explore engineeringconcepts, to investigate solutions to problems too complex for hand solutions, to analyze andpresent data effectively, and to develop an appreciation of the power and limitations of computertools. Students are introduced to such ideas as interpolation, curve-fitting, and numericdifferentiation and integration, through applications areas such as data analysis, imageprocessing, communications, position tracking, basic mechanics, and system modeling.The Engineering Models sequence was required for all incoming first-year engineering andengineering technology students starting with the 2012-2013 academic year. Lectures, recitationactivities, homework assignments, exams, and projects were common across all sections, thoughsome
communication must be thoughtfully designed tohelp readers make meaning of data. Such visual design for readers requires our students tobecome metacognitive of their own experience as consumers of visual communication. Yet oftenengineering students are not prompted to think about or design visual data communication untilthey must present their own data, typically as part of a senior capstone project. Our students’ lackof experience leaves them without a solid foundation for critical thought about figures, and thuswith scant preparation to learn from the experience of creating and refining them. If capstonesare to be an opportunity to learn about visual communication rather than simply perform it,students are in need of a swift means to gain perspective
their own presentation abilities.Understanding the students' mileu and motivationEngineering presentations are typically complex combinations of facts and data (logos),credibility-building (ethos), and persuasion (pathos), housed in a mileu that demands thespeaker understand the big picture (kairos). Speakers need to be comfortable and assuredin their data, they need to communicate precisely and efficiently without being scant, andthey must be masterful with their persuasive moves to convince often reticent audiencesto accept their new ideas or proposed projects. Page 26.1780.7The groundwork for teaching presentations in any online course must be
independently, but the students were always recruitedfrom the same two sections of the course (n-range 28-34). This study was approved by theinstitutional review board at the University (IRB# PRO2017002152) and may form the basis of along-term project in the future. The tests consisted of two related instruments – the Defining Issues Test version 2 (DIT-2) [8] and the Engineering Ethical Reasoning Instrument (EERI) [9]. The DIT-2 is used to assessthe moral judgement of individuals when faced with ethical dilemmas. In this test, a specific setof five (5) ethical dilemmas is presented to the individual, who must decide how to solve eachdilemma. The individual is then presented with a series of statements suggesting how they madetheir decision
'17 Companion Proceedings of the 26th International Conference on World Wide Web Companion, Pages 1445-1450, April 3-7, 2017. [Online]. Available: ACM Digital Library, http://dl.acm.org/. [Accessed: Jun. 15, 2018].[8] J. H. Jeon, K. Kim and J. Kim, "Block chain based data security enhanced IoT server platform," 2018 International Conference on Information Networking (ICOIN), Chiang Mai, 2018, pp. 941-944. Available: IEEE Xplore, http://www.ieee.org. [Accessed: Jun. 16, 2018].[9] “Terminology,” 2018. [Online]. Available: https://docs.bigchaindb.com/en/latest/terminology.html. [Accessed: Jun. 18, 2018][10] “How to Set Up a BigchainDB Network,” 2018. [Online]. Available: http://docs.bigchaindb.com/projects/server/en/latest
successes. FIG seminar panels areaverage less than 2.0 (disagree) for their self-efficacy designed based off of Stephens and Destin (2014)ratings for teamwork. Improving teamwork ability and difference-education intervention module that can providemindset are a key student outcome for BME 303L, as students with an identification with panelists. [6] Whenstudents worked in teams on various projects throughout students understand that their background or other relatablethe semester. These data indicate that the students’ factors matter, and they see other students like themexperience with teamwork in BME 303L had little effect on persisting through similar challenges, they can oftentheir
past decade.Several local, regional and national activities are contributing to a continued and increasingenrollment in the manufacturing engineering program. These efforts are also beneficial torecruiting into other manufacturing post secondary education.Local Actions to Recruit Manufacturing EngineersThe University of Wisconsin-Stout has developed many actions that are directly or indirectlydesigned to reverse the declining interest in and promote a positive image of manufacturing. Thelocal programs supported and developed include Engineering and Technology Career Days,FIRST LEGO League Regional Tournaments, Project Lead the Way Affiliate, SkillsUSA, andSTEPS (Science, Technology & Engineering Preview Summer Camp) for Girls. These local
several ideas about how to operatemore efficiently the following year. They planned to recruit between five and ten employeesduring projected times of peak demand, find storage facility closer to campus, require the use ofsmaller boxes, and get approval from the Residential Life Office to advertise in the dormitories. Page 12.415.4During 2005 the business enjoyed more success, but experienced unanticipated difficulties.Seeing the success of the moving and storage business, another student decided to start acompeting business. The competitor tore down the advertising posters and replaced them withits own. The competitor put flyers unsanctioned by
inUniversity Park, PA, held on September 28, 2006.Students received information on resume creation, with a number of resumes from pastBSEMET graduates provided for students to review and critique. The class worked cooperativelyin groups to accurately represent course experiences, project information, and software andhardware experience for inclusion on their own resumes.After locating a description for an entry-level position of interest, each student met with theDirector of Career Services to craft a resume for the position description of his/her choice.Following the resume critique, students made modifications based upon feedback. Next, theBSEMET Program Coordinator reviewed resumes and provided additional comments. Studentsreceived input from
Resources for Engineers). In 2004, the CEED office received a $2million dollar STEP (STEM Talent Expansion Program) grant from the National ScienceFoundation. The goal of the project is to increase the number of students earning degrees inengineering and computer science. One component of the grant activities was the expansion ofASPIRE, marketing it to a larger number of first-year students admitted to the College ofEngineering (COE). The expanded bridge program still operates under the auspices of theCEED and has been named STEP Bridge – Student Transition to Engineering Program.Here, we provide a brief overview/history of ASPIRE and then discuss the transition to, andimplementation of the STEP Bridge program. We will compare the logistics of
to clearly documentcollected pre-ideation information and to aid in the decision making process. The followingsections discuss steps followed in generating the NPM. This is followed by an illustrativeexample from an actual student project. Figure 1. Schematic of how disparate information from several pre-ideation design tools and methods are integrated into the Needs-Function Matrix2.0 Steps in Constructing an NPM2.1 Customer Needs AnalysisPerform a customer needs analysis to find out what is important to the customer. The resultinghierarchal list should be weighted using methods such as the Analytic Hierarchy Process.1 Data
at the University of Utah in 2004. He has conducted major research projects in the areas of solid-state sensors, mixed-signal circuits, GaAs and silicon-on-insulator circuits, and high-performance and low-power microprocessors. Prof. Brown serves as chairman of the MOSIS Advisory Council for Education. He was Chair of the 1997 Conference on Advanced Research in VLSI and the 2001 Microelectronic System Education Conference. He has served as Guest Editor of the IEEE Journal of Solid-State Circuits and Proceedings of the IEEE and as associate editor of IEEE Transactions on Very Large Scale Integrated (VLSI) Systems
. The main purpose of this research isthe design and implementation of a framework to integrate the instant audio communication andinteractive three-dimensional models over the Internet. This framework makes the online real-time team engineering work possible.IntroductionThe Internet is changing Americans’ communication methods in many new ways. According tothe survey of Pew Internet & American Life project, more than half (55%) of all onlineAmerican youths ages 12-17 use online social networking sites [1]. Nearly two in five adultInternet users in the US (39%) have gone online to look for information about a place to live, upfrom 34% in 2004 to 27% in 2000 [2]. Fully 87% of online users have at one time used theInternet to carry out
, appraisal costs, failure costs(consisting of both internal failure costs and external failure costs), and intangible costs. The listis not exhaustive, but rather is intended to offer a general understanding of what is involved witheach category. If a detected cost fits the general description of the quality cost, then that categoryshould be used. Many subcategories of these costs of quality exist and it would be impossible todescribe all of themOnce the costs of poor quality have been identified projects can be implemented to improve thesituations. Those projects that have the greatest potential for improvement or highest possiblereturn (either in quality or monetary gains) should be selected first for realization. The process toaccomplish this
Internet. Students from Arizona State Universitysuccessfully implemented Internet applications to remotely operate the robot in the formof information interface as shown in Figure 9. The last two weeks were allocated to thespecifically designed online robotic experiments for both schools. Such onlinelaboratories enable multiple institutions to share expensive laboratory resources, henceproviding engineering and engineering technology students access to more sophisticatedconcepts and laboratory experiences as shown in Figure 10.Figure 10. Students worked on the laboratory projects in the MET 205 Robotics andMechatronics offered at Drexel University.3. Evaluations The Internet-based laboratory course is a new concept, and evaluation of
curriculum projects, especially in the areas of technical education. Dr. Alfano has a B.S. in Chemistry, M.S. in Education/Counseling, and a Ph.D. from UCLA in Higher Education, Work, and Adult Development. She also directs the Cisco Academy Training Center (CATC) for California and Nevada.Joseph Gerda, College of the Canyons Joseph Gerda has been at College of the Canyons since 1987, where he is currently a professor in the mathematics department. Since 1988 he has held a variety of positions including Department Chair, Division Chair, Coordinator for Instruction, Assistant Dean of Instruction & Athletic Director. He has been involved in the Hesburg Award winning staff development activity
generally out-of-sync with this trend; we still rely primarily on a“push” approach. Recent research by the Pew Internet and American Life Project indicates thatthe current generation of high school and college students are dissatisfied with the “digitaldisconnect” between their lives and the classes they take in school1. Today’s students desireextensive control over how they get their information both in their courses and in their lives, andthe mixture of “life” and “work” information is complex. Many professors have begunproviding some content over the internet, experimenting with podcasting, vodcasting and othermodes2,3. The vast majority of this content is recordings of the conventional classroom lecturesthat students can then access at their
collection.Several laboratory projects utilizing the MaxStream XBee wireless module are presented. The firstlab is designed to introduce this module to the students. The objectives include interfacing themodule to the computer serial port, using HyperTerminal to communicate with the module,configuring the module through AT commands, and verifying functionality of the module throughfile transfer. The second lab is designed to introduce remote data acquisition. Students will design aterminal program utilizing LabVIEW, integrate a temperature sensor, and perform remote datacollection. The third lab will introduce students to personal area networking (PAN). The objectiveis the establishment of a wireless sensor network. It will utilize a star network
materials engineering course which met for 3 hours per week over the courseof a complete academic year (90 total class hours). In essence, the course that we arespeaking of made up 6-8.3% of the units taken by this cohort of students during theirfreshman year. We note that the balance of the curriculum was the usual sequence offreshmen-level communication courses (technical writing, composition, speech),calculus, chemistry, and physics. Some may have also taken courses in computer scienceand computer-aided drawing. In other words, ~91-94% of their total freshmen year ofcourses was similar to other engineering programs in the U.S..During the first of the three-term, freshmen design sequence, students worked in teams offive or six on three projects
definitions and requirements.In addition, Table 1 highlights what is commonly held: that there are aggregate effects ofindividual activities. Isolated acts that are perfectly benign and sustainable, can be unsustainablewhen aggregated. There is a scale effect of professional action; and professions need to look atthe aggregate effects of their action. The natural time and space scales imposed by naturalresources, transcending individual projects and actions, (as well as jurisdictions, lifetimes),imposes a professional burden – to channel individual actions toward sustainable relations with,common property resourcesviii.Lacking this responsibility, “no one is watching the store.” NAE and ASCE are asserting aprofessional role for engineering in
“Hands-On Learningin Engineering” project were Professors J. Dempsey, J. Carroll, J. Taylor, W. Wilcox, and A.Zander. The teaching methodology for the revised ES100 course adapted the ‘integratedteaching and learning’ paradigm pioneered and developed by Drs L.E. Carlson and J.F. Sullivanat the University of Colorado at Boulder. 2 The adaptation at Clarkson is a combination oflaboratory experience woven within an introductory computer course teaching both MATLABand LabVIEW. The goals and objectives of this original proposal are listed below. These goalshave guided the ES100 course revisions throughout all of the twists and turns discussed in thispaper. Significantly, note that just recently (February, 2008), Drs Sullivan and Carlson wereawarded
students, who were contributing to the project only part-time. Involvedstudents, both graduate and undergraduate, were coming from various disciplines, includingmechanical and software engineering, economics, education, business and art design.Exhibit OverviewThe exhibit station consists of two main components: a set of interactive computer games and anexhibit kiosk, which constitutes both the physical display environment and houses the computerequipment 11. These parts are designed to complementarily satisfy the three goals of exhibitdesign, mentioned above. The physical display environment is developed to attract the visitorsand support the knowledge acquisition by presenting content materials and graphic instructionsfor the games. The game
or Steve Jobs than the best music schools can create another Mozart. However,entrepreneurship courses and other activities can increase awareness of the opportunitiesand provide knowledge on what it takes to increase the chances for success in innovation.Like other education, we need to look at works best in doing this. It appears thatexperiential education is embraced as a most powerful way to instill entrepreneurialattributes and even Birch, the critic cited above, said learning could occur inapprenticeships, but projects and internships are not the only ways. Moreover, theexperiential approaches can be costly.Background on entrepreneurship centersAccording to the Kauffman Foundation, about two thirds of the colleges and universitiesin the
AC 2008-1591: A SET OF COMPUTER-CONTROLLED EXPERIMENTS ININTRODUCTORY ELECTRIC CIRCUIT LABORATORIES FOR ELECTRICALENGINEERING (EE) AND NON-EE MAJORSAlexander Ganago, University of MichiganAndrew Watchorn, National InstrumentsJohn DeBusscher, University of Michigan Page 13.100.1© American Society for Engineering Education, 2008 A Set of Computer-Controlled Experiments in Introductory Electric Circuits Laboratories for EE and non-EE MajorsAbstractThis report is focused on development and implementation of a set of Virtual Instruments (VIs)for all lab projects of introductory courses in electric circuits for EE and non-EE majors. Due tousing the Interchangeable Virtual
device with a single word. The nextcategory is the critical or difficult functions to solve, and the final category is the importantcustomer needs transformed into single action verbs. Normally the customer needs are acombination of an adjective and a noun. To be used in the WordTree Method, customer needsmust be converted to equivalent verbs. For example, the verb form of the customer need of “easyto repair” is “repair”. Figures 4-6 illustrate the mission statement, partial functional model andblack box model for a device to fold laundry18. The laundry folding device is intended forstudents with very limited fine motor skills. This design project was originally completedwithout the WordTree Method presented in this paper and then the design
, there is a resulting Page 13.1236.3 significant propagation delay of about 250 milliseconds. As such, GEOs are best suited in non-interactive transmissions such as TV broadcasting,Video on Demand, and asymmetric data services. For interactiveapplications such as voice communications, video conferencing ormultimedia services, the service performance over GEO is a significantdetriment. NASA launched a GEO satellite called AdvancedCommunication Technology Satellite (ACTS) in 1993, with the capabilityto transmit hundreds of megabits per second of information.Because of the growing need in data communication, several companiesare working on satellite projects
. His"Mobile Studio" project developed a hardware/software interface which, when connected tocomputer via USB cable, provides similar functionality to that of the laboratory equipment currentlyassociated with an instrumented studio classroom2. The first generation Mobile Studio was realizedby a tablet PC, and instrumentation interface implemented on a breadboard, and graphic displaysoftware as shown in Fig. 1. The instrumentation interface reads data from and sends signals to thestudent circuit made in the open space of the interface board. The graphic display software allowsstudents, by tapping icons and clicking buttons, to measure and display data and to generate signals.With access to wireless internet for class materials, the portable set
experience while updating critical data sources in the community.This service-oriented student project differs from others in that it is ongoing, designed tocontinue into subsequent academic terms with new student teams building upon theirpredecessors work. This project was made possible by employing the focus group and contentanalysis methodologies. These research methodologies permit a high realism of context and thusenabled the researchers to gain a substantive understanding of the problem area. This led toidentifying both the problem of not having critical data and information after a disaster but alsothe problem of not having the resources to ensure the availability of this data and information.These two problems are simultaneously addressed by
. Page 13.488.2The U.S. Bureau of Labor Statistics predicted total employment is projected to increaseby 10 percent by 2016. The projected increase in total employment will add 8.1 millionjobs in professional and business services, health care, social assistance and industrysectors showing the largest employment growth. Employment increased 12 percentduring the last decade (1996-2006). 1 While global competition and demand areincreasing, the pipeline of new science and engineering talent is not growing fast enoughto keep up with the retirement of the experienced baby boomer generation. Educationand training for these job openings varies, but overall the proportion of occupationsrequiring a college degree will increase between 2006 and 2016. In
an NSF supported research project to develop the nation's first undergraduate curriculum in bioinformatics.David Reynolds, Wright State University David B. Reynolds is an Associate Professor in the Department of Biomedical, Industrial and Human Factors Engineering at Wright State University. He is a Co-PI on WSU's National Model for Engineering Mathematics Education, and has also conducted NSF supported research to develop human factors engineering undergraduate design projects for persons with disabilities.Richard Mercer, Wright State University Richard E. Mercer is an Associate Professor in the Department of Mathematics and Statistics at Wright State University. He is a Co-PI on WSU's