experience [International experience is required of all engineering students].The main components of the TIP experience include: • Intrapreneurial orientation courses • Mentorship by faculty • Mentorship by industry experts • Internship (including the opportunity for international internships) • Extra-curricular activities and projects focused on gaining experience with customer discovery, product development, and business plan developmentThe project has resulted in curriculum and pedagogical models that are aimed at fosteringintrapreneurial thinking, dispositions, and competencies. The models advocate for thenetworking and connection points between extra-curricular activities, curriculum devoted tointrapreneurial
experience as a possiblechoice for a required technical elective provided a range of research experiences which would bedifficult to achieve through a lecture or a laboratory course. c. Other programsModels for integration of nanotechnology education into the undergraduate curriculum havebeen discussed by a number of engineering educators over the past decade, and all haveemphasized the need for a multi-disciplinary, active learning and problem based approach.6Uddin and Chowdhury specifically concluded that development of a broad-based introductorycourse at the freshman/sophomore level, which includes general concepts and societal/ethicalissues, is essential.7 They also identified a capstone, design-oriented course as critical todevelopment of
computers and licenses for engineering software,deciding the number of sections for a particular course, etc. These estimates are especiallyhelpful during this pandemic time to decide what classroom to use for each course while stillmaintaining social distancing.ConclusionThis paper describes the development of a web-based advising app for an engineering programwith a detailed case study of how it works. Since its creation, the app has been used extensivelyto make course plans for engineering students at Southern Arkansas University. If the inputs areentered correctly, the app can provide a detailed plan for a student by following the coursesequences as per the curriculum and the course rotations set by the department. The app hasseveral other
the development a new integrated curriculum emphasizing the progressive development of design and communication skills and personal characteristics associated with good teamwork and effective leadership. Page 12.720.1© American Society for Engineering Education, 2007 Explicit Development of Engineering Skills and Characteristics in the Freshman YearAbstractThis paper describes a new freshman two-course sequence designed to introduce students toengineering and to explicitly develop the cognitive skills and personal characteristics of anexperienced engineer. The courses focus on
classrooms, a study hall, a CDIO curriculum. and lighter manufacturing and activities consists of four labs, a common engineering program. New computer facilities, the assembly area with a ”discussion corner”, product development projects Prototyping lab and the
1 Department of Chemical and Materials Engineering, San Jose State University/ 2Department of Materials Science and Engineering, University of Florida/ 3Metallurgical and Materials Engineering, University of Nevada, Reno/ 4College of San Mateo/ 5Mechanical Engineering, Boise State UniversityAbstractThis paper will discuss the progress of curriculum development under an NSF, CCLI-EMDsponsored work, “Development of Project-Based Introductory to Materials EngineeringModules” (DUE # #0341633). A multi-university team of faculty are developing six lecture andthree laboratory modules for use in Introductory to Materials courses. This course is required bymost engineering
AdvancedTechnology Education Center (MATEC) to develop a remote laboratory in support of anelectronics technician curriculum focused at American community college students. In this case,the institutions adopting the new curriculum can do so at a lower cost as certain laboratoryassignments will be performed using iLabs hosted by MATEC. Additionally, the fact thatstudents do not have to be physically present in the lab to perform certain assignments is wellreceived at institutions that serve part-time, commuter or distance learning students. Regardingboth partnerships, not only has there been significant development within their own scopes butthey have influenced the direction of the iLab Project more generally.Both of these efforts were initially focused on
to attempt this project allowed theproject to proceed.Bibliography1. ABET Engineering Accreditation Commission, “Criteria for Accrediting Engineering Programs,” Nov. 2006, p.2. Page 12.1405.132. Wheeler, E. and McDonald, R.L., ”Writing in Engineering Courses,” Journal of Engineering Education, vol. 89, no. 4, 2000, pp. 481-486.3. Taylor, W.L., “Using Drafts in History 231: American Economic Development,” Writing Across the Curriculum, vol. 8, August 1997, pp. 10-12.4. Manuel-Dupont, S., “Writing-Across-the-Curriculum in an Engineering Program,” Journal of Engineering Education, vol. 85, no. 1, 1996, pp. 35-40.5. Fitzpatrick
presented.IntroductionIn July of 2003, a feasibility assessment and preliminary planning process was initiated forcreation of an engineering program at ASU East Campus. This process resulted in a plan todevelop a new engineering program at ASU’s East Campus. The need for this program is drivenby the rapid population growth of the Phoenix metropolitan area, capacity restrictions at ASU’sTempe campus and at other state universities, forecasts of engineering student and industrydemand, and a desire to develop a polytechnic campus at ASU.Unlike many curriculum development or reform efforts, the development of this new programbegan with a blank slate. This has given the founding faculty team unprecedented freedom andflexibility in the design of this program, resulting
upon this premise. Interdisciplinary understanding has been defined as the capacity to integrate knowledge from more than one discipline for cognitive purposes14. According to Kelly14 the advantage of interdisciplinary learning is to create understanding that will have been unlikely through a single discipline. The blurring of disciplinary boundaries, as stated by Burghhardt and Page 22.735.5 Hacker16 and Kelly14 advocates for development of integrated STEM curriculum and is a premise that guides educators in developing an engineering technology degree.Purdue Engineering Technology The field of engineering technology has been well
. IntroductionTraditionally, the humanities have played a limited role in STEM education1; yet, there are naturalconnections between the humanities and STEM, which may be used to deepen students’ educationalexperiences2, 3. In the exploration of these links and modes of learning, the Texas Tech University(TTU) Honors College has developed an interdisciplinary curriculum that incorporates both the artsand the humanities and STEM. Unlike other iterations of this technique, namely STEAM, wherearts are included to help promote more creative problem-solving and innovative thinking, thisapproach uses the arts and humanities as the foundation and impetus for STEM learning. Thisapproach has been coined Humanities-Driven STEM (HDSTEM). HDSTEM provides studentsbenefits that
University Pamela is a Chemical Engineer with more than twenty years experience working in industry and as an en- gineering educator. Her current role is Senior Lecturer, Learning Academy, Division of Student Learning and Course Director for the Graduate Certificate in Learning & Teaching in Higher Education. Her re- search includes curriculum decision making in higher education and the implications for strategic change; research-based teaching and learning, problem-based learning in engineering education and gender inclu- sive curricula. Pamela also teaches and provides professional development in higher education teaching and learning to academic staff. c American Society for
, especially for underserved and underrepresented populations. She focuses on developing research-based, field-tested curricula. For sixteen years, she worked as a vice president at the Museum of Science where she was the Founding Director of Engineering is Elementary, a groundbreaking program that integrates engineering concepts into preschool, elementary, and middle school curriculum and teacher professional development. Her recent book, Engineering in Elementary STEM Education, describes what she has learned. Cunningham has previously served as director of en- gineering education research at the Tufts University Center for Engineering Educational Outreach, where her work focused on integrating engineering with science
Paper ID #14445Developing Design Skills in an Introductory Mechanics of Solids CourseDr. Edward M. Segal, Hofstra University Dr. Edward M. Segal is an Assistant Professor in the Engineering Department at Hofstra University.Prof. Sigrid Adriaenssens, Princeton University c American Society for Engineering Education, 2016 Developing Design Skills in an Introductory Mechanics of Solids CourseAbstractOne challenge architectural and civil engineering departments face while preparing their studentsfor the global workforce is including design projects that tackle real world
documentation bychecking and verifying the objects and systems that appeared on the blueprints.Today’s engineers spend a good deal of their time developing computer models oftheir designs in cooperation with teams that include technicians, machinists, and othersas needed in the engineering enterprise.As drafting became less prominent for engineering professionals, graphics coursesdecreased in prominence within the curriculum. In 1974, the engineering accreditingagency (precursor to ABET) eliminated the graphics requirement and graphics beganto be deemphasized or eliminated from engineering programs across the country1. Insome cases, engineering disciplines such as electrical or chemical engineering, optedout of graphics requirements entirely. Today
converting student co-op work term reports into case studies andimplementing them across all courses in the Faculty of Engineering curriculum. Cases havebeen implemented successfully, and show promise in addressing and demonstrating newCanadian Engineering Accreditation Board (CEAB) graduate attribute requirements. The casemethod also shows promise in integrating these required attributes by expressing real situationsencountered in practice and allowing individual students and student teams to experiencerealistic challenges in a classroom setting.In addition to developing cases from work term reports, cases have been developed from studentcapstone project experiences, Master of Engineering (MEng) design project experiences, anddirectly from the
AbstractOne of the requirements for a teacher participant in a National Science Foundation (NSF)Research Experience for Teachers (RET) site is to convert the knowledge from the researchexperience into K-12 course curriculum. This motivates the teacher participants to actively thinkabout how to convert the university research knowledge into something understandable by K-12students. Each teacher needs to play a more active role in participating and drilling down into theresearch to effectively create new materials, rather than as a watcher or bystander of researchactivities. The course development usually needs to follow some curriculum standards such asNext Generation Science Standards (NGSS) in many states and Texas Essential Knowledge andSkills
characterize student teams’ modeldevelopment as they proceed through a laboratory project. In this paper, the ModelRepresentations for 15 teams are examined as they complete physical and virtual laboratoryprojects in the senior year of the curriculum. Analysis of the Model Representation confirms thatthe virtual laboratory project affords students a richer opportunity for model development,modification, and use of evidence-based reasoning.IntroductionAs technology is integrated into classroom instruction, virtual laboratories have been receivingmore attention as an alternative mode to engage students and promote learning.1 Mostcommonly, the virtual laboratory is used as an alternative mode to deliver the correspondingphysical laboratory by simulating
students to think broadly toaddress engineering challenges. These EML experiences have been included into courses andacross curricula at many institutions [2].EML is often associated with large scale project-based activities, which can be daunting tofaculty to implement into their course. Many faculty members are underprepared for theirinstructional roles [3] and do not have sufficient support in their teaching [4]. One way in whichwe supported faculty in integrating this new approach is through creating a KEEN FacultyLearning Community (FLC) at UNC-Chapel Hill. An FLC is a small group of faculty and staffwho engage in an active, collaborative yearlong experience [5]. The program includes a year-long curriculum that covers learning development and
robotics10 and human robot teaming11. Due to their distributed, wireless nature,swarms have also been used as an internet of things testbed12. Several low-cost ground roboticsswarms have also been proposed, which allow for scalable testing13-14. Of these platforms,several examples, such as the Pheeno, Spiderino, and Pi-swarm, have been used in educationalcontexts to teach swarm robotics, often in a K-12 context15-18.However, education tools and programs around AI and Swarm AI do not generally have astandard curriculum, as many different traditional fields are needed to come together to learnabout and develop AI at the level of professional practitioners. In Swarm AI in particular, aspectsof robotics, engineering, and computer science are often seen
Development of Laboratory Component for Advanced Construction Materials course Rajarajan Subramanian Pennsylvania State University at HarrisburgAbstractLaboratory component is a very important module of any materials course in Civil Engineeringcurriculum. Construction Materials include Portland Cement Concrete, Asphalt Cement Concrete, Metals,and Wood. At the junior class level, most of the Universities in the United States have a laboratorycomponent for Portland Cement Concrete. However, for the senior level advanced materials course, thereis no laboratory component included in the curriculum. The advanced
firms. Page 12.506.1© American Society for Engineering Education, 2007 Development of a Capstone Design Program for Undergraduate Mechanical EngineeringAbstractIn September 2004, the University of California, Santa Barbara, Department of MechanicalEngineering initiated a Capstone Design course requirement for Senior Mechanical Engineeringstudents. The course has transitioned from a three unit course typically taken in the final Springquarter of the curriculum to a two unit course taken each quarter of the academic year for a totalof six units. Students work in teams under the direction of a faculty
Paper ID #31347Challenges of Developing a New Engineering Drawings Course for CivilEngineersMr. Bradley James Schmid, University of Saskatchewan Brad Schmid is an assistant professor in Civil, Geological, and Environmental Engineering at the Univer- sity of Saskatchewan. c American Society for Engineering Education, 2020 Challenges of Developing a New Engineering Drawings Course for Civil EngineeringAbstractThe landscape of engineering graphics and design have changed substantially in the last twentyto thirty years, yet in many ways the courses and curriculum have often not
AC 2010-1018: STUDENT ELECTRONIC PORTFOLIOS FOR PROFESSIONALDEVELOPMENT USING GOOGLE APPSJessica Kuczenski, University of Notre DameJoshua Enszer, University of Notre DameMark McCready, University of Notre DameJay Brockman, University of Notre Dame Page 15.1116.1© American Society for Engineering Education, 2010 Student Electronic Portfolios for Professional Development Using Google AppsAbstractThe primary goal of our undergraduate program is to produce engineers who are one step aheadof their peers, who have begun to prepare themselves for more than just their entry-level jobs. Inorder to accomplish this, we seek improvements to the
Session “Developing Collaborative Relationships for Education Relating to Invention, Innovation, and Entrepreneurship” John A. Kleppe Electrical Engineering Department University of Nevada, Reno Reno, NV 89557-0153 kleppe@ee.unr.eduAbstractThe Electrical Engineering Department (EE) at the University of Nevada, Reno (UNR) has since1986 been teaching a special senior level Capstone class. This multidisciplinary class involvesstudents from electrical and mechanical engineering, and students from
student’sself understanding. Students are not aware of the demands of the engineering curriculum andmost struggle in terms of how to be successful.To address these concerns, the Introduction to Engineering sequence was modified to incorporatea significant component of “student development”. Students review basic skills and learn newengineering tools while developing an understanding of the field and the demands ofengineering. Focus is placed on community building, class participation and interaction, timemanagement, study habits, problem solving, and goal setting. Initially, outcome assessment willbe measured in the short term by the response of students in their end of semester courseevaluations. Long term assessment will be through a comparison of
. !Figure 1. Examples of student ideas: From a novel device, providing navigation assistance to avisually impaired to a mechanical arm for a paraplegic person.Course DescriptionCourse specific material related to the design of technologies to aid people with disabilities wereidentified and included in the curriculum. The course specific activities and material were thenmapped to desired course development and outcomes.To increase the quality of learning and writing skills [10], the students were asked to submit andpresent a design overview report three times during the semester. By the end of the first month, teamsformally presented their design ideas, based on customer needs and functional requirements for apossible financial assistance (Figure 1
particular field. Companies understand thatstudents have not completed their undergraduate curriculum and lack technical knowledge.However, companies are seeking students to develop into prospective long-term employees andvalue students’ communication and professional skills over technical knowledge. Many industrypartners of The Citadel specialize in proprietary products or support the nation’s defense. Forthis reason, employers have no expectation that students or recent graduates will have technicalknowledge in a specific domain. However, employers search for students who can listen, takedirection, and deliver results. Comparing a counterbalanced, Likert-scaled survey of engineeringstudents attending career networking events and a survey targeting
© American Society for Engineering Education, 2022 Powered by www.slayte.com Work in Progress: Development of a Project-Based Civil & Environmental Introductory CourseIntroductionTeaching “soft” skills to engineering students presents a unique set of challenges compared totechnical skills. Topics like technical writing and oral presentation are not commonly perceivedby students to be in the domain of engineering while most practicing engineers would disagree[1]. Communication skills are just one example of a range of professional skills outside ofdiscipline-specific skills that can aid new engineering graduates. Our civil and environmentalengineering (CEE) curriculum committee developed
models that supports students’ learning, classroom management techniques and best teaching practices.Dr. Jonathan Elliot Gaines, University of South Florida Jonathan E. Gaines is faculty in the Mechanical Engineering Department at the University of South Florida. He is the Director of First Year Experiential Education and Learning. Through this position, he develops and implements the curriculum for USF’s Foundations of Engineering Lab course. He is also the Principle Investigator for Bulls Engineering Youth Experience (Bulls-EYE Mentoring) a Science, Technology, Engineering, and Math based outreach program that uses undergraduate students to mentor middle school youth.Anna Maria Bateman, The University of South