ET enrollmentfollowing the implementation of the EVPMT (Figure 1), confirming that the program intent hasbeen achieved.10, 11 Page 22.941.4 Figure 1: Growth in ET Enrollment (Source: MTSU Office of Institutional Effectiveness)Additional benefits have been realized, as well. First, graduation rates in the EngineeringTechnology Department, as tracked and reported by the MTSU Office of InstitutionalEffectiveness, have increased 75%10,11, which means that retention rates have also improved.Second, the utilization of the peer-managed machine-shop laboratory has provided a stress
many others (Scott, 1991). Human beings are fundamentally networked organisms. From the networks of interactionbetween subcellular components and genes which determine susceptibility of an individual (oreven a population) to disease to the social networks that influence the spread of diseases such asobesity and influenza through human society, networks determine our health and provide us witha way of understanding human health at multiple levels (Barabási, 2007). The interconnected 1 An entity may refer to social entities such as individuals, groups or, organizations
ofchemical, biological, and environmental engineers at the start of a sophomore level materialbalances class: 1. Are student responses to a content specific attitudinal survey (CLASS-Chem) consistent with responses to a general approaches to learning survey (R-SPQ-2F)? Is each survey consistent within itself? Page 22.942.4 2. How does student performance on in-class interactive conceptual questions (WISE) relate to student exam performance. Is student performance related to their reported attitudes and approaches to learning? 3. How do students’ perceptions of the effectiveness of the interactive pedagogy correlate to
Engineering Education, 2011 Low-Cost River Simulator for 100W Hydro-Kinetic Turbine Testing AbstractIn a multi-year project our students are designing, prototyping, and testing hydro-kinetic devicesintended to provide electrical power in remote regions by extracting energy from river currents.The low-cost submersible devices must not disturb surface use of waterways while producingbetween 20 and 100 watts of power for river currents between 1 and 3 m/s.These hydro-kinetic power systems must be tested in a full range of water flow velocities. Localriver testing does not readily provide a wide range of flow velocities and commercially availablewater tunnels are infeasible for this
difficult challenge. A key questionhas been the size or number of units of the proposed course as the course had to fit into eachdepartment’s existing curriculum. Because the ABET accreditation criteria for engineeringprograms 1 requires that every student be able to function on multi-disciplinary teams, a largeenrollment default course was needed. A five unit studio laboratory during a single quarter wasultimately chosen for the new course. The change and approval process was easiest for ARCHbecause it fit within their existing curriculum structure, no curriculum changes or faculty votewere required. The CM department was already in the process of a major curriculum renovationwhich involved a transition to studio labs, so making this new course
possess a unique combination of ubiquity, portability,connectively and low cost which together could make them a valuable educational tool.1 As amethod for providing training and education, m-learning is commonly defined as “e-learningcarried out by means of mobile computational devices” that are “small, autonomous andunobtrusive enough to accompany us in every moment of life”.2Today cell phones can instantly present the user with rich media (text, audio, images and video),opening new opportunities for “just-in-time” learning especially as one part of a blendededucation program that may combine other components using face-to-face and web instruction.Just-in-time learning is thought to encourage high level learning since the learner can access
, winning over $1 million in cash, investments, and in-kindprizes, raising several million dollars in funding, and starting four of the companies proposed inthe plans developed for the class. The remainder of this paper will discuss how the teams areformed and difficulties in team formation, strategies to overcome team formation problems, whythe teams have been so successful in student business plan competitions, and the success of twoof the teams subsequent to the competitions.Formation of Inter-disciplinary TeamsStudents who successfully complete the Foundations of Business for Entrepreneurs course in thespring semester are invited to continue in the Entrepreneurship Certificate program. Science,engineering, agriculture, and design students
, depending on the skillset of those participating in the course. Page 22.945.7AssessmentsThere currently is one assessment which will be incorporated into the research, reflecting studentfeedback of the course, provided by the Office of International Education. The synopsis providedis from students in the second year (2010). Assessments from the first year are in the process ofbeing extracted, as the assessment software provider has changed, and system support isunavailable. Content areas are: a. Academic Quality (overall mean: 4.0 out of 5.0) 1. Relevant content 2. Engagement with host country culture and people 3. Quality of
Page 22.1030.4 3subsystem7, were identified and analyzed along with their interactions to determine how toaddress current barriers and increase usage of Tablet PCs.ResultsMany consistent benefits of Tablet PCs that served as motivations toward Tablet PC use, as wellas several challenges towards full adoption affecting both students and faculty in the COE werefound throughout the analyses. A brief summary of the reported benefits and barriers fromfaculty and students are shown Tables 1 and 2, respectively, and are then described in detail.Table 1. Benefits and barriers reported by faculty. Benefits
Education Abroad, the Office of International Students and Scholar,and the Office of American English Language Programs. There are five different programsprovided under the Office of Education Aboard. These programs are: 1) Academic Exchanges,2)Short-Term Programs, 3) Cooperative Center for Study Abroad, 4)Kentucky institute forInternational Studies, and 5) International Student Teaching Program.5NKU offers two TAC-ABET accredited bachelor degree programs in Mechanical andManufacturing Engineering Technology. One of the university visions for growth is theinternationalization of the campus. The International Center at NKU has a mission to: “Develop and promote global perspectives through engagement in the international arena and to
AC 2011-2472: MAKING A COLLEGE-LEVEL MULTIDISCIPLINARYDESIGN PROGRAM EFFECTIVE AND UNDERSTANDING THE OUT-COMESShanna R. Daly, University of Michigan Shanna Daly is an Assistant Research Scientist in the College of Engineering and the Design Science Pro- gram at the University of Michigan. Her research focuses on teaching and learning design and innovation strategies in interdisciplinary contexts.A. Harvey Bell, University of Michigan . Harvey Bell, IV was appointed Professor of Engineering Practice and Co-Director of the Multidisci- plinary Design Program on September 1, 2010 after a 39 year career in the automotive industry with General Motors. During his career with General Motors some of his significant positions
wrong. In many cases, the student doesn‟t realize that they need the helpthat is available with advising. Proactive steps must be taken to get the information to thestudent.“Intrusive Advising, defined by the work of Robert Glennen, takes developmental advisingtheory one step further. Intrusive advising is proactive. Programs utilizing intrusive advisingbuild structures that incorporate intervention strategies mandating advising contacts for studentswho otherwise might not seek advising.” 1 Links to many articles about “intrusive advising” canbe found at this source. Sharon Holmes, Iowa State University, describes “Intrusive Advising”as a model for retention. She points out that “many student support programs are designed basedupon the
appropriation, the author is able to offer low or nocost professional development workshops on EiE to teachers, administrators, specialists andothers from districts around the state and region. Four elementary schools have adoptedengineering design as the curriculum integrator and every child and teacher participates. Thedemographic profiles of these schools vary.Figure 1: Whole School Implementation ProfilesSchool Location Number Student Demographic Year of Information Implemented StudentsRachel Freeman Wilmington, 348 Primarily African American Fall, 2007School of North
are knowledgeable about or comfortableteaching—into an already-packed elementary curriculum can present challenges. This paper willdraw upon the experiences of educators at the Museum of Science, Boston who have beensupporting the implementation of elementary engineering for over seven years. Specifically itwill address how the Museum of Science has engaged in three kinds of partnerships fostered byEiE that have enabled the development and dissemination of the program—partnershipsassociated with (1) development and testing of resources, (2) building teacher capacity, and (3)fostering national dissemination and advocacy. It briefly describes the goals of thesepartnerships, the roles that partners can play, sets forth some characteristics of
1stthrough 5th grades to all children in HCPS by 2012-2013 (Table 1). HCPS is a countywidedistrict in Maryland, having a total of approximately 40,000 P-12 students, with about 15,000 ingrades 1 through 5. The STE units, discussed in more detail in the third section of this paper, areblends of modified district science and EiE units, and take approximately 12 to 14 hours ofinstructional time. The project is currently in its second full year (2010-2011), which is the fullimplementation year for 3rd and 4th grades, and the pilot year for 1st and 2nd grades. Of the 33 elementary schools in HCPS, 8 have participated as pilot schools. Pilot schoolsare where each STE unit within the SySTEmic Project is taught one year prior to fullimplementation
Page 22.1036.2mainstream K-12 education, not merely as an elective or extracurricular activity. We haveposited that engineering: (1) presents opportunities for students to acquire critical 21st centuryskills, such as problem-solving, creativity, innovation, and teamwork; (2) provides relevantproblems and contexts which will motivate students to more deeply learn and apply science andmathematics; (3) promotes habits of mind, such as analytical thinking, that can be applied acrossa variety of problems, disciplines, and contexts; and (4) is a misunderstood and little-knowncareer path that provides opportunities for intellectually and financially rewarding careers thatcan help society and improve quality of life.The 2010 report Strengthening STEM
function at many levels, rangingfrom product conceptualization, to risk and market analysis, to client interaction, to projectmanagement [1]. Many engineering programs have responded to this need by incorporatinginterdisciplinary design experiences into their core curricula [2-4].Our own institution, Northern Arizona University, has been a leader in this area, introducing aninnovative interdisciplinary curriculum spanning all engineering disciplines in the mid 1990s [5-8]. The Design4Practice program consists of a sequence of four design courses of increasingcomplexity, one in each year of the four-year engineering curriculum, that are required for allengineering majors. All courses are project- and team-based, with student teams workingtogether
challenge of producing the trained scientists,engineers and technicians that will be needed to fuel the nanoscience revolution.Instructors of nanoscience and engineering will need to combine both content knowledgeand effective pedagogical methods to create effective curricula. The objectives of thisstudy are to begin to identify the (1) content knowledge and (2) pedagogical contentknowledge (PCK) of experienced researchers and instructors in nanoscale science andengineering. It is hoped that these results can be used to inform curriculum design innanoscience and technology. Our participants were seven senior researchers at a largeMidwestern university. We employed qualitative research methods to identify theconcepts, ideas, and ways of thinking for
development of a hands-onapproach to manufacturing education. This offers students skills that directly prepare them forcareers in manufacturing, design and product realization. Four knowledge areas withcorresponding detailed learning outcomes were identified for study namely: (1) drafting/design,(2) manufacturing process, (3) process engineering, and (4) CAD/CAM. Based on these, a corecurriculum shared between the partner institutions was developed. This encapsulates the MILLmanufacturing competency model. Assessment instruments to measure student learning werealso developed. Sample test items were developed for all competencies in a series of internalmeetings held among MILL Project staff. The preliminary results from a field test indicate
for recruiting2. The COT-RCNGM expos market to students to consider the community colleges pathway as a gateway tocareers in STEM and high education particularly for academically, economically and sociallydisadvantaged students.Research indicates that there are many other marketing activities at different high schools,community colleges and universities throughout the United States. Based on the motivatingrationale, the marketing or outreach activities may be categorized by a common theme and anapproach. Table 1, summarizes the motivation for outreach, common themes for outreach andcommon approaches3-7. Some of the common themes for outreach are: active learning throughhands on activities, inquiry-based learning, curriculum supplements and
states. Following this formula, eachmagnetic dipole or each capacitor can only record 1 bit of information, while each base pair inDNA can record 2 bits of information.Towards the end of the semester, students were required to write a term paper on the applicationof entropy in different areas. The students investigated many interesting topics, such as steamengines, chemical processes, biological systems, neural networks in brain, the birth and death ofstars, black holes, global warming, economics and social organizations, etc. Through this termpaper students expanded their perspective and realized that entropy is a very general conceptwhich may be applied to many seemingly unrelated areas.IV. AssessmentTwo years ago the author taught this course
students’ approachesto learning, perspectives of engineering classes, and understanding of engineering education. Theassumed master apprentice model is identified, examined, and discussed. The validity of theoriginal is discussed for continued engineering education. Guidelines, possibilities andapproaches are proposed for institutions to follow to make the engineering school truepedagogical environments that are needed to mentor, train, and educate the students on the nextcentury.References1. Dekker, D.L. “Engineering design processes, problem solving and creativity,” Proceedings Frontiers inEducation Conference, Vol. 1 , 1-4 Nov 1995, pp. 3a5.16 -3a5.19 vol.12. Yokomoto, C.F,; Voltmer, D.R,; Ware, R.” Incorporating the “aha!” experience into the
technical reports,poster displays, and engineering presentations that are evaluated by working professionals fromSTEM fields. Through the process of preparing for the events, the students gain technical aswell as troubleshooting, teamwork, project management, and communication skills. Theprogram is a comprehensive “package” of learning that has the added benefit of exposingstudents to ocean-related career opportunities and showing them the pathways to those careers –a critical step to meeting ocean STEM workforce needs.BackgroundA number of prior reports have identified significant problems in educating, recruiting, andretaining U.S. workers for scientific, technological, and operational careers.1, 2, 3, 4, 5, 6, 7, 8 Thelack of appropriately
/Science/Technology (MST) major is an integrated-STEM major thatrequires substantial content in all four elements of STEM, as well as interdisciplinarycomponents that integrate STEM, and non-STEM, subject matter. A hypothesis that the MSTmajor would exhibit anxiety, self-efficacy and teaching outcome expectation levels that are on-par with the population of K-5 math majors was found to be true, but only after achievingsubstantial improvements through the progression of their curriculum.Introduction:A recent update on the National Academies report “Rise above the Gathering Storm” indicatedthat K-12 students in the USA ranked 48th in the world in terms of math and sciencecapability.[1] Achieving an effective K-12 teacher population is critical to
“Technology Education/Pre-engineering education” (TE/PreEE)program and has its roots in industrial arts education dating back to the 1930s. More detaileddescriptions of each of these programs have been previously reported.[1-3] Both programsrequire substantial coursework in all four elements of STEM, as well as integrated-STEM(i.e.- how to use multiple STEM elements together in K-12 curriculum/activities). Studentsin both programs also acquire substantial experience in integrating non-STEM subjects withSTEM subjects. In 2006 our department completed a redesign of our “TechnologyEducation” curriculum to integrate more M&S into our Technology & Engineering (T&E)courses, resulting in our current “pre-engineering” curriculum. Even though this
publication. In addition to teaching regular math courses, I also like to create and teach innovative courses such as ”Mathematical symmetry of Southern Spain” and ”Mathematics and Architecture of the Incas in Peru”, which I have taught as study abroad courses several times.Michael P. Hennessey, University of St. Thomas Michael P. Hennessey (Mike) joined the full-time faculty as an Assistant Professor fall semester 2000. He is an expert in machine design, computer-aided-engineering, and in the kinematics, dynamics, and control of mechanical systems, along with related areas of applied mathematics. Presently, he has published 41 technical papers (published or accepted), in journals (9), conferences (31), or magazines (1). In
groups. As of the time of this writing, those datahave not yet been analyzed.FORCES students were asked to evaluate the elements of the program in a survey. The surveyasked the students to rate the degree to which program components such as Jump Start Math,FIG involvement and others were beneficial to them in terms of meeting their intendedobjectives and their usefulness in general. Figure 1 is an excerpt from the survey instrumentshowing questions specific to Jump Start Math and the FIG, the two program elements that arethe focus of this study. A four-point Likert scale with responses ranging from “StronglyDisagree” to “Strongly Agree” was used. There was no “Neutral” response; however “NotApplicable” was added so that the survey could
uniformprobability distribution with a standard deviation =a/3. Uncertainties are propagated in thesame manner as in traditional error analysis6. For a measurement result y based on a set of ndirect measurements xi through a measurement equation y=f(x1..xn), the expanded uncertainty iny is 2 n f n 1 n f f Uy kp xi 2 2 xi x j Page 22.1048.3 i 1 xi
the torsion test, a torque “T” is appliedto one end of a circular cross-section metallic rod while the other end is held fixed in a stationarygrip. We use a bench-mounted Tinius Olsen 10,000 in-lb Torsion Tester shown in Figure 1. Thetester has a variable speed drive electromechanical loading system with manual controls andLED digital display. We have developed a LabView interface to acquire the torque and gripangular position data using the RS-232 port. Figure 1: Tinius Olsen 10,000 in-lb Torsion TesterThe shear strain “γ” on the surface of the rod is determined by measuring the relative angle oftwist “φG” over a gage length “LG”. The shear strain γ = c * φG / LG where “c” is the radius ofcross-section and φG is in radians
observedbenefits.1. Process to engage underserved communities in STEM activitiesLow-income students grow up in poverty and usually attend resource-poor schools. Many growup in environments where nobody they know has attended college. In schools, low expectationsare usually set for this class of students. They are normally tracked into a less demanding highschool curriculum that does not lead to college [1]. A great deal of research has been conducted Page 22.1050.2to identify the characteristics of low-income, first-generation students and the issues they dealwith as they interact with college and university social and learning environments [2,3]. Only47