policy, 2005 version. DESIGN REVIEW POLICYIt is important in Civil Engineering to take the steps necessary to get the correct answer.Remember Hammurabi’s Law? In the "real world" practice plans, drawings and specificationsare reviewed and a responsible licensed PE is required to stamp them. In academia publicationsand research are also subjected to peer review prior to publication.Thus, this semester all your problem sets will be reviewed by two of your classmates prior totheir being turned in. This approach to having your work reviewed is called DESIGN REVIEW,and this idea, if not our process, may be familiar to you from other courses. The objective ofDESIGN REVIEW in our course is two fold. First and primarily
their horizontal positions, x2 – x1, is called the run from P1 to P2 .See Figure 4. The rise = y2 – y1, is called the change in y and is represented by the symbol Δy. The run = x2 – x1, is called the change in x and is represented by the symbol Δx.From geometry, it is known that only one line can pass through two points. Lines which are notvertical must cross the y-axis at a unique point called the y-intercept. In addition, lines whichare not horizontal must cross the x-axis at a unique point called the x-intercept.In the field of aviation, the direction of the flight of an aircraft is described by the angle with thenorth called the bearing. Another angle used in many applications is the angle of inclination, α,which is the
Paper ID #7334Delivering the Senior Capstone Project: Comparing Year-Long, Single Semesterand Hybrid ApproachesDr. Kevin Schmaltz, Western Kentucky University Kevin Schmaltz has been at Western Kentucky University for ten years, after serving as the Chair of Mechanical Engineering at Lake Superior State University. Before entering the academic world, he was a project engineer for Shell Oil responsible for the design and installation of oil and gas production facilities for offshore platforms in the Gulf of Mexico. He has a combined 23 years of experience as an engineer in industry and in teaching. He teaches a
the relationship betweenintentionality and conceptual change, we are conducting a five-year NSF-funded study thatfocuses on difficult concepts taught in thermodynamics courses. The overall study is mixedmethods using interviews, surveys and real-time experience sampling methods. We are currentlyin the first phase and this paper focuses on the development of a survey instrument to measurestudent’s motivation, learning strategies and conceptual understanding. We draw on existinginstruments and scales to represent a broad range of constructs in a survey instrument that webelieve will be useful for engineering education researchers and practitioners alike. Althoughour pilot testing sample size was small, documenting our process of survey
two commonwords generalization and discrimination in their technical, behavioral senses.[9] A specificexample will help make them clear.2 Support for this claim comes from the well-known Professor of psychology, Dr. George Semb, at the University ofKansas and his colleges who provided the references cited. Dr. Semb does extensive research in the application ofboth behaviorism and cognitive psychology to learning. Page 8.888.3 Proceedings of the 2003 American Society for Engineering Education Annual Conference & Exposition Copyright 2003, American Society for Engineering Education The
is difficult.Too often assignments consist of trick questions that do not contribute to helping studentsunderstand the concepts being studied. By emphasizing what is important in the problem sets,TAs can help students focus their efforts and continue to work harder on mastering importantproblems. The important problems should be authentic (i.e. “real world”) problems that the studentswill find in engineering practice. This strategy can help students realize the relevance and valueof the underlying theories been used43.3.5.2 Problems should challenge students but still be within their grasp Homework problems should challenge students but still be achievable. As previouslydiscussed, students inherently seek out novelty and
questions such as individual versus collective responsibilities. Among those arecontroversial cases of whistle blowing, reproductive technologies, and changing technologiesthat affect the workplace. The third stage considers ethical responsibility in its full "social" sense.Typical problem-sets at this stage exemplify both collective and individual responsibility, andare typically extremely complex. Nuclear weaponry, biotechnology, world hunger, or the ethicsof technology transfer are typical examples. The fourth stage focuses on the public policyramifications of engineering, both through explicit action of engineers, and the political reactionto engineering innovation. A typical example here is the effect of changes in informationtechnology and
2.11 1.00Learning effectively on your own 2.91 0.85Understanding yourself 2.66 1.00Understanding people of other racial and ethnic backgrounds 2.43 0.92Solving complex real-world problems 2.62 0.93Developing a personal code of values and ethics 2.50 1.02Contributing to the welfare of your community 2.27 0.96Academic challengesNumber of assigned textbooks, books, or book-length packs of course readings 3.10 0.82Number of written papers or reports of 20
anappreciation that there are many ways of thinking about objects in the real world such as Page 24.375.4connoisseurship [10]. 3Apart from the value of understanding how our learning styles influence the way we learn andour responses to different kinds of instruction our perceptions also influence our learning.Perception is an over-arching concept that plays an important part in the way we relate to eachother in the workplace, social settings, and the classrooms [11, Ch 2]. As Bucciarelli has pointedout very often the problems teachers have in seeing the way their students understand a
satisfactory progress toward its goals.The value of the project to teachers has been documented via surveys and interviews conductedthroughout the project. Teachers have provided consistent and positive feedback about thetraining received through Project Infuse. For example, 83% of teachers reported that the 2013training met or exceeded their expectations. Evaluation results also indicate that teachers have adeep appreciation of engineering and the value of infusing engineering into science classrooms.They believe infused lessons offer stronger real world connections for students and that studentsare more engaged during infused lessons. Even so, teachers are concerned about the amount oftime it takes to both create and implement infused lessons. Time
that first year students did not have the capacity to comprehend engineering design beforecompleting the fundamental coursework of engineering. Now, as the engineering curriculum hasprogressed, first year design courses, known as the cornerstone engineering courses, have become staplecourses across engineering programs in the United States [1]. Similarly, fourth year design courses,referred to as capstone courses, have seen significant development over time through integration ofindustry-sponsored projects with real world applications into the coursework. However, these capstonecourses serve as the only standard opportunity across engineering education for undergraduateengineering students to showcase their engineering education. In
courses aredelivered from their Telemedicine classroom. Figure 1 depicts the classroom located at WakeForest.By connecting to a multi protocol video conferencing bridge, Virginia Tech was able to monitorthe classes and provide real-time technical support for the classes as part of their help deskservices. As the technical team experiment more with IP technology, the Tanberg 6000 wasevaluated for installation in the new SBES classroom, located in 220 Hancock Hall. TheTanberg 6000 has the ability to create multipoint sessions without having to access the bridge.This capability will provide an opportunity for the technical team to continue experimenting withIP technologies.As we investigate the future use of IP technology for the delivery of courses
© 2005, American Society for Engineering Educationenhanced learning environments, so that most examples of inquiry-based learning you will runacross today incorporate new media1.Some science educators find that technology complements science learning2. In particular,inquiry allows students to interact and experiment with course material in new ways throughanimation and 3-D visualization, complex search engines, on-demand sound and video, networksof links that allow users to move through material in dynamic ways, easy access to a wide varietyof online materials and real-time data, opportunities for collaboration over great distances, andthe ability to rapidly number-crunch and diagram data1.Not only do these tools allow students to work at their
real world engineering problems eachsemester. He teaches Networks, Sustainable Design, Power Systems and research includes renewable powersystems. He received a PhD from the University of Cambridge, MSE from Rowan University and BSCE from MIT.JAMES BLANCK is a senior electrical and computer engineering student at Rowan UniversityPATRICK A GIORDANO, JR. is a junior electrical and computer engineering student at Rowan University whoenjoys the practice of "hands-on" engineering and excels at it. His plans include achieving his masters at Rowanafter graduating with his BSECE with minors in math, physics and computer science.DONA JOHNSON is a junior mechanical engineering student at Rowan University and a member Society OfWomen Engineers (SWE), the
ofcontext, which is part of the reflective process that students are drawn into via portfolios;(iii) shift of control to the learner in terms of selection of material for the portfolio that createspotential for a much richer self-assessment process; and (iv) evidence that learning is a processthat extends over time. In this sense, portfolios are sensitive to real learning rather than”learning” that is measured in small increments of time and with discrete instruments such asclassroom tests4.From a learning theory perspective, portfolios give the opportunity to highlight and supportapproaches to learning that have emerged over recent decades but are still not adequatelyimplemented in schools. One key emphasis is the need for more reflective activity
numbers.Girls and boys are attracted to the computer for different reasons. “As early as kindergarten, girlsuse the computer eagerly and skillfully for writing their stories, but boys race to the computers forfree time and play (18).” 3 Research indicates that the ideal adventure game for girls would besimilar to real-life as well as some new areas to explore. Boys, on the other hand, prefer violentfeedback, killing the player, and having the game stop if there is a wrong answer 3. Girls avoidcomputers because of the negative image of the computer nerd, not because they find it hard:instead, they find them boring. Girls say they are too smart to waste their minds and time onsomething that only boys without a life find fascinating 14. Research has shown
)Coordinators: Timothy L. Skvarenina and William E. Dewitt, Professors of ECETCourse Objectives:After completing this course, the student should be able to:1. State and practice the principles of electrical safety.2. Apply circuit analysis principles to calculate real, reactive, and apparent power in single and three-phase circuits.3. Explain the operating principles of electric machines and transformers.4. Use mathematical models to solve engineering technology power problems.5. Explain the origins of, and problems caused by, harmonic currents in the power system.6. Design basic power and motor circuits in accordance with applicable standards, including sizing wires, circuitbreakers or fuses, and overload protection.7. State the
apply engineering principles, procedures, and time management skills needed to solve complex, real-world problems. 3. To impart a sense of professional responsibility and work ethic in performing engineering tasks at a high level of expertise and accept the ethical responsibility to be accountable for the social and environmental impact of engineering practices. 4. To establish an educational environment in which students participate in inter- disciplinary activities, which will broaden their engineering education, help them develop professional interaction skills, and more effectively prepare students to work in today's integrated team environment. 5. To offer a curriculum that provides students an opportunity to become broadly educated
Page 8.650.3 Proceedings of the 2003 American Society for Engineering Education Annual Conference & Exposition, Copyright 2003, American Society for Engineering Education … has never been a threat to science or mathematics, because when we need more scientists or mathematicians, we import them, and science and mathematics lives on. That’s the way we, as a nation, have dealt for decades with SMET shortages…[The United States] imported scientists during World War II; math faculty in the 60’s from England (and questionably left England in a bad situation); graduate students since the 70’s; and faculty today. Yet now our quick-fix importation strategy fails us. We can’t
improving undergraduate biomedical engineering students’ learning andexperience. We hypothesized that such instruction would improve students’ capacity to applycore concepts from metabolic physiology and enhance their ability to solve novel problems.Students in the experimental group addressed a challenge: how much food must an astronautconsume daily to keep her or his weight constant? The students’ pre-laboratory was explicitlyredesigned to be “learner centered” (students uncovered prior conceptions and debated),“knowledge centered” (students applied knowledge to a real-world problem), “assessmentcentered” (students discussed their thinking and evoked instructor feedback), and “communitycentered” (the instructor established cooperative searching
, Quantitative, and Mixed Methods Approaches. 2nd ed. 2002, Thousand Oaks: SAGE Publications.20. La Guardia, J.G., et al., Within-Person Variation in Security of Attachment: A Self- Determination Theory Perspective on Attachment, Need Fulfillment, and Well-Being. Journal of Personality & Social Psychology, 2000. 79(3): p. 367-384.21. Baard, P.P., E.L. Deci, and R.M. Ryan, Intrinsic Need Satisfaction: A Motivational Basis of Performance and Well-Being Two Work Settings. Journal of Applied Social Psychology, 2004. 34(10): p. 2045-2068.22. Yellin, J.M.H., et al., The Real World: A Factor That Engineering Faculty Consider in Making Decisions About Teaching, in ASME 2007 International Mechanical Engineering
critically the sources of information about science and technology.Courses receiving a KA designator should address a majority of the learning objectives for theKA. Courses receiving a Tech course designation should address the first of the learningoutcomes listed below plus a majority of the remaining three learning outcomes. 1. Student work should demonstrate an understanding of the role of engineering in developing technological responses to human needs and desires. 2. Student work should demonstrate completion of progressively more complex problem- solving tasks showing competent information access, evaluation, and application. 3. Student work should demonstrate analysis of each task based on a clear, logical thought
are.During the rating process I never had any of my expectations differ greatly enough from mypartner’s to make me reconsider. I can definitely see, and agree, that it could cause expectationsto be reconsidered though.The review process allowed me to step back and look at a broader overview of my expectationsfor student work and the expectation of what is passing. From the industrial side, I quicklyrealized how little partial credit is given in the real world but also understand I have colleaguesthat assist in my work. The key in paring with a member from academia was his ability to meetmy perception in the middle and find a fair compromise for what should be expected fromstudent performance.There were definite differences in expectation between
. Figure 21 Pressure Around Airfoil Figure 22 Lift versus Angle of Attack Page 25.1390.19As the angle of attack increases, the blockage ratio increases and the mean fluid velocitydecreases in the working section. That leads to a drop in the amount of the lift around 8 degreesof angle of attack.Student Learning Outcomes1- The project exposed a student to design process of a real world fluid system with realistic design requirements and design constraints.2- The student developed a logical 3-phase design approach to design the main components of the wind tunnel.3- The student learned how to apply the fundamentals of
environments but to interact with participants through real-timecommunication modalities such as streaming video and audio and text chat. WorkAdventureprovides us with a customizable environment with the necessary features for supporting onlinestudents in interacting with one another. The platform also contains the necessary tools forcollecting data about participant engagement such as how often and with whom students interacton the platform.Beyond the online environment provided by WorkAdventure, we plan to augment a physicallearning environment on campus used by ECE students. Our initial ideas about this augmentationinclude the incorporation of technologies such as collaborative whiteboards or tablets in thelearning space. These devices will serve
80.65 Fundamental Skills c .(alpha = .71) Applying Math & Science to: The physical sciences to engineering 3.79 .88 problems Applying Math & Science to: Math to engineering problems 3.99 .84 Applying Math & Science to: Computer tools and applications to 3.53 1.03 engineering problems c Communication Skills . (Alpha = .86) Make effective audiovisual presentations. 3.78
sought funding through Congress for projects. After approval,the project engineers’ only responsibility was to see the project through to completion; noinput from the community was needed and social effects of the project did not need to beconsidered to make decisions 4. Under this method of decision making, a large publicworks program came into being and the United States designed and built some of themost spectacular dams, bridges, and highways the world had ever seen. The scope ofthese projects was often very large and sometimes required the aggressive arguing forfunds from government agencies. Once the project was approved; however, the generalpublic had no say in how project planning and design took place. With the passage ofNEPA in 1970
-Charlotte’s School of Information and Library Science hosts aweek-long intensive training program and two day workshops for professionals currentlyworking with data. These workshops feature individuals all over the world who are experts indata management. The curriculum is underpinned by the six facet matrix of core competencies,which focuses not only on skills but also on values and processes required to create a datamanagement workflow across the data lifecycle.13The DigCCur institute focuses broadly onskills needed in digital curation, rather than focusing on particular disciplinary-related tools andtrends. This includes practical sessions featuring the technical side of data curation, as well asdiscussion about the process of data curation and
Page 15.1254.4critical thinking, analytic reasoning, and problem solving. We need to be able to speak, to write,and to communicate. We need to enhance the richness and diversity of the American workforce,and we need it to be more confident.” The Business Roundtable Education and the WorkforceTask Force believes the United States must take the steps to begin to close America’s growingtalent gap, and they [the steps] all focus on improving education. First, we need to benchmarkU.S. performance against the best in the world and learn from these best practices to strengthenmathematics and science education programs in kindergarten through 12th grade. We must alsorecruit and retain outstanding mathematics and science teachers.” [7]. William D
designed for us to see how the theories in this class apply to a real-world situation and analysis.” Describe if and how Project 1 “Project 1 got the ball rolling for the thought and reasoning helped with Project 2 needed for the class as a whole.” “We could conceptually understand how the forces break down and affect the machines.” Suggestions for improving “More consultation time with teacher and TAs.” Project 1 or 2 “Have each group set up at least one meeting with the professor to go over the project, add comments, and check