Engineering Education, 2016 Integrating Creative Writing and Computational Thinking to Develop Interdisciplinary ConnectionsAbstractA typical college curriculum does not make it easy for students to establish connections betweenrequired general education courses and courses in their majors. Intentional linking of coursesfrom different disciplines using interdisciplinary pedagogical strategies allows students to makethose connections while developing the interdisciplinary skills which will benefit their collegeand post-college careers.In addition to communication, critical thinking and reasoning, and collaborative skills, it hasbeen recently argued that computational thinking (i.e., the application of computing concepts
Sharma, Northern Illinois University Page 23.807.1 c American Society for Engineering Education, 2013 Internet Accessible Remote Experimentation with Integrated Learning Management System AbstractResearchers and academics are developing Internet accessible remote laboratories, but only afew of them are in use for course delivery. One of the main drawbacks of developed systems isthe lack of an efficient Learning Management System (LMS). Most of the available LMS aredesigned for lecture classes (online or hybrid) and are not
at Purdue University. She focused on integrated STEM curriculum development as part of an NSF STEM+C grant as a Postdoctoral Research Assistant through INSPIRE in the School of Engineering Education at Purdue University Her current research interests focus on early P-12 engineering education and identity development.Dr. Alison K. Polasik, Campbell University Alison K Polasik received a B.S.E. degree in Materials Science and Engineering from Arizona State University in 2002, and M.S. and Ph.D. degrees from The Ohio State University in 2005 and 2014, re- spectively. She has been part of the adjunct faculty at Columbus State Community College, and was a full-time lecturer at OSU from 2013 until 2015. From 2015 to
course in 1995 and an engineering physiology course in 2001. Theseattempts to integrate engineering into the life sciences are discussed in the following sections.II. Integrating Engineering with General BiologyThe B. S. in Biological Engineering (BE) with concentrations in Agricultural, Biomedical,Bioprocess, and Environmental Engineering was first offered at NC State University in the fallof 1994. A new 4-hr course, BAE 235: Engineering Biology, was developed to help meet ABETrequirements for 48 hours of engineering topics and 16 hours of biological science with no morethan 8 hours double counted with engineering hours. BAE 235 counted as 4 hours of biologicalscience and 3 hours of engineering topics and covered general biology with
team-related roles assumed by the male and female members of the teams. An initial smallsample study of six teams confirmed some of our expectations and expanded others. As expected,the male members of the teams concentrated on task functions. Female team members focused onboth task and team functions, thereby providing a more integrated approach to the engineeringdesign process. Because of the small sample size, we draw no conclusions. But these resultspoint clearly to the need for expanded study of the teamwork model.Introduction and Overview of Our Study The benefits of teamwork are widely recognized in both academic and industryenvironments. Research has shown that the success of student teams relies not only on theindividual
community service project led by professional engineers. In Page 12.907.8addition, the incorporated fun learning experiences, teambuilding and social activities help avoidsummer burn-out and encourage participation and bonding. Math classes are taught in blocks inthe mornings only. The afternoons are allocated by rotation to Living-Labs, Calculus Lab, andCommunity Service Project. One day per week is reserved for the learning experience throughthe field trips. Social activities and/or math tutoring are available in the evenings.Math Class The E-MAP program offers an alternative curriculum for pre
AC 2009-1922: INTEGRATING A FIRST-YEAR ENGINEERING PROGRAMWITH A LIVING-LEARNING COMMUNITYTimothy Hinds, Michigan State University TIMOTHY J. HINDS is an Academic Specialist in the Michigan State University College of Engineering Undergraduate Studies and Department of Mechanical Engineering. He is the lead instructor for the Cornerstone Engineering / Spartan Engineering program teaching courses in engineering design and modeling. He has also taught courses in machine design, manufacturing processes, mechanics, computational tools and international product design as well as graduate-level courses in engineering innovation and technology management. He has over 25 years of combined academic
Paper ID #42950Work in Process: Transformative Integration of Problem-Based Learningand Entrepreneurial Mindset in Early and Middle Stages of Mechanical Engineering:A Focus on Statics and DynamicsDr. Danahe Marmolejo, Saint Louis University Dr. Dana Marmolejo has been an assistant professor of practice in the Aerospace and Mechanical Engineering Department at the School of Science and Engineering since 2022. With a background in Chemical Engineering, her expertise lies in Thermodynamics and Process Systems Engineering. Dr. Marmolejo’s primary focus is teaching engineering courses, mostly for first- and second-year students
missions are much more focused on providing educational opportunities tolocal students who wish to pursue an education beyond high school. With a few exceptions,community college faculty seek external funding to develop new academic programs, improvecurricula and teaching, or implement student-centered professional development programs, oftenin partnerships with four-year institutions. Community college faculty's two main responsibilitiesare teaching and advising students. In this context, mentoring takes shape (Hensel, 2021). Forinstance, mentoring may occur in the classroom, the laboratory, and the office. In theirclassrooms, faculty uncover the hidden curriculum, introduce academic language, and promotethe notion of students becoming scholars
LogicThe first component is more technical in nature while the second involves more humaninteraction. These were the characteristics of a liberally educated person in ancient civilizations.Modern liberal arts embrace many soft subjects, the choice depends on the politics of one’sinstitution. Due to recent technological advances and global competitiveness, the nature ofliberal arts to embrace humans and machines all across the globe is broadening. This is turningengineering into a new liberal art by integrating behavioral factors in the technical curriculum, intrue synthesis character of engineering. Businesses in the financial, management, and otherinformation industries are in dire need of engineers who are able to assess trends in industry, e.g
studies widely. 3. Educational ContextWPI has long been a leader in project-based STEM education, since the establishment in theearly 1970s of an innovative curriculum that is today called The WPI Plan. Students at WPIenroll in four seven-week terms during each academic year. The Plan allows students openchoice in course work and requires them to complete three significant undergraduaterequirements: the Inquiry Seminar which is a humanities and arts course with a significantwriting requirement, typically completed in the second year, the Interactive Qualifying Project(IQP), which is the subject of our work here, typically completed in the third year, and the MajorQualifying Project (MQP) which is a project completed in the students’ major area
. servants whose Christian faith leads them to an engineering career of action and involvement, to personal piety, integrity, and social responsibility. Page 9.198.5 Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition Copyright © 2004, American Society for Engineering Education5.2 Strong Liberal ArtsCalvin College has extensive general education requirements, taken by all students. It includesat least 23 courses with 68 credits over a broad range of human knowledge. It is not possible forthose students in the professional programs to take the
Institute of Technology. At Rose-Hulman, he co-created the Integrated, First-Year Curriculum in Science, Engineer- ing and Mathematics, which was recognized in 1997 with a Hesburgh Award Certificate of Excellence. He served as Project Director a National Science Foundation (NSF) Engineering Education Coalition in which six institutions systematically renewed, assessed, and institutionalized innovative undergraduate engineering curricula. He has authored over 70 papers and offered over 30 workshops on faculty devel- opment, curricular change processes, curriculum redesign, and assessment. He has served as a program co-chair for three Frontiers in Education Conferences and the general chair for the 2009 conference. Prof
and international studies and principal tutor of the Guy T.McBride Honors Program at the Colorado School of Mines. She has been involved in developing and sustaining anumber of interdisciplinary projects at CSM including HumEn, The McBride Honors Program, MultidisciplinarySenior Design, the EPICS program and Connections. She is currently a member of CSM’s Curriculum RevisionSteering Committee.RONALD L. MILLER is an associate professor of chemical engineering and petroleum refining at the ColoradoSchool of Mines. He has been involved in developing and sustaining a number of interdisciplinary projects at CSMincluding HumEn, The McBride Honors Program, Multidisciplinary Senior Design, the EPICS program, andConnections. He is currently working
. This paper will discuss theimplementation and impact of these modifications to the curriculum.Introduction Instilling a working knowledge of biological principles and the ability to applyengineering principles to biological systems (and vice versa) in students is recognizednationwide as a goal for chemical engineering programs (2,6,15,17,18). Many schoolsoffer specialized bio-focused curricula or courses at the senior or graduate level, butintegration of biology and chemical engineering at the lower levels is difficult in an alreadyoverloaded curriculum. At Rowan, we have developed an integrated, collaborative approach between Page
opportunity between engineering and the arts through thedevelopment of a “Special Topics: Interactive Fiction” course was developed and subsequentlyapproved by the curriculum committees of both colleges for the 2022-2023 academic year. Whilethe remainder of this paper focuses on this Interactive Fiction course, the authors want toacknowledge the key roles played by the instructors involved in these preceding courses.2023 - Interactive Fiction: Goals and LogisticsThe two primary goals for the Interactive Fiction course were (1) for students to learn how to usea natural language software platform, such as Inform [30], to design an interactive game in a waythat reflects the diversity of cultures and experiences encountered during the era of
validation: A test anxiety example."Educational Measurement: Issues and Practice 17, no. 1, 10-17, 1998.[5] Watson, M. K., & Barrella, E., & Cowan, C. M., & Anderson, R. D. “Validating aSustainable Design Rubric by Surveying Engineering Educators.” In Proceedings of 2018 ASEEAnnual Conference & Exposition, Salt Lake City, Utah, 2018. [ONLINE] Available:https://peer.asee.org/31220[6] Burian, S. J. "Using a sustainable infrastructure rating system in the civil engineeringcapstone design course.” In Proceedings of the 2014 ASEE Annual Conference & Exposition,Indianapolis, Indiana, 2014. [ONLINE] Available: https://peer.asee.org/23281[7] Cecere, J. “Integrating Sustainability in an Engineering Capstone Course.” In Proceedings ofthe
engineering and mathematics students. We invite other researchers to investigate undergraduate students' integral knowledge. Concept image and concept definition idea of Vinner (1992) with the triad classification appears to be a good candidate for evaluating the responses of the participants to the research question evaluated in this work. The design of the questionnaire and the interviews played an important role in the decision of the choice of the methodology to evaluate the collected data. References1. Arnon, I, Cottrill, J, Dubinsky, E., Oktac, A., Fuentes, S.R., Trigueros, M., & Weller, K. (2014). APOS Theory: A Framework for Research and Curriculum Development in Mathematics Education, Springer.2. Asiala, M
curriculum andprofessional development programs in the future. In addition to the most frequently used fields for PCK models in the literature (contentknowledge, general pedagogical knowledge, and contextual knowledge), our study come up withengineering integration PCK domain distinctively due to engineering’s interdisciplinary nature.Similarly, Yeter (2021)’s results also demonstrated that unit-specific content knowledge andinterdisciplinary application were distinctive domains in his instrument development study to elicitelementary teachers’ engineering PCK. To sum up, we hope that the framework of EIPCK willguide educational practitioners and researchers in the development of an instrument to elicitteachers' pedagogical content knowledge
focus of design was viewed as a technical problem that does notaffect “others” or “humans”38 (pg. 157). This is a narrow perspective of design, especially in thecontext of vehicle design, which impacts operators, passengers, etc. Page 23.1219.5SummaryStakeholder and operational context considerations can be incorporated into an aerospacecurriculum through a variety of mechanisms. Within an isolated course, students can begin toperceive the critical nature of humans in aerospace design. However, if it is not integrated into thecapstone design curriculum, this course may not be sufficient for providing students with abroader perspective of design
extensive network of professionals and students engaged incommunities in developing countries. It has created successful models for mentoring withprofessionals and students to address real community needs. It has extensive expertise indeveloping community partnerships and appropriate solutions and has become one of the mostpervasive engineering organizations with student chapters on over 200 campuses. EWB-USAprojects are almost exclusively outside of the curriculum. One of the reasons for this is theemphasis on student leadership and ownership which is traditionally challenging to achieve in acourse.This project is a pilot project where the EWB-USA student chapter is integrated with EPICS togive students academic credit that can be counted toward
Paper ID #28852A Pathway Towards STEM Integration: Embodiment, Mathematization, andMechanistic ReasoningDr. Paul Jason Weinberg Weinberg, Oakland University Dr. Paul J. Weinberg is an Associate Professor of Mathematics and STEM Education at Oakland Univer- sity (Rochester, MI), where he teaches methods courses for pre- and in-service secondary mathematics teachers. In addition, he teaches mathematics content courses, in the Department of Mathematics and Statistics, for elementary education majors. Dr. Weinberg’s research focuses on students’ reasoning within STEM disciplines, in the context of schooling; this focus has
the advanced educational technologies now available for serving bilingual learners [8][9]. The current paper will describe our project design, technical operationalization, andpredicted outcomes for the web module, which is presently at an early stage of development.Planned future publications pertaining to this project will describe selection and development ofproject content, and the strategy for involving students and faculty as users of this system duringimplementation. As this project becomes further developed, mixed methods assessment willdetermine the impacts from providing this learning experience to students and interestedcommunity members, and in particular the effectiveness of integration of the project resources
, communications, ethics, economics of engineering, etc. into theengineering curriculum [2].The traditional ‘chalk and talk’ pedagogy is more unlikely to satisfy the requirements of theaccreditation criteria and what industries need from engineering graduates. PBL seems certainlythe best way to satisfy industry needs without sacrificing the knowledge of engineeringfundamentals and welcomed by students, industry and accreditors alike [3] [4].Computer Integrated Manufacturing – CIM is being taught as an elective course during thegraduation year in undergraduate Mechanical Engineering program. The course syllabus covers awide range of topics including integration of Computer Aided Design (CAD) / Computer AidedManufacturing (CAM), Manufacturing Planning
regulatoryrequirements, but in an outcome-based culture, it should be possible to createsupplementary 1-credit or 0-credit courses that make such transfers possible. This paperwill detail our initial efforts in that direction.Motivation:Within the framework of this manuscript vertical integration represents the process bywhich high school students, community college students, or certificate holders, areencouraged and given meaningful opportunities to obtain four-year degrees that theywould not have sought otherwise. In a sense, this is recruitment, and recruitmentstrategies will have bearing on vertical integration. The electronic and computerengineering (ECET) option of the engineering technology department has many reasonsto promote electronics education at
Technology (ABET) 5 is encouragingintegration of design throughout the engineering curriculum including the freshman andsophomore years 6. It is also promoting a holistic integration of ’soft’ and ’technical’ skillsencompassing academic knowledge, civic responsibilities, and life skills. "Service-Learning" seems to be an ideal vehicle to introduce the well-documented benefits of"Experiential Learning", the community (national) need of improving/promoting engineering,mathematics, science education among middle/high school students 7, and curriculum objectivesof Criteria 2000 of ABET as stated above. The integration of community service in the learningprocess provides a richer flavor that manifests in broader dimensions of learning outcomes.There is a
Session ETD 506 Pathways for Integrating Industry into an Engineering Technology Program Cliff Mirman Chair, Department of Technology, Still Gym 204 Northern Illinois University, DeKalb, Ill. cmirman@niu.eduManufacturing companies need employees that possess both highly technical skills andfundamental knowledge allowing them to continually update skills. Across the country,companies are experiencing labor shortages in skilled areas like robotics, automation, CNC, andwelding, for example. As technology progresses, the number of
preinstalled for Page 5.398.7Netscape Communicator 4.5.4.5 JavaScriptJavaScript, a programming language, is integrated into web browser and can make the web pagerespond directly to user interaction with form elements that consist of input fields, text areas orbuttons. JavaScript also enables distribution of small collections of databases and provides afriendly interface to them.12 A snapshot of an application created in JavaScript is shown inFig. 3. Fig. 3. Snapshot of a JavaScript application5.0 Layout of the ModulesThe FE review program was designed and implemented for Internet access to allow wide use andaccess. Students
AC 2012-3560: FROM DEFENSE TO DEGREE: INTEGRATING MILI-TARY VETERANS INTO ENGINEERING PROGRAMSDr. David L. Soldan, Kansas State UniversityDr. Noel N. Schulz, Kansas State UniversityDr. Don Gruenbacher, Kansas State UniversityMrs. Rekha Natarajan, Kansas State University Rekha Natarajan is an instructor in the Mathematics Department at Kansas State University, coordinating college algebra. She received her B.S. and M.A. in mathematics from Arizona State University, B.S. in secondary education from Kansas State University, and is currently a doctoral student in the Mathematics Department at KSU. Her research area is undergraduate mathematics education.Mrs. Blythe Marlow Vogt, Kansas State University Blythe Vogt joined the
SESSION 3625 INTEGRATION OF PROJECT BASED LEARNING INTO A FRESHMAN ENGINEERING DESIGN COURSE Sohail Anwar, Todd Batzel, Ed Sell The Pennsylvania State University, Altoona CollegeAbstractEngineering Design and Graphics 100 (ED&G 100) is a project-based introduction toengineering design course for all freshman baccalaureate engineering students at the AltoonaCollege of the Pennsylvania State University. In this three credit-hour course, an engineeringapproach to problem solving is taught with an emphasis on team work, communication(graphical, oral, and written), creativity, ingenuity