management in the design process. An additional question raised by Lee regarding the means and methods of providing studentswith “cost awareness” is inconclusive and reflects the diversity of the professionals surveyed. Insummary, Lee states architectural design education is more focused on the ideology of designinstead of socially responsible design, inferring that teaching students the relationship betweendesign and costs is both appropriate for the development of students who will be practical emerg-ing professionals. Davis, Fuller and Petry discuss the importance of making their architectural engineeringtechnology curriculum more integrative to reflect the actual practice of architecture that studentsemerging as professionals will
in the modern context. Although entrepreneurship has traditionallybeen a focus primarily in business curriculum, engineering programs have recently recognized itsvalue for developing important skills in engineering students such as collaboration,communication, and creativity. However, unlike design, the implementation of engineeringentrepreneurship into traditional engineering departments is not yet widespread, due to limitedtime and space within both curricula and individual courses, and due to difficulties adaptingentrepreneurship education pedagogies to be useful in an engineering context.In this work, we discuss Lean Launch, an entrepreneurship curriculum that can be easilyimplemented into engineering programs and which shares many
Education, 2016 Promoting the Entrepreneurial Mindset through Faculty DevelopmentAbstractOur university is part of a group of about 20 universities that are seeking to improve ourgraduates’ capabilities by helping them to develop an entrepreneurial mindset while they are yetstudents. While technical knowledge is essential to engineering, engineers will be more likely tofind success and personal fulfillment when they couple these skills with a mindset to createextraordinary value for others.This perspective is not innate to many students, but they can be exposed to these concepts usingthe curriculum, if faculty themselves know how to do this. This leads to the critical issue ofappropriate faculty development. Our program is committed to
from engineering, education, psychology, computerscience, and technology departments. Possible topics to be included in these courses are:• TEAMING IN THE ENGINEERING CLASSROOM• SERVICE LEARNING AND ENGINEERING• PROMOTING DIVERSITY IN ENGINEERING EDUCATION• ENGINEERING CURRICULUM AND CURRICULAR MATERIALS DEVELOPMENT (UNDERGRADUATE/GRADUATE)• INSTRUCTIONAL STRATEGIES USING COMPUTERS• ENGINEERING EDUCATIONAL LITERATURE AND LITERATURE REVIEW• EDUCATIONAL METHODS IN ENGINEERING• DESIGNING ENGINEERING OUTREACH PROGRAMS Page 9.457.6• TEACHING ENGINEERING TO K-12 Proceedings of the 2004 American Society for Engineering Education
AC 2012-3766: A COURSE FOR DEVELOPING PERSONAL SOFTWAREENGINEERING COMPETENCIESTom Reichlmayr, Rochester Institute of Technology Tom Reichlmayr is an Associate Professor in the Department of Software Engineering at the Rochester Institute of Technology. Prior to transitioning to his academic career, he worked as a software engineer in the process automation industry in a variety of roles over a span of 25 years. His teaching and research interests include the development of undergraduate software engineering curriculum, especially at the introductory level. Of primary interest is the study of software development process and its application to course curriculum and student team projectsProf. Michael J. Lutz
faculty.III. 1999 – 2000 Professional Development SeriesIn the fall of 1999, a graduate engineering student coordinator and an engineering faculty advisorimplemented the series, with some administrative and financial support from the NU PFFprogram. Under the guidance of the coordinator and advisor, the PFEF participants identified sixtopics of interest to most future engineering faculty: • Hiring • Tenure • Teaching/curriculum reform • Grant writing • Service • Different types of institutionsThree events were scheduled in the fall, and three in the spring, each lasting one and one half totwo hours.The coordinator and advisor met periodically (once or twice per month) to discuss possiblepanelists and administrative
in Wyoming’s public schools.This paper outlines the process for curriculum development, problem solving, and instructionalstrategies employed by those NWC faculty teaching the cohort. The experiences of the teachersenrolled in the first cohort will be a topic of future study.CODING IS THE NEW COAL 3 Coding Is the New Coal: A History of Integrating Compute Science in Wyoming Two contributing factors have guided the move to introduce computer science intoWyoming’s K-12 curriculum. The first was the decline of Wyoming’s primary industry, theproduction of coal and the 20% reduction in demand as the production of electricity moves tonatural gas or other
well as senior design projects forstudents to apply the skills learned from these courses in real-world projects.The following sections are organized into four sections: first, we presents an overview of aconstruction project development cycle and a number of engineering tasks posing challenges toconstruction engineers; second, we describes a number of sensing and modeling technologiesthat can address the challenges described in the previous section; third, we discusses whatchanges we had made on our curriculum to incorporate these identified technologies into thelearning process; finally, we summarize the lessons learned and presents a plan for keeping onthis systematical updates of the presented Construction Engineering
design-related curriculadevelopment and implementation activities of the various Engineering Education Coalitionssponsored by the National Science Foundation2.The Recent Curriculum RevisionIn 1998 the Stevens faculty started implementation of a revised engineering curriculum to buildupon the experience with the Design Thread, to strengthen the core sequence and to providebetter alignment with ABET Criteria 2000. The revision had its origins in an Institute-widestrategic planning activity that, for the Engineering Curriculum, reaffirmed the core valuesassociated with the Stevens tradition of a large, broad-based core while allowing foraccreditation in various engineering disciplines.Curriculum Development ProcessThe curriculum revision was a
Paper ID #26619Internet of Things Curriculum Workshop: An Interdisciplinary, Cross-InstitutionalEffort for Education in an Expanding FieldDr. Harold T. Evensen, University of Wisconsin, Platteville Hal Evensen earned his doctorate in Engineering Physics from the University of Wisconsin-Madison, where he performed research in the area of plasma nuclear fusion. Before joining UW-Platteville in 1999, he was a post-doctoral researcher at the University of Washington, part of group that developed automation for biotechnology. His recent research includes carbon nanotube electronics.Dr. Molly M. Gribb P.E., University of Wisconsin
Mechanical Engineers” andoffered it to undergraduate and graduate students at the University of Arkansas. While thiscourse is received very well by the students and has led to fruitful presentations and publications,it has a low enrollment volume from undergraduate students due to its relatively highprogramming requirements. A more sophisticated strategy is required to equip mechanicalengineering students with data science skills without disturbing the existing curriculum. Inspiredby the success of computer-aided design education at the University of Arkansas and the DataScience InFusion into Undergraduate STEM Education (DIFUSE) program at DartmouthCollege, we have developed course-specific machine learning modules to be integrated intomechanical
. Coyle is the founder and director of the Center for Technology Roadmapping at Purdue University. This Center was created in the Fall of 2001 to foster research and education in the areas of technology roadmapping and technology management. The center supports a website, http://roadmap.itap.purdue.edu/, that provides services for the collaborative development and public posting of technology roadmaps.Joy Krueger, Purdue University Joy Garton Krueger serves as Visiting Assistant Professor within the Purdue University College of Engineering, Department of Engineering Projects in Community Services (EPICS). Initially prepared at the undergraduate level as a science and mathematics
Curriculum for High School FemalesAbstractComputer Science (CS) Frontiers is a 4-module curriculum, 9 weeks each, designed to bring thefrontiers of computing to high school girls for exploration and development. Our prior work hasshowcased the work in developing and piloting our first three modules, Distributed Computing,Artificial Intelligence (AI), and the Internet of Things (IoT). During the summer of 2022, wepiloted the completed curricula, including the new Software Engineering module, with 56 highschool camp attendees. This poster reports on the newly developed software engineering module,the experiences of 7 teachers and 11 students using the module, and our plans for improving thismodule prior to its release in
beimplemented in a more comprehensive manner across the Bioengineering curriculum, andmapping topics across the 4-year curriculum, in integrated core classes, as well as throughtrack/concentration-specific courses and technical electives. In addition, we initiated a “customerdiscovery” process, through which the key stakeholders, the Bioengineering students and facultymembers, were surveyed to provide input about course topics for which achievement of studentlearning objectives was particularly challenging. The results of this survey presented us with theopportunity to target curriculum development for specific topics in multiple courses, across thecurriculum with the goal of students gaining a more complete understanding of the material. Ourefforts
Paper ID #43606Utilizing Micro-Credentials to Infuse Renewable Energy Concepts into EngineeringTechnology CurriculumDr. Khosro Shirvani, State University of New York, Farmingdale Khosro Shirvani, Ph.D. is an assistant professor in the Mechanical Engineering Technology at Farmingdale State College (FSC). His research areas include Tribology, Additive Manufacturing of Metals, Renewable Energy, and Engineering Education. Since 2011, He has worked on projects sponsored by The Boeing Company, the National Institute of Standards & Technology, and National Science Foundation. Over the past 8 years, he has developed and taught
developed the prototype fortoday's typical industrial engineering curriculum, with its emphasis on operations research toolsof analysis. Industrial engineering academic professionals from across the United Statesparticipated in the study led by Robert Roy, Dean of Engineering Science at Johns HopkinsUniversity. The rapid and almost universal adoption of the Roy model for the industrialengineering curriculum speaks to the willingness of industrial engineers to implement soundacademic models.The study led by Roy was based on the following mutually agreed upon definition of industrialengineering, as officially adopted by the American Institute of Industrial Engineers (AIIE) in1955: Industrial Engineering is concerned with the design, improvement
Session 3613 TS/5 Integration of Aspenplus (and other Computer Tools) into the Undergraduate Chemical Engineering Curriculum Krishnan K. Chittur, Ph.D. Chemical and Materials Engineering Department University of Alabama in Huntsville Huntsville, AL 35899 (205) 890 6850 (V), (205) 890 6839 (F) kchittur@che.uah.edu - http://www.eb.uah.edu/~kchittur http://www.eb.uah.edu/che/SummaryThe development of the microprocessor has changed the way we approach undergraduateeducation. Our students can now be
general.The skills associated with an entrepreneurial mindset fall into three main categories,Opportunity, Design, and Impact (Table 1). Of these, the skills associated with design arealready integrated into our engineering curriculum to various degrees of success, thebiggest example being the capstone design experience usually positioned in the senioryear. Additional design experiences in the earlier years also exist in many curriculums,but in most cases the focus is on developing a purely technological solution to aspecifically stated need. The skills associated with discovering opportunities, assessingtheir potential impact, are acting upon viable opportunities are rarely, if at all, covered inthe standard engineering curriculum. Doug Melton, KEEN
education programs from NASA, in conjunctionwith our university faculty expertise.This paper discusses the INSTRUCT program, current development and integration of theNASA STEM content into the existing course curriculum; teaching and delivery of the enhancedcourse content, evaluation, outcome and impact on the student stimulation of the learning,understanding, engagement and success. The success and impact of the project includesformative and summative evaluation of the project goals, as well as long term tracking ofselected students on the influence of the INSTRUCT program in motivating them to pursueSTEM based higher education and careers. This potentially could lead to a long term societalimpact by increasing the number of underrepresented
MEpositions have been filled, resulting in a new culture open to change and program improvementswithin the M&IE department.The MET program remains committed to the goal of preparing graduates to immediatelycontribute to industry upon graduation, as well as to prepare graduates for continued success intheir chosen careers. To meet this commitment, the MET program at MSU must continuallyevolve and improve. This paper will detail the process and outcome of a curriculum reformexercise undertaken to develop a framework for the future MET program designed to betterprepare graduates for entry into the evolving job market with the required skills to succeed.MethodologyThe MET program at MSU chose to obtain accreditation under the ABET TC2K criteria in
planning grant for curriculumreform. The goals of our curriculum redesign are to maintain our curricular flexibilitywhile introducing a theme-based structure focused on major concepts and principles, andto integrate this theme throughout the core and the technical focus areas. This theme,Integrated Sensing and Information Processing, reflects the active research areas of themajority of the ECE faculty, and embodies key concepts of all components of ECEwithin a real-world framework. During the planning phase, we developed andimplemented an assessment plan and obtained baseline results, investigated modernpedagogical techniques and integration approaches, and defined a process for ourcurriculum redesign. In 2004, NSF awarded Duke a curriculum
college andother university settings and implemented in a total 15 institutions and 59 cumulative classes.Some of its perceived sources of effectiveness include the industrially situated context which isreinforced by the budget, and the components that afford students the ability to quickly andeasily collect authentic data. This preliminary report suggests that this learning environment mayhave the potential for widespread adoption and adaptation; however, additional research isneeded.IntroductionTransportability is a widespread goal of education research and curriculum development. If anintervention is effective in one environment, many developers want to share the intervention withother teachers and institutions to have a larger impact and
Notre Dame.II. Design of the Engineering Learning CenterTo achieve the goals set forth for the Learning Center, the Dean of the College appointed aSteering Committee with members from each of the College’s departments and chaired by theAssociate Dean for Educational Programs. This group was tasked with the development of thenew first year courses and the Learning Center concept. These were parallel and complementaryprojects as one of the primary initial roles of the Learning Center was to support the new FirstYear curriculum initiatives. At the same time, the Dean of the College worked with theUniversity administration to secure space and financial support for these efforts.It was determined that academic program needs and available resources
Paper ID #34912Adapting Soft Robotics Outreach to Teacher-Delivered Curriculum in theVirtual Classroom (Work in Progress)Ms. Sapna Shah, Harvard UniversityMr. Alex Beaudette, Harvard UniversityMr. David R. Bergandine, University of Illinois Laboratory High School Chemistry Teacher University Laboratory High School 1984 - 2021Savindi N. Devmal , University of Illinois Laboratory High School Savindi Devmal is a student at the University Laboratory High School in Urbana, IL. Savindi’s interests include bioengineering and soft robotics, and she is the recipient of the Barbara Lazarus award to develop bioprinters for soft
learning, structure and use of class time,presence of technology, use of case-based learning and team-oriented problem solving.Some of these characteristics, such as the use of cases with team-oriented learning workto complement and support each other. Ideally, a different class culture is developed thatis more dynamic and cohesive.Summary Comparison: Educational vision and program structureAttribute/Outcome Weekend Format Traditional FormatObjectives of overall Student’s focus is collaborative Student’s focus is personalMaster’s Program with company development developmentVision of Curriculum Focused to meet industry/student Focused to meet academicDesign
,Journal of College Science Teaching 35 no3 N/D 2005 34-38[5] Fend, H., and Scheel, K. (2006). Engaging Students, Journal of College Science Teaching, 35 no1 S 2005, 20-24 [6] Gordon, P. R., Rogers, A. M., Comfort, M., Gavula, N., and Mcgee B. P., (2001). A taste of problem-based Page 12.1404.12learning increases achievement of urban minority middle-school students. Educational Horizons, 79, 171-175.[7] Kolb, D. (1985). The Learning Style Inventory (2nd ed.), Boston, MA; McBer.[8] Krynock, K. B., and Robb, L., (1996). Is problem-based learning a problem for your curriculum? Illinois SchoolResearch and Development Journal, 33, 21-24[9
and Applied Science at Queen’s University where he works on engineering curriculum development, program assessment, and developing educational technology. He is also a Professor in Electrical and Computer Engineering. c American Society for Engineering Education, 2020 Cognitive Skill Development Among Undergraduate Engineering StudentsAbstractThis research paper addresses assessment of numeracy and literacy among engineering students,which are core to problem solving and critical thinking, but challenging to consistently measure.The Essential Adult Skills Initiative (EASI) was a research project involving 20 Canadian post-secondary institutions, designed to measure the
design thinking workshops for higher education faculty/administrators at the Stanford d.School as a University Innovation Fellow, coaches a global community of learners through IDEO U, and fails miserably at cooking.Dr. Chell A. Roberts, University of San Diego Chell A. Roberts is the founding dean of the Shiley-Marcos School of Engineering at the University of San Diego. He assumed his duties in July of 2013. He was also recently appointed as the Associate Provost of Professional and Continuing Education. As an engineering dean at USD, Dr. Roberts has led the development of a new school of engineering, developing innovative engineering space, growing a world class faculty, and creating a base of industry and
2017 ASEE Gulf-Southwest Section Annual Conference Environmental Sustainability in Developing Economies – The Nigerian Perspective Dr. Patricia Polastri and Mr. Olugbenga Awonuga Texas A&M University - KingsvilleAbstractResearch studies show that developing countries contribute to environmental pollution.Governments, in an attempt to protect the environment impose regulations, but many times theseare ignored and/or not enforced. Nigeria, a country rich in oil and natural resources is not anexception. The Nigerian government supplies only about 10 percent of the electricity needed inthe country, forcing Nigerians to utilize
San Jose State University Page 24.391.2 Developing and Implementing Effective Instructional Stratagems in STEMAbstractA student passage rate from 65% to above 90% requires student grade improvement of two-sigma. The different components of active learning techniques and the percentage of theiradditive standard deviations were considered over the past four semesters in an “Introduction toCircuit Analysis” course at San José State University (SJSU) to achieve such a result. A blendedmodel of learning by merging content from an online MOOC with in-class, team-basedinstruction as part of a required undergraduate circuit theory course