programming and microprocessor design. However,the clear emphasis of the software development courses in CIT is on using programminglanguages to build business applications. Figure 1 shows these distinctions based on the student'srole within the various layers of Information Technology. This distinct emphasis on usingprogramming languages and tools for application development, rather than on teaching studentshow programming languages and microprocessors work, impacts the way the courses are taught.The authors believe teaching these skills help students get part-time jobs and internships evenafter the first semester.The sequence of study in CIT recognizes that there are different types of software anddifferences in the way in which that software is
-on learning? An hands-on learning approach requires students to become activeparticipants instead of passive learners who simply listen to lectures. The concept of “hands-onlearning” is not new in engineering education. A previous study of engineering educationshowed that hands-on learning is an effective method for engineering classes.1 In fact, over thepast 10 years or so, many engineering schools and programs have started to adopt “hands-onlearning” into their curricula. Whether using simple everyday household items or sophisticatedequipment, professors are now trying to integrate hands-on learning into their classes.Laboratory activities are the traditional method of providing students hands-on experience.However, with advancements in
curriculum.Charles Parsons, Douglas L. Jamerson, Jr. Elementary School CHARLES PARSONS is the Science Coach at Douglas L. Jamerson, Jr. Elementary School Center for Mathematics and Engineering. He earned a B.A. in Elementary Education from the University of South Florida. His experiences include over 30 years teaching in Kindergarten through fifth grade classrooms and 1 ½ years as a resource teacher. Chuck has curriculum writing experience and has presented at various state and national venues.Pat Van Driessche, Douglas L. Jamerson, Jr. Elementary School PAT VAN DRIESSCHE is a fourth grade teacher at Douglas L. Jamerson, Jr. Elementary School Center for Mathematics and Engineering. She earned a B.S. in
engineering problems. System simulations, step and impulse responses, convolutionintegrals, and later in the course the DFT were all used. This approach has the added advantageof introducing the students to actual industrial tools that they may be asked about in futureemployment.ModulationSeveral Simulink models were developed during the class. Figure 1A shows one used tointroduce the concepts of modulation. The details of the modulator and demodulator are shownin Figures 1B and 1C respectively. FIGURE 1 EXAMPLE SIMULINK EXPLORATION OF AM MODULATION Page 12.1326.5 FIGURE 2 MODULATOR
they exist both within and around technology.3While persuasive in general, there are many caveats to these propositions: 1. It is not possible to be literate about all, or even most, technologies. Doctors, electrical engineers, and chemical engineers, for example, typically live in largely mutually exclusive worlds.2 2. It may be more important to be able to think sensibly about a technology, its costs and benefits and for whom, than to understand how it works.4 3. In a diverse world, there will be people whose talents and lives do not require “technological literacy,” and whose views of technology may be valuable precisely because of that.4 4. Technology has become increasingly idiot proof for users, even
colleagues, Recently, this latter tool has been extended to better supportdevelopment teams and customized process definitions. As a result, the Process Dashboard maywell become a de facto standard for software process data management support.Metrics, Process Design, and Support Tool FunctionalityIn designing or applying data management tools to a chosen software process, one of the firststeps is to choose appropriate product and process measures. Watts Humphrey and his SEIcolleagues, while defining the PSP and TSP processes, developed a set of four base measures,from which many derived measures can be calculated (Table 1). Base Measures Derived Measures Product size (e.g., LOC
howour Legal Studies in Engineering program raises the awareness of our students to theirlegal responsibilities to their employers and to society. We will present short coursemodules that can be used in all levels of engineering courses to illustrate how engineeringpractice and our legal system interact.Concept of Negligence The concept of negligence is broad and vague in common usage, but its legaldefinition is fairly straightforward: negligent behavior is that which a reasonably prudentperson in the same or similar circumstances would not have undertaken. By definition,no one intends to be negligent because everyone strives to be reasonably prudent. Sothen, why does negligence occur, and why does it occur as often as it does?1 Clearly
and ultrasonic), two temperature sensors, a light sensorand accelerometer.The entire system is constructed on the lid of a plastic storage box for easy transportation. Thestorage box goes over the board and snaps shut, enclosing the entire model. The AC poweradaptor is mounted on the side of the storage box, so the entire unit can be transported withoutany shifting parts. The system, by default, operates in a demo mode in which each sensoroperation is demonstrated.Demo mode is very useful for new users as they can step through various functionalities of thesystem. Once acquainted with the basic operations, users can design and develop their ownexperiments. The general layout of the board is shown in Fig 1. Fig 2 shows fully
to complete the project. Oklahoma State University has used the “Work BreakdownStructure” shown in Figure 1, to outline all of the basic tasks associated with the concretecanoe project, including structural analysis, hull design, concrete mix design, reinforcementdesign of the composite section, form construction, preparation for the technical paper and oralpresentation, paddling practice, etc. Develop Promotional Pamphlet Fundraising Work Breakdown Structure Collect Donations (WBS) Update
. SAT scores and programming concepts post-test scores were thebest predictors of course grade. The paper also presents results related to the impact of priorcollege experiences on engineering major retention rates.1. Background and PurposeA new Department of Engineering Education (EngE) was created within the College ofEngineering (COE) at Virginia Tech in May 2004 to improve engineering pedagogy. The EngEis responsible for conducting a year long freshman engineering program (also called GeneralEngineering (GE) program). Approximately, 1200 engineering freshmen join GE program everyyear. Another primary mission of the EngE department is to carry out rigorous research in thearea of engineering education and support the research agenda as
sensor technologies. The main purposeof TSATT is to develop a way to decrease the risk normally incurred while testing these sensortechnologies and algorithms in flight as well as to develop ground observation capabilities ofclose-flying spacecraft. The design of TSATT consists of two end masses – connected by a tetherdeveloped by Tethers Unlimited, Inc. – that are initially joined together. Upon separation, theend masses are free to move apart from each other as the tether is deployed up to 1 km.Deployment initiates the beginning of data collection from the two end masses. Once a set timeis reached, the tether begins to retract, and data is collected as the two end masses are pulledtogether.Since separation is a possible point of failure on the
unavailability of a centralized laboratoryfor online students. Because of these specially designed laboratory modules, onlinestudents have gained the same learning experience as students in a centralized laboratory.1. IntroductionComputer network courses are traditionally conceptual in nature with an emphasis onopportunities for students to apply networking theory in their practices in order tostrengthen their knowledge in the theory and develop their practical problem solvingskills. Therefore, a laboratory environment is a key component in any computer networkcourse. The lab design for new online computer network courses first encounters anumber of constraints that traditional networking courses do not have. The key issue isthat there is no centralized
31,1790,1 cpf"kh"vjg"cwvjqtuÓ"wpfgtitcfwcvg"gpikpggtkpi"gfwecvkqp and past teaching experience istypical, relatively few of these have been used in teaching engineering design. The number ofissued patents is a measure of the technological progress of a society, and approximately 160,000patents are issued each year by the U.S. Patent and Trademark Office (USPTO) (Figure 1).2Almost all of these patents reference other, previously issued patents and, in so doing, provide ahistory of the Ðprior artÑ leading up to any given invention.This prior art is typically quite rich. As a condition to obtaining a patent, the inventor mustadequately describe the invention so that others skilled in the art can practice it.3 During thepatent term,4 this description
. The program’s purpose is to introduce UofA students toIndian culture and history while studying engineering, to build connections with undergraduateand graduate engineering programs in India, and to bring awareness of the UofA engineeringprogram to Indian students and faculty. Few India study abroad programs exist, and those thatdo tend to focus on only the student experience. Our program also focuses on buildingrelationships with Indian universities, students and faculty.Creation of the program entailed: 1) determining program goals and budget, 2) creating theadministrative framework for this unique program, 3) locating an appropriate engineering collegein India to host the students and faculty, 4) selecting the UofA faculty member/courses
education and value-addedknowledge gained by students. The College of Engineering and Computer Science at thisinstitution has been offering several graduate degree programs via AL learning mode; theseprograms are identical to those offered to on-campus students. This provided an opportunity toassess and compare performance and learning outcomes of AL Vs on-campus students.This assessment was based on two graduate level courses which had a combined enrollment ofover 150 graduate students. While the quality of instruction and knowledge transfer to both thegroups was about the same, academic assessment of the two groups showed followingcharacteristics: 1. Although AL students, on average, performed as well as the campus students, the spread
and engineering. Prior to EC20001, it met the ABET criteriafor course content in the humanities and social sciences.With the introduction of the ABET Engineering Criteria 2000 (EC2000)1 the emphasis oncurricular evaluation shifted from a prescription of topical content to assessment of studentlearning outcomes. As part of EC2000, engineering curricula were required to demonstrate Page 12.1399.2outcomes that went beyond those that might be expected from the traditional distribution ofcourses in the arts and sciences alone. As a way of fulfilling this requirement, we proposed thatgraduation requirements should be based on outcomes, rather than a
easier than the time honored tradition of manual cheating.This paper examines the foregoing issues by first exploring simple solutions and then progress-ing to more advanced methods. The presentation is based on Microsoft’s widely used Excel soft-ware [1], but other systems can be used as long as they support user-written routines known asmacros to extend their capabilities. For example, OpenOffice.org’s free Calc [2] system has mostof the capabilities of Excel, but it uses a different dialect of Basic for its macro language. EIOf-fice [3] is an integrated office system with a spreadsheet very similar to Excel that uses Java toprogram its macros. Most engineers are familiar with engineering economics, so examples aregiven for that field. The
designed as a single-purpose device to store and to play digitalmusic. The device is currently being marketed with the enormously successful iTunes, aimed atteenagers and young people in their twenties, iPod devices are tasteful and elegant. Table 1 is acomparative look of the innovative considerations for the Intel PC with the iPod.Class Presentations:The authors have used the two case studies to demonstrate differences in innovativeconsiderations for the two products in their respective marketplaces. While the presentation wasintended for engineering technology students it was first offered to a calculus class. The classconsisted mostly of students, majoring in engineering technology, aviation, and technologymanagement, although some students
professional environment. The package also includes a number of othertools: numerous visual aids including buckling animations, slide shows, a 3-D building modelwith preset views for all connections, lab spreadsheets linked to the AISC Shapes Database foreasy modification, web-based quizzes, project summary, editing instructions, a sample syllabus,and general building information. The entire package may be obtained from AISC by visitingtheir website: www.aisc.edu, see Figure 1. Our approach is different than the intended approach,which is detailed in the sample syllabus. We incorporate the entire package in the five-coursesequence in structural engineering rather than one course. Figure 1: Web-Enhanced Teaching of Structural Steel Web
maintaining flexibility in ABET CE pro-gram criteria, and in the second edition of the Civil Engineering Body of Knowledge document,is also stressed.Faculty Hiring Practices I investigated faculty hiring practices at 14 small- to medium-sized research-oriented CEEdepartments (typically having between 10 and 40 faculty members) by searching departmentWeb pages and identifying assistant professors. I ignored faculty members hired recently as as-sociate or full professors. I then contacted current or former chairs at these departments andposed the following questions to them: 1. Does your department tend to hire faculty in engineering science areas? 2. Has the number of faculty able to teach design courses declined in recent years? If so
all engineering students. Three of Beth’s current projects are: 1) an NSF planning project for the Collaborative Large-scale Engineering Analysis Network for Environmental Research, 2) an NSF Scientific Leadership Scholars project providing 4-year scholarships to 30 students in computer science, environmental recourses engineering and mathematics and 3) a water resources curriculum project using CADSWES software.Jami Montgomery, WATERS Network - CLEANER Project Office Jami Montgomery is the executive director of the WATERS (WATer and Environmental Research Systems) Network. She received her bachelor's degree in Biological Sciences and her master's degree in Marine Studies (Biology and
mentoring program was createdfor fall 2005 that, in its pilot year, had astounding results. Peer mentored students returned forthe spring semester in engineering at a significantly higher rate (94% vs. 78% for the non-mentored students). Peer mentored students were twice as likely as their non-mentoredcolleagues to have a first semester GPA greater than 2.5, and the average GPA of the peermentored students was 9% higher than that of their non-mentored cohort. Yet, the admissionprofile of the peer mentored group was equivalent to that of the non-mentored group. Fortystudents chose to participate in the peer mentoring pilot program.The success of this peer mentoring program can be attributed to several key factors, including:1) proper mentor
“Today, we are in the midst of a technology revolution that is even larger and moredramatic in its sweep than the industrial revolution.” These words from “The future ofengineering education” by Dr. Wayne Clough, president of Georgia Tech [1], sound a clarion callto academia to change and adapt. Dr. Clough’s thesis is that computer based technology ischanging the dynamics of the workplace and that academia must transform if it is to serve theneeds of industry and our students. An “innovative interdisciplinary” approach is needed. Dr. Clough’s sentiments are echoed by L.S. Fletcher, a past president of the ASME in aletter to the editor: “Is Mechanical Engineering Obsolete?” Fletcher laments the resistance tochange, the narrowed focus of
tointroduce a new topic into a course, but lack time to produce the necessary lecture andhomework materials. An independent-study student can scout the topic in advance and producelecture notes and problems that can be used in teaching the course. This helps both theindependent-study student, who learns about a new topic earlier than other students, and the restof the class, which has access to better course materials than they would otherwise.1. IntroductionAs a new faculty member, you probably want to expand your research team and get extra help inpreparing your courses. This paper will tell you how you can use independent-study courses tomeet these needs, while simultaneously enriching the students’ education by giving them theopportunity to work
skills and creativity, Bloom’s Taxonomy9 has been used bymany authors and curriculum developers 10, 11, 6. Bloom’s six cognitive levels asillustrated in Table 1 have been found to be accessible and relevant for engineeringeducators formulating course learning objectives.Wankat and Oreovicz7 and later Felder and Brent11 recognised a tendency forassessment, particularly summative assessment, to focus on the lower levels. Bothemphasised that all assessment items should include examples and problems at eachlevel of Bloom’s Taxonomy so that students would gain the desired proficiencies,otherwise students would master only those skills on which they had been tested.The literature quoted, combined with a reasonably short search of the internet
studentsare shaped by the behaviors of their engineering educators in both their approach to design, andintegration with the environment 4,5. Introducing problem solving together with social andcultural awareness is particularly important as engineers are increasingly employed by largemultinational corporations 3. Thus there is a need for engineers who can interact with the publicworldwide as well as provide the most appropriate solution 8,3. Engineering students discovertoo soon that the roots of a problem are often much broader than the perceived problem.Providing an appropriate solution is very challenging and requires engineers who are guided bytheir “ethics and are able to bridge the gaps between cultures and between people andtechnology”1.The U
of Engineering in which the majority of the university’sapproximately 5,500 undergraduate students are enrolled. The MET program is anABET-accredited program and enrolls the most students of any SOT program—approximately 200 students. The SOT started offering Baccalaureate degrees in 1994and recently stopped offering Associate’s Degrees. This administrative decision wasbased partly on the desire to not compete with what community colleges do best;delivering well-qualified technicians to the workforce. Along with the elimination of theAssociate degree option, the MET curriculum was redesigned based on extensivebenchmarking of comparable university degree offerings, industry needs, and advisoryinput. Table 1 provides a summary of the computer
interested in entrepreneurship after takingthe course and many perceive to have become successful entrepreneurs.Introduction “Entrepreneurship is a dynamic process of vision, change, and creation. It requiresan application of energy and passion towards the creation and implementation of new ideas andcreative solutions. Essential ingredients include the willingness to take calculated risks in termsof time, equity, or career; the ability to formulate an effective venture team; the creative skill tomarshal needed resources; and fundamental skill of building a solid business plan; and finally,the vision to recognize opportunity where others see chaos, contradiction, and confusion” 1.Entrepreneurship is more than the mere creation of business. The
or interface with the componentin a laboratory setting. Typically, a course will follow a sequence such as this1, 2: 1. Organization of microcontroller systems 2. Introduction to the development system used in the course 3. Programming the development system in assembly language or embedded C 4. External bus (memory) interfacing and timing 5. Exceptions and interrupts 6. Timer system 7. Parallel port interfacing 8. Serial port interfacing 9. Analog-to-digital conversion 10. Brief exploration of alternative microcontroller choicesBecause the details of almost every part of the course depend entirely on the type ofmicrocontroller chosen and the development environment provided, it is critical to the success ofthe course