‘messing with the world’” (p. 11). Yet the editors of Journalof Engineering Education acknowledge there is still little known about the “engineering teachingculture.”To address this growing area of interest and importance, we set out to examine already-practicing teachers’ beliefs and expectations about engineering instruction and student learningas it occurs at the high school level, and document how these views change as teachers becomenewly trained to use an engineering education curriculum. We examined teachers’ changingbeliefs in the context of their initial experiences teaching courses from the Project Lead the Way(PLTW) program. Although some selection bias is inherent in a study of this nature (we are notcurrently at liberty to assign who
-world problems from a system-level perspective, developing an appreciation for the inter-connectedness of engineering principles and concepts, in which project requirements must beoptimized to reach desired system performances and functions [1-5]. On the other hand, there aregrowing expectations and needs for sustainability, guiding the balance between projecteconomics, societal and environmental factors, all of which influence system design specificsand characteristics. For students to explore this paradigm, it is imperative that project-basedlearning experiences be integrated throughout their undergraduate education. Senior designcourses fill a critically important role in the engineering curriculum, forming a bridge betweenacademia and
wide variety of peripherals integrated into a contemporary microcontroller (j,k).Subsequent curriculum changes (specifically, increased emphasis on embedded system design)prompted revision of the course learning outcomes as follows: 1. an ability to write programs for a computer in assembly language (e,k); 2. an ability to interface a microprocessor to various devices (a,c,e,k); 3. an ability to effectively utilize the wide variety of peripherals integrated into a contemporary microcontroller (j,k); and 4. an ability to design and implement a microcontroller-based system (a,c,e,j,k).Currently, in-lab “practical exams” are used to assess outcomes 1-3, while an embedded systemdesign “mini-project” (implementation of a turn-key
critical in Historically BlackColleges/Universities (HBCUs). Based at an HBCU-designated school with extensive support from the National ScienceFoundation (NSF), we have studied the phenomenon of the gap between our expectations andstudent performance in the mathematical competencies and preparation for advanced coursework[57-59]. As observed, such weaknesses connect to the level of student academic engagement –both inside and outside of the classroom. This study, attempting to address student weaknesses byaddressing low academic engagement levels, led to the design and exploration of the Knowledgeand Curriculum Integration Ecosystem” (KACIE), in which a framework that organizes research-based principles from the learning sciences and from
seamlessly as possible within existing curriculum at the study institution. At this institutionstudents are required to complete an oral communication general education requirement. To meetthis requirement, the institution teaches a large number of traditionally taught public speakingclasses. These classes follow what could be considered a typical public speaking coursetemplate; the classes are standardized around a single text book, meet in person three hours aweek, and include introduction, ceremonial, informative, and persuasive speeches as well as agroup project (and at least one speech of the instructor’s choice). The integrated class wascreated to meet that same general education requirement, but specifically for engineeringstudents. The
advocates for change in their future careers. Hatchery Units are onecredit courses that are designed to address gaps in students’ technical knowledge identified bylocal industry, infuse ethics and social justice in the undergraduate computer science curriculum,and build communities of practice while providing a more streamlined integration experience fortransfer students to the program. Guided by Rawl’s [33] theory of social justice, the team willwork with students and faculty to create an environment that is welcoming and supportive for allundergraduate CS students and encourage graduates of the program to work to promote thesevalues as future computer science professionals. The development of these values will bepromoted by building communities
writing was the motivation for such an action. A programwas initiated to support English programs at K-12 levels in the state, but not at higher educationinstitutions. An engineering Initiative program was also established by the state to aid andstrengthen STEM programs in schools and colleges. Therefore, in 2017 UVU decided toestablish an internal task force to investigate the reading and writing across the curriculum issue.A Writing-Enriched (WE) Committee was formed to examine various methods to implement acommunication requirement for all programs across campus. After one year of brain storming, itwas decided to ask each program to develop and designate two Writing-Enriched (WE) courses.The form of writing and communication exercises were
of Mechanical and Biomedical Engineering at Boise State University created aprocess which integrates metrics from the FE results with other metrics in our loop for outcomesassessment and continuous improvement. Our process prevents us from taking inappropriateaction based upon isolated negative results from the FE exam. We have used our process tomake a demonstrable improvement in our curriculum. Two examples of faculty action taken dueto unsatisfactory and questionable results from the FE metric before our last ABET visit arepresented and discussed.IntroductionThe Fundamentals of Engineering (FE) exam is a common metric used to assess outcomes ofengineering programs. The FE exam is an eight-hour, multiple choice exam administered in thefall
project includes: • the list of courses which will be set up jointly with other programs; • the list of courses which will be delegated to the departments of support; • the sequence of the courses; • the process of integration of the courses which will be privileged; • strategies to include an internship in the program; • strategies to include an international aspect in the curriculum; • strategies to facilitate access to the graduate levels; • the supervision process which will be set up; • various methods of assessment which will be adopted; • various methods of teaching and learning which will be used.The development of the curriculum is based on the principles exposed in the framework of thiseducational
ExpectationsAbstractThis work-in-progress paper presents an ongoing evidence-based practice implementingintegrative professional communication activities derived from an investigation of professionalcommunication expectations of industry co-curricular partners. Contemporary pedagogicalapproaches, such as problem-based learning and entrepreneurially minded learning, have as acentral focus the desire to expose students to authentic experiences which integrate technicalknowledge with workplace skills connected to professionalism, communication, collaboration,and leadership. This approach can conflict with traditional engineering curricula where theinstruction of technical skills are frequently separated or deemed more important than “softskills” instruction in
presenters and community partners to discussobjectives, techniques, problems, solutions with improving the S-L projects in our courses.Other goals of the SLICE program with regard to faculty are to:• study the art and science of service-learning and form a community of practice ,• create a formal program to connect faculty to community groups (local and international) ,• develop appropriate projects/experiments for integration of S-L into at least forty core courses in the undergraduate engineering curriculum at UML ,• develop assessment tools to gauge the impact of this integration on students, faculty, institution, and community ,• become an engaged college—engaged with the students, each other as faculty across departments, and with the
knowledge. Similar studies have beenconducted that have looked at mathematics and science teaching; however, little research hasbeen done regarding what educators learn and do when teaching engineering in middle schools.The study reported in this paper investigated three in-service, middle-school teachers with littleengineering background, explored the knowledge they used and developed to teach anengineering curriculum, and asked the following research question: What mathematics, science, and engineering subject matter knowledge do middle-school mathematics and science teachers draw upon and incorporate as they teach an engineering instructional unit on robotics?Engineering in the Middle School ClassroomEngineering education in
full range of academic goals that include assessment, advising, careerplanning, core-curriculum integration, and student-directed learning. In addition, while theprofessional skills outlined by ABET are intended specifically for engineering programs, theissues identified by ABET in fact apply to most, if not all, disciplines at the university. Page 11.390.2Assessment of student outcomes involves two key components—the definition of concrete,measurable outcomes and the development of methods and tools for assessing those outcomes.The first part of this paper describes a theoretical framework used to develop measurableoutcomes, illustrated with
about a student’s engineering identity as an element of student development in theundergraduate years?Learning Environment: How would you characterize the learning environment on your campus?Is there an atmosphere of students in competition with each other? Do students feel overloadedby a demanding curriculum? Do all students feel that your institution would like them tosucceed? Do your students develop confidence in their abilities as engineers? Are your studentsexcited when they graduate, or do they seem to be just sticking it out to the end?Example #2: Learning about Engineering over Four Years13, 18, 19, 20 - Engineering students’ knowledge does grow over the four years, but many seniors did not report gaining knowledge of
. After the introduction, the paper will be organized in thefollowing sections: (1) goals for change, (2) barriers to change, (3) foci for change, and (4)strategies for change.Intr oductionAs an engineering faculty member, you may be in the midst of working on a curricularinnovation or contemplating making a curricular innovation. In either case, you may be thinkingthat the curricular innovation on which you are working (or hope to be working) will eventuallybe broadly adopted across your department, college, or institution. However, issues that you facewhen developing your curricular innovation are almost entirely different from issues that youface when contemplating broader adoption of your curriculum. Curriculum developmentintegrates subject
undergraduate curriculum. While overall students saw some value in developingvisual-spatial skills, civil and mechanical students rated the importance higher. Studentsgenerally did not indicate that body-kinesthetic, musical, interpersonal, or intrapersonal werebeing addressed within the curriculum. Furthermore, they did not think that body-kinesthetic ormusical should be addressed within the curriculum. However, they saw some value inaddressing interpersonal and intrapersonal skills. Figure 2: Student assessment of the extent to which an MI is currently addressed within the curriculum and the extent to which it should be addressed.We did not observe any significant gender differences with one exception: females self-evaluatedtheir
courses Group 11 frontier research fundings and applicationsGroup 3 no answer Group 12 no answer Problems and context from prerequisits courses propagate into current course for open-ended problems created in the current course. They don't jut take a **Curriculum change for the classes - we courese and then don't see/ use it again (verticle need more classes focusing problemGroup 4 integration). Also consider longitudal integration Group 13 solving topics/ reasoning topics. 1) More coordination among courses
Engineering Science and Mechanics, an M.S. in Engineering Mechanics, and a Ph.D. in Biomedical Engineering from Virginia Tech. Her interests in engineering education research center around recruitment and retention, understanding engineering students through the lens of identity theory, advancing problem based learning methodologies, assessing student learning, as well as understanding and integrating complex problem solving in undergraduate engineering education. This latter project is funded through her recent NSF CAREER award. Her other research interests lie in cardiovascular fluid mechanics and K-12 engineering education.Jamie Constantz, James Madison University JAMIE CONSTANTZ is a
renamed the Engineer of2020 committee. That committee has been charged with developing mechanisms to achievecurriculum innovations that enhance these attributes among engineering students. Two primarymechanisms are currently in place: the Engineer of 2020 Annual Workshop, and the Engineer of2020 Seed Grant Program.The College of Engineering has hosted an annual Engineer of 2020 workshop since fall of 2007.The first workshop was held on Aug. 28, 2007, and focused on three of the target attributes:innovation, multi-disciplinarity, and continuous learning. Outside experts from industry andacademia were invited to present their thoughts on the importance of each of these attributes andon suggestions for how best to include it in the curriculum
Administration from Harvard University. One of his major research interests has been the impact of gender on science careers. This research has resulted in two books (both authored with the assistance of Gerald Holton): Who Succeeds in Science? The Gender Dimension and Gender Differences in Science Careers: The Project Access Study.Dr. Philip Michael Sadler, Harvard Smithsonian Center for Astrophysics Philip Sadler holds a B.S. in Physics from MIT and an Ed.D. from Harvard. He co-authored the first integrated computer and laboratory introductory calculus course in 1975. He has taught middle school mathematics, engineering, and science and both undergraduate science and graduate teaching courses at Harvard. His research
study the academic development of students enrolled inundergraduate engineering programs.Mathematical Test Items: Examples M1 and M2 The use of mathematics in solving and communicating engineering analysis can be an obstacle forsome students. In describing the use of mathematics in engineering, we have distinguishedbetween two different constructs, listed above as: (M1) compare and contrast mathematical applications relevant to solving varied problems in Page 15.313.3 engineering; (M2) understand how the engineering quantities (e.g. force, work, power, and flow rate) are described by the mathematical representations (e.g. integration
from Georgia Institute of Technology, and a MBA from Indiana University. She has taught at Wentworth Insti- tute of Technology as an Adjunct Professor for College Physics I. She has also worked in industry at Pratt & Whitney for several years and served in roles such as Integrated Product Team Leader and Affordability and Risk Manager for the F135 Engine Program. Page 22.1038.1 c American Society for Engineering Education, 2011 Making Sense of Nanoscale Phenomena: A Proposed Model of Knowledge and ThinkingAbstractNew curricula are needed to meet the
and Social Policy. Her research interest lies in the design of curriculum and learning environments for STEM that support deep understanding, transfer, and collaborative learning. Before arriving at North- western, she graduated from Smith College with a B.A degree in Engineering and Learning Sciences. At Smith, she worked with Dr. Glen Ellis on knowledge building research as wells as design of instruc- tions and assessment for an engineering course. She received the highest honor in Engineering Art with her honor thesis titled ”Understanding Knowledge Building in Undergraduate Engineering Education” in which Dr. Glen Ellis was her advisor.Ms. Yezhezi Zhang, Smith College Yezhezi Zhang is a student at Smith College
. Villanueva is an Assistant Professor in the Engineering Education Department and an Adjunct Pro- fessor in the Bioengineering Department in Utah State University. Her multiple roles as an engineer, engineering educator, engineering educational researcher, and professional development mentor for un- derrepresented populations has aided her in the design and integration of educational and physiological technologies to research ’best practices’ for student professional development and training. In addition, she is developing methodologies around affective management of curriculum, instruction, and research for engineering students. c American Society for Engineering Education, 2017 The
Technology. At Rose-Hulman, he co-created the Integrated, First-Year Curriculum in Science, Engineering and Mathematics, which was recognized in 1997 with a Hesburgh Award Certificate of Excellence. He served as Project Director a Na- tional Science Foundation (NSF) Engineering Education Coalition in which six institutions systematically renewed, assessed, and institutionalized innovative undergraduate engineering curricula. He has authored over 70 papers and offered over 30 workshops on faculty development, curricular change processes, cur- riculum redesign, and assessment. He has served as a program co-chair for three Frontiers in Education Conferences and the general chair for the 2009 conference. Prof. Froyd is a
AC 2009-1286: COMPARISON OF STUDENT PERCEPTIONS OF VIRTUAL ANDPHYSICAL LABORATORIESMilo Koretsky, Oregon State University Milo Koretsky is an Associate Professor of Chemical Engineering at Oregon State University. He currently has research activity in areas related to thin film materials processing and engineering education. He is interested in integrating technology into effective educational practices and in promoting the use of higher level cognitive skills in engineering problem solving. Dr. Koretsky is a six-time Intel Faculty Fellow and has won awards for his work in engineering education at the university and national levels.Christine Kelly, Oregon State University Christine Kelly
minority students as well8, 16.Factors such as cultural identification, commitment and Tinto’s8 model of social integration intothe institution of higher education suggest that Black students may be more likely to attend andgraduate from HBCUs. Controlling for pre-collegiate characteristics and the academicselectivity of the institutions, researchers have suggested that attending an HBCU is positivelyassociated with Black students remaining in college and earning a bachelor’s degree 6, 18.Additionally, Allen19 noted that the “fit” between Black students and higher education is morefavorable at HBCUs. Also, Wenglinsky17 found that Black students at Black institutions aremore likely to become professionals6.Just as Black students are more likely to
thetheorized utility of the experience for promoting student engineering self-efficacy andmotivation. Following an overview of theory behind the curriculum, we describe how theseprinciples align with the student experience while fabricating soft robots. Finally, we offerpreliminary reports on initial states and changes in student perceptions as they participated in thecurriculum.Girls in STEMAmong areas of concern for technology and engineering education, is the participation of adiverse body of students 1. For our field this includes female students, and a number of effortshave been made to understand factors related to this disparity 2, 3. In middle-school and high-school, as students are often first exposed to these elective courses, interest
, University of Rochester Lisa Perhamus is a doctoral student in the department of Teaching and Curriculum at the University of Rochester's Warner Graduate School of Education and Human Development.Reed Stevens, University of Washington Reed Stevens is an Associate Professor in the College of Education at the University of Washington. He specializes in ethnographic and comparative approaches to studying how people learn, especially in disciplines related to mathematics, science, technology, and design. He is currently co-leading two NSF Centers working on issues related to how people learn, the LIFE Center and CAEE
education:administrators’ perspectives on integrating inquiry pedagogy into the curriculum. Higher education, 58(6), 841-855.[18] Fee, S. B., & Holland-Minkley, A. M. (2010). Teaching computer science through problems, not solutions.Computer Science Education, 20(2), 129–144.[19] Qiu, M., & Chen, L. (2010). A problem-based learning approach to teaching an advanced software engineeringcourse. In Education Technology and Computer Science (ETCS), 2010 Second International Workshop on (Vol. 3,pp. 252-255). IEEE.[20] Case, J. M., & Light, G. (2011). Emerging methodologies in engineering education research. Journal ofEngineering Education, 100(1), 186–210.[21] Novak, G.M., Patterson, E.T., Gavrin, A.D., & Christian, W. (1999). Just-in-Time Teaching