. His tremendous re- search experience in manufacturing includes environmentally conscious manufacturing, Internet based robotics, and Web based quality. In the past years, he has been involved in sustainable manufacturing for maximizing energy and material recovery while minimizing environmental impact.Mr. Carlos Michael Ruiz, Drexel UniversityDr. Michael G. Mauk, Drexel University Michael Mauk is Assistant Professor in Drexel University’s Engineering Technology program.Mr. M. Eric Carr, Drexel University Mr. Eric Carr is an Instructor with Drexel University’s Department of Engineering Technology. A grad- uate of Old Dominion University’s Computer Engineering Technology program and Drexel’s College of Engineering
Engineering Association (JEA), and Society of Industrial Engineering and Operations Management (IEOM). Currently, Dr. Ashour serves as a co-Chair for the Modeling and Simulation track in the 2016 IISE Annual Conference and Expo, a chair for the Sustainable Manufacturing track in the 2016 Detroit IEOM conference, a Director of the IISE Logistic and Supply Chain division, and a Director of the IISE Engineering Economy division.Mr. Keegan O’Bannon, Urick Ductile Solutions Keegan O’Bannon is the sales and product manager for Urick Foundry in Erie, PA. He earned his BS in Industrial Technology with an emphasis in Computer Aided Design and Manufacturing from California State University, Fresno, CA and his MBA from Pennsylvania
promote creativity inthe laboratory since students are told what to do in exact detail[2].Criterion 3b of the accreditation process for engineering programs by the Accreditation Boardfor Engineering and Technology (ABET) requires that graduates from an accreditedengineering program have the ability to design and conduct experiments, as well as toanalyze and interpret data. Engineering laboratories in which students follow detailedprocedures without deviation are unlikely to impart the ability to design and conductexperiments because the students never experience designing experiments and are being ledby prescriptive instructions rather than by a protocol they established on their own. Providedthey follow the instructions correctly, the students
Ethernet and Internet technologies1, 7.In this context, object-oriented languages such as Java have gained importance. Java, which hasevolved with the Internet and related technologies, meshes well with different areas of industrialautomation as well as enterprises 1.This paper presents the development and application of a practical teaching module created atDeVry University that introduces and exposes JAVA programming techniques to electronics andcomputer engineering students well before they learn any of its applications in a junior-levelcourse.Before our course, students have studied only Microsoft Visual Studio-based C++ programmingwith basics of Algorithm design and basics of computer architecture. First of all, we teach themJava with command
Paper ID #32961What’s Next? The Future of Work for Manufacturing TechniciansDr. Marilyn Barger P.E., FLATE, Florida Advanced Technological Education Center Dr. Marilyn Barger is the Director of FLATE, the Florida Advanced Technological Education Center a part of the FloridaMakes Network, and previously funded by the National Science Foundation. FLATE serves the state of Florida as its region and is involved in outreach and recruitment of students into techni- cal career pathways; has produced award-winning curriculum design and reform for secondary and post- secondary Career and Technical Education programs; and
andinfluences, such as Paulo Freire’s, which take the hegemonic capitalist mainstream way of lifeand ideal of development as something to be overtaken; an ideal that must be replaced with“another possible (social-technical) world” and the myriad of the possible good living (buenvivir) it might support. Another possible world, anyway, constructed from the bottom-up, bygrassroots, local groups, and the other 90% or 99% of us, as we get empowered and becomemore conscious (or less alienated).The aim of grassroots engineering goes far beyond simply identifying local groups’ needs orurgencies and designing solutions for them. It goes even beyond designing the desired solutionsto incorporate (or in dialogue with) local group’s values and worldviews as some
, Schwartz accepted a lecturer position in the Department of Computer Science to teach computer programming and develop new introductory courses. Recognizing the academic potential of games, Schwartz founded the Game Design Initiative at Cornell (GDIAC) in the spring of 2001. Soon after, he designed the Cornell Library Collaborative Learning Computer Laboratory (CL3), which started hosting GDIAC courses in August 2004. In May 2006, these efforts established Cornell’s Minor in Game Design offered by the College of Engineering, the first formal Ivy-League game design program. In the summer of 2007, Schwartz joined the Rochester Institute of Technology’s Game Design and Development program as an assistant professor. In 2009
time.”• Syllabus Design – Because the student must present the information to him/herself, a highly detailed syllabus is essential. It must include many dates to act as milestones for student progression assessment. The syllabus must also include detailed course grading policies as well as supplementary texts and references for those who need additional sources.• Tips for Success – At the initial contact and as the course progresses, suggestions to help the student succeed are critical to positive outcome and satisfaction. Areas include technical help (with web browser and course framework), time management and learning via the web. Below are some of the tips used in the certificate program. “use all available tools
Communication and B.S. degree in Physics. Currently, she is a Director of Outreach and Development for the A.J. Drexel Nanotechnology Institute (DNI) at Drexel University. She manages federally funded professional development programs for high school and community college teachers, undergraduate and graduate students, focusing on nanoscale science and technology. She actively seeks funding and partnerships for science, technology, engineering and mathematics (STEM) education and outreach efforts of the DNI. Page 15.422.2© American Society for Engineering Education, 2010 Development
problems, definition problems, numerical problems, and someequation solutions in engineering. Some engineering solutions require that students creatediagrams/graphs that are the solution being submitted. Many learning management systems(LMS) are not able to provide automated try-again feedback on these types of solutions andtherefore the effectiveness of try-again feedback is minimized for graphical solutions. Graphicaluser interfaces (GUIs) are interfaces where a computer allows a student to interact with graphicscontrolled by the user through underlying code. GUIs can be programmed in many computerlanguages. This work uses Matlab GUIs to present students with shear and moment diagramproblems that are interactive with the graphical solutions. A
-basedlearning is presented. Preliminary assessment results are included to show the impact of thecurriculum revision.IntroductionHands-on design and implementation is one of the essential skills that have been recognized notonly by the engineering education community and ABET, but also by industry that employsgraduates from engineering and computer science programs. In the computer networking area,the industry advisors in College of Engineering, Computer Science and Technology (ECST) atCalifornia State University Los Angeles expressed a strong needs of qualified networking Page 22.611.2engineers who not only have a solid understanding of theoretical
AC 2012-5124: REAL-WORLD APPLICATIONS OF MATHEMATICALAND SCIENTIFIC PRINCIPLES IN THE CURRICULUM FOR COLLEGEAND CAREER SUCCESSDr. David I. Spang, Burlington County College David Spang is the Vice President of Academic Programs at Burlington County College in Pemberton, N.J. Prior to being named Vice President, Spang served as Dean of the Science, Mathematics, and Tech- nology Division. Spang holds a Ph.D. degree in materials science and engineering and a M.B.A. degree, with a concentration in innovation and technology management. Prior to joining academia, Spang spent nearly 20 years in R&D and business development.Dr. Kathleen Spang, Middlesex Boro High School Kathleen Spang has been a high school educator for
technology in education; more recent research contributions include papers on learning outcome assessment in both lower-division core courses and in senior-level capstone design courses.Mark C Johnson, Purdue University Mark C. Johnson is the Lab Manager for Digital and Systems Laboratories at Purdue University. He is a Ph.D. graduate of Purdue University in the School of Electrical and Computer Engineering (ECE). He supervises the ASIC Design Lab, Computer Architecture Prototyping Lab, and Software Engineering Tools Lab. He also co-advises project teams in Digital Systems Senior Design. He supports and maintains many of the electronic design automation tools used in ECE, and is involved in the
0.53 with students, engineers, professors, or managers. I believe being a PA will help me secure a job 3.67 1.12 or improve my career prospects. I believe being a PA improved my likelihood of 3.78 0.67 someday pursuing a graduate degree. 3.89 0.33 Being a PA was a valuable experience for me.Resource Concerns and Alternative FundingWhile the focus of this work is the effectiveness of the PLA program and its context in research, ithas to be recognized that all departments have resource limitations. Every intervention must atsome level consider the resource cost burden.Either due to
ensure the optima setting is confirmed • Develop Process Control plan • Design a SPC chart for process owner • Update the charter, project management information • Conduct Final presentation The following case study will provide detailed information 1) Project Charter:of how such a Six sigma project has been conducted. This case The first of such define tools introduced to engineers here atstudy is one of the six team projects conducted in January Bradley University is known as the Project Charter. When2014. Fig. 2 shows structure of the case study. given the task of applying Six sigma methodology to a project
in classroom. Manystudies reported the effectiveness of POGIL-based laboratories in chemistry, biosciences,engineering, and computer sciences education [5-11].We designed and improved the materials and manufacturing curriculum by the POGIL approach,supported by a NSF grant (NSF AWRARD No.: DUE- 1044794). In addition, this NSF projectcould result in establishing an intensive undergraduate research activity for the manufacturingand mechanical engineering technology programs at our institute. As a result from theassessment and evaluation of the project, we were able to identify strengths and weaknesses toreform the traditional-transmission format for students’ learning effectiveness in formative andsummative purposes. The enhanced materials and
as appropriateand it was up to each group to manage the task to completion.4.2 TeamworkWhile the groups were given separate tasks, it was not unheard of for their to be overlap betweenthe different teams on a task. For example, for one of the tasks the students had to create t-shirtsfor the event. This required the marketing team to work with the finance team to create a designand determine the most cost effective way of printing the shirts so as to not go over budget.4.3 CommunicationCommunication played a huge role in this event. Students had to communicate both within theirgroups and also between the groups to accomplish tasks, They also had to design flyers and socialmedia posts to get the word out about their event. On top of
for developing engineering design and manufacturing processes. Students must be madeaware of repercussions related to selection and use of materials. Using case-based courseinstruction involving student teamwork, an interactive course is developed to raise theenvironmental literacy of upper-level undergraduate and graduate engineering students, and tointegrate principles of engineering economy specifically for materials processing andmanufacture.With an understanding of both environmental and economic repercussions of materials selection,undergraduate students will make more informed decisions in undertaking their Senior DesignCourses, and graduate students will be compelled to include aspects of these concepts in theirresearch objectives
Arizona State University in 2001. Her research interests include information literacy, instructional technology, and literature and technology. Page 13.1368.1© American Society for Engineering Education, 2008 Using virtual teams to improve information literacy and distributed cognition in a collaborative writing and general chemistry assignmentHow might individual information literacy skills contribute to the work of the group? Would across-curricular assignment generate observable communication related to distributed cognitionduring virtual team activities?IntroductionTwo
member of the teams for damage evaluation caused by earthquakes in Mexico City, Mexico; California, USA; Puerto Plata, RD; and Chile. He has conducted research projects supported by National Science Foundation (NSF), Federal Emergency Management Agency (FEMA), and Nuclear Regulatory Commission (NRC), among others. He is member of the Earthquake Engineer- ing research Institute (EERI), the American Society of Civil Engineers (ASCE), the American Concrete Institute (ACI), and is secretary of the Earthquake Commission of the Engineer’s Professional Association of PR.Ernesto Luis Diaz MEM, Puerto Rico Climate Change Council Coastal and Marine scientist. Director of the Puerto Rico Coastal Management Program and coordi
(or enlightenment). When students are shockedand/or awed by a display or presentation, they pay attention and actively participate. In addition,a university is often faced with a group of prospective students, but only has limited time toexplain many different facets of engineering. Data exists showing that in today’s“digital/information age” teens can process large amounts of information in a short time span iftheir interest-level warrants. The shock and awe methodology based on existing models hasbeen developed and tested to show that students can be enticed and informed about a university’sengineering program within a limited time span. “Shock and awe” helps students graspinformation in a dynamic manner (not unlike the imagery presented by
Gordon-MIT Engineering Leadership Program at Massachusetts Institute of Technology, where he has taught in engineering leadership, design, and ethics. His current research centers on engineering work and careers, with a focus on engineering career pathways and student persistence. Prior to joining MIT, James served as a mechanical engineer and engineering manager in the aerospace industry.Alison Olechowski Alison Olechowski is an Assistant Professor in the Department of Mechanical & Industrial Engineering and the Troost Institute for Leadership Education in Engineering (Troost ILead). She completed her PhD at the Massachusetts Institute of Technology (MIT) studying product development decision-making during complex
development, engineering education, project management and teamwork. Her current research focuses on integrating project management pro- cesses in undergraduate education. Her main goal is to understand how work management and product development practices widely used in industry can be modified and adapted to streamline undergraduate STEM education. ©American Society for Engineering Education, 2023 Literature Review of Analyzing and Predicting Students’ Performance in Examinations AbstractBackground: Student dropout continues to be a critical problem in education. The soonerstudents at risk of dropping out are identified, the
of engineering, science, and even thehumanities. The estimated throughput is approximately 500 students per year (about 170 studentsper semester). The development of our Class 10,000 cleanroom and the operation of our facilityare described elsewhere.1The process we have developed follows a manufacturing scheme to fabricate simple devices andsimple testable circuits. We design our photolithography masks in AutoCadTM and print them onstandard transparencies using a high-resolution Alps MicrodryTM printer. This simple mask designand generation procedure allows process flexibility at minimum cost—a complete maskset costsless than a dollar. Further, such simplicity will allow advanced students to design, fabricate, andtest wafers using their own
. © American Society for Engineering Education, 2022 Powered by www.slayte.com Future Career Pathway Perceptions of Lower-Income Computing Students Through the Lens of Capital Exchange1. BackgroundWhile significant broadening participation efforts in computing higher education have focusedon gender and race [1]-[3], the experiences of lower-income students in undergraduatecomputing education are as yet underexplored. One major effort focused on lower-incomestudents is the National Science Foundation (NSF) Scholarships in Science, Technology,Engineering, and Mathematics (S-STEM) program, a funding program designed to supportlower-income students to persist and succeed in STEM fields. The
engineering technology programs,collaborating faculty developed a linked assignment that they offered over two years ofinstruction.MethodThe students involved in this study were enrolled in sections of a general educationchemistry course and an upper-level technical writing course. Faculty designed a linkedassignment consisting of two face-to-face meetings (if enough time was available in thesemester), asynchronous virtual meetings, shared file functions, and a large-grouppresentation. The combined classes were under thirty students in number, most of whommajored in professional pilot, aviation maintenance, engineering technology ortechnology management programs.Student teams of maximum five participants were composed of two chemistry studentsand two
increasing attention biotechnology hasreceived in the mass media is attracting many students to the emerging, interdisciplinary field ofbioengineering. The number of bioengineering and biomedical engineering departments in theUnited States has increased substantially during the last decade to support this growing interest.In 1995, fewer than 20 biomedical engineering departments in the U.S. were ABET accredited.In 2005, there are over 110 universities that teach courses in bioengineering or biomedicalengineering to undergraduate students.2At schools around the country, bioengineering is rapidly becoming a very desirable major. In1990, less than 4,000 students were enrolled in undergraduate biomedical engineering programs;in 2003 there were over
as a self-assessment tool for graduate students and early career researchers to prompt introspection andreflection to identify strengths and developmental gaps in research portfolios [8], [11], [12]. Using these entrepreneurial attributes combined with the Vitae Researcher DevelopmentFramework (RDF) as a binding framework, future faculty professional development moduleswere designed and embedded into three engineering and engineering education graduate coursesat two major R1 institutions in the eastern United States over multiple semesters. Feedbackgathered from students and instructors were used to iteratively revise and re-design aspects of theprofessional development modules over the course of multiple semesters. A subset of
their growth as scholars?MethodologyThe Civil Engineering program at USMA requires courses in statics, basic mechanics, andstructural analysis as its foundation. These foundational courses are then heavily utilized incourses on steel and reinforced concrete design. USMA adds breadth to the program byproviding courses for students in infrastructure engineering, site civil engineering, geotechnicalengineering, hydrology and hydraulic engineering, and construction management.9 This studyfocuses its attention on a population of students during its progression through the two coursesequence in engineering mechanics. The first course, Fundamentals of Engineering Mechanicsand Design (MC300), introduces the engineering design process through the
cultural [15].xi The work thatresults, which is designed to instigate participation through its redefinition, becomes aninstrument through which the residents might mobilize to address land challenges, urbanplanning, management and governance issues [7].xiiFinally, those working in shadow-cities must allow for measured failure within this dialogicalprocess. After all, if the size, cost, complexity, location and program of the work are truly upfor discussion, then the option to stop the conversation, at any point, must also be allowed. Attimes this call to stop an aspect of the growing dialogue, manifest in the people ignoring ordestroying the created work, will occur at the beginning of the conversation; at times it willoccur near its end. Either