, simulationof entrepreneurial activity may also occur earlier in the ME curriculum [2]. Pre and post studentsurveys show no statistically significant change in entrepreneurial affects resulting from thisinteraction, though. Unsurprisingly, the literature holds examples of pedagogy meant toencourage potential enterprises based on engineering innovation. Wang and Kleepe describe acapstone course for ME and EE seniors that incorporates legal, financial and venture capitalconsiderations alongside engineering prototyping as part of an effort to develop a new product[3]. Their qualitative and quantitative assessments of the educational intervention found that itmet their learning objectives using a format desired by their students. Moreover, the
achieve the mission objectives, and build an engineering development unit(EDU) model of their satellite design. Finally, the EDU model's performance is evaluated bythe students in a thermal vacuum chamber, which simulates on orbit temperature and vacuumconditions, and on a vibration table, which simulates launch conditions. In this study, weevaluate the concept of modifying this hardware intensive graduate course so that it can beimplemented at the undergraduate level. To serve as an example for this study, researchers atAFIT and the United States Air Force Academy (USAFA) are evaluating the possibility ofincorporating AFIT’s design/build sequence into USAFA’s undergraduate astronauticalengineering curriculum. The proposed hardware-based
. c American Society for Engineering Education, 2019 A Continued Effort in TI ARM M4 Microcontroller Curricula Development and Assessment between Three Different Institutions and ProgramsIntroduction This article addresses curriculum design activities that are based on the initiatives fromNSF funded projects that focused on cyber-enabled collaborative learning in the academiccommunity. The curriculum development initiatives addressed the disappearance of the popular68XXX and 80XXX microcontroller and microprocessor families. These aging microcontrollersand microprocessors have become an instructional issue and concern in the engineeringeducation community. Everyone agrees that technological change in microcontroller
high schools into the Engineering Technology programs at the College. The secondproject developed and made available alternative energy modules to both secondary schools andcolleges. These modules could be incorporated into existing courses or used as components of analternative energy course. The current project includes professional development in robotics forK-12 teachers, summer camps for middle and high school students, and the development of twocourses in robotics that are curriculum components of the Middle College for high schoolstudents and the College’s Mechatronics program. Resources developed include models ofcurriculum pathways, programs of study, Middle College programs with connections to STEMeducation both at the College and at
National Science Foundation (DUE # 0602710), thiswebsite is becoming the one, central “go to” place for those offering faculty development andthose seeking faculty development.This website is being developed as a service to the nation by the South Carolina AdvancedTechnological Education (SCATE) Center of Excellence at Florence-Darlington TechnicalCollege, Florence, South Carolina. Increasing the quantity, quality, diversity of students enteringengineering technology programs has been the vital mission and vision of the SCATE Center ofExcellence since its inception in 1994. To accomplish this mission, the Center has developedresearch-based curriculum models that have produced significant improvements in retention,graduation rates, and industry
AC 2008-2378: PHYSICS FUNDAMENTALS, ENGINEERING DESIGN, ANDRESEARCH: AN INTEGRATED APPROACH TO THE DEVELOPMENT OF ATHREE-WEEK SHORTCOURSEWinston Jackson, California Institute of Technology Winston Jackson received his BS in Civil Engineering from Southern University and A&M College and his MS degree in Applied Mechanics at the California Institute of Technology, where he is currently continuing his PhD work. His research is in the area of experimental solid mechanics, and he has been a teaching assistant for a course in solid mechanics as well as the Physics Curriculum Coordinator for the 2007 YESS Program.Jennifer Franck, California Institute of Technology Jennifer Franck is currently a
addresses the skills continuum in three main parts: a) Part I addressesthe Direct Leadership Skills and Actions required for Engineering Levels [1-3]; b) Part II addresses theOrganizational Leadership Skills and Actions required for Engineering Levels [4-6], and; c) Part IIIaddresses the Strategic Leadership Skills and Actions required for Engineering Levels [7-9]. The overallanalysis sets the foundation for building a coherent professional graduate curriculum and dynamiceducational process reflective of how experienced engineering professionals learn, grow, and create newtechnology in industry. This paper addresses Part III: the Strategic Leadership Function, Skills andActions that the engineer must learn and develop at Director of Engineering
],specialized certificate programs [6, 7], and university-level courses and curriculum developmentfor semiconductors [8, 9]. Efforts include both domestic single-institution programs andinternational multi-institutional collaborations [9, 10]. Depending on the type of school and thetarget audience, semiconductor education employs different formats, including modular courses,full-semester classes, specialized semiconductor tracks, and independent curricula [11]. Inengineering education, local workforce development faces significant challenges, particularly inaddressing the shortage of skilled engineers. This talent gap makes it difficult for companies,especially small to mid-sized businesses in high-demand fields like semiconductors, to find andretain
rapid development of two major school system collaborations inneighboring counties of UMD. The first consideration is the integration into the school system’scurriculum and building the program within the schools’ existing infrastructures. One schoolsystem implements the kits through a two week summer bridge program for students entering 9thgrade, and the second incorporates the kits into their coursework during the academic year. TheUMD team provides implementation support to teachers and administrators. Teacherco-development of the componentry and curriculum is a major program characteristic. Anotherelement of discussion is the progression of the culminating event logistics through the evolutionof the COVID restrictions spanning
traditional disciplines, including engineering and physical sciences,to perform research focused on the micro to macro-level fabrication and regeneration of tissues.While this field has continued to grow since the 1970’s [6], it faces challenges shared by otherinterdisciplinary fields when trying to develop and implement curriculum for interdisciplinaryprograms.Rapid growth in interdisciplinary fields and subsequently interdisciplinary academic programshas created programs with ill-defined disciplinary skills for students graduating from thoseprograms [7]. As a result, interdisciplinary engineering program graduates regularly pursuecareers outside of traditional engineering jobs [8], often making career trajectories unclear aftergraduation [9]. In an
undergraduate students are made up of engineering and computerscience majors from the university. These students are referred to the PI of the lab based on theirlevel of professionalism in the classroom, self-efficacy, time management, and overall well-rounded student. The undergraduate students are interviewed and then finally hired as studentemployees of the lab. In addition, the research assistants receive aid from the GEMS director.The curriculum of Coding Academy has traditionally centered around the basics of programmingin Python, with emphasis on the development of solid fundamental programming skills [6], [7].In the latest iteration of Coding Academy, the curriculum emphasized multiple-day projects andteamwork to capitalize on the student's
as designing and testing of propulsion systems including design and development of pilot testing facility, mechanical instrumentation, and industrial applications of aircraft engines. Also, in the past 10 years she gained experience in teaching ME and ET courses in both quality control and quality assurance areas as well as in thermal-fluid, energy conversion and mechanical areas from various levels of instruction and addressed to a broad spectrum of students, from freshmen to seniors, from high school graduates to adult learners. She also has extended experience in curriculum development. Dr Husanu developed laboratory activities for Measurement and Instrumentation course as well as for quality control undergraduate
of future STEM generations.IntroductionThe changing landscape of academia presents challenge in ensuring graduate trainees areproficient in the development of professional skills outside of the research environment [1]. Thisincludes capacity for knowledge translation of research outcomes to a non-expert audience,curriculum development, and effective project management [2]. Consequently, in preparingfuture faculty to assume academic roles and responsibilities successfully, post-secondaryinstitutions have shifted greater focus to providing teaching development programs for traineeprofessional development [3]. This is particularly important given the competitive nature ofsecuring an academic position. With increasing diversity of academic
presents anddiscusses the multi-faceted approach applied by the Clemson University when developing itsautomotive engineering program. The presented study will first discuss the special attributes ofthe automotive industry that render it the most aware and sensitive to the global context.Subsequent sections will introduce the curricula development while highlighting its globalaspects and the operational plan set in place to ensure the delivery of such curriculum.2-‐ The Global nature of the automotive industry Inspecting the automotive industry and its operating environment; specifically its customer base,governing bodies, and competition style, demonstrates following unique attributes that makesuch industry most globally aware:- Market
comprehensive lower-divisionengineering curriculum, even at small-to-medium sized community colleges. This wasaccomplished by developing resources and teaching strategies that could be employed in avariety of delivery formats (e.g., fully online, online/hybrid, flipped face-to-face, etc.), providingflexibility for local community colleges to leverage according to their individual needs. Thispaper focuses on the iterative development, testing, and refining of the resources for anintroductory Materials Science course with 3-unit lecture and 1-unit laboratory components. Thiscourse is required as part of recently adopted statewide model associate degree curricula fortransfer into Civil, Mechanical, Aerospace, and Manufacturing engineering bachelor’s
” completing marathons on 7 of 7 continents including Comrades (the Ultimate Human Race) in South Africa. c American Society for Engineering Education, 2019 Work in Progress: Development of a biomedical engineering concentration area within an integrated engineering major emphasizing sociotechnical thinkingIntroduction. In this ‘Work in Progress’ paper, we present our efforts to develop a newconcentration area in biomedical engineering (BME) within a newly created IntegratedEngineering major at The University of San Diego (USD), which has been a “Changemaker”-designated campus since 2011. The goal with the development of our BME concentration area isto provide students with an engineering curriculum
, sustainable materials, and resilientinfrastructure. Recognizing the importance of fostering SL among engineering students tobuilding a sustainable future, this study aims to: (1) measure the current level of sustainabilityknowledge among undergraduate and graduate engineering students at a higher educationinstitution in Colombia, and (2) compare these scores against benchmarks at the university,national, and global levels.This comparative analysis will provide valuable insights into the effectiveness of currentsustainability education efforts and inform future curriculum development. Furthermore, thisresearch will contribute to a broader understanding of how engineering education can be betteraligned with the urgent need for sustainable solutions. A
. Thiscan be true for both facilitators and student participants. Developing curriculum is anotherchallenge. Schuman and Shannon (2018) noted that many K-12 science and math teachers usehandouts and memorization exercises instead of active learning activities in their lesson plans.Those types of passive activities leave students disengaged and less interested in careers in mathand science. The learning activities used in these outreach programs must be active to capture theattention of the student participants. Lastly, the long-term success of outreach programs isdifficult to document. Tracking student participants over time is challenging. Hendrickson et al.(2020) discovered outreach programs are effective in the short term but don’t translate to
Technology in Newark, NJ, and Associate Vice President for Academic Affairs. He has been Executive Driector for the Center for Pre-College Programs at NJIT for over 30 years. Dr. Kimmel has had numerous NSF grants and State grants focusing on professional development, curriculum, and assessment.Linda S. Hirsch, New Jersey Institute of Technology LINDA S. HIRSCH is the Program Evaluator in the Center for Pre-College programs. She has a doctoral degree in educational psychology with a specialty in psychometrics and a Masters degree in statistics. She has been involved in all aspects of educational and psychological research for almost 20 years. Dr. Hirsch has extensive experience conducting longitudinal research studies and
curriculum was created to develop a new four-year MechatronicsEngineering Technology (ET) degree program. Specifically funded by the DoD entity formallyknown as the Office of Economic Adjustment, the new baccalaureate degree program provided ameans for military-affiliated students to obtain a technical education at the four-year level inpreparation for employment in regional industrial facilities. Under the grant, the degree programwas to follow the Siemens Mechatronics Systems Certification Program (SMSCP) that offeredstudent certification via an examination provided by Siemens in a tiered-level system, with Level3 being reserved for the baccalaureate degree programs. The authors' home institution's ETdepartment was chosen to host this SMSCP Level
Paper ID #36673Development of a biomedical engineering course for high school studentsusing a framework of student-centered pedagogyDr. Marjorie Letitia Hubbard, North Carolina School of Science and Math Dr. Marjorie Letitia Hubbard is a member of the engineering and research faculty at the North Carolina School of Science and Math (NCSSM) in Durham, North Carolina. As an engineering instructor at NCSSM, Dr. Hubbard has taught a variety of residential and online biomedical engineering courses, and she is also engaged in developing and implementing curriculum to prepare students for success in the research environment. For the
byexposing the learner to Excel, MATLAB, and math. First-year students are introduced to Excelduring the first few weeks of the course and then expected to complete official Microsoft OfficeSpecialist Exam Certification in Excel through the university’s IT student computing service.First-year students concurrently develop programming skills using MATLAB, and strengthenmath skills through engineering applications.Development of the new model began in August of 2018 and was first incorporated into theexisting first year computer programming for engineers class at the university during the Fall2018 semester. New ideas, activities, and materials were tested. The successful ones were used inthe Spring 2019 curriculum, while unsuccessful ideas were either
strengthenSingapore's restructured economy's industrial labor force in the 1960s (Teo, 2019). As a smallnation with limited land and no natural resources, it invests heavily in its human resources.Education in Singapore has always been allocated the second highest budget and is regarded as a"technology of hope" in Singapore (Teo, 2019). Against a global environment where STEMemployment will dominate the future, there is an increasing urge to develop STEM skills inresponse to future employment demands. According to Singapore's Prime Minister Lee HsienLong's speech, developing STEM skills is essential to Singapore's economic prosperity. (Lee,2015). Although Singapore does not have a STEM curriculum framework, MOE (Ministry ofEducation) Singapore has enriched
skills necessary to make immediate contributions. A review of thatimperative identified a gap in the engineering curricula: there is a lack of “systems” level designexperience that requires engineering students to synthesize what they have learned in theircurriculum and extend their knowledge outside their field of study through independent learning.In an attempt to address this issue in the computer engineering curriculum at Cal Poly, we arebuilding a pipeline in the curriculum to properly prepare and engage students in project-basedlearning activities. More specifically, we are developing a new electronics design andmanufacturing course, a new introduction to systems design course, and incorporating a scalablesolution to project-based learning
. ENG6 is a required lower division course that teaches basic programmingconcepts to electrical, biomedical, mechanical, aeronautical, and civil engineering students.Because computer science and computer engineering students are not required to take thiscourse, most students have little familiarity with programming. Some are also not motivated tomaster programming concepts, since they view software design as being outside the corecompetencies required for their chosen disciplines. Increasing student engagement was anothermotivation for developing the new curriculum, including the creation of hardware-basedexercises and projects described in the sections below.The course utilizes MATLAB programming exercises and projects to teach engineering
(Epicenter), an NSF-fundedpartnership between Stanford University and the National Collegiate Inventors & InnovatorsAlliance (NCIIA), is to enable engineering programs at institutions across the U.S. to developeffective and accessible innovation and entrepreneurship offerings for undergraduate engineeringstudents. To achieve this goal, Epicenter staff members are creating the multi-year, team-basedPathways to Innovation program to support institutional change and faculty development byembedding entrepreneurship and innovation education into formal and informal undergraduateengineering curriculums in higher education.During the summer of 2013, Epicenter engaged Broad-based Knowledge, LLC to conduct anindependent literature review to identify
engineersdedicated to education. The curriculum follows the modular international engineering educationcurriculum that attends fully the education rules for the university level of formation in thecountry. It is a very dynamic and rich program, developed in modules, followed in severalcountries in the world. It follows the trend of global formation of professionals, mainly to attendthe need of a prepared engineering educator to act in the several different cultural environments,which mobility has imposed as a fact of life for researchers and teachers at graduation level. Newcompetencies of educators are needed such as: evaluation management; developmentcompetencies; communication skills; teamwork; ethics and intercultural competencies. Thisengineering
Paper ID #36687Design of An Interactive Scenario-Based TechnicalManagement Communication Course - A Unique Addition toFuture Engineering Leaders’ ToolboxWei Lu (Dr.) Dr. Wei Lu is a Curriculum Manager in the Department of Engineering Technology & Industrial Distribution at Texas A&M University. Her research focuses on Higher Education, instructional design, community engagement & service- learning, eLearning & distance learning technology, K-12 (STEM) Education, Communications, Marketing, and Social Economics. She has been involved in several projects that collaborate with non-profit organizations like
has been the pattern in U. S. education. The developers of theStandards propose that fewer topics be taught to a deeper conceptual level, so that studentsdevelop an understanding of the big ideas, which can then be applied to other areas. Oneemphasis of the science Standards is on teaching science as a process of inquiry, honoringstudents’ prior understanding of the natural world around them and building upon that byallowing students to investigate questions they themselves frame. When teachers and schooldistricts develop their science and math core curriculum around the Standards, a more coherentprogram of instruction emerges; equity for all students and excellence of instruction areachievable
systems community.AcknowledgementSome of this material is based on work supported by the National Science Foundation underGrant No. 0203459.References[1] “2009 Update: Radio Frequency and Analog/Mixed Signal Technologies for Wireless Communications”,International Technology Roadmap for Semiconductors, http://www.itrs.net/, 2009[2] “Software defined radio project for the first year ECET student”, P. Goodman, Proc. 2007 ASEE Conference,June, 2007.[3] “Experiences with student-developed software-defined radios in the Smart Radio Challenge”, S. Bilen and O.Azarmanesh,, Proc. 2010 ASEE Conference, June, 2010[4] “Multidisciplinary Senior Design using Software Defined Radio”, W. Birmingham, Proc. 2009 ASEEConference, June, 2009.[5] "Curriculum and