“interventions that center predominately onequipping, changing, and fixing the student, rather than on doing the more challenging work ofassessing the ways institutions and departments are perpetrating racism and other “isms” inSTEM, which leaves these structures under- or unexplained” (p. 634). For example, summerbridge programs are commonly hosted by predominantly white institutions (PWIs) to “prepare”students for integration into the engineering curriculum, usually focusing on academic and socialimprovement, offering workshops like math tutoring sessions or interview panels with currentengineers [14], [15], [16]. In developing programs that focus on “fixing” the student to fit thecurrent and historical engineering culture, we foster problematic
Paper ID #40534From Ash to Action: Student-Led Sustainable Trail Resurfacing Using Mt.Mazama Volcanic AshDr. Ashton Danielle Greer, Oregon Institute of Technology Ashton Greer is an Assistant Professor in the Civil Engineering Department at the Oregon Institute of Technology, where she teaches freshman to graduate-level courses across the curriculum. Ashton’s back- ground is in water resources engineering, but she also teaches the First-Year Engineering course sequence for the Civil, Electrical, and Renewable Energy Engineering programs.Dr. Charles Riley, Oregon Institute of Technology Dr. Riley has been teaching structural
, master planning, management for energy conservation/renewable energy projects and space planning for campus expansion. As a senior administrative leader, I have facilitated climate action planning in com- pliance with the American College and University Presidents’ Climate Commitment (ACUPCC) and re- ceived the Outstanding Climate Leadership award that recognized successful carbon reduction strategies, innovative curriculum and the dynamic engagement faculty, staff and students in a the pursuit of carbon neutrality. Although my primary formal training has been in the field of architecture, recent doctoral studies at the University of Pennsylvania were focused in the field of higher education management. As part of an
Paper ID #24944A Program to Prepare Engineering Students to Obtain High-Quality Employ-mentDr. Gregory Scott Duncan, Valparaiso University G. Scott Duncan is an Associate Professor of Mechanical Engineering at Valparaiso University. He re- ceived a BSME (1990) from Purdue University and Ph.D (2006) in Mechanical Engineering from the University of Florida. His research has focused on machine tool dynamics and the development of sys- tems and components for the area of concentrated solar thermal chemistry.Dr. Jeffrey Will, Valparaiso University Will completed his B.S.E.E., M.S.E.E., and Ph.D. degrees from the University
Thermo/Fluid Courses”, AIAA 47th Aerospace Science Meeting and Exhibit, AIAA paper no. AIAA-2009-570, January 2009.3. Penney, R., Lee, R, Magie, M., and Clausen, E., “Design Projects in Undergraduate Heat Transfer: Six Examples from the Fall 2007 Course at the University of Arkansas”, Proc. of 2007 Midwest Section Conference of ASEE, Wichita, KS, September 2007.4. Smith, A., Volino, R., and Flack., K., “Design of a Heat Sink in an Undergraduate Heat Transfer Course, Proc. of ASME 2012 International Mechanical Engineering Congress and Exposition, Houston, TX, November 2012.5. Mokhtar, W., Duesing, P., and Hildebrand, R., “Integration of the Project-Based Learning (PBL) into the Mechanical Engineering Programs
NSF funding from June 2018 to May 2022. "Broadening Participation ResearchProject: Charting a Path to Trans-disciplinary Collaborative Design" which was a three-yearprogram to evaluate, test, and model pedagogic methods in an existing interdisciplinary (OldDominion University engineer and engineering technology and Hampton architect) hybrid set ofcourses studying adaptation to sea level rise for urban neighborhoods in Norfolk, Virginia.The current curriculum emphasizes both classroom instruction and hands-on experience in aworking design studio. Students in engineering, architecture, and science programs were studiedto determine what pedagogical tools, curricular support, and teaching tactics are most effective inencouraging trans
Hamilton Mayled is a PhD candidate at Grand Canyon University. She is pursuing her PhD in Psychology of Learning, Education, and Technology. Her background in in K-12 education where she has served as a high school science teacher, Instructional and Curriculum Coach, and Assistant Principal. Her research and areas of interest are in improving STEM educational outcomes for Low-SES students through the integration of active learning and technology-enabled frequent feedback. She currently works as the Project Manager for the NSF faculty development program based on evidence-based teaching practices.Ms. Elizabeth Lopez, Arizona State University Elizabeth Lopez is a Master’s student at Arizona State University studying
effectiveness of the proposed hybrid course. Two lines of assessment will be made. Proceedings of the 2007 American Society for Engineering Education Pacific Southwest Annual Conference Copyright © 2007, American Society for Engineering EducationConcept inventories (CI): They have recently emerged as tools for assessing students’understanding of the basic concepts in engineering education. By undergoing a rigorous processof validation, engineering concept inventories can provide meaningful primary assessmentthroughout a curriculum or an specific course such as Vector Statics. The effectiveness of thiscourse is measuring by:1. Integrating previously developed and tested Concept Inventory test specifically for Staticsthroughout
(ST), which is why we propose to think how to include, in engineeringeducation, some of the abilities or skills from ST, and from the math education perspective. Thereport [2] explicitly mentions the work done by Senge [4] and motivated by this fact this paperaims to show the advantages and benefits of incorporating systems thinking in a math class. It ishoped that through this, it can be stated that the wealth of integrating the two seemingly disjointin two different disciplines (Systems Thinking and Mathematics). The present work shows theresults of the design of an innovative course of Differential Equations (DE), by means of usingmodeling and computer simulation, to have an active learning environment [4]. This course hasbeen taught for
cities inU.S. have pledged to obtain100% of their electricity from clean sources. This should revitalizeinterest in the search of new clean energy sources that could feasibly replace fossil fuel combustiondriven power cycles. It was demonstrated in 1954 that an untapped sustainable energy source issalinity gradient (SGE). The energy produced from water salinity is a clean, non-polluting and freeof CO2 emissions with minimal environmental effects and is available on a continuous basis. Thereare different techniques for converting salinity gradient energy to electricity making it an attractiveresearch topic that should be included in today’s energy curricula and textbooks to prepare studentsfor tomorrow’s diverse energy supply. To better prepare
field application, and useindustrially relevant equipment. Many of the interdisciplinary experiments are developed byprofessors that have decades of industrial experience. From fall 2018 to date, ENDEAVOR hasdeveloped four interdisciplinary laboratory courses and are developing two new courses.Specifically:(a) Engineering Toolbox (Freshman – Sophomore), new course: This course is focused on provided freshman and sophomore with skills to include mill, lathe, CNC, additive manufacturing, circuits, data acquisition, and integration. This skill building endeavor is built around the students manufacturing a working impeller pump. The students will compete to build the best pump with the winner getting an automatic A for the course. In
, technology, engineering and mathematics (STEM) fields, linking other researchers andpractitioners (industry) to innovative research, and informing the public of research results andtheir impact on society. The George E. Brown, Jr. Network for Earthquake EngineeringSimulation (NEES), an NSF-funded network of 14 large-scale experimental laboratoriesconnected by a robust cyberinfrastructure, completes its tenth year of operation in September2014. Its mission is to reduce the impact of earthquakes and tsunamis on society throughresearch, innovation, engineering, and education. Since the launch of NEES in 2003 the EOTprogram has grown from a federation of outreach activities run independently at the experimentallaboratories to an integrated network of
includes two innovativeapproaches: (1) Building-block development style: Inspired by kids’ building blocks that could beassembled into an object however with good modularity (i.e. the building blocks can be easily reshuffledand assembled into different smaller objects), we are developing five project-labs trees (including cardiacmonitoring, mental health, sensor/RFID integration, medical security, and long-distance medicaltransmission). Those 5 project-lab trees are independent, i.e. there are no time order and contextrequirements among them. Therefore, each project can be used for a senior project class or in differentengineering courses (such as real-time systems, circuit /digital design, wireless communications, etc.). (2)Multi-Dimensional
College of Georgia, Gwinnett Medicaland the Medical Center of Central Georgia, UPS and the Centers for Disease Control andPrevention. The GIFT program also has an active Advisory Board composed of university Page 11.247.9research and corporate mentors as well as educational leaders from school districts. GIFT ismanaged by the Center for Education Integrating Science, Mathematics and Computing(CEISMC) at Georgia Tech. GIFT operates under the philosophy, supported by educational research mentioned above,that by providing teachers with rich, in-depth and content-rich experiences in “real world”science, engineering, and technology, the
Paper ID #37498Teaching Post-Tension Concrete Design: Leveraging PracticalIndustry ExpertiseRyan Solnosky Ryan Solnosky is an Associate Teaching Professor in the Department of Architectural Engineering at The Pennsylvania State University at University Park. Dr. Solnosky has taught courses for Architectural Engineering, Civil Engineering, and Pre-Major Freshman in Engineering. He received his integrated BAE/MAE degrees in architectural engineering from The Pennsylvania State University in 2009 and his Ph.D. in architectural engineering from The Pennsylvania State University in 2013. Dr. Solnosky is also a
, MADI Associate Professor of the Chair of Sociology and Management Page 26.1239.1 c American Society for Engineering Education, 2015 Pre-admission education for better adapt freshmen Dr. Alexander Solovyev, Dr. Larisa Petrova, Dr. Viacheslav Prikhodko, Dr. Ekaterina Makarenko Moscow Automobile and Road Construction State Technical University (MADI)IntroductionUsually a person passes several levels of education. Transition from one educational level toanother is an integral part of youth’s life. In Russia there are 3 stages of school
is the opinion of the authors that ePortfolios canmeet the goals of causing student self reflection, integration of coursework, and documentationof learning outcome achievement in either a one-time effort in a single course or a moredistributed effort spread over several years and several courses, however the distributed model ismore likely to produce a more polished product and more thorough student engagement. Use ofePortfolios is easily included in professional development and senior capstone design courses,where they are a natural way to present an expanded / illustrated resume or capstone projectreport. It is more challenging to find authentic approaches to incorporate ePortfolios in courseswith specific technical content such as Auburn
Virtual Reality for Green Energy Manufacturing Education AbstractThis paper presents the project-based learning result of green energy manufacturing integratedwith virtual reality (VR). This work provides an innovative solution for optimizing learningeffectiveness and improving educational outcomes through the development of virtual models thatcan be used and integrated into the existing renewable energy laboratory. The goal is to apply theseprototypical simulators to train undergraduate engineering students and professionals in windenergy education; and to offer experiential learning opportunities in 3D modeling, simulation, andvisualization. The students were given multiple projects
students bringwith them, (2) teachers must teach some subject matter in depth, providing many examples inwhich the same concept is at work and providing a firm foundation of factual knowledge, and (3)teaching of meta-cognitive skills (self-reflection strategies) should be integrated into thecurriculum. Finally, technology-enhanced strategies and instructional design principles should beincorporated into teaching practices. Page 22.373.4New Approacha) Learning outcomes – aligning lectures, homework, labs, quizzes, examsWith the introduction of the new App assignment to an already busy course schedule, alignmentof all course components and seamless
visiting or tenure track positions.IntroductionInternational faculty join US institutions to teach in engineering programs among otherprograms. The positions they pursue could be permanent as in tenure-track positions ortemporary as the case in visiting positions or other forms of employment. An internationalfaculty member pursuing a career in academia is usually faced with a decision regarding the kindof position he/she plans to take. Those who love research activities will pursue a career ininstitutions that also value research activities more that teaching. Others who love teaching anddesire to keep it their main focus are likely to pursue a career at teaching institutions that valueteaching excellence and without great emphasis on research
models for both the NASA Langley Research Center and NASP related programs. In particular, Mr. Trucco has been involved in planning and designing a low speed premixed combustion test apparatus for NASA Lewis and premixed and diffusion type super- sonic combustion tests for NASA Langley, the design and manufacture of a laser diffuser model for NASA Ames and an x-ray scanner for computerized tomography for an industrial client, the design of a transonic wind tunnel for NASA Langley and the development of industrial burner concepts to improve combustion efficiency and reduce emission levels. He has also been responsible for an analytical study of bypass turbojet engines with supersonic fans for NASA Lewis, for design of
. IntroductionStudents must be taught to think critically, communicate, and work together effectively.At TCI, The College for Technology we have over 4000 students who speak 100different languages. In the EET (Electronics Engineering Technology) program, ourstudents work toward an AAS degree in 5 semesters. Teaching critical thinking as part ofthe course curriculum is a goal.Problem solving provides a key element in Engineering Training. To develop criticalthinking, students are assigned teams. The members of each team have only English as acommon language. Each team works on problems as a unit. Students learn to formulateword problems. They begin by drawing a picture of each problem and then discussingthe objective of the problem.Because the teams function as
the undergraduate engineering curriculum, including which programs tend todiscuss ethics, where it falls in the curriculum, and how much attention it receives [38]–[40].This inconsistency in quantity and quality of engineering ethics education across engineeringprograms is problematic given the importance of ethical conduct as professionals. It is alsopredictable, however, given the generality of the Accreditation Board for Engineering andTechnology (ABET) student learning outcome (outcome four) associated with ethics: studentsshould have “an ability to recognize ethical and professional responsibilities in engineeringsituations and make informed judgments, which must consider the impact of engineeringsolutions in global, economic
2006-1878: USING SYSTEMS DESIGN TO CONSTRUCT A NEW FRESHMANCOURSEJohn Robertson, Arizona State University John Robertson is a professor in the College of Science and Technology at the ASU Polytechnic in Mesa, Arizona. His research interests are in process control and data management for integrated circuit production, especially novel non-volatile memories. From 1994 to 2001, he was a Director in Motorola’s Semiconductor Products Sector and before that, he held the Lothian Chair of Microelectronics at Edinburgh University, UK.Richard Newman, Arizona State University Richard Newman is Director of Training for the Microelectronics Teaching Factory at the ASU Polytechnic campus. He has
Paper ID #13434Aligning ”making” with Manufacturing Technology EducationDr. Marilyn Barger, FLATE: Florida Advanced Technological Education Center of Excellence Dr. Marilyn Barger is the Principal Investigator and Executive Director of FLATE, the Florida Regional Center of Excellence for Advanced Technological Education, funded by the National Science Founda- tion and housed at Hillsborough Community College in Tampa, Florida since 2004. FLATE serves the state of Florida as its region and is involved in outreach and recruitment of students into technical career pathways; has produced award winning curriculum design and
http://www.utep.edu/green) and student development. The green engineeringbuilding design contest is a student development activity that strengthens the bondbetween our commuter students and the University community that serves them.Figure1. The Green Engineering Building Contest is an example of the activities thattake place in the MIE academic support model.Impact on the design of the Engineering AnnexSince integration of green engineering concepts into the design of the Engineering Annexwas a late addition to the construction project of which the budget, location, space, andbuilding functionality were already defined and approved by the Board of the Universityof Texas System, only designs that would not affect the already defined
(they were radical troublemakers who had no idea of how the world really was) and so I and my female engineering friends never took any interest in such separatist groups who just gave the rest of us a bad name, and made it more difficult for us to be ‘one of the guys’.2.2 Current student experiences: being ‘equal’ Page 3.432.2These ideas have actually developed even further in the last decade or so. Today, students areconditioned to believe even more in ‘equality’: there is no concept of ‘difference’ in mostschool leavers’ minds. Here is a recent comment from an interview exploring the need for agender inclusive curriculum with a
these students to observe simplephenomenon and take an interest in how things work. To make a point, students are forbidden to search theinternet. Evidence of such activities are considered violations of academic integrity. Students must provideoriginal work. This proof to be stressful for some students. Missing Interconnected Experiences –While this issue is not an integral part of this project, themost concerning observation is that almost no student recognized that the front and rear defrosters in anautomobile are two proven solutions to this problem. Almost habitually, all drivers apply hot air onto thefront windshield and activate heating cables embedded in the rear windshield. The lack of connectionbetween this everyday habitual
Session 3425 Invention and Creative Design: Getting from Thought to Thing Kathryn W. Jablokow The Pennsylvania State UniversityAbstractThis paper describes a course entitled Invention and Creative Design that is currently taught aspart of the Systems and Software Engineering programs at Penn State University’s School forGraduate Professional Studies. The course was designed to support several modules in theseprograms, including a core skill-based module and a module focused on innovation. This paperwill provide an overview of the objectives and the content of this
ofstudents, demand that we don't simply follow but become a leader for innovative approaches andmodels for an equitable, post-carbon, circular economy that supports a human flourishing andecological integrity. There is a need and opportunity to create a coherent program to form newengineering graduates capable of meeting technical engineering requirements woven with thesocial, economic, political, environmental, and other facets central to sustainability and resilience.In response, an interdisciplinary team of researchers proposed the creation of a new SustainableEngineering (SE) Minor at UPRM as part of a larger plan to develop a new Bachelor's degreeprogram in this area. This plan will allow concrete developmental progress while acknowledgingthat