to Architectural, Civil, and Mechanical Engineering Technologystudents. Students in the ARET, CET, and MET programs at IPFW must earn a C- or better inStrength in order to pass the course. Table 1 shows the percentage of students needing to repeatStrength due to low grades, along with the repeat rate in all other MET courses. 1 Based on a 20%mean repeat rate, Strength is apparently the hardest course in the curriculum. The table does notinclude students who withdrew from courses because of low grades. When withdrawals areincluded, the repeat rate in Strength runs between 18% and 35%. Page 23.673.2 Table 1: Percentage of students in each
harmonic loadings is employed for this purpose.Proportional loading is defined as any state of time varying stress where the orientation of theprincipal stress axes does not change with respect to the axis of the shaft. Non-proportionalloading is defined as any state of time varying stress where the orientation of the principal axes Page 23.678.2changes with respect to the shaft axis. The students study the “proportionality” of loadings usingMohr’s circle for four specific cases for a shaft under combined bending and torsion, which are: 1. Time harmonic bending moment and time harmonic torsion that are in phase. 2. Time harmonic bending
develop new curricula, certifications, and degrees1. One way that this needfor energy curricula is being addressed is through programs in energy storage for stationary andvehicular applications2-5.The School of Engineering at Grand Valley State University is preparing students to compete forjobs in the advanced energy storage (AES) field by developing a three-course certificate inadvanced energy6. To complete this certificate, students may choose three of the following fourcourses: 1) Electrochemistry, 2) Alternative Energy Systems and Applications, 3) Materials forEnergy Storage, and 4) Electric/Hybrid Vehicle Battery Systems. This certificate is available toundergraduate engineering students earning a Bachelor of Science in Engineering (B.S.E
degree program students at BVDU. Self-Study I Self-Study II 1. Modeling and Simulation of Nanosystems 8. Silicon Nanostructures & Carbon Nanotubes 2. Synthesis and Design Nanoscale Products Based Nanoelectronics 3. Emerging Trends in Consumer Nano Products 9. Crystallinity and Structure of Nanomaterials 4. Applications of Nanotechnology in Food and 10. Nanoscale Mechanics of Materials Agriculture 11. Quantum Theory of Solid 5. Finite Element Methods for Nanoscale 12. Economic Principles of Nanotechnology Structures Management
passivecontent reception.1 2 A common theme of these “flipped classroom” approaches is that studentscomplete activities before class focused on content delivery—assigned readings or watching pre-recorded lectures, for instance—freeing the instructor to spend class time working with studentsin various ways that emphasize active participation.3From an instructor’s point of view, the flipped classroom is appealing because it provides astimulating classroom environment. Such perceptions, however, cannot show whether such achange in methodology is actually more effective than traditional lectures. In the fall of 2011 theresearch team embarked on the present study designed to provide both quantitative data onstudent learning gains and student perceptions of
- presentations.IntroductionPOGIL is the acronym for Process Oriented Guided Inquiry Learning and was developed at the Franklinand Marshall College to teach general chemistry [1]. Research results in the area of cognitive science onhow people learn are the basis of POGIL [2]. This basis consists of 1) formation of a cooperative learningenvironment where students become interdependent and supportive of one another in understanding classmaterial 2) questions that provoke students to think about new class material based upon previousknowledge that they may have. This is called “Guided Inquiry.” It is significant as it providesopportunities for students to integrate new information with old and resolve misconceptions that they mayhave and finally 3) students think about their
, talking and showing young people what it is thatyour work can mean, and what it means to you […] to thinking about new creative ways to engage youngpeople in science and engineering,” – words from President Obama at the National Academy of Scienceson the 27th of April 2009 as he urged the scientific community to find ways to cultivate the nextgeneration of scientists and engineers. A task that provides some hurdles considering these words came inthe wake of growing concern for the lack of students pursuing degrees and careers in STEM (Science,Technology, Engineering and Math) related fields. According to the National Center for EducationalStatistics, students who perform at or above the proficiency level in 8th grade science is fewer than 1 outof
intensityfactor range (the so-called Paris Law), and use this to analytically estimate the number of loadcycles required to grow an existing crack from an initial size to a final size. The students aremade aware of the fact that Paris Law is applicable for stress intensity factor range higher thanthe threshold value ΔK th, a material parameter that is available in literature [1, 2] Page 23.193.2As a complementary exercise to the rotating beam fatigue test, an analytical activity has beenintroduced as a lab project to obtain the S-N curves for typical steels. In this activity thestudents construct S-N curve analytically using the crack propagation
, in particular. In addition, discussion of sustainability inevitably involvesmultiple disciplines, so the discussion is enhanced with multiple perspectives.Sustainability Education for Materials EngineersTo evaluate the educational needs related to sustainability, The Metals, Minerals and MaterialsSociety (TMS) included questions on the topic in a recent member survey1. One portion of thissurvey asked respondents to rank the desired and actual proficiencies on several sustainability-related topics. The results, which are summarized in Table 1, show that the most important topicis energy use and efficiency, followed by recycling/reuse, life cycle analysis and corporate socialresponsibility. In all cases, the desired proficiency is lower than
activity that used material selection as the primary driver fordevice performance. This is the ‘bridge’ that we focused on, allowing a general ‘design’ activitybe applicable to multiple disciplines.Another challenge concerned the assessment of design skills. Based on previous work3 a metricwas selected. The metric is termed “RADD”, and has been used each quarter for over five years.The metric targets four areas: 1)Requirements, 2)Analysis, 3)Design, and 4)Drawings (RADD).The metric has been adapted for use in assessing different media. For example, the initial usewas to assess documents such as engineering proposals. Then the metric was modified to assesspresentations, such as Design Reviews. For this effort, we chose to create a RADD metric
information they found most valuable, they are determiningwhat information will be beneficial for them to know in the future, as well as motivate them tothink about the topic more in depth.BackgroundMotivation and Value in LearningMotivation is an important factor supporting students' learning. Student's choices, persistence,and effort to learning contexts independently and in groups are affected by their motivational andaffective beliefs1. Previous studies have shown that two points govern student motivation: 1) thedegree to which students believe they can complete a task (self-efficacy) and 2) the value thestudents place on the learning task2 . More specifically, college students must also perceiveadded benefit their personal futures3,5. The degree
Baby Bottle”8, see Figure 1 for asample of the student content. This case refers to another article "Baby Alert" which appeared inConsumer Reports (May 1999). The article raised concerns about the safety of polycarbonate babybottles, and recommends that parents dispose of them as a precaution.Additionally, for the current work the authors experience in developing case studies developed thefollowing loose guidelines to give the students: 1. tell a story that has a beginning, background, a middle, and a conclusion. 2. trigger your peers interest. 3. have real characters to identify so that the student can role play one of those characters. It helps bring out the subjectivity of decisions and how credibility of a person
. Page 23.1115.1 c American Society for Engineering Education, 2013 Supplementing Instruction with Pencasts created with a SmartPenTwo years ago, I bought an Echo SmartPen developed by LiveScribeTM. The package1 included a4GB pen with two ink cartridges, two caps, a micro USB cable, and a starter dot paper notebookas shown in Figure 1. Figure 1: Echo SmartPen Package1 from LiveScribeTMFigure 2 shows the major components of the pen. Ink cartridges are available in both fine andmedium points in black, blue and red colors. A tiny high speed infrared camera is focused at thetip of the ink cartridge to capture everything I would write or draw. The embedded dualmicrophones record the audio in the
introductory materialsscience to capstone design courses, and go on into MSc and PhD levels; but also include the useof TRW in pre-university courses. Figure 1 depicts the countries from where contributions werereceived. Several case studies of active users of TRW in a number of higher educationinstitutions in several countries are presented and discussed in Silva et al. (2012). The sectionbelow offers an overview of their thoughts and uses of TRW.Figure 1. The countries from which institutions contributed to this paper. The map was drawn inCES EduPack with a database of “States of the World” available from the Teaching ResourcesWebsite. Page
solutions through engagement in discussions about the process of howthe different solutions were prepared. The assumption made here is that, when studentsunderstand how these solutions were prepared, they will be able to correctly define whether theyare unsaturated, saturated or supersaturated. The pre-post test about solutions and solubility is Page 23.1189.5shown in the Appendix as Figure 1 while the worksheets are shown as Figures 2 and 3. Theworksheet consisted of schematic diagrams of two beakers each filled with water. Teaspoons ofsugar were gradually added into the beakers until both reached saturation. An extra teaspoon ofsugar was added to
surface. Crystal orientation changes of between 1 to 10 degrees create very thin(nanometer wide) regions called low angle grain boundaries (LAGBs), and where they occur,they separate a crystal into subgrains, or crystallites. High angle grain boundaries (HAGBs), withmisorientation between 10 to 15 degrees, are a discrete change of crystal orientation. Theseregions are defined as the demarcation between grains. Grain boundaries render a material apoly-crystal. The long-range collection of grains, grain boundaries and other defects in a materialsample are collectively termed “microstructure”.It may confuse novice learners that HAGBs and LAGBs may each be detected or imaged bysome characterization techniques and not by others. For example, optical