; stability, center of mass, shear and moment diagrams, moment of inertia, andhorizontal shear, etc... The models also provide a natural means for incorporating three-dimensional equilibrium into the curriculum. There were two goals in mind when using modelmaking as a learning tool: integrate three-dimensional activities from the start since buildingproblems are naturally three-dimensional and show how most three-dimensional problems can besimplified into two-dimensional problems. This meant that most examples were rectilinear, butthis conceptual way of teaching allows for students to relate building forms to structural behaviorand also allows students to apply abstract concepts to problems that model the built environment.As an example, a “12-node
discipline. Itcompares the present-day BOK with the BOK of the future for construction engineeringstudents. It puts the construction engineering students at a level comparable to the levelof a civil engineering student. It defines the need for an integrated constructioncurriculum, and an integrated BOK for the future construction engineering students.Present-Day Body of Knowledge Taught in a BS-Level ConstructionEngineering/Technology DegreeConstruction professionals are builders. In recent years, the term constructor has beenused to define individuals who are builders, yet their expertise goes beyond that of homeor commercial builders. Constructors are essentially contractors who know how to buildunlike engineers who know ‘Why’ that goes with
conducting ongoing direct course assessment of student learning outcomes. Fiveintegrative courses in the mechanical engineering curriculum are selected to assess twelvelearning outcomes. These web-based outcomes assessment programs are sustainable and providemeasures of change over time. Results are fed back to provide a mechanism for continuousimprovement of the educational process. The tools also integrate online technology to developand maintain the systems. At both the institute and academic unit/department level, theassessment process is subject to review and approval. Administrators and faculty instructors areable to use the information to fine tune their assessments in the future. In addition, the annualreviews ensure that the programs will
with Science and Math, the conceptual knowledge ofproportionality and the Universal Gas Law is applied as a predictive tool in the design processfor the Hot Air Balloon Project. Here we report on, from qualitative analysis of teacherreflections, the research question, "What is the effect of an integrated math-science-engineeringprofessional development project on high school math and science teachers' classroom practiceusing the core concept of function that is integrated into the delivery of contextualized content byteam-based inquiry learning."IntroductionProject Pathways is an NSF Math Science Partnership professional development project whichtargets mathematics and science learning and achievement in grades 9-12 by connectingmathematics
domestic hot water and space heating using a radiant floor. There is also a stone-linedsunroom for collecting and storing solar energy, and adjustable louvers over the extensive south-facing glazing to regulate incoming solar radiation. Data logging, control and user interface areintegrated by a LabVIEW-based automation system. The house continues to serve as alaboratory for multidisciplinary capstone design team projects. The project, which allows students to learn energy concepts in an integrated realisticsetting, provides numerous benefits for engineering students that are often lacking in standardengineering instruction, and that are being emphasized by the new ABET EC 2000 criteria. Itintroduces them to holistic systems thinking—that
projects. The Civil andEnvironmental Engineering (CEE) Department’s curriculum at The Citadel places a premium onpreparing graduates to serve as principle leaders through their service to society. In support ofthis vision, CEE Department faculty focus on implementing high-impact learning pedagogicaltechniques to prepare graduates for successful careers in the engineering profession. One high-impact method of instruction of specific interest focuses on service learning and communityengagement, resulting in creation of an enhanced student-learning environment.BackgroundService learning is an educational approach that balances formal instruction and the opportunityto serve in the community in order to provide a pragmatic and progressive learning
understanding to the point where students can engage insignificant design and modeling tasks. This is often addressed in senior-level capstonecourses and much has been written about their benefits. Another solution may be to makeinternships an integral part of the undergraduate curriculum, or by designing the programaround co-op experiences. However, a downside of both internships and co-ops is that theactivities (usually) occur off campus, and out of the structure of curriculum. In otherwords, there may be significant benefit, but weaving those benefits into other curricularactivities may be problematic. Page 9.58.1 Capstone courses, as
curriculum for the freshmen year where mathematics, science,technology and communications are taught in an integrated fashion using group projects that dealwith the solution of real-world problems and serve as learning context. In a similar development,Clark et al. 23 presented the design, implementation and evaluation of an entire project-basedcurriculum for chemical engineering that addresses a series of shortcomings of traditionalcurricula. Page 7.755.2 Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition Copyright Ó 2002, American Society for Engineering
Conference and Exposition, American Society for Engineering Education, 2003.11. Niemi, E.E., “Development of an Ocean Engineering Course as a Technical Elective for Mechanical Engineers,” Proceedings of the 2004 ASEE Annual Conference and Exposition, American Society for Engineering Education, 2004.12. Tsinker, G.P., Handbook of Port and Harbor Engineering, Chapman and Hall, New York, 1997.13. Wilczynski, V., and Douglas, S.M., “Integrating Design Across the Engineering Curriculum: A Report from the Trenches,” Journal of Engineering Education, American Society for Engineering Education, July, 1995.Author InformationTIMOTHY W. MAYSDr. Mays, PE is an Assistant Professor in the Department of Civil and Environmental Engineering at
Leadership Development and Learning Technologies. She is currently the Chair, MSN Advance Practice Role Program, Coordinator of Informatics Projects and Associate Clin- ical Professor at Drexel University College of Nursing and Health Profession teaching in both under- graduate and graduate programs. She is a board certified nurse informaticist and an NLN certified nurse educator. Her area of research involves student learning, development of clinical decision making skills, faculty development in integration and application of instructional technology for classroom innovations and simulation learning experiences, virtual learning environments for DL, and information seeking be- haviors among students and professionals in
atension between an engineering program’s need to stay current versus the traditional coverage ofthe fundamentals of engineering science and design. The use of solid modeling (CAD) and finiteelement analysis (FEA) tools can require the introduction of new courses and/or a significantallotment of time within existing courses. Integration of the use of FEA software in coremechanical engineering courses can potentially absorb valuable time to accommodate the“learning curve” associated with CAD/FEA tools.In 2001, concerns about this learning curve led the Mechanical Engineering department atCalifornia State University, Northridge to adopt the SolidWorks family of design and analysistools as the standard for our curriculum. The most important reasons
Educational Technology Standards for Students. Accessed December 28, 2004. < http://cnets.iste.org/students/s_stands.html >.Biographical InformationMALINDA SCHAEFER ZARSKE is the curriculum outreach coordinator for the Integrated Teaching and LearningProgram’s K-12 Engineering Initiative at the University of Colorado at Boulder. A former middle and high schoolmath and science teacher, she received her MAT in secondary science from Johns Hopkins University and her MS incivil engineering from the University of Colorado at Boulder.DARIA KOTYS-SCHWARTZ is a doctoral candidate in the Department of Mechanical Engineering and an NSFGK-12 Outreach Fellow for the Integrated Teaching and Learning Program at the University of Colorado at Boulder.She
of Ottawa, Ontario. © American Society for Engineering Education, 2022 Powered by www.slayte.com The role of students’ grit & goal orientation in predicting their academic success in authentic learning environmentsAbstractThe recent trend of opening makerspaces on-campus in engineering schools is encouragingeducators to integrate making projects and activities to the engineering curricula. Makingprojects and activities offer engineering educators an opportunity to situate their students inauthentic learning experiences. This article explores the impact of two non-cognitive measures,grit and goal orientation, over and beyond a student’s Big-Five
student may have difficulty understanding what a mathematical solution to a problem 2means from a practical point of view. If students are provided with the means to performexperimentation and to apply the theory to real world situations, this can only be expected to leadto a better visualization and understanding of the theoretical concepts. The simulation systemdiscussed here presents an attempt of integrating Web-based content and interactive multimediatechniques into the curriculum. The integrated platform provides an easy flow of data fromtheory to modeling and measurement, bridging the gap between theory and hands-on learning, asshown in Figure 1. It greatly enhances the students’ understanding
sessions were held online and weekly recitation sessions wereoffered both in person and online. We leveraged Matlab live scripts in the homeworkassignments to integrate the mathematical and graphical representations of the fluid mechanicsproblems in Fall 2020, which as shown in recent studies can decrease the cognitive load forstudents during their work with abstract mathematical concepts [1]. Furthermore, to address thechallenges that students face in terms of motivation and engagement in an online mode ofdelivery we developed team-based “scavenger hunt” missions around everyday fluid mechanicalconcepts and systems that students typically encounter all around them. This decision is based onresearch that shows motivation is driven by the
responsible for the teaching of formal course work, their concern was most oftenfocused on student assessment data that could be used for individual student course grades. As aconsequence, some faculty viewed data collection in the context of a project as a means to obtaindata for course grades. This was the case for integrated design as this project was focused onundergraduate preparation, dealt with aspects of curriculum present is some courses taught byparticipating faculty, and incorporated a significant amount of student assessment.Partnerships/CollaborationAll projects required an extraordinary amount of collaboration and partnership. In addition, each
, they need to be prepared to benefit from the knowledge beingproduced in this field and to interact constructively with colleagues in this field. As a basicintroduction to this field, our new semester curriculum will include an introduction toengineering education, as well as assignments requiring participants to read and report on at leastone experimental study whose results could be applied to a class they are teaching or might teach.In addition, faculty from the UC Engineering Education Department will be invited to makepresentations to participants on their research. These faculty will also be asked to participate inthe mock review panel to which PFF participants are required to submit abbreviated NSF REUgrant proposals. Thus the new
of engineering (6) An ability to recognize the ongoing need solutions in a global, economic, for additional knowledge and locate, environmental, and societal context evaluate, integrate, and apply this knowledge (i) a recognition of the need for, and an ability appropriately. to engage in life-long learning (7) An ability to function effectively on (j) a knowledge of contemporary issues teams that establish goals, plan tasks, meet (k) an ability to use the techniques, skills, and deadlines, and analyze risk and uncertainty. modern engineering tools necessary for engineering practice.facilities, and institutional support (Criteria 6-8). Given the wide range of higher
Paper ID #13396Hands-on Manufacturing Concepts Taught to Sophomore Level Students Dur-ing a Unique Field Session ExperienceProf. Jenifer Blacklock, Colorado School of Mines Dr. Jenifer Blacklock is the Assistant Department Head in the Mechanical Engineering department at Col- orado School of Mines. Jenifer is active in the Undergraduate Curriculum in the Mechanical Engineering department and is an advocate of using hands-on-learning tools to help develop strong math, science and engineering foundations.Dr. Derrick Rodriguez P.E., Colorado School of Mines Dr. Rodriguez is a Teaching Associate Professor at the Colorado School
/olin_history.asp after creating andtesting “an innovative curriculum that infused a rigorous engineering education with businessand entrepreneurship as well as the arts, humanities and social sciences. They developed a hands-on, interdisciplinary approach that better reflects actual engineering practice.” Many feel thatthe transition from engineering applications to fundamental engineering science has beenunfortunate and that experiential learning should form the backbone of engineering education. Page 14.135.3As recent as January 2009, the article “Engineering Schools Prove Slow to Change” by P.Basken in The Chronicle of Higher Education points to the
issue by modifying their curriculum to include courses onglobalization, global supply-chain management, cultural education, etc. KetteringUniversity’s Industrial & Manufacturing Engineering; and Business department recentlyhosted an international conference that brought together educators, students, andcompany executives from various countries to a common platform. By leveraging theWebEx communication technology, the conference provided an arena for individuals andorganizations from various parts of the world to interactively participate in the conferencein real-time. Undergraduate and graduate students got the opportunity to becomeinvolved in organizing the conference, in writing and presenting technical papers to aninternational audience
Session 1566 Application-Centered Methodology for Teaching Programmable Logic Controllers Condoor, S.S. Saint Louis University, St. Louis, MissouriAbstractThe paper discusses the methodology used for teaching programmable logic controllers –a part of the Mechatronics curriculum. The goal of the curriculum is to nurture skills thatcan help in implementing a Mechatronics project from the functional specifications. Tothis end, we developed a teaching paradigm involving several modules each with sixidentical steps. In this teaching paradigm, students see: 1
Computer Curriculum Quinn [26] emphasizes the importance of including ethical issues in each computercourse throughout the computer curriculum. He [26] states that this method targets specificethical issues relevant to specific computer topics. For example, ethical issues related to databasetechnologies are discussed in a database course, likewise, ethical issues related to computersecurity are discussed in a computer network and security course [26]. Metcalf et al. [27] alsoagree with Quinn in dispersing ethical topics throughout the computer curriculum and in eachrelated computer course. These researchers [27] state that an integrative approach is moreeffective especially if accompanied by relevant case studies that outline the ethical
technological, officers must have a thorough knowledge of how theirweapons function as a system in order to take full advantage of them. It is for this reasonthat the primary emphasis of the Systems Engineering major at the Naval Academy hasremained oriented more towards the engineering of control systems, like those commonlyin modern weaponry. The present curriculum of the Systems Engineering major contains six requiredcourses, covering fundamentals in mathematical modeling, simulation, and control. Eachmajor takes five additional elective courses. These are organized as two two-courseelective sequences in an area of specialization and a fifth major elective that may betaken in any engineering-related course. Two-course elective tracks
Figure 1. Roles within a lean operation • Specialists are the practitioners who know how the detailed components of a system may be designed, produced and optimized. • Integrators are the master planners who can fit the components together to determine the functionality of an overall complex system. • Sustainers are the system operators who keep the complex systems operating and updated to support the overall mission.One of the purposes of this paper is to consider how technology education can providethe skills needed for the participants in figure 1. Lean manufacturing led to the creationof new roles so it seems logical to use a lean education structure to prepare the next
and practitioners.For example, in a sophomore level mechanics course at WKU, engineering students worked inteams to perform a preliminary physical field inspection and analysis of a historic steel trussbridge located in Bowling Green, Kentucky.The focus of the paper is to present the work performed by the students and how the project wasintegrated into the course curriculum where the concepts of engineering mechanics discussed inclass were related directly to the bridge. Students appreciated this approach to learning whichoffers a unique hands-on experience where students actively participate by working in the fieldon an existing structure.I. IntroductionIn recent years, there has been a growing trend in engineering education to include
need for an integrated construction curriculum and specificallyaddresses the need for a Senior Level Topics course which synthesizes the fundamentalbody of knowledge of construction, and develops the research skills of senior students.Among the requirements for content of the senior level course, important links need to bedeveloped between the textbook content and the latest reported research in journals andanecdotal and current happenings in the profession. Important current topics need to beexplored and students given appropriate guidance to reach their potential. This paperaddresses the design and presentation of a Current Topics course in Construction. Theessential elements of the course are refereed to as the Rudiments of the course in
Powered by www.slayte.com First Year Experience from RET Site: High School Teacher Experience in Engineering Design and Manufacturing AbstractIn 2019, University of Houston (UH) at Houston, Texas was awarded an NSF ResearchExperience for Teachers (RET) site grant titled “RET Site: High School Teacher Experience inEngineering Design and Manufacturing.” The goal of the project is to host 12 high schoolteachers each summer to participate in engineering design and manufacturing research and thenconvert their experience into high school curriculum. In summer of 2021, the first cohort of 12teachers from Region 4 of Southeast Texas participated in the RET program at UH College ofTechnology (COT
finding qualified instructors is difficult.Consolidation of the students from each community college and CU Denver into a singleblended course allows those students to move forward in completing the pre-engineeringrequirements at their home institution. Figure 1. The FEST Program addresses the foundation courses of the pre- engineering curriculum, including mathematics, engineering science and information technology, and an Introduction to Engineering course.Academic objectives using e-learning technologiesBy implementing e-Learning technologies into the FEST project we hope to achieve thefollowing academic objectives:• Bring real-world problems into classrooms through the use of videos, demonstrations, simulations and
. Although the intention behind the separation of domains was to facilitate abetter understanding of the learning process, an unfortunate consequence was that most of thework in curriculum development has taken place exclusively in the cognitive domain, except forsome compelling research support for the inseparability of the domains, especially betweencognitive and affective components [9]. The body of knowledge related to neuroscience,cognitive science, the social and behavioral sciences, and psychology shows that emotion andcognition interact to facilitate focused attention and decision making [10] [11] [12] and thatcognitive knowledge directs the execution of our movements or performances (motor-skills), andvice versa [12]. However, the