Copyright 8 2002, American Society for Engineering EducationSystems. In this module we present the details of a microkernel, how it is used and whichmicrokernels are typically available for various microprocessors. The third module is Real-TimeEmbedded Systems. This module deals with interconnection of more complex peripherals than onespresented earlier, such as CAN networks, DA/AD converters, and PWM (Pulse Width Modulation) --- all of such devices come with variations of various microprocessors. Through such lab projects,students learn how to control various peripherals and build a (small but) complete real timedistributed microcontroller system. With the NSF CRCD grant, twenty Phytec Microcontrollerboards containing an Infineon C 167
program which actively and purposefully develop desirable graduate attributes.These experiences might include such elements as team projects, field trips, guest lectures, andexperiential laboratories. The USLP is then a capstone experience.Equally the form of site learning can be broadened to include study abroad or exchangeprograms, internships in research laboratories (especially for student considering a researchcareer). Industry sites are then but one of a variety of types of site. Thus we move closer to amodel of education where the students can make some decisions as to the form of a more tailoredprogram of study including the context of learning.AcknowledgementI wish to acknowledge the many people who have made the USLP a success. In
possible open to both engineering and liberal arts students. This requires a multidisciplinary faculty team effort to design and implement the courses. Once these courses are designed, advanced courses and perhaps minors in the area can be developed. 2) Faculty, individually or in teams, introduce various CT topics to their existing courses (e.g., nanotechnology into materials, chemistry, and physics courses; microfluidics and non-Newtonian behavior into fluid mechanics courses, etc.). This tends to “modernize” traditional courses and attract student interest, and hopefully enhance retention. 3) Develop student capstone CT projects with local industry (many of whom welcome the exposure to both
per TC2K guidelines are incorporated in the curriculum design.A capstone design experience is not built into the curriculum; however, 14-months of full-timeco-op experience and upper level design-oriented courses will most likely suffice the intent ofthis requirement. The project management techniques, statistics/probability, transform methods,and applied differential equations are part of the curriculum satisfying the TC2K requirements.A pre-accreditation visit is in the plan for Spring-2006. Faculty members dedicated to the EEETprogram will receive training on ABET accreditation process through participation in ABET andASEE sponsored seminars. A couple of schools with accredited programs under TC2K criteria
3.2 3.2 3.4 Problem Definition 3.0 2.9 3.0 Equipment Design 2.6 2.8 2.5 Technical Writing 3.4 3.6 3.3 Technical Presentations 3.5 3.5 3.5 Experimental Design 2.7 2.7 2.7 Process Design and Analysis 3.1 3.0 2.8Non-technical engineering skills such as decision making, ethics, teamwork, societal impactawareness, project management, public interaction, global awareness, diversity, entrepreneurism, andcontinuous
Society for Engineering Education Annual Conference & Exposition Copyright © 2002, American Society for Engineering Educationany assumptions about shape or arrangement) is difficult in materials science, although it isrequired in medical research in many cases. This means that the various classical stereologicalparameters still prevail and must be clearly understood.ExamplesWe present several examples taken from student projects, which illustrate our approach.1). SiC/SiC compositesSiC/SiC composites exhibit excellent tensile (high toughness, strength and strain) and fatiguecharacteristics at ambient and elevated temperatures. The primary challenge in thecommercialization of these composites has been to come up with an
Session 3550 Using the SAE Aero-Design Competition to Expose Students to Multidisciplinary Design Teams Aaron R. Cowin, Terrence K. Kelly Parks College of Engineering and Aviation Saint Louis UniversityAbstractStudents at Saint Louis University have an opportunity to participate in the SAE (Society ofAutomotive Engineering) Aero-Design student competition. The competition challenges studentsto design, fabricate and fly an aircraft carrying a desired weight in a pre-determined flight pattern.Participation in the project draws
Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition Copyright © 2002, American Society from Engineering Education Table 4 Listing of topics covered in Lab 4 Lab Section Title Section Objectives and CommentsSection Lab 4 Temperature Control Design Project 4.2 Exploring Heat Transfer Students first make some qualitative observations about the container in which they are to control the temperature 4.2.1 Heat transfer background Background material on heat transfer making analogy
as well asround-out their professional development. These experiences are diverse: one-day shadowing,teaching a lecture, creating a new course with a faculty mentor, creating on-line courses, etc.The program culminates in a Capstone Fair where second year participants showcase theirexperiences in PFF. 3Upon completion of the first year, students receive a certificate stating they have completed theExploratory Phase of PFF. Second-year participants receive such benefits as travel funds forPFF-related projects as well as a Graduate Student Tuition Waiver. If students complete thesecond year they not only receive a certificate from the Graduate College for the ParticipatoryPhase, but they are also recognized as “PFF Fellows” by the National
advanced energy topics such as ME 472.EM 301 is designed to provide a solid foundation in classical thermodynamics throughthe study of three broad topical areas including preliminary topics, methods and tools ofanalysis, and relevant applications. The topics covered include definitions, puresubstances, ideal equation of state, conservation of mass and energy, and the second lawas shown on Table 1. In order to enhance the student’s learning, several applications arestudied in detail including steam power plants, air standard cycles, emissions, vaporcompression refrigeration systems, psychrometrics, and air conditioning. The lecturesare further augmented by a design project, a tour of a cogeneration plant, and four
Session 3560 A Potential Barrier to Completing the Assessment Feedback Loop Ed Furlong, Promod Vohra Northern Illinois UniversityAbstractNorthern Illinois University’s College of Engineering and Engineering Technology employs acomprehensive nine-component assessment model. Each element in the assessment model (Pre-test, Post-test, and Portfolio; Standardized Testing; Student and Faculty Surveys; StudentInternships and Cooperative Work Performance; the Capstone Experience; Student PlacementInformation; Employer Surveys; Alumni Participation; and Peer Review of the Curriculum
, functioning of an engineer is viewed in context ofinternational scientific and economic environment. Many examples of approaches that evaluatevalue of creativity, efficiency and overall output of engineering work are available from academicand business point of view 6 - 11 . Experimentation was frequently an integral part of some Page 7.572.3 Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition Copyright Ó 2002, American Society for Engineering Educationinventive undertakings. Hands-on projects are believed to be one of the best avenues to teach theconcepts of the above
on written and oral communications, ability to work on multi-disciplinary teams, project planning and management skills. · Alumni interest and financial support via endowments for engineering entrepreneurship education is growing. · Participation in REEE2000 and REEE2001 Conferences – Roundtable for Engineering Entrepreneurship Education, at Stanford University - confirmed that good engineering design in inherently a creative process, and gaining business acumen is key for Page 7.798.1 engineering entrepreneurship education. Proceedings of the 2002 American Society for Engineering Education
driving principle, supported as necessary by business and Page 7.914.1 Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition Copyright © 2002, American Society for Engineering Education(systems) engineering disciplines. Targeted students include mid-career engineers andtechnical specialists with career paths to senior management.PD21 began as a two-year pilot project with funding from the National Science Foundation,during which time the consortium grew to four universities, adding the Naval PostgraduateSchool in 2000. PD21 is a consistent educational program based on
grouping, cooperative learning, teamdesign projects, and an emphasis on written and oral communication. Student record dataindicates that the program has improved retention in the engineering program but has hadminimal effect on achievement. Anecdotal evidence from follow-on teachers, however, suggeststhat the TIDE program may have soft skill carry-over effects. Upper-class engineering studentswho participated in the TIDE program may exhibit more confidence, better communication skillsand greater team skills than their traditional program counterparts. To test this hypothesis, engineering faculty who teach downstream design courses thatrely heavily on student soft skills were asked to rate past students on a variety of dimensions.Each rater
in capstone design projects,undergraduate research, and percentage of students pursing g raduate studies in such areas. Thus, Page 7.76.6the total impact of the developed curriculum will be known clearly over a span of about 4-5years.ACKNOWLEDGEMENTSupport of the National Science Foundation under grant NSF- CAREER 0196390 is gratefullyacknowledged.REFERENCESAngelo, T. and Cross, K. (1993), Classroom Assessment Techniques: A Handbook for College Teachers(2ed.),Jossey-Bass.Davies, M. L. and Crowther, D. E. A., “The Benefits of Using Multimedia in Higher Education: Mythsand Realities”, Active Learning, V3, Dec. 1995.Herman, J.L. (ed.) (1987
the environment as a national security interest. Thediscussion of environmental security will be used to emphasize the first theme of broaderapproaches to engineering education. Consider an illustration, working engineers recognize the importance of conductingdesign integration pulling together the individual pieces of a design into one coherent package.They have learned that bringing the mechanical, electrical, civil, etc., together to assemble theindividual pieces into an efficient and workable design is an essential part of any completeengineering project. There is, however, a level above the engineering design integration step.This is where the social, political, economic, and technological components are integrated. Thehypothesis
universities are designed toillustrate a scientific concept or engineering principle or to teach students basic laboratory skills.In addition, laboratory courses with freshman and sophomore students (e.g. introductory Physics,Chemistry, and Biology laboratory courses) often have high enrollments. Instructors oftendevelop course-specific protocols; many protocols are published on the Web3-5 or in journals(e.g. Journal of Chemical Education, Chemical Engineering Education, and BiochemicalEducation). In BIOE 342 and the “PLLA and PLGA Characterization” segment of the TissueEngineering Module in BIOE 441, detailed protocols are appropriate and are utilized.Open-ended projects are very common in senior capstone design courses across all
processes is a cornerstone ofEC 20001.Given the limitations of achievement tests in fulfilling outcomes assessment requirements, theassessment community has recommended several alternative approaches for assessing studentoutcomes. These include portfolios, capstone design project evaluations, student, alumni andemployer surveys, and placement data of graduates. Yet, written surveys administered to currentstudents are the most frequently used assessment instruments, due in part to two reasons – one,they are relatively inexpensive to conduct, and, two, a high response rate is almost guaranteed. Anatural question is whether these student self-assessments are valid substitutes for test questionscreated and scored by an instructor.This paper reports the
%), are White/Caucasian(80.49%) and are male (82.93%). The remainder of the respondents were: Asian Americans(7.32%), Black/African Americans (4.88%), Foreign Nationals (4.88%),Hispanics/Latinos/Mexican Americans and female (14.63%). Participants were asked about their team training experiences and how they use teams intheir classroom. Findings show that more than two thirds (68.29%) of respondents haveparticipated in a workshop on effective teaming or teaming techniques. Among all therespondents, 80.49% use teams for design projects suggesting that they consider this an essentialtraining activity in preparing students for the work place. More than half of those surveyed(51.22%) use teams for homework/problem activities, 70.73% for in
Society for Engineering Education Session: 22472. ODU Engineering Technology Studies 33Students must complete 33 credits of Engineering Technology courses in their selected studyarea. This group of courses must include a capstone senior project in which the studentdemonstrates proficiency in the selected area. Several popular options are described in the tablebelow.3. Electives 6Selected from technology, business, or other area supporting student career interest.Total Upper Division Credits beyond AAS
of the 2002 American Society for Engineering Education Annual Conference & Exposition Copyright ©2002, American Society for Engineering Educationwould endorse, probably as the prime duty of the engineer. If engineers have any duty to society as awhole, and the authors would argue that we do, then protecting them by our decisions should be one ofour prime duties. A problem could develop when a project might hurt a few people, but help manymore. An example might be a major dam project in the southwestern United States. Is our prime dutyto the few who might be displaced, or the many who might be helped by readily available water andcheaper electricity?A utilitarian approach might approve of this policy as being
in engineering requires that students understand their professional and ethicalresponsibilities. ABET also asks programs to ensure that students integrate ethicalconsiderations into a "major design project." Even a quick look at these ethics requirementsmakes it clear that the ethical component of this new engineering curriculum cannot becompletely delegated to the ethics expert, for example, a philosopher who would teach afreestanding course in engineering ethics required of all engineering students. For reasons thatwe will discuss below, the freestanding course, while an essential part of a successfulengineering program, does not by itself achieve the integration of ethics into the engineeringcurriculum that ABET requires.One of the
supervision are, for many, their capstone experience. · Have a mentor. A ‘mentor’ experience; e.g., mentored internship not done for academic credit, in which students get to create their own project and then implement it under the supervision of a faculty member, provides an effective tool for learning. · Appreciate diversity. The impact of racial and ethnic diversity on their college experience has a highly positive effect; students learn from others who come from different backgrounds. · Manage time. Students who grow the most academically, and who are happiest, organize their time to include activities with faculty members, or with several other students, focused
(Criteria 4). The matrix is a large table (Figure 3) with a column for eachcourse in the curriculum and a row for each outcome. The main entries in the table arekeywords that we defined to indicate the level or depth at which each course addressesthe particular outcome. The keywords include ‘Introduction’, ‘Bridging’,‘Development’, ‘Comprehensive’, ‘Practice’ and ‘Capstone Experience’ to represent aspectrum of experiences from initial exposure through terminal professional practice.Also included are detailed entries (inserted as ‘comments’, described in the ElectronicTools section below) which give specific examples of how the course contributes. Thesecomments are mapped from the course syllabi, in which our standard format includes
. Page 7.1134.1 Proceedings of the 2002 American Society of Engineering Education Annual Conference & Exposition Copyright © 2002, American Society of Engineering EducationSpecifically, in Mechanical Engineering, approaches have varied from more hands on learningexperiences - for example, product dissection courses at Stanford3 and the MEEP! coalition4, andindustry-sponsored capstone senior design courses – to the adoption of different teaching stylesin the classroom2,5.Despite these efforts several problems still remain. These include:1. A majority of mechanical engineering students graduate with a poor feel for how common mechanical devices work and the rationale behind their design4.2. A majority of
coursewas 66 for biology, 144 for chemistry, 77 for physics, 11 for environmental science, 214for calculus and 17 for statistics (See Table 1).Table 1. AP Enrollment by Science and Mathematics Courses in SY 2000-2001Biology Chemistry Physics Env. Science Calculus Statistics Total66 144 77 11 214 17 529V. ResultsIn answer to the Research Question - Are students who take AP courses in high schoolmore likely to pursue college majors in engineering than students who do not take APcourses? – The following data was collected for projected college majors. In the six APscience and mathematics courses, only career data for seniors in AP physics was
Units 1. General Education 72 2. Mathematics, Science, and Computer Programming 105 3. Freshman Engineering 24 4. ECE Core 24 5. ECE Breadth 36 6. ECE Depth 12 7. ECE Coverage 24 8. ECE Capstone Design (This can be a course used to satisfy ECE Depth or ECE Coverage) 9. Engineering Elective
severalmore steps to follow, however, if we are to put what was learned at the colloquy into action. Thefollowing is a list of near- and medium-term action items compiled by colloquy participants: Develop a full report on the colloquy, its findings, and its implications. Validate the above final list of learning objectives both internally to the colloquy participants and externally to other institutions, and note any new issues or challenges related to achieving them. Develop a collection of distance education projects being conducted among the practice- oriented professions, and encourage the development of such projects. Develop quality assurance mechanisms for assessing and evaluating the effectiveness of
not difficult to repeat each term. Many timesstructural engineering and construction courses see projects under construction, which are good,but each term the trip must change as the construction evolves and eventually must end. The keyis trying to find an existing project that does not change. This greatly reduces the overhead ofthe field trip. Even better is to find such a structure or location right on campus to minimizetravel requirements. If all else fails, do a virtual tour with photos and video. This approach maybe even better suited to some classes that do not lend themselves to obvious physical applicationsnear campus. The object is to show the student how the education gained in your class can applyto their future professions. “The