Society for Engineering Education” controllers. Part 5: Messaging service specification defines the data communication between programmable controllers and other electronic systems using the Manufacturing Message Specification (MMS, according to International Standard ISO/IEC 9506. Part 7: Fuzzy control programming defines basic programming elements for fuzzy logic control as used in programmable controllers. Part 8: Guidelines for the application and implementation of programming languages provides a software developers guide for the programming languages defined in Part 3.Part 6 is not present since it is reserved for future use. Part three of the
programming for the industry and community.The Programming Learning Center at the College of Applied Science was successful inhelping first year students and to bring the industry prospective to academic live throughits informal seminar series.References Page 9.1252.4 1. Said, Hazem, “Information Technology Education and Community Development: A Partnership”, Proceedings of the 2002 Conference for Information Technology Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition Copyright © 2004, American Society for Engineering Education Curriculum, Rochester, NY 2. John
Copyright © 2005, American Society for Engineering Education”the effects of dispersion that can be explained to undergraduate engineering technology students.Most texts use one or more of the following approaches: • First-order pulse spread formula • Pulse propagation equation • Linear system modelI will discuss all of these approaches briefly in the sections that follow and note some advantagesand disadvantages. I will focus in particular on the trade-off between the level of detail providedby each approach and ability of engineering technology students to comprehend it. I will thenintroduce an analogy: a marathon footrace, which exhibits dispersion very dramatically. Finally,I will exploit this analogy to develop a straightforward
the PLC student to have a working knowledgeof networks and network protocols. Setting up a network of PLCs and accompanyingHMI computers should be the responsibility of the electrical engineer or engineeringtechnologist. The establishment of a stable network is critical to the success of a projectand should be addressed in a course such as this. Network security, while not necessarily Page 10.1029.7a part of this course, should be addressed in the curriculum at some point.Proceedings of the 2005 American Society for Engineering Education Annual Conference &Exposition Copyright © 2005, American Society for Engineering
2148 Teaching Instrumentation for MET and EET using LabVIEW™ software with Vernier® and National Instruments® hardware Desrochers, M., Powers, M. Michigan Technological UniversityAbstract:Measurement, data collection and interfacing are a critical part of the everyday manufacturingand engineering world. It is important that today’s technology students are exposed tomeasurement and data acquisition. This paper summarizes two courses, one from theMechanical Engineering Technology curriculum and one from the Electrical EngineeringTechnology curriculum, where LabVIEW
redevelopment of theCET-2030 class as it was returned to the program’s curriculum.Course Development, Objectives and Philosophies After progressing through several academic years under the semester system, the CETprogram administrators found an area within the project management curriculum focus tocombine two classes into one offering. This opened up the space and allowed the return of theConstruction Graphics course, paving the way for the revamped approach to the dormant course. The CET-2030 class is a sophomore year, spring semester offering. The class carrieswith it the prerequisite of the program’s freshman level Architectural Graphics class (CET-1100)in which students learn basic graphical presentation while gaining an understanding
Engineering’s Extended Campus Programs in Paducah, Kentucky, where he has taught for 14 years. His PhD and MS studies in ChE were completed at Van- derbilt University, and his BSChE at the University of Alabama. Silverstein’s research interests include conceptual learning tools and training, and he has particular interests in faculty development. He is the recipient of several ASEE awards, including the Fahein award for young faculty teaching and educational scholarship, the Cororan award for best article in the journal Chemical Engineering Education (twice), and the Martin award for best paper in the ChE Division at the ASEE Annual Meeting
Paper ID #40026Faculty Development by DesignDr. Kathryn Dimiduk, Cornell University Kathryn Dimiduk is the Director of the McCormick Teaching Excellence Institute in the College of En- gineering at Cornell University. She received her B.A. in Physics from Cornell University and her Ph.D. in Applied Physics from Stanford University. Following 20 years of university level teaching, she now works with engineering faculty on improving teaching across the college. She has been the director of the McCormick Teaching Excellence Institute in Cornell Engineering since 2008. ©American Society for
A System Approach in Energy Engineering Curriculum Oguz Soysal, Frostburg State University, Frostburg, MD osoysal@frostburg.edu“Fundamentals of Energy Engineering” course developed at Frostburg StateUniversity has been offered to senior level physics and engineering majors since2012. Along with conventional primary sources, integration of renewable andalternative sources of energy is covered with an emphasis on solar and windpowered electric generation. An overview of energy flow from primary sources toconsumers through processing facilities, power plants, fuel transportation,transmission, and distribution network is presented using a system
resources of educators and students, a technological solution is proposedto address the problems with concept learning in individual courses. A set of software tools hasbeen developed to design, deliver, and evaluate course material through the Internet. Thesoftware tools also provide a means of relating material between different courses to promoteconceptual learning within and between courses. As such, these tools employ the concepts ofcurriculum integration and are termed the Integrated Curriculum Delivery System. Thus, byintegrating the knowledge content of distinct courses into a unified whole, the IntegratedCurriculum Delivery System seeks to provide information to educators and students in a mannerthat will support deeper conceptual
technical writing instructions that are sharedwith students and mapped to various courses throughout the curriculum. The faculty have developedspecific assignments and grading rubrics designed to progressively assess student communication skills andimprove student development in technical writing.Recent evaluation of the curriculum during the 2021 fall semester resulted in the initiation of acomprehensive study to investigate how and when technical writing is taught in the civil engineeringcurriculum. Faculty members were interviewed to identify gaps in teaching and assessing technical writingskills in the curriculum. Preliminary assessment of the results indicate that students gain experience in awide variety of technical writing assignments such
AC 2007-2268: STUDENT CURRICULUM MAPPING: A MORE AUTHENTICWAY OF EXAMINING AND EVALUATING CURRICULUMLisa Romkey, University of Toronto Lisa Romkey is the Lecturer, Curriculum, Teaching and Learning with the Division of Engineering Science. In this position, Lisa plays a central role in the continuous improvement of the design and delivery of a dynamic and complex curriculum, while facilitating the development and implementation of teaching and learning initiatives and innovations. Lisa is cross-appointed with the Department of Curriculum, Teaching and Learning at OISE/UT (Ontario Institute for Studies in Education at the University of Toronto). Lisa holds a Masters in Curriculum Studies and
process10. The use of the term staged-based implies that leadershipis more complex than a linear representation might imply. While stages are linear, they are alsocyclical. This implies that leadership development, in accordance with the model, is more of a(engineering) system where stages are repeated, development is refined, nurtured, and expandedwith each returning experience. Sometimes referred to as a helix representation, the LID reflectsa deeper and more complex understanding with each cycle through a stage8. The helixrepresentation parallels Bruner’s spiral curriculum 11, 12 of increasing structure complexity andhigher levels of domains of knowledge with each iteration of a subject that enables students to beactive participants in their own
Paper ID #8931Engaging Youth through Engineering Modules (Curriculum Exchange)Dr. Susan Atkins Pruet, STEMWorks Dr. Susan Pruet has been actively involved in STEM education – as a teacher, teacher educator and di- rector of reform initiatives for over 30 years. Since 1998 she has developed and directed two STEM reform initiatives for the Mobile Area Education Foundation (MAEF): the Maysville Mathematics Ini- tiative and, most recently, Engaging Youth through Engineering (EYE), a K-12 workforce development and STEM initiative in Mobile, Alabama. Both initiatives involve valuable partnerships with the Mo- bile County
-length class)All classes apply project-based learning, i.e., the use of classroom projects to facilitate learningand assess student competence. This instructional method provides students with complex tasksbased on challenging questions or problems that involve the students’ problem-solving, decision-making, and investigative skills. Students develop valuable research and design skills. Project-based learning promotes new learning habits that emphasize creative thinking.During their first three years of study, 100 students per grade are enrolled in an integratedproject-based curriculum that collectively covers, in an interdisciplinary fashion, the contentcontained in 1) a standard laboratory science physics course, 2) a standard visual and
thereafter. She has developed Education and Outreach programs for TISI and texasinvasives.org to engage K-12 students, hobbyists, stakeholders, and citizens of all ages and backgrounds over various topics regarding invasive species prevention and native species protection. She provided her expertise of USDA Biosecurity protocols and invasive species identification, biology and management to help develop this Biosecurity Curriculum for High School students in Texas.Devyn Matthews AnimatorJacob Brandon © American Society for Engineering Education, 2022 Powered by www.slayte.comWork in Progress - Statewide Agricultural Biosecurity Curriculum for High
, educational agencies and organizations.Dr. Jeremy V Ernst, Virginia Tech Jeremy V. Ernst is an associate professor in the School of Education at Virginia Tech. He currently teaches graduate courses in STEM education foundations and contemporary issues in Integrative STEM Education. He is also a Fellow of the Institute for Creativity Arts and Technology at Virginia Tech. Jeremy specializes in research focused on dynamic intervention means for STEM education students categorized as at-risk of dropping out of school. He also has curriculum research and development experiences in technology, engineering, and design education.Dr. Vincent William DeLuca, North Carolina State University V. William DeLuca, Ed.D. Dr. DeLuca
group problem solving strategy. They should be able to recognize and contribute to therelationship of the engineering enterprise in the socio-economic context. The development of themotivation, knowledge base, and intellectual capability for career-long learning is important.Some of the approaches to enable students to learn how to “work smarter” are: 1. Interdisciplinary, vertically integrated real design projects 2. Collaboration with colleges of arts and sciences, business and medicine in curriculum development 3. Coupling between engineering technology & engineering programs that emphasize complementary and evolving roles in the workplace 4. Experiments in professional master’s degree 5
Session 1526 Curriculum for Integrating Manufacturing Enterprise Decisions (CIMED) Shivakumar Raman, P. Simin Pulat, Bob L. Foote, Hank Grant, Adedeji B.Badiru University of Oklahoma/ David Pratt, M. Kamath Oklahoma State UniversityAbstractThe second year of a three year effort directed toward the development of a research/teachingenvironment that focuses on integrated manufacturing and enterprise modeling is being pursuedthrough a joint effort by The University of
Pre-Service Teachers in Preparation for NGSS: MedicalMission Drop (Curriculum Exchange)Target Grade Level: Pre-Service Teachers, K-12 applications, Elementary 3rd-6thAnne Marie Bergen, Cal Poly State University, ambergen@calpoly.eduKatherine C. Chen, Cal Poly State University, kcchen@calpoly.eduIn preparation for the Next Generation Science Standards (NGSS), a team of teachers, scienceeducators, and science and engineering professors at a comprehensive polytechnic university arecollaboratively developing engineering modules for pre-service teachers in the Liberal Studies major.These engineering modules are designed to expose future teachers to the field of engineering and toserve as examples of hands-on activities that
Session 2461 STARTING AN INTEGRATED HUMANITIES/SOCIAL SCIENCE PROGRAM FOR AN ENGINEERING CURRICULUM: CURRICULUM AND COURSE DESIGN Melvin Cherno Division of Technology, Culture, and Communication School of Engineering and Applied Science University of Virginia Anyone interested in establishing a cross-disciplinary program that integrates thehumanities and social sciences into an undergraduate engineering curriculum will have to makeat least four major decisions. This paper offers some advice based on the
Session 3661 STARTING AN INTEGRATED HUMANITIES/SOCIAL SCIENCE PROGRAM FOR AN ENGINEERING CURRICULUM: CURRICULUM AND COURSE DESIGN Melvin Cherno Division of Technology, Culture, and Communication School of Engineering and Applied Science University of Virginia Anyone interested in establishing a cross-disciplinary program that integrates thehumanities and social sciences into an undergraduate engineering curriculum will have to makeat least four major decisions. This paper offers some advice based on the
environment. Biosystems Engineering is distinct from BiomedicalEngineering (also known as Bioengineering), which focuses on medical applications. While there are commonalities in BE curricula around the world, there are also differencesdue to the rate and manner in which programs are developing. Some of the differences inprogram development have hindered widespread recognition of the field. Internationalization ofBE curricula could play an important role in addressing the need for unification, future evolutionand development, and enhanced visibility of the discipline. A consortium of four European and two U.S. institutions received funding in 2009 throughthe EU-US Atlantis program for a four-year mobility and curriculum development
assessment methodologies, etc.) to further enrich the learning experience infuture offerings.Summary and ConclusionsThis paper documented the need for introducing sustainability related courses in the CivilEngineering curricula and the steps taken at our institution to research, develop, and pilot testsuch a course in fall semester 2014. The new course demonstrated a successful integration ofsustainability concepts within a Civil Engineering curriculum. The pilot course combinedknowledge and expertise in transportation and environmental engineering disciplines andfostered a successful interaction between faculty members and students with interests in these
Session 2248 An Interdisciplinary Problem-Based Engineering Technology Freshman Curriculum J. C. Wood Tri-County Technical College Pendleton, SC 29670Abstract: The sixteen colleges of the South Carolina Technical College System throughan NSF-ATE grant have begun the development of an interdisciplinary problem-basedengineering technology curriculum for associate degree programs. The first phase hasbeen the development of an integrated freshman sequence of courses (ET Core). Usinginterdisciplinary teams (mathematics, science, technology
simulation. Narrowband noise generation, removal, and examination of filter tradeoffs. • Correlation and a communication systems decoder. In summary, integration of DSP in the curriculum in previous courses has provides a solid base for this capstone course and allows the development of advanced applications and real- time hardware implementations.8) EE BD 480 & 481 – Electrical Design Projects and Capstone Project. This is a two course sequence in the 7th and 8th semesters. Many of our students work with software for the development stage but do not necessarily use DSP for their final project, although we certainly encourage it. Projects using a significant amount of DSP are included below: a
Session 2220 Hyperdisciplinary Courseware: A Means of Integrating the Curriculum MAJ Curtis A. Carver Jr. and CPT(P) William J. Adams Department of Electrical Engineering and Computer Science United States Military Academy West Point, NY 10996Abstract1This paper will discuss the development of hyperdisciplinary courseware: World-Wide Web(WWW)-based, tightly coupled, interdisciplinary courseware. It will also discuss the tools re-quired to create hyperdisciplinary courseware, a
) hidden curriculum awareness(HCA); (b) emotions (EM); (c) self-efficacy (SE); and (d) self-advocacy (SA). HCA is a factor inwhich communication of information is perceived and recognized. For their part, emotions serveas the lens by which HC is received and recognized. Emotions are considered a vital mediator toprocesses like decision-making [2]. These two are the main factors that are relevant for thispaper. Research suggests that emotions profoundly impact the way that both teachers andstudents engage, their personal development, and their academic outcomes [3]. There is areciprocal relationship between the emotional state of the teachers and students wherebyteachers’ emotions are mirrored by the students—if a teacher shows excitement
With the rapidly advancing capabilities of computing hardware, it is now possible to embed computing capabilities in virtually all manufactured devices. Consequently, there is an increased demand for professionals trained to develop embedded electronic systems. However, the design and implementation of such systems requires a broad knowledge in areas traditionally not covered in any one discipline. This paper discusses the development of an interdisciplinary curriculum on real-time embedded systems, and the resulting courses that enable students to develop high assurance, state-of-the-art, real-time
Oncologist. These roles nowinclude assistance with target/tumor contouring, advanced dosimetry calculations, and medicalphysics assistant work. These increased responsibilities promote the need for a higher educationstandard that can be delivered with undergraduate and graduate programs. There are less than 10B.S. level Medical Dosimetry programs. The entrance requirements for Medical Dosimetryrange from an Associates Degree to a BS degree. The certifying board for Medical Dosimetristis the MDCB (Medical Dosimetry Certification Board). They currently offer 3 routes for boardapproval. They will be increasing the standards for entry into the field.New Curriculum Development – MP Program for Engineering Physics StudentsIn order to prepare the next