students develop ideas based on opportunities they identify inorder to validate a market and assess the creation of value. The winner is often offered a“contract” to produce the product for university purposes [14] .Some schools integrated EML in their course projects. The authors of the paper “EntrepreneurialMindset and the University Curriculum [15]” applied technology based dynamic live case studywith color graphics animated computer simulation in their entrepreneurial course. The live casestudy involves multiple student visits to existing companies. Students construct a companysupply chain under the professor’s guidance. Bilen, et al suggested to provide students withmultiple exposures to what it means to have an entrepreneurial mindset [16
University, and presently atLawrence Technological University, Southfield, Michigan. Due to his extensive education, Prof. Hassan taughtalmost every undergraduate course in the electrical and computer engineering curriculum and taught many graduatecourses including: Engineering Analysis, Image Processing, Computer Vision, Artificial Intelligence, Very LargeScale Integration, Computer Aided Design of Integrated Circuits, Network Synthesis, Digital Control Systems,Digital Communications, and Optical Communications. Dr. Hassan is also serving as a consultant for localcompanies in these technical areas. He is a Senior Member of IEEE and IEEE Computer Society since 1993,member of Sigma Xi, Tau Beta Pi, Eta Kappa Nu, and a registered Professional Engineer
and liberal educationalgoals within the context of engineering education.This paper provides an overview of contemporary work in digital humanities involving makingactivities and the potential of this work to inform engineering education making activities in away that bridges technical and humanistic concerns. It highlights how making practicesthemselves can be understood as a form of inquiry, with modalities drawing on—but distinctfrom—traditional engineering and humanities epistemologies. The paper draws on a largerresearch-and-teaching initiative at Rensselaer titled, “Making as Critical Inquiry,” which iscurrently being integrated into our interdisciplinary undergraduate Programs in Design andInnovation (PDI). PDI has a well-established
consider the usefulness of traditional science and technologycurricular materials for K-8 educators who are interested in addressing engineering contentstandards.This paper describes an analysis of selected K-8 science and technology curricula in the contextof teaching engineering. The set of curricula considered here is a convenience sample: an onlinedatabase of K-8 science and technology textbooks and teacher’s guides that have been reviewedby the Educator Resource Center at the Museum of Science, Boston, according to theirappropriateness for teaching about engineering. Each curriculum was previously evaluatedaccording to 20 criteria by the Educator Resource Center (ERC). These 20 evaluation parametersmeasure six key characteristics: coverage of
AEprograms while 20% (n= 3) were from 5-year programs. Two of the programs have both 4 and 5-year program options for students, and four programs have integrated Bachelor/Master Degrees. Note: Blue Marker indicates an AE programs, and Green Pin indicates AE programs that responded to survey Figure 1: ABET accredited AE programs in the United StatesCurriculum Placement of the CapstoneCapstone courses are meant to showcase a student’s accumulation of knowledge and applicationof this knowledge to a design project. To accomplish this, almost every program has their capstonecourse occurring within a single year in the curriculum, either in a single semester or over twoconsecutive semesters. In surveying the programs, we asked where
theoretical response. All data acquisition and analysis is done usinga custom built Labview virtual instrument. This fundamental experiment from the vibration areais used at McNeese State University in many different ways throughout the mechanicalengineering curriculum. First, it is used in the freshman level Introduction to Engineering courseas an example of a typical modern engineering laboratory set up. Second, it is a very populardemonstration used in the sophomore level Strength of Materials course during the discussion ofstress-strain relations and how strain measurements are used to derive information about stress.Third, it serves as an example of transducer integration in the junior level EngineeringMeasurements Laboratory, illustrating
knowledge of effective teaching methods grows.Asynchronous OptionIn the first year of the course, an asynchronous online option was offered, and even heavilyencouraged due to the ongoing COVID-19 pandemic. The learning method for this course wasentirely reliant on the prescribed SolidWorks videos, and since it was during the first year, itconcurrently followed the in-person curriculum. As this was the first time the course was beingoffered, it was believed that an asynchronous option would increase participation, as studentsmay be unable to return to campus for evening sessions. The student leader who sent out emailsprovided the asynchronous cohort with weekly emails to provide structure and encouragement topersist with the videos and
and contemporary BME knowledge; and ‚ to enhance their comprehension of core ECE concepts by applying such concepts to multidisciplinary real world problems in medicine. Integrating such novel content into an existing core curriculum, we believe, can not onlyhelp us achieve these objectives, but also allow us to do so with very little or no additionalresources. The proposed approach is essentially to develop a set of experiments, designed todemonstrate novel concepts, integrated into select core curriculum courses, to complement anyelectives that may be offered in such an area. In our case, we designed the experiments to exposestudents to various BME concepts and associated relevant topics of underlying physiology
, components that the majority of engineeringdepartments are adopting include rapid prototyping tools, such as additive manufacturingmachines (3D printers) and laser cutters [3], [4].Makerspaces and Engineering Education. Makerspaces have become popular withinengineering education. Integrating a makerspace into an engineering curriculum can be adaunting task given the scope and sequence of university engineering coursework. Recentresearch found that over a three-month period, students who took part in a course that integrateda class project within the makerspace were positively and significantly impacted in the domainsof technology self-efficacy, innovation orientation, affect towards design, design self-efficacy,and belonging to the makerspace [5
have been enriched with an updated experimentallaboratory sequence, which include three 2-hour courses: 1) Mechanics Laboratory, 2) ThermalFluids Laboratory, and 3) Aerospace or Mechanical Laboratory. The first two courses were de-signed to supplement lecture-based theory courses during the same semester students are takingthem. The third course challenges students to design and execute their own experiments, buildingupon skills they learn in the earlier labs. Thus, the new sequence includes horizontal integrationwith discipline courses across the curriculum, and vertical scaffolding of skills related to experi-ment design and analysis.The Mechanics Laboratory course was offered to the first cohort in Spring 2019. It was designed togive hands
understand their role in sustainability.This paper explores one way in which engineers can to be educated in sustainability—service-oriented learning.BACKGROUNDSustainability is slowly but surely finding its way into university curricula. An overview of theprogress from 1992 to 1997 is contained in the report The Engineer’s Response to SustainableDevelopment, dated February 1997, and published by World Federation of EngineeringOrganizations (WFEO). In the US many engineering colleges have developed extensiveprograms with special courses on the environment and sustainable technologies. Internationally,other institutions have also integrated these concepts into their courses.In 1999, the American Society for Engineering Education (ASEE) approved a
program with local highschools. The GK-12 goals are to expose STEM teachers to contemporary graduate research, raisethe level of enthusiasm for pursuing undergraduate STEM majors among the high schoolstudents, and develop new curriculum with the teacher. The specific challenge to the RPIgraduate fellows is to add games, scenario building, international comparisons, and authenticresearch to the STEM instructional tools. This presentation will discuss Dale Weber’sexperience as an RPI graduate student participating in our first year with a GK-12 program andhis unique task among the participants to reach GK-12 goals within the framework of ProjectLead the Way (PLTW). Typically, PLTW courses are designed by a central committee anddisseminated to
program with local highschools. The GK-12 goals are to expose STEM teachers to contemporary graduate research, raisethe level of enthusiasm for pursuing undergraduate STEM majors among the high schoolstudents, and develop new curriculum with the teacher. The specific challenge to the RPIgraduate fellows is to add games, scenario building, international comparisons, and authenticresearch to the STEM instructional tools. This presentation will discuss Dale Weber’sexperience as an RPI graduate student participating in our first year with a GK-12 program andhis unique task among the participants to reach GK-12 goals within the framework of ProjectLead the Way (PLTW). Typically, PLTW courses are designed by a central committee anddisseminated to
Belonging and Peer LeadershipAbstractThis Complete Research paper describes efforts to support students entering an undergraduateelectrical and computer engineering (ECE) program from diversified matriculation pathwaysthrough a peer mentoring program embedded in the first-year curriculum. The myriad entrypoints to this specific engineering program (changes in major, transfers, career changes, stop-outs, etc.) punctuate that first-year-in-engineering may not be synonymous with first-time-in-college. As enrollment patterns continue to change across higher education, it is imperative thatengineering programs are prepared to support students and the variety experiences and needsthey bring to the classroom. In this work, we
government has made a push for measurable curriculum outcomes of sustainability ineducation and higher education; however, their measurement metrics are not readily available16.Learning outcomes were assessed in an “Introduction to Sustainability Class” at the Universityof Prince Edward Island. Students’ learning outcomes of sustainability were assessed based on Page 22.1345.4an “extensive project and course evaluation at the end of the class” with details not provided asto the exact nature of the evaluation17. At a university in Hong Kong sustainability themes havebeen integrated into the civil engineering curriculum, with the sustainability
, cohorts, and industrial partners). The instructor then integrates cohorts’and industrial partners’assessments into his/her own before assigning grades. In this context, the instructor provides the cohorts and industrial partners with an “Oral Presentation Evaluation Form” which includes the criteria and weights on which the candidates are graded. A candidate can find this form under “Forms” of the course homepage. The measure with which this skill is evaluated is the analysis and evaluation of survey instrument results and interviews with co-workers, as well as the grades received on the oral presentation. This is rewarded by a 1/3rd of the student’s grade
. Denning, “Evaluating Cybersecurity Education Interventions: Three Case Studies,” IEEE Secur. Priv., vol. 13, no. 3, pp. 63– 69, May 2015.[17] M. A. . Harris and K. P. Patten, “Using Bloom’s and Webb’s Taxonomies to Integrate Emerging Cybersecurity Topics into a Computing Curriculum,” J. Inf. Syst. Educ., vol. 26, no. 3, pp. 219–234, 2015.[18] T. Chothia and C. Novakovic, “An Offline Capture The Flag-Style Virtual Machine and an Assessment of Its Value for Cybersecurity Education.” 2015.[19] D. Fenton, T. Traylor, G. Hokanson, and J. Straub, “Integrating Cyber Range Technologies And Certification Programs To Improve Cybersecurity Training Programs,” in Proceedings of the 21st International Conference
minimum of four (4) recognized major civil engineering areas (Remembering); the ability to conduct laboratory experiments and to critically analyze and interpret data in more than one of the recognized major civil engineering areas; the ability to perform civil engineering design by means of design experiences integrated throughout the professional component of the curriculum (Creating); and an understanding of professional practice issues such as: procurement of work, bidding versus quality-based selection processes, how the design professionals and the construction professions interact to
Enterprise,” 1995ASEE Annual Conference and Exposition, Anaheim, CA, June 25-28, 1995.5. Nancy Fitzgerald, “Mastering Engineering,” ASEE PRISM, Jan. 1996, pp. 25-28.6. E.F. Crawley, E.M. Greitzer, S.E. Widnall, S.R. Hall, H. L. McManus, J.R. Hansman, J.F. Shea and M.Landahl, “Reform of the Aeronautics and Astronautics Curriculum at MIT,” AIAA Paper 93-0325, Jan. 1993.7. W.H. Mason, “Aircraft Design at Virginia Tech: Experience in Developing an Integrated Program,” AIAAPaper 95-3894, 1st AIAA Aircraft Engineering, Technology, and Operations Conference, Los Angeles, CA,Sept. 19-21, 1995 Html version: http://www.aoe.vt.edu/aoe/faculty/Mason_f/ACDesP/ACDesPgmVPI.html
adapting and implementing problem based learning modules with real-life context. To apply computational techniques for hydraulics and water quality simulations to develop and evaluate complex dynamics in water distribution systems. To help instructors/faculties develop expertise in water distribution systems requiring a multi-disciplinary approach. To disseminate lab modules and kits to a broad audience (other institutions, water engineering professionals). To improve the current civil engineering curriculum by developing and providing hands on lab based modules and kits related to fluid mechanics, hydraulics, water chemistry and microbiology for integrated student understanding.Laboratory Module and Kit Development
theknowledge of STEM in Elementary and Middle School students.KeywordsSTEM, Elementary, Middle, methods, technologiesIntroductionAt the elementary school level, STEM education provides an introduction to the STEM as wellas an awareness of STEM (California Department of Education, 2014). For middle schoolstudents, STEM allows students to begin the exploration of STEM-related careers. Finally, forthe high school, STEM prepares students for successful post-secondary education and beyond1.Among the four areas of the STEM, the research in technology and engineering education inelementary and middle schools is less mature because those subjects are not as commonly taughtin K-12 education. The nature and potential value of integrated K-12 STEM education are
Paper ID #32066Pilot Program: Infusing Rubin Education into First-Year SeminarMr. Ryan Baldwin, NJIT Assistant Director of First-Year Engineering Programs, Newark College of Engineering, New Jersey In- stitute of Technology.Dr. Jaskirat Sodhi, New Jersey Institute of Technology Dr. Jaskirat Sodhi is interested in first-year engineering curriculum design and recruitment, retention and success of engineering students. He is the coordinator of ENGR101, an application-oriented course for engineering students placed in pre-calculus courses. He has also developed and co-teaches the Fundamen- tals of Engineering Design
the past four decades has fueled theinformation age and an era of ubiquitous computing. Furthermore, the exponential increase inthe number of transistors available in integrated circuits has drastically changed the field ofelectrical and computer engineering. Computer Aided Design (CAD) tools allow systemsengineers to work at higher-levels of abstraction to design increasingly more complex systems.Embedded system design has been a keystone course in electrical and computer engineeringcurricula. Following the migration from discrete components to programmable logic devices inintroductory digital design courses we expect to see a similar, yet more selective, shift to the useof soft core processors in future microprocessor and embedded systems
populations. Her current research focuses on creating inclusive and equitable learning environments through the development and implementation of strategies geared towards increasing student sense of belonging.Dr. Sura Alqudah, Western Washington University Dr. Sura Al-Qudah is an assistant professor in the Engineering and Design Department at Western Wash- ington University. She received her Ph.D. and M.S. in Industrial and Systems Engineering from State University of New York at Binghamton in August 2014 andDr. Joseph Arthur Brobst, Old Dominion University Joe Brobst holds a BS in Biological Sciences, MA in Curriculum and Instruction, and Ed.D. in Edu- cational Leadership, all from the University of Delaware. Formerly a
holistic view of their field.References Cited1. NCE/AME, A Novel Curriculum for the Associate Degree in Manufacturing Engineering Technology. 2000, Dayton, OH: Advanced Integrated Manufacturing Center.2. Anderson, S., Curriculum Assessment Checklist. 2002, Advanced Integrated Manufacturing Center: Dayton, OH.3. HEERG, Pedagogical Analysis of Learning Modules Developed Using the Module Architecture Model. 2003, University of California Berkley: Berkley, CA.4. Savery, J.R. and T.M. Duffy, Problem Based Learning: An Instructional Model and Its Constructivist Framework. Educational Technology, 1995. 35(5): p. 31-38.5. Savery, J.R. and T.M. Duffy, Problem Based Learning: An instructional
systemperformance. They are then given a second chance to fine tune the model. The control isimplemented with the Real Time Windows Target using a data acquisition card on a PC.A competition for the best performance also creates an exciting and competitive learningatmosphere. Assessments are presented that indicate the improvement in learningoutcomes from the change in the lab exercise.IntroductionThe Engineering College at California Polytechnic State University in San Luis Obispohas a strong tradition of hands-on, “learn by doing” education. A key component is thelab intensive courses where for example in the Mechanical Engineering Department aminimum of nine lab intensive courses are required in the core ME curriculum in additionto labs from support
) idea is used in mathematics education as a part of theundergraduate curriculum in [19] for the first time during a study on students’ conceptual view ofthe function concept. APO is extended to Action, Process, Object and Schema theory (called APOStheory) in [21] to understand students' function knowledge. APOS theory is explained as thecombined knowledge of a student in a specific subject based on Piaget`s philosophy. APOS theorywas designed in [22] as follows: An action is a transformation of objects perceived by the individual as essentially external and as requiring, either explicitly or from memory, step-by-step instructions on how to perform the operation... When an action is repeated and the individual reflects
graduates will be integrally involved with theglobalization of engineering during their course of their careers by working in multinationalcompanies, often having foreign-born coworkers, working with international suppliers, providingservices to international product markets, or developing products that have an internationalmarket13. Page 22.1507.2This changing nature of the world economy makes it essential to provide our students with thecross-cultural tools to become successful professionals in the global workplace; the need toprepare students to contribute to the global workplace is unquestionable. In this context, the newprofile of an engineer
critical.Design and implementation of embedded systems requires a broad knowledge in areastraditionally not covered in any one discipline. These areas include electrical and computerengineering, computing sciences, mechanical engineering, and other engineering disciplines. Asa result, it is very difficult to train students and engineers within a single discipline to effectivelydesign and implement complex real-time embedded systems. Thus, we felt that it was importantto first establish an interdisciplinary framework of structured courses for education in real-timeembedded system design [5]. One of the major goals of this new curriculum is to expose studentsto industrial and commercial quality implementations and bridge the gap between
products.The widespread adoption of LDAP is due to its flexibility, scalability, and compatibility. A computer network related program named Computer Network & System Administration (CNSA) was introduced at MichiganTechnological University in 2003 [3]. The purpose of this program was to serve the needs of industry by educating and training studentsto succeed in the field areas of systems administration and network engineering, with an emphasis on network security. An integral partof the CNSA curriculum is a three credit hour course on Directory Services (DS). In the DS course, students are exposed to topics like planning, designing, implementing and troubleshooting various directory serviceproducts, including Microsoft Windows Active Directory