has extensive experience in performance fund- ing, large data set analysis, program review, assessment and student services in higher education. One of his greatest strengths lies in analyzing data related to student learning outcomes and, therefore, to im- proving institutional effectiveness. His work with MIDFIELD includes research on obstacles students face that interfere with degree completion and, as well, how institutional policies affect degree programs. His group’s work on transfer students, grade inflation, and issues faced across gender and ethnicity have caused institutions to change policies so that they may improve. Awards and publications may be found at https://engineering.purdue.edu/people
Electrical Engineering at Monterrey Tech (ITESM-Monterrey Campus). Teaches courses in CAD/CAE, Mechanical Design, Finite Element Method and Optimization. His interest are in the area of product development, topology optimization, additive manufacturing, sustainable design, and biomechanics.Dr. Pavel Ikonomov, Western Michigan University Associate Professor of Engineering, Design, Manufacturing, and Management Systems , has been work- ing on Virtual Reality simulation and 3D printing for more than 20 years. His main focus has been 3-D modeling design and VR simulation in manufacturing and assembly, medical application, large scale dynamic simulation in various research organizations in Japan like Hokkaido University, TMIT
programming skills. Second, based on their ability level, students have the flexibilityand freedom to program the robot to perform simple to complex functions. Third, students canobserve and examine the strategies used by other users to learn programming skills. Fourth, asthe robot performs tasks under program control, it affords the student opportunities to examineand reflect on his/her program by comprehending the behavior of the robot corresponding toeach program block. This feature enhances the reasoned thinking and problem solving skills ofstudents. Fifth, as the maze game challenges students to create effective programs for the robotto collect score points, it provides them a mechanism for formative self-assessment to measuretheir learning
Minnesota. Dr. Mowry spent 25 years in corporate America as an inventor, team builder, R&D scientist, and engineer. His work focused on Nano-technology (both design and processing), materials engineering, micromagnetics, laser optics, and biomedical engineering. Dr. Mowry is also an entrepreneur with experience in several techni- cal startups. He is named on 40 patents along with multiple publications in four different technical fields. In 2003 Dr. Mowry joined the School of Engineering at the University of St. Thomas. He teaches ME, EE, and Physics courses at both the undergraduate and graduate levels. He is the Director of the MSEE program, which has a power emphasis, and the Director of REAL – the Renewable Energy
, individualresearchers contribute to this field using discretionary time from their employers. Within suchan environment collaboration between SSP architects and technologists can be tenuous and lowerin priority than other responsibilities. As a means to provide increased interaction, and of course,to bring benefits to the students, a number of industrial, academic, and not-for-profit subjectmatter experts were solicited to provide mentoring to the summer interns.Acceptance rate by mentors was very high. During the request for their service it was stressedthat their overall effort was expected to be just 4 hours spread across 10 weeks, including: (1)editing and comments on a 2-4 page Research Plan to be completed by each student at theconclusion of week 2; (2
Paper ID #16101What Do Young Makers Learn?Dr. Micah Lande, Arizona State University, Polytechnic campus Micah Lande, Ph.D. is an Assistant Professor in the Engineering and Manufacturing Engineering pro- grams at The Polytechnic School in the Ira A. Fulton Schools of Engineering at Arizona State University.Dr. Shawn S Jordan, Arizona State University, Polytechnic campus SHAWN JORDAN, Ph.D. is an Assistant Professor of engineering in the Ira A. Fulton Schools of En- gineering at Arizona State University. He teaches context-centered electrical engineering and embedded systems design courses, and studies the use of context in
Paper ID #16870Who Will Lead Next: Where are the New Volunteers?Prof. Patricia Fox, Indiana University - Purdue University, Indianapolis Professor Patricia Fox is a Clinical Assistant Professor in the Department of Technology Leadership and Communication in the Purdue School of Engineering and Technology at Indiana University-Purdue Uni- versity Indianapolis (IUPUI). Pat has been a member of the faculty for over 32 years. She has previously served as Associate Chair and Associate Dean in the School. Pat teaches leadership, ethics, sustainabil- ity, and study abroad courses. She has held a number of leadership roles in the
their thoughts during the dyad interview. Four primary questions were used foreach interview. Additional questions were included based on participants’ responses. 1. Futures thinking: Please describe how you considered plausible scenarios of outcome for your collaborative work and its effects on the future changes and solutions for EER. 2. Values thinking: Please describe how societal values or norms of equity, inclusion, and social justice played a part in your work. 3. Systems thinking: Please describe the ways in which you thought about the various components of your project and their part in the bigger context of the engineering education system. 4. Strategic thinking: How did strategic thinking play a part in
Environmental Engineering programs are described in this paperand the results are discussed. Students showed success in implementing the engineeringprinciples into basic engineering problems through a problem-based learning activity. Studentsenjoyed the activities and showed improved learning after the hands-on program. A survey isalso conducted at the end of the activity to understand the students' perception of the conductedactivities and to enhance the program based on students feedback. Overall the summer camp wasvery positive for both the participants and their mentors.Key words: Intro to Engineering, Problem based learning, summer camp, High school studentsIntroductionMaking a decision to be an engineer and choosing an engineering discipline are
Paper ID #30845Reflection in Engineering Education: Advancing ConversationsDr. Jennifer A Turns, University of Washington Jennifer Turns is a Professor in the Department of Human Centered Design & Engineering at the Univer- sity of Washington. She is interested in all aspects of engineering education, including how to support engineering students in reflecting on experience, how to help engineering educators make effective teach- ing decisions, and the application of ideas from complexity science to the challenges of engineering education.Kenya Z. Mejia, University of Washington Kenya Z. Mejia is a second year PhD
about injection molding and process control. Second, it can be used in anautomation and robotics course as a case study of how sensors and controllers can be interfacedwith a machine to make it automated and remotely accessible.System DesignThe proposed design aims to fully automate the original physical system to enable remote controlcapability. The physical system change includes: The piston position manual control will be replaced by a solenoid valve. The mold clamp will be replaced by a screw-rod that is driven by a stepper motor. Pressure control knob and meter are replaced by an electronic pressure regulator, which also has the analog output of the pressure reading. Temperature close loop control is automated
groupidentity can promote a desire to protect one’s group identity against those in other groups.Moreover, those who behave inconsistently with an ideal self will be made to feel anxious aboutfacts that highlight their incongruous behavior [6].This identity theory suggests that when self-proclaimed creative people gather in groups, theywill deeply nurture each other’s creativity and at the same time excoriate other groups’ creativeefforts. Therefore, while individual creativity is difficult to appraise, a group culture can have apredictable effect upon the individual members’ creative expression. This can be seen in art, forexample the Impressionist, Guillaumin, Manet, Monet, Pissarro, Renoir, and Sisley, jointlydeveloped a philosophy and identity in
-yearengineering degree courses in 2002-2004 were female. Therefore there is a clear need toincrease the participation of women in engineering in Ireland and the most direct way tobuild the talent pool in Ireland is through an enhanced focus on undergraduateengineers”4. In a 2005 report published by the Irish Central Statistics Office it was foundthat around 95% of Irish High School students taking higher level engineering,construction studies and technical drawing examinations were male. The patterncontinued at third level with men accounting for around 80% of graduates in engineering,manufacturing and construction5. This trend is then carried forward into engineeringcareers. In Ireland we can find no statistics for women in engineering careers but
of an idea. A student may have apromising idea under development but due to financial pressures, parental concern or self doubtmay choose not to pursue the idea further. Thus a project that could have been a great learningexperience ends. The student takes the potential intellectual property with them into inactivity.Partnerships are an alternative form of business ownership that allows multiple individuals withequal or varying amounts of interest to own a business. There are many advantages to thepartnership model for student entrepreneurs. First, it is easy to set up because little or no legaldocumentation is required. Of course the requirements vary by state. Second it allows for thedisbursements of rewards directly to the partners. This
Paper ID #5964Helping or hurting? Can institutions help disadvantaged students in engi-neering without understanding socioeconomic status?Dr. Valerie C. Lundy-Wagner, New York University Dr. Lundy-Wagner’s is an Assistant Professor in the Higher & Postsecondary Education Program at New York University. In general, her research focuses on how institutions of higher education can improve degree completion, with an emphasis on ethnicity/race, gender, and social class. Her recent work in focuses on socioeconomic status, academic advising, and student outcomes in engineering and other fields. She received her B.S. in Civil
minoritypeople. Within these under-representations, in both all bachelor degrees awarded and allengineering bachelor degrees, an interesting discrepancy is apparent. The statistics showthat the two main groups within the minority population, Blacks and Hispanics, do notearn as many bachelor degrees nor engineering degrees as the remainder of the minoritygroup. Another disheartening statistic is the next generation of minority students, the highschool graduates. The statistics do not give much hope for the future. The futurepopulation trends have been predicted by the U.S. Census Bureau, and if the current stateof minorities in engineering is not improved, the field of engineering will suffer. This paperwill address all of the above items: the current
installed, we compared the water quality of the treated water from thesystem and the untreated city water these orphans usually drink. The results (Figure 3) show asignificant improvement in water quality.As an extracurricular activity, the project took the team four months from design to delivery andsuccessful installation. Although the system is mainly made up of off-the-shelf parts, due to lackof communication with end users, it was very hard for the team to finalize the design.Furthermore, the team was challenged by several logistic issues during delivery and installation Page 25.693.3of such system in the orphanage, which is located a ten
, where she co-directs the Virginia Tech Engineering Communications Center (VTECC). Her research focuses on communica- tion in engineering design, interdisciplinary communication and collaboration, and design education. She was awarded a CAREER grant from NSF to study expert teaching practices in capstone design courses nationwide, and is co-PI on several NSF grants to explore identity and interdisciplinary collaboration in engineering design. Page 25.710.1 c American Society for Engineering Education, 2012 Identification with Academics and Multiple Identities: CombiningTheoretical
communities inRwanda and Haiti. In both places we have continued contact with our local partners that canhave long term results. While the technology things in Rwanda were not very sustainable webelieve the sense of community will continue and will help us in future activities there. Withrespect to Haiti we have, in effect, joined a community of Americans and Haitians that alreadywas well established. This should help us greatly in our future engineering service projects.Lessons learnedWe have learned several important lessons with respect to community engagement in thedeveloping world. Among them are: • Develop long term relationships in the community. This will greatly improve the likelihood that your work will be sustainable. • Spend
wish to offer CIM courses are: (1) thecost of the appropriate equipment, and (2) the relative complexity of a functional and meaningfulCIM environment. It is clear that creating educational systems that emulate the complexity ofindustrial systems for studying CIM concepts for assembly in particular is not a trivial task.This paper describes a general CIM system concept which can be used to design and fabricateproducts built from Lego blocks. Such products are conceptualized and designed within a LegoCAD System from a subset of the available Lego building blocks. Assembly sequences forbuilding these products are carried out by means of robotic devices. Process planning andtrajectory planning software are used to determine the build sequence and
future in sight. The only alternative is to relaxthe requirements, but this cannot be done if quality education is to be achieved. It is necessary to make education possible to all who aspire to improve their academicstanding and hence, their ability to achieve a higher standard of living. It is therefore imperativefor any government that cares for the welfare of its people to enable all the people who have theinterest and the desire to achieve high academic standing to do so, and that is the current Page 8.655.3 “Proceedings of the 2003 American Society of Engineering Education Annual Conference & Exposition
engineeringstudents’ schemas of civil engineering. In our study, 30 graduating civil engineering studentscompleted a word association task using the probe “civil and environmental engineering.” Inthis paper, we describe and interpret some results from this experiment, focusing on therelationships of student’s schemas to the engineering schema implicit in the new ABET learningoutcomes.IntroductionA goal of engineering education is to prepare students for professional practice. This preparationinvolves helping students acquire the skills, knowledge, and attitudes associated with being aprofessional engineering practitioner. In a typical engineering curriculum, students beginacquiring the knowledge, skills, and attitudes through course experiences. Additionally
design and engineering problems1. Students utilize their classroom knowledge of engineering principles while simultaneously developing valuable soft-skills such as teamwork and communication3. The overall effect of the project is an enjoyable, educational, and engrossing experience for the students
-timesystems, communications protocols, and digital control units.IntroductionIn a naive sense it may be said that computer scientists are interested in solving two questions:What problems can be solved with a computer, and if a problem is theoretically solvable, what isthe most effective way to solve it? Answers to the first question arise through development andstudy of models of computation. During the undergraduate experience we introduce students tothe foundations of computation, which address the first question through abstract models of thecomputer. This model is frequently the finite state machine or finite state automaton. Finite state_____________________
began its “Colleges and Universities Initiative,” which targetshigher education institutions with surprise environmental inspections. Learning institutions,particularly in EPA Region 2, have been hit hard with fines in the millions for everything fromunlabelled containers to the mishandling of hazardous waste.4 The maximum civil penalty theEPA can levy for a known violation of the Hazardous Materials Regulations is $27,500.5 Theprice of a cavalier attitude toward safety and environmental compliance in terms of publicrelations, time, and money spent on fines can be very high.Two Separate Laboratory Safety Programs: Undergraduate vs. GraduateTo develop an effective laboratory safety program, the training needs for the undergraduateshould be
environment uses collaborativelearning in an entirely team-based course which utilizes the faculty more as mentors thandeliverers of information. Students focus on social interaction to foster development of theseskills.Pavement Enterprise and ScholarshipThe Pavement Enterprise was created in conjunction with the Thompson Scholars Programwithin the Civil and Environmental Engineering Department at Michigan Tech and is part of theEnterprise curriculum (http://www.enterprise.mtu.edu/students/minor.html). Bob Thompsonestablished the Thompson Scholars program with a generous gift of $3.6 million to fundundergraduate scholarships, graduate scholarships, laboratory improvements, and support todevelop, manage, and operate the Pavement Enterprise2. Bob
computer. All of these activities aregenerally included in a typical highly interactive and engaging classroom.The infrastructure design will be described. Data will be presented on the outcomes of the testingincluding the timing of the data and graphical transmissions. Finally, suggested improvements tothe infrastructure will be made in order to facilitate its use for larger student populations.IntroductionDesigning classroom network infrastructures involves determining the expected bandwidthneeded and the amount of interaction latency that can be tolerated while still maintaining aneffective learning environment. The network implementation that will satisfy these twoparameters depends on the number of students in the classroom, the amount of
spatial visualization. Inthis paper, the author first presents the maximum possible number of orthogonal rotational viewsof an object. Analyses are presented for two spatial visualization tests by their representations ofthe possible orthogonal rotations and the difficulty of visualization. Finally, the author makessome suggestions on the improvements of spatial visualization tests based on the possibleorthogonal rotations.1. IntroductionSpatial visualization skills have been considered important in engineering graphics. In the1980’s, computer-aided design (CAD) was introduced into classrooms, along with thedevelopment of computer hardware and software. Nowadays, three-dimensional (3D) solidmodeling CAD is very popular in industrial applications
multiplemachines. At the same time, it creates a cost-effective solution for the use of available hardwareand lab space by providing laboratory configuration flexibility, maximizing the efficiency ofeach lab room.Imaging is an efficient, automated technique that uses a client-server computer configuration.This configuration allows a client machine to download and install the necessary system andapplication software, virus updates, and security patches by selecting an image file that resideson a server. Two major imaging software programs (Altiris and Norton’s Ghost) each havedistinct advantages for particular applications. This paper will compare and contrast theseadvantages in a university environment.Overview of imaging softwareNorton GhostNorton Ghost
) outcomes. Accordingly, the instrument is directlyaligned to engineering ”soft skills” that are often difficult to measure via individual course examsand projects. The EGPI is not a student survey of perception of their learning; rather, it is a directmeasure of how prepared students are for global workforces in areas of communication,professional ethical responsibility, understanding of global issues and lifelong learning.Subscales for the index were developed accordingly, while also aligning with sound theoreticaland empirical research on global citizenry9, 10 and the National Academy’s expectations forglobal preparedness. The following four subscales are utilized as metrics in the engineeringglobal preparedness index (EGPI). These metrics are