mechanical engineers in the new era of data science and artificial intelligence, engineeringeducators have been urged to integrate these new technological advancements into existingcurriculum to adapt to the fast-changing needs from the future workplace. My effort primarily focuseson implementing an interdisciplinary approach to introduce the concepts and principles of datascience to the undergraduate students of mechanical engineering. I re-designed the class of Statisticsfor Engineering as Data Analytics for Engineering, in which the students can practice new tools usedin data analytics applications while they are still learning the basic statistical principles behind thesetechniques.In this class, the students are exposed to the real-world
resulting from human activity. Thispaper presents, from the engineering point of view, the required steps by which sustainability canbe built into systems so that it can be practiced by all concerned. In order to do this, it isnecessary to incorporate sustainability concepts into all aspects of studies done by manufacturingengineers. A curriculum approach is developed in this paper based on the results obtained from aquick survey of manufacturing engineering and technologists.1. Introduction Manufacturing systems, though they create material wealth for humans, consume a great amount of resources while generating a lot of waste. The significant portion of the waste generated during the manufacturing processes, at the use phase, and after the end of
student’s improvements reached by other engineeringprograms is explained and discussed as the jumping board for the development of the newcourse. The goals for initial professional awareness in student’s communication artifactswere related to specific Accreditation Board for Engineering and Technology (ABET)criteria. A new course called Writing Articles and Research Reports (RAII) taught withinthe student’s major department was created emphasizing effective communication and theneed for continuous learning with the understanding of ethics and professionalresponsibility. The constructivist approach was used to design the course and anexposition of the mapping between the design of the course and the skills that are intendedto achieve is outlined in
thinking, and programming skills.Dr. Liyu Zhang, University of Texas, Rio Grande Valley Liyu Zhang is an Associate Professor in the Department of Computer Science Department of Computer Science at the University of Texas Rio Grande Valley. He received his Ph. D. in Computer Science from the State University of New York at Buffalo in SeptembDr. Hansheng Lei ©American Society for Engineering Education, 2020 Infusing Raspberry Pi in Computer Science Curriculum for Enhanced LearningAbstract— With the advent of cloud computing, the Internet of Things (IoT), and mobilecomputing, CS faculty are continuously revamping the curriculum material to address suchburgeoning set of technologies in practical and relatable
Paper ID #33095Leveraging Curriculum to Mitigate Engineering Killer CoursesDr. Stephen Andrew Wilkerson P.E., York College of Pennsylvania Stephen Wilkerson (swilkerson@ycp.edu) received his PhD from Johns Hopkins University in 1990 in Mechanical Engineering. His Thesis and initial work was on underwater explosion bubble dynamics and ship and submarine whipping. After graduation he took a position with the US Army where he has been ever since. For the first decade with the Army he worked on notable programs to include the M829A1 and A2 that were first of a kind composite saboted munition. His travels have taken him to Los
guarded optimism4to be at the forefront of the new educational culture. As the MOOC phenomenon moves towardsmaturity, the concurrent approach within the Department of Mechanical and ManufacturingEngineering was to assemble learning technologies and techniques that modernize the entireMME curriculum and deploy them in an appealing and contemporary package. The ComEx project is imbedded within the MME curriculum. That is to say, unlike thepreponderance of simulation and/or experiment based online learning modules that have beendeveloped for specific courses5-8, whether they be in chemical, electrical, mechanical ormanufacturing engineering, the ComEx studios focus on a set of thematically linked courses.The students utilize the modules as
implementation response analysis. #4 IIR filter IIR filter implementation and frequency Filter implementation response analysis.Table 4: Summary of existing Lab coursework using the dedicated TMS320C6713DSK boardThe new proposed labs that use the MCU-based platform would facilitate students to attain morecontent and practice DSP topics with more depth and complexity.IV: Senior capstone project improvement goals and assessment measuresThe Electrical Engineering program at Western Washington University is in the process oftransitioning from an ABET-ETAC Electronics Engineering Technology (EET) program to anABET-EAC Electrical Engineering (EE) program. All aspects of the curriculum are
electrical circuit problems. A practical example of applying the eTutor feature is discussedas part of a basic electrical engineering course currently given at UCF and results show improvedstudent performances in learning materials in Electrical Circuits. Keywords-component; Tutor-Me Module; Tool; Electrical Circuits; Interactive bookI. Introduction The interactive technical electronic book (TechEBook) serves as a modern, media-rich innovativeapproach to a topic-driven modular electrical engineering curriculum that recognizes the differentlearning approaches for different users. The TechEBook consists of 16 chapters, a total of 75 sectionsrepresenting typical content for the introductory circuit course at most universities in the world
faculty in their transition to using evidence-based teaching strategies. c American Society for Engineering Education, 2017 Impact of Course Structure on Learning and Self-Efficacy in a Unit Operations LaboratoryIntroductionIn the chemical engineering curriculum, the unit operations laboratory course traditionally servesseveral key roles in the development of students as professional engineers. The primary goal ofthe course is to apply chemical engineering theory learned in core courses to the operation ofequipment. As part of this process, however, numerous additional skills are often also learnedand/or emphasized: experimental design, instrumentation, technical communication
funded research projects focus on the development nonlinear dynamics approaches for the detection of faults in bearing and gear systems at the Villanova Center for Analytics of Dynamic Systems (VCADS) in PA. He graduated from the University of Yaounde 1 in Cameroon and then completed a Certificate in Teaching Engineering in Higher Education at Villanova University. Dr. Kwuimy is interested in vibration analysis and in the use of nonlinear dynamics tools to improve the early detection of fault in complex nonlinear systems. In the latest, his focus is on engineering systems (gear systems, bearings) and biological systems (vibration in human-arm, human diseases). In vibration analysis, his focus is on the conversion
knows exactly where to start with course or program changes. The samereasoning is why the program is starting early to learn how best to craft the assignmentand in what courses to best demonstrate these new outcomes. The assignment ofembedded indicators to certain courses and the request for all courses to look foropportunities to demonstrate new outcomes leads to the best possible minimal set ofembedded indicators. Page 22.789.11If the students do not begin to wrestle with an outcome early in the curriculum, maybe asearly as freshman year, they usually do not demonstrate well the outcome during thesenior year.13 Engineers who do not to consider the
content and/or integrated throughout the curriculum as one of theaccreditation criteria.There are educational materials available for ethics education which provide information at thefundamental level and focus on discipline specific issues. For example, design specific cases anddiscussion usually become the focal point in professional design curriculums 7 while contractualand competitive relationships take the center stage in construction curriculums 8. There are also Page 25.23.2comprehensive study materials and educational approaches which present a wider perspective9,10,11 . However, the discussions and study of these subjects are highly
Paper ID #46891Rock paper symbols: Leveraging the spiral curriculum to teach coding inprimary schoolsDr. Brendan Jacobs, The University of New England Brendan Jacobs is an Associate Professor and Head of Department (STEM Education) at the University of New England, Australia. His research interests are in STEM education, explanatory animation creation, conceptual consolidation and digital scholarship.Solina Quinton, University of Waterloo Solina Quinton is an environmental engineering graduate from the University of Waterloo with a passion for education. Her experience in the field of engineering education began during her
Paper ID #6983Using International Engineering Experiences to Inform Curriculum Devel-opmentEileen Walz, University of Illinois Eileen Walz is working on her master’s in Library and Information Science at the University of Illinois. She received her bachelor’s degree in Environmental Engineering but is now pursuing a combination of interests related to education enrichment programs for international development, creativity, and commu- nity engagement.Keilin Deahl, University of Illinois, Urbana-Champaign Keilin Deahl is a graduate student in Systems and Entrepreneurial Engineering at the University of Illi
that are needed to be asuccessful engineering problem solver. We describe the status of this project, which has beenimplemented in two courses: an engineering economy course and a manufacturing systemsengineering course. One of the objectives of this new environment is integration of thecurriculum, and we discuss how links were created between these two courses to highlightconnections between the course contents, and how this results in rethinking and improvements ofthe existing curriculum. We also show how the environment encourages development ofengineering problem solving skills, as well as the basic cognitive skills needed. Finally, wediscuss our assessment of the new learning environment, how it has been received by students,and how it is
-campus organizations offering a variety of international programs.3.2 International Remote Interactive LearningThe CoE at Virginia Tech announced a new Tablet PC computing initiative in summer 2006 forincoming freshmen. This initiative made it mandatory for all engineering freshmen (~1300 each Page 13.533.7year) to own a Tablet PC starting fall 2006 for use in engineering instruction. In fall 2007, aninstruction software DyKnow was used with Tablets to make classroom environment interactiveand student friendly. This software allows a student to attend class from a remote location andalso makes it possible for the instructor to teach class from a
specific classes at themore advanced level devoted to nanotechnology. For example Pai et al. discuss the introductionof two graduate-level classes that cover the growth and characterization of emergingnanomaterials.4 Uddin and Chowdhury describe a comprehensive plan for integrating a set ofcourses into the undergraduate engineering curriculum.5This paper advocates an approach that integrates nanoelectronics material into an existingintegrated circuits design course. This is a viable approach for several reasons. First, it is anattractive approach for a smaller-sized institution that may not have the resources forimplementing a full set of separate nanoelectronics courses. Second, it is often not easy to makewholesale changes in the curriculum to
content. The curriculum designpermits instruction to be delivered in three one semester integrated courses or inconcurrently taught linked courses with coordinated presentation of material.IntroductionUnited States’ businesses and industries are changing their work environment to remaincompetitive in the world market. One of the major changes involves the technicalworkforce in shifting from the traditional manual industrial worker to an engineeringtechnician, who both works with his/her hands and applies theoretical knowledge. Thisexpanding role of the engineering technician requires changes in engineering technologyprograms. Engineering technology programs must identify the new characteristics andskills of the technician and create an
enhancing engineering education which manyprofessors desire to incorporate into their classrooms. Unfortunately, few developed activities aretypically available for a given topic and the time required to create new activities tends to beprohibitive. The PHLIpS Method (Producing Hands-on Learning to InsPire Students) seeks toovercome this by providing a fast, effective approach to guide professor in developing activelearning activities that are solidly founded on educational theory and meet learning objectives.This paper’s evaluation of the method highlights the method’s advantages. A controlledexperiment showed that participants generated more ideas with the method. The participants alsoevaluated the PHLIpS method to be as least as good as or
engineer in the state of Louisiana.Bill Elmore, Mississippi State University BILL ELMORE, Ph.D., P.E., is Associate Professor and Hunter Henry Chair, Mississippi State University. His teaching areas include the integrated freshman engineering and courses throughout the chemical engineering curriculum including unit operations laboratories and reactor design. His current research activities include engineering educational reform, enzyme-based catalytic reactions in micro-scale reactor systems, and bioengineering applied to renewable fuels and chemicals. Page 11.562.1© American Society for
an effort to “change the culture of science to bemore welcoming and inclusive” [5]-[7]. In the wake of George Floyd’s murder and the racialjustice protests that followed, many national organizations issued Black Lives Matter statementsand pledged to redouble their efforts to address the racialized history and impact of science [8],[9]. These statements expressed similar sentiments and commitments to “increasing theparticipation, inclusion, and empowerment of historically underrepresented segments of societyin all venues where [science and engineering] is taught, practiced, and supported.” One approachto fulfilling these commitments is the notion of “decolonizing” the STEM curriculum [10]. Suchan approach does not seek to “reject established
, physical, and mechanical properties and durability performance of infrastructure materials, with a focus on sustainable concrete materials technology. He also researches new strategies to improve STEM education. c American Society for Engineering Education, 2020 Implementation of a laboratory experience in reinforced concrete coursesIntroduction College students enrolled in an engineering curriculum learn in a variety of ways (e.g.,sensory vs. intuitive, visual vs. verbal, inductive vs. deductive, active vs. reflective, or sequentialvs. global). In a reinforced concrete design course, where students learn how to designcomponents of large structures, it can be
resulted in mentions of reduced resolution andframerate during the testing process. Additionally, in the fields of engineering and archaeology,the data constantly changes with new discoveries or further analysis, which often calls forchanging the knowledge base of the simulation. Any changes which are made on the structurallevel will need to be run through the graphics pipeline and the component replaced wholesale,although the automatic recalculation of a change in the model can speed up the process. Future studies on this project may focus primarily on improving the resolution of thesimulation as well as simulating more realistic environments and aesthetic details.Representations of monuments and buildings in most media are highly detailed but
• understand the current trends and emerging technology within the biotechnology industry • identify where gaps exist between current technology needs and existing solutions • recognize existing gaps between biotechnology needs and current solutions as opportunities • explore potential solutions for new technology development to address identified needs within the biotechnology industry.The curriculum developed for the electronic portfolio also addressed the development ofkey attributes noted in a recent study by the National Academies. As stated in the recentreport from the National Academy of Engineering, entitled The Engineer of 2020,creativity and communication were cited as key attributes for engineers of 2020
College are described. The major elements of thecurriculum that is being planned include: (1) a set of modules for learning the basicsof entrepreneurship, (2) interaction with several on-campus and distributedhatcheries, (3) a set of in-depth learning interactions (projects, modules, courses) thatprovide depth of knowledge in engineering entrepreneurship and (4) capstoneexperiences in entrepreneurship during the sophomore year and the final year of theundergraduate curriculum. New courses/modules specifically targeted on technologyentrepreneurship are being designed between Babson College and Olin College.Babson College’s number one ranking in entrepreneurship is being fully leveraged byjoint appointments of faculty, cross registrations between
different dimensions of astudent-driven intervention on Black engineering student success and point to new quantitativemethodological approaches that may be used for any intervention to understand its impact onstudent success. Next steps to expand on this work include adding more academic history controlvariables, increasing sample size, and examining institution-driven interventions as variables. Thispaper would be of interest to engineering educators, student support practitioners, institutionalleaders, and all engineering stakeholders invested in understanding the broader ecosystem ofstudent support, especially for interventions that serve historically marginalized students
Program: Students’ PerspectivesAbstractEffective advising ensures students take the proper classes to stay on track for their graduation.For example, in an engineering curriculum, it is crucial that students maintain the propersequence of courses that results in the culmination of the program's required capstone designcourse(s). Any human error during the advising process can risk the disruption of the smoothprogression through the program for a student. Thus, a computerized web-based advising toolcan be highly useful to eliminate such human errors in identifying the most needed coursesduring an advising session. Currently, many advising tools are available through commercialbusinesses or developed by those working in the field of education. In
our new curriculum. Without a doubt it has been one of the moststressful experiences of our professional lives. Yet in spite of the enormous work effort, we feelgood about what we have accomplished. We are confident that we have held to the spirit of thenew ABET 2000 criteria, and that we have designed some innovative approaches without losingsight of standards and common goals. Not only is our curriculum stronger than ever, but so isour faculty—and, we hope, so are our students. Curricular reform has provided opportunities forcreativity, for working together, and for achieving a shared vision that will lead to a strongerSchool of Engineering. We are now in a much better position to adapt to the rapidly changingworld in which our graduates
approach used student responses to measure ethical perceptions and moralreasoning in order to guide an undergraduate course lecture and discussion on professional ethicsin engineering. The paper begins with an overview of approaches to ethics education and thereasons for this new approach. Then the paper describes the measure and how the resulting datawas used to facilitate discussion in a single class lecture on professional ethics. The lecture ispresented as a case study to demonstrate how requiring students to complete a survey measureprior to instruction promotes added depth of awareness and salience to follow-up case study andlecture pedagogy. The resulting data was a quantifiable and visual representation of thecomplexity of ethical decision
University (India). His teaching and research interests are focused on adoption of lean principles in the design and construction industry, and different pedagogical approaches. Page 26.783.1 c American Society for Engineering Education, 2015 Flipping a Structures Class in a Construction Science Program Lisa Holliday, Camilo Pena, Somik Ghosh University of Oklahoma Construction Science Division Structures topics such as Statics and Strength of Materials have traditionally