“busywork” that they must complete in order to graduate. What accounts for thesediscrepancies, and what can we, as engineering educators, do to help students become moreskilled communicators and better understand the role that communication plays in engineering?One reason that many students fail to recognize the importance of communication may be thatcommunication is generally treated as a set of skills that students are supposed to acquireoutside of engineering—in composition, technical writing, or public speaking courses. Studentssee no relation between communication and their genuine engineering work, such as solvingequations, modeling processes or doing product design. Although widespread, this approach tocommunication pedagogy is criticized by
mathematics learning in the classroom. Currently, she leads all K-8 math, reading, science, and career exploration programs at MAEF. Ms. Dean is an experienced science educator having lead for years the development of informal curriculum and programs for the Science Centers in Alabama and Louisiana. She is highly experienced in curriculum development, writing, training and implementation. She has lead teacher development programs, as well as conducted pilot engineering design lessons in the classrooms. She works closely with STEM teachers in the 60,000 students Mobile County Public School System and has the reputation as a teacher leader and change agent. Her work with K-12 students, teachers and ed- ucation administrators
Paper ID #18208Progress toward Lofty Goals: A Meta-synthesis of the State of Research onK-12 Engineering Education (Fundamental)Dr. Vanessa Svihla, University of New Mexico Dr. Vanessa Svihla is a learning scientist and assistant professor at the University of New Mexico in the Organization, Information & Learning Sciences program, and in the Chemical & Biological Engineering Department. She served as Co-PI on an NSF RET Grant and a USDA NIFA grant, and is currently co-PI on three NSF-funded projects in engineering and computer science education, including a Revolutioniz- ing Engineering Departments project
Work in Progress: What is Design in the Context of a Mechanical Engineering Ph.D. Program? Grace Burleson, Janet Tsai, and Daria Kotys-Schwartz Mechanical Engineering, University of Colorado BoulderAbstract Design has long been considered a fundamental focus area within the mechanicalengineering discipline. At the undergraduate level, students are given the tools and resources togain knowledge and skills in critical design competencies, such as ability to scope problems,develop analytical models, and test and validate solutions. However, there is limited scholarshipregarding the conceptualization and definition of design at the doctoral level within themechanical
. Note that Page 11.878.4Eq. (4) is extremely useful and important in solving problems by the virtual work method!III. Relevant Fundamental ConceptsIn teaching and learning the virtual work method, it is well to recall the following relevant fun-damental concepts:̇ Work of a forceIf a force F acting on a body is constant and the displacement vector of the body from positionA1 to position A2 during the action is q, then the work U1› 2 of the force F on the body is2-6, 8,9 U1› 2 ? F © q ? FqE (5)where F is the magnitude of F and qE is the scalar component of q parallel to
convinced me thatincorporating engineering design into lower division engineering courses enhances studentlearning and can make the teaching of engineering more fun. IntroductionLower division engineering courses are the foundation of engineering education. Without amastery of engineering fundamentals, students are poorly prepared to do engineering analyses,which is a critical part of engineering design. The breadth of agricultural and biosystemsengineering makes selection of topics for an introductory biological engineering course difficult.Covering too broad a swath of subjects can turn a core-engineering course, which should impartmastery of critical engineering concept, into a survey course, which
a co-chair of the Birds of a Feather session and on the Program Committee for the 2006 Grace Hopper Women in Computing Conference. She is on the Academic Advisory Committee as well as the Panels, Workshops, & Presentations Committee for the 2007 Grace Hopper Women in Computing Conference. Finally, she serves on the Curriculum Writing Committee for the ACM SIG Information Technology Educators (www.sigite.org) Page 12.1580.1© American Society for Engineering Education, 2007 Utilizing Virtual Software to Provide Hands-On Experience with Systems & Applications Software
based in engineering design.Tricia Serviss, Santa Clara University Tricia is an assistant professor in the Department of English at Santa Clara University, specializing in writing studies, composition, and writing educational practices. c American Society for Engineering Education, 2017 Work In Progress: First-Year Student Signature Project - Design an Infographic on “What is Technical Communication”Abstract:There are a number of concepts and skills that are common to all our university students.Technical writing is one of the most relevant and utilized concepts, thus we have developed aproject-based ‘writing to learn’ infographic design mini-project assignment to engage first-yearstudents
is offered every third semester at present. This is a laboratory-oriented course in which the students workas a team to design and develop working automated manufacturing cells involving machining and/or assemblytasks. Students are required to design and build the appropriate fixtures, robot grippers, electronic systems,etc. and write the complete protocol and software for the machining/assembly operation. In the early weeks ofthe course, the laboratory work involves primarily “demonstration” experiments to acquaint students with thelarger hardware available in the laboratory. This equipment includes robots, machine tools and programmablecontrollers, as well as the appropriate programming and control software needed to utilize them
resulting in the unique least squares solution to the original systemof equations provided the matrix, A , has rank of n, which it does.This method involves left multiplying through by AT and then using a fundamental theorem oflinear algebra which states that x = (AT A)-1 AT b (eq. 5)is the unique solution for which we are looking.MATLAB is a readily available and a convenient computer language for making such matrixalgebraic manipulations4. The MATLAB output for the example discussed above is shownbelow:A= 1.0000e+000 1.0000e+0004.2000e-001 1.9000e-0016.0000e-001 8.4000e-001b= 1.9800e+0004.1700e-0011.6520e+000Answers returned by MATLAB for values of x are
) framework to actively promote research quality.Our reflection data illustrate how numerical reporting conventions, formative life experiences,and professional aspirations can all affect a young engineer's perception of the relevance ofvariability. We conclude with a discussion of implications for instructional practice.IntroductionVariability—the phenomenon of non-identical values—is core to modern science. The movebeyond calculating averages to the study of real variation is one of the most important scientificdevelopments of the 19th century [1]. Ernst Mayr [2] positions variability as fundamental tounderstanding evolution through “population thinking.” Statistics as a discipline exists in largepart to develop techniques to study variability
Lecturer at Northwest College in Powell, WY. He has published over 200 papers on a variety of topics. He most recently co-authored a text, Perspectives on Engineering (2011), an IEEE eBook, Shaping an Engineering Career: Book 2: Dual Career Ladders (2013), and another text, So You Want to be an Engineer? (2015).Dr. S. Renee Dechert, Northwest College Renee Dechert is a professor of English at Northwest College in Powell, Wyoming, where she teaches courses in technical writing, business communication, composition, and social media. Her current re- search focus is on the rhetoric of social media, She also blogs about the Colorado Rockies.Dr. Andrea Carneal Burrows, University of Wyoming Dr. Andrea C. Burrows is a
performance. Our intention is to initiate a dialogue on the dilemma ofdeclining achievement. BackgroundCoursesThe two courses focused on in this study have been in the aerospace engineering curriculum atPenn State University (PSU) for a number of years and offer fundamental content. One is arequired junior-level course, Introduction to Aeronautics, with a required prerequisite of the firstaerodynamics class and an aerospace analysis class. The other is a senior-level technicalelective, Theoretical Aerodynamics, and its prerequisite is the Introduction to Aeronauticscourse. The junior-level course introduces students to the basic concepts of aeronautics bycovering the estimation of the forces of flight and
a broader sense, we demonstrate that ABET accreditation does have a critical supporting rolein raising the educational bar for engineering; however, this contribution is necessary but notsufficient to achieve the desired end.Why ABET is NecessaryIn promulgating its Raise the Bar initiative, ASCE’s overarching goal is to ensure that aspiringprofessional engineers attain the civil engineering BOK as a prerequisite for licensure. ABET’stwo fundamental functions contribute substantially to the achievement of this goal: Based on input from its constituencies, the EAC of ABET establishes standards for engineering degree programs at both the baccalaureate and master’s levels. These standards are organized into three different sets
strongtechnical and professional component. The FYEP course is a single semester hands-on, team-based interdisciplinary design course for entry-level engineering students. Several facultymembers from the College of Engineering and Applied Science teach the FYEP course. SCD is ayearlong industry sponsored, hands-on, design course for senior-level mechanical engineeringstudents. The professional skills objectives for both courses include increasing: knowledge ofengineering as a career, communication skills and teamwork skills. The technical skill learningobjectives emphasize fundamental engineering methodologies and design skills.Project-based courses are not currently incorporated into the sophomore or junior-levelcoursework at the University of Colorado
the ABET-EAC criteria. • Changed “Construction Project Management I” from a technical elective to a required course. • “College Chemistry” replaces “Fundamental of Chemistry.”3. ABET Accreditation IssuesTwo accreditation issues were investigated: 1) Can an ABET-EAC program be administeredoutside the Engineering College at our University and 2) Can existing CET courses be used inthe CE curriculum? The answer to both these questions is… probably yes.The commissioner for the ABET Technology Accreditation Commission22, the past Chair ofTAC of ABET23 (and current Chair of IEEE Accreditation Policy Council; the council addressesissues in EAB, TAC, and CAC accreditation), and an experienced ABET evaluator24 at our
economy has become tightly linked with much of the change triggered by technology; to understand other cultures, especially the societal elements of these cultures; to work effectively in multinational teams; to communicate effectively—both orally and in writing—in the international business language of English; to recognize and understand issues of sustainability; to understand the importance of transparency while working with local populations; and to understand public policy issues around the world and in the country in which one is working. It will be these fundamental capacities that will enable 21st-century engineers to develop into professionals capable of working successfully both
engineering degree programs.Undergraduate engineering curricula include engineering ethics through specialized courses andprogram-wide integration. While some engineering programs embed one stand-alone ethicscourse within a curriculum, other programs embed ethics modules across a few courses within acurriculum. Very few engineering programs weave engineering ethics across a four-yearundergraduate curriculum in a concerted and developmental way [7]. Engineering ethics taughtin stand-alone courses is usually offered within the first two years of study [4]. According toDavis [6], several engineering programs also embed ethical modules into technical writing andcommunication seminars, senior capstone projects, and introduction to engineering courses
field notes [44]. Feedback obtained from both content experts and engineeringstudents will inform revisions to the initial set of items prior to distribution and testing.The engineering task will be based on questions from the Statics Concept Inventory [45, 46].Statics questions were chosen because the subject is fundamental to mechanical, civil, and otherrelated engineering fields. This computation will be followed with an “intuition check” questionthat asks the user to assess the confidence in their answer choice how they choose their answer, ifthey would go to their manager with just this prediction, and how they would justify their answer.The resulting two-part instrument will then be distributed to collect responses that will be usedfor
rotationally, constrain thereaction points to approximate the experimental conditions. The results (i.e., elemental andnodal forces, stresses and deflections) in tabular and graphical form are made available in digitalfile format.Once all three methods have been completed, the results are compared to ascertain whether thevalidity of the hypothesis that the bicycle frame is not a truss. Generally, students conduct theexperiments and perform the analyses and interpretation of the results as small teams. However,each student must write an individual formal report containing the following sections: executivesummary, introduction/objectives, description, results, discussion/conclusions, and appendices.Assessment/EvaluationThe success of this “do-say
O.U.T.K.A.S.T. Imagination (The OI) [12] to betterunderstand the messaging in “Entrepreneur” and to guide student usage and/or writing of lyrics fortheir final musical composition. The OI is a design and annotation hermeneutic that samples thenarrative modes and perspectives of the original acronym associated with the Atlanta-based rapduo, OUTKAST (“Operating Under The Krooked American System Too-long”) [13]. It layers onthe sociological imagination of C. Wright Mills [14], and the techno-pedagogical innovations,aesthetics, and impacts native to Black cultural production and the hip hop aesthetic to build a hiphop-informed taxonomy of design principles that rely on a set of cultural affordances to guideculturally-resilient computational media-making
innovations does not take into account the process of people transformingtheir beliefs and values. Beliefs and values are not a product of dissemination; rather individualsrecognize them through experience. Transformative learning theory is specifically focused onunderstanding the process of revealing and challenging beliefs and values that happens with achange in practice. When we try to understand the impact of introducing an educationalinnovation, a more fundamental question that needs to be asked is how have people’s ways ofthinking changed about good educational practice, and not just how much their practice haschanged.The purpose of this paper is to draw on the literature of social and human change with particularfocus on the theories of
energygrand challenge and the resources available for instructors to teach energy from amultidisciplinary point of view within engineering. In the sections below, we posit threepotential reasons for the existing disconnect. Entrenched disciplinary boundariesPerhaps the most fundamental reason for the existing disconnect between educational needs andinstructor resources is entrenched disciplinary boundaries. The energy grand challenge hasemerged long after the present set of disciplinary boundaries (economics, engineering, business,political science, etc.) was established. The energy grand challenge exists between and amongthe disciplines as what philosopher Bruno Latour calls a “hybrid.” “Hybrid[s] sketch outimbroglios of science, politics
poor to excellent, as shown in Figure 1. 10 Very Poor Fair Good Very Excellent Poor Good My instructor’s contribution to this course My instructor’s contribution to my learningFigure 1: Example of current SET format and structure.However, an AOE question might be reformatted to be structured as in Figure 2, in which theresponse is only positive, negative, or neutral, but requires an explanation for the reason thecontribution is considered as such. This structure is fundamentally different from the approachcurrently used, which asks students to add general comments after
often struggle to overcome the widely-held perception that high achievers are definedby good course grades alone. For many instructors test grades are such a handy tool that they areinclined to use it whenever possible. When we first looked at how students’ readiness affectstheir course performance, we applied a hypothetical universal model, shown in Figure 5, toexplain our data. This model is based on typical practices in traditional physics courses forcontent delivery and assessment. In this figure, three typical groups of knowledge are used.Traditional physics courses recognize these three classes of knowledge i.e., factual, conceptual,and procedural as fundamental knowledge. Both teaching and learning are assumed to start frombasic factual
might be all but one. In this method,students can also choose to work towards the grade they want in order to spend their timeelsewhere (Nilson, 2015). Another instructor might use a mix of traditional grading and pass/failgrading. For example, to earn an A in a course, a student may have to receive an average examscore of 80%. The instructor can also set bars for specific grade levels such as a C resulting fromfailing a peer evaluation. In all of these systems, missing one element on the overall gradechecklist results in a lower grade.As all elements become pass or fail, the specifications for an assignment must be made veryclear. Writing good specifications is a lot like writing good requirements for a project. Just likerequirements in
anengineering degree program bringing calculus credits with a 2.0 GPA from a community college,entrance counselors might consider recommending that fundamental calculus courses berepeated, or perhaps offer additional oversight and monitoring to facilitate intervention if needed[8].Half of the Hispanic males (3) and two Asian males attended high schools outside the U.S. andbegan their U.S. academic careers in community colleges. All six express confidence that theirhigh school preparation in mathematics and science exceeded that of U.S. high school studentsand their enrollment in transitional institutions is not a result of poor mathematics or scienceskills. Interviewer: Well tell me a little bit about your high school preparation and how do you
AC 2010-330: HOW THE CIVIL ENGINEERING BOK2 IS BEING IMPLEMENTEDAT THE UNIVERSITY OF ALABAMAKenneth Fridley, University of Alabama Kenneth J. Fridley, PhD, F.ASCE, has been at The University of Alabama since 2003 where he is professor and head of the civil, construction and environmental engineering department. In 2006, he served as an administrative fellow for the office of the executive vice president and provost of the University. He is the 2010 recipient of the T. Morris Hackney Award for Faculty Leadership. Fridley has gained a variety of experience in structural wood engineering through his studies of the creep-rupture of wood, the vibrations, durability and deflection of wood
and Schatzberg [15] point out that definitions are fundamental to philosophy, and our philosophy, whether explicit or not, determines how we educate [16]. More practically, definitions serve as objectives, helping to determine the ultimate aims of education. Thus, definitions may provide insights into how and why engineering education is this way and not that.”As Linsenmeier states in his 2003 IEEE article on biomedical engineering [5], “in order tospecify curriculum, we need to specify the field in which we are trying to provide an education(pg. 33).” Indeed, many of the reports offering suggestions for core BME content begin with adescription of biomedical engineering and how it is distinct from [5], [6], or
reference. Often, various authors haveapplied slightly different labels to fundamentally the same concepts, or have subdivided andcategorized the same ideas in slightly different ways. For purposes of our discussion and toexplain and illustrate one axis of the three dimensional conceptual model of innovation, we havechosen “The Innovator’s DNA,” as presented by Dyer, Gregersen, and Christensen6.The competencies defined by the Innovator’s DNA, the authors refer to as, “Discovery Skills” 6.The term, “skill,” refers to task proficiency. While specific task proficiency is certainly anessential element of Engineering education for effective innovation, we envision the boundariesof the innovation space as broader than task specific skills alone. We refer