AC 2012-4274: INVESTIGATING STUDENT TEACHERS’ APPROACH TOSOLVING APPLIED ANALYTICAL GRAPHICAL PROBLEMSMr. Thomas Delahunty, University of LimerickDr. Niall Seery, University of LimerickDr. Raymond Lynch, University of LimerickDr. Diarmaid Lane, University of Limerick Page 25.854.1 c American Society for Engineering Education, 2012 Investigating student teachers' approach to solving applied analytical graphical problemsAbstractEducating for a broad global context and developing problem-solving capacities arefundamental for living in an ever-changing global society. The ability to construct
accomplished the specific community objectives but also important technicalobjectives for the courses. Quantitative deliverables were presented to the community partners.Positive feedback from the students was received.IntroductionService learning (S-L) provides 1) learning for the student and 2) service to the community. TheS-L approach motivates students to work harder, be more curious, connect learning to personalexperience, and demonstrate deeper understanding of subject matter [1].The Accreditation Board for Engineering and Technology (ABET) has a relatively new set ofcriteria for engineering programs. In addition to achieving the more traditional technicalobjectives, these criteria require that graduates demonstrate: • an ability to
pillars of sustainable design in theircurriculum to better equip civil engineering students in their decision making to considersustainability issues. The three pillars of sustainable development are social development,economic development and environmental restoration. A major challenge to this integration isadding to the workload of the existing curriculum. In some cases, introducing the new conceptsrequires the loss of essential course material. Consequently, many civil engineering departmentshave successfully integrated sustainable design principles through course modules, and projectbased learning3. A recent study by Litchfield and Javernick-Will compared the career interestsand experiences of students and practicing engineers who
mechanical elements such as beams,gears, diaphragms, and springs to devices. These systems can sense, control, and activatemechanical processes on the micro scale, and function individually or in arrays to generateeffects on the macro scale. Consequently, the micro fabrication technology enables fabrication oflarge arrays of devices, which individually perform simple tasks, but in combination canaccomplish complicated functions1. Although MEMS is relatively a new technology introduced in industry, significant teachingpotential of introductory MEMS technology is identified in the Semiconductor ManufacturingTechnology (SMT) curriculum. The SMT class (TECH4392) taught at Engineering andTechnology Department covers broad spectrum of SMT technologies
Paper ID #9710Nature-Inspired Design: A PictureSTEM Project Curriculum Module (Cur-riculum Exchange)Dr. Tamara J Moore, Purdue University Tamara J. Moore, Ph.D. is an Associate Professor of Engineering Education at Purdue University. Dr. Moore’s research is centered on the integration of STEM concepts in K-12 and higher education mathe- matics, science, and engineering classrooms in order to help students make connections among the STEM disciplines and achieve deep understanding. Her research agenda focuses on defining STEM integration and investigating its power for student learning. She is creating and testing
Institute, held in Rochester New York on October 1-3. The workshopinvolved 16 faculty and administrators from two-year and four-year programs at 13 differentinstitutions. In addition to describing the workshop for those who were not able to attend, thepaper draws conclusions and points out a “best practice” approach for future workshops.INTRODUCTIONThe importance of ethics, social responsibility, and global awareness in the practice ofengineering cannot be overstated. This paper will focus on ethics; it is also proposed thatstudying ethics within the broader context of social responsibility and global awareness enhancesthe students learning experience and may bring a more valuable engineer and citizen to society.In fact, Globig1 discusses the
AC 2012-3841: DATA ACQUISITION AS IMPLEMENTED IN THE MOD-ERN UNDERGRADUATE MECHANICAL ENGINEERING CURRICULUM.Dr. Timothy A. Doughty, University of Portland Timothy Doughty received his Ph. D. from Purdue University. An Assistant Professor at the University of Portland, he researches nonlinear modeling and system identification in application to crack detection and vibration suppression associated with Parkinsonian tremor. He currently serves on the Model Identi- fication and Intelligent Systems Technical Committee and as Associate Editor for the Dynamic Systems and Controls Division of ASME and is a Faculty Scholar for Lawrence Livermore National Laboratories.Dr. Steven O’Halloran, University of Portland Steven
their value as a “reference” considerably.4. ConclusionsAmerican Society of Mechanical Engineers Performance Test Codes can be incorporated into theMechanical Engineering curriculum in a variety of ways. Their direct use as textbooks in eitherclassroom or laboratory courses is problematic; however they can be used to supplementlaboratory-based projects. One program was successful in assigning a class project whereinstudents actually designed and performed a Code-level test on a pump. A similar exercise couldbe conducted with a fan.The most promising applications for PTCs focus on the Supplements on Instruments andApparatus, especially those for Temperature, Pressure, Flow, and Test Uncertainty. Thesedocuments can be made available for reference
Architecture, University of Illinois at Urbana- Champaign (UIUC). He holds a M.Arch degree from UIUC and a Bachelor of Arts degree from China Academy of Art. His current research focuses on transformable structures and its application to adaptive architecture. He works on scissor-based structures with emphasis on geometric design, kinematic analysis, and joint design. The application he is currently working on is emergency shelters. c American Society for Engineering Education, 2019 Integrating Shelter Design and Disaster Education in Architectural Curriculum AbstractEducation of the public is greatly important in order
of Ethics, it is clearthat the Code highly reflects deontological theory; i.e., it consists of a series of doctrines thatengineers must follow, with intrinsic morality tied to each behavior. In other words, the Code ofEthics can be seen as a reflection of an engineer’s duty to society.A difference from this dominate theoretical approach can be seen to emerge in the review of 108articles and conference papers on macroethical education in engineering. Articles were reviewedand sorted based on the three main “families” of ethical theory: utilitarianism, deontology, andvirtue ethics. This review showed that explicit reference to these three families of theoryoccurred in 41 of the 108 articles reviewed – 14 predominately noted utilitarianism
65% of the newly developed 787Dreamliner airframe from outside companies.2 In a field where work is traditionally performedby small, localized teams of engineers, these complex global projects present new challenges forovercoming cultural differences, language barriers, and bureaucracy.With these industry trends set to define a large focus of the next 20-50 years of the aerospaceindustry, educating the next generation of engineers who will be responsible for addressing thesechallenges is of paramount importance. Efforts to train students in the global design effort havebeen reported before, and they were mainly limited to virtual computer design studies and didnot include delocalized manufacturing.3 In different cultures the educational
required core course every semesterwith a S-L project that is either a required or elective part of the course. During 2005-06fourteen core ME courses had S-L projects, and a required engineering ethics course alsohad S-L in addition to four elective courses. Nine of twelve ME faculty membersincorporated S-L in those courses (more recently 12 of 13), in addition to 3 facultyoutside the department teaching courses for ME students. This initiative is part of acollege-wide effort to have all five undergraduate programs have S-L integrated into thecore curriculum (ECE, ChE, CE, and Plastics E).Courses and projects included, for examples, introduction to engineering for first yearstudents (common to students in all five programs) who designed and built
elements of and lessons learnedby NSF-sponsored systemic reform efforts in engineering education in place since 1990s, thispaper outlines in detail the following aspects of systemic reform for global competency: 1)unifying visions and goals, including high standards for learning expected from all students; 2) arestructured system of governance and resource allocation, including a proposed new ABETcriterion for global competency; and 3) alignment among all parts of the system, including hiringpractices, modifications to engineering science and elective courses and textbooks, andaccountability mechanisms. After reviewing several approaches to global competency, the paperconcludes by asserting that “the ultimate success of methods for achieving
Session 2251 Educating Engineers on International Environmental Security Wendell C. King Department of Geography and Environmental Engineering United States Military Academy West Point, NY 10996Introduction The engineering profession wields the power of science and technology with the intent ofbuilding a better world. However, evidence exists suggesting that we may have become so goodat the job of building new technological marvels that we fail in the mission of making a betterworld. In engineering terms, the life
in history.” More details about this approach are provided in another paper 11. • Adding new case studies to the existing ones on the MATDL web site9. • Commit to the importance of teaching students about subjects in addition to technical content, and don't just try to squeeze the case studies in to the existing schedule. Find some course content to remove.Suggestions to modify the use of case studiesFaculty participants seemed to generally suggest an increase in the use of case studies in certainengineering course curriculum and engaging students in discussions. Some of the specificssuggestions to modify the use of case studies were: • Use more classroom discussions to have students engaged. • Would like to
AC 2009-1342: BEYOND MATH ENRICHMENT: APPLIED PRACTICE WITHLIFE- AND CAREER-SKILLS INTERVENTION AND RETENTIONAPPLICATIONS MATTER IN EDUCATING NEW MINORITY FRESHMENBeverley Pickering-Reyna, University of Wisconsin, Milwaukee Beverley J. Pickering-Reyna has been the Director of Diversity/Gender Initiatives in the University of Wisconsin-Milwaukee (UWM) College of Engineering & Applied Science since June 18, 2007. Beforehand, she taught online and on campus undergraduate and graduate courses for five years as an Adjunct Instructor in the UWM School of Information Studies (formerly School of Information Science). Concurrently, Pickering-Reyna directed the Information Technology
small engineering college that uses project-based learning (PjBL) as its main curricular and pedagogical practice, this curriculum expects that mathematics and physics faculty team-teach in the environment of integrated course blocks. A semi-structured, open-ended interview protocol is employed and grounded theory is used to identify answers to the following questions: (1) What are the conceptions of teaching held by mathematics and physics faculty involved in implementing a first-year integrated project-based engineering curriculum as defined by Kember’s categorization of faculty conceptions? (2) To what extent does the context, in which faculty instruct, affect their teaching approaches
. We introducedvarious engineering and design software such as Autodesk Inventor, Pro Engineer, andMasterCAM in the program. The software is easy to learn and is integrated tightly into variousengineering and design courses. In addition to the existing basic engineering and manufacturingcourses, we introduced key courses in industrial design, such as industrial Design I and II, andIndustrial Design Processes.The CurriculumThis new curriculum contains a large variety of courses in design, animation, manufacturing,strength of materials, engineering materials, and engineering programming using the latestequipment and software packages. The manufacturing sequence consists of MT101,Manufacturing Processes Lab, MT 201, Computer-Aided Manufacturing
chemistry inseveral universities13. POGIL has received NSF Course, Curriculum, and LaboratoryImprovement (CCLI) funding to continue the growth of POGIL implementation throughout thecountry by presenting cost-free workshops, funding the development of new teaching materials,and evaluation of student learning14.While a true POGIL implementation replaces the traditional lecture classroom with POGILactivities, we were intrigued by the exploration part of the POGIL process and how it mightimprove the student's laboratory experience. In thinking about how we, the educator, prepareourselves to be able to teach our students a new microcontroller, for example, we realized that
Session 2542 Teaching Factory Approach to Engineering Management Education Mel I. Mendelson Loyola Marymount University Abstract An industrial partnership was established with a start-up company to plan and design a novel pressurefresh container for preserving fruits and vegetables. This was developed in a class project for a Manufacturing & Production Engineering graduate course. One self-directed team of engineering students generated a prototype design, manufacturing plan and cost estimate for producing the product.I. Introduction
likelihoodthat new regulations make sense from the technologist’s point-of-view and ill-consideredregulations never see the light of day.Program GoalsThe legal studies curriculum was designed to: − incorporate instructional materials that prepare students for the ever expanding role of legal issues into science and engineering practice; − aid the learning of science, technology, engineering and mathematics by placing those disciplines in the context of the legal responsibilities imposed by society; − address directly the important opportunity and need of educating future technical professionals on the role of the law in technology endeavors; and, − produce materials that students and practicing professionals find useful in
and as the norm, rather than theexception. In fact, the concept of risk should serve as the motivation for learning Engineering Economy. Toolsfor assessing risk are developed along with time-money relationships and other concepts. Creativity and realismin evaluating alternatives and in defining potential outcomes are underscored. This approach builds on the trendto include courses in probability and statistics within the core engineering curriculum. Integrating uncertaintyand risk with Engineering Economy at the outset is not new. Indeed, risk-analytic methods have existed fordecades e.g., Hertz’ and Uhl and Lowthian14 and have been taught in graduate level courses on Engineering 3Economy e.g., Buck . What we propose
, then combining the results, we create an“intracourse.” We give criteria for evaluating potential intracourse constituent pairs. We discussalternative approaches to realizing the combination. Intracourses can be used to address severaldifficult curriculum design challenges. Rapid technological advances routinely create demandsfor new technical competencies within fixed engineering curriculum boundaries. Current trendstoward increasing general education requirements reduce available time and other resources forspecialized engineering courses. Intracourses allow for novel new curriculum design solutions insuch constrained environments. Each intracourse also provides engineering students with directexperience in exploring the boundary between two
flexibility that allows project topics to drive course Page 12.236.5content is obtained by using small one-hour engineering content modules as companion coursesto the project. The content of a module often will be drawn from the standard formal engineeringscience content. Our intent is to place many of the one-hour modules online. We believe that bycontextualizing the engineering content in the modules through a project that the students willacquire deeper learning. This approach shifts the curriculum design activity to that of designinggood projects, representing breadth in engineering for these foundation years. While the facultydetermine what
of mathematics, science and language arts are widely required as a measure ofthe efficacy of the educational system. Both this dependence on standardized testing andthe weight of history tend to encourage teaching of these disciplines in an isolatedfashion, and many times classroom education becomes a laundry list of items to beimparted under time constraints. Other subjects that one might consider important suchas social studies are sometimes relegated to a less important status, and new subjects suchas engineering are strongly resisted due to the lack of free space in the educationalcalendar. Creating a true STEM educational system represents a paradigm shift from thetraditional approach to instruction. Particularly from the student
students think andapproach problems relative to their natural science colleagues. Due to this, the chemicalengineering department of Texas A&M has introduced a new course in biology whichemphasizes student ability to apply biological concepts to solving engineering problems. Resultsfrom survey evaluation of student ability to apply learned biotechnology concepts to newproblems indicates that the application oriented approach to teaching biotechnology concepts iseffective and should be further developed. IntroductionThe next generation of chemical engineers will be expected to have an understanding of basicbiotechnology concepts. Even students entering careers in more traditional chemical
Copyright© 2003 American Society for Engineering Education Session 2613A new approach to the introduction of biological engineering is proposed which treats biologicalsystems under the same paradigm as traditionally employed in Chemical Engineering instruction.This approach also provides an ongoing context for the entire curriculum.Bibliographic Information 1. AIChE “75 Years of Progress-A History of AIChE 1908-1983” , 1983, pg 12 2. See curricula of a variety of Biological Engineering Departments 3. Chang, Jane, “Redesigning The ChE Curriculum For The Challenges in The 21 st century”, International Conference on Engineering Education , August 2001, Oslo Norway 4. Khosla
. Her work has been recognised through several awards including a University Award for Design and Delivery of Teaching Materials, Carrick Institute Citation and Australian University Teaching Award for Innovation in Curricula Learning and Teaching, USQ Associate Learning and Teaching Fellowships for curriculum and assessment development and recognition from the Australian Association of Engineering Educators for innovation in curricula. On several occasions Lyn has been a visiting Professor to the University of Hong Kong – Centre for Advancement of University Teaching, consulting in both PBL and online curriculum development and assessment. She is the 2013 president for the Australasian Association for
Paper ID #21542Tracking Skills Development and Self-efficacy in a New First-year Engineer-ing Design CourseJessica DanielsDr. Sophia T. Santillan, Duke University Sophia Santillan joined Duke as an assistant professor of the practice in summer 2017 and will work with the First Year Design experience for first-year engineering majors. As a STEM teacher and professor, she is interested in the effect of emerging technology and research on student learning and classroom practice. After earning her bachelor’s, master’s, and doctoral degrees from Duke, Santillan taught at the United States Naval Academy as an assistant professor
beunrealistic; having ten to fifteen minutes’ chatting with each group frequently could help keepstudents to be more focused and on track.Conclusion The initial attempt of incorporating design thinking into a PM course was reported. Thejustification of this new pedagogical approach and the curriculum design rationale werepresented. Project exhibition in the format of “Market Place” was described. The result of thefirst trial and the lessons learned were discussed. Judging from the student team’s deliverable,performance in course content, and self-reporting survey assessing perceived growth in PMskills, it seemed to the authors that this pedagogy was applicable and had the potential to createpositive impact on student learning. Clearly