) is designed to provide graduates with the knowledgeand skills necessary to apply current methods and technology to the development, design,operation, and management of electro-mechanical systems. The program is specifically intendedto prepare graduates for careers in industries where automated systems are used and to preparethem both to meet current challenges and to be capable of growing with future demands of thefield. It accomplishes this by accepting associate degree students from either mechanical orelectrical engineering technology programs, cross-training them in the alternate discipline, andthen exposing them to a spectrum of instrumentation and industrial controls concepts. Theprogram culminates with a capstone project design course
offering, I solicited and discussed ideas forimprovements and changes to the laboratory format with faculty, staff, and students who hadpreviously taken the class. Because of its small size, our machine shop is too small to allowextensive student training on the equipment; however, the students strongly recommended thatmore hands-on experience with manufacturing methods was needed. They suggestedcomponents of laboratory exercises that could be deleted from the formal exercise and convertedinto self-paced, independent student activities. Our department’s machinist is heavily involvedin working with students in the capstone design courses in the second half of each semester;therefore, the assistance of the staff machinist was incorporated into
• Plasma processes • Electrochemistry • Chemical Mechanical Planarization • Materials Analysis • Optical properties and lithographyThe program encompasses capstone senior design project that involves design and developmentof integrated device, component, process or capability at RIT. Students publish their seniorproject papers in proceedings published each year. The trend over the last several years showsthat ~ 30-50% of senior projects entail materials process development. In addition, students getopportunities during their co-op experience to engage in materials/process development projects.Further graduate coursework in materials science and engineering will provide deeperunderstanding of materials engineering fundamentals
areas.Michael Chan, China Travel Ship Management LimitedDru Wilson, Central Michigan University Page 12.913.1© American Society for Engineering Education, 2007 Integrating CAD/CAM/CAE and Composite Molding Technologies in a Research ExperienceAbstractThis paper discusses the research experience of a student who integrated design andmanufacturing functions to improve a brake shoe used on a band saw. The CAD/CAM andcomposite tooling technologies selected for this project were primarily based on student’sundergraduate and graduate course work. The scanning/digitizing and rapid prototypingtechnologies were also studied. This
. The final EDP, the culmination or “capstone” project, was deliberately designed to fall along the extreme right of every one of the scales, leveraging the anticipation of an extremely fun project to build excitement and enthusiasm for what would prove to be a significantly challenging engineering problem. Students were tasked to develop prototype
culminates in a capstone design class that is taken in the last se-mester in school. Projects for this class are often solicited from communities and non-profitorganizations, and typically incorporate a service learning component.In reviewing the existing UWP CEE curriculum for this curriculum development project, itbecame clear that the curriculum had not changed significantly in over 20 years. To illustratethis, the curricula from the 1985 and 2005 catalogs are shown in Table 1. The course changesare very minor, and the total revisions made in 20 years to the UWP CEE curriculum consistof the following: replacing Route Layout with Construction Engineering; replacing TechnicalWriting with 3-9 more credits of Social Sciences and Humanities; changing
greatresponse to this need including accreditation requirements requiring students to work in acollaborative, team-oriented, capstone design project. Another avenue to expose students to thistype of work is undergraduate research. But using an existing building as a laboratory lendsitself more to analysis than it does to research. In other words, the students will be seeking datato answer questions posed to them by their instructor. The students will be studying questionsthat, in many cases, already have answers. This might lead to the thought that it will be of lesservalue to the student. Some studies, however, indicate that when students are working on a large,complex, hands-on project, to them it is research and they derive many of the same benefits
course. A typicalcurriculum then can become a series of seemingly unrelated courses (in the student’s mind) thatare often only connected in a senior capstone or design course. Even the typical senior capstonecourse usually limits the application aspects directly to the students’ major and to what isconsidered mainstream or directly related to the discipline. Ideally, however, students shouldhave ample opportunities to integrate and apply previous course content to new courses, areas,and problems. This should include interdisciplinary concepts and areas that may be considerednon-traditional for a particular major. The courses described in this paper were designed to takeadvantage of proven pedagogical methods to improve student learning.In the
. Page 12.788.5Recommendations:• Provide regular meaningful opportunities for faculty and staff to strengthen personal leadership characteristics, and gain increased understanding of how to effectively teach leadership principles and skills.• Provide opportunities for each student to receive instruction about, and practice in, leadership through leadership workshops and retreats, student organizations, capstone courses, team- based projects and classes, and seminars.• Develop and offer an engineering course focused on leadership, character, and enhancement of global and cultural awareness.• Develop a website for faculty, staff, students and alumni to provide leadership resources including reading lists, discipline specific leadership
understanding, better retention of concepts, increasedinterest on the subject matter among the students, and stronger problem solving skills. Severalapproaches have been practiced by educators to ensure meaningful participation of students inlearning including problem-based learning1, “learning by doing”2, and “project-orientededucation”3 to name a few. All these approaches emphasize a “learner-centered approach” and amove from a “content-based” to a more “context-based” education4.In addition to sharpening student’s laboratory skills, most undergraduate lab-based courses areused to promote some type of hands-on learning. In conventional laboratory course students areprovided with detailed instructions on how to perform the work and, in many cases, how
AC 2007-2315: DEVELOPMENT OF AN INNOVATIVE STRUCTURAL TESTINGLABORATORY TO ENHANCE EXPERIENTIAL LEARNINGManar Shami, University of the Pacific Manar Shami, Ph.D., PMP., is a Faculty at the School of Engineering and Computer Science, University of the Pacific, Stockton, California. Professor Shami received M.Sc., M.Eng., and Ph.D. degrees in Civil Engineering from the University of California, Berkeley. He did extensive research and consulting in project management in the U.S. and internationally. He was a Faculty at the University of Cincinnati. He was also a senior aviation engineer with ATAC Corporation in Sunnyvale, California working on NASA and DOD projects. He provided executive project
. The RP/RM education at RMUis very effective, enhancing a healthy combination of theory and practice. A successfulstudent completing the ENGR 4801/5810 course gains invaluable information on thesetechnologies, and is able to operate all related hardware and software tools that include SLAtechnology, Reverse Engineering tools, and CNC technology. This knowledge and skill set isthen applied in his/her CARES Research or Engineering Projects or Integrated EngineeringDesign assignment (Capstone Course Project). Being competent in these areas make thestudent employable by CARES during his/her education and by the local industry. Students’response and feedback on these courses show their satisfaction in the learning process. It isnot uncommon to see
Award in 2006. Dr Johnson is Co-PI on the NSF-EMAP project described in this paper and also co-founder and faculty adviser of the University of Alabama Chapter of Engineers without Borders.Karen Boykin, University of Alabama Dr. is the Assistant Director of the University of Alabama's Environmental Institute and a Research Engineer. She has broad experiences in environmental engineering and science. Dr. Boykin's personal research interests involve the reduction of greenhouse gas emissions from both anthropogenic and non-anthropogenic sources. Prior work included modification of EPA landfill emission model to include applications for soil amendments to cover systems. Efforts have also
gather real world ill-structured problems for students to solveusing the skills developed in their graphics courses applied to their upper levelengineering principles courses will satisfy all the requirements of industry for students topresent ideas with written, oral, and visual means in their senior capstone courses such asMET 435 senior design project. This capstone course requires the student to synthesizeall their knowledge from beginning drafting to advance engineering design principles tosolve a real world ill structured problem.Undergraduate Survey1) Are you currently employed in the engineering field? Yes NoIf you answered yes to question one, please go to the next question. If you
without incurring additional faculty resources. A specifictechnique linking student grades to the assessment of program outcomes has been usedsuccessfully in two civil engineering courses with good success. This paper presents a revisedprocedure that serves to address previously expressed concerns related to mathematical processeswithin the assessment technique.The assessment technique is constructed within a spreadsheet and is easy to modify for use inany course. Inherent to this assessment technique is a mapping of specific student activities,whether as part of a project or other graded assignment, to specific program outcomes. Themapping involves the assignment of a number between one (weak mapping) and five (strongmapping) by experienced
relatedcourses are in the filed of robotics, construction management, and nanotechnology. Most of thesecourses require students to complete a project. While undergraduate research is emphasized toreplace or complement capstone project course such as EGT-417, course projects serve well inexposing students to innovative, developmental work that can benefit them in future practicalapplications. The outreach programs that target young high school students as well as adultlearners can also benefit from hands-on projects that combine innovation, creativity andanalytical skills. It is desirable to incorporate new ideas, innovative schemes and application-based learning into manageable projects that can be carried out by students on different levels
policy systems. Whilethe opportunities are unlimited, PSE is initially introduced with examples of greatest importanceto chemical engineering undergraduates, with course projects and enrichment readings providingextensions to other applications. The decision support methods we include in PSE are modeling (first principlesfundamental and data-based), simulation, process control, applied statistics, optimization,synthesis and design. These topics overlap with many existing courses in engineering,operations research and applied mathematics, so that much excellent teaching and learningmaterial is available. However, a great challenge exists in teaching them at the appropriateundergraduate level, linking to practical engineering applications
student programs. He has published and presented widely in areas of surface science, electronic materials and processes, project management, and industry/university relations. He holds 4 patents and has received awards for excellence in technical innovation (IBM), technical authorship (IBM), teaching (University of Colorado), and scholarship (National Science Foundation).Shekar Viswanathan, National University Dr. Viswanathan is a Professor and Chair of the Department of Applied Engineering and Lead Faculty for Engineering Management and Homeland Security and Safety Engineering. He is the Lead for six full time and fifty two adjunct faculty members. His department offers three
ofroller coasters at amusement parks, and automated robotic welding lines in the automobileindustry.Traditionally, engineering courses have covered only selected automated assembly line designconcepts, usually in the context of teaching some other topic. For example, in industrialengineering, workstation design, assembly line design and line balancing are covered in courseson production systems. In mechanical engineering, design of devices such as material handlingtrays are covered in mechanical design courses. There is typically no single course thataddresses automated assembly design issues.Education on the big picture of system integration is typically accomplished via capstone coursesor senior design projects1. In this type of instruction
solving problems. It has a 10-course2 design sequence that starts in the freshmanyear and culminates in a capstone design project in the final year of study. This course design,combined with a willing faculty, made BE an easy choice for our initial effort.In order to make effective use of university resources and have an immediate impact on the BEcurriculum, the plan for teaching entrepreneurship was to break up the topics into educationalmodules which each focusing on one particular aspect of business. This modular approachallows existing content from business courses to be used as new content in the engineeringcourses, thus addressing the faculty workload issue (challenge #2). Modules are being1 John D. Gassert, et. al., “Converting
-designed experiment as contributing to their learning, althoughfor this particular lab, students responded on the full range of the scale, with somestudents rating the lab at a 1 and others at a 7. The average rating was 5.6. In the focusgroups, students also disagreed on the value of this lab with one student commenting“[The Student designed labs] took a little bit of extra effort. I think you got more backfrom it, as well, having put so much of ourselves into it. It combined all those skills wegathered throughout the semester.” Other students remarked that the nature of this labmimicked potential future experiences, both in required senior capstone projects and inreal-world work situations. They believed their experiences would be beneficial
and Innovation Certificate must complete asequence of 5 courses (15 credits). These include two required core courses, two optioncourses in areas of their choice, and one capstone or project-based course. TheBiotechnology Laboratory I (IT226) course within the Biotechnology program is offeredas an option course for the Entrepreneurial program. Biotechnology Lab forEntrepreneurs (IT226E) provides hands-on experience with the latest biotechnologyequipment via the collaboration discussed above with Bindley Bioscience Center. Thecourse also incorporates guest speakers from biotechnology industries and academia thatshare their experience with the students. For students interested in entrepreneurship, thebiotechnology course provides the
fitsextremelywell with thetwo semestersenior designengineering Figure 4. The founding partners of the Collaborative represent the principal stakeholders in the healthcare and aging sector of Western North Carolina.project inengineeringandengineering technology curricula. These capstone projects are accomplished by engineeringteams. The constitution of these teams is now being expanded to be multidisciplinary includingentrepreneurship, marketing and health scientists. The curriculum allows for enriched activitiessuch as attendance in a full day Boot Camp for Entrepreneurs seminar provided by Blue RidgeEntrepreneurial Council, one of the Collaborative partners. This building of a businessopportunity from an idea may require one or
Multidisciplinary Design 16-Week Multidisciplinary Design Project—Composition & Rhetoric Project—Public Speaking Junior Product/Process Development or Product/Process Development or Research Research Senior Multidisciplinary Capstone Design/Research ProjectFreshman Clinics expose students to basic engineering skills including problem solving,teamwork fundamentals, engineering measurements and entrepreneurship. Students areintroduced to a variety of activities relevant to engineering measurements5. This is followed inthe second semester by intense study of engineering design through reverse engineering(“dissection”) and
√ √ √ Quality Engineering17 Implementation Experience √ √ √ Systems Design Project I, II Prof. Development & Intro to Engr I, II Systems Engr. Concepts Industrial Capstone Project18 Programming √ √ Comp. Meth. for Sys Engr. I, II Programming for Systems Engineers19 Spreadsheet Modeling √ √ √ Comp. Meth. for Sys Engr. I, II20 Value and
, there are numerouspedagogical approaches for teaching ethics and/or contemporary issues with a wide rangecurriculum implementation strategies including modules, individual courses, integrationthroughout the curriculum, or as part of a capstone experience. This paper will describe anapproach implemented by a private technologically focused University to reinforce ethicalbehavior and to discuss a wide range of contemporary issues associated with the aboveoutcomes. The approach includes offering the course as a hybrid e-Learning course that isstudent learning focused and not instructor focused. Assessment of student learning and theeffectiveness of the hybridization of the course will also be discussed in the paper.IntroductionThe Accreditation
caféwhere cross-disciplinary learning can take place in an informal environment that is not part ofthe university structure. This case is written specifically for Tennessee Wesleyan College butcould be used elsewhere. The Tennessee Wesleyan College faculty members who are involvedwith this project are expected to use this case and other cases in a capstone Honors program inentrepreneurship during the spring semester of 2005. Other cases may also be used in the Honorsclass. (This case is not in the current Manual and Casebook).Case 9 – Long Lines and Short Tempers (Homeland Security) – This case was written forengineering design classes interested in small device designs for homeland security and terrorismprevention. One of the most pressing
the program top high schools students from all over theisland.Engineering programs at the UPRM are five years long. In the CE program, the first two yearsare primarily devoted to mathematics, science, humanities, Spanish, English, and economycourses. In years three and four, the basis of CE is built with core courses in the areas ofsoftware, hardware, and communications. In the fifth year, students take mostly technicalelective courses. The program is structured to fulfill both breadth and depth of knowledge andconcludes in the fifth year with a major design experience through a capstone course identifiedas the “Design Project in Computer Engineering”.The particular academic setting where participating students were chosen included four
core.When designing such a course, the selection of a particular microcontroller is a very importantdecision. The selection should consider not only what microcontrollers are currently popular, butalso the ease of project development using the system, the availability of support to students, thecosts of starting up a lab, and the flexibility of the platform to fit into a course with multipleobjectives. This paper reports on using Cypress Semiconductor’s Programmable System on aChip (PSoC) as the basis for a microcontroller systems design course. The experience ofselecting the PSoC, designing a curriculum around it, designing laboratory exercises andmanaging the course are described. Furthermore, considerations such as the technical andfinancial
it stands now, this course is designed toexamine economic issues regarding energy systems, plants, and processes. Engineering Page 12.513.12Design Methodology is designed to be somewhat of a reverse engineering course inwhich students learn to apply methodology in the design process. This course is listed asa significant writing component since the course will be very project based and willrequire writing of reports, memorandums, or progress updates.The final semester has only one required mechanical engineering course, entitled FinalDesign Project. This is commonly referred to a “capstone” course, in which studentsapply their knowledge in a design or