AC 2012-4728: EXPLORING NANOTECHNOLOGY WITH ELECTRO-SPINNING: DESIGN, EXPERIMENT, AND DISCOVER!Ms. Jennifer S. Atchison, Drexel University Jennifer S. Atchison holds a bachelor’s of science in materials engineering and is currently a Ph.D. can- didate in the Department of Materials Science and Engineering at Drexel University. Before returning to Drexel for her graduate education, she worked at the American Competitiveness Institute and JDS Uniphase as a Reliability Engineer. Her research, under the guidance of Dr. Caroline Schauer, is fo- cused on exploring electrospun polyelectrolyte nanofiber composites for sensing applications. She also has experience in optics, photonics, and near field scanning probe
organizationsprovide some resources, they do not seem to have a large impact on the problem. An individualmust be motivated to seek them out, implying that that person’s interest has already beencaptured.At the university level, the problem of energy literacy is being addressed in several areas. Thefirst area addresses materials and teaching expertise for K-12 teachers15,16,17. Another idea is toinclude energy topics in courses that are already being conducted, such as thermodynamics, heattransfer and fluid mechanics18,19,20,21. Other courses have been specifically developed as electivesto address specialized topic areas22,23. Still other courses emphasize service learning24,25,26.Nevertheless, the state of energy education in higher education is dismal. For
model in order to perform the analyses. Additionally, approximatemethods were brought back into the course, and the students are required to use them to evaluatethe results from the computer software package. This requirement is important in addressing amajor deficiency that many new graduates have: the lack of ability to evaluate whether thecomputer results make sense or someone committed an error in the input. Course materials(including projects); student acceptance and performance; and course assessment and evaluationwill be addressed in the paper. IntroductionThe many education conferences, workshops, and sessions on engineering education that havetaken place over the last two or three decades seem
course of the semester through interim assignments,presentation and papers.There are 1000 points possible in the course, 380 of which are earned individually. Thisallows a particularly strong cadet to excel and not be unfavorably assessed based on thepoor performance of his or her group members. Those points are assessed based on apeer review system for each major assignment and four quizzes (see table below). Thequiz material is a review from their previous courses in the sequence, SE300 and SE350,and should serve as a preview of the material to come as their project moves forward inthe SEMP. TotalEvent Lesson Points Individual Group % CourseDesign
Equations"Mechanics is the paradise of the mathematical sciences, because by means of it one comes to the fruits ofmathematics." – Leonardo da VinciA mathematical approach is unquestionably the most exact, effective and economical way inengineering problem solving as well as in engineering education. Problem-solving is defined asa process used to obtain a best answer to an unknown or a decision subject to some constraints.(Mourtos 2004) In traditional engineering classes, the students’ ability to comprehendengineering principles can successfully be obtained by manually solving a series of multipleengineering problems of progressive difficulty in the same fashion as most engineering textbooks
and developed twotiers of teaching materials, one for the seniors and one for the sophomores and started to use thematerials in the fall. The physical models are valuable tools for introducing the sophomores tothe essence of chemical engineering. By devising some design exercises around the model, Igenerated some excitement in the sophomore class. For the senior class, the models serve asexcellent validation for the design concepts they have learned in class. I have also madearrangements for the senior class to visit the exact same plants represented by the models in theChevron Refinery.In order to encourage other faculty members to use the physical model approach, I have startedpreparing a teaching manual entitled “Teaching Chemical
Melton applied EML within the context of PBL andpresented a framework to demonstrate how to incorporate stakeholders, opportunityidentification, and value creation in a fluid mechanics course [7]. EML is being promoted byKern Entrepreneurship Education Network (KEEN) and implemented at many institutions. 3Csof the entrepreneurial framework are defined as: 1. Curiosity. Students are encouraged to demonstrate constant curiosity about our world, and explore different solutions, which empowers them to investigate the rapidly changing world and motivates them to become life-long learners. 2. Make connections. Students integrate information from many sources to gain insight, assess, and reveal innovative solutions. 3. Creating value
. Composites visual and microscopic inspectionmay indicate that the composite is undamaged but in actuality may have lost up to 70% of theiroriginal strength due to chemical changes resulting from heat damage.This paper will discuss implementation and comparison of portable laser induced fluorescencesystem and laser induced imaging system to detect heat damage in composites. These systemswere considered because conventional methods are not suitable to detect the aforementionedheat damage but are meant to detect mechanical damages such as cracks and material loss.In an effort to understand the implementation of the techniques involved in the detection of heatdamage in polymer composites, this paper will discuss the results from the previous study
Context 1 AEEN 1310 Computer graphics & app MEEN 1310 Engineering graphics 1SOPHOMORE LIST OF COURSES CEEN 2301 Mechanics I Statics MEEN 2302 Mechanics II DynamicsJUNIOR LIST OF COURSES CEEN 3311 Strength of Materials CEEN 3145 Counstruction MaterialsAt the lower levels (i.e. freshman, sophomore, and junior), exposure to curricular designexperiences included a supportive layer of peer mentoring to promote student success. A studentmentor (called a “design mentor”) was assigned to each student design team in the specifiedcourse. The project design experience was first integrated into courses in Spring of 2013. Designmentors met with their student teams at specified times during class/lab hours and at least oneadditional
vehicles for teaching this content to students who may have differenttechnical backgrounds are presented.IntroductionTechnical writing and communication courses assist engineering and technology students indeveloping and enhancing communication skills they may have to call upon in their careers.Students typically are introduced to audience-centered writing and the elements of technical styleand gain practice writing descriptions, reports, proposals and instructional material. Ideally, atthe end of a typical course students should be able to strategize a communication need, researchthe needed technical content, analyze the needs of the audience, select a format, organize theinformation and construct a clear and effective communication that
sophomore level.A design project titled "Teaching Tools for Teachers" have been implemented at a local highschool by an engineering student 12. The project visually reinforces some of the mathematicaland scientific concepts pertaining to Engineering Mechanics and provides a platform forintroducing engineering design to high school students.Freshman engineering students are also giving presentations related to their freshman leveldesign projects, to local high schools. This activity has not only improved the general awarenessof engineering and physics education, its benefit and socio-economic impact in the localcommunity but has also impacted recruitment efforts significantly.Sophomore Education majors are being encouraged to be involved with local
is interested in research in improving undergraduate engineering education; including develop- ment of inquiry based activities for first year engineering courses, improvement of student design projects, hands-on activities, professional skills development and inclusion and outreach activities. Dr. Blum also specializes in high performance materials development and characterization for tribological (friction and wear), structural, and biomedical applications.Dr. Natalie Russo, Syracuse UniversityDr. Melissa A Green, Syracuse UniversityProf. Shikha Nangia, Syracuse University c American Society for Engineering Education, 2020 Peer Mentoring for Women in STEMIn 2013 a
electrical engineering, mechanical engineering, etc. A systems engineering based concept curriculum, that provides foundation for a broadbased major discipline such as electrical engineering, is presented. This is proposed as a domain centric systems engineering program under the Bachelor of Science in Electrical Engineering program. The motivation to develop such a program stems from the growing industry demand for systems engineers who are equipped with skills related to development, evolution and verification of lifecycle based system solutions for a variety of applications in the areas of power and energy, telecommunications and information technology, robotics and control systems, and hardware and
computer animated films were nationally and internationally screened in New York, Chicago, Hollywood, San Fran- cisco, and Tokyo in industry recognized competitions as the International Video Art Competition, the New York Festivals, and the American Film Institute. McAfee is also active in web-based virtual reality projects. His research includes digital archaeology of a deteriorating ancient tomb in Sicily to help preserve and visualize its’ characteristics for future study. His collaboration with Florida International University’s International Hurricane Research Center showed how certain roof construction materials may become projectiles during high wind events. For the FAU Center for Environmental Studies’ Sea
as thermodynamics, mechanics of materials, and fluid mechanics, which link theoreticalideas to aerospace. This proper sequencing of topics helps the students build on the knowledgethey have already gained before moving to the next level of subject matter .Thus, the ontology-based reasoner can help LLMs identify gaps in the knowledge, ensureunderstanding at the appropriate level, and provide focused responses at every level of learning.This is because they are able to identify the relationships between aerospace engineering conceptsin a way that is beneficial to the development of education in this subject area.4.2 Concept-Course Integration in Aerospace EngineeringFig. 7 depicts the combined and interconnected nature of concepts and courses
Paper ID #29351The Relationship between Teamwork and Innovation Outcomes in anEngineering Thermal Science Course: An Entrepreneurial MindsetSimulationMs. Thien Ngoc Y Ta, Arizona state university Thien Ta is a doctoral student of Engineering Education Systems and Design at Arizona State University. She obtained her B.S., and M.S. in Mechanical Engineering. She has taught for Cao Thang technical college for seven years in Vietnam. She is currently a graduate research associate for the Entrepreneurial Mindset initiative at the Ira A. Fulton Schools of Engineering at Arizona State University. Her doctoral research focuses on
management skills needed to facilitate their advancement in the corporate structure.”Brief HistoryNorthwestern University is a research-oriented private university with more than 17,000 studentsenrolled in twelve academic divisions on two lakefront campuses. The Robert R. McCormickSchool of Engineering and Applied Science has approximately 165 full-time faculty and anumber of adjunct faculty serving about 1400 undergraduate students and 1100 graduate studentsdistributed throughout eight departments (Biomedical Engineering, Chemical and BiologicalEngineering, Civil and Environmental Engineering, Electrical Engineering and ComputerScience, Engineering Sciences and Applied Mathematics, Industrial Engineering andManagement Sciences, Materials
multidisciplinary backgrounds, blurring thelines between discipline-specific boundaries. Machines, materials, and processes constantly growin complexity due to their purpose and flexibility as well as customer expectations. However,there is growing emphasis on engineers with “professional skills” as well. The NationalAcademy of Engineering (NAE) in two reports [1],[ 2] stresses the need for engineers to possessleadership abilities. The former emphasized engineering graduates “must understand theprinciples of leadership and be able to practice them in growing proportions as their careersadvance.”Fundamental engineering, very applied and hands-on, is a stated need by industry. The ASMEVision 2030 [3] states that the problems that mechanical engineers work on
Paper ID #13185Making practical experience: Teaching thermodynamics, ethics and sustain-able development with PBL at a bioenergy plantDr. Darinka del Carmen Ramirez, ITESM (Tecnol´ogico de Monterrey) Ph. D. Darinka Ram´ırez is a professor at the Chemical Engineering department of ITESM (Tecnol´ogico de Monterrey), Campus Monterrey, Mexico. She has a B. S. in biochemical engineering at IT La Paz, M. S. in chemical engineering at Tecnol´ogico de Monterrey, and Ph. D. in Educational Innovation also at Tecnol´ogico de Monterrey. She teaches mainly Material Balances, Energy Balances and Thermodynamics to undergraduate students
levels (for mechanical,manufacturing and industrial engineering students).The term ‘Information Based Manufacturing’ (or INBM) broadly refers to theInformation Technology based principles, modeling approaches and computingframeworks, which are enabling the creation and deployment of global virtualmanufacturing enterprises. INBM recognizes the substantial impact that information(and its seamless exchange) has on the accomplishment of manufacturing activities(especially in a Virtual Enterprise oriented context). Today, the role of information in amanufacturing enterprise has changed dramatically: information is recognized as apowerful entity, which drives the accomplishment of manufacturing activities andintegrates various life-cycle activities
Paper ID #15437A Scalable Course Project to Accommodate Academic VariationDr. Huihui Qi, Grand Valley State University Dr. Qi is an assistant professor in Mechanical Engineering at Grand Valley State University. She earned her Ph.D degree in Mechanical Engineering from Rutgers University. Dr. Qi’s teaching interests include Engineering Design, Solid Mechanics, Mechanical System Design and Computer Aided Design. Dr. Qi’s areas of interest and expertise include design sustainability, Life Cycle Assessment, decision making for optimal design, and Computer Aided Design.Dr. Hugh Jack, Western Carolina University Dr. Jack is
programobjectives. These were patterned after the U.S. Military Academy West Point learning modelsand went through several revisions as the task force moved through the process of planning theintegrated curriculum.Designing the Integrated Curriculum:During the design of the integrated curriculum, the task force needed to assure other concurrentissues were addressed: • The curriculum meets the program goals and objectives developed from ABET, ASCE, CE Industry Advisory Council, academia review, and questionnaires. • The necessary course material is integrated into the appropriate areas or applications. • The technical content of the program is not adversely affected. • The program is moving toward a learning based program
2006-1015: ENGINEERING ETHICS AND MORAL THEORIES: A STUDENTPERSPECTIVEWilliam Jordan, Baylor University WILLIAM JORDAN is Professor and Department Chair of Mechanical Engineering at Baylor University. He has B.S. and M.S. degrees in Metallurgical Engineering from the Colorado School of Mines. He has an M.A. degree in Theology from Denver Seminary. His Ph.D. was in mechanics and materials engineering from Texas A & M University. He teaches materials oriented courses and his main research area deals with the mechanical behavior of composite materials. He also writes and does research in the areas of engineering ethics and engineering education. He is a registered metallurgical
Paper ID #18869Integrating Reverse Engineering and 3D Printing for the Manufacturing Pro-cessDr. Akbar M. Eslami, Elizabeth City State University Dr. Akbar Eslami is a professor and Engineering Technology coordinator in the Department of Tech- nology at Elizabeth City State University. He received his Ph.D. in Mechanical Engineering from Old Dominion University. His research interests are in Computer Aided Manufacturing and Design, Reverse Engineering, Finite Element Analysis, Computational Methods, and Data Acquisition. c American Society for Engineering Education, 2017 Integrating Reverse Engineering
Paper ID #34701The (Augmented) World Is Our CampusMr. David S. Pixton, Brigham Young University David Pixton is a subject liaison at the Harold B. Lee Library at Brigham Young University. In this role, he is responsible for providing research training and assistance to students and faculty within the majority of engineering and technology fields offered at the university. He holds degrees in Mechanical Engineering and Library and Information Science. David’s current research is focused on improving learning in a library environment, including the use of augmented reality for educational purposes, and a pedagogical
these examples highlightstheir potential as valuable tools for educators. By grounding theoretical conceptsin real-world analogies, we aim to inspire broader adoption of intuitive teachingmethods,thereby advancing the effectiveness of modern control systems education.This paper is not suggesting to modify or replace textbook chapters, instead is anadd on material instructors may use.AcknowledgmentsThis work was supported in part at the Technion through a fellowship from the LadyDavis Foundation. The authors would like to thank Michael Levine for his continuedsupport of this project.References[1] Brianno D Coller. “A video game for teaching dynamic systems & control to mechanical engineering undergraduates”. In: Proceedings of the 2010
AC 2012-2938: USING FINANCIAL SUPPORT TO CREATE A LEARN-ING COMMUNITY AMONG DIVERSE COMMUNITY COLLEGE STEMSTUDENTSDr. Amelito G. Enriquez, Caada College Amelito Enriquez is a professor of engineering and mathematics at Caada College in Redwood City, Calif. He received his Ph.D. in mechanical engineering from the University of California, Irvine. His research interests include technology-enhanced instruction and increasing the representation of female, minority, and other underrepresented groups in mathematics, science, and engineering.Ms. Catherine Baker Lipe, Caada College Page 25.1426.1
. Prior to moving to Syracuse, she taught for several years at Madison Area Tech- nical College. Her interests include development of engineering faculty attitudes and pedagogy, teaching professional skills in the engineering classroom, and engineering outreach at the K-12 level.Dr. Michelle M. Blum, Syracuse University Dr. Blum specializes in high performance materials development and characterization for tribological (friction and wear), structural, and biomedical applications. Her primary research interests are in the development of orthopedic biomaterials, and biomaterial characterization utilizing a combination of ex- perimental techniques, nanoindentation, and soft material contact mechanics simulations. Dr. Blum is
skills beyond classrooms (such as in industry or researchposition); however, training students using commercial software packages is too expensive asstated above. In addition to high costs, there are several other challenges such as availability of alimited number of licenses which may not be sufficient for the entire class. For instance, if only 8licenses of commercial software are available, but a class consists of 15 students, then, analternative strategy of instruction such as dividing the class into groups and teaching the groups indifferent shifts must be adopted. As the same teaching material is delivered to different groups atdifferent times, the effective class hours get compromised for learning new things. Besides,students may only be
engineer [7].Figure 2 - Attributes of the global engineering professional are conceptualized in a three dimensional space consisting oftechnical, professional and global domains[7]Within this model, the authors suggest that the further along one of the dimension axis the individualengineer is, the closer they are to being competent in that domain. There has been a significant level ofknowledge developed around the concept of globally competent engineers such as those presented at theNational Summit Meeting on the Globalization of Engineering Education in [8] as part of exploring therational for teaching globally competent engineers. Brigham-Young University’s Mechanical Engineeringdepartment worked with their alumni in 48 states and 17 countries