engineering principles with math and sciencecurriculum standards. Between meetings, teachers were encouraged to collaborate with thefaculty and fellow participants by e-mail, invite engineering faculty to their classrooms to serveas resource teachers and talk about careers in engineering, bring groups of students to campus fortours and activities, and prepare their students for engineering-based competitions.In the era of No Child Left Behind, school districts evaluate all professional developmentactivities on the extent to which they support the implementation of curriculum standards. Theproject team provided orientation for the engineering faculty on mathematics and sciencestandards and encouraged them to develop their institute sessions in
share of “solar” and “wind” has been considerably growing in thepast few years, and the trend is increasing over time. According to the Bureau of Labor Statistics(BLS), “solar photovoltaic installer” is the occupation with the highest percentage ofemployment with the growth rates of 105%, between 2016-2026 [3]. Based on the informationfrom the department of energy (DOE) depicted in Figure 2, about 42% (2015), 43% (2016), and40% (2017) of the job market in electric power generation technology was dedicated to solartechnicians. These statistical data indicate the importance of curriculum development for solarenergy technology to train hands-on students and technicians to meet the future job market. Fig 1. Renewable energy generation growth
includes, but isnot limited to planning, design, teaching, applied or fundamental research, publicadministration, or utility operation and the EnVEBOK must address all these forms ofpractice. Individuals receiving a degree in environmental engineering may neverpractice environmental engineering, but rather may seek other professional degrees, suchas law or medicine, or follow an entirely different career path. Therefore some pathsbeginning with a baccalaureate degree in environmental engineering may not lead tocomplete EnVEBOK fulfillment.The EnVEBOK builds on the body of knowledge appropriate for all engineers thenexpands into areas specific and unique to environmental engineering. The EnVEBOKprovides a guide for curriculum development and reform
or mismatched understandingscan lead to inappropriate career decisions, ineffective curriculum, and poor performanceevaluations. This paper describes a process and defines the profile of an engineer performingwell in professional practice. Developed with input from both academic and non-academicengineers, the profile presents technical, interpersonal, and professional skills or behaviors thatalign with key roles performed by the engineer. The profile is a valuable resource for educatorsand for students aspiring to become high performing professionals in the field of engineering.IntroductionSociety holds high expectations of people in professions entrusted with the well-being of peopleand society as a whole. The engineering profession, for
Experiences in Developing a Web-based Assessment System Troy Harding Engineering Technology Department Computer Systems Technology Kansas State University – SalinaAbstractLike many departments around the country, the Engineering Technology Department at KansasState University – Salina is trying to find ways to effectively manage assessment of its programs.Students in the Web Development Project course were assigned the task of developing aprototype assessment system to manage and track student learning outcomes. In addition, thespecifications called for a way to track suggestions for program and
AC 2012-4467: EFFECTIVE ENGINEERING PROFESSIONAL DEVEL-OPMENT FOR ELEMENTARY EDUCATORSKristin Sargianis, Museum of Science, Boston Kristin Sargianis is a Program Manager on the EiE Professional Development team. She has been a part of the EiE project for over seven years, working on curriculum development as well as professional development and research/evaluation efforts. Sargianis was previously a K-2 classroom teacher at Anova: The Massachusetts School for Science, Creativity, and Leadership. She received her B.S. in biology from Cornell University and has worked as a research assistant conducting studies on ecological and marine systems.Sharlene Yang, Museum of Science, Boston Sharlene Yang is the
discipline of chemical engineering (ChE) focusedon concept-based instruction. The project plan is to develop and promote the use of a cyber-enabled infrastructure for conceptual questions, the AIChE Concept Warehouse, whichultimately could be used throughout the core ChE curriculum (Material and Energy Balances,Thermodynamics, Transport Phenomena, Kinetics and Reactor Design, and Materials Science).Conceptual questions, both as Concept Inventories and ConcepTests, will be available throughan interactive website maintained through the Education Division of the American Institute ofChemical Engineers (AIChE), the discipline’s major professional society. The overall objectiveis to lower the activation barrier for using conceptual instruction and
, Mobile Area Education Foundation Judith Duke is a retired elementary and middle grades classroom teacher. She received an undergraduate degree in elementary education from Mobile College and a master’s degree in middle school mathematics education from the University of South Alabama. For two years she served as a master teacher for the SECME (Southeastern Consortium for Minorities in Engineering) Summer Institute. She is currently working for the Mobile Area Education Foundation as K-8 Program Coordinator supporting projects such as the Engaging Youth through Engineering (EYE) Program, a STEM initiative centered around workforce development. As part of the EYE Program she helps develop STEM curriculum for the middle
Paper ID #10405Integrative Stem: Design and Implementation of an 8th grade TechnologyCurriculum (Research to Practice)Mr. Norman ”Storm” Robinson III, Georgia Institute of Technology Norman ”Storm” Robinson, III is an award winning educator, curriculum designer, presenter, professional development trainer and instructional coach. He has offered programs that have inspired teachers and students to increase interest and participation in STEM/STEAM courses and concepts. His energy, content knowledge and instructional strategies are supported by research and delivered in a style that is relatable and receptive and impacts
appropriateconstruction materials. The project required the students to complete a series of assignmentswhich reflected significant stages in the engineering design process, and culminated in the“Sustainable Development Design Fair” where one team from each of the forty-one workshopsections competed for one of three awards decided by a panel of faculty judges. Supplementaleducational material was also presented in the lecture and workshop sessions to aid the studentsthrough this assignment. Results of the project are discussed and include a focus groupinterview and online surveys conducted to assess the effectiveness of this new approach ofintroducing design in the early part of engineering curriculum.1.0 IntroductionA new department of engineering education
2006-864: ENGINEERING EFFECTIVE MIDDLE SCHOOL TEACHERPROFESSIONAL DEVELOPMENTM. David Burghardt, Hofstra University Dr. M. David Burghardt is Professor, Chair of the Engineering Department, and co-Director of the Center for Technological Literacy at Hofstra University. He is the author of 11 engineering and technology education texts, numerous publications, and is Principal Investigator of the NSF MSP grant, Mathematics, Science and Technology Education Partnership.Maryann Llewellyn, Uniondale School District Dr. Maryann Llewellyn is Deputy Superintendent of the Uniondale School District and oversees the curriculum and instruction in the district
provide a case study. Funds were provided by aHewlett Foundation curriculum improvement grant to update and improve the microcontrollertrainer used in a senior-level microcontroller course. The course is required in both theElectrical and Computer Engineering degree programs. The course employs theMotorola/Freescale HC12/S12 processor as the target processor. Page 25.643.5 Figure 2. The Dragon12-Plus-USB evaluation board. Image used courtesy of Wytec.11A masters candidate in the electrical engineering program was selected for the project due to astrong background in computer engineering. Several meetings were held to develop projectrequirements. The project requirements were determined to be:• Select an
AC 2010-76: INTELLIGENT RUBE GOLDBERG USING VEX ROBOTICSDEVELOPMENT SYSTEMArif Sirinterlikci, Robert Morris UniversitySushil Acharya, Robert Morris University Page 15.787.1© American Society for Engineering Education, 2010 Intelligent Rube Goldberg Using Vex Robotics Development SystemAbstractRube Goldberg development is commonly used in early engineering education, especially infirst-year programs and introduction to engineering courses as well as secondary schoolengineering activities. Regardless of the problem, the concept of utilizing Rube Goldberg inengineering education is about having engineering students understanding the
curricula are basedon applications of conservation laws. Conservation of mass and energy is typically the firstcourse in a chemical engineering curriculum. Conservation of momentum including statics anddynamics is often the foundation course in mechanical engineering. Finally, conservation ofcharge provides the basis for an introduction to electrical circuits. With the support of a NSFgrant (1988-1994), a team of educators at Texas A&M University developed the textbook,Conservation Principles and the Structure of Engineering [6]. This text presents the applicationof the conservation equations across all engineering disciplines and is used in a cornerstone,sophomore-level course in their unified engineering curriculum. The textbook that we
Session 3586 Case Study Development under the TEFATE Project* Susan Randolph Jackson State Community CollegeThe Tennessee Exemplary Faculty for Advanced Technological Education(TEFATE) project was the result of a National Science Foundation ATE grantdesigned to educate an interdisciplinary group of faculty who would provideleadership in communications technology curriculum development1. A primaryproduct of this project was twenty-five case studies designed to deliver academiccontent and develop problem-solving skills in engineering technology courses.Each of the twenty-five cases joins academics with the workplace
clubs (inner city - coed, private male, private female). The assessment toolswill be developed with these populations in mind. Furthermore, an assessment mechanism mustbe developed to capture the learning outcomes of the Villanova students. Surveys are currentlybeing developed.ConclusionEngineering service learning projects can take on many forms. The work of NovaCANEpresented herein demonstrates that a small group of engineering students dedicated to service canhave a dramatic impact on the lives of middle school students. The curriculum presented canserve as a model for other engineering students and faculty interested in middle schoolengineering education. NovaCANE continues to use this model for the 7th grade club at St.Martin of Tours. A
also provides an overview of the electric vehicle drive train andcorresponding engineering roles and skills, and reviews recent employment descriptions of whatindustry expects. Prospective curriculum items are discussed including identifying major topicalareas for electric vehicle courses and a specific topical outline for an introductory electric vehiclecourse. Finally, the paper forecasts the need for resources including facilities, laboratoryequipment and faculty development in this area.IntroductionThe world of electric vehicle development is changing fast. Plug-in hybrid vehicles exist todaywhere two electric hub motors provide power to the rear wheels, but the development focus hasshifted to an all-electric vehicle that uses one electric
. Thisbackground knowledge and experience that students bring to the project is then complimented byintroducing the students to the UDL Guidelines [6]. Readings to orient students included onlinearticles on learner-centeredness, UDL guidelines, curriculum development and instructionaldesign, learner-centered design, multimedia learning, open education, and research methods fordocument analysis (see Table for the list of topics and links).Table. Selected online articles to orient students on the project. Full-citations are included in theReferences. Topic Citation Link UDL Guidelines [6] https://udlguidelines.cast.org/ Learner-Centeredness [14] https
not originally addressed,because the program, prior to the 2000’s was not sufficiently large to enable an ongoingmanufacturing laboratory. With the advent of increased enrollments and more flexible program feeexpenditure spending policies, a manufacturing laboratory was possible for the MechanicalEngineering Department.Given the current Engineering educational program’s emphasis on the design process and productrealization, the manufacturing lab development was to require at least the same design context forthe laboratory offering. Other universities have shown a similar emphasis, from a curriculum-wideemphasis of design and manufacturing to a constrained laboratory experience where themanufacturing component is present to support the overall
paper removed.1. Introduction Page 26.528.2A major objective for the Department of Engineering and Design at Western WashingtonUniversity (WWU) is to provide a hands-on technical experience alongside development offundamental concepts. This is best achieved through the incorporation of industry-sponsoredprojects into curriculum, allowing undergraduate students to apply concepts from theircoursework to real world problems and gain invaluable research experience. This project focuseson the development of a lab scale prepreg treater for the use in formulation, testing, anddevelopment of new thermosetting resins systems.A major function of the
. Page 12.1100.1© American Society for Engineering Education, 2007 New Developments for Courses in Embedded MicrocontrollersAbstractThis paper describes new course outcomes and laboratory tools used for teaching EmbeddedMicrocontrollers at Western Washington University. These developments include the newFreescale 9S12 University board and the application of both ‘all-in-one’ and ‘stamp’ typedevelopment boards in the curriculum. Basic fixed-point DSP programming, and an introductionto the Controller Area Network (CAN) will also be discussed.IntroductionIn this paper I will talk about some of the changes we have made here at Western WashingtonUniversity’s Electronics Engineering Technology program8. Specifically, changes to the juniorand
research interests particularly focus on what prevents students from being able to integrate and extend the knowledge developed in specific courses in the core curriculum to the more complex, authentic problems and projects they face as professionals. Dr. Koretsky is one of the founding members of the Center for Lifelong STEM Education Research at OSU.Prof. John L. Falconer, University of Colorado Boulder John L. Falconer is the Mel and Virginia Clark Professor of Chemical and Biological Engineering and a President’s Teaching Scholar at the University of Colorado Boulder. He has published more than 225 papers and has 12 patents in the areas of zeolite membranes, heterogeneous catalysis, photocatalysis, and atomic and
American Society for Engineering Education Annual Conference & Exposition” Copyright 2002, American Society for Engineering Education”understanding problems from different points of view and how it was “interesting” to think aboutand to try to understand them.ConclusionsThe findings of this project have clear implications for the continued development of multi-media supported curriculum modules. The project designed, created, and tested an inquiry-basedapproach to learning that used multi-media tools to bring the “real world” to the classroom.Preliminary evidence was found to support an impact on college students’ cognitive andaffective domains. Further work in this mode of instruction and learning should be continued
Session 1526Micro-Controllers in the Biological and Agricultural Engineering Curriculum at The University of Georgia Takoi K. Hamrita University of GeorgiaAbstractThis paper is to report on a NSF sponsored project aimed at implementing a new pedagogicalapproach for teaching embedded systems to engineering students who do not necessarily have anelectrical/electronics background. In particular, we will present two microcontroller coursesdeveloped at the University of Georgia for Biological and Agricultural Engineering students.Educational
Polytechnic Institute was founded with the technical assistance from the USSR in1963. The Polytechnic had eleven degree awarding departments and the curriculum of allthe departments were developed using models from Polytechnics that existed in theUSSR at that time. Furthermore, the laboratory equipment to support the curriculum wasalso based on the technology in the USSR at the time. The curriculum was developedover three decades ago and has not been updated in the light of new technologicaldevelopment around the world.Since then, the beautiful campus of KPU has reverted to a wilderness and the buildingshave been severely damaged due to neglect and war damage. Furthermore, some of theacademics have been killed or forced to leave the country and those
laboratory is used toreinforce concepts learned in class through the use of simulations and tutorials, while alsointroducing students to computational modeling using MATLAB. Descriptions of all laboratoriesdeveloped for this course can be found in the course’s curriculum development webpage.4We have extended two tutorials adapted from materials from the University of Colorado-BoulderPhET5 simulations to include a computational component along with short validationexperiments: Laboratory: The Wave Equation Conceptual goal: Become comfortable with the mathematical formalism of differential equations with boundary conditions. Understand how applying boundary conditions leads to quantization. Experimental goal: Use the pattern of standing
, university partners, and high school tech-prep teachers. The current paper describes aninnovative approach to curriculum development and delivery that improve engineering andtechnology education and revive student interests in pursuing these programs. A description ofhow curriculum integration using the case study approach can be used as a promising method forthe enhancement of technology education is also discussed. Finally, a sample case is given andexamined. The authors are members of two of the SEATEC teams, and teach in 4-year electricalengineering technology programs.I. IntroductionIntegrating physics, mathematics, and communication skills in engineering and technologyeducation is very essential in today’s technologically driven world
Engineering to Transform the Education of Analysis, Measurement, & Science (EngrTEAMS) project is an engineering design-based approach to teacher professional development that has 50 teachers per year designing curricular units for science topic areas related to the Next Generation Science Standards. The project includes summer professional development and curriculum writing workshops, paired with coaching, to allow teams of teachers to design engineering curricular units focused on science concepts, meaningful data analysis, and measurement. Each unit goes through an extensive design research cycle to ensure its quality and is published in an online format for use across the United States and beyond. In 2013
development of engineers that exhibit an“entrepreneurial mindset coupled with engineering thought and action expressed throughcollaboration and communication and founded on character.” [1] In support of this, KEEN hascreated a framework of student outcomes and example behaviors that may be used to inform thedesign of programs seeking to develop an entrepreneurial mindset. These outcomes andbehaviors are centered around what KEEN calls The 3 C’s - curiosity, connections, and creatingvalue. Specific example behaviors of curiosity, connections, and creating value as described bythe KEEN framework may be seen in Figure 1 [1] and it is through this lens that we haveincorporated entrepreneurially minded learning into our undergraduate curriculum. Fostering
engineering education does an excellentjob of educating students to apply important principles but has room for improvement indeveloping the necessary creativity skills required to solve complex problems. Figure 1 Creative and Routine Problem Solving [9]Barriers to EntryThere are understandable reasons why engineering curricula historically neglects developing andassessing creativity as a learning outcome. First, there is an increasingly large body of technicalknowledge that is important for engineering students to master and an ever-decreasing number ofstate mandated credit hours in which to address them. We may be concerned that adding non-technical elements to the curriculum will necessarily reduce the technical content