Paper ID #23744Development of a Design Division for an Industry: A Capstone Project in aMaster’s of Engineering Management ProgramDr. Sangarappillai Sivaloganathan, United Arab Emirates University Dr Sangarappillai Sivaloganathan – Siva is a Srilankan by birth and a citizen of the United Kingdom. His experience in Sri-lanka started with an year’s post-graduate apprenticeship in the manufacturing shops of the Government Railway and nine years in the Cement Industry. He graduated as a Mechanical Engineer from University of Srilanka, and obtained his Masters from the University of Aston and PhD from City University of London
; and, 2)promote the engineering’s department support of leadership identity development within theengineering student body. An assessment matrix is shown in Figure 5 for the ECU MechanicalEngineering curriculum. The matrix is augmented with specific evidentiary documentation inthe department’s assessment plan. This is typical for all curricular programs (concentrationswithin a general engineering degree) taught within the engineering department. The evidencewas categorized by type (course outcomes, student work sample, and course/project evaluations)and compared to the cell definitions of the ECU LID framework for applicability in satisfyingboth stage and outcome “requirements”. The results are shown on a course by course basis in
manufacturing. This is supposed to help to enhance the students’understanding of complex concepts, such as automated machine tools, and the numerical controlof the motions of automated machine tools, and also help training students in these operationswithout actually working on these tools. The interest in virtual reality applications is not limitedto the United States as it is shown by Mendez et al.[7]. They describe the Gironacel project, whichis a virtual learning environment produced by the University of Girona in Spain for qualitymanagement courses within engineering schools to understand, for example, how to implementthe ISO 9001:2000 standard in a practical way. They created a virtual company, Gironacel, andexplain how this new tool was designed
management systems. She was a faculty researcher on a Business and International Education Grant funded by the Department of Education, completing projects on multimodal transport networks and international and global supply chain curriculum development. She completed preliminary work on global, multi-institutional collaborative student teams referenced in this proposal as part of the BIE grant award. Dr. Long is currently a co-investigator on a related Missouri DOT project and is an investigator on a sustainable waste water treatment project in EPA Region 7 funded by Missouri S&T’s Energy Research Development Center. Dr. Long has over twenty five conference and journal publications, is a
. Responsible for all electrical connections 3) Piping Design Team a. Responsible for the design of all piping, the upper reservoir and the pulley/weight system 4) Infrastructure Design Team a. Responsible for the tower structure, lower reservoir, drain and movable base Page 25.12.5Fig. 1. Cartoon showing the required features of the water tower apparatus.The teams were provided with a project deadline and project milestones/reportables as outlinedin Table 2. Table 2. Global timeline recommendation given by faculty (Starred items were to be denoted as milestones in team timeline) Task
water usage model based on risks and costs. Theirconclusion was that California must use gray water systems as a necessity to meet the challenges of futurepotable water scarcity. The team also recommended policy changes to further encourage the use of graywater. This project again demonstrated that EM students developed sustainability skills necessary to solvea real-world problem.Project 3: Electric Vehicle Charging Project [Chang, et al., 2016]Since the introduction of plug-in electric vehicles (PEVs) in December 2010, their sales have significantlyincreased year after year [Inside EV, 2015]. As of September 2014, the sales of PEVs were over 603,000in the global market and over 259,000 in the U.S. [Cobb,2014]. According to the PEV
, or other reasons determine the use of independentstudent or faculty projects? Although the use of industry-sponsored projects appears to be themodel followed by most departments, only four of the 28 universities incorporate other majors(e.g., Mechanical, Computer, and Electrical Engineering) on their capstone teams. Thesefindings correspond to earlier studies4,5,8 but do not follow the notion that in industry engineersneed to be able to work with individuals from multiple disciplines. If engineers do indeedcommonly work with others outside their own major area, why are capstone courses notembracing this concept?According to Beyerlein et al.1, the capstone course should include topics that focus on thestudents’ professional development
the complete problem.‖ (http://www.incose.org/practice/whatissystemseng.aspx) 2. A sub-field of electrical engineering. ―[E]mphasis is attached to the use of systems theory in applications [and] … tends to emphasize control techniques which are often software- intensive.‖9 3. A sub-field of industrial and systems engineering. The word ―system‖ is often added to industrial engineering to emphasize the interactions of parts of a system to create the overall behavior of the system. 4. A sub-field of engineering management or technology management. ―[S]ystems engineering includes taking into consideration all aspects of the life cycle of the system. Thus the systems engineering approach is said to
. McFarland, University of Virginia Page 25.487.1 c American Society for Engineering Education, 2012 ECE/SYS Integration: A Strategy for Evaluating Graduates from a Multi-year Curriculum focused on Technology Systems IntegrationAbstractIn 2009, a group of seventeen students majoring in electrical, computer, or systems engineeringbecame the first class of Leaders in Engineering Program (LEP) students at East Central StateUniversity1. The LEP is an undergraduate curriculum focused on developing knowledge andskills that address both component-level design
to the voice of the customer to address marketing issues: Page 24.109.6Listening to the voice of the customers is one of the best practices that proved successful in ourapplied research. Since numerous six sigma projects have been discussed in the literature, thistechnique could be implemented in the Engineering Management curriculum at both theundergraduate and graduate levels. One caveat is important. General Electric and others thathave embraced six sigma projects have found the revolutionary changes leading to productinnovations diminish over time. Perhaps a systems approach works best by strategicallyseparating innovations into two
work together on real-world service-based lean six sigma projects. The undergraduate coursecovered a Six Sigma Green Belt curriculum, and the graduate course incorporated additional Six SigmaBlack Belt tools. The student teams worked on 6 different Lean Six Sigma projects. For five of the sixprojects, two separate teams worked on each project, meeting with stakeholders and process ownerstogether, to reduce the redundancy of the material covered. For comparison purposes, there were threeundergraduate students only project teams, two graduate students only project teams, and six combinedundergraduate and graduate student teams. A Six Sigma Master Black Belt separate from the instructormentored the students on their projects, and assessed their
paper describes this methodology and its implementation.1 IntroductionGraduate programs in Engineering Management enroll students who had undergraduateeducation in a variety of disciplines such as civil, mechanical, electrical, and architecturalengineering and other science disciplines. Knowledge on how to define specific work systems,which are combinations of workers, machines and information, to perform useful work willgreatly enhance engineering managers. In particular, competence in method study and workmeasurement will greatly assist them to carry out or supervise method planning and workestimation and because of this, work system is often included in the curriculum. The Master ofEngineering Management program, at United Arab Emirates
probabilistic decision-making and management skills to effectively work in a multidisciplinary project team, and tocreate designs based on the requirements of this larger system.However, the typical engineering design curriculum does not include adequate discussion onprobabilistic decision support and project management techniques. In addition, literature doesnot contain sufficient resources that are relatable by engineers from different disciplines and theyalso do not include adequate and/or useful examples for engineers from diverse backgrounds.This study suggests that new multidisciplinary educational material is needed, covering variousstages of engineering design from a systems point of view. It starts with a summary ofengineering design issues in
a new graduate curriculum in systems engineering,which is the primary focus of this paper. Just as in other design projects, there are a multitude ofconcerns and issues that must be addressed in curriculum design. For example, is the curriculumnecessary? Who are the intended students? What are their motivations for pursuing thiscurriculum? What should be the learning objectives of the program? How should the content besegmented into individual courses? What are the core concepts and required courses? Shouldthere be electives, specializations, or concentrations? And if so, what should they be? This paper will discuss curriculum design for a new Master’s degree program in systemsengineering, moving from a broad guidelines for graduate
suggestions from students and professors who use the system. Page 25.457.6 5. Extend the ViTAS application to other curriculums such as general chemistry, biology, and upper level courses at TAMIU. Table 4. Target courses for ViTAS application [Lin et al.[18]] Course Number Course Title College Year ENGR 1201 Foundation of Engineering Freshman MATH 1314 College Algebra Freshman MATH 1324 Business Math I Freshman PHYS 1301
architectures and solutions without due analysis of alternatives (AoA), a lack of multi-disciplined decision making, poor documentation and configuration control, et al. Furtheranalysis indicates these factors are symptomatic of a much larger competency issue traceable toengineering education - the lack of a Systems Engineering fundamentals course. Ideally, a coursetaught by seasoned instructors with in-depth industrial experience acquired from a diversity ofsmall to large, complex systems.To meet program accreditation requirements, industrial needs, and remain competitive, collegesand universities institute a Systems Engineering course or capstone project based on SEprinciples and practices. However, the outcomes of these projects tend to focus on
the undergraduate level and the contentof undergraduate and graduate EM programs. Once again this work used general categories oftopics for the comparative analysis and did not examine engineering related credits. It foundsignificant differences in the EM programs but identified a shared body of knowledge between IEand EM programs as summarized in Table 2. Table 2. Common Curriculum between IE and EM (Elrod et al.13) B.S. in Engineering Management B.S. in Industrial Engineering General Management and Leadership Economics (Micro &/or Macro; Engr Econ) Accounting Probability & Statistics Economics (Micro &/or Macro; Engr Econ
gains visibility from the group of young people and canestablish a closer or exclusive ongoing relationship with the academic institution.An internship is not always available or logistically possible for students who may be working orotherwise occupied. Other options for providing students with experiential learning include visitsto businesses in the industry, classroom presentations and discussions by practitioners andshadow days at workplaces.Service learning experiences can be useful as well and of varying durations. For example,Hayden et al10 (2010) describe how students at the University of Vermont were involved in localservice learning projects which involved “adopting” a local town where they are involved in real-life engineering
sophisticated softwareto perform the autonomous navigation using the sensor inputs. The complexity of the projectnecessitates the involvement of a relatively large group of students working together on differentparts of the system.The Robotics Laboratory at the University of Central Florida has been participating in the annualIGVC competition since 2002. In this project the students learn about most of the engineeringdisciplines that are typically included in a complex robotic project such as software design,computer vision, sensor data interpretation and fusion, robotic motion planning, vehiclenavigation, vehicle design and construction, electric motor control, computer interfaces tovarious components and many others. Naturally this education
jumps in the business system might allow the system to evolve andimprove over time without incurring the penalty of anarchy in the process. With this guideline inmind we move from the iterative loop to Step 12. Promising non-linear jumps in the SIPOCmodel can be fleshed out with detailed commercialization and return on investment analyses andplans. Then appropriate pilot projects are implemented in Step 13. During this step assumptionsare evaluated and appropriate adjustments are made. At this point another Baldrige assessmentis suggested to evaluate the risk-reward equation. Values for each parameter are generated andplotted on the innovation radar chart with forecasted and actual results for each pilot project. SeeSawhney et al. for a
Paper ID #11810Building a Broadband Community with a Baldrige Based ApproachDr. Michael Browder, Bristol Tennessee Essential Services Michael Browder, a past chairman of American Public Power Association’s Board, has served as CEO of Bristol Tennessee Essential Services (BTES) since 1977. He earned his doctorate of Educational Lead- ership and Policy Analysis from ETSU, his Master of Administrative Science from the University of Alabama Huntsville and a Bachelor of Electrical Engineering from Auburn University. He is a registered Professional Engineer. Dr. Browder is the 2010 recipient of the Tennessee Center for Performance
behavioral management comprising motivation, project management, leadership,engineering management, etc.The department of Manufacturing Systems Engineering and Management (MSEM) at CaliforniaState University, Northridge (CSUN) has a unique role in southern California. The EngineeringManagement program at Cal State Northridge offers courses in Engineering Management, Page 12.29.2Decision/Risk Analysis, Statistical Analysis, Operations Research, Economic Analysis, Financialand Cost Analysis, Management of Engineering Professionals, Quality Management, and otherEngineering Management courses.This paper describes the Engineering Management curriculum at
and concepts help to integrate thespecialty engineering designs together to better design and manage complex systems. Thesesame systems engineering tools can be used to teach systems engineering to engineers. Agraduate-level engineering management curriculum includes a Management of EngineeringSystems course, whose key learning objective is for the students to be able to synthesize andapply the systems engineering methods and tools to a real-world system design project. Thispaper will describe how the instructor applied systems engineering tools to enhance learning ofsystems engineering tools and concepts in an engineering management course. The studentsapplied the systems engineering tools in the course to design a system in teams of 4 to 5
learning to design teaching and learning, program content and structure, student assessment, and continuous course improvement techniques. She managed and was a key contributor to a two-year pilot project to introduce blended learning into the chemical engineering capstone design courses, and is the author of a number of recent journal, book, and conference contribu- tions on engineering education. Her research focusses on how to teach innovation and sustainable design practices to engineers and develop a curriculum reflective of engineering practice requirements. Recently she has taught a short course on how to design and teach process engineering courses to professors in Peru and workshops on Metacognition and
steel design, engineering mechanics: statics, building foundations and numerical analysis. Professor Ramming has recently been named Halliburton Outstanding Young Faculty and the Outstanding Teacher for the College of Engineering, Architecture and Technology. She has also published books for Project Lead the Way and a text on Numerical Structural Analysis. Professor Ramming enjoys spending time with the students of CEAT as the advisor of the Ar- chitectural Engineering Institute, Tau Beta Pi, Women Inspiring Successful Engineers, and CEAT Student Council. c American Society for Engineering Education, 2020 Diversity and Culture in Structural Engineering
2006-2085: A CASE-BASED APPROACH TO SYSTEMS ARCHITECTURE ANDENGINEERING EDUCATIONJonathan Weaver, University of Detroit Mercy JONATHAN M. WEAVER, PH.D. is an Associate professor of Mechanical Engineering at the University of Detroit Mercy (UDM). He received his BSME from Virginia Tech in 1986, his MSME and PhD in ME from RPI in 1990 and 1993, respectively. He has several years of industry experience and regularly consults with an automaker on projects related to CAD, DOE, and product development. He can be reached at weaverjm@udmercy.edu.Michael Vinarcik, University of Detroit Mercy MICHAEL J. VINARCIK, P.E. is an Interior Trim Engineer with Ford Motor Company and an adjunct faculty
AC 2009-1142: ASSESSING ENGINEERING MANAGEMENT STUDENTS’PERCEPTION OF ON-LINE LEARNINGErtunga Ozelkan, University of North Carolina, Charlotte Ertunga C. Ozelkan, Ph.D., is an Assistant Professor of Systems Engineering and Engineering Management and the Associate Director of the Center for Lean Logistics and Engineered Systems (CLLES) at the University of North Carolina at Charlotte (UNC Charlotte). Before joining academia, Dr. Ozelkan worked for i2 Technologies, a leading supply chain software vendor in the capacity of a Customer Service and Curriculum Manager and a Consultant. He also worked as a project manager and a consultant for Tefen Consulting in the area of productivity improvement
learning methodologies do necessarily require additional work onthe part of students as well as faculty (Barrows, 2000). A pioneer in the area of problem-basedlearning, McMaster University Professor Emeritus, Dr. Donald R. Woods describes acurriculum that is significantly different from the traditional discipline centered curriculum(Woods, 1994). Discovery approach aims to march a step further, when compared with problem-basedlearning. Here the instructor may benefit from the ideas provided by Intel Education. (http://www.intel.com/education/designprojects/) 1. Authentic project work puts students in the driver's seat of their own learning. 2. Instructors should take advantage of curriculum developed by teachers in a large
AC 2012-5126: AN EXERCISE FOR IMPROVING THE MODELING ABIL-ITIES OF STUDENTS IN AN OPERATIONS RESEARCH COURSEDr. Leonardo Bedoya-Valencia, Colorado State University, Pueblo Leonardo Bedoya-Valencia is an Assistant Professor at the Department of Engineering at Colorado State University, Pueblo. He received his M.Sc. in system engineering and his Ph.D. in engineering manage- ment from the National University of Colombia and Old Dominion University, Norfolk, Va, respectively. His research interests include scheduling, operations research, and modeling and simulation in health care and energy planning. He has participated in several funded projects through various sources such as NASA, the Department of Homeland Security
. Management expertiseis frequently combined with engineering knowledge to solve a variety of business and technicalproblems by engineering managers. These skills are often used to lead projects, functionaldepartments, and companies in a wide variety of highly technical tasks. Most engineeringmanagers focus on product development, materials management, production processes, andworkforce reliability. Management engineers apply engineering principles to the planning andoperational management of industrial and manufacturing operations.The Department of Engineering & Design offers degrees in Electrical Engineering, Computerand Mechanical Engineering Technology, Design, Manufacturing, Applied Technology, andConstruction Management. The primary goal is