in this material are those of the authorsand do not necessarily reflect the views of the National Science Foundation. Page 14.564.7References1. Dutson, A., Todd, R., Magleby, S. & Sorensen, C. (1997). A Review of Literature on Teaching Engineering Design Through Project-Oriented Capstone Courses. J. Eng. Ed., 86, 17-28.2. Koretsky, M.D., D. Amatore, C. Barnes, and S. Kimura, (2008). Enhancement of Student Learning in Experimental Design using a Virtual Laboratory," IEEE Trans. Ed., Special Issue on Virtual Laboratories, 51, 76.3. Koretsky, Milo D., Sho Kimura, Connelly Barnes Derek-Meyers Graham, and Danielle Amatore
challenges associated with nanotechnology.Similar courses developed for non-science and non-engineering majors are intended to broaden thetechnological understanding of these students. Senior capstone design projects (in engineering) and seniorthesis projects (in the sciences) are the basis for interdisciplinary, industry-sponsored projects innanomanufacturing. Implementation of these course activities is expected to begin in the spring semesterof 2005, and outcomes will be reported. The primary evaluation of this activities related to this educationplan will be conducted by the Research and Evaluation Group of the University of Massachusetts,Amherst, Donahue Institute.Introduction: The ProposalThe plan was simple. As shown in Table 1, the three
courses in junioryear, followed by one year capstone project. Some programs start from sophomore year, someextend it into senior year. There are also many programs that adopt integrated curriculum,therefore the lab components are integrated into regular courses. For example, when engineeringdynamics course is offered, a 1 credit lab course is offered in conjunction with the lecture. Thisarrangement ties the experiments to course content very well, helps to reinforce the knowledgethat students learned from lectures. It brings the real world into theoretical education.While it is the general agreement that laboratories, hands on experience are necessary, little hasbeen said about what they are expected to accomplish [2]. Many times course
project is greater or less than what will normally be taken on as partof a course or Capstone project. This method allows the faculty member to hire studentsspecifically for their talents or interests from sophomore to senior level. When the project has a significant number of deliverables or requires a higher degree ofcertainty in the outcomes needed by the external sponsor, a research contract can be set in place.However, now faculty members will probably be offloaded to work on the project rather thanjust manage the work of the undergraduates and graduate students or students from otherdisciplines such as mechanical engineering who may be hired depending on the scope of theapplied research. Recently, some small businesses have
. Typically, the class is divided into small teams of no more than 5students. Each team meets with the course instructors and faculty advisors on a regular basis, andwhen appropriate, with clinicians and industrial sponsors. Some programs have teams consistingonly of biomedical engineering students, while other programs offer truly interdisciplinary teamsof biomedical, electrical, mechanical and chemical engineers. For example, at MarquetteUniversity1 , all senior biomedical, electrical and mechanical engineering students are combinedinto one capstone design course where students may select projects offered by any of theparticipating departments. Project sponsors typically request that a team be comprised of a mixof engineering disciplines.Typically
within the process control industry leading to the design and installationof new industrial-grade laboratory infrastructure in an undergraduate capstone experience.The multi-year collaboration between academia and industry resulted in the development of ayear-long student-driven project centered on the design, development, and installation of newlaboratory infrastructure on a scale beyond the budgetary resources of the host institution or anyindividual industry partner. The resulting installation is a permanent education anddemonstration system constructed to industry standards, utilized in the delivery of conceptsrelated to process control, measurement, and communications in undergraduate courseworkwhile also providing a platform for
for using modern engineering tools,specifically in the machine design process. This was accomplished by developing analysis-basedprojects that students code in a math computational program (typically MATLAB). Three ofthese projects were carried out throughout the semester in conjunction with an introduction to thedesign philosophy presented by the textbook by R.L. Norton [1]. The following manuscript (1)describes the rationale for the introducing the projects, (2) gives detail description of the projectsand (3) assesses the efficacy of the projects to achieve the objectives through results obtainedfrom a survey given to students during their senior capstone design course.1. Introduction and Background Machine design is a required
lectures, problems and projects. Whether the courses are introductory orcapstone level, they are lecture driven with problem and/or project components filling in the restof the learning experience. This three-tier approach is essential for students to develop intopracticing engineers who are capable of applying fundamental concepts to the solution ofcomplex problems. Typically, one thinks of introductory courses as a series of lecture/recitation sessionswhere the pace of the course is set by the amount and degree of technical material to be covered.By contrast, the capstone design courses, or project-based courses, have a less formal structurewith content based on the specific project goals, the knowledge base of the students, and the
thecourse, instructors would highlight the courses in the curriculum that would expand on the topics in theSEMP. In addition, the students were expected to use the SEMP as the problem solving methodology fortheir capstone senior research project, a year long engineering design course with a team of four or fivestudents. These research projects directly support the needs of a client and are supervised by a seniorfaculty member.Figure 1. Systems Engineering & Management Process [3] Figure 2. Systems Decision Process [4]The SEMP was a four phase process that begins with an understanding of the current situation and endswith the implementation of an engineering design to meet the desired end state. The phases are ProblemDefinition
thecourse, instructors would highlight the courses in the curriculum that would expand on the topics in theSEMP. In addition, the students were expected to use the SEMP as the problem solving methodology fortheir capstone senior research project, a year long engineering design course with a team of four or fivestudents. These research projects directly support the needs of a client and are supervised by a seniorfaculty member.Figure 1. Systems Engineering & Management Process [3] Figure 2. Systems Decision Process [4]The SEMP was a four phase process that begins with an understanding of the current situation and endswith the implementation of an engineering design to meet the desired end state. The phases are ProblemDefinition
program which is open not only to students which have an undergraduate degree inengineering but also for students who have an undergraduate technology or related physicalscience degree. This particular degree option was developed to meet the technical andprofessional development needs of practicing engineers. The M.S. program in ManufacturingOperations is a 33-semester hour program that includes a professional practice component, aseries of courses in manufacturing operations, a capstone Masters Project, and approved graduate Page 8.943.1elective courses. The minimum academic preparation required for entry into the program includes
the students was thelead systems engineer for the in-house satellite build project, called Texas2Step, sponsored bythe Air Force Research Laboratory (AFRL). An added bonus to the pilot class was theparticipation of the capstone design professor, as well as a graduate teaching assistant with aMaster’s degree in aerospace engineering from Georgia Tech with an emphasis on SystemDesign and Optimization. The participation of all these many perspectives provided continuousimprovement on the course content and delivery. {Note that current offerings of the SE Courseare available to all students in the space track of the aerospace engineering degree program.}The SE Course content is based on numerous systems engineering handbooks and primers fromNASA1
, and thereview and modification of several courses and assignments.The new curriculum consists of a series of twelve integrated courses beginning in the freshmanyear and ending in the senior year. Some of these courses cover topics that were included inprevious civil engineering (CE) curricula, such as: ß Civil Engineering Projects ß Engineering Problems with Computational Laboratory ß Graphics for Civil Engineering ß Civil Engineering Capstone DesignHowever, the new curriculum places a strong emphasis on the following professional practiceskills: ß Leadership Skills ß Team Processes in CE Practice ß Interpersonal Skills ß Communication Skills ß Project Management ß Agreements and Contracts ß Continuous Quality
Education Excellence Award.Ivo Wambeke Page 23.1065.1 c American Society for Engineering Education, 2013 Service Learning: Industrial Embedded Systems CourseAbstractService learning is defined by the National Service-Learning Clearing House as “a teaching andlearning strategy that integrates meaningful community service with instruction and reflection toenrich the learning experience, teach civic responsibility, and strengthen communities.” Aservice learning capstone project was incorporated into a senior/graduate level industrial controlcourse. The course provides instruction on control system
with little to noprior data science, computing, or math background. Courses use both synchronous andasynchronous delivery methods to maximize learner flexibility while providing opportunities toengage in real time with instructors and peers. All courses emphasize projects to provideopportunities for learners to apply courses concepts to real-world problems. A terminal 2-semester capstone course incorporates all three disciplines into a final culminating team project.This paper will focus on the conceptualization of the computer science (CS) portion of thecurriculum. As an applied master’s program, much of the CS curriculum takes inspiration fromindustry frameworks such as CRISP-DM and Agile project management to contextualizeconcepts. The
Atlantic University Boca Raton, FL 33431 rothz@fau.edu , Zhuang@fau.edu , ungvich@fau.edu , zilouchi@fau.eduACKNOWLEDGMENTThe work was partially supported by NSF Grant No. 1033815. The authors wish to thank ourengineering students who were involved in the design projects reported here.AbstractThis paper shares the experiences from an undergraduate curriculum refinement involvingintegration of design contents in the entire four-year Electrical Engineering program. Theimplementation of the refinement can be described by four mottos: start early, be persistent, openmore fronts, and cap with a peak. The integration of design at certain years, such as the freshmenyear or in capstone senior level projects
BGSU has followedthe active-learning principles of adult education by employing a series of surveys on students’prior experiences, interests, preferred topics, and preferred target projects to pursue in termlength project-based learning (PBL) assignments. In addition to having course length PBLassignments mimic real world conditions, the Construction Capstone class has also entailed areview of prior course work in preparation for the American Institute of Constructors’ (AIC)Associate Constructors examination. The project based assignment was designed to increasestudents’ understanding of threshold concepts related to construction planning and schedule andrisk management.The central goal of this process was to move students from a reliance on
by counseling on curriculum design, hiring interns, sponsoringcornerstone and capstone projects, holding in-class workshops, and participating in professionaldevelopment activities.The IBE program recruits a small percentage of business and engineering honors studentsaccepted at Ohio State each year. The curriculum is not for the faint of heart. Students mustmaintain a 3.5 GPA throughout the four years, and those entering college with substantialadvanced placement or post-secondary option credit toward their degree are the most likelycandidates to succeed. IBE students finish with a bachelor's degree in their home program, aminor in the complementary program, and diploma recognition for completing the IBE Honorsprogram. Effectiveness of the
some type of participation in capstone design projects, as industrialcollaborators [1], sometimes as industry liaisons in real-world projects [2], or as industrialadvisors to meet with students and review their reports, or industrial partners pitching projectsfor students’ choice, attending, and grading final presentations, or invitees for special topics (i.e.,safety, team building, PI&Ds) [1].2.0 Project Description2.1 An initiative inserted in the capstone course for chemical engineers.Teaching the capstone course for chemical engineers (generally a process design course) isalways very challenging. Students come with the expectation of wrapping up all that they werelearning in college and projecting their application in the upcoming jobs
in dialogue with one another around thesecore issues can be a key step in achieving those goals.References1. Dym, C., et al., "Engineering Design Thinking, Teaching, and Learning." Journal of Engineering Education, 2005. 94(1): p. 103-120.2. Dutson, A.J., et al., "A Review of Literature on Teaching Engineering Design Through Project-Oriented Capstone Courses." Journal of Engineering Education, 1997. 86(1): p. 17-28.3. Pembridge, J.J. and M.C. Paretti. "The Current State of Capstone Design Pedagogy." in American Society Page 22.240.6 in Engineering Education Annual Conference and Exhibition. 2010
design projects will beneeded to replace the traditional continuous chemical manufacturing process that is most oftenthe subject of the capstone design class. This paper describes one such design project assignedto the West Virginia University class of 2005. A different multi-scale, biologically related,product design was completed by the class of 2004.2The ProblemThis class was assigned the task of investigating food products. Specifically, they were toidentify promising markets for low-carbohydrate and/or low-fat foods and suggest opportunitiesfor a profitable venture to manufacture such products. They were to learn the ingredients in and
scales, as appropriate, and themanufacture of the product at the macro scale. Therefore, a new class of design projects will beneeded to replace the traditional continuous chemical manufacturing process that is most oftenthe subject of the capstone design class. This paper describes one such design project assignedto the West Virginia University class of 2004.The ProblemThis class was assigned the task of investigating transdermal drug delivery systems. They wereto identify potential pharmaceutical products for use in a transdermal patch and suggestopportunities for a profitable venture to manufacture such a product. They were to learn thecomponents of transdermal patches, including their chemical composition, their function, andtheir mechanism
project-based learning. Graduation criteria require all engineering studentsto complete a team-based capstone design project with a level of effort equivalent to nine credithours. For this capstone project, many students work on multi-disciplinary teams. Studentsdocument the design process, as well as the resulting product, with lengthy reports. Engineeringfaculty review the reports, but are not expected to provide writing instruction. Students are alsorequired to complete a team-based social science research project, typically during their junioryear. The junior level project includes a significant writing component, including instruction onthe proper use of citations.Although all students are required to complete one half year of humanities for
be successful in providing theses for graduate students that clearly containedmore than theses performed in similar subjects without senior capstone design teamcontributions. The quality of those theses are usually superior, for example [2,9,10,11,12,13].Papers generated from those theses were more likely to receive recognition and higher marks inpeer reviews. Hence, we again employed these methods in the project at hand.The project’s staffing was organized in the typical fashion with a major professor chairing acommittee of three professors for a Master’s degree with thesis. A graduate mentor wasappointed and, through a documented self-selection process, a team of undergraduates wasappointed [14,15]. For a senior capstone design project
. Spretnak, C. M. (1982). A Survey of the Frequency and Importance of Technical Communication in an Engineering Career. In The Technical Writing Teacher (pp. 133-136).3. Wheeler, E., & McDonald, R. L. (2000, Oct). Writing in Engineering Courses. Journal of Engineering Education .4. Sharp, Julie E. "Selecting and presenting Writing Assignments in Engineering Classes: Tips for New Professors." Frontiers in Education Conference. IEEE, 1995. Session 4b5.5. Kampf, Constance, Stephan Heinz, and Joseph Labuz. "The Rhetoric of the Capstone Project: Workign Towards and Explicit Definition of the Capstone Project Writing Process." IEEE International Professional Communication Conference. 2004. 89-96.6. Pappas, Eric C. "Holistic Grading in
complex real-world problems. The capstone project integrates theory andapplication of the engineering curriculum and incorporates all aspects of the design process to developnew and creative solutions that meet the customer’s need. The design projects are fairly diverse dueto the diverse interests of the students. A short list of these projects that materialized during the lasttwo years include: agricultural spraying drone, bleach concentration feedback control system,anaerobic digester coupled with a heating system, vapor-cloud explosion test structure, search andrescue drone deployment system, dual-axis solar tracker, six degrees-of-freedom robotic arm for steamsterilization, and all-terrain rescue trailer. Several of the projects are sponsored
-directed learning, and therefore inSDLRS score, students taking the capstone courses in Mechanical and Electrical Engineeringwere also asked to take the SDLRS. To minimize the disruption of the normal flow of theseclasses, the instrument was provided on-line, and the students were sent an email from theirinstructors asking them to complete the instrument. The students received the request to take thepre-test in the third week of class after their project teams were formed.Of the 81 Mechanical Engineering students enrolled in the capstone course, 36 completed the pre-test. The Mechanical Engineering students can choose between capstone courses that emphasizemechanical or thermal systems. Typically students prefer the mechanical systems course by 3
feltthat it came at a cost of the project timeline: “It would be nice to do less team building in thebeginning and shift the timeline forward faster.”Figure 2. Comparison of mean CATME Peer Evaluation #1 ratings for BME capstone designcourse from course offerings before asset-based activities were included (Pre: No AssetActivities, n=364), after activities were included (Post: No Asset Activities, n=425), and duringthe two course offerings in which asset-based activities were implemented (Asset Activities,n=457). *Statistical significance (p<0.05, t-test).Importantly, asset-based activities were implemented for the first time during the first iteration ofa restructured senior design course, where the BME senior design course transitioned from a
design.MethodsIn capstone design course, ENGR4520 Design and Manufacturing of Biomedical Device andSystem at Robert Morris University, students were divided into groups (4-5 students per group)and selected their own project. The objective of the course and project were to understandDesign Control3, design, implement, and fabricate the prototype of a medical device thataddresses current market need. Student projects were in many different areas includingorthopedic implants, prosthetics, biomaterials, instrumentation and etc. Each group was requiredto produce a working prototype of the proposed design to assess the functionality of the device.For the groups who selected an orthopedic medical device, such as total joint replacement andtrauma implant
renowned scientific research institution(Brookhaven National Laboratory). These organizations are collaborating in theimplementation of a two-year demonstration project leading to a capstone experience forstudents in science and engineering. The effort combines state-of-the-art materialsscience, and innovative display and measurement technologiesThe project, which represents a next step in distance education is creating an extendedlearning community which emphasizes campus-based, real-time interactions betweenparticipants at different sites. It includes construction of scientific visualization facilitiesat the two campuses, and mastery of selected measurement and analysis techniquesresident at Brookhaven, drawing on applications from several