-Year Engineering 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. Michele Miller, Campbell University Dr. Michele Miller is a Professor and Associate Dean at Campbell University. Prior to joining Campbell in 2017, she was a professor of mechanical engineering at Michigan Tech. She received undergraduate and graduate degrees in mechanical engineering from Duke and NC State, respectively. Her research interests include engineering education and
Engineering Education” and ”Engi- neering Mechanics: Statics.” Dr. Goodridge is an engineering councilor for the Council on Undergraduate Research (CUR) and serves on ASEE’s project board. Dr. Goodridge actively consults for projects includ- ing the development of an online curriculum style guide for Siemens software instruction, development of engineering activities for blind and visually impaired youth, and the implementation and investigation of a framework of engineering content to incorporate into P-12 engineering education.Mr. Benjamin James Call, Utah State University Benjamin Call graduated with his Masters of Science degree in Mechanical Engineering (Aerospace Em- phasis) in 2006 from Utah State University. After
presentation to suit the preferences of modern learners.Against this backdrop, the importance of supporting improvement of visual literacy skills ineducation has never been more pronounced. This paper advocates for the strategic integration ofinfographics as an essential tool to enhance learning outcomes. Infographics, by virtue of theirability to simplify complex information into engaging, visually stimulating formats, emerge as acritical asset in the educator's toolkit, offering novel ways to enrich the learning experience [2].Driven by the significance of visual literacy and the pedagogical potential of infographics, thispaper aims to highlight how these visual tools can significantly improve visual literacy,comprehension, engagement, and
Paper ID #36349Introducing Quad Chart to Reinforce Technical Communication SkillsMs. Debjani Sarkar, Ms Debjani Sarkar is an academic teaching specialist in the College of Engineering at Michigan State University. She teaches Technical Writing for Engineers and Scientists at MSU. She also leads the com- munications and marketing activities of the first-year engineering CoRe Experience. She supervises the College of Engineering Tutoring Center, which offers free tutoring in foundational courses for under- graduate engineering students. She has over a decade of experience on e-communication, curriculum development, web and
an opportunity tobecome well-founded in electrochemical science and technology. In fact, the status ofelectrochemical education has changed little since a 1986 National Research Council reportnoted,1 "Most of the chemistry and chemical engineering departments offer no formal instruction or research in corrosion. Fewer than 20 percent of the chemical engineering departments provide training in electrochemical synthesis and energy conversion, either through course work or research. In addition, over the past 10 to 20 years there has been a gradual disappearance of electrochemical coverage in most physical chemistry courses."In short, a sizable fraction of all practicing engineers and scientists will use
joined Oregon State University in 2018, where he is a professor and head of the School of Electrical Engineering and Computer Science. His research interests include RF/microwave applications of additive manufacturing, development and application of microwave materials, and integrated circuit and antenna design. He holds over 35 U.S. patents and has authored over 300 professional publications.Dr. Arash Takshi, University of South Florida Bio: Arash Takshi graduated in Electronics from Amir Kabir University of Technology in Iran in 1993. Three years later he received his M.Sc. in Analog Electronics from Sharif University of Technology in Tehran. He worked in industry as an electronic design engineer for seven years
but also presented in theclassroom. Moreover, the learning process can be interactive. For example, students may do on-lineexercises that can be answered promptly for instantaneous feedback. An integral part of the Page 3.135.3present courseware is the feedback/evaluation mechanisms. On-line questionnaire includingcomments and multiple choice questions have been implemented so that teaching evaluationforms can be filled out anonymously anytime and anywhere a networked computer is available.Instructors and students thus interact with each other in an effective and timely manner
Climate Change Communication that found 78% ofvoters support upgrading the electrical grid and expanding renewable energy sources usingfederal funds [1]. One possibility to consider when integrating renewable energy into ourexisting infrastructure is through harnessing the enormous amount of vehicular kinetic energythat is available on our roadways.As of 2017 the Federal Highway Administration reports that there are 4,184,471 miles of publicroad in the United States alone [2]. These roadways provide a diverse environment for energyharvesting within the vast amount of infrastructure that already exists. The near constantexposure to solar radiation, wind, run-off from precipitation, and repetitive mechanical loadingcreates an opportunity to
categories; management departments (there are 8 central(8 indexes), academic (14 indexes), administrative units, 12 departments,research and academic services (6 and 3 affiliated institutes in theindexes), cultural & ethical promotion Faculty.) The quality assessment was(2 indexes) and quality assurance (4 set to link and integrate with QAindexes). The scoring for each criteria system so that the audit and assessmentranges from 1 signifying a poor can be implemented simultaneously.standard up to 7 signifying an Table 2 summarizes the QAinternational recognition. development timeframe and activities These assessment criteria were set during the year 2001-2004.to link up to the
universityeducation tends towards an integral formation, where teachers take a role as process facilitators,adapting strategies to students' needs. In this approach, all actors are relevant since theycontribute with ideas, reflections, and feedback en-route to a shared learning experience;therefore, everybody learns continuously, which allows us to develop continuous improvementsand apply what we teach. Here lies the value of feedback provided by each student.As can be seen in figure 5, the Questionnaire proposes seven areas to evaluate by students. Thetotal of responses was 817, the rate of responses with comments: 23.75%. The results of thisevaluation are as follows. Figure 6. Item: The facilitator created an atmosphere of trust.Given the
institutions may choose to modify and implement to improveundergraduate research experiences and outcomes.Introduction:Entrepreneurship has been an inseparable part of business programs’ curriculum, but itsembedding in engineering colleges or in interdisciplinary programs is fairly new. Considering real-life needs, the development of a professional skill set comprising proficiency in communication,business, creativity, leadership, and other attributes, is nearly or equally as important as theacquisition of technical skills by engineering students. By embedding entrepreneurship inengineering programs, students create personal, economic, and societal value. There is an overlapand logical fit between the outcomes of STEM programs and the skills
burden on the student and allowing any studentaccess to the learning materials.This paper presents the use of online software to teach PLCs in a Mechanical Engineeringcurriculum. The software used is Automation Direct’s Do-more12 PLC Emulator Softwaredevelopment suite. It is chosen as the instructional vehicle herein in order to illustrate howstudents can learn PLC programming and implement Proportional Integral Derivative (PID)loops within simulated control system environments. The use of PID loops in industry iscommonplace and the theory behind them is well understood13. The body of the paper is outlinedas follows: first an overview of the Do-more PLC emulator is given, followed by an example ofhow a PID loop is implemented on the Do-more
styles, it is imperative that students understand how changes ineducation will contribute to their long-term development. Changes are commonly met withresistance, but opposition can often be diffused if students have some say in the process.Creating an environment that is engaging and energizing will improve student’s understanding ofthe material and retention rates after transitioning into the work force. Although flippedclassrooms require an adjustment period, this learning approach allows instructors to preparestudents for problems outside the textbook. Bishop and Verleger (11) addressed the concern thatengineering graduates lack the ability to solve real-world problems. Students commonly work ona senior-level end of curriculum problem, but
offormal educational settings4. Contemporary values underpinning the nature of STEM basedsubjects’ places greater focus on preparing students to be active participants in society. It istherefore the role of STEM educators to motivate students to explore and establish what is ofvalue to them and in turn to increase the capability of students to critically engage in andhave an impact on society5, 6.In Ireland, proposed change at lower post-primary level (Junior High, 12-15 year olds) aimsto move towards a more design focused curriculum, where the focus of education is on theneeds of the student to develop competencies and not driven by the need to perform in
SESSION 2330 The Learning Portal Richard L. Upchurch, Judith E. Sims-Knight University of Massachusetts DartmouthAbstractUndergraduate engineering education is experiencing a paradigm shift, from teacher-centered tostudent-centered pedagogy characterized by student teamwork and integrative curricula 1. Theresearch and experiences underlying this shift have revealed that effective learners not only learnactively, but they develop an awareness of their skills in learning, and engage in self-assessmentand reflection. Research in psychology has found that the
in the professional population (e.g., bioengineersmoving on to other specializations), the ratio of supply to demand reflects an imbalance betweencurrent employment needs and the aggregate available supply.Many of the programs introduced during this period exhibited a ‘characteristic’ curriculum builton a basic course sequence in electrical engineering supplemented by several courses related toBiology and Physiology; these courses typically replaced elective alternatives available tostudents within the electrical engineering major. In recognition of these programs, theAccreditation Board for Engineering and Technology (ABET) accordingly developed ProgramCriteria(5) with its principal provision as follows: “The program must demonstrate
integral part of all engineering programs; in fact, it is not even a standard part of many Civil Engineering (CE) programs. Plane surveying, the determination of the location of points on or near the surface of the earth, is rapidly becoming a lost art in the civil engineering curriculum. This paper is not an attempt to resurrect surveying in the modern CE curriculum. It looks at surveying field work in an historical perspective; to highlight changes in the art of surveying and how they have impacted both the teaching and practice of surveying, and to point out conceptual features of surveying field work and show how selected activities were particularly suited to teaching fundamental concepts applicable to a wide range of
. His research interests include Humanitarian Engineering, social justice in engineering education, global engineering education, professional engineering practice, and curriculum design.Prof. Brent K. Jesiek, Purdue University, West Lafayette (College of Engineering) Dr. Brent K. Jesiek is an Associate Professor in the Schools of Engineering Education and Electrical and Computer Engineering at Purdue University. He also leads the Global Engineering Education Collabora- tory (GEEC) research group, and is the recipient of an NSF CAREER award to study boundary-spanning roles and competencies among early career engineers. He holds a B.S. in Electrical Engineering from Michigan Tech and M.S. and Ph.D. degrees in Science
to study applications using unmanned aerial systems (UAS). The UASprimarily serves in military applications but recently has begun meeting civilian applications5, 6.These grants have provided great undergraduate research opportunities. A MVS will be used to Page 23.351.2develop the CMP. Mounting the CMP to the UAS could provide a powerful tool for farmers inthe future. This paper discusses the integration of this undergraduate research with teachingcontrol systems, specifically machine vision.2. Machine vision2.1 Generic machine vision modelMachine vision can be defined as a combination of an imaging sensor with image processing toprovide
mindset for innovation, and having the wherewithal to articulate andexecute a vision41. Researchers have argued that creative competence can be enhanced42,43,44,45.How it can be enhanced is still a mystery. Given the richness and complexity of the contexts inwhich aspiring engineers are preparing to enter, now is the time to solve that mystery. Thisproject is part of a larger effort targeted at curriculum reform efforts that will improve students’capacity to make meaningful contributions in an ever-changing world.Engineering education needs to respond to the current era by turning out a larger numbers ofengineers capable of being creators, particularly category creators—creators of whole newcategories of products and services. This creativity
many different engineering andscientific disciplines and the potential for significant contributions to those disciplines.An interdisciplinary team of five professors representing chemical engineering, electricalengineering, and applied physics have developed a unified Optics program at NJIT consisting ofthree courses with integrated laboratory components. The following courses have beendeveloped: OPSE 301 -- Optics Principles -- A multidisciplinary introduction to optics principles. OPSE 402 -- Applications -- A multidisciplinary course emphasizing optics applications in Chemical, Environmental, Industrial, and Electrical Engineering and Applied Physics. OPSE 601 -- Advanced Topics -- An multidisciplinary graduate
research, the other primary goal of the RET was for the teachers to develop classroom modulesbased on their research experiences. These modules were to be used in their classes as both hands on learningexperiences for their students, and as stimulators for students to consider career opportunities in engineering.During the RET time, Fickert and Jones designed two inquiry-based units to use in each of their classrooms.Jones says of his RET experience, “I use a great deal of discussion in my classroom to promote inquiry in myclassroom culture. One aspect of that culture is the students’ perception of the teacher as an expert on certain topics.The experience with CAVE allows me to put myself in a professional setting if I find the opportunity to use
needs that are driving those developments. The impact ofthese changes and trends on academic programs is addressed, including recommendations as towhat portion of these developments should be incorporated into the curriculum, and what collegeand university engineering graphics programs should do to prepare their students for thesedevelopments in industry.IntroductionTrying to analyze the ever changing and dynamic trends and directional movement of the CADsoftware industry can be roughly compared to trying to analyze the stock market: one must dealwith a seemingly infinite number of outside forces affecting an incredible number of constantlymoving reference points at an ever accelerating rate of speed. The complexity of the task can
course or being exposed to process safety contentas a student. Another challenge that arose was how and where to fulfill a newly required studentoutcome in an already packed curriculum or what to remove and replace to add process safety asa learning outcome.The American Institute of Chemical Engineers (AIChE) Center for Chemical Process Safety(CCPS) has long been viewed as a leader in the field of process safety. The CCPS has provideda platform for industry and academia to share information and resources related to process safety.Chemical engineering faculty members that have been leaders in process safety instructionincluding Dan Crowl, Ron Willey, and Chip Howat began facilitating faculty workshops held atindustrial sites as early as 1989 [1
engineering. She has an NSF CAREER and Presidential Early Career Award for Scientists and Engineers (PECASE) award for this work. Page 14.683.1© American Society for Engineering Education, 2009 IGERT Funding and the Institutionalization of Interdisciplinary Graduate EducationAbstract Interdisciplinary graduate education is key to the preparation of tomorrow’s engineers,researchers and faculty. The U.S. National Science Foundation’s Integrative Graduate EducationResearch Traineeships (IGERTs) provide funding to train students in interdisciplinary scienceand engineering
, biomedical engineering, computersystems and networking subjects in an integrated environment, with the aid of a genericarchitecture, that includes 3D web-browser readable multimedia, text, images,interactive videos, active codes for calculations, and even self-assessment tools (asspreadsheets, spreadsheet templates, and others).The developed and validated cases besides traditional teaching and learning methods,and laboratory activities, use browser-readable interactive 2D and 3D objects,animation, videos, 3D objects of real components, virtual 3D disassembly methods ofobjects, and simulated (virtual) factory tours, and in the case of biomedical engineeringvirtual 3D internal and external human body virtual tours, that the students can exploreand
needs, aging infrastructure, the impacts ofclimate change, and managing emerging technologies for human health, manufacturing andmaintaining environmental integrity, the study of engineering disasters and the nature of risk incomplex systems (and their broader societal and ethical context) will be an educationalnecessity.1For engineering, science and technology students in particular, the study of engineering disastersin their broadest context is critical. On one level, it is obviously necessary to learn from ourmistakes. But just as, if not more importantly, it is the broader context of failure – failureunderstood through the lens of the “open system” – which must be understood, especially in anincreasing complex engineered world. A key need
content shouldcater to different learning styles, especially benefiting global learners who suffer in traditionalforms of the class that do not emphasize the “bigger picture”.3 Cabral et al showed that placingthe fundamental material within the context of an applied situation increases students motivationto learn.4 Each lecture module will have an open ended project that student teams work onthroughout the course of the module. The project is integrated into each module in order toincrease student ownership of their learning and to deepen students’ understanding between theconnection of the fundamentals they are learning with real world engineering applications.5 Thefundamental material appears in multiple modules. This allows students to revisit
senior-level students with an opportunity tolearn more about innovation and entrepreneurship. In their final year of undergraduatestudy, groups of three to four students come together as new start up companies thatcomplete the two-semester capstone design requirements by transitioning from an Idea toa fully functional Prototype (I2P). Most of these projects are now externally sponsoredby companies that are trying to increase their design bandwidth, jumpstart a new productidea, or in some cases become more involved with students to develop a better pipelinefor new hires. Intellectual property developed by these student companies is transferredto the Texas A&M System Office of Technology Commercialization that manages thelicensing of the IP to
concept of teaching technological literacythroughout the curriculum. Page 15.1193.2IntroductionFirst year courses are an integral part of many engineering and engineering technology degreeprograms. These courses serve to introduce newly declared majors to careers in engineering andtechnology. A student taking such a course should come away with a foundation of knowledgeabout engineering and technology, about the different engineering disciplines, the work involved,and career prospects to be able to make an informed decision on whether they should pursuesuch a degree or not and what discipline would be the best match to their talents and