international perspective,students participate in a diverse array of technical visits, lectures, and tours. Table 1 provides asample of technical tours planned for RSAP: Europe participants in May 2015.Table 1. Sample of technical visits, lectures, and tours planned for RSAP: Europe 2015. Country Technical Visits/Lectures/Tours Focus Area Lamborghini Museum and Factory Automotive Italy Barilla Academy and Factory Food Processing Italian Fashion School in Milan Design/Manufacturing Grimsel Power Plant Tour Hydroelectricity
in the second on general background, a table of electrical resistivities and a table ofthermal conductivities and specific heat capacities for a selection of metals and other materials,Table I and II, respectively. Lastly, a lookup table of thermistor resistances and temperature wasalso provided. A worksheet was also devised and distributed to students at the beginning of thelaboratory session for data entry, the results of their calculations, and comments. a. Experiment Procedure: Resistivity and ResistanceIn this section, the relationship between the concentration of electrons in the ‘sea of electrons’, themobility of the electronics, and the electrical resistivity of the metal is presented. As themeasurable quantity is electrical
to benefit from commerce and global acceptance, it must ensure that itsbusiness leaders gain competencies in cross-cultural skills. The general problem is a shortage of culturally competent leaders in multinationalcorporations (MNCs) able to meet the unique challenges of global leadership [8][18][32].Caligiuri and Tarique [7] professed that business leaders of most global companies should viewcross-cultural literacy as the most essential competency in international markets. An inadequateunderstanding of cultural and business differences may jeopardize performance of organizationsdoing business across borders [2][7][12][16][23][28]. American global organizations may losebusiness opportunities and possibly encounter weakened
analysis and optimization activities lead tothe generation of a simple plot for the optimum value of figure of merit for each combination ofoptimum stringer size and quantity for a selected stringer design concept. With the lower andupper bounds imposed on each dimension of the stringer, it may be impossible to support theprescribed load !!"# below a minimum number of stringers, even at max dimensions. 1. Form a team of three and select a team leader 2. Propose and evaluate potential stringer concepts 3. Pick two stringer concepts 1 and 2 4. Develop the panel analysis algorithm (and equations) for the stringer concept 1 geometry 5. Identify design variables, choose associated bounds, and formulate design constraints 6
program, 5 did not enroll in Calculus 1 for the Fall semester. This is both a logisticaland advising problem that will need to be addressed in the future. Of those that have participatedin the program we find a passing rate (ABC) of 55% compared to 49% for the two fall semesterCalculus classes as a whole. Table 1 summarizes the grade distributions. Passing rates for thecourse have dropped below those for the general sections of Calculus 1 in the same semester,however as before we find that the differences are not statistically significant. Likewise, the GPAof the students is not significantly different from that of the whole population (precisely theprobability that a group of 33 students from Calculus 1 would have a GPA of 1.66 or higher ismore
the state of the particle at the given potential and kineticenergy. It is not a simple algebraic equation. It is a linear partial differential equation thatstudents know how to solve, given that they have taken required Calculus courses.Time – Independent Equation4:Recall from Last year paper1 that Time – Independent Schrodinger equation is obtained directlyfrom the applying De Broglie principle to a wave equation:From the very basic classical mechanics, General Physics I Class students already know theWork – Kinetic Energy Theory: 𝑊 = ∆𝑘 = −∆𝑈 (1)and at the same time for all conservative Forces we have: 𝜕𝑢
unique because of the rotor at the top that does most of the work, second to thatof the pilot. How the pilot interacts with the helicopter is of paramount importance in design.The rotor is typically made of many moving parts, the largest and most noticeable of which arethe blades, the hub, and the swashplate, all of which operate in rotation as a function of time.The pilot commands the forces generated by the rotor through the controls in order to accomplisha mission, whether it be hover, forward flight, or some combination of both. Therefore,Enduring Understanding 1 is: The student will be able to describe the rotor and blade motions ina rotational reference axis system and the student will be able to identify rotor designs and theallowable
, social awareness, and interpersonal skills required to function aspracticing engineers [1]. It is the goal of the current work to develop and assess hands-on,laboratory based, course content which teaches materials selection for engineering design.In the context of engineering design, material selection is not merely the selection of an existingmaterial from which to fabricate a finalized engineering component or design. Rather, materialsselection should be treated as an integral component of the iterative design process in which thematerial, process, and design are refined and optimized in parallel to address a market need, seeFigure 1 [2], [3]. In this context, the specific educational objectives for the course are thatstudents should be able
TSE workshop Page 26.167.2participants observed industry professionals using the workshop techniques.Table 1. Agenda for Emerging Technologies and Technicians Workshop Wednesday, January 8, 2014 1:00 PM Welcome: CCET, SPC & FLATE 1:15 PM DFLC Sponsor & Lifecycle Overview 1:45 PM Lab & Hands-On Activities Orientation 2:30 – 5:00 Emerging Technologies & Technician PM Hands-On Project (sessions 1-2) 4:30 – 5:30 Optional: Fab Lab Mentoring & NGM PM Enterprise & Technician Models Thursday, January 9, 2014 8:00 AM Tour of TSE Industry 10:00 AM Break 10:15 AM Emerging
provided by the of all interviewees. The data was acquired through pretrip reflection surveys and posttravel semistructured interviews for the 5 U.S. undergraduate students. We focus to thick description of participant experiences to allow readers to make decisions regarding transferability[18] rather than drawing generalizations due to the small number of participants. The pretrip reflection survey explored pretravel global competency. The reflection survey specifically investigated expectations in regards to interactions with the Liberian students and Liberian culture (Appendix 1). The posttravel semistructured interviews focused on participant reflections from the trip. Participants engaged in semistructured interviews using with
Assistant Professor, Oregon Institute of Technology, Klamath Falls 2002 to 2004 National Accounts Manager, Wagner Electronics 1998 to 2002 President/Owner, Best Tech USA 1985 to 1998 VP and General Manager, Alumaweld Boats Inc & Rogue Trailers Inc. 1984 to 1985 Manufacturing Rep MDA Associates 1981 to 1984 Quality Engineer, International Memories Inc. 1980 to 1981 Design Engineer Balteau Standard 1977 to 1980 Field Engineer, Wisar Construction 1975 to 1977 General Manager Milthorn Toleman Ltd., UK 1974 to 1975 Chief Scientist, Puerto Rico Nuclear Center 1972 to 1974 Engineering Consultant, EPA 1969 to 1970 Metallurgical Engineer, Republic Steel Inc. Professional Societies: American Society of Engineering
the listSince we had asked open-ended questions, the survey respondents may have missed somecompetencies. Therefore, we studied the prevalent models such as Entrepreneur Skill Theory(EST) by Lyons 20, 21, General Measure of Enterprising Tendencies by Caird 22, EntrepreneurialMindset Profile by Davis, et al.23, KEEN foundation model 5and Israel model as articulated in„Start-up Nation‟ 18 to refine the set of competencies and arrived at the list as given in table 1.The list was synthesized by the authors and reviewed by a third party entrepreneurial educator. Clear Vision Creativity and Innovation Decision Making Action Orientation - Agility
. Cutting-edge methods inthese fields have been adapted so they can be applied starting at the freshman level throughupper level electives in chemical, mechanical, or biomedical engineering and cellular/molecularbiology. The anticipated results of the project will be i) the implementation of curricularmaterials that fulfill a need in STEM education, ii) increased student interest in pursuingundergraduate and graduate study in STEM disciplines, iii) the development of a well-roundedworkforce of engineers prepared to find multidisciplinary engineering solutions to the growinghealth care needs of the world.1. INTRODUCTION Biomaterials have received considerable attention over the past 30 years. A biomaterialhas been defined as a material
operation... • When an action is repeated and the individual reflects upon it, he or she can make an internal mental construction called a process which the individual can think of as performing the same kind of action, but no longer with the need of external stimuli... • An object is constructed from a process when the individual becomes aware of the process as a totality and realizes that transformations can act on it... • A schema is a ... individuals’ collection of actions, processes, objects, and other schemas which are linked by some general principles to form a framework in individual’s mind...In this theory, every concept can be constructed on different concepts and schemas. For example,if a researcher
.7, 8Summer Educational Internship Program (SEIP)The XXX University/ XXX Technical College team developed and implemented a four-weekSummer Educational Internship Program (SEIP) for math and engineering rising sophomorestudents to engage them in teaching experiences with students in grades 4-8. Rising juniors mayalso participate, but their scholarship eligibility will be limited to the senior year. SEIP offered14 internships (9 from XXX University, 1 STEM professional and 4 from XXX TechnicalCollege) at the rate of $1,000 per participant. In the first week, interns learned about teachingmethodologies in math and technology standards. In the last three weeks, participants worked ondesign and implementation of teaching course plans for math
writing technical team reports, 5) experience a “real life,” hands-on engineeringproject from start to finish, 6) learn about rockets in general, 7) excite students aboutengineering and space exploration and improve the overall retention rate. These educationalgoals were either accomplished or it is too soon to tell, as in the case of goal 7 that seeks toimprove retention. Team reports show that goals 1, 3, 4, and 5 were accomplished at variouslevels that ranged from fair to excellent. Teams were required to meet with the instructor and/orthe graduate assistant to review draft versions of reports. An anonymous exit survey taken onthe last day of classes indicate that a majority (70%) of the students felt this project was a verygood learning
provides training for fortune 500 companies throughout the world. Page 26.372.1 c American Society for Engineering Education, 2015 Comparing Engineering and Non-Engineering International Programs to Determine Value and Future DirectionsIntroductionInternational programs are a common approach to achieving a variety of global competency-related learning outcomes [1]. Such programs are generally designed to meet lofty goals such asproviding an in-depth understanding of people and their culture in such a way that disciplinespecific practices are compared and contrasted, personal
fracture toughness and stressconcentration. The RLOs included: 1. Online “Khan Academy Style videos (KSV)”, 2. Exampleproblem videos by graduate students, 3. Cornell notes, note-taking framework handouts, 4.Tempered glass lecture demonstration, 5. Online homework problems, and 6. New in-class slidesfor lectures. At the end of the first semester following the introduction of these newinterventions, students were asked to participate in a survey to gauge the rate of interventionuptake as well as general perceived usefulness (n=118). The KSVs had the greatest uptake rate,with 63% of respondents reporting that they used the intervention. The Cornell notes had thelowest uptake rate (4%). When asked about perceived usefulness of interventions, 84
patterns, engineering principles, andmathematics.A pre-to-post survey was used to measure changes in student interest toward particularareas of STEM. While the participant group was too small for results to be conclusive, anoverall increase in interest for STEM topics was documented, particularly inmathematics. Qualitative observations also highlighted the benefits of a classroomatmosphere that emphasized increased instructor-student interaction. These observationsalso provide insight into the type and amount of activity preferred by students. In general,program participants showed increased engagement in learning when they were allowedsubstantial time for activity, and they responded best to exploratory problem-solvingactivities including an
successful demonstrations in high-school classrooms as well aspotential remote laboratory use. Additionally, further development of the pen tablet controlalgorithm can be explored to determine if the pressure sensitive Z-axis control method is suitablefor precise laboratory applications or only general classroom use.1. E. Zamani, G. Giaglis, and A. Pouloudi, "Tactile Experiences: User Interpretations and Meaning with Tablets," presented at the International Conference on System Science, Waikoloa, HI, 2014.2. C. Romney, "Tablet PC Use in Freshman Mathematics Classes Promotes STEM Retention," presented at the Frontiers in Education Conference, Rapid City, SD, 2011.3. S. Oviatt, A. Arthur, and J. Cohen, "Quiet Interfaces
Energy Policy: (1-2 pages) Explain differences in the way Germany and the U.S. have implemented renewable energy Give you opinion on which implementation is better and why o Cultural Learning: (1-2 pages) Describe U.S. and German perspective on renewable energy Describe general differences in U.S./German culture with regard to Energy and Environment o Personal Experience: (1-2 pages) Describe any personal experiences that you may have had with German individuals that changed your perspective about energy, politics, culture, etc. Describe which aspects of your travels had the greatest impact on your experience o Conclusion: (1/2-1 page) Give an overview of what you learned
Paper ID #12300Fostering Spatial Visualization through Augmented Reality in Calculus learn-ingDr. Patricia Salinas, Tecnologico de Monterrey (ITESM) Full time Professor at Mathematics Department in Campus Monterrey, Tecnol´ogico de Monterrey. Edu- cational researcher with interest in the integration of technology for the learning of Mathematics. With a Bachelors Degree in Mathematics and 2 Masters Degrees, in Education with Mathematics Specializa- tion. PhD in Mathematics Education since 2011. Member of the National System of Researchers SNI 1, CONACYT, M´exico. Co-author of several textbooks for the teaching and learning
comprising socio-psychological competencies that are necessary for thedevelopment of academic mobility. Table 1 – Student academic mobility matrix Academic mobility components Cognitive Pragmatic Communicative Reflexive To know socio- To perceive, select, To be able to work in To be able to take cultural and analyze, and teams, to cooperate, to be stock of a situation professional generalize tolerant and respectful. To and of one’s own terminology in the information. To set be ready for executive achievements and second language. To goals and decisions
(EFA), andtwo different constructs were found. Three items that did not load on either of the two constructswere removed from the data. A confirmatory factor analysis was performed on the remaining 17items to confirm the two constructs found with the EFA. For data analysis, an average of theitems was calculated as a general math anxiety score (between 1 and 5). Average scores for itemswithin each of the two constructs were calculated for each participant, and statistical analyseswere conducted to determine if there were differences between scores. T-tests were conducted todetermine differences between math anxiety levels for students with different backgrounds andfor differences between the beginning and end of the course. The data were also
statement development) Creative thinkers properties (pressure, Identify the problem: Access to water at the volume, temperature) center in problem scoping session Thoughtful team light properties Using the problem statement develop the workers (radiation, reflection, solution process to translate written refraction, insolation), statement into solution model electricity basics, Design (Design process methodology) (current, voltage, resistance), solar Apply design process to generate ideas, geometry (daylight model, analyze predict and build the time), solar panel solution product, characteristics
1 1 1 1 0Figure 3: Teaching experience of international facultyIndustrial experiences of international faculty surveyed appear to have an interesting pattern asshown in Figure 4. In general, international faculty surveyed have more teaching than industrialexperience. Most faculty surveyed have some limited industrial experience from US companiesalthough many of them ( nine out of fifteen) are registered professional engineers. Almost allfaculty surveyed indicated being members of US professional societies such as ASCE, ASMEetc. Some faculty identified themselves as ABET evaluators as well. 10 Number of Faculty Memebers
less motivated students had not actively worked with the technical material for a sufficient amount of time, they were unprepared to work new exam problems similar to the HW.Use of LON-CAPA was initiated for the author’s courses in the Department of BioresourcesEngineering at the University of Delaware in fall 2002 with support from a grant awarded by theuniversity’s Center for Teaching Effectiveness. Online problems were first developed forintroductory and intermediate-level surveying courses. Surveying was chosen for the firstimplementation of LON-CAPA because the problems were relatively easy to code.Subsequently, problems were also developed for topics in hydraulics and hydrology for use in astormwater management course. Hydraulics
. Figure 1 - Sample Idea Generation - Water Notice the diversity of disciplines represented in the thoughts of first-year engineering students; theybrought up politics, ownership, entertainment, habitat, etc. This is the beginning of developing students'problem definition skills. The class is structured to encourage a lot of creative thinking andbrainstorming at this stage. It is done in a very interactive manner in class where everyone is encouragedto participate and the role of the instructor is mainly to capture the ideas presented by the students and toencourage broad student participation. The encouraging aspect that has been observed every year hasbeen the much broader thinking from the students than is shown by the narrower, expertise
?” Negotiating the Borderlands of Queer and Engineering EpistemologiesIntroductionPrior research about the experiences of LGBTQ+ engineering students has focused on thecultural aspects of the discipline that negatively affect their educational opportunities, withparticular focus on heteronormativity, masculinity, and prioritization of technical skills at theexpense of social knowledge. The field of engineering values empirical knowledge, which can beat odds with many other epistemologies and ontologies, especially queer ways of knowing [1]. Inthis research brief, we use Riley’s work and Anzaldua’s conceptions of identity borderlands toanalyze one interview with Amelia, as she sits in the tensions between queer and engineeringways of
reformation in general, and to the use of modern pedagogicalskills in particular. The paper also argues that any meaningful change in Region’s classroompractices today (dominated by traditional lecture-based methods) must be mandated andsupported by the university administration. What is necessary to create a change, is for thedepartment or college, to have a comprehensive and integrated set of components: clearlyarticulated expectations, opportunities for faculty to learn about new pedagogies, and anequitable reward system.Introduction“To teach is to engage students in learning.” This quote, from Education for Judgment byChristenson et al, (1) captures the meaning of the art and practice of pedagogies ofengagement. The theme advocated here is that