Page 25.1327.3 their research interest to help solve current problems in industry. 6) Arrangements were made to invite company stakeholders to the oral defense. 7) Company committee members were briefed in a communication session which defined their responsibilities. Expectations of the company committee member are: a. Be available to counsel student as needed in their area expertise b. Assist is providing valid subject matter for topic c. Provide guidance in identification and verification of return on investment (ROI) potential d. Provide consultation during execution of the project (estimate 1 hour per week) e. Evaluate the quality of the result relative to the
implement engineering education innovations; o do not implement engineering education innovations. • Develop an implementation model that promotes successful faculty characteristics and work environments.Specific tasks, discussed in further detail elsewhere13, must be performed in order to achievethese research objectives, including: • Assess, document, benchmark, and validate: (a) characteristics of individuals who adopt―or choose not to adopt―engineering education innovations and (b) his or her respective work environment; • Analyze faculty characteristics of adopters and non-adopters to determine the correlation of faculty characteristics with successful adoption; • Analyze interactions between
engineering, the workdoes provide insight into what is important in the discipline and can serve as a guide toundergraduate curriculum developersBackgroundGRCSE is built on an holistic interpretation of curriculum as concerning the total context inwhich education is provided, and as such the recommendations address five primary areas of asystems engineering program:5 1) student entrance expectations; 2) a curriculum architecture comprised of: a. preparatory material, b. a core body of systems engineering knowledge (the CorBoK), c. domain or program-specific knowledge, and d. a capstone experience; 3) outcomes every graduate should achieve; 4) objectives every graduate should achieve three to five years
) taught the best way: by experience; many projects made me…more of an engineer; I have much more confidence in my ability to be an engineer now than I did at the beginning of the semester; I learned how important it is to start by identifying a problem first and then looking for solutions; the repetition engrained the process in my brain – now it’s second nature; the projects helped reinforce the book definitions; I thought documentation was an annoyance but now I see its worth; no pressure meant we could really get a feel for the process – we were not punished for failure; (b)efore this course I hadn’t thought nearly as creatively or in such a problem solving way so I am very grateful for
a global and social context 4 Participate in various roles of a team D-Function on multidisciplinary teams Prepare and present accurate and well- 5 organized written and oral engineering G- Communicate effectively solutions Recognize and respond to ethical, economic, 6 environment, health, safety, and social J- Knowledge of contemporary issues factors Determine the life-cycle cost of a process B- Design as well as analyze and interpret 7 and perform economic analysis of
?Three focus groups were conducted with students in two suburban middle schools in Californiawith the following demographics.Middle School A – 6 students (1 group) 0 female, 6 male 6 grade 7 1 African American, 5 CaucasianMiddle School School B – 12 students (2 groups) 3 female, 9 male 3 grade 6, 3 grade 7, 6 grade 8 2 African American, 4 Asian American, 3 Caucasian, 3 Hispanic/LatinoTotal Students: 18 students 3 female, 15 male 3 grade 6, 9 grade 7, 6 grade 8 3 African American, 4 Asian American, 8 Caucasian, 3 Hispanic/LatinoWhen asked how they would define engineering and what engineers do, students at MiddleSchool B said that engineering is building “things like
simulation steps with the proposed modelfor the PV modules, is shown in Fig. 2. The architecture of the developed harvester consists ofthree main subsystems: a) the maximum power point tracker sense the light intensity and controlthe buffer stage forcing the PV module to work in most efficient conditions; b) buffer stage (BS)stores the energy collected form the solar panel into the energy storage devices (super-capacitorand battery); and c) output stage (OS) generates a stable voltage supply for the low-power WSNapplications. In the following we introduce the building blocks providing design guidelines andconsiderations, which help to optimize the performance of the harvester.The MPPT algorithm is designed to automatically find the operating point
pollClicking the audience poll lifeline opens a window with a bar graph showing the percentage of avirtual audience who thinks a particular answer is correct. For example, in Figure 9, the bargraph indicates that 80% of the virtual audience thinks that answer “B” is correct. This lifelinehas eighty percent chance of yielding a correct answer for the player. Figure 8. Audience poll button. Figure 9. Audience poll screen.Each of the lifelines can be used only once per category. After using a lifeline once, the button isautomatically disabled. The button is activated again only when the user selects a new categoryand if he has not used his lifeline in that other category of questions.PointsEach successful answer earns points
semester-longteam research experience. The students impacted by one and/or both of these initiatives areexpected to form an excellent talent pool for traditional graduate engineering programs, as wellas non-traditional graduate programs planned for the near future at our university, such as thegraduate programs of the ERC-supported Bioengineering Department and/or Joint School ofNanoscience and Nanoengineering. The content organization of the paper is as follows: (a)Development of Nanotechnology-I: An interdisciplinary nanotechnology theory-cum-laboratorycourse, (b) Development of Nanotechnology-II: A semester-long hands-on research-basedcourse, (c) Infusion of nanotechnology modules in existing undergraduate courses, (d)Organization of REU
) Summer Workshop North Carolina A & T State University June 13 – 17, 2011______________________________________________________________________ Evaluation and Feedback Form1. On a scale of 1 (Not useful at all ) to 5 (Extremely useful), how useful was this workshop to learn about the North Carolina A&T State University’s NASA INSTRUCT Program and learning the experiences in integrating NASA content into undergraduate education?__4.28__ Please explain your rating: Each Alphabet Represent’s a Different Workshop Participant. A. Tours to the labs were great; all modules are very effective for education NASA release projects. B. Organization and contents of the
the release of failure data. A more pragmatic approach for the purposes ofcontrasting cable reliability is to explore the actual causes of failure in cable.IV. Economies of Fiber Optic vs. Copper NetworkThe question must be asked, if fiber optic cable is so much more effective and reliable attransmitting data, why have telecommunication network providers adopted its use in every singlepossible area? The answer has much more to do with economics of network operations than itdoes in the effectiveness of it. It is simply not cost effective to deploy a Fiber to the Page 25.1300.3Home/Business (FTTH/B) end to end fiber optic network.As an example
other external accreditation bodies are often more mature than those inprograms that are not separately accredited, so a model of collaboration across disciplines hasbeen adopted as a way forward in developing assessment expertise among colleagues who deliverthe liberal education component of the undergraduate engineering curricula.The goals of this project were (a) to assess the existing capacity for core curriculum assessment,and (b) to design and implement an intervention aimed at increasing this capacity in academicdepartments not previously required by external bodies to engage in outcomes-based assessment.This remarkable effort is a largely faculty-driven process which enjoys the enthusiastic support ofuniversity administration. It also
the elbow joint for each arm, similar to that shown in Figure 3. The orientations will be modified up to three times per group and students will record data for each orientation. Students will be given hands-on experience working with materials used in creating robotic arms used for replicating dexterous movement.Figure 3: Completed KA2 bone and pivot, similar to what students will use1. b. Testing the range of motion at a constant level of contraction (psi) Algebra students will be required to measure the range of motion for their arm at different internal muscle pressures and draw conclusions about their muscle placements and account for the differences in their measurements. c. Tabulate and graph results Students will
administered to first-year students who were enrolled in the College ofTechnology at Purdue University. It did not capture information from students who wereaccepted and chose not to attend. Capturing data from that population could be helpful indetermining how to increase the yield of students who are accepted and choose not to attend.Bibliography 1) Kaplan A., Haenlein, M. (2010). Users of the world, unite! The challenges and opportunities of social media. Business Horizons, 53(1), 59-68. doi:10.1016/j.bushor.2009.09.003 2) Sadowski, M. A., Birchman, J. A., Karcher, B. X. (2012). A study to examine the role of print, web, and social media for recruiting students. Global Graphics: An educational perspective, 66th Mid-Year
•Select projects appropriate to the participant technical knowledge levels andParticipants resources availableChallenges •Provide support to overcome the knowledge barrier •Peer Interactions •Explain possible handling approaches for interdependent projects and remedies for lagging teams Page 25.259.6 •Allocate administration time and attention fairly among the participants a) Advancing the state of the art in conventional manufacturing processes such as metal- casting, b) New trends in manufacturing such as rapid prototyping, c) Emerging
information on the design, product, or concept. You may use the Internet but you should also research journal articles to find qualified documentation that validates the authenticity or reliability of your topic. 3. Address the following in your paper: a. Provide background on the design, product, or concept. Who is responsible for creating/producing/building it and what need is it intended to fill? b. What positive consequences are anticipated for: i. The company responsible for the new design/product? ii. The users of the design/product? iii. Those not directly using the design/product but nevertheless affected by it
essays by experimentalvariable (gender, class, experience). See Appendix A for the list of all codes(motivations) and Appendix B for the raw pie charts depicting all codes within thegroupings. While the top reason is idealistically focused (“helping others”), the rest arepragmatically focused professional and personal drivers.The top five reasons students participate in these programs are shown in Table 2 andinclude: helping others, personal goal, a desire to work abroad, a career goal, a desire tosolve problems and to gain hands on experience. A common statement was the desire tomake a difference and to use engineering to accomplish that goal for their community
experiment setup and output sample will also be described. The oldpower laboratory equipment is shown in Figure 1. Figure 1. Old laboratory equipment. (a) DC machine (b) Wound rotor AC machine (c) DC machine field control circuit (d) RLC load panel (e) resistor bank (f) DC machine starter (g) AC machine configuration Page 25.391.3 panel (h) AC machine starter2. Hardware DesignThe hardware design of the new laboratory has focused on cost-effectiveness whilemaintaining reasonably high performance. Furthermore, ability to offer a "real-world"experience has been taken into consideration as an important
the North Carolina K-12 Curriculum.The project activities were designed for sustained implementation over a two year period.Teachers were selected to participate in two cohorts. Cohort A included 20 high school mathand science teachers and Cohort B included 20 middle and high school math and scienceteachers. GCS Central Region math and science teachers selected were full time teachers whoteach high school and middle school science and math courses, including earth science, physics,physical science, algebra, geometry, and calculus. During the selection process theydemonstrated that they were highly qualified according to district and state standards, genuinelyinterested in project activities, and willing to commit to the project beyond the two
AC 2012-4704: CITRUS WASTE BIOREFINERY: EFFECTS OF TEMPER-ATURE, PARTICLE SIZE REDUCTION AND LIME PRETREATMENTSON GRAPEFRUIT PROCESSING WASTE (GPW) BIOMASSMiss Nicole Lynn SearsMr. Jeffrey L. Beynon, Flour Bluff ISD Jeff Beynon is a teacher at Flour Bluff High School in the Flour Bluff ISD. He has been teaching Physics AP and Physics Pre AP-B and C for the last five years at this school. He has been teaching for nine years in the science field and has taught biology, chemistry, integrated physics and chemistry (IPC), principles of technology, physics, Physics Pre AP, Physics AP-B, and Physics AP-C. He has an A.S. in biology, B.S. in marine biology, B.S in marine geology, and more than 30 hours in graduate studies in
, testing and publicity. Therefore, in addition toresearch objectives, a whole new set of “campus objectives” has emerged. Figure 1 shows thecompleted rubble house next to a student residence building.The overall research objectives were: (a) Evaluate current construction techniques and propose cost-effective improvements (b) Perform static load testing on a full-scale Rubble-House (c) Create computer models for static and dynamic analyses (d) Make recommendations for future seismic shake table experiments (e) Draft construction and design guidelines based on experimental and numerical findings,and the campus objectives were; (a) Increase awareness of the rubble house project amongst the students and the local community
engineering solutions. Most of the time Some of the time Hardly ever Never 5. I am able to estimate life-cycle effects of processes and products. Most of the time Some of the time Hardly ever Never 6. I am able to minimize waste through sustainable social practices and sustainable design. Most of the time Some of the time Hardly ever Never 7. I am able to describe behaviors that contribute to sustainable communities. Most of the time Some of the time Hardly ever Never 8. The role of a greenhouse gas in the atmosphere is to: a. Absorb the reflected energy emitted from the earth b. Absorb energy directly from the sun c
) 0 0 0 0 0Total (18) 2 5 2 9 3 Page 25.1075.8Table 2: Industrial Chromatography Pre-test ScoresQuestion Student Scores (points) Student A Student B Student C Student D Student E 1 (2) 2 2 1 0 0 2 (5) 1 2 1 1 0 3 (1) 0 0 1 0 0 4 (2) 0 0 0 0 0 5 (5
questions:Question #1: Who is a “grandparent” from which all other law/principles can be derived?A) Principle of Work and EnergyB) Conservation of EnergyC) Principle of Linear Impulse and MomentumD) Newton‟s Second LawE) I do not think that “grandparent” existsQuestion #2: “Conservation of Linear Momentum” is the immediate descendant ofA) Newton‟s Second LawB) Principle of Work and EnergyC) Conservation of EnergyD) Principle of Linear Impulse and MomentumE) Principle of Angular Impulse and MomentumQuestion #3: Which of the following statements is true?A) “Principle of Work and Energy” can be derived from “Conservation of Energy.”B) “Principle of Linear Impulse and Momentum” can be derived from “Conservation of Linear Momentum.”C
sharply in the 1011F semester. This is probably due to thechange in teaching method – in 1011F, a technology professor taught a section of the course.Note that the relative interest in sciences and business here does not match the actual resultingmajors shown before; more students leave EGR120 planning to major in engineering thanactually take the second-year courses. (a) (b) Page 25.578.10Fig. 7. Comparison of intended majors between Initial and Final surveys, in (a) 0809F, (b) 1011F.5.2 Math LevelsPersistence is strongly correlated with MathLevel. About two-thirds of the students
engineering students is difficult; most consider privacyissues enough to squash this idea. The alumni themselves are hard to find. ABET seems to sense the difficulty and our evaluators weresatisfied with our limited survey results.Criterion 3’s program outcomes are a different matter. These are the abilities that students are supposed to have on graduation fromyour program. For example, the a-k outcomes that ABET suggests for a computer science program are: Page 25.90.2a) An ability to apply knowledge of computing and mathematics appropriate to the discipline;b) An ability to analyze a problem, and identify and define
=61.9, σ=8.9 N=58, µ=70.0, σ=9.3 Yes (t(107)=1.98, p<0.01) b ASU N=71, µ=70.6, σ=12.0 N/A MVSU N=3, µ=30.0, σ=16.6 N=5, µ=43.6, σ=16.9 Yes (by observation; small sample size) A method to quantify student learning is to calculate the Hake’s gain index33, which is thedefined as follows µ post − µ pre g= 100 − µ pre (1)where µ pre = mean percentage score of the pre-test, µ post = mean
economist E. F.Schumacher and plays a prominent role in his book, Small Is Beautiful. Here, appropriatetechnology is used interchangeably with intermediate technology, that is, technology“intermediate” between the “indigenous technology of developing countries” and developedcountry or “high capital intensive technology”7. Intermediate technology is appropriate in thesense that it mitigates the harmful social consequences of moving too quickly from indigenous,labor intensive technology to high capital intensive technology. Technology appropriate toorderly, sustainable or even humane development (a) gives “special consideration…to context ofuse, including environmental, ethical, cultural, social, political, and economical aspects”8 ;(b)seeks
13% 14% 0% 29% 57% 87% Page 25.1376.6Figure 4: Grade distribution: 2010 vs. 2011 6 7 5 6 A 5 A 4 Students Students B 4 B 3
) basic instrumentation and measurement,(ii) digital logic and microcontroller programming, (iii) mechatronics sensors with integrateddata acquisition interface, (iv) DC motor control with integrated interface, (v) advanced controlof multi degree of freedom systems, and (vi) mobile robotics. Figures 1(a) and (b) give someoverall views of the lab. (a) (b)Fig. 1. Overall views of the lab (a) from the front, (b) from the middle.In addition to the devices for basic instrumentation and measurement, the lab is well equippedwith a number of educational hardware platforms51, 52 including (i) mechatronics sensor modules,(ii) DC servomotors, (iii) multi-degree-of-freedom systems, both translational and