nanotechnology encompass so many fundamental areas such as ethics, privacy, environment, and security. This paper describes the teaching approaches used to teach the ethical and social implications of nanotechnology in a “Science, Technology and Society (STS)” capstone course at DeVry University, Addison, Illinois. There are essentially four objectives to this course: (1) developing a strong understanding of local and global forces and issues which affect people and societies, (2) guiding local/global societies to appropriate use of technology, (3) alerting societies to technological risks and failures, and (4) developing informed and encompassing
prototype system described in this paper was designedaround the USB4000 microspectrometer by Ocean Optics which in the visible/NIR configurationresponds to a wavelength range of 350-1100 nm. For the computing solution, the “Overo Fire”Computer-on-module (COM) by Gumstix Inc. was used. The COM is a six gram Linux-basedPC with WiFi roughly the size of a stick of gum. When coupled with their “Gallop” module,power conditioning, GPS and accelerometer functions are added. Completing the prototype is aUSB hub, a lithium-ion battery and power regulation module. Benefits of LiIon batteries includehigh power-to-weight capacity, relative temperature insensitivity, high charge rate and durability.The block diagram in Figure 1 shows the configuration of these
, P.E., received his B.S. degree in engineering mechanics from the U.S. Military Academy in 1982. He received his M.S. and Ph.D. degrees in civil engineering from the University of Illinois, Champaign-Urbana in 1990 and 1999, respectively. He became the Dean of Engineering at the Citadel on July 1, 2011. Prior to his current position, he was the Department Head of Civil Engineering at the University of Texas, Tyler, from Jan. 2007 to June 2011, as well as having served in the Corps of Engineers for more than 24 years, including 11 years on the faculty at the U.S. Military Academy. Page 25.967.1
and technology.”2 The ontology and internationalvocabulary of metrology (VIM) is maintained by the International Organization forStandardization. Metrology is an extremely broad field, but may be generally divided into threemain subfields: (1) Scientific or fundamental metrology, (2) Applied or industrial metrology,and (3) Legal metrology. Scientific or fundamental metrology concerns the establishment ofquantity systems, unit systems, units of measurement; the development of new measurementmethods and techniques; realization of measurement standards; and the transfer of traceabilityfrom these standards to users in society. Applied or industrial metrology concerns theapplication of measurement science to manufacturing, construction
work within each of them. Table 1 summarizes this agreement.Table 1: Comparison of epistemic commitments and practices in mathematics, science andengineering Science Engineering Design MathematicsGoal Explain natural Solve a problem Identify patterns and phenomenon by through design, structures on which to building general changing the world base conjectures principles, regarding future understanding the patterns and world structures.Common • Ask and refine
Teaching awards o Letters of support from others than those from the external reviewers.How can you find out what your P&T committee will *actually value* [sic] in time to dosomething about your "first impression"?• Find out (1) what the P&T committee members are doing, (2) what the institution is acknowledging and rewarding, and (3) what the in-your-field trends are and how they match the mission of the institution.Many technology colleges and departments are teaching focused with moderate to heavyteaching loads From [sic] conversations, it would appear that many universities are nowexpecting a research agenda from faculty with not so much reduced teaching expectations. Isthis observation true in general?• Generally speaking
thinking in a virtual internshipIntroductionEducational institutions at all levels have historically struggled with motivating and retainingwomen in science and engineering. Blickenstaff [1] and others have referred to this as theproblem of a “leaky pipeline,” in the sense that women opt out of the path from elementaryschool through university and on to STEM careers at various points along the way. Onesignificant “leak” occurs when declaring an undergraduate major in the first year [2, 3]. Researchsuggests that women with an interest in engineering enter undergraduate programs with highlevels of self-confidence, but these levels decline significantly during the first year [4]. Thesingle biggest drop in
were considered the only reasonable solution to thisproblem. Figure 1- Data socket server in LabVIEW projectLabVIEW support data streaming via a project with the use of a datasocket server (figure 1).The datasocket server used was an example found in the network section of the getting startinginterface of LabVIEW. There are numerous examples and among them was the project file,“shared variable client- server”. This project was already setup to stream two variables, awaveform and a command. The waveform was a double precision floating point arrayappropriate for collecting data from a single channel. The datasocket server is initialized whenthe project is opened but the actual streaming is done using a separate VI that
Page 25.973.4search of knowledge of Digital Circuits.Transition StrategyThe strategy proposed in this paper consists of introducing the PLD technology gradually in thecourses of Digital Circuits. We recommend the following path: 1. Study thoroughly and understand the theoretical background of Digital Logic. Design with basic discrete components and SSI and MSI. A successful designer of digital logic circuits needs a good understanding of basic concepts6. 2. Design with CAD tools using the graphic interface and the simulator. The transition from traditional circuit drawing to schematic entry design should not be difficult. Despite that schematic entry design may limit the scope of the circuit design, the students can
interconnections. The students designed their own assembly code to read the systemsensors and control the water level to a variable, user-determined set point. The required codecomponents were developed throughout the semester as each peripheral of the microcontrollerwas discussed. The process control served as a culminating project for the course. This paperpresents the system hardware and example student software. Course curriculum is also presentedand discussed.IntroductionMicrocontrollers are used extensively in process control applications. Courses in process controloften use microcontrollers to implement various control techniques. 1 Low-cost custom-builtprocess control trainers can be utilized to demonstrate many processes. 2,3 The
VMC Analytic, anonline video editing and annotation tool [1], invite users to create analytics from videos hosted on the VMC for usein their classrooms. Educational interventions involving the VMC have showed significant change in-serviceteachers’ recognition of students’ reasoning as well as their beliefs about what children can learn and what teacherscan do to support student learning [2][3] when used in professional development [4].Keywords: Student Learning, Mathematics Education Research, Video Mosaic Collaborative, VMC. INTRODUCTIONThe Video Mosaic Collaborative (VMC) Repository has been built as a resource for teachers, educators andresearchers. More recently, it has been a key resource
degree or a degree which is philosophically devoted to the value ofbreadth across engineering. This last type of degree was categorized by Newberry and Farisonas philosophical.DataIn Table 1, we provide a list of schools that had programs that were accredited as a generalengineering or engineering program by ABET in the 2010/2011 academic year. We also showhow Newberry and Farison categorized the program if they included it in their 2003 paper. Inaddition to classifying programs that have come into being since the time of Newberry andFarison, we also revisited all of the surviving programs from their study and independentlyclassified them as well. In almost every instance where the program was independentlyclassified in both surveys, we came to
the same time period, the compoundannual growth in the number of students taking at least one online course was 18.3%1. Thismeans that students who are taking online classes are becoming a larger proportion year afteryear of the overall population of higher education students. The same trend is taking placeelsewhere around the globe and to a lesser degree in K-12 education. For example, in China, in2006, there were 66 universities offering 8,557 online courses with a total enrollment of around 3million students2.According to numerous studies up to 2001, students who learn solely using high quality onlineresources, achieve the same level of proficiency as students who learn in a traditional classroomsetting3. A more recent study by the U.S
, technology, engineering, and math (STEM) disciplines for middle school students in theDigispired project. The primary goal of project was to provide learning and research opportunities to middle schoolstudents by focusing on programming and thus gaming, and the four science themes through Saturday and summerprograms for three years. Within this 36-month project, 90 low-income rural and urban students (1) learned abouttechnologies involved in game products; (2) learned about programming, computer graphics, and animation; (3)created games on four science themes – recycling, nutrition, physical exercise or activity, and substance abuse; (4)finalized their interactive game projects for distribution in local educational communities; and (5) shared
students.The paper has addressed this shortcoming and provided an example on how to integrate non-verbal communication skills into a construction course. This topic is the vital component of aleadership development in construction business in which industry professionals urge educatorsto bring the issue into curricula. At the same time, collaboration is also expected from industryprofessionals by cooperating in seminar and capstone project courses and/or providing fundingfor research projects. Bibliography 1. Yang, J., Ahuja, V., Shankar, R. (2007). “Managing Building Projects through Enchanted Communication – An ICT Based Strategy for Small and Medium Enterprises.” (paper presented at the CIB World Building Congress, Cape Town
interface will be used to correlate specific EKG findings with pathology of theheart and selectively demonstrate the diagnosis of certain cardiologic health screening andassessment parameters.This learning and teaching module 1 can be instrumental in progressive learning for BMET andEET students, by enhancing their understanding of clinical EKG instrumentation, parametersextraction and their relationship with differential diagnosis of the patients. It will give them aform of intellectual development, enhancing their skill-set, and challenging their creativity.This paper thereby serves as an interesting way to expose engineering technology, health careand medical students to this fascinating topic and gives them exposure to EKG instrumentation,and
advanced cycles; air-conditioning processes of humid air; ReheatRankine cycle including means to improve its efficiency; Otto and Diesel cycles; Brayton withintercooling, reheating and regeneration; property diagrams, p-v, T-v, T-p, T-s, h-s, p-h, andPsychrometric chart . The course schedule is shown in Table 1 and is divided into ten weeks;each quarter typically contains ten weeks. Each week has 200 minutes of lectures, contents ofwhich are shown in the second column. Seven labs are offered, in weeks 2, 3, 4, 5, 7, 8, and 10.Labs 1-4 require only 60 minutes per team; labs 5 and 6 require 90 minutes; Lab 7 is a two-and-ahalf hour tour of HVAC systems used to air-condition medical research laboratories at FredHutchinson Cancer Research Center
American Society for Engineering Education, 2012Novel Chemical Reactors in the CHE Curriculum: An Instructional Module Page 25.982.2AbstractFor the production of fine chemicals and pharmaceuticals, chemical reactions are often carriedout in batch rather than continuous mode. Novel alternatives are the spinning disk reactor [1] andthe rotating packed bed reactor [2]. These reactors utilize high gravity to enhance mass transferin the reactor, leading to significant performance improvements over batch reactors. This modulewill provide instruction on the phenomena exploited to achieve the improvements in the reactorand its basic configuration. An overview of technology
University before starting his po- sition as faculty at CSU, Fresno. His research and teaching interests include advanced materials, alternate energy, systems analysis, and project management.Dr. Thomas Nguyen Page 25.983.1 c American Society for Engineering Education, 2012 Now More Than Ever: The Need for a Common Engineering Core Curriculum Michael G. Jenkins1, PhD, PE; Walter V. Loscutoff1, PhD; Thomas L. Nguyen2, PhD 1 California State University, Fresno, CA; 2Levitas Consultants, Merced, CAAbstractFor decades, the hallmark of
B.S. in chemistry, an M.S. in education, and a Ph.D. in higher ed. and adult development from UCLA. Page 25.984.1 c American Society for Engineering Education, 2012NSF ATE Regional Center CREATENSF ATE grant #1002653Annual ReportMarch 2012Section One: Research and Education Activities:1. Executive Summary: Major Accomplishments in 2011-2012 • CREATE sponsored a Wind Turbine Technician DACUM. The DACUM industry experts (predominantly senior wind technicians from the Tehachapi and Palm Desert wind farms) were representative of the different regions in California and various sizes/types
as an element in your UI layout, such as a buttons,images, text labels etc. In contrast to Apple’s iPhone, Android’s UI builder is fairly inefficientand probably the only way to get around is to code all of the UIs directly into the XML. HoweverI noticed that integrated Java-Doc and content seem to truly facilitate the path to learn anunfamiliar API.Arrays in Java are data structures consisting of related data items of the same type. Arrays can beconsidered as fixed-length entities, although at times an array reference with proper syntax maybe reassigned to a new array of a different length. On the other hand we have dynamic datastructures, 1 such as stacks, queues, trees and lists that can shrink or grow as programs execute.Android also
(individually and collectively) to society.Yet, research has highlighted the misalignment between theory (curriculum) and practice(teaching practices, learning experiences) in the attainment of this aim. The objective oftechnology education is to produce technologically capable and literate people. Problem-solvingand value judgements have been highlighted as critical areas in the development of technologicalcapability [1] and technological literacy [2].This paper investigates students’ (12 to 15-year-olds) individual heuristics when problem solvingduring a prescribed ICT based computer task. The program attempts to elicit critical thinking andreasoning skills (deductive/abductive/inductive). The development and application of these skillsbecame
this initial common exposure to student-learning strategies contributed to the commonobservations we share within this paper.We believe these observations to be universally applicable to all instructors (beyond merelyElectrical Engineering or even engineering at-large) provided the following caveats are met: 1) alearning-centered environment for students is the underlying paradigm for the classroominstruction, 2) the course is required (e.g., a core class), and 3) the instructor/student ratio issmall (i.e., manageable).The observations cover a wide gamut of teaching/classroom strategies and execution, but hereare the observations we address in the paper. These observations are explored further within the
professionals from the seeds plantedtoday in the minds of the current generation.References[1] Merlan, Francesca, Representing the rainbow: Aboriginal culture in an interconnected world,paper presented to Fulbright Symposium, Darwin, Australia, July, 1997[2] Morphy, Howard, Journey to the Crocodile’s Nest, Aboriginal Studies Press, Canberra,Australia, 1984.Biographical InformationFrancis J. HopcroftProf. Hopcroft has been teaching Civil and Environmental Engineering at Wentworth Institute of Technology formore than 18 years. He has taught freshman, sophomores, juniors and seniors and has taught students fromtechnology and engineering programs as well as students from four separate majors. He has collaborated withfaculty from several other colleges
andflow stability related to mechanical engineering. Also, they become familiar with concepts ofdigital sensors related to electrical and computer engineering. Through the fish farm curriculumactivity, students will have opportunity to: (1) work to implement the integrated sustainablesystems to apply concepts and principles of networking; (2) be exposed to diverse concepts,principles, and fundamentals associated with different fields of engineering; (3) discover andexpand their knowledge about the various fields including mechanical, computer, and chemicalengineering; (4) connect their interest in environmental issues with different types of engineeringconcepts; and (5) identify that these integrated sustainable systems are crucial for the
appropriate for anotherinstitution.IntroductionIn order for our future engineers to be able to work toward a sustainable future, they must betrained to think flexibly and to be adaptive as it is unlikely that their future will have them Page 25.990.2working in one domain. They must, instead, be versatilists. Versitalists, as popularized byFriedman, can “apply depth of skill to a progressively widening scope of situations andexperiences, gaining new competencies, building relationships, and assuming new roles.”1 p. 291The School of Engineering (SOE) at James Madison University (JMU) has been developed fromthe ground up to provide this general
identified with groups such as Engineers WithoutBorders, Engineers for a Sustainable World and the IEEE Society for Social Implications ofTechnology.Recent work has examined this “engineering to help” movement, and designations such as“peace engineering”1 and “humanitarian engineering”2 now represent recognized fields ofinquiry and practice. Several authors have framed these efforts within a context of engineeringethics, and within this framework, they have worked to incorporate perspectives of social justice3,4,5 .One recurrent theme from these commentaries is the requirement to involve local communities,not as passive recipients, but as true partners at all stages of the development process3. Whengenuinely undertaken, this act of partnering
. Page 25.992.1 c American Society for Engineering Education, 2012 On the Benefits of Using the Engineering Design Process to Frame Project-Based Outreach and to Recruit Secondary Students to STEM Majors and STEM CareersAbstract The pedagogical premise of our outreach program is project-based learning. Althoughthere is some variation in the literature as to what elements of an intervention are required inorder for it to be considered “project-based learning,”1,2 there seem to be some essentialcomponents.3,4 Land and Zembal-Saul3 have described these (citing Blumenfeld et al.4) asfollows: 1) “use of long-term investigations that emphasize iterative and progressive
very explicit in the ways in which studentsshould learn, and how teachers should teach (1, 2). Further, they address differentlearning styles (3, 4), focus explicitly on communication, teamwork, and leadershipskills (5, 6), and stress on educating students for life by helping them learn how tolearn. (5, 7)“Skilful engineering teachers” are those who are committed to the profession, and atthe same time, do possess knowledge in three domains: engineering knowledge (i.e.,their main disciplinary expertise and its related areas), pedagogical knowledge (i.e.,how students learn, effective pedagogies in achieving learning goals), andpedagogical content knowledge (e.g., how best to demonstrate procedures, relateconcepts, and correct students
, 2012 On the Fence: The Influence of Protégé-Mentor Relationships on Women Doctoral Students' Academic Career Aspirations in EngineeringStatement of Purpose According to a 2004 report from the Commission on Professionals in Science andTechnology, women in engineering and the physical, mathematical, and environmental sciencesmake up less than 6 percent of full professor positions.1 Two decades ago, researchers projectedthat occupational equity for females in science and engineering was just “a matter of time”—time for increasing the number of female Ph.D. students and moving them through the ranks ofacademia.2 However, the prediction that growing numbers of female Ph.D. students would leadto greater gender equity among the