experience ‚" Present a Unifying Engineering Profession Model ‚" Integrate industry speakers into the lectures ‚" Encourage multiple ways of learning - Case Studies - Group Discussions - “Hands-On Contests” - Reflection - Papers - Oral PresentationsCulminating Experience: Team Microturbine Development ProposalAll the course lectures, speakers, exercises, readings, and homework areselected and tailored to prepare the students for their final project. In thisproject, a fictitious company’s board of directors tasks the student teamsto
-freedom free and forced vibrations. In addition, theremote control of real instruments through the Internet was integrated into the vibrationlaboratory experience.Keywords: Virtual Learning Environment; Simulations; Web-based laboratory; Online LearningEnvironmentIntroductionFive categories of learning style models have been recommended in the educational literature1,2,3:sensing/intuitive, visual/verbal, inductive/deductive, active/reflective and sequential/global. Mosttextbooks and classroom teaching are intuitive, verbal, deductive, reflective and sequential, butthis environment does not meet the needs of the second-tier students who are sensing, visual,inductive, active and global learners. Engineering educators have been reshaping the
our solutions to those challenges..Identity – Mission and VisionAn important step in the program design process was the development of brand identity. Brandidentity is a reflection of a program's mission, vision, values and competitive position. It is amixture of attributes, tangible and intangible, which, if executed properly creates value andinfluence. It also can align internal decision-making and behavior in ways that are consistentwith the brand and, therefore, with the department's mission, vision, values and competitiveposition. The development of brand identity was a valuable mechanism for refining andclarifying the engineering team's collective vision for the program. A structured process1 resultedin the following values: Engaged
improvement process,and analysis of ABET guidelines for accreditation. The Civil Engineering Technology (CIET) Program Outcomes reflect the strategyof continuous improvement that is a primary emphasis in the Department of EngineeringTechnology. As with the Program Educational Objectives, the Program Outcomes haveevolved over the years, but have remained the bridge between the Program EducationalObjectives shown in Table 1 and the “a-k” requirements of TC2K ABET TAC Criteria 2.The Program Outcomes describe the knowledge and skills of graduates with a Bachelorof Science in Engineering Technology (BSET) at the time of their graduation from theCIET program. As shown in Table 2, each Program Outcome includes a number of sub-outcomes that elaborate
semester course evaluations have droppedsomewhat from roughly 70% to 50%. This is reflected in our numbers as well with 8 out of 16 studentsfrom the full CHAPL implementation responding, and 10 out of 13 students from the modified sectionresponding. The evaluation consists of a series of multiple choice questions concerning the overallquality of the instruction, homework and tests, followed by two open ended questions asking forsuggestions and an overall opinion. There were only four responses to each open ended question fromthe modified implementation section. In previous years we have used the open ended responses as afeedback mechanism. However, with the low response rate in this semester, these responses were notused.Class Make-up: As a
Deductions Inferences Interpretations Assumptions Figure 1: Bloom’s Taxonomy and Watson-Glaser critical thinking categories. Page 12.1221.9 Page 8The critical thinking definitions that were discussed and used as class debates are listedbelow. 1. Robert Ennis a. Critical thinking is reasonable, reflective thinking that is focused on deciding what to believe or do. 2. Richard Paul Critical thinking is that mode of thinking about any subject
summarized results.Using the Zoomerang survey tool [6], 67 respondents were surveyed concerning their opinions ofthe SFTP events. These respondents were all present or former ITP students and composed awide variety of technical and non-technical backgrounds. Nearly 80% of these individuals havetechnical backgrounds (meaning undergraduate degrees in engineering, science or mathematics)and 70% have two or more years professional work experience. ITP has a strong internationalstudent body and the survey reflects this with 36% of the respondents being from abroad.Finally, the majority of those surveyed attended the SFTP events in the last 18 months.In the student interviews, we found a number of interesting issues regarding the students’perceptions of
engineeringcourses, verbal communication skills (individual and group-related activities) are often ratherlimited. As a result, employers of engineering graduates often cite low skill levels in publicspeaking/presentations as a significant problem.McCroskey defines communication anxiety as: “an individual’s level of fear or anxietyassociated with either real or anticipated communication with another person or persons”5.Richmond and McCroskey have identified four categories of CA: 1) traitlike CA which relates topersonality orientation (which reflects both genetics and environment); 2) context-based CAwhich relates to a specific communication mode such as public speaking; 3) audience-based CA
tosoftware engineering. If software engineering is so different than all other types of engineering,should ABET guidelines reflect more of these differences? But the real problem is thateducators must choose between the advice of software engineers and the ABET guidelines. Thisauthor is positing that perhaps we should not have to make that choice.This paper will examine relevant developments that have shaped our current understanding ofwhat constitutes software engineering; the distinct nature of the Software Engineering EducationKnowledge (SEEK); how the SEEK should affect SWE curriculum development; and currentABET curricular guidelines for SWE programs. Finally, the paper will explore the conflicts thatarise when trying to design SWE curricula
a necessity for the today’sundergraduate mechanical engineering programs. At Grand Valley State University (GVSU), westrive to keep our curriculum up to date, reflecting the demands of industry. We have thereforebegun the process of integrating the use of FEA tools throughout the curriculum, instead ofdelaying it until the senior year either for senior design or elective courses. This paper describesthe introduction of FEA to students in the first course of Statics and Solid Mechanics. The firstpriority of this course is to build the foundation for Mechanics. The challenge therefore was todetermine the content without compromising the priority. Keeping this in mind, 1-D Barelements and 2-D Truss elements are introduced in the course. These
in a grade level appropriatemanner. In this way, the courses represent a formal way to increase teacher knowledge base, amechanism to develop teaching opportunities in our elementary school classrooms, and a state-of-the-art evolving instructional tool that could be used with teachers in training.Our three 3 credit courses proceed through the following topic areas; gravitational andelectrostatic force and force fields with engineering applications, material science fundamentalsincluding band gap theory and properties of materials, energy balance and phase changefundamentals, transport processes, and life science topics as reflected in biomedical engineeringexamples. In many case, the information presented in a class is new to us. In all
situations in their own communities; and • That enhances what is taught in school by extending the students’ learning beyond the curriculum and into the community and helps to foster the development of sense of caring for others.”Eyler and Giles2 find that there is an empirical fit between our goals for students and theoutcomes for service learning. They state that “if we want students who are lifelonglearners, can use what they know and have the capacity for critical analysis, thenprograms like service-learning, which help them construct knowledge from experienceand reflection, should form the core of their educational experience. Service-learning,and especially programs with good community placements, application of service
- fourthsof the programs surveyed utilized some sort of commercial software for solving equations and amajority of the respondents indicated that they required extensive use of the application insubsequent courses. Therefore, it appears that the commercial software applications had moreutility in problem solving.Genik and Somerton1 describe their work in a senior level capstone course in thermalengineering. "Among the topics covered were power system analysis, refrigeration systems,psychrometrics, combustion, heat exchangers, and numerical conduction. Though the list oftopics may seem to be a hodgepodge, it is somewhat reflective of the eclectic nature ofengineering." To combat the perception of this "hodgepodge" of subjects they designed a set
senior-level capstone designcourse. This paper illustrates a systematic approach across the entire CE program for the directassessment of program outcomes. The civil engineering program outcomes reflect the currentABET 3a-k as well as the ASCE Body of Knowledge (BOK).The approach integrates existing grading practices and correlates the results with the desiredprogram outcomes. This system of direct assessment provides a quantitative assessment withoutincreasing faculty work load, by leveraging what is already being done in the evaluation andgrading of student work. This technique uses embedded indicators, which are specific studentperformance events common to all students in the course such as homework problems, projectsand tests. The program
the software tools are being updated twice a year. FPGA chips and boards become obsolete in a few years. User Guide Reference Getting Started Communication Toolbox 824 Filter Design Toolbox 1786 Fixed-point Toolbox 169 339 Signal processing Toolbox 1043 71 Communication Blockset 246 626 94 Signal processing Blockset 1745 126 Xilinx System Generator 890 Table 1: PDF Documentation size in pagesThe above mentioned challenges reflect
interaction per scenario. 5 more minutes to gather your final thoughts and write them down.Submission: Submit electronically a written report. Your responses should include: (a) A summary that indicates that you have captured the spirit of classroom, peer- group discussions. (b) Your own point of view as to how you would handle the Ethics Scenario presented.Requirements: Approximately 100 words per scenario. 4 scenarios, 400 words total.Commentary: Reflect on this classroom exercise and comment on the way it was organized and conducted. (No lectures, but peer-group discussions.) Indicate the importance of Ethics in Engineering Profession. What are your
through free space. Propagation coefficient, reflection coefficient, voltage standing wave ratio (VSWR) and their use in analysis of RF systems and devices. Introduction to Antennas, as the interface device between transmitters, receivers and free space. Table II RF Experiments Signal analysis using spectrum analyzer Network analysis using of network analyzers S parameter characterization of RF networks Characterization of various RF components, including filters, mixers and couplesThe
1990’sin order to stream line the majority of its’ data collection and display the majority of itsdata in one easily accessible location. However, how each department chose to mold thisdata into the requirements of ABET’s Self Study differed from program to program. Inthe 2003 accreditation cycle, however, many Stevens’ programs liked what EngineeringManagement was doing and chose to have their Self-Studies reflect much of the formatand data used by the Engineering Management Program. Although similarities betweenprograms can be noted for 2003, it should be stated that several of Stevens’ programs alsohad individual data displays and analyses of their own as well.As mentioned above, much of the data was collected through a university-wide
engineers. Thisprobably reflects their appearances on several types of television dramas including crime, law,mystery, and science fiction. The only two occupational roles in which the majority ofrespondents had not seen actresses were computer technician and engineer. This is certainly due,at least in part, to the comparative rarity that such roles appear in any variety of programming.When decisions are being made as to the careers to assign female characters in televisioncomedies, dramas, soap operas, and even commercials, having those characters portrayed asengineers or computer technicians would take advantage of a particular opportunity to establishwomen in technology as a part of the natural order of things.Table 1Question: Would you tell
for a complementaryfaculty reward system for professional oriented faculty in order to advance professional engineeringgraduate education for creative practice. The work by Schoen [Reflective Practitioner] also suggestsseveral professional characteristics that differentiate the creative work of the reflective practitioner in theprofessions from that of the work of research scientists.9A) Professional Scholarship of Engineering, Teaching, EngagementIn order to implement sustainable reform and to develop professional cultures that reward and encourageprofessionally oriented faculty in engineering, the National Collaborative Task Force believes that theterm scholarship should be defined in its broadest sense to include original creative work of
intrigued them.As is by now well understood, however, the modern situation is different. All a student needsto do is demonstrate skills in math and physics in high school and they will immediatelybe told by their counsellors that engineering is a good fit. And the students, by and large,accept this and apply to college as prospective engineering majors. It is only after arrivingat college that they begin to wonder exactly why they said they wished to be engineers -whether it really is the right avenue for them.The intent of our work is to support the education of mechanical engineers in a way thatcomplements traditional engineering education, as reflected in courses such as dynamics,vibrations, and so on. In such courses, the aim is to transmit a
Ecological Perspectives, (Hoffman, R. and Palermo, D. eds.) Hillsdale, NJ: Erlbaum.5. Palinscar, A. S., & Brown, A. L. (1986). Interactive teaching to promote independent learning from text. Reading Teacher, 39, 771-777.6. Scardemalia, M., Bereiter, C. & Steinbach, R. (1984). Teachability of reflective processes in written composition. Cognitive Science, 8, 173-190.7. Campione, J.C., Brown, A.L. and McConnell, M.L. (1988). Metacognition: On the importance of understanding what you are doing. In Research agenda for mathematics education: The teaching and assessing of mathematics problem solving (R.I. Chales and E.A. Silver, eds.) (pp.93-114). Hillsdale, NJ: Lawrence Erlbaum.8. Schoenfeld, A.H. (1991). On
developmental models. The first centers on the requirement to better engage anincreasingly diverse learning community and the second is to develop better thinking skills. It isin the second area that a preponderance of research evidence suggests that universities fallwoefully short. On a 7 point reflective judgment scale1, students enter a university around level3.5 and matriculate with an average score of 3.8 - well below the theoretical optimum offered bybrain research and that level desired by industry.To address these concerns, the Industrial Engineering program at SDSM&T has embarked on along-term effort to reshape the existing curricular components by building developmentallyappropriate integrative threads throughout the undergraduate
amount of reflected light. The light from the Sun that is not reflected is absorbed insidethe active region of the device. The active region in a solar panel consists of several very thin layers,some only a few atoms thick, of various types of semiconducting materials. The absorbed light generatesequal amounts of positive and negative electric charge inside the semiconductor and a built-in electricfield drives the charge through the circuit as direct electric current. The direct current (DC) is supplied toan inverter that converts it into alternating current (AC). The alternating current is supplied to the existingelectrical power grid of the building thus reducing the need for external power generation.ADVANTAGES OF SOLAR POWER:RENEWABLE
various lines change as sliding bars are moved. • This reflects changes in cells which calculate humidity ratio • The cells are color coded to correlate to the color of the associated line on the psychrometric chart • For each of these lines, the independent property is dry bulb temperature (Tdb), and the dependent property is humidity ratio, ω.o Lower part: provides an initially blank range where the cadets construct their own psychrometric chart, based on the prevailing atmospheric pressure. Figure 3 provides a view of the lower portion of the worksheet after completion. When completed, this portion of the worksheet is used in conjunction with
through peer- and self-evaluation, and studentsassess their development of life-long learning skills through reflective essays. Course lettergrades are computed as a weighted average of the individual competency grades. The thread ofcompetency assessments provides students with valuable information concerning theirdevelopment of nontraditional skills that they could use to further their learning by identifyingand reacting to their specific strengths and shortcomings. The emphasis on the formativefeedback provided through the instructors’ competency assessments is illustrated in thefollowing student quotations. One particular thing that sticks out for me is your grading. Rather than saying, "You're a smart guy, this is a pretty good paper
school as their male counterparts, females do not chooseengineering in the same proportions.14 Julie Chen, a female faculty member in MechanicalEngineering, reflected on her observation that her women students tended to be A and Bstudents, while her male students covered the full range of grades. From talking to students sheobserved that if girls were very smart in HS science and math, they were encouraged to considerengineering. But male students of any achievement level were not discouraged from pursuing aninterest in engineering.15 The recent in-depth EWEP study interviewing girls ages 14 – 17provides insight into why. Relevance emerged as the key career motivator for girls. They needto be able to picture themselves doing that job, and to
productiveengineering careers in industry. As reflected by the National Society of Professional Engineers(NSPE), there are “nine levels” of progressive professional responsibility and leadership abilitiesrequired in creative engineering practice. Undergraduate engineering education prepares the engineerfor entry into the profession at Level I Engineer. But, it does not prepare the engineer for creativepractice at all levels of engineering. Further professional studies, experience, and actual creativeperformance are required beyond entry-level for further professional development in engineering.Finding # 5: Revitalizing the U.S. Engineering Workforce for leadership of technologicaldevelopment & innovation in industry is one of the nation’s primary engines
the Purdue campus and learn aboutastronautical engineering and space exploration with the university student volunteers. PurdueFall Space Day has gained recognition across the State of Indiana as an exceptional space-relatededucational outreach event. This high profile event reflects well on Purdue University and theevent’s sponsors and receives significant media coverage. In order to allow other universitiesacross the globe to learn about PFSD and successfully implement their own student-led serviceeducation event based on the PFSD model it is important to share the PFSD model, includingideas for funding through grant proposals and business sponsorship, and the lessons learned insustaining PFSD.Fall Space Day OverviewThe basic premises
Page 12.149.2a microcomputer and its peripherals, and its lab content was significantly revised two years agoto reflect this. “Computer Architecture” currently incorporates a blend of computer architectureand logic design. An associated lab for this course was introduced in the fall of 2003 in whichstudents are guided through a bottom-top design activity that results in the implementation andtesting of a complete microcontroller of simple complexity that is emulated in a reconfigurablelogic device.The paper first presents each course and associated lab content. Then it continues to show howthis two course sequence serves in conveying computer engineering principles to electricalengineering students. Finally, possible future improvements are