from any program a variety of courses leading to a minor in innovation engineering or agraduate certificate in innovation. This program helps students turn ideas into marketablebusinesses. The students learn to put together ideas through the four stage process of “define,discover, develop, and deliver.” The Foster Center provides young entrepreneurs with a varietyof resources from stationery to working space to develop business plans. To match the uniquemission of the Innovation Engineering program, a unique building was designed and built to bethe headquarters.The Foster Center for Student Innovation is an approximately 5850 ft2 semi-open concept, onestory classroom building with conference room, student workspaces, and administrative
should have lived and worked abroad.6,7 On the Bolognaconferences in Budapest and Vienna in 2010 it became clear that this goal will not beaccomplished.8,9Especially engineering students tend to be less mobile as several studies indicate2,10,11. Inorder to take a deeper look at the motivational factors and obstacles engineering students facewhen planning international exchange periods, a survey was carried out among approx.33,000 students at Rheinisch-Westfälische Technische Hochschule (RWTH) AachenUniversity in November 2012.The survey was performed by the institute cluster IMA/ZLW & IfU – Institute of InformationManagement in Mechanical Engineering (IMA), Center for Learning and KnowledgeManagement (ZLW), Associated Institute for
successfully apply this lesson learned. Manual Autonomous UAV Take Off and Landing Plan Waypoints based on given Search Area Designate Search Area Fly & Navigate to Waypoints Confirm Target proposed by Detect and propose Candidate UAV Boat Targets *Detect and Track Human Track Confirmed Boat Target Targets Communicate Target / Status to UAV/CCC ground stations USV
the benefits and challenges of creating a customized ABET-accreditedengineering program and presents a case study of such a development for a large multinationalcompany. A brief review of the engineering program’s structure is provided as it plays animportant role in being able to successfully adapt the degree to the needs of the company. Thecase study explains the university-company planning process, how criteria were developed forthe program design and customized aspects of the degree program. The case study also exploresthe difference in program expectations of the industry partner from those of the University,including student preparation, and how these differences were resolved. The case study showshow the planning process moved from
students who had participated in undergraduate research and found that 83%intended to continue in science-related graduate education, and that the percentage was the samefor underrepresented groups in STEM fields. In another study of 36 undergraduate minoritieswho had participated in a summer research program, Morley et al.8 found 92% of the studentseither were enrolled in a graduate program or had plans to enroll within two years. Zydney et al.9 studied a group of their university‟s alumni, matching a set of undergraduate research program Page 23.711.2participants to a set of individuals who resembled the participants except for the fact that
Paper ID #5874Leading Through Difficult Conversations: Developing Students’ LeadershipCommunication SkillsDr. Julia M. Williams, Rose-Hulman Institute of Technology Dr. Julia M. Williams is Executive Director of the Office of Institutional Research, Planning, and Assess- ment & Professor of English at Rose-Hulman Institute of Technology. Her research areas include techni- cal communication, assessment, accreditation, and the impact of pen-based technologies on learning and teaching. Her articles have appeared in the Journal of Engineering Education, International Journal of En- gineering Education, IEEE Transaction on
made by letter and telephone regarding travel Page 23.1026.4arrangements for participants. Referrals of two other prospects, who were not Page 3 of 8Compact participants, were received from individuals who planned to visit ETSUin 2012. The program was viewed as successful because of the establishment andmaintenance of relationships with 20 qualified minority faculty candidates. A totalof 17, after cancellations, participated including one spouse. Building a broad base of support from departments who have benefited fromthe program has been intentional. This is viewed as a critical step in sustaining theprogram. The
both thebachelor’s (BS) and master’s (MEng) degrees in civil engineering. This paper examines theadvantages and disadvantages of dual-level accreditation. The results of a survey of the civilengineers department head’s council was used to explore how many programs intend to seekdual-level accreditation as well as the reasons for why or why they do not plan to seekaccreditation of their master’s programs. In addition, four in-depth interviews were conductedwith department chairs from a variety of institutions to more fully explore the issues raised bythis survey and past papers. The results of the survey and interviews reveal that there is not widespread support for, and that most programs do not intend to pursue, dual-level accreditation
) Southwest Region. In that role, he serves as the region coordinator for various programs, including complete streets, Safe Routes to School, and non-motorized transportation. Additionally, he is a co-chair of the MDOT Complete Streets Internal Team, responsible for implementing MDOT’s complete streets policy, and he serves on several other statewide committees and teams. Harden is also a part-time instructor at Western Michigan University’s College of Engineering and Applied Sciences. He teaches two sections of CCE 1001, Introduction to Engineering Design, leading the students through the development of a Safe Routes to School action plan for a local elementary school. Harden earned a bachelor of arts degree in politi
offour semesters at IRE, the students are required to write four technical reports describing allaspect of the design projects in addition to writing business plan, personal improvement plan andexperiment reports for all the technical competencies. The IRE students graduate with a Bachelorof Science in general engineering from Minnesota State University, Mankato.The goal of the program is to producing graduates with significant integrated technical andprofessional knowledge and skills who will help the economic development of the region. Themajority of the student learning occurs in the context of industry engineering projects, in contrastto the traditional distinctly topical engineering classes. The IRE program values skills such asstrong
discussion of how our plan provides us with critical and timely information aboutwhat, and how, our physics students are learning will be presented. While assessment is oftennot viewed as a favorite item on the “to do” list of any faculty member or administrator, we havefound enormous value in the continued attention we place on our annual assessment efforts. Wehope that by sharing the evolution of our curricular efforts, others will find useful ideas andstrategies that could be adapted to an existing assessment plan; or, that could be used to helpbuild the foundation for a new one. The overarching goal of this paper is to share successfultechniques that we’ve used to assess student learning. We hope these techniques will be usefulfor others as
civic partnership [7].To build such a partnership, the AMS facultyapproached the City of Bowling Green to explore potential opportunities for involving studentsin projects that would be mutually beneficial.According to Schuman the history of service-learning in schools of architecture and planning canbe found in the late 1960s where schools emphasized engaging students in the social issues andsupplementing classroom learning with community contact. Due to different circumstancesthrough the years’ service-learning has been more broadly accepted in planning programs than inarchitecture departments. A resurgence of interest in social engagement in professional practiceof architecture and schools can be seen in the late 1990s early 2000. [8
skills are deemed lacking and also to know student attitudesand perceptions to effectively devise teaching methods that will enhance skills whilesimultaneously shifting attitudes to match situational reality. The results will be drawn from asurvey of freshman having just begun their undergraduate engineering studies at a major urbanUniversity.BackgroundTo both identify the key soft skills perceived to be important and not currently being learned bythe students and to then codify classroom techniques for enhancing these skills, a multistepapproach for this investigation was started.1 A multistep approach is used because each stepdirects the next, and although these are seen as the steps now in our plan, our research may alterthese. The steps are
of Engineering, she develops projects, plans and implements strategies and develops and documents reports, newsletters and proposals. Page 23.1262.1 c American Society for Engineering Education, 2013 Training Industrial Engineering Students as Energy EngineersIntroductionBuildings consume approximately 40% 1 of all energy in the United States. Most buildingsoperate far less efficiently than their potential. In the U.S., industry alone accounts for about 31%of all energy used 8. There are many benefits to making commercial and industrialmanufacturing plants more efficient. One is to
c American Society for Engineering Education, 2013 Utilizing Applications Programming Interfaces to Provide Product Lifecycle Management and Enhance Manufacturing EducationAbstractIn the past 30 years, software development companies have made great strides in the areas ofproject planning, business management, material handling, engineering and manufacturing, inhopes that someday an all-in-one software package would be made available. Companies likePTC, Dassault Systèmes, AutoDesk and Siemens NX, are making this dream a reality.Just because one very expensive piece of software can handle most aspects of engineeringdevelopment that does not mean that it is flexible. Nor can it be adapted to individual companiesand their standard
program. Additionally, a variety of challenges have been reported ininitiating programs in new locations. The common factor in these two challenges was identifiedas the relationships with community partners. Catering the programmatic offerings to the needsof each community and the academic constraints of students at each university are priorities, butthe current objective is to examine the partnerships that do exist. Previous research laid thepedagogical foundation for the program and outlined a longer-term research plan[1]. A secondprevious work conducted a preliminary analysis of the impact of the program on thevolunteers[2].Background and ObjectivesThe national service learning clearinghouse presents the following categories as types
Community College, majoring in Civil Engineering with interest in the Structural branch of Civil. Thomas is involved with the 2+2 transfer program, an articulated engineering program between the two institutions SLCC and University of Utah. He plans to complete his Associate’s of Civil Engineering at Salt Lake Community College in spring 2013 before transferring to the University of Utah in the following fall semester.Dr. Nick M. Safai, Salt Lake Community CollegeMr. Christopher F Thompson S.M.ASCE, Salt Lake Community College Christopher F. Thompson has been a student at Salt Lake Community College in Salt Lake City, Utah since the fall of 2009. He is currently studying chemical, civil and environmental engineering. While
through a systematic process inorder to choose one. This process, typically called the engineering design process, is applicableto many complex problems, whether or not the person trying to solve them is formally anengineer6-8. To capture and present the essence of the engineering design process, a modifiedversion of the approach presented in Engineering is Elementary® 9 was used (see Figure 1). ASK IMAGINE PLAN TEST CRE ATE IMPROVE REFLECT Figure 1: Engineering Design Process Presented for the ClassroomEngineering is Elementary® (EiE) presents an iterative process of Ask, Imagine, Plan
provided through a module in our bioprocess engineeringlaboratory course. This work started a few years ago and the first efforts were reported in aprevious ASEE Conference12. Students were exposed to FDA regulations related to GLP,common compliance practices, enforcement, and consequences of non-compliance. This moduleintends to: (i) Develop a understating of the letter and spirit of GLP regulations, (ii) develop aworking knowledge of GLP, and (iii) develop a familiarity with GLP documentation. GLP is a set of federally mandated guidelines under which experiments are planned,conducted, monitored, recorded and reported. It intends to promote quality, traceability, andintegrity of scientific data. GLP is enforced by regulating agencies such
-Regulated Learning While Learning Electric Circuit Concepts with Enhanced Guided Notes AbstractMeasuring self-regulated learning (SRL) skills of engineering college students while usingenhanced guided notes (EGN) promotes a better understanding of how students deal with note-taking activities. This study focused on students’ task interpretation, cognitive strategies, andSRL processes including planning, monitoring, and regulating strategies while using EGN in anelectric circuits course. The main objectives of this study were to (1) understand how students’SRL skills changed after using EGN; and (2) evaluate how students’ conceptual understandingon electric circuits improved after using
. The data elements include student, area, faculty, sub-area, andcluster. Course assessment consisted of mid-term and end-term presentations which were evaluated by the peersand moderated by the faculty mentors. Results of self appraisals with respect to the learning attributes and theconsequent development plans were also examined during the assessment.IntroductionIn today’s knowledge economy, educational institutes need to recognize that lifelong and interdisciplinarylearning are the most critical skills, and take steps to inculcate them in students. A course in Liberal Learningoffers a good solution to achieve that objective. This is a different paradigm for both the students and faculty,though. The current K-12 education does not prepare
internationalization uniformly spanning all engineering, math and natural science disciplines at NAU.Dr. Harvey Charles, Northern Arizona University Dr. Harvey Charles is vice provost for International Education at Northern Arizona University. He pro- vides institutional leadership on strategic planning around global education, helps to facilitate global learning opportunities for students, supports faculty development opportunities through international teaching and research, and consults with colleges and universities on curriculum and campus interna- tionalization. The Global Science and Engineering Program is one of the signature programs housed in the Center for International Education that he directs
level with an alpha value of 0.05.It is important to note that this study and modification of a single course alone is not going tohave a meaningful impact on addressing sustainability. However the efforts of TempleUniversity's Center for Sustainable Communities (CSC) coupled with other courses taught at the Page 23.1122.4university by various faculty (for example, Environmental Sustainability, Environment,Transportation planning, Introduction to Community and Regional Planning) can havemeaningful effect on sustainability. The authors plan to extend this strategy to three othercourses over the next two years. The method presented in this study
Polytechnic Institute and State University. Her educational research interests are focused on improving construction management education. Page 23.1329.1 c American Society for Engineering Education, 2013 Using Mobile Technology in a Construction Management “Hands-On” LaboratoryAbstractThis study discusses the introduction and use of the iPad mobile device in a freshman levelconstruction management “hands-on” materials and methods laboratory. The devices areincorporated into the course in four ways: (1) for plan reading; (2) for RFI documentation,including the
– pre-spring break and post-spring break. The schedule includes major milestones which include deliverable dates, and community meetings (Figure 2). Page 23.717.4 1-Jan 31-Jan 2-Mar 1-Apr Submit resume and cover letter Highlight experience/select project manager/identify "firms" Proposals due/presentations/project awarded Present concepts to community Draft preliminary report and plans Dry run - presentations Draft final report and
withlesson plans (available in English and Spanish), tied to educational standards in the UnitedStates. Each activity is designed to be inexpensive (often less than U.S. $10 for a classroom).This program has been successfully implemented throughout the United States for over ten yearsand has seen very limited international expansion to countries with a strong IEEE presence.This paper will discuss the very successful workshops, including assessment collected at theconclusion of each workshop. The structure of the workshops and the involvement opportunitiesfor the undergraduate students who participated will also be described.This paper will be of interest to programs with available international service opportunities forundergraduate students or
interms of, 1) needs and justification, 2) planning process, 3) program description and objectives,4) curriculum, 5) implementation issues related to faculty, students, and resources, and 6)examples of MSV related industry projects. The description also includes the process, startingfrom a concept paper development through approval of the program by the State Commission ofHigher Education.IntroductionAdvanced modeling, simulation, and visualization technologies provide an innovative way forhumans to learn and understand extremely sophisticated concepts and problem solving skills aswell as effectively design and optimize complex systems and processes. Through visualizing,manipulating, and interacting with computer-generated simulations and models
created a sustainable competency model (SCM) for thedevelopment of a new Masters Level Degree Program. The model’s major dimensions, shown inFigure 1, include science and technology, business and economics, systems analysis, personaleffectiveness, working across boundaries, management and planning, environmental justice andequity, and ideas and innovation.Within each dimension, the knowledge, skills, mindsets and behavioral attributes desired forengineers were further defined. For example, the science and technology competencies represent Page 23.455.3an advanced understanding and application of scientific principles, engineering constructs
Paper ID #7237Analysis of Biodiesel Production and its Derivatives for a College CampusEmilia GolebiowskaMr. Giovanni Kelly IIDr. Yassir M. SamraDr. James P Abulencia, Manhattan College Page 23.189.1 c American Society for Engineering Education, 2013ANALYSIS OF BIODIESEL PRODUCTION AND ITS DERIVATIVES FOR A COLLEGE CAMPUSAbstractIn the Fall of 2010, XXXXX College started to devise and develop plausible green initiativesspearheaded by students across all five of its schools. From this college-wide endeavor, a plan toconvert
path from the initial state to an end state in the acceptablezone?The first question depends on the intervention planned. For example, it is clear that if theeducational intervention is intended to ensure that every first grader is reading on grade level,then it is possible to have a non-empty acceptable zone. However, if the intention is for everythird grader to understand calculus, then it is highly unlikely that there will be any acceptableend states. For most cases, the answer to this question will be determined by how well theintervention matches the given context of the school being studied.The second question is also dependent upon the context but it is also highly dependent on theavailable resources. Going back to the first example, if