for a more applicable early experience, an experimentalintegrated pre-engineering curriculum (IPEC) 8 was developed and implemented fall 1996 withsponsorship from the National Science Foundation. The fundamental goals of this project were asfollows:1. To improve the students’ depth of understanding of the mathematical models of the physical world;2. To deepen students’ understanding of the physical principles that are the foundation ofengineering problems;3. To increase students’ use of mathematical models in solving basic engineering problems;4. To increase students’ involvement and sense of belonging in and personal commitment to the Page
partnership is to attract and retain women, Hispanics, African Americans, and otherminorities individuals to engineering. Students participating in the program are exposed andtrained on NASA’s mission, given seminars on the realities of the workplace, diversity, andgender issues. Students attend to their regular curriculum during the academic year, whileworking on projects for NASA. This model is being tested at various levels to transfer it toindustry at large. Our preliminary results indicate that such partnership provides a win-win-winsituation for the student, industry, and faculty. This article discusses the partnership model andits implementation.1. The partnership modelThe partnership seeks to establish a combined research and educational
group design was used in the first study where both the control andexperimental groups completed the 30 items on the PSVT. After a short break period, bothgroups completed an equivalent form of the PSVT with coordinate axes added to the 30 items forthe experimental group. The following conclusions were drawn from the initial study:1. When examining differences between the experimental and control groups, the coordinate axes had only a small influence on scores. The mean score for the experimental group was greater than the mean score for the control group, but the difference was not significant.2. The coordinate axes had a significant affect on response times. Analyses of response times indicated that more time was required to process the
concepts are covered. The course isconsidered one of the hard obstacles they need overcome to achieve their career goals. Thecourse is a four credit hour course. Its meeting schedule is set for two two-hour sessions perweek. The class usually has a mixture of sophomores, juniors and seniors.The variation in the academic achievement between students and in the students’ backgroundmakes it difficult to use one method of delivery to achieve the learning objectives. Thus, varietyof teaching and learning strategies for the engineering mechanics class at the FAMU-FSUCollege of Engineering has been developed and used. These strategies include:1. Integrated lecture notes: Conventionally the material for the engineering mechanics ispresented into two
relatedtopics. Also a sample of the IE and other departments’ students have been interviewedabout their expectations of the necessary knowledge and skills in the area. Finally, thelist shown on the top of the matrix in Figure 1 has been obtained. Page 4.159.2 (brainstorming, Pareto charts, etc.) Policy and strategy determination
Session 2647 Design and Construction of a Mobile Laboratory for Distance Learning in Engineering Technology Alok K. Verma Old Dominion UniversityIntroductionLast ten years have seen a explosion in the number distance learning programs offered byeducational institutions . Distance learning programs of various types are available throughmore than 1,000 educational institutions in the United States. [1] Estimates are that by the year2007 almost 50 percent of all learners enrolled in postsecondary education courses will takesome of their courses through distance
societies, agencies and boards it was recommended those industrial projects beaddressed by teams within the curriculum.In 1996 a Design and Manufacturing Clinic was established at the University of Daytonfor developing formal contacts in industry for the purpose of implementing team basedprojects in the curriculum. This paper will address the evolution of the clinic and theprocedure for bringing industrial projects into the classroom. Major issues to beaddressed will be: 1. The need for experiential learning and the importance of solving practical problems that are grounded in industry. 2. The organization of the clinic which includes the role of the advisory committees. The Council on Design and Manufacturing
for better understanding the design process are possibleby the use of this technology. Working professionals and engineers who may not be ableto attend traditional classes due to their full time jobs can use this web-based method tostudy online. An additional benefit is the design projects can be easily archived forviewing and use by students in future courses.IntroductionIt is well known that courses in design form an important part of the curriculum forstudents majoring in mechanical, aerospace and civil engineering. In design coursesstudents are taught to analyze problems using various equations and theories forcomputing forces, stress, strains and displacements 1. Since the design problems concernreal world objects such as shafts, gears
special for the year 2000, the rules were substantially changed for 1998. The site wasmoved to the Department of Energy’s Hammer facility. The Hammer facility is a hazardouswaste cleanup training ground, and mockups of disaster scenes are available, including a burningfuel truck, an overturned railcar, and a smoke-filled building. Because these props wereavailable and because the site is in a remote location, the competition field size was increased toabout 1 acre. The 1997 vehicle was only capable of about 10-15 minutes of flight time, which isnot enough to search the new larger field. To allow increased payload for more fuel andbatteries, the team moved to the Bergen vehicle instead. Many of the same electronics wereemployed with some upgrades
. 1). This animation shows an ‘open’ die attached to theram of a mechanical press pre-forming a workpiece. For ease of visualization, a sectional viewof a simplified mechanical press is shown. Both the text and the optional voice-over explainwhat forging is and whether billets or bar stock are used to produce the forging. Similarly, in thecase of injection molding the equipment shown is an injection molding machine and the text andvoice over explain what injection molding is.Although Fig. 1 depicts the mechanical press as a static piece of equipment, in the multimediatutor, the ram, which is connected to the flywheel via a connecting rod, moves up and down.While the lower die remains stationary, the animation shows the upper die moving with
the system performance byanalyzing the data collected. The engineering education literature contains numerous referencesto methods for teaching statistical design of experiments in the 1, 2, 3. However, teaching methodsand educational materials that enable mechanical engineering students to develop true "design ofexperiments skills" are not presently available.A project is underway to demonstrate that the Engineering Systems Laboratory develops thestudents’ ability to confidently design and conduct experiments involving complex thermo-mechanical systems. The laboratory also develops their understanding of mechanicalengineering systems and gives them experience in applying computer-based instrumentation tostudy system performance, exercising
studentswere required to understand all facets of the project and teach unclear concepts to theintroductory students when necessary. End of semester surveys revealed that both the upper leveland introductory level students benefited from the exchange.IntroductionThe rapidly changing profession of engineering calls for the education of life-long learners,individuals who can adapt and thrive through change [1]. This call must be met with a balancedemphasis on process skill development (thinking, integration, discovery, communication) andproduct (knowledge) [2]. Engineering instructors understand very well the adage one neverreally learns a subject until one teaches it. The process of teaching and preparing to teach buildsprocess skills, e.g., discovery
for controlling systems and processes in industry.The project was assigned to an individual undergraduate student as a senior design project. Thestudent had to meet the following requirements:1. Utilize the full power of the SLC-503 PLC by integrating it with the main processor, I/O modules, A/D modules, and the power unit.2. Provide inputs and outputs options with voltage levels of 5V DC, 12V DC, 24V DC, 120V AC, and variable voltage and current levels.3. Provide select choice options for input and/or output connections with a latching toggle switch, a momentary push button, and a user supply input voltage.4. Use LED illumination as an indicator for input and output states.5. Design and construct the artwork for dressing the faceplate
point, the motor has a constant Root Mean Square (RMS) voltage value across itsterminals. For reversing, we push another button labeled “REVERSE”. Once the reverse pushbutton is pressed, the command signal decreases until it is zero when the motor has stopped. Nowthe system will wait for one (1) second to insure that no current is passing through the coils. Sincethe frequency is 60 Hz, a one (1) second delay is a sufficient delay time. The controller will changethe phase sequence and automatically push the motor starter. The motor will have a reverseddirection of rotation. In this paper, we will also explain the way system controls SCR gate currents.There are several textbooks available which can be used for reviewing and learning the design
methodologicalfundamental of the logical control design, b) an Interactive Learning Environmentdeveloped on the base of the formal notation. The proposed approach enables transforming, uniting, minimizing, anddecomposing both ASMs and FSMs. On one hand, transformation on a set of theformally defined ASMs and FSMs provides a rich variety of learning activities in theproblem solving and the design. On the other hand, the use of the proposed InteractiveLearning Environment enables students to design and explore complex controlsystems. The proposed approach drastically increases a plurality of possible tasks andprojects in a class and, consequently, opens an opportunity to enrich both the teachingand the learning processes.1. Introduction It is a widely known
anddesign courses to enhance learning. Open-ended projects together with experiments in thedesign courses are chosen to provide context for and reinforce the engineering science taughtconcurrently. The Design Spine will also provide the vehicle to develop key competencies inproblem solving, effective communication, project management, ethics, economics ofengineering, teaming and industrial ecology in an evolutionary manner throughout the sequence.1. IntroductionIt has been estimated that approximately 70% of the life-cycle costs of product realization, i.e.the conception, development and bringing to market of a product, are determined during thedesign phase1. There has been a growing recognition that engineering curricula in the U.S. havenot been
Session 1613 Design, Fabrication and Testing a Heat Exchanger as a Student Project K Sherwin, M Mavromihales University of Huddersfield, UK1. IntroductionThis paper describes the design-fabrication-test of a simple heat exchanger as a final yeardesign project for undergraduate engineering students. Design can be defined as the use ofimagination, knowledge, experience and judgement to define a particular end project (1).Much of this activity cannot be taught as a body of knowledge, like an engineering science.Students can only learn to design and gain experience by being actively involved
todemonstrate the variety of D/B/T projects and student activities. These three projects will also beused to show how the type of project is related to the skills that students learn. The three projectsdiscussed will include the Solar Phantom, solar powered race car competition, the D/B/T project inThermal Design that was discussed last year at ASEE, and the D/B/T competitions in EngineeringDesign.INTRODUCTIONIt is our task, as instructors, to "design" design activities for our students. Pahl and Beitz describethe design process as being composed of four sections, (1) Clarify the Task, (2) ConceptualDesign, (3) Embodiment Design, and (4) Detail Design [1]. Whatever design structure isfollowed, we, as educators, must include all of these areas when we
engineering areas of the curriculum. The proposed lab includes experimentation withdispersed resources (DR) in a utility-integrated mode. The most suitable DR types for the lab arephotovoltaic and wind power sources, although other sources could also be used with somechanges. Some of the issues that are becoming important in recent years, such as power quality,and renewable energy impact can be studied easily in the lab. At the same time, the lab allowsconventional experimenting with machines. For situations where actual DR installations are notavailable, opportunities exist for simulating their characteristics.1. Introduction Dispersed resources (DR) are considered by many experts as promising andenvironmentally friendly solutions in the
. Page 4.174.1After examining several studies concerning the definition and application of the homeworkprocess, Cooper [1, 2] has very strongly advocated the use of appropriate homeworkassignments. England and Flately [3] and Doyle and Barber [4] have also provided eloquentrecommendations for the assignment of homework.Bloom’s Taxonomy of Educational Objectives offers a useful method of categorizing thelearning process. Bloom lists knowledge as the lowest level of learning. This level of learningcan be easily addressed utilizing a variety of class presentation methods. The next two levels,comprehension and application, can also be addressed through the class presentation butgenerally require somewhat more effort. However, the remaining higher
(and wisdom, and time, and patience) 1. Be Accessible. and yet am already serving as a faculty 2. Be Quiet. advisor for student organizations, I 3. Behave. have assembled a short set of advising 4. Be Supportive. principles (Table 1) derived from 5. Be Smart. teaching techniques1-4. This paper will present and expand upon the principles in Table 1, which have been Table 1. Short List of Advising Principles
the requirements of ABETEC2000 in preparation for an ABET visit in September 1998. The assessment plans weredeveloped by four-person committees with on-going input from the other chemical engineeringfaculty. The NCA assessment plan was developed by the department’s Curriculum Committee.The ABET assessment plan was developed by an ad hoc ABET/Assessment Committee. Two ofthe faculty on this committee had worked on the NCA assessment plan developed by theCurriculum Committee.The department’s assessment plan consists of four major goals that can be related to the ABETEC2000 outcomes (a) through (k) and to the AIChE Program Criteria: (1) Students shouldmaster chemical engineering fundamentals necessary to function as a professional in
doing space.” This program challenges students todesign, build, test, launch, and operate a small satellite as part of their course of study. We havefound that this program significantly enhances the ability of our students to create aerospacesystems in the presence of ambiguity and complexity.The USAFA small satellite program achieved a significant milestone in October 1997 with thesuccessful launch and operation of the Falcon Gold spacecraft—a student-built experiment todetect GPS signals from near-geosynchronous altitude. Since that time we have been developingFalconSat-1—our first free-flying satellite—for launch in late 1999. Over the course ofdeveloping Falcon Gold and FalconSat-1, the small satellite curriculum has matured into a four
4.179.1responsibility for product delivery between the historically adversarial groups of builders anddesigners. With this shared responsibility, there is no finger pointing to shirk the responsibilityof a non-performing product or team member 11.At a time when architects and construction managers may scoff at Design/Build and wish itwould go away, a greater need for owners to obtain design/build services has increased 4. It isthis need that this classroom setting attempts to enhance. Although there are a variety ofcompany configurations for Design/Build firms, the project was centered on the method of atotal Design/Build firm that encompasses both design and construction within their organization(See Fig. 1). It is the most advantageous method for maximizing
this “first” and sometimes only course inthe subject. This also leads to a variety of topics covered [1]. On the other hand, faculty with littleor no formal education or experience in the subject are greatly disadvantaged and may tend to treatthe course material from a “survey” perspective. They do not have an in depth understanding of thematerial and its application to a wide variety of engineering projects to rely on for guidance. Thecourse syllabi of faculty on both ends of the education and experience spectrum may varysignificantly resulting in a wide variety of material taught in an introductory EngineeringEconomics course.In view of the above, the purpose of this paper involves laying out a multiple year projectculminating in a series of
, thestrategies of teaching this course went through many stages. First, providing awareness of practicallife of all kind of engineers and answering all puzzles in the students’ mind about engineering.Second, setting competencies that can help students to master problem solving as well as basic skillenrichment. Third, developing the course activities and materials that practice all competencies. Thisstrategy was the key to increased enrollment in engineering. A Final Exam at the end of the courseproved that the new strategy is the most effective way to influence student commitment and positiveattitude toward engineering.1. Introduction Tex-PREP is identified as the Texas Pre-Freshmen Engineering Program which offers anacademically intense