Session 2430 Learning Strategy Growth Not What Expected After Two Years through Engineering Curriculum Debra Fowler, Don Maxwell, Jeff Froyd Texas A&M UniversityAbstractAs the pace of technological development continues to increase, consensus has emerged thatundergraduate science, technology, engineering and mathematics (STEM) curricula cannotcontain all of the topics that engineering professionals will require, even during the first ten yearsof their careers. Therefore, the need for students to increase their capability for lifelong learningis
Incorporating Systems Engineering and Project Management Concepts in First Year Engineering Curriculum Muhammad Faysal Islam1 and Mohammed Nazrul Islam2 1 Department of Engineering Management and Systems Engineering, George Washington University, Washington, DC 2 Department of Security Systems, State University of New York, Farmingdale, New York AbstractDuring the first and second years of undergraduate engineering programs, most students focustheir studies to build a solid foundation of mathematics, writing composition, engineeringgraphics, programming languages, economics, and other social
Incorporating Systems Engineering and Project Management Concepts in First Year Engineering Curriculum Muhammad Faysal Islam1 and Mohammed Nazrul Islam2 1 Department of Engineering Management and Systems Engineering, George Washington University, Washington, DC 2 Department of Security Systems, State University of New York, Farmingdale, New York AbstractDuring the first and second years of undergraduate engineering programs, most students focustheir studies to build a solid foundation of mathematics, writing composition, engineeringgraphics, programming languages, economics, and other social
increase the stress on available waterresources, particularly in less developed countries. An introduction to hydrology remains animportant part of the general civil and environmental engineering curriculum. However, thechanges in the science of hydrology have not yet fully propagated into a changed approach toteaching this important subject. We present the results of a three-semester long study in whichwe introduced real world case studies into a large (70-90 students) civil engineeringundergraduate class to achieve this change. Over the past several semesters, students haveexpressed overwhelmingly positive thoughts on the course adjustments made, including the casesand other active learning elements utilized. We show and discuss evidence of the
thedevelopment of an innovative delivery system. In 1993, a faculty committee consisting of representatives from various departments was formed by thedean to develop an “innovative curriculum” for the college. In carrying out the task, the committee consideredand used as reference several models from other institutions, including Drexel University’s “E4 EducationalProgram1” and the “Integrated, First Year Curriculum2” at Rose-Hulman Institute of Technology. The newengineering curriculum developed at the University of Miami had the following objectives: 1. Facilitate the transition of students from high school to college environment, 2. Expose students to engineering in their freshman year, 3. Make the study of mathematics, basic sciences
originalideas and analytical skills for the solution of concrete problems in the areas of manufacturingsystems, programming, logistics and others. As an attractive educational tool, roboticscontributes to the increase in students’ interest for Science, Technology, Engineering and Math(STEM) concepts.Through this Course, Curriculum and Lab Improvement (CCLI) grant project sponsored by theNational Science Foundation an updated Industrial Robotics and Automated Manufacturing(IRAM) Laboratory will be developed at Morgan State University. The IRAM Laboratory willprovide an improvement in the current facility and combine the integration of additional courseswith a hands-on laboratory approach into the Industrial engineering undergraduate curriculum.These
phenomena, as fundamental asthermodynamics, and as crucial to the professional success of our graduates as a firm groundingin material and energy balances and process design. In this paper, instruction modules for ethics and professionalism and for environmentalhealth & safety are presented. We use these modules in the senior design class; however, theystand alone and can be used most anywhere in the curriculum. More details are available in anew, recently published textbook for the capstone design class.1 Ethics and Professionalism The purpose of this module is to teach students their ethical and legal responsibilities asprofessional engineers and to help them develop strategies to make the best
Session 1357 Integration and Synthesis of the Industrial Engineering Curriculum via an Unstructured Problem Solving Course Bryan A. Norman, Mary Besterfield-Sacre, Bopaya Bidanda, Kim LaScola Needy, Jayant Rajgopal University of PittsburghAbstractThe Department of Industrial Engineering at the University of Pittsburgh is addressing animportant issue – how to develop a comprehensive, integrated curriculum that (1) ispedagogically sound, (2) thoroughly prepares graduating engineering students for industrialpractice and graduate school, and (3) trains students to
Engineering Education, 2023BSc Maritime Technology Curriculum revision: What will the future Naval Architect look like?AbstractWith the current curriculum developed and implemented in phases since 2013, it is time toevaluate and review the BSc curriculum. For this revision, the success and issues of theprevious revision, the changes in our field and society, and the recent insights fromeducational studies are all reviewed to form the basis of this update. Current developments,like energy and autonomy transitions in the sector, as well as extra attention to learningprocesses and socialization, as a result of COVID-19, are all reviewed. The goals and visionwill be discussed as well as current trends in the industry, science and
Paper ID #32876Integrating Professional Mentorship with a 3D-Printing Curriculum toHelp Rural Youth Forge STEM Career ConnectionsMiss Srinjita Bhaduri, University of Colorado Boulder Srinjita Bhaduri is a PhD candidate in Computer and Cognitive Science at the University of Colorado Boulder. Her research examines how educational technology can improve student engagement and student learning, often focusing on underserved populations.Dr. L. Lee Biddy, University of Colorado Boulder Dr. Quentin Biddy is a Research Associate in the Institute of Cognitive Science. He is currently working with the iHUB and Schoolwide Labs
Paper ID #34023Embedding Technical Writing Into Mechanical Engineering Curriculum:Tools for Immediate Feedback on Student PerformanceMary M. McCall, University of Detroit Mercy I have taught Technical Writing and Business Communication at the university and community college level for more than 30 years. My current focus at Detroit Mercy is the Embedded Technical Writing Program for Mechanical Engineering, now in its sixth year. Other work includes reference book and fiction publishing, communication consulting with business and industry, and writing, employee training, and developing marketing strategies for non-profit and
hone them into really effective teaching and learning experiences.AcknowledgementsThis material is based upon work supported by the National Science Foundation under Grant No.1343756.ReferencesBerge, N.D. and Flora, J.R.V. (2010). Engaging Students in Critical Thinking: An EnvironmentalEngineering EFFECT. Proc. 117th ASEE Annual Conference & Exposition, Louisville, KY, 10 p.Haggard, C., Matta, F., and Pierce, C.E. (2017). Active Problem-based Learning on Nano-amended Cement Composites for Nuclear Waste Storage for Civil and EnvironmentalEngineering Undergraduate Students. Proc. 124th Annual ASEE Conference & Exposition,Columbus, OH, 17 p.Pierce, C.E. and Berge, N.D. (2014). Development of an Integrated Curriculum for
Session 2213 Integration of a Manufacturing Experience into the Undergraduate Curriculum in Polymer Engineering Robert M. Briber, David I. Bigio / James Lochary University of Maryland at College Park/ Adell Plastics, Inc.Abstract A new course titled “Manufacturing with Polymers” has been developed in the EngineeringSchool at the University of Maryland which utilizes local industry as a resource for education by tightlyintegrating the normal classroom experience with manufacturing at local industrial facilities usingproduction scale equipment. This course, as
, international construction, project delivery systems, statistical methods for construction engineers, project management practices, and engineering educational research methods. He is an active member of the American Society for Engineering Education and American Society of Civil Engineers, Construction Research Council of Construction Institute, ASCE. Page 26.352.1 c American Society for Engineering Education, 2015 Closing Achievement Gaps using the Green-BIM Teaching Method in Construction Education Curriculum Jin-Lee Kim
has recently revised its curriculum and embarked on several laboratoryenhancement projects. In redesigning the curriculum, the department emphasized integration ofsubject matter and computer skills across courses. It is this strategy that we wish to exploit inorder to achieve a unique status among similar programs across the region and the nation. Toreflect industry needs, the department has redesigned courses in numerical control,programmable logic controllers, and computer integrated manufacturing. The department is alsoin the process of developing an automation course and related laboratory experience that willintegrate several areas within this complex field. In the automation course, the students will lookat integration of motion, vision
Session 1413 Introducing Emerging Technologies into the Curriculum through a Multidisciplinary Research Experience James A. Newell, Kevin D. Dahm, Stephanie H. Farrell, Robert P. Hesketh, Kathryn Hollar, Mariano Savelski and C. Stewart Slater Department of Chemical Engineering Rowan University, Glassboro, NJ 08028AbstractThis paper describes Rowan University’s novel approach to integrating emergingtechnologies into the chemical engineering curriculum. Through an eight-semesterproject-based course sequence, every engineering student works in multidisciplinary on
Session 3547 A New Laboratory Curriculum Focused on Teaching Mixed-Signal Testing Concepts Using Low-Cost Test Equipment Jay R. Porter and Michael R. Warren Texas A&M UniversityAbstractAs the density of integrated circuit technology continues to increase, many commercial devices arecombining both analog and digital electronics onto a single chip. As the complexity of these chipsincreases, familiarity with testing mixed-signal devices is essential for the successful entry-level engineer. This paper discuss a laboratory curriculum being developed at
Session 2615 Our Experience with Guiding a Major Design Experience in Civil Engineering Curriculum Franz Rad, P.E., Scott Huff, P.E., Azad Mohammadi, P.E., Thomas McCormack, P.E., Dale Richwine, P.E. Portland State University/Portland Community College/ City of Portland, Bureau of Water Works/Saint Martin’s College/ Richwine Environmental, Inc.AbstractThe authors have been involved in developing and offering a course for seniors in CivilEngineering at Portland State University for the past fifteen years. The
Session 1347Ã The Distance Education Dimension and its Application to the EET Curriculum - A Proposed Model Stephen R. Fleeman, Thomas Lombardo Rock Valley CollegeAbstractThis paper explores the application of Distance Education (DE) to a curriculum in ElectronicsEngineering Technology (EET). The ideas discussed could be applied to other engineering andtechnology disciplines as well. The model presented here is in its design phase and has not yetbeen implemented. The goal of the authors is to establish a framework for the development of aDE model for an EET curriculum.I
Session ???? A New Curriculum in Neural Engineering with Emphasis on Design of Neural Systems John R. Hetling, Christopher M. Comer*, and Richard L. Magin Departments of Bioengineering / *Biological Sciences, University of Illinois at ChicagoIntroduction. Academic and commercial research teams are currently developing a newgeneration of devices that will interact with, incorporate, and/or emulate living nervous systems.Neural prostheses to restore hearing, mobility or sight will offer a wider range of function;robotic devices will become more effective
are prepared for the job market. Iowa State University developedinitiatives within the Civil & Construction Engineering (CCE) Department to address thesedemands in a new integrated learning based curriculum.The new integrated curriculum includes new courses, revisions to existing courses, andcollaborative efforts with the Department of English. Some of the new courses focus primarilyon professional practice skills as applied in industry. Other new courses offer a synthesis to tieother non-departmental courses to civil engineering practice. Collaboration efforts with theEnglish Department have resulted in the development of a Technical Communication Guide,faculty workshops on effective teaching of communication within the CCE curriculum
hard, technical skills and advancing research in engineering sciences.Community and cultural activities have been performed in a voluntary, non-credit environment.Opportunities exist for these voluntary activities to be formalized into credit bearing learningexperiences that would be learning centered and increase knowledge retention. [10] The 2002 Project Kaleidoscope Report on Reports identified a consistent theme overseventeen years of reports: a vision of an environment where undergraduates develop anunderstanding of the role of science and technology in their world. [11] During that same timeperiod universities have seen the needs of their student change due to changing demographicsand diversity. Across the university curriculum we
in the Engineering Curriculum: Realizing the ASCE Body of KnowledgeAbstractASCE has committed the profession to sustainability for at least a decade. The implied educa-tional imperative is for a broader and deeper preparation of new engineers, and at the same time,of the practicing profession. The ASCE committee working on the second edition of the CivilEngineering Body of Knowledge has embraced sustainability as an independent technical out-come; and has set out specific levels of cognitive achievement required of all engineers prior tolicensure. Herein, we discuss the elements of a university program including the sustainable useof natural resources, sustainable infrastructure, sustainable production of goods and services
pitfalls related to their particular projects. Additionally,advanced ethics topics are explored in two upper-level technical electives, examining key issuesof environment and sustainability and considering critically the role of engineering in globaldevelopment.The theme of celebrating multiple perspectives unifies this work. Not only are studentsencouraged to develop the skills of approaching ethical problems from many differentviewpoints and engaging in respectful dialogue with peers who hold different positions, but alsothis difference of perspective is modeled throughout the curriculum as students experience ethicsthrough varying pedagogies, teaching styles, and learning activities. Assessment of student progress includes evaluating student
Paper ID #11925The Four-Phase Interest Development in Engineering SurveyJoseph E Michaelis, University of Wisconsin - Madison Joseph E Michaelis is a Ph.D. student in Educational Psychology in the Learning Sciences area at the University of Wisconsin - Madison. His research involves studying interest in STEM education, focusing on the impact of learning environments, feedback, and influence of social constructs and identities. This research includes developing inclusive learning environments that promote interest in pursuing STEM fields as a career to a broad range of students.Prof. Mitchell Nathan, University of Wisconsin
UR also aided in the process of “becoming a scientist” – understanding thenorms of professional practice and connecting to the field [6], [7]. Especially in terms of“developing an identity as a scientist”, students cited the impact of UR more than coursework orthe general college experience.While many studies have focused on students in the sciences, especially biology, studies have alsobeen conducted on the specific impact within the engineering curriculum. At the University ofDelaware, Zydney et al. conducted a study of the impacts of UR through a survey of alumni of theCollege of Engineering [8]. Questions about outcomes of the college experience were distributedto alumni who participated in UR, as well as those who did not. The authors
; Boston, Massachusetts2011.p. 3617-9.11. Reichert W, Harris TR, Lemmons J, Mikos AG, Puleo DA, Schoen FJ, Temenoff JS.2011 Panel on developing a biomaterials curriculum. Journal of Biomedical Materials ResearchPart A. 2011;100A:802-16.12. Feldman D, Gombotz WR. Biomaterials Education: An academic and industrialviewpoint. Journal of Applied Biomaterials. 1991;2:133-9.13. Burny F, Donkerwolcke M, Muster D. Biomaterials education: A challenge for medicineand industry in the late 1990s. Material Science and Engineering Part A. 1995;199:53-9.14. Vanderbilt N, Texas, and Harvard-MIT Engineering Research Center.http://www.vanth.org/curriculum/Curr_taxon.asp.15. Kobayashi M, Chang YS, Oka M Masanori Kobayashia. A two year in vivo
Paper ID #8757Incorporating Sustainability and Green Design Concepts into the Engineer-ing and Engineering Technology Curriculum and ProgramsDr. Radian G Belu, Drexel University (Tech.) Dr. Radian Belu is Assistant Professor within the Engineering Technology (ET) program - Drexel Uni- versity, Philadelphia, USA. He is holding a PHD in power engineering and the other in physics. Before joining to the Drexel University Dr. Belu hold faculty and research positions at universities and re- search institutes in Romania, Canada and United States. He also worked for several years in industry as project manager, senior engineer
Paper ID #42524Supporting Middle School Students’ Learning Outcomes and Engagementwith NGSS-Aligned Quantum-Infused Science CurriculumDr. Zeynep Gonca Akdemir, Purdue University I am a research assistant within the School of Engineering Education and a fresh Ph.D. in the Department of Curriculum and Instruction in Science Education at Purdue University. My research specialization lies in the development of innovative science and engineering curricula tailored for K-12 students. My primary focus is on crafting hands-on, engaging learning materials that promote learning and engagement. I am also passionate about training
through the use of innovative teachingpractices (Bottoms & Uhn, 2007).There are several precollege curriculum programs that are implemented in Texas to preparestudents for post-secondary engineering degree programs. One of the most widely usedcurriculum interventions with potential to support positive higher education and employmentoutcomes is Project Lead the Way (PLTW). PLTW utilizes a problem-based pedagogicalapproach to support the development of skills and knowledge needed for college and careerreadiness (Project Lead the Way, 2020; Starobin et al., 2013). Although there is some evidenceof the short and long-term benefits of Project Lead the Way (Hess et al., 2016), the contextualfactors that influence PLTW adoption are not well