into a Biomedical G. Catalano Engineering Ethics Course An Effective Strategy for Integrating Ethics Across the J. Cruz, W. Frey Curriculum in Engineering: An ABET 2000 Challenge Engagement with Ethics in a Large Engineering Program: A S. Culver, V. Lohani, I. Status Report Puri Implementation of Competences of Social and R. Miñano, C. Environmental Responsibility in IT Engineering Degrees Fernandez, A. Anguera Strategies for Teaching Professional Ethics to IT R. Miñano, A. Uruburu, Engineering Degree Students and Evaluating the Result A. Moreno-Romero, D. Pérez
integrate human society with its naturalenvironment for the benefit of both.There is little consensus on what distinguishes ecological engineering curricula fromexisting environmental, biosystems, or agricultural engineering curricula. We suggest thatecological engineering curricula should be offered only at the graduate level, and shouldrequire rigorous ABET-accredited (or equivalent) undergraduate preparation in thefundamentals of engineering. The graduate curriculum should provide the student with acore of courses in ecosystem theory including quantitative ecology, evolutionary ecology,community ecology, restoration ecology, trophodynamics, and ecological modeling, whilestrengthening the student’s mastery of engineering theory and application
discrete signal {x[1]…x[8]} and an impulse response{h[1] …h[4]}, the students are shown that the output sequence {y[1]…y[11]} can be realizedusing the systolic array shown in Figure 1. Page 14.807.5Figure 1. Systolic array for 1D discrete time convolution.We spend approximately two weeks on this topic.Laboratory assignmentsA significant feature of the new course is the tight integration of the lecture with the laboratory.The course meets for one hour and 15 minutes twice a week, once in the classroom for thelecture and then in the laboratory for programming assignments. We have developed a series oflaboratory exercises that serve to reinforce the
dynamics and earthquake engineering. The videos are for demonstrations of the structural response using the shake tables. The interactive exercises will be used inside and outside the classroom to introduce students to basic concepts, and prepare students for the future laboratory experiments.UPGRADING OF EXISTING CURRICULA In order to include the basic concepts of structural dynamics in the undergraduatecurriculum, an introduction to this subject need to be integrated into undergraduate curriculum,specifically the Structural Analysis course. To effect this change, the course material in thiscourse will be revised so that there will be time for the introduction of Structural Dynamics. Thegoal of this change is to
completed in 2013 andhas already been reported in detail.2“The results from multiple universities and multiple course offerings demonstrate that failurecase studies can be used to provide indirect, quantitative assessment of multiple student learningobjectives. Several outcomes that constitute the professional component of the curriculum maybe assessed in this way.The strongest results were for student outcomes (f) an understanding of professional and ethicalresponsibility, (h) the broad education necessary to understand the impact of engineeringsolutions in a global, economic, environmental, and societal context, (i) a recognition of the needfor, and an ability to engage in life-long learning, and (j) a knowledge of contemporary issues.Although
Technology and provides an integrated educationalexperience directed toward developing the ability to apply the knowledge gain in the college to thesolution of practical problems in the engineering technology field. The majority of courses are fullyintegrated with training and laboratory experience to provide students with strong foundation ofengineering practices and to stimulate students’ interest by using a problem solving approach in state-of-the-art laboratories. Key factors in the development process included creation of the educationallaboratories that can significantly contribute to the development of technologically literate students andworkforce that could be in great demand not only in the tri-state area but also nationwide
Grant award designed to provide professional developmentto middle school teachers within RESA 3 in the areas of engineering design and literacy. Additionally, Mr.Carte is overseeing the writing of SREB’s Middle School STEM Curriculum, which should be completedduring the summer of 2016.Mr. Carte has been married to the former Caroline Ramella for 16 years and they have two sons, Aaronand Jonah, ages 13 and 9 respectively. He currently resides in Charleston and serves as a chemistryinstructor at George Washington High School. c American Society for Engineering Education, 2016 Integrating STEM and Literacy through Engineering Design: Evaluation of Professional Development for Middle School Math and Science
facilities. The New Jersey Center for Advanced Technological Education(NJCATE) has included the study of these topics in their model Mecomtronics EngineeringTechnology Program. Curriculum components were established through a need analysis withindustry personnel participation.Industry personnel from a mix of large, medium and small companies were surveyed to assessthe skills their technicians need to have. In addition an on-the-job task analysis was conducted atfifteen sites representing a variety of industries. The data collected formed the basis for thedevelopment of a list of competencies, which established the necessary skill and knowledgecomponents for building a curriculum that integrates the technical subject matter with the studyof
BuiltEnvironment. 3(1):25-48.[13] Goodman, B. 2011. The need for a ‘sustainability curriculum’ in nurse education. Nurse Education Today.31(8):733-737.[14] Wright, M. and F. Monsour. 2015. Beyond sustainability: A context for transformative curriculumdevelopment. Transformative Dialogues: Teaching & Learning Journal. 8(2): 19 pgs.[15] Bacon, C., Mulvaney, D., Ball, T., DuPuis, M., Gliessman, S., Lipschutz, R. and A. Shakouri. 2010. Thecreation of an integrated sustainability curriculum and student praxis projects. International Journal ofSustainability in Higher Education. 12(2):193-208.[16] Allen-Gil, S., Walker, L., Thomas, G., Shevory, T. and S. Elan. 2005. Forming a community partnership toenchance education in sustainability. International
Paper ID #25678Making Connections Across a Four-Year Project-Based Curriculum: ePort-folios as a Space for Reflection and Integrative LearningDr. Chrysanthe Demetry, Worcester Polytechnic Institute Dr. Chrysanthe Demetry is associate professor of Mechanical Engineering and director of the Morgan Teaching & Learning Center at Worcester Polytechnic Institute. Her teaching and scholarship interests focus on materials science education, K-12 engineering outreach, gender equity in STEM, and intercul- tural learning in experiential education abroad. As director of the Morgan Center at WPI since 2006, Dr. Demetry coordinates
to gain an understanding of public policy as it related to their discipline. Wefound that many of these students did value such knowledge. We also found that the more seniorstudents and the students with work experience overwhelmingly valued such material.As a follow-up to this research, we surveyed approximately one hundred engineers in a variety ofhiring positions in industry to determine their view on the inclusion of public policy in anengineering curriculum. Among the questions included in the survey, we asked, “Do you believethat engineering students should be exposed to public policy issues as part of their education?”We also addressed a number of other issues, including: 1) How do these engineers define publicpolicy? 2) Should the
entireundergraduate mechanical engineering curriculum and make revisions. The primary goals of thenew curriculum are making the first year common to all engineering majors, integrating designand manufacturing concepts from the freshman through senior years, and increasing the hands-on component with new lab classes and facilities. An important part of the overall curriculumrevision was to improve the manufacturing component, particularly in the context of improvingdesign capabilities.In the quarter system, all mechanical engineering (ME) students were required to take a 4 creditclass Introduction to Manufacturing Processes. This was a junior level class (often postponeduntil the senior year) consisting of 3 lectures and 1 lab session per week. The course
andcomputer science). While some schools are adding programs in mechatronics and robotics, this isnot always feasible. An alternative is to increase exposure to programming and electrical contentin traditionally mechanical engineering courses, such as through the incorporation ofmicroprocessors across the curriculum.This work investigates the incorporation of microprocessors (specifically Arduinos) into theMechanical Engineering curriculum. The goals of this effort are to increase students’ familiaritylevel with microprocessor capabilities, to increase exposure to mechatronic systems, to allow forhigher fidelity prototypes in class projects, and to provide an accessible and inexpensive way forstudents to explore applications of what they learn in
calculus education. APOS theory application in thepedagogical literature for understanding students’ mental construction of integral concept from ageometric perspective is limited [3]. One of the studies that relate to this interest was conducted in[19] by observing students’ ability to approximate integral calculations by sampling points duringthe process of writing a code for integral calculations. It is pointed out in [19] that integrationneeds to be thought from two perspectives: as the culmination of a limiting process and theapplication of this process over an interval of variable length, as producing a correspondence.The importance of designing a curriculum with instructional emphasis in algebra and pre-calculusby helping students to
grant on the development of prototype curriculum material for accessibledesign (AD) the Enabling Technologies Laboratory (ETL) at Wayne State University (WSU)developed integration strategies as well as educational material (DUE 9972403). Table 1summarizes some of the strategies.I want to focus on the last two categories, engineering and non-engineering, in that I believethese to be the most problematic with respect to the integration of AD material. Experience hasshown that while instructors are not opposed to the inclusion of AD material, they do not havethe time to research and develop examples, case studies and special homework assignments. Ifmaterials were readily available, however, most instructors would try to include the AD materialif
Session 1559 Data-Acquisition Systems: An Integral Part of Undergraduate Engineering and Technology Programs David McDonald and Ajay Mahajan Lake Superior State UniversityThis paper describes example student projects and course activities in data-acquisition systems inundergraduate engineering and technology programs at Lake Superior State University. Thefocus of the paper is to show that students from electrical, computer and mechanical engineeringas well as manufacturing engineering technology programs study and use modern data-acquisition systems in several courses
globally interconnected engineering landscape.• This course stepped away from the traditional engineering curriculum, which is rigorous and technical, and instead focused on the bigger picture— what it means to be an engineer.• This course is symbolic of the stepping stone all engineers in today’s world need to base themselves on when solving problems.Conclusions“Engineering for Social Change” is a unique undergraduate course that combines engineering andphilanthropy and allows students to take a leadership role as both investigator and grantor of theNeilom Engineering for Social Change Grant. Throughout this course more than two hundred non-profit organizations have been contacted, and four grants have been awarded through the NeilomFoundation
. Page 15.877.1© American Society for Engineering Education, 2010 “Mobile Robotics: A tool for application-based integration of multidisciplinary undergraduate concepts and research”AbstractThis paper presents the development of a mobile robotics course at the primarily undergraduateengineering school, Rose-Hulman Institute of Technology. This course is one of the finalcourses in the multidisciplinary educational robotics certificate program. The purpose of thiscourse is to use the robot to provide the students with an appreciation of their discipline and howit applies to other disciplines. It is hypothesized that students will gain a more realistic model oftheir future workplace demographic while also learning about
industry. A three credit course inmanufacturing engineering and a three credit course in quality engineering are being offered inthe spring semester in alternate years. We immediately saw the benefit of this arrangement fromthe feedback of our recent graduates in the industry. In this paper, the authors summarize whatwas learned from integrating manufacturing engineering concepts into mechanical designcurriculum, and incorporating global aspects of manufacturing in manufacturing engineeringcurriculum. We will outline some of the changes we have made to the curriculum and thechallenges we have faced. Topics of discussion also include immersing students in an industrialsetting in and outside of classrooms and hands-on project-based experiential
issues should be incorporated into the construction engineering managementeducation curriculum to respond to the needs of the industry. Proceedings of the 2013 American Society for Engineering Education Pacific Southwest Conference Copyright © 2013, American Society for Engineering Education 100Building Information Modeling in Construction EducationBuilding Information Modeling (BIM) is an emerging tool in the design industry used for designand documentation. BIM is also used as a vehicle to enhance communication among all theproject stakeholders.11 BIM is a comprehensive, integrated graphic and alphanumeric database
engage students and to provide a grounding context for the mathematics. The efforthas exposed the challenge of teaching math across the curriculum and led to the development ofnew strategies to embed mathematics in authentic contexts. The curriculum is being developedand implemented for the first time during the 2011-12 school year. Fifty ninth-gradeunderrepresented minority students from east LA are participating.MotivationTeaching secondary mathematics as an isolated subject is not working for a large segment of thepopulation, and may be holding back large numbers of students who might otherwise contributeScience, Technology, Engineering and Mathematics (STEM) talent to both work and defenseforces. In Los Angles, in particular, with its low
in the Electrical and Computer Engineering Department at Seattle University. She earned her PhD degree from University of Denver specializing in renewable energy and smart grids. Her research focus is on renewable energy integration into smart grids, ensuring efficient energy management and grid stability, aiming for a sustainable impact. She is a member of IEEE, ASEE and SWE and has worked on several NSF and NREL funded projects. ©American Society for Engineering Education, 2024 Teaching Digital Logic in the Quarter-Based EE CurriculumIntroductionCourses on digital logic are an essential part of all Electrical and Computer Engineeringcurricula. With the advent of FPGAs, the use of a
that capture thelaws of physics such as the law of energy conservation. In a class of fifty students, one may findmore than half of the class resistant to change to the more formalized approach to teaching asthey have a hard time moving away from an approach that has been inculcated in them sincegrade school. Access to internet resources that promote the use of formula-based learning do nothelp in the process of changing the paradigm.This paper describes a paradigm that has been used by the author to teach Thermodynamics tofirst-semester juniors in an undergraduate mechanical engineering curriculum. The pre-requisitesfor the class are successful completion of Physics I (Work and Heat), Physics II (Electricity andMagnetism), Calculus I and II
engineering, management, and business skills to successfully integrate an increasinglycomplex body of knowledge for the rapid introduction of new products to the marketplace. Theintegrated program between the College of Engineering and the College of BusinessAdministration at UT prepares its graduates for two different, yet closely related, career paths:one geared toward becoming an entrepreneur and initiating new start-up companies, and theother focused on taking a lead management role in existing companies where the forces ofcompetition require rapid changes in design and manufacturing for a short product developmentcycle. Although the MS-MBA program at UT is still in its infancy, its curriculum and productidea base are continually being reinforced
knowledgetables for the introductory transportation engineering course that is taught in most civilengineering programs, and most recently the project led a workshop, supported by the NationalScience Foundation, in which approximately 60 participants developed learning and assessmentactivities to support these learning outcomes. The inter-generational, geographically andinstitutionally diverse group of faculty members that form the core project group provide amodel for cross-institutional collaborative curriculum design.IntroductionThe National Transportation Curriculum Project (NTCP) began as an effort by a small group oftransportation engineering educators to continue the momentum generated by the 2009Transportation Education Conference(http
Session 2366 PROCEED: A Department-Wide Curriculum Reform Initiative in Project-Centered Education Philip S. Schmidt and Joseph J. Beaman Department of Mechanical Engineering University of Texas at AustinAbstractThe Department of Mechanical Engineering at the University of Texas at Austin has undertaken amajor curriculum reform effort entitled PROCEED, an acronym for Project-Centered Education.The strategic objectives of PROCEED are: (1) to strengthen our students’ understanding offundamental engineering theory by continuously tying it
. The outcomes were evaluated using surveys, ICAP framework,technical memo, and modeling results using Excel. 1 1. Introduction. 2 Integrating effective problem-solving techniques into engineering education is crucial for 3 preparing students to tackle real-world challenges. This study aims to embed a Problem-Solving 4 Studio (PSS) approach within an introductory engineering course, leveraging a real-world project 5 as the central learning module. The PSS, pioneered by Joseph M. Le Doux and Alisha A. Waller 6 at the Georgia Institute of Technology in 2016, represented an innovative educational paradigm 7 designed to enhance analytical problem-solving skills while deepening students' conceptual 8 understanding of engineering
strategy for each ethics assignment. The DEAL model involvesDescribing the experience objectively, Examining learning, and Articulating one’s own Learning[9]. The goal of integrating the DEAL model for critical reflection is to help students usereflection during the learning instead of only after learning.Ethics Reflection in an Introductory Biomechanics Course: Biomedical Engineering is amultidisciplinary field, but a focus on human health and disease is at the heart of the discipline.Connecting animal use in biomedical research to an Introductory Biomechanics course, a newlydeveloped assignment specifically prompts students to participate in cognizant recognition ofethical knowledge and to use intentional reflection to improve their ethical
Session 2248 Product Development In The Curriculum: One Clean-Sheet Approach Joseph A. Untener University of Dayton--Dayton, OhioABSTRACT The National Center of Excellence for Advanced Manufacturing Education has been established inDayton, Ohio with an award from the National Science Foundation’s Advanced Technological Educationprogram in October of 1994. The primary goal of the program is to develop a curriculum with advancedmanufacturing as its focus. The curriculum will begin in the junior year of high school and extend to a two-year
Paper ID #26694Implementing and Integrating an Engineering Video Game into a Variety ofEducational ContextsMr. Michael Briscoe, American Society of Naval Engineers I am the Educator-in-Residence at the American Society of Naval Engineers. ASNE was founded in 1888 for the betterment of naval engineers and the field of naval engineering. Today, that means that ASNE has an active, cutting-edge STEAM program based around a free naval engineering video game called FLEET. We are beginning to publish our findings on implementing an engineering video game across a variety of K-12 educational contexts. I also am ABD in Educational