prototypecapabilities to augment the design process. This allowed students with minimalmathematical training or engineering based design experience to actually see andhandle the fruition of a thought process that could conceivably answer a technicalrequirement or need.Setup would allow students to work with predefined plans and process steps to produceparts and pieces that could come together to form objects (e.g. drone bodies or low-costscientific weather stations [2]). Students could further develop the skills learned byattending the 8-week Advanced Manufacturing Summer Institute coordinated by AMIand hosted by a partnering institution. The students learn about mechatronics,metrology, and enhance their CAD capabilities from supplemental training and
Figure 2 below. The connected path in bold-red indicates thecritical path.As acting Program Manager, we routinely made revisions to our plan (by adding resources,etc.) to bring our schedule back on course if tasks were being finished late. The student wasparticularly impressed with the ability to perform immediate “what-if” scenarios andunderstood the impact of each task on the critical path, bestowing a sense of urgency andownership of those tasks. A typical project network view is shown in Figure 2: Figure 2. General example of a project in Network View: Critical Path shown in reTECHNICAL SOLUTION: Software based 3-Band Equalizer DesignThe student performed independent research on audio equalizers and human audio theory. Theproject team
between technological progress on the one hand, and existinglimitations in educational and socioeconomic resources on the other, a varied number ofvisionary frameworks and strategic plans have been put forth by commissions of theAccreditation Board of Engineering and Technology (ABET)1, the National Academy ofEngineering (NAE)2, and the National Science Foundation (NSF)3. A strong, consistentrecommendation in these reports is the need for engineering graduates to have professionaldevelopment, or “soft” skills. The visions of these reports have particular relevance tobioengineering, a discipline whose explosive international growth is generating abundant careerdevelopment, professional development, and humanitarian development opportunities
University Christine is Associate Professor of Mechanical Engineering Technology at Purdue University West Lafayette. She is MET Coordinator of Strategic Planning and Accreditation. She is a member of the Committee on Technology Accreditation of ASME and serves on the Technology Accreditation Commission of ABET. Chris received a B.S. in Metallurgical Engineering from the University of Missouri-Rolla and an M.S. in Industrial Engineering from Purdue University. She has 10 years of industrial experience.James Higley, Purdue University, Calumet Jim holds the rank of Professor of Mechanical Engineering Technology at Purdue University Calumet. He is a registered P.E. in Indiana. He is
Customer Requirements to Production and Quality Controls. Deployment step Matrix Wants Hows 1 Product Planning House of Quality Customer Requirements Design Requirements 2 Product Design I Design Design Requirements Engineering Design 3 Product Design II Product Engineering Engineering Design Product Engineering Characteristics Characteristics 4 Process Planning - Manufacturing and Product Engineering Manufacturing and Design Purchasing Characteristics Purchasing Operations 5 Process Planning - Control
class under the guise of Advanced Technology. He consults on the side for the UPC wind development group.Ronald Terry, Brigham Young University Ron is a Professor of Chemical Engineering at Brigham Young University and an Associate in BYU’s Office of Planning and Assessment. His scholarship centers on pedagogy, student learning, and engineering ethics and has presented/published numerous articles in engineering education. He is one of BYU’s co-investigators for the NSF funded NCETE.Thomas Erekson, Western Illinois University Dr. Erekson serves as the Dean for the College of Business and Technology at Western Illinois
the existing curricula, the secondon providing teachers with the background information and materials needed to introduce theemerging technologies in their classrooms, and the third on providing teachers with theknowledge and materials needed to prepare specific lesson plans. A unique feature of theseworkshops was that teachers from all curricular areas were encouraged to participate, includingEnglish, history, and social studies. The summer enrichment programs were designed to providehigh school students with exposure to the emerging technologies, encouragement toward STEM-related careers, and a college experience. More than thirty different organizations representinggovernment, industry, and education contributed to the summer enrichment
student capabilities, the outcomes criteriaand the role of the course to set expectations for the following program of study. Thefirst delivery in fall 2005 was treated as a prototype within the systems model. Whileretaining the same scope, the topics will be expanded in 2006-07 to provide a well-rounded 6 SCH first year program. The process used to plan, analyze and recordprogress is also being applied more generally to overhaul the whole curriculum.OriginsIn the past, the campus operated a 2 + 2 system with most students transferring from thelocal community college system to take upper division university courses to completetheir bachelor degrees. The designation of the campus as a Polytechnic in early 2005introduced many program changes to
the integration between resources, time, cost, and quality. In such anenvironment, students are able to comprehend project controls information and develop a feel forthe impact which certain decisions have on project goals and objectives, thus creatingknowledge. While additional research regarding the use of modeling and simulation in projectcontrols is underway, the findings contained herein point towards a larger role for its use infuture projects and engineering education.IntroductionAspects of the project management function such as planning, control and monitoring require theintegration of time, cost, and quantity of work with available resources. Since the early 1950’s,the classical scheduling methods of the Critical Path Method (CPM
– 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
problem, as her responsibilities had to be assumed by other participants. We also hadmore trouble than originally anticipated using students to run the line during deployments, finding onlytwo students who stayed with the project for months at a time. Some points to consider when lookingat a similar project include:Plan on a worst-case scenario during project developmentWhat would happen to the plan that you are working on if a key participant leaves? If your projectrequires specific students, or students with special skills, what happens if those students are notavailable? These questions were two that we did not discuss during the development of the project -how could such a thing ever actually happen? Unfortunately, it did happen, and it would
began during the fall 2002 semester and will continue to the end of the spring 2003semester. During the fall semester, the student was responsible for creating a preliminary designof the robot along with plans and schedules to integrate, implement, and test each unit toconstruct a final integrated system. The goal of the project is to create a flying robot that can liftand land safely, maintain level flight, and follow a simple straight line flight pattern while avoidingobstacles. As of this writing, a prototype machine has been designed and built. The actualimplementation and testing of the electronic hardware design and control algorithms are currentlybeing performed. (We plan to share our findings on implementation and testing tasks at
. construction industry starts exploring and adopting various sensing (3.g., 3D laserscanners) and modeling technologies (e.g., mathematical modeling and optimization, BuildingInformation Modeling) in recent years, a strategic plan of the Construction Engineering programat Western Michigan University is to equip students with relevant knowledge in response to thistrend. As shown by multiple pilot studies in the past decade 123, various sensors, such as RFIDtags4 and laser scanners5, show the potential of collecting real-time observations of constructionsites to improve the situational awareness of construction engineers. On the other hand, variousBuilding Information Modeling (BIM) systems (e.g., Autodesk Revit6), mathematical modelingpackages (e.g
byindividual instructors, they are limited in how much they can provide. There are, after all,multiple demands on an instructors’ time. The instructor must serve as subject matter expert,course manager, course developer, technology help desk for the course, etc.4. A system of onlinetutoring to support a variety of courses and instructors has advantages related to economies ofscale and utilization. However, this system requires planning and thoughtful execution.In the College of Technology at University of Houston, the availability of an InstructionalSupport Services (ISS) Lab, including trained tutors, provides a stronger basis for offering abroad online tutoring program than the tutoring program that is offered by an individualinstructor. The ISS Lab
coincide with Cañada College’s breakbetween the end of spring 2009 semester and the beginning of the summer 2009 session.Morning sessions were mostly devoted to studying math either in groups or individually usingMyMathTest10, an online system developed by Pearson Education for developing mathplacement tests and short math refresher programs. Note that the first week of the program hadmore workshops related to resources and skills needed for college success. Many of theworkshops planned for the second week were either cancelled or made optional as a result of amid-program focus group that indicated that students wanted to devote more time to studyingmath, and less on these workshops.2.2 Profile of 2009 Summer Math Jam StudentsThe 2009 Summer Math
concepts contained in each are not linked to clearly illustratehow these courses together represent an essential, integrated, and complementary body ofknowledge. This presents a lost opportunity in reinforcing concepts in areas such as projectvaluation, variation in estimates, statistical risk, expected value and similar real world topicswhich are essential in a project engineering workplace. This paper presents a curricular plan toaccomplish integration of key topics in these courses in a focused and effective manner. Itbegins with examining general concepts in engineering curriculum integration. Next it examineskey curricular topics in engineering economics, statistics, and project management courses andmaps specific areas which can be
andprofessional success as individuals, and their ability to succeed after graduation in research,academic, and industry careers.11,12 Specific areas where graduate students often need supportinclude: building community inside and outside their home departments;5,6,13,14 understandingand accessing campus resources;5,15–17 and planning for careers.11,18,19 While graduate studentsneed to develop academic and professional skills in order to complete their coursework andresearch, it is also essential to develop “soft skills,” such as interpersonal communications,conflict resolution, time management, and team work.20This paper describes a multi-year effort to develop professional development activities forEngineering graduate students at Michigan State
in the Department of Engineering & Public Policy at Carnegie Mellon University.Dr. Eden Fisher, Carnegie Mellon University Eden Fisher is the Director of the Masters Program in Engineering and Technology Innovation Man- agement (E&TIM) and Professor of the Practice at Carnegie Mellon University. She earned an AB in Chemistry from Princeton University and a Ph.D. in Engineering & Public Policy from Carnegie Mellon. She worked in industrial technology planning and innovation management for over 20 years.Dr. Indira Nair, Carnegie Mellon UniversityProf. Mitchell J. Small, Carnegie Mellon University Mitchell Small is the H. John Heinz III Professor of Environmental Engineering at Carnegie Mellon University
StateUniversity College of Architecture & Environmental Design (CAED) and the School ofEducation was undertaken to bring motivation for design, engineering and construction careersinto local elementary school classrooms. The project was initiated by faculty in the ArchitecturalEngineering (ARCE) department of the CAED which includes departments in ArchitecturalEngineering, Architecture, City & Regional Planning, Construction Management and LandscapeArchitecture. These departments can provide students and faculty proficient in the areas ofbuilding design and construction. Faculty and teacher candidates in the School of Educationprovide the knowledge and skills needed to introduce technical concepts and practices for thepresent and future education
Society for Engineering Education”created isometric and elevation drawings and floor plans and completed comparativeassessments for each of the final designs. The second design project involved theapplication of a computer-aided design (CAD) software package that guides the userthrough the design of a truss-type highway bridge, based on a specified design scenario;design submittals included isometric and elevation drawings for this unique commercialengineering application. Finally, students’ end-of-course assessments are used to validatethe effectiveness of the projects. Due to space limitations, examples of student solutionsare not included; however, the author can provide copies of student solutions to interestededucators upon request.Project
this fact most students are keen tofollow courses in robotics and manufacturing automation and as explained earlier, vast majorityof students are constrained by the distance and time in following these courses. Hencedeveloping web based courses for this sort of subjects is an important step.Software DevelopmentIn the planned web-based robotic lab we are using Visual Basic (VB), Active X, HTML, andASP (Active Server Page) to build graphical interfaces to write the robot programs and a windowbased ladder logic program editor to upload/download ladder programs to/from ProgrammableLogic Controllers (PLC) that will serve as the cell controller in a robotic work cell setup.According to the planned research all a student has to do is to access the
” Session 2248 While the advancements in the IMS labs and curriculum have taken a giant leap forwardin recent years, this is only the beginning of a major initiative that started with a proposal fromthe sequence in the latest capital campaign drive at ISU. The thrust of the proposal was torenovate a current laboratory with high technology automation hardware and software. Theproject will consist of the development of a high end, integrated manufacturing laboratory for theDepartment of Technology. The scope of integration will range from design formanufacturability, to process planning and process control, through data acquisition andmanagerial decision-making. This scope will not only ensure maximum utilization, it is alsoconsistent with
toidentify “design” as a vital component of the curriculum. In fact, Criterion 3.c requires that “…programs must demonstrate that their graduates have an ability to design a system, component,or process to meet desired needs” and Criterion 4 requires a “… curriculum culminating in amajor design experience …”. Such a capstone experience is a major component of the Design ofThermal Fluid Systems course (MECH 4314), required of every student, in the MechanicalEngineering program at The University of Memphis. Continuous improvement processesconducted by the faculty of that program have identified a need to improve the ability of itsgraduates to effectively plan and execute an engineering project of significant scope to beconducted by a multi
broughtin a consultant to work with nine area public school teachers (elementary through highschool) to align our Pre-College Engineering/Architecture Academy (PEAP) curriculumwith the Texas Essential Knowledge and Skills (TEKS). One result of the workshop is aneight volume set of Engineering Resources for the TEKS and a plan to vertically andhorizontally align engineering curriculum within a group of schools in area of Lubbockwith predominate populations of low-income African-American and Hispanic students.To support this Engineering Resource Guide and to help teachers introduce engineeringconcepts and skills to their students, TTU Engineering students act as mentors andfacilitators in the K-12 classrooms. These student mentors work in the
necessarily provoke higher level thinking. Since engineers need to beable to design and evaluate, higher level tasks need to be worked into the curriculum of everyengineering course. Bloom’s taxonomy with example action verbs is listed below: Bloom’s Taxonomy of Educational Objectives3 • Evaluation: assess, contrast, critique, justify, validate • Synthesis: classify, create, design, explain, plan, simplify • Analysis: contrast, derive, differentiate, generate, infer, model • Application: apply, calculate, demonstrate, operate, predict, solve • Comprehension: demonstrate, estimate, explain, rephrase, summarize • Knowledge: list, name, recite