Copyright © 2004, American Society for Engineering Educationsketching and orthographic projects with PRO/E1. This course replaces the traditional freshmanlevel computer aided drafting course. Instruction in the use of PRO/E is an integral part of thecourse. The second course, a sophomore level course, Introduction to Product Development,continues student instruction in PRO/E at a more advanced level. Manufacturing methods arealso treated within the laboratory portion of this course. The third course, an elective senior levelcourse called Finite Element Analysis and Design, continues the instruction in PRO/E to includestress analysis of the object under design. The purpose of this sequence of courses is to proceedfrom a design concept to a completed
ME Design Project Mechanism Design Thermodynamics II Technical Elective* Technical Elective
, Administrative Services was able to absorb much of the impact on campusthus sparing academic programs.The academic areas of the institution began to involve themselves in transforming to thisCQI culture when both regional and program level accreditation requirements began tofocus in this direction. In 2001 PUC was among the first to adopt the North CentralAssociation of Schools and Colleges (NCA) Academic Quality Improvement Program(AQIP) rather than conventional regional accreditation criteria that was still available atthat time. The AQIP model is also patterned after the Malcolm Baldrige National QualityAward criteria. The emphasis with AQIP is on "action projects" showing goals andmeasurable improvements. Two of the quality projects PUC initiated
mission of the Astronautics Department is to produce the world’s finest Air Force officerswho live our core values of integrity, service, and excellence and understand space. In keepingwith this mission, the Department has created the Space Systems Research Center (SSRC) andthe FalconSAT program1. Our philosophy of “Learning Space by Doing Space” is carried outthrough the SSRC. This center provides a facility in which our astronautics majors can design,assemble, test, and operate small, scientifically relevant satellites. FalconGold, FalconSAT-1,and FalconSAT-2 were the first spacecraft in a series of projects created by cadets. In recentyears, the program has expanded to include select management, physics, computer science, andelectrical
students work together on Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition Copyright ©2004, American Society for Engineering Educationhomework sets, lab experiments, course projects, and team-based exam questions. In short,cooperative learning is similar to team-based course projects common in many engineeringcourses, but cooperative learning is more formalized and structured to reinforce positive teamingand learning skills while avoiding common teaming problems [13], [15]. Cooperative learningmust meet five criteria [18]:• positive interdependence Team members must rely on each other to achieve the group’s goals.• individual accountability Members are held
construction of a prototype, a group of business students enrolled in MGMT 301,“Project Management,” conducted a market study during Summer 2003 to assess the marketpotential of OPTX. A letter survey was sent to 100 private and public middle-school teachers inthree geographic (rural, suburban, and urban) areas of Michigan. Forty-nine responses werereceived (49% return rate). Sixteen percent of the respondents have taught between 1-to-5 years,31% 6-to-10 years, 22% 11-to-15 years, and 24% 16 years or more.The major findings of the survey were: 1. All respondents agreed a new approach is needed to teach light reflection, refraction, absorption, and transmission; 2. 90% of all respondents stated OPTX would be useful for multiple lessons; 3. 12
pilot characterprograms. As of May 1999, nine states have initiated such projects. In Virginia, Georgia,Florida, and Mississippi legislation has been passed mandating that Character Educationprograms be implemented statewide. As a result, teacher education programs are nowbeing called on to provide a basic framework of Ethics and Character Education topreservice teachers. Greer (1998) believes that matters will certainly grow worse if theschools of education-and their colleagues in the liberal arts colleges-do not prepare thenation’s future teachers to teach effectively about morals and character.Developing an Ethics Education ComponentIn the fall of 1998, discussions began in our traditional four-year teacher preparatoryprogram on how to
short lecture period with questions and answers. Then we show aNASA movie with robots venturing to Mars as a way to describe the future andpossibilities of robotics. The capstone experience is a set of experiments to allow thechildren to have a sensory experience with the robots. The agenda is identical for all ageswith the exception that the high school students are the only group to participate in theMulti-agent Race experiment.In the lecture, we discuss human and robot intelligence, then progress into learning andfinish with sensors. In each phase we compare and contrast the way humans use thesecapabilities to the way a robot is built and how it will use these capabilities.To begin the lecture, we compare and contrast human versus robotic
Engineering. He teachesundergraduate courses in machine design and statics as well as advises senior engineering student teams working onindustrially sponsored capstone design projects. He also teaches a senior-level undergraduate international designproject course and has taught graduate-level courses in innovation and technology management.Mark Urban-Lurain is Director of Instructional Technology Research and Development in the Division of Scienceand Mathematics Education at Michigan State University. He is responsible for providing vision, direction, planningand implementation for using technology mathematics and science education and developed several introductorycomputer science courses for non-computer science students serving 2000 students per
used concepts such as productdefinition, prototyping) intended to meet a user’s needs (e.g., noted client needs,scientific needs). Our findings also showed that experts tended to situate the designprocess in a social context, often mentioning issues related to ethics, marketing andinterpersonal skills required for success in the workplace.Study 2Student participantsAs part of their course requirements, 51 students enrolled in a capstone design course atVanderbilt University were asked to construct concept maps. Students were given thesame focus question that was presented to experts (i.e., “What is your current conceptualunderstanding of what is involved in the BME design process?”). Maps were given ashomework assignments at three time points
, around the world • Customer confidence based on your evidence of qualifications and suitability for the task at hand or project put out for bids.But there are some disadvantages as well: • Certification is not licensure or accreditation • Certification can be offered by different organization, vendor, institution, and school. So there is no single standard • Certification is recognized by one employer and may not be recognized by another employer • Certification has to be updated when technology changes and it is common that Page 9.75.4 the same certification has to be validated every 2 or 3 years
. They established an Engineeringprogram that built a sound theoretical base that was then strongly coupled to the realism ofengineering practice. Engineering’s Founding Fathers developed the Harvey Mudd Clinicprogram—Harvey Mudd’s three-semester capstone experience—to bring professional practice toon-campus students. Subsequent colleagues developed (and evangelized) the first-year designcourse (E4) that exposes students to client-based design work as the cornerstone of itsEngineering program. A current overview of the history and philosophy of the Mudd Engineeringprogram is found elsewhere1, while details of the current curriculum are shown in Figure 1
Session 3202 Student Design, Development and Operations of Small Satellites at the United States Air Force Academy Kenneth E. Siegenthaler, Jerry J. Sellers, David J. Richie, and Timothy J. Lawrence Department of Astronautics United States Air Force AcademyAbstractThe FalconSAT program is a unique, dynamic small-satellite research program thatserves as a capstone course for Astronautical Engineering majors at the United States AirForce Academy. The goal of the program is to give students the opportunity to “learnspace by doing space.” The program results in a
tasks; scaffolding; cognitive apprenticeship;learner control; and non-linear instruction3. It therefore encourages collaborative learning andteam-building. The intention of the subject library is for the students to perform guidedexperiments and discover the answers to their questions. More details about the library conceptare provided in another paper4.ContentThe Experiential Engineering Library collections will allow students to study problems ofinterest in emerging fields that come from a number of sources including: faculty research,senior capstone design course projects, commercially developed educational tools, and donationsfrom industrial partners. Our Mechanical Engineering faculty includes experts in smart materialsand nanomaterials
necessary because the flux of gas molecules into the indicator is also afunction of its affinity for the gas penetrant. Calibration of the process using known defectstandards is required in order to obtain the proper correction constants that can be used in actualapplications.GAIM: AN EDUCATIONAL TOOL TO CONVEY ENGINEERING PRINCIPLES OFSAFETY AND RELIABILITYVirtually all undergraduate engineering programs aim to enrich and culminate their curriculawith capstone projects where students are encouraged to apply their knowledge and skills in oneof the most fundamental activities of their future profession, i.e.: The design of artifacts, systemsand procedures that aim at satisfying human needs. There are innumerable aspects involved inengineering design
engineering software is to have them check their classical solutions(i.e., homework) with appropriate software. Another instructional method is to have them useengineering software for class projects. This is particularly apropos in the capstone designexperience.What Does the Educational Literature Say?Now let’s go to the recent educational literature to briefly examine if there is support for all threeteaching themes. First, let’s examine the importance of introducing students to theory (basicprinciples). Clearly the definition of “engineering” rests on obtaining specialized knowledge inscience and mathematics, as well as the engineering sciences.2 The Accreditation Board forEngineering and Technology (ABET) also supports this concept. Indeed
class and indicated that students who were getting many answers incorrect needed to increase their time studying class material or clarify the material with the instructor.6) The variety of results, particularly on opinion questions about the class, showed students the diversity of their peer’s opinions and the variety of learning desires.One of the major benefits of CPS is that it allows the instructor to preplan questions to addressseveral different levels of Bloom’s Taxonomy. The process of generating and categorizingquestions for ARE346N, although time-consuming, illuminated the scarcity of questions at thehighest levels. The instructor compensated for this by designing homework assignments andgroup projects to address the synthesis
comparison of the presurvey results leads to some interesting observations. Althoughthere is explicit training on how to use the library system in a freshmen english course, only 26%of the SIE seniors recalled this training while 41% of the sophomore chemical engineers did. Anadditional 11% of SIE seniors and 5% of chemical engineering students had received trainingfrom either library staff or from a mentor on a research project. The rest of the students reportedreceiving no training of any kind, either formal or informal. While some of the students may betransfer students or have used Advanced Placement courses to miss the courses that instruct themin how to use the library, this would be a small percentage compared to the number that say theyhave
support of the US Environmental ProtectionAgency (EPA), a Green Engineering Project has fostered efforts to incorporate green engineeringinto the chemical engineering curriculum. This paper focuses on the integration of greenengineering concepts into the courses in the chemical engineering curriculum that coverseparation processes (distillation, extraction, absorption, membranes, etc). The paper describeshow the green engineering topics are “mapped” into a separations course and presents a sampleof the novel types of problems that were developed for instructor use. Green engineering is defined as the design, commercialization and use of processes andproducts that are feasible and economical while minimizing: generation of pollution at
. Without a primary focus on generic capabilities, it is especially difficult to holdstudents to the expectation that as they advance in a laboratory program the quality of their workshould advance as well.Many interdisciplinary capstone design courses in engineering implicitly emphasize genericcapabilities. Generic capabilities such as teamwork, communication, critical thinking andmaturity, together with content-specific knowledge, are important to a design group’s success [3-4]. To facilitate this type of interdisciplinary learning environment, students from differentdepartments may be grouped to work on capstone design or laboratory projects [5-8]. Studentsmay also be required to work on projects or experiments requiring knowledge across
has always believed in a strong role for the industrial advisory committeeand has had one in place since the inception of the program more than 30 year ago. The marksof the advisory committee are exceedingly prevalent throughout our curriculum and program.The advisory committee has been evaluating student work in the form of capstone projects fromthe seniors for more than 2 decades now. We saw the constituent input mandates contained inTC2K as an opportunity to strengthen this already active group’s role within our program. Thepolicy and procedures document referred to earlier addresses this by including a sectionspecifically documenting the role of the advisory committee. That section is included below.“Policy and Procedures for EET
during World War II with design anddevelopment of weapons like the atomic bomb and radar defense systems, engineering came tobe more and more like applied physics. The Russian launch of Sputnik in December 1957accelerated the movement of the engineering curriculum toward applied physics. Until the mid1970s, few engineering programs contained any design projects and social courses in writing(composition) were confined to successfully passing, or having waived based on some “Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition Copyright © 2004 American Society for Engineering Education
engineering capstone design project. He is a 1991 graduate of USMA and holdsMaster of Science degrees in Engineering Management from the University of Missouri and StructuralEngineering and Construction Engineering Management from Stanford University.BLACE C. ALBERTMajor Blace C. Albert is an Assistant Professor at the United States Military Academy (USMA), where hegraduated
has held visiting positions with the Air Force ResearchLaboratories in Dayton, OH. His research interests are in cooperative control; distributed spacecraft formationcontrol; linear/nonlinear control with applications to robust control, saturation control, and time-delay systems;closed-loop input shaping; spacecraft attitude control; mechatronics; and DSP/PC/microcontroller-based real-timecontrol. He received Polytechnic’s 2002 Jacob’s Excellence in Education Award and 2003 Distinguished TeacherAward. He has mentored 38 high school students, 10 high school teachers, 7 undergraduate summer interns, and 5undergraduate capstone-design teams and has supervised 2 M.S. projects, 2 M.S. thesis, and 2 Ph.D. dissertations
gatheredduring ethnographic research (e.g. field notes, informal interviews, work products, etc.). Theseforms of data are then analyzed to find patterns that establish how people make sense of andparticipate in particular social settings. Each ethnography participant will be observed forapproximately 30 hours/academic year. Particularly important will be observing students duringactivities that are significant in engineering education culture such as intense project work,examination periods, and while involved in extra-curricular activities. In addition, the Page 9.1133.5observations will aim to document what the typical work-patterns are for each of