, based on feedback from our industry partners and alumni, we saw that thestudents performed very poorly in software design. When they were tasked with writing a smallscript to accomplish a specific goal (e.g., computing the Fibonacci sequence), students performedjust fine. However, when given a larger design specification and asked to build a completeend-to-end system integrating both hardware and software, students did not even know where tobegin. Some might argue that those skills should belong only to computer scientists, but that issimply a fallacy. For the vast majority of engineering professions today, good programmingskills are no longer an option but a prerequisite.With these insights in mind, we designed a sophomore-level course that
Paper ID #8705Automated Process Control Laboratory Experience: Simultaneous Temper-ature and Level Control in a Continuously Stirred Tank Reactor SystemDr. Joshua A. Levinson, Lafayette College Levinson is an Assistant Professor in the Department of Chemical & Biomolecular Engineering at Lafayette College. His teaching interests are in senior capstone design, integrated chemical engineering laboratory, transport, and thermodynamics. His research interests are in semiconductor processing technology, mi- crofluidics, transport phenomena, chemical kinetics, and chemical engineering pedagogy.Dr. Eric L. Maase, University of
using thelanguage for policy making but ………”. Along these lines, engineer 2 mentioned “Even though Ihave the technical skills, I prefer to stay away from public policy because I am not familiar withpublic policy process”. This proves that one of the obstacles of engineer’s participation andinfluence is the lack of public policy knowledge. By reviewing engineer’s education curriculums,in the USA educational system, engineers are not exposed to any course related to public policy.The integration of public policy courses into engineer’s education is vital, especially that engineersrecognize that the technical details matter in many policy issues. To further illustrate this point,we refer to studies discussing the relationship between knowledge and
13.277.2© American Society for Engineering Education, 2008 Career and Professional Development in Bioengineering: Translation of a Conference Initiative to Education and TrainingAbstractThe Student Activities Committee of the annual conferences of the Institute of Electrical andElectronics Engineers’ (IEEE) Engineering in Medicine and Biology Society (EMBS) hasdeveloped a unique career and professional development track for undergraduate and graduatestudents in bioengineering. This initiative debuted at the 2005 IEEE/EMBS conference and hassince developed as an integral part of the annual conference. In the 2006 annual conference,approximately 320 student members participated in the student
encouraged toperform estimations and must begin to evaluate what they need to know in the context of theapplication. In response to the driving question, students are prompted to start askingconceptually-based questions that motivate subsequent active learning modules. Thus the goal ofthe EFFECTs framework is to create an integrative, rather than additive, module based approach.The most non-traditional component of this teaching (student centered learning) model is areflective writing assignment that usually occurs after each module in the form of a journal entryand which is featured as a significant component of the final report. These reflections, incombination with the decision worksheet, are a critical part of the process. With the
depth across the range ofengineering topics implied by the title of the program.The curriculum must include probability and statistics, including applications appropriate to theprogram name; mathematics through differential and integral calculus; sciences (defined asbiological, chemical, or physical science); and engineering topics (including computing science)necessary to analyze and design complex electrical and electronic devices, software, and systemscontaining hardware and software components.The curriculum for programs containing the modifier “electrical,” “electronic(s),”“communication(s),” or “telecommunication(s)” in the title must include advanced mathematics,such as differential equations, linear algebra, complex variables, and
engineering 1curricula could greatly benefit from sociotechnical integration in undergraduate engineeringeducation to encourage the development of sociotechnical thinking and habits of mind [4].Sociotechnical thinking is defined as, “…the interplay between relevant social and technicalfactors in the problem to be solved” [4]. Within the term sociotechnical, the first part, social, isused as an umbrella term that covers multiple broad social dimensions of engineering problemsolving, including but not limited to economic, environmental, ethical, and health and safety-related dimensions. Since the meanings of these latter terms can sometimes involve both
selection of teaching methodsthat may enable more connections to be forged in our community. This initial study will focus onVygotsky's sociocultural theory in order to explore how if we open the classroom up to socialinteraction on difficult topics, we can promote internalized individual reflection of socialbehaviors. It is the development of this praxis that has the aim of preventing depression ascaused by loneliness in our increasingly fractionated society.Authenticity in relationships and loneliness play a large factor in depression. The initial scope ofthe study is to identify elements of our curriculum that may be affecting authenticity andcategorizing them to form an assay with regard to types of activity our students are engaged in
International Society for Optics and Photonics as a conference chair, editor, and author. She is the President of the Optical Society of America, Columbia Section, and works to forge strong connections between industry and academic research.Gail Verdi Dr. Gail Verdi is Executive Director of Kean University's School of Curriculum and Teaching, Associate Professor in the Department of Elementary, Middle, and Secondary Education, and Coordinator of Kean's Graduate TESOL Program. She currently serves on NABE’s Research and Assessment SIG as an Executive Board member; and is a member of the Advisory Board for a 2021-2022 NSF Grant: "Embedding Equitable Design through Undergraduate Computing Curriculum" awarded to Dr. Patricia
. Developing these independent study skills is also veryimportant for graduates ready to enter the work industry. Project Based Learning is an importantconcept related to senior projects, especially in engineering technology programs, it representsactive learning techniques used in courses throughout the curriculum, from freshman years up tosenior design projects, and it is a concept extensively studied in the literature [3, 4]. Otherconcepts related to student projects and ultimately to senior design projects, are Design BasedLearning [5] and Experiential Learning [6]. Yet another concept covered in the literature isService-Learning Projects, which is related to community based projects that are integrated inundergraduate courses as instruments to
, backgrounds,and experience levels [5]. These activities comprising contemporary organizational life in theengineering industry make the presence of conflict ubiquitous [7] and the pressure tosuccessfully negotiate that conflict enormous [8]. Given the constant presence of conflict inorganizations [9], [10], it is no surprise that ABET emphasizes constructive communicationskills and effective team collaboration, of which conflict negotiation is an integral component, intheir student learning outcomes [6]. Acknowledging the constructive qualities of conflict negotiation for organizations andtheir members, creating and implementing conflict negotiation workshops for organizationalmembers can be an advantageous endeavor for organizations [11], [12
interventions. Assessing Student Attitudes toward BusinessAn integrated concept in ethics was discussed for student’s individual and professionaldevelopment of business ethics. Students exposed to such ethics courses with stimulating ethicscases faced hard questions to answer, when placed in an ethical dilemma. They learned one thingimportant: “Deciding what’s right: a prescriptive approach.” The outline of the class discussionwill be presented in thirteen ethics development modules and they will be integrated by acomprehensive case study to address the ethical dilemma of engineers and managers faced at thevery design implementation stage. Under condition of simulated input via a case study, theirbehavioral reactions will be
psychiatry.Dr. Muhsin Menekse, Purdue University Muhsin Menekse is an assistant professor at the School of Engineering Education at Purdue University, with a joint appointment at the Department of Curriculum & Instruction. Dr. Menekse’s primary research investigates how classroom activities affect conceptual understanding in engineering and science for all students. His second research focus is on verbal interactions that can enhance productive discussions in collaborative learning settings. And his third research focus is on metacognition and its implications for learning. Much of this research focuses on learning processes in classroom settings. Dr. Menekse is the recipient of the 2014 William Elgin Wickenden Award by
-MathematicsDistrict D 23 17 40 32 33 39 4 12 349GR 5 - ScienceandTechnologyProject DescriptionEiE is meant to be integrated with a school's existing science and mathematics curriculum. Forexample, simple machine concepts such as levers, inclined planes and pulleys, are traditionallyintroduced in the 4th or 5th grade of elementary school. These concepts would still be covered inscience class but enhanced through the implementation of the "Marvelous Machines" unit of EiE.Table VI shows that District B chose to implement "Marvelous Machines" in Grade 5, butDistricts C and D implemented "Marvelous Machines" in Grade 4 because simple machineconcepts are covered in Grade 5 of District B, but in Grade 4 of
production stage, a head-mounted display (HMD) device was connected to thevirtual environment to test and modify its compatibility, usability and efficiency. To optimize thefinal interactivity, the tasks of debugging and refinement are indispensable. Finally, thesegraphical objects were integrated into a multimedia system: the Intelligent Dougong System withVirtual Reality, an integrated learning system designed as a comprehensive and accurate browserto review all of the information about dougong in multiple forms. In terms of software chosen forthis study, Autodesk Inventor and Autodesk 3DS MAX were used to conduct the initial andadvanced modeling work, Unity 3D in the VR production stage, and Microsoft Visual Studio inthe dissemination stage. The
school and high school educators need to increase their technicalbackground in engineering and ability to integrate the engineering design process into theirclassrooms. This need is driven by the statewide curricula [2] and a high stakes testing systemimplemented throughout the Massachusetts public pre-college educational system [3]. Thetesting system assesses student knowledge in various areas of the state based curriculumframeworks and is known as the Massachusetts Comprehensive Assessment System (MCAS).The MCAS tests include a technology/engineering section that is presently assessed for studentsin grades 5, 8 and 10.In an effort to support this need, a program entitled Pre-college Engineering for Teachers wasstarted in 2002 by Tufts
Session 3157 Ferreting Out Capstone Design Issues in Large Scale, Complex Problems using the House of Quality John A. Marin, James E. Armstrong, Jr. Department of Systems Engineering United States Military AcademyI. Introduction An engineering capstone design experience is the crowning achievement in a student’sacademic curriculum, and integrates the principles, concepts, and techniques explored in earlierengineering courses. Systems engineering concerns the design of systems which are large-scale,complex and multi-disciplinary and is
Curriculum Enrichment and Development – While the Texas Essential Knowledge Skills (TEKS) provide a nationally recognized example of a results-oriented standard for improving STEM content in K-12 education, there are only a few courses at the high school level in the Texas Education Agency’s (TEA) inventory that can be viewed as having any substantive engineering emphasis or content. This lack of approved engineering curriculum discourages schools from developing and offering individual courses or magnet programs with an engineering orientation because they are largely restricted to awarding local credit for these offerings–––which may not always be transferable. In addition, there is confusion as to what teacher
Management, Co-op, Internship, Students, Work ExperienceIntroductionIn construction management education, integrating classroom and laboratory learning knowledgewith practical experience from real construction projects is widely recognized as important.Reports from the construction industry often stress that any deficiency in students' skills wouldnegatively impact their early career learning curve and students are more exposed to theoreticalas opposed to practical knowledge.1 This concern from construction industry representatives isreasonable as construction management is regarded as an applied discipline. One way of closingthe expectation gap between industry and academics is by offering internship programs that willstrengthen students’ practical
. With the students being able to understand the modal analysis easier than thefrequency response analysis, more emphasis will be placed on future exercises as they relate tomanufacturing processes covered in the mechanical engineering technology curriculum. Beingable to relate a vibration concept to an actual process helped to solidify the usefulness of theanalysis tool.References[1] Rao, S.S., “Mechanical Vibrations”, 3rd Edition, Addison-Wesley Publishing ISBN 0-201-52686-7.[2] Zhang, S., 2020, “Visualizing the Inherent Properties and Animated Responses of VibratingSystems Based on Finite Element Modelling”, ASEE Virtual Annual Conference, 10.18260/1-2-35490.[3] Irwin, J.L, Labyak, D.M., 2020, “FEA Taught the Industry Way”, ASEE Virtual
Page 12.250.2results from the simulation and experimental investigation using a hypersonic Arc Heater testfacility. This research required integration of computational fluid dynamics (CFD), plasmadynamics, electromagnetics and mechanical design.Background about AAMU and the SEAARK ApproachAAMU is a charted historically black university. It is located in the northeast side ofHuntsville, Alabama, an important world center of expertise for advanced missile, spacetransportation and electronic research and development. Among the leading government andindustry organizations located in this area are: the NASA Marshall Space Flight Center, theArmy Aviation and Missile Command Center (AMCOM), the Redstone Arsenal TestingCenter, the Boeing Company
technology-lifebalance in an increasingly technological and digital media-focused environment.Keywords: technology-life balance, physiological and psychological health, technology use,undergraduate engineeringMotivationIn the rapidly evolving landscape of the 21st century, the integration of digital technology intoour daily lives has reached unprecedented levels, with further acceleration generated by theCOVID-19 pandemic [1]. The resulting surge in technology usage popularized a critical field ofresearch: technology-life balance. Technology-life balance, also referred to as digital wellness ordigital health, can be defined as the pursuit of an intentional and healthy relationship withtechnology and digital media. This emerging discipline seeks to
Paper ID #40820Improving Student Engagement in the First-Year Transition Seminar Classwith Open Educational ResourcesDr. Gang Liu, University of Pittsburgh at Bradford Dr. Gang Liu is an Assistant Professor of Mechanical Engineering Technology in the Division of Physical and Computational Sciences, at the University of Pittsburgh at Bradford. He received his Ph.D. degree in mechanical engineering in 2006 and another Ph.D. degree in engineering education in 2018. He teaches mechanical engineering undergraduate courses, including statics, dynamics, mechanics of materials, etc. His research interests include in-class
. Dym and colleagues11 assert that “the purpose of engineering education is to graduateengineers who can design, and that design thinking is complex.” Because of the importance ofdesign in engineering education, efforts are ongoing to integrate design throughout theundergraduate curriculum, rather than reserving it for a single capstone course. Many studentssupplement their in-class design activities with non-required participation in designcompetitions. Focusing on the ABET learning outcomes, Lattuca, et al.6 found that studentparticipation in design competition significantly and positively influenced students’ self-reportedskills and abilities, including design and problem-solving skills, experimental skills, and life-longlearning skills
played a leadership role in an effort to establish the Nuclear Engineering program at PV. He has led the efforts of procuring NASA and DOE funding for curriculum development of radiation science and engineering program at PV. He is the architect for the curriculum development of the energy engineering minor at the undergraduate level and energy engineering concen- tration at the graduate level within the Roy G. Perry College of Engineering. His research interests include characterization of radiation environment (neutrons and gamma) for fundamental materials research and space radiation effects in material and radiation shielding analysis for ground based system and space radiation environment. Aghara published a
programming language. However, due to significant changes in the Freshman andSophomore curriculum, the prerequisite programming course is no longer available.Due to the removal of programming from the general engineering curriculum at Ohio Northern,two options were considered: ending the requirement for structured programming in upper-levelcourses (relying solely on application-specific software tools), or offering a Programming courseconcurrently with Numerical Methods in the Junior year. While commercial software is usefulfor solving many problems, the mechanical engineering faculty decided that knowledge of astructured programming language was still an important skill for our students to develop12. As aresult, a C++ programming course was
make changes to building assemblies and components with an understanding ofoverall cost and schedule impact. Importantly, cross-discipline integration between design andconstruction dramatically decreased the time needed for cost estimating, planning andscheduling. It also facilitated reductions in consultant billings for specific civil, structural, andMEP design services.Through a case study approach, this paper validates the use of Building Information Modeling asan integrated format for construction education. It demonstrates the advantage which acomprehensive interface can provide to an engineering student; one which depicts the integrationbetween design and construction services. In such an environment, students are able tosimultaneously
Students Internships Computational Science Monitor Preparation by freshmen Students Mentoring and Internship Placement Fig. 1: Schematic of the model.2.1. Curriculum and Teaching InfrastructureThe curriculum and teaching infrastructure supports the development of a course that serves asboth an orientation as well as introductory course in computational science for freshmen. It alsoprovides support for interdisciplinary seminars, students mentoring and internship placementactivities
assessment of knowledge, which is a foundation to improve student’s ability incritical thinking and problem solving.To make a successful objective also requires a special focus on the component - intendedaudience or students in an objective: action verb conditions standard intended audience or students.This solution is to include students as a part of objective and to integrate students into objectivesin their learning process. This solution helps make strong connections between objectives andevaluation and measurement of student learning outcomes. The same solution integrates a set ofconcept mapping techniques below to create milestones for measurement and check-upevaluation procedure at each milestone in student learning
should be directed to the challenges and sensemaking ofengineering. In the same line as Lattuca, Knight, Ro & Novoselich (2017), we believe there is aneed to showcase concrete educational experiences in the study of engineering education.Following a Vygotskian (1931) argumentation, there is a need to understand which is theeducational scaffolding needed for learning to take place. Throughout this case study, we willexpose some insights on how an Anthro-Design course promotes epistemic change in the contextof engineering design education.Case Study: The Anthro-Design CourseAnthro-Design is a third year minimum course corresponding to the Major in EngineeringDesign and Innovation. This major is part of the undergraduate curriculum at the