, and 4 unspecified) enrolled in anundergraduate engineering economics course, near the end of the semester at the PennsylvaniaState University’s University Park campus in the Fall 2013 semester [IRB approval on 2/8/2013;human subjects assurance number 42153]. The questions involving engineering economics as ageneral education course are provided in Table 1.All of the students surveyed were either juniors or seniors in an engineering degree program, andall of the students had completed either microeconomics or macroeconomics at theundergraduate level (24 of the students had taken both microeconomics and macroeconomics). Page 24.494.7Table 1
profession and its educationalinstitutions, along with the public, not mutually benefit from a view of the public that honored itsknowledge in regards to engineering?With the questions above in mind, I have written the following paper to challenge the dominantbelief in the engineering educational and professional community that the public’s view ofengineering is somehow deficient. I have termed this belief as “dominant,” not just because two ofthe most influential engineering-related agencies, the National Academy of Engineering (NAE)and the National Science Foundation (NSF), have both claimed that the lack of publicunderstanding of engineering was having a negative effect on the engineering field and society ingeneral. 1 (p. 7) I have termed the
search process, and what types of positions are they obtaining?BackgroundAround 2005-2006, the field of engineering education expanded with two major events. First,the Journal of Engineering Education officially moved to a research focused journal(5, 6) andPurdue University granted its first Ph.D. in engineering education.1 Before that time, researchersentered engineering education through a variety of pathways2, which directly contributed to the Page 24.496.2ever expanding and interdisciplinary nature of engineering education. (For additionalinformation on the history of engineering education please review the article by Jesiek,Newswander, and
, china, comparative education research, culture, engineering education,ideology, internationalization, policy, policymakingIntroduction: The History and Politics of Policy Borrowing in ChinaPolicy borrowing has been a prevailing strategy for reforming education policies in mostdeveloping countries, reflecting a more general tendency toward dependence on foreignexpertise, information, and financing.1 As a developing country, China has been borrowingeducation policies from developed countries since the mid nineteenth century, including in the Page 24.497.2field of engineering education. In fact, one critical question throughout the modern history
create their own version of an engineering philosophy course, so thatmore engineers will become familiar with this important way of thinking about their profession.More generally, we hope that our story will inspire others to consider creating a new course on atopic about which they are passionate but perhaps think they lack sufficient expertise, and toparticipate in the course as co-learners with their students.The course was created and taught by an Associate Professor with expertise in biomedicalengineering. The sixteen students who enrolled in the course (10 female, 6 male) included 1freshman, 9 sophomores, 3 juniors, and 3 seniors. There were 12 engineering majors (7biomedical engineers, 3 industrial and systems engineers, 1 electrical
are, including assessment plans; • analyze engineering education content and pedagogy; • list appropriate academic standards and resources.Multiple readings and discussions continued throughout and after the term online. Requiredreadings included: • A Framework for Science Education: Practices, Cross Cutting Concepts and Core Ideas,6 • The NSTA Reader's Guide to A Framework for K-1 Science Education,7 • Next Generation Science Standards1, • How People Learn: Brain, Mind, Experience and School8 and • Engineering in K-12 Education3.Course Content ModulesCourse content reflects experiences created to help the course participants construct a highquality engineering unit for K-12 students. Experiential learning was included in
interviewed), but attrition leadto less than 175 (89 interviewed) continuing their participation throughout the three years.This paper focuses on the insights or ‘lessons learned’ during the study’s development andimplementation, with a focus on how to maintain participation rates. Specifically, insightsdiscussed in this paper include methods in 1) recruitment and retention of student participants, 2)compensation of participants, and 3) maintaining participant interests in each round of the study.Other insights discussed include maintaining consistency in the survey and interview instrumentswhile also allowing changes in the items used. The longitudinal nature of the project also forcedthe project team to address continuing participation of students
distinct studies of engineering education: 1) aNational Science Foundation (NSF) funded study in the United States (U.S.), and 2) anAustralian Learning and Teaching Council (ALTC) funded study in Australia. Byexamining and comparing these two similar (albeit distinct) contexts, we hope to identifymechanisms that are associated with similar teaching practices in the classroom. Inparticular, we seek to address the following research question: • To what extent are external influences associated with a faculty member’s teaching and learning decisions?Academic Planning in Sociocultural ContextTo frame our analyses and discussion, we use the Academic Plan model described inLattuca and Stark6, which posits that internal influences (on
, electricdrives, and embedded systems. Figure 1 illustrates the set up of the platform in the real-timeintegrated projects laboratory to deliver ECE courses through integrated projects on thisplatform. Figure 1: Project platformThe project platform comprises the following. (a) Power subsystem and sensors on the golf cart Power distribution and control; voltage, current, and speed sensors Page 24.503.4 (b) Chassis and backplane to be mounted on the golf cart Printed circuit board (PCB) interface cards in the backplane for (i) power management (ii) power system drive circuit (iii) real-time
. Page 24.504.2IntroductionA living-learning community (LC) is defined as a group of students that, “1) live together oncampus, 2) take part in a shared academic endeavor, 3) use resources in their residenceenvironment designed specifically for them, and 4) have structured social activities in theirresidential environment that stress academics”. 1(p10) The first intentional LC, known as theexperimental college, was created by Alexander Meiklejohn at the University of Wisconsin from1927 to 1932. These communities became more common during the expansion of highereducation in the 1950s and 1960s.2 Over the years, several variations of LCs have beenimplemented in universities throughout the United States to improve undergraduate
, the level of difficulty compared to other courses, and how these courses helped them develop the design skills needed in their capstone projects. This paper presents the results from the first two years of the study.IntroductionWhat is engineering design? This seemingly simple but in fact rather complex question has beenasked by many students. Dym and Little define engineering design as a “systematic, intelligentgeneration and evaluation of specifications for artifacts whose form and function achieve statedobjectives and satisfy specified constraints” [1]. Here, artifacts are human-made objects, such asstructures, machines and devices, which have a form (geometry) and function. Further, engineersarticulate, design and
positive view of time.Others who possess a negative view of time do not see the future as a place where things will getbetter. For students with a positive view of time, helping them make connections to the future willassist in their ability to see the value in present tasks. When possessing a negative view of time,students will not connect items to the future, and will often fail to see the value or have decreasedmotivation in the tasks they are currently performing11,17 . When combined, these three dimensions of a student’s future time perspective can be concep-tualized as forming three axes. Referring to Figure 1, a student’s perspective of time rests on thex-axis, and this perspective can range from focused on the past to focused on the
position as the world’s largest exporter for foodproducts, or foodstuffs, for over 50 years[1]. Ivy Tech Community College and Purdue UniversityCollege of Technology recognize that the food and foodstuff supply chain consists of industries thatutilize raw material crops in rapidly value-added, markets such as food, feed and non-food (alternativeenergy) production [2]. The variety of the supply chain is a crucial characteristic to maintainingsustainability through value in commodities and processing industries [3]. However, the supply chain isan increasingly complex field with a critical need for trained engineering technicians. The proposedprogram provides a comprehensive and streamlined approach for students seeking to understand the entirefood
appropriate to the media being used. - Comprehends communication from others. Attends to messages from others; correctly interprets messages and responds appropriately.A complete list of the ET Workplace Competencies (without definitions or key actions) is shownin Table 1.Table 1. ET Workplace Competencies Engineering/Technical Knowledge Analysis and Judgment General Knowledge Planning Continuous Learning Communication Quality Orientation Teamwork Initiative Integrity Innovation Professional Impact Page 24.510.3 Cultural
integration is defined to be the blendingof science, technology, engineering, and mathematics content and context into one learningenvironment for the purpose of (1) deepening student understanding of each discipline bycontextualizing concepts, (2) broadening student understanding of STEM disciplines throughexposure to socially and culturally relevant STEM contexts, and (3) increasing interest in STEMdisciplines to broaden the pipeline of students entering the STEM fields5.High quality STEM integration has been identified to have the following six characteristics4.First, the context must be both motivating and engaging so students develop personalconnections to the activities6-8. Second, students must actively engage in an engineering designchallenge
post-interaction writings and through focused quantification ofmotivation, valuation, and integration in our freshman and sophomore engineers.Kriewall, TJ and Mekemson, K (2010). Instilling the entrepreneurial mindset into engineering undergraduates. TheJournal of Engineering Entrepreneurship, 1(1): 5-19.Green JV (2011), Designing And Launching The Entrepreneurship And Innovation Living-Learning Program ForFreshmen And Sophomores. The Journal of Engineering Entrepreneurship, 2(1): 28-38.Weaver J and Rayess N (2011). Developing Entrepreneurially Minded Engineers By Incorporating TechnicalEntrepreneurship Case Studies. The Journal of Engineering Entrepreneurship, 2(1):10-27
“maximizeaccessibility to the greatest degree possible for the greatest number of users possible”. Here, theresearch study attempts to maximize accessibility to language used in engineering education forstudents. As such, the principles of universal design should help guide research toward moreaccessible learning environment design for diverse student populations. There have been a Page 24.513.3number of authors who have interpreted the principles of universal instructional design.1-3 Theuniversal design framework applies the principle of “learner centered” not just to one teachinginstance, but to the design of the whole learning environment at every level
enjoys teaching Introduction to Engineering Design, Statics, Dynamics and Materials Science. Page 24.514.1 c American Society for Engineering Education, 2014 Engineering Workshops for Middle School Girls (Research to Practice) Strand: Principles of K-12 Engineering Education and PracticeAbstract The lack of female participation in the field of engineering is somewhat astonishing. Onestudy found that only 11% of professional engineers are women.1 According to the AmericanAssociation of University Women (AAUW), there are multiple possible
, mutants are attractive and being smart isconsidered a virtue.”1 Since the movies were so recent and well-known, it was an easy universefor us to ‘visit’. When I introduced new concepts, we often explored them in terms of theMarvel Universe before we talked about them in terms of our universe. We also used Avengersas memory aids.This Environmental Engineering class is a junior-level class which meets for 50 minutes, 4 timesper week, for a 10-week quarter. I primarily lecture but I try to incorporate active learning asmuch as possible. Civil engineering students are required to take the class and it is a technicalelective for mechanical engineering students, so there is typically a mix of students. Thisparticular class consisted of seven male
broached by engineers, offered horizon broadening opportunities for parties fromboth sides to better understand the other, increasing the likelihood of more future collaborations.IntroductionOver fifty years ago, C.P. Snow, a trained scientist, turned literary author, made a case for theexistence of two distinct and diverging cultures.1 He saw those who study science andengineering, and those who study the arts, as growing progressively further apart in theirviewpoints. He stated that he felt he “was moving among two groups – comparable inintelligence, identical in race, not grossly different in social origin, earning about the sameincomes, who had almost ceased to communicate at all, who in intellectual, moral andpsychological climate had little
andengineers.Below is the final science complex design by the architects and engineers. Included in this finaldesign were about 85% of the deliverables from the Junior Engineering class projects on energysavings, architectural features, and detailed building design (including internal rooms and space). Page 24.517.17Final Gold LEED science complex design by architects and engineers, which incorporatedalmost all of the deliverables from student projects.High Altitude BallooningBackground: A High Altitude Balloon can send a student experiment 20 miles into Near Space where there is extreme temperature (-‐65 degrees C) and pressure (1
operating in two states, 29 diverse high schools,within 15 different school districts and 30 teachers deliver the course to over 450 students. 301of the 450 students in the 2013-14 cohort took ENGR 102 HS for University of Arizona credit.This paper will discuss ENGR 102 HS program history, core curriculum, spin-off research anddevelopment, keys to success, teacher training and program logistics.1. IntroductionIn order to remain competitive in the global market, the United States must continue to train thebest and brightest students in Science, Technology, Engineering and Mathematics (STEM)fields. One way to increase the pool of students seeking engineering degrees is to reach out tothose who are less inclined to choose and be prepared for an
students were influenced bytheir design peers, started to learn and adopt design methods, then accepted and generated “wild”design ideas by themselves. Furthermore, we also discuss and report faculty’s roles in thisprocess and the types of strategies that drove the collaboration and fostered the creativity.Introduction In the book of “a whole new mind why right-brainers will rule the future,” Daniel Pink [1]claims that just as information workers surpassed physical laborers in economic importance, theworkplace terrain is again changing, and power will inevitably shift to people who possessdifferent kinds of minds, such as artists, inventors, and storytellers – creative and holistic “right-brain” thinkers. This argument sounds a little
and friction of materials, ionic liquids as lubricants and nanostructured materials. She maintains an active collaboration with the research groups of Materials Science and Metallurgical Engineering at the Polytechnic Univer- sity of Cartagena and Materials Processing and Tribology at Purdue University, Indiana. As a result of these collaborations, some of her articles have been published in important journals of her field of exper- tise and her article entitled ”1-N-alkyl-3 methykimidazolium ionic liquids as neat lubricant additives in steel-aluminum contacts” has been named one of the TOP TEN CITED articles published in the area in the last five years (2010).Ms. Kate N. Leipold, Rochester Institute of
engineering department atMississippi State University. There were two pre-requisites required for this course: 1) Strengthof Materials, and 2) Material Science Fundamentals. While the course was deployed at the Page 24.521.3mechanical department, the course was aimed to also be appropriate for interested students fromany other discipline, in that it will assist in integrating ICME with other STEM disciplines byraising awareness of new potential issues and technologies and igniting an innovative thoughtprocess among students in different science fields for utilizing ICME in practice.More specifically, this course aims that the students are exposed to
, machine and/or living organism that can perform computation.The concept of computation can be described as the process of transforming input data intooutput data to solve a particular problem. The transformation is usually described in terms of analgorithm which is a set of steps to accomplish a task. An analogy between computation andcooking is depicted in figure 1. This figure compares the process of baking a cake (output) fromthe ingredients (input) by using the recipe (algorithm). The chef and the oven (processing agents)produce the transformation of the ingredients into a cake as described by the recipe. Incomparison, indexing the web follows a similar type of transformation: analyzing web pages andrelations between webpages (input), an
, integrating formal and informal educational strategies.Mr. Stephen Rudolph, MIT STEPHEN RUDOLPH is a technical instructor in the Department of Civil and Environmental Engineering at the Massachusetts Institute of Technology. He works with students in project-based classes, assisting them with the design, construction, and implementation of projects. He is especially interested in ways to help students quickly gain confidence in the labs and learn the safe and productive use of hand tools, machine tools, and lab equipment.Prof. Herbert H. Einstein, Massachusetts Institute of Technology Professor of Civil and Environmental Engineering Room 1-342 MIT Cambridge MA 02139Prof. Pedro M. Reis, Departments of Civil &
and property maximization.It is proposed that incorporation of such computer simulation tools in the pedagogy would behighly effective to enhancing and enriching undergraduate manufacturing education.1. IntroductionManufacturing and mechanical engineering curricula typically include one or more courseswhere the students are introduced to industrially significant, primary manufacturing process suchas casting, rolling, forging, forming, and welding. Such processes are best taught in a hands-onmanner using lab scale equipment or via industrial visits. While such lab activities are importantfor student’s understanding of the subject matter they are both expensive and cumbersome. Inorder that the students achieve the most benefits from hands-on
and the engineering design process and other conceptstaught in college engineering courses. Fourteen participants successfully completed theworkshop. This paper provides details about the workshop, including the topics covered.Results of pre- and post- workshop surveys are also presented and discussed.I. IntroductionThe declining competitiveness of the United States (U.S.) and impending shortage of engineershas been the focus of numerous reports [1, 2]. The Texas Higher Education Coordinating Boardattempted to respond to the looming crisis through the creation and implementation of theClosing the Gaps: The Texas Higher Education Plan [3]. Under the program’s strategies, a goalto significantly increase the number of degrees awarded in
steps, the functions, and the order of their applications. In aneffort to provide students additional study materials, a set of tutorials designed and developed.The tutorials are designed to follow Bloom’s Revised Taxonomy where the six stages ofcognitive process dimension (Remember, Understand, Apply, Analyze, Evaluate, and Create) areset as a step in each tutorial whereas, the knowledge dimensions are set as Factual Knowledge,Conceptual Knowledge, Procedural Knowledge, and Metacognitive Knowledge. The originaltaxonomy was developed by Bloom in 1956 and the revision of the taxonomy was developed in2001[1].Many educators aimed to create learning models to support and supplement their students