forced to resort to other high-costalternatives, such as stocking critical items themselves or planning for rapid import of neededgoods from some other region. Recent events such as the Katrina flooding in New Orleans andthe earthquake relief efforts in Haiti have underscored the importance of local regions becomingself-sufficient (at least for a few days) and have highlighted the incredible costs of flying in largequantities of goods (e.g., bottled water) to a hard-hit region.Most communities, however, do have considerable local manufacturing capacity. Although thetrend of shifting production overseas has diminished the base of producers in the United States,there is still tremendous capacity and most cities have a number of fabricators of
competitive advantage through manufacturing planning, strategy, and control Manufacturing competitiveness: understanding the analysis, synthesis, and control of manufacturing operations using statistical and calculus based methods, simulation and information technology Additional detail used to define the programmatic content of such programs is provided bythe Body of Knowledge developed with industry by the Society of Manufacturing Engineers forits certification programs for manufacturing engineers and technologists.2 Graphic Representation of Four Pillars Concept To help communicate the Four Pillarsconcept and the attendant details to a wide range of people and organizations, a graphicrepresentation was developed
≠ Emerging methods of educational delivery ≠ Manufacturing topics in non-manufacturing named programs ≠ Manufacturing education programs; associate, baccalaureate, masters ≠ Integrating bio-, nano-, and electronics-manufacturing in curricula ≠ Manufacturing education within non-manufacturing named programs ≠ Pipeline development and recruiting into manufacturing careers ≠ Collaboration among relevant professional societies with interest in manufacturingThe two forums are part of a longer term plan for regular similar gatherings and larger, open-attendance conferences. Plans are being developed for a large conference in the summer of 2009.OverviewThere has been massive change in global manufacturing
, product design, process design,laboratories, and many others. Below the lintel are the four pillars whose labels are taken fromthe program criteria for ABET accreditation of manufacturing engineering and manufacturingengineering technology programs. (Reference 2) These are: • Materials and manufacturing processes: understanding the behavior and properties of materials as they are altered and influenced by processing in manufacturing • Product, tooling, and assembly engineering: understanding the design of products and the equipment, tooling, and environment necessary for their manufacture • Manufacturing systems and operations: understanding the creation of competitive advantage through manufacturing planning
additional teachers was also provided byindustry and Gene Haas Foundation. The industrial partners also contributed with complimentaryprofessional training and free computer-aided drafting and manufacturing (CAD/CAM) softwareto participating teachers and their schools. The program trained 29 teachers in the previous two summers. The teachers publishedtheir lesson plans and implemented in their classes with the new activities and knowledge thatthey have acquired during the training. Some teachers participated in a regional conference,guided and brought their students to different competitions, and won numerous awards includingthe first prize in robotics competition at the state level. Issues from the first summer was learntand rectified; the
manufacturing processes, 2) process, assembly and productengineering, 3) manufacturing systems design, 4) laboratory experience, and 5) manufacturingcompetitiveness. Manufacturing competitiveness requires understanding the creation ofcompetitive advantage through manufacturing planning, strategy and control. While the firstfour requirements are primarily about things, the competitiveness requirement is all aboutpeople. To fulfill this requirement, students need to understand and exercise leadership. Wemanage things, but we lead people.Manufacturing planning, strategy and control are elements of management, but leadership goesfar beyond this. Thinking of these requirements in terms of just management is of another era; asan old saying goes, it is
and Market Share •Sales and Marketing Optimization •Supply Chain Management •Global Distribution •Strategic Planning •Project Management Recent Significant Research and Teaching Activities: •Talent Incubator Program: Educate and train stu- dents for industry project development and execution. Provide talent pipeline for companies’ internships and full-time. •Global Study Abroad Program: Business Plan and Project Development for GSA. 2011- 2014. •Teaching: Optimizing Distributor Profitability, Pricing, International Sales and Marketing, Global Engineering, Distributor Competitiveness, Distributor Processes, Customer Stratification. •Research: Op- timizing Distributor Value Added Services, Optimizing Human
Paper ID #29352A Strategy for Integrating Professional Skills Development into aManufacturing Engineering CurriculumDr. Derek M. Yip-Hoi, Western Washington University Dr. Yip-Hoi received his Ph.D. from the Department of Mechanical Engineering at the University of Michigan in 1997. Following his Ph.D. he worked for several years with the NSF Engineering Research Center for Reconfigurable Machining Systems also at the University of Michigan. His work involved supervision of sponsored research projects that focused on developing software applications to assist manufacturers design and plan operations on manufacturing systems
participate in group manufacturing simulations and each group evaluate thework of other groups. Metacognitive awareness inventory (MAI) is used to evaluate themetacognitive awareness of the students before and after their participation in the simulationactivities. MAI is an instrument designed to assess general self-regulated learning skills. Theinstrument has 52 items that are classified by type of cognitive knowledge: declarative (DK),procedural (PK), and conditional (CK); or by specific metacognitive process: planning (P),information management strategies (IMS), monitoring (M), debugging strategies (DS), andevaluation (E). Results show that the students improved their metacognitive awareness for all theMAI categories. However, only the improvement
various processing times. Anumber of benefits can be realized in successful FMS applications. They are: 1 Page 26.1162.2 1. Reduced Manufacturing Lead Times (MLT), 2. Improved machine utilization, 3. Lower Work-In-Process (WIP) inventory requirements, 4. Greater responsive to change, 5. Reduced labor requirements, 6. Fewer machines required, and 7. Enhanced operational controlFMS planning and implementation problems can be classified as (1) design, (2) planning, (3)scheduling, and (4) control problems.1 Although the main body of the recent research on FMShas been shifted to the operational aspects of FMS, a number of
Adapting a Freshman Manufacturing Course to Different Learning StylesIntroductionOur mechanical engineering curriculum includes a freshman course in Design ForManufacturing (DFM). This course introduces project management skills via a curriculumemploying project-based learning. These skills include product design, resource planning,process planning and cost analysis, but the primary focus is in producing a design that ismanufacturable. The most recent offering of this course gives the student an option of lab seriesin which to develop the concepts of DFM. One series uses manual machining processes and theother uses Computer Numerical Control (CNC) manufacturing. Ideally each student can learnusing the method they are
Marketing Marketing students. design due. Concept students. description, sampling plan & test due. Pretest completed. Page 12.503.3 Table 1. Concurrent Syllabi for the Interdisciplinary Design Study Project (contd.). Date ENGR 3650 ARTM 3307 MARK 3700Week 4 Conduct product Engr / Art groups share Meeting #2 Finalize the teardown analysis. Engr / refined design ideas concept, verbiage and visual Art groups share
manufacturingmachine tools a new capacity to create wealth with reference to design and manufacturing. Singh[3] defines entrepreneurship as the process of creating something different with value bydevoting thenecessary time and effort, assuming the accompanying financial, psychic, socialrisks andreceiving the resulting rewards of monetary and personal satisfaction and independence.The definition identifies (i) the creation process (ii) devotion of time and efforts and (iii)assumption of risks, as the main features. Duening and Sherrill [4] analyse the approaches toentrepreneurship education and identify six such approaches. They are i. Business plan approach ii. Resource based approach iii. Entrepreneurial Mind-set approach iv. Case-study approach
, environmental, and economic factors 3 an ability to communicate effectively with a range of audiences 4 an ability to recognize ethical and professional responsibilities in engineering situations and make informed judgments, which must consider the impact of engineering solutions in global, economic, environmental, and societal contexts 5 an ability to function effectively on a team whose members together provide leadership, create a collaborative and inclusive environment, establish goals, plan tasks, and meet objectives 6 an ability to develop and conduct appropriate experimentation, analyze and interpret data, and use engineering judgment to draw conclusions 7 an ability to acquire and apply new knowledge as
earlierstage in the program. Students will be required to address the various technical challenges asthey progress towards more advanced classes. This process will provide an opportunity toevaluate students’ level of knowledge in a planned and incremental procedure, culminating in amore accurate assessment of their learning outcomes.We will continue to use the existing program capstone course EGT417 (Senior Project inEngineering Technology), as the class where the students will conclude and present their seniorprojects as the culminating effort towards graduation. This course is described in the NKUUndergraduate Catalog as the “Preparation and proposal for the capstone project design in anarea of student's primary program major. After the preparation
. This balancing act then becomesquite a challenge. To address this challenge, a two-tier approach was developed and delivered duringthe Fall 05 term at Robert Morris University to deal with the differing expectations of thestakeholders in the teaching/learning environment as described in Figure 1. This approachis further discussed in this article.3. The Two-Tier Approach The first tier of the teaching plan, called the ‘essential teaching plan’ includes all ofthe essential teaching elements. These elements consist of the following: • Set teaching method(s): The options are lecture, discussion, tutorial, laboratory, mutli-media resources. For different topics, the instructor identifies appropriate teaching methods and
Page 13.1329.3office chair. The role of the business students was and is to devise a business plan for the team. By Autumn semester 2006, active college-to-college collaboration in scholar teams was well-established. Two new MBA students joined each of two scholar teams -- one working indevelopment of a test platform for biomedical devices and the other working on design of aninstrumented space suit. Again, the role of the business students was in creating businessplanning for commercialization of the new products and eventual launch of new companies.Throughout this entire period, the atmosphere across the State of North Dakota became more andmore favorable to innovation, invention and the commercialization of research. Among theseveral
Planning textbook, Manufacturing Facilities Design and Material Handling, 3rd. ed. (2005, Prentice Hall). He is the author or co-author of numerous journal articles in the areas of productivity and quality improvement. Page 11.508.1© American Society for Engineering Education, 2006EDUCATING THE BUSINESS PROCESS MANAGERS OF THE FUTURE: THE SIX SIGMA TECHNIQUES Abstract Six Sigma is a strategy designed to improve efficiency in manufacturing and businessprocesses. Its basic focus is to decrease defect, improve overall quality, reduce cost and
projects included in B-Fab would serve to motivatestudents to want to learn more, and to build more – perhaps becoming lifelong Makers, or to atleast improve their competency in using hands-on skills to develop proof of concept models,benchtop simulations, and other elements often utilized within the product design cycle forphysical products.Running the B-Fab WorkshopB-Fab was scheduled for five full days bracketed by a half day at the beginning and end (Table1). The workshop was managed by three engineering faculty members, two student technicians,and a staff member who handled logistical planning. Eighteen students enrolled from a varietyof engineering disciplines.The content was arranged into two interrelated phases. The first phase included
differentstages of the product life cycle [10]. There are two LCA standards created by the Internationalorganization for Standardization (ISO) –ISO 14040 and ISO 14044 [11]. According to the ISOstandards on LCA, it can assist in decision making in industry, government, or non-governmentorganizations e.g., strategic planning, priority setting, product, and process design or redesign.LCA is also important for the selection of relevant indicators of environmental performance andeven in marketing from the perspective of the eco-labeling scheme or environmental productdeclarations.Clearly, the field of sustainability analysis and LCA plays a critical role in identifying theopportunities to improve the environmental aspects of products and services at various
engineering schools [9].Studies conducted by the Society of Manufacturing Engineers (SME) identified two high prioritycompetency gaps between manufacturing industry’s workforce needs and what is provided byeducational programs on its Manufacturing Education Plan [10]. Availability of graduates inMechatronics Engineering will help industry reduce the identified critical competency gaps [4] aswell as comply with industry requirements for professionals with interdisciplinary thinking. AMechatronics Engineering graduate will have knowledge of and be capable of applyingengineering principles for design, modeling, and implementation of manufacturing automationsystems and manufacturing process control.The main source of information for the assessment of
Workshop, Dearborn, MI: Society of Manufacturing Engineers, 1990. • Manufacturing Education for the 21st Century – Volume I: Curricula 2002 Report, Dearborn, MI: Society of Manufacturing Engineers, 1995. • Manufacturing Education Plan: Phase I report: industry identifies competency gaps among newly hired engineering graduates: the next step-partnerships with schools. Manufacturing Education for the 21st Century, v. 4. Dearborn, MI: Society of Manufacturing Engineers, 1997. • Manufacturing Education Leadership Forum: Vision for Progress, Society of Manufacturing Engineers, Robert Morris University, 2008. • Manufacturing Education Leadership Forum; Moving Forward, Society of
identification of problems, displaying the problem, action to clear the problem, andcheck and acknowledge in improving student learning in simulation project.2. Applying Kaizen process to the simulation classThe PDCA (plan-do-check-act or problem finding-display-clear-acknowledge) [2] is applied inthe class teaching. As illustrated in Figure 1, the PDCA follows the procedure of: 1) standardizean operation and activities, 2) measure the operation, 3) gauge measurements against requirements,4) act to meet requirements and increase performance, 5) standardize the new, improved operations,and 6) continue cycle. 2 Plan
until pricing is established; • Pricing is defined through use of a financial break-even analysis that cannot be performed without input of direct and indirect expenses. • None of this can occur without Production Planning and Control input that depends on Product Engineering specifications and subsequent Purchasing research on materials and part costs.MotivationThe pragmatic “learning by doing” educational philosophy of John Dewey (1859-1952)continues to be highly relevant today. One is not as motivated or as able to learn a sport or careerskills through books and lecture alone. The merits of simulation are presented in numerouspapers presented at recent ASEE conferences. In one such paper4, the authors quote ABET 2000
Paper ID #14539MAKER: From 2-D Projective Geometry to 3-D Object Recognition and 3-DPrinting Processes for High School StudentsMr. Bart Taylor M.Ed., A&M Consolidated High School A Dedicated career and technology teacher with fifteen years of experience in the classroom. Offer a proven track record of commended performance in teaching, and leadership, with a passion for educa- tion and a commitment to continually pursue student, school and district success. Experience includes classroom teaching, motivational speaking, district curriculum and instructional coaching, professional development planning/presenting, high
RFID hardware and should control the efficient data flow. Data might also need tobe stored into a database. When the system is designed, comprehensive testing shall takeplace to validate that all the requirements are being met. This testing includes componentlevel (hardware, software) testing and system level testing. Upon satisfactory testingcompletion, an integrated system implementation starts. After final system testing, acomprehensive documentation with proper training plans will be prepared for thecustomer. The teaching/learning philosophy is to start with the end in mind, work on areal-world industry sponsored problem, brainstorm different solutions, work in team,design, process map, implement, test, implement, document, present the
discipline of Manufacturing Engineering. The role and function of themanufacturing engineer are introduced in the context of the production, inspection, qualitycontrol, and enterprise environments. Manufacturing engineering methods, techniques andalgorithms are introduced, and engineering ethics issues are also discussed. Applicable ABETOutcomes are: 1, 2, 3, 4, 5, 7, 8, 9, and 11. Applicable Track-Specific ABET Outcomes are: M1,M2, M3, and M4.Product and Tool Design (Junior Year Spring Term): This course provides an introduction toproduct design issues including design for manufacturing and assembly, the producibility index,process planning and tolerance selection. The course also covers the design and engineering ofjigs, fixtures, and tooling used
State University Vancouver. His research interests are robotics, automation, fuzzy logic, technology assisted distance delivery of laboratory courses and haptic interfaces for virtual reality. Page 12.464.1© American Society for Engineering Education, 2007 Design Panel: A Tool for Assessment in Design CoursesAbstract - In this paper, we first present the fundamental framework of our ABETassessment plan for our program and explain how an assessment tool called Design Panelfits. The Design Panel tool is used to assess courses with substantial project components.Then, we explain the details of organizing and managing
completed a briefjournaling activity that asked them to describe what they learned about robots. Page 25.61.2Description of outreach activityThe outreach activity was designed to introduce the elementary school students to industrialrobotics and various topics related to programming industrial robots. As part of the outreachactivity, the research team visited the elementary school on two occasions spaced one weekapart. Before the students were told about the planned visit of the research team, they wereasked to complete their first DART assessment.The initial visit was broken into three 40 minute sessions. During the first session, two classes
complex problems.Moreover, metacognition increases individual and team performance and can lead to more originalideas. This study discusses the assessment of metacognitive skills in engineering students byhaving the students participate in hands-on and virtual reality activities related to design andmanufacturing. The study is guided by two research questions: (1) do the proposed activities affectstudents’ metacognition in terms of monitoring, awareness, planning, self-checking, or strategyselection, and (2) are there other components of metacognition that are affected by the design andmanufacturing activities? The hypothesis is that the participation in the proposed activities willimprove problem-solving skills and metacognitive awareness of the