, algorithms and machine learning. His current focus is advancing the electrical engineering curriculum at UC Davis to be more industry relevant in terms of skill sets taught.Prof. Lee Michael Martin, University of California, Davis Lee Martin studies people’s efforts to enhance their own learning environments, with a particular focus on mathematical, engineering, and design
development of an engineering curriculum for elementary school applications. The for- mer is for development of electric field mediated drug and gene applicators and protocols. This effort has generated over 20 patents and cancer treatment protocols completing FDA Phase III trials.Mr. Phil Centonze, FloridaMakesProf. Sam Ajlani, College of Central Florida Master’s degree in Industrial Systems Engineering from the University of Florida. 30 Years of Experi- ence in Manufacturing as a technician, Maintenance Manager, Plant Engineer, Division Engineer, and Corporate Project Engineer. 17 years teaching Engineering Technology in the Two-year College System of Georgia and the Florida College System
goals [30], [35], [38].ImprovementFrom our analysis, we identified 10 scholarly papers that emphasize evidence of the currentteamwork gaps and challenges in the systems engineering discipline and providedrecommendations for improvement opportunities towards effective teamwork. Specifically, therewere six papers that highlighted the challenges and opportunities in industry and four papersfrom the academic perspective. In industry the key challenges of teamwork highlighted were lackof coordination among virtual and geographically distributed team members, challenges withcommunication and team decision-making while working on systems engineering projects [17],[18], [20], [21]. Kindarto et al. [17] further recommended authentic leadership and
theseengineering programs offer BIM courses; other programs that have not adopted BIM believe thatthey will be incorporating BIM into their curricula with a year (43%) or two (44%).Recent studies have indicated numerous ways and the corresponding advantages and challengesof incorporating BIM into ConE curricula. Johnson and Genderson [3] viewed one of thechallenges as the complexity of the relatively new software tools. Salazar et al. [4] described how Page 25.263.3BIM models were developed using Autodesk Revit [5] and how BIM was integrated into theirConE curriculum. At Brigham Young University, students learned how to use Autodesk Revitproducts and
. Konstantopoulos, "The impact of a project‐based science curriculum on minoritystudent achievement, attitudes, and careers: The effects of teacher content and pedagogical contentknowledge and inquiry‐based practices," Science Education, vol. 94, (5), pp. 855-887, 2010. Available:https://onlinelibrary.wiley.com/doi/abs/10.1002/sce.20391. DOI: 10.1002/sce.20391.[10] A. Fuchs and Gh, "California Challenges in STEM Energy Education," unpublished.[11] (). California Challenges in STEM Energy Education . Available:http://opr.ca.gov/learninglab/grants/awards/stem-energy-education.html.[12] J. Roy, "Engineering by the Numbers," Engineering Number ..., 2018. Available:https://catalog.hathitrust.org/Record/100150498.[13] C. A. Butler et al, "California Challenges
connection toindustry and through changes in the four essential areas of a shared department vision, faculty,curriculum, and supportive policies.During the last year of this project, we conducted an audit of our activities taken during the six-year project to identify which were most impactful for the culture building in the department andwere relatively easy to implement and adopt by other departments. We shared our audit processand results at the 2023 ASEE conference [1]. This audit process helped us identify ten significantendeavors, each of which included multiple activities. These ten endeavors include creating amission statement to drive culture change, fostering the new culture in retreats, improvingdiversity, equity and inclusion (DEI) in
. Course-related activities are designed to optimize astudent’s potential and chances of success within a chosen career path by providing andsupporting opportunities and experiences that enhance their professional identity and careerprospects (Holland, 2010). In this way, Engineering Problem Solving can be seen as a course thathelps students explore, adopt and/or solidify their engineering identity or by contrast, determinethat engineering is not a preferred part of their identity. Exploration of engineering identity wereencouraged in the course through gaining insights from professionals and developing new skillsthrough projects (Noe & Wilk, 1993). A study by (Holland, et al., 2012) explored how engagingin "capitalization activities
level.INTRODUCTION The National Curriculum Parameters for Undergraduate Engineering Programs in Brazil,instituted by Resolution No. 2, of April 24, 2019, establish that every undergraduate program inEngineering have a Pedagogical Project for the Program which, in addition to ensuring thedevelopment of the competencies established in the profile of the graduate and to present the set oflearning activities in the curriculum, clearly specify and describe “[…] VIII – the process of self-assessment and program learning management that includes the instruments for assessing the skillsdeveloped, and the respective contents, the diagnostic process and the elaboration of action plans toimprove learning, specifying the responsibilities and governance of the
. Austin B. Asgill received his B.Eng.(hons) (E.E.) degree from Fourah Bay College, University of Sierra Leone, his M.Sc. (E.E.) degree from the University of Aston in Birmingham, and his Ph.D. in Electrical Engineering from the University of South Flor ©American Society for Engineering Education, 2023 Wireless Battery Management System (Design, Build & Test)AbstractAs part of the Electrical & Computer Engineering (ECE), and Engineering Technology (ET)Curriculum, Applied Design Projects for senior students in their final year augments their educationand training in research and research methods. It represents the centerpiece of the ECE-ETcurriculum's professional component and follows ABET-IEEE
residential format. In summer 2024, the Engineering Technology departmentat Middle Tennessee State University (MTSU) hosted our first ever NSTI program, which was 4-week long and non-residential. Our department has a B.S. of Engineering Technology programwith three concentrations: Computer Engineering Technology, Mechanical EngineeringTechnology, and Electrical-Mechanical Engineering Technology. The department also has anengineering B.S. program in Mechatronics Engineering. This paper details the organization andexecution of our NSTI program, including planning, participants recruiting, curriculum design,daily activities, field trips, presentations, and results of the robotic challenges. We also present thesurvey results and tips and lessons learned
2019, the College finalized the 2019 Strategic Plan with input from faculty, staff, andstudents. A key goal of the resulting strategic agenda was to “transform undergraduateeducation”, including the expansion of active and project-based learning, the development of acore curriculum for all undergraduate programs, and more support for faculty professionaldevelopment focused on teaching and learning. In Fall 2019, the College began a two-yearprocess to define new college-wide curricular goals and learning outcomes that would be sharedacross undergraduate programs.The new CEMS Core Curriculum was designed in two stages. The first stage (Fall 2019)included the establishment of minimum credit hours in the following areas: 20 credits ofMathematics
Student Exterior Rendering of a Fire StationCurriculum IntegrationStudents who wish to take the architectural design course must first take a 200-level prerequisitecourse to learn basic competency in AutoCAD and Revit. With this basic proficiency, thestudents acquire additional depth of Revit skill in the architectural design course. Lesson bylesson, they apply their Revit skills to create their individual fire station designs.In the final semester of their civil engineering curriculum, all students take a common capstonecourse together that integrates their design option experiences as collaborative project teammembers. Clevenger et al [13] recommend this approach of students learning BIM skills andconcepts in a standalone course and then
time. Contemporary manufacturers have the option of selecting optimumtechnologies or processes to suit their manufacturing environment. Fast paced transformations inEngineering Technology (ET) field require new and enhanced learning and teaching strategies inengineering technology curriculum. More than ever, the educational advance is leaning towardsmeeting the demands of industrial world. Engineering Technology curricula needs to adapt tonovel technologies and modern tools by enabling students to acquire meaningful and relevantpractices. Laboratory activities should be incorporated into dry-lectured courses, being vital toET programs, since they are ultimately enhancing the understanding process, leading towardsdeveloping experience-led
Manager can be considered the Project Owner. Software Engineering Division (SWED)Proposed ProjectPegasus has a successful line of lawnmowers, both electric and gas powered. Currently, marketingresearch is exploring the possibility of expanding their lawnmower line with the addition of anelectric robotic lawnmower. It is envisioned that the lawnmower would be similar to the automatedvacuum cleaners that have become popular recently. The difference is that robotic lawnmowers willbe designed for outdoor instead of indoor use, will learn the layout of the lawn instead of the layoutof the floors of a home, and will cut the grass instead of vacuuming floors.Before the company invests millions in the design and manufacturing of a new product
that target students throughout their academic journey and use culturally anchored curriculum to increase students’ knowledge and skills, improve students’ self-efficacy in pursuing higher education, increase sense of belonging on a university campus, and help students navigate campus systems.Prof. Gregory L. Heileman, The University of Arizona Gregory (Greg) L. Heileman currently serves as the Associate Vice Provost for Academic Administration and Professor of Electrical and Computer Engineering at the University of Arizona, where he is responsible for facilitating collaboration across campus tKian G. Alavy, University of Arizona Kian Alavy is Director of Strategic Planning and Initiatives for the Division of
, 2023 Robotics Empowered Convergence Engineering Education He Shen, Aren Petrossian, Joseph Vizcarra, Eva Schiorring, Mark TufenkjianAbstract: This paper presents the design and first-time offering of a convergence engineering course,“Introduction to Autonomous Robotic Systems,” where students from four engineering majors worked ininterdisciplinary teams to create submarine robots and accomplish complex autonomous missions. Thetechnical knowledge covered in the course included: robot design, mechanical analysis, sensing andactuation, electrical system design, guidance, navigation, control, robot operating system, computer vision,object recognition, and mission planning. The students are engaged in a whole project cycle within
incorporated leadership development programs into their curriculum, atboth the undergraduate and graduate level. Through a review of the 2018 U.S. News and WorldReport, Reyes et al. (2019) reported that the top 50 ranked universities all offered some form ofleadership development for their students.With recent updates to the Accreditation Board for Engineering and Technology (ABET)criteria, criterion 3, student outcomes, now include several outcomes that are relevant toleadership develop programs: (2) an ability to apply engineering design to produce solutions thatmeet specified needs with consideration of public health, safety, and welfare, as well as global,cultural, social, environmental, and economic factors; (3) an ability to communicate
Session 2451 Modeling Biodegradation Kinetics using MatLab Kauser Jahan, Raúl Ordóñez and Ravi P. Ramachandran Rowan University, Glassboro, NJ 08028AbstractA major objective of the Junior/Senior Engineering Clinics at Rowan University is tointroduce students to open-ended engineering projects. All engineering students from thefour engineering disciplines, namely Civil, Chemical, Electrical and Mechanical share acommon engineering clinic class. This class is a major hallmark of the Rowanengineering program for all students throughout their eight semesters of study. Thepurpose of the clinic classes is to provide
(PBL) in engineering education, Page 24.1029.2describing the experiences at the Eindhoven Technical University whilst applying thislearning method on their mechanical engineering and bioengineering degrees –the first onewas restructured in 1994 meanwhile the second began on 1997–.Authors such as Alcober et al.5 and Tomkinson et al.6 both describe their experiences inimplementation of active learning environments –the first one based on projects while thesecond was based on problems–, with positive results acknowledged by both students andlecturers. One of the best known successful cases of implementation of this kind of learningenvironments
Electrical Engineering Technology curriculum is to startwith several courses in digital and analog electronics along with the appropriate Alternating andDirect Current (AC/DC) circuit analysis classes. For the digital class the introduction material iscovered in the first class such as basic logic gates, number systems, Boolean algebra, Karnaughmapping, flip-flops, latches, counters and programmable logic devices. A second semester digitalcourse would cover the internal structure of logic families, complex digital circuits, synchronouslogic, A/D and D/A conversion, timing diagrams, computer bus systems, programmable logicdevices (PLD), and complex circuit debugging, digital interfacing various logic families to eachother as well as digital Input
temperature,light, and vibration.Educational excellence requires exposing students to the current edge of research. To ensure thatstudent projects are along the same trajectory that the industry is moving, educators mustcontinually introduce emerging techniques, practices, and applications into the curriculum. Thefield of wireless sensor networks is growing rapidly, and there is increasing interest in providingundergraduate students with a foundation in the area. It is crucial that the emerging field ofwireless sensor networks be integrated into the undergraduate computer science and engineeringcurricula. This paper presents the details of two WSN projects that our undergraduate computerengineering students have done in their senior capstone
information. Two of the most common implementa-tions of open pedagogy are open textbooks and renewable assignments, however the greater mis-sion of open pedagogy includes attributes such as openness, privacy, social justice, and accessi-bility9.ObjectivesThis paper describes the development of a biomedical engineering curriculum for high schoolstudents that integrates design thinking throughout the duration of the course as a form ofstudent-centered pedagogy. This approach to teaching engineering, here termed design-basedinquiry, uses guided inquiry in combination with modular design projects to help studentsbecome comfortable applying engineering principles to solve problems.MethodsA biomedical engineering course for high school students has been
also gained valuableknowledge of engineering. The teachers were given concrete examples of how their usual mathand science curriculum relates to the real world.Another area where the teachers benefited from having the fellow in the classroom is in utilizingtechnology in instruction. The fellows were more technologically literate and thus were able toplan and implement lessons using technology that the middle school teachers would not normallybe able to use. Some of these lessons that had a strong technological component were previouslydescribed by Brown et al.7 and Cathell et al.8 Lessons that include technological components areimportant not only because they expose students to equipment and methods often used byengineers, but also because
systems, etc. The projects concentrating onrobotic devices can use them as a vehicle to convey STEM related knowledge to undergraduatestudents across the curriculum. Given the attractiveness of autonomous or manually controlledrobots, it is assumed that the student population across various STEM related courses, inrespective disciplines, will respond positively to acquiring knowledge associated with applyingthe robots in their respective subjects of study. In this view, the objective of this project is to develop robotics applications that can be usedacross the undergraduate STEM curricula to encourage students of various STEM majors toenhance knowledge in their disciplines, study topics related to robotics and ultimately initiaterelated
Educational Experiences with Ways of Knowing Engineering (AWAKEN): How People Learn” project. She is Professor Emeritus in the Department of Engineering Professional Development and Wendt Commons: Teaching and Learning Services. Her area of research is engineering education including assessment of student learning. She taught technical communication courses to undergraduate engineering students and currently consults with faculty and teaching assistants. She earned her Ph.D. in educational administration at UW-Madison.Mitchell J. Nathan, University of Wisconsin-Madison Mitchell J. Nathan, BSEE, PhD, is professor of Educational Psychology, with affiliate appointments in Curriculum & Instruction and Psychology at the
Annual Conference & Exposition Copyright © 2003, American Society for Engineering EducationThis plan affects courses throughout the Engineering degree program. As a consequence of thewidespread impact of this plan, an effort on the part of the entire engineering faculty will berequired for successful implementation. The Electrical and Computer Engineering (ECE)Department tentatively approved the plan at the department meeting on September 12, 2002, forimplementation in the fall 2002 semester. II. FrameworkTo implement the plan, a framework for developing curriculum and assessing student learning isneeded [2], [4]. Bloom’s taxonomy provides a framework for developing and assessingcurriculum. Bloom’s
discipline-specific afternoon depthmodule may be selected from chemical, environmental, industrial, civil, electrical, ormechanical options. The topics covered, for example, in the environmental engineering Page 13.918.5afternoon module are: water resources, water & wastewater engineering, air-qualityengineering, solid- & hazardous-waste engineering, and environmental science & 4management 6. LeFevre et al. 6 recommend several methods of analyzing the data, but allfocus on assessing student performance in the different topic areas over severaladministrations of the exam. Lawson 7 examines the
cooling load. Thisproject demonstrates the technical viability of absorption chillers. The project economics weredominated by the capital cost of the absorption chiller and the solar collector array which, todate, are still very expensive. A conventional vapor compression cycle has lower capital costs thatcan be offset by the lower operating costs of an absorption chiller installation. Advances inabsorption chiller technology and higher electricity prices would make solar absorption chillersmore economically viable.Running chillers and boilers off peak and storing hot or cold water in thermal energy storage canproduce savings if the utility offers discounted off peak electrical rates. This practice also helpsthe utility to run efficiently by
Paper ID #16509Balancing the Influence of Driving and Restricting Factors to Use ActiveLearningDr. James J. Pembridge, Embry-Riddle Aeronautical University, Daytona Beach James J. Pembridge is an Assistant Professor in the Freshman Engineering Department at Embry-Riddle Aeronautical University. He earned a B.S. in Aerospace Engineering, M.A. Education in Curriculum and Instruction, and Ph.D. in Engineering Education from Virginia Tech. His research has focused on mentoring as pedagogy for project-based courses and understanding the adult learning characteristics of undergraduate students.Dr. Kari L. Jordan, Embry-Riddle