. "Learning Styles and Teaching Styles in Engineering Education." Engr. Education, 78 (7), 674-681, 1988.18. Millard, D., Burnham, G., “SMET Learning Modules for an Electronics Curriculum” (DUE – 9950356) Final Report, National Science Foundation, June 2002.DON LEWIS MILLARDDr. Millard directs the Academy of Electronic Media at Rensselaer (2003 Premiere Award Recipient) and hasauthored numerous university and K-12 educational materials for mathematics, science, engineering and arts coursesthat are regularly accessed by a global population. He has participated and served as the PI on many research efforts,including NSF, DARPA, DoD and corporate-sponsored projects
related to student success. There is some evidence to suggest thatthe integration of these skills mutually motivate and support one another while on the other handbringing computational skills into the same course as pre-requisite physics concepts may addmore stress to an already “at-risk” population. We plan to analyze the effects of this conceptualcoupling with student well-being and self-efficacy in a later phase of this study.References[1] J. Butler and M. L. Kern, “The PERMA-Profiler: A brief multidimensional measure of flourishing,”Int. J. Wellbeing, vol. 6, no. 3, pp. 1–48, 2016, doi: 10.5502/ijw.v6i3.526.[2] A. N. Kirn, “The influences of engineering student motivation on short-term tasks and long-termgoals,” 2014.
engineering, biotechnology, nanotechnology, electronics and informationdevelopment or delivery. We need to take an active role in redefining the education pipeline,especially an enhanced awareness of science and math in K through 12, as well as a broadeningof the chemical engineering undergraduate curriculum. We must look to redefining the goals ofindustry and their responsibilities to society, that is, sustainable development, while we continueto support the core industries and knowledge base of chemical engineering.If we define “Industry” as where we work, “Technology” as how we work, “Education” as howwe teach/learn, and “Society” as how we behave/develop, we can readily present AIChE’shistoric role as a professional society in Figure 1. Chemical
to quantify, for example, although we didnot include such a question on our surveys, we also observed that a number of students becameinterested in graduate school after seeing the advanced facilities of a university graduateprogram.ConclusionsOur course provides engineering students with the opportunity to experience a foreign cultureand put their engineering education in perspective. We have found it an invaluable addition toour engineering curriculum. The course integrates multiple disciplines, providing students withthe broad perspective necessary for engineering in today’s world. Every student who took theinitial offering of the course found it one of the most worthwhile experiences of their collegecareer. Finally, the course measurably
Eodice (Oklahoma) describe an innovative way forteaching thermodynamics. Rather than the traditional classroom model in which the focus is on theanalysis of thermodynamic energy systems and their real world application, instructors might encour-age students to creatively translate thermodynamics into languages they can clearly understand.They asked sophomore-level students to generate a creative interpretation of Thermodynamics. Theresultant presentations were “a high-energy event in rhythms and rhymes, as students presentedtheir creative work.” Subsequent evaluations found that the creative interpretations helped to clarifyconcepts and increased students’ appreciation of thermodynamics in particular and engineeringin general. This was supported
emphasize the connectedness of people and theenvironment [10]; however, particularly in engineering degree programs, early coursework doesnot emphasize the connectedness of people and the environment [8, 9]. Therefore, NativeAmerican students who may not see/engage in this aspect may be particularly at risk of losingmotivation for - and possibly leaving - their engineering majors [1]. These issues contribute tolow Native American representation and deprive the U.S. of an opportunity to increase diversityto solve better engineering problems and design innovative solutions that benefit more people[11].A 2012 study from Lesley University indicates Arts integration in STEM stimulates deeplearning and increases student engagement among minority students
curriculum. Nevertheless,there is an obligation to prominently incorporate environmental justice issues into teachingenvironmental engineering. Environmental engineers are key decision makers in the NEPAprocess and often serve as liaisons between the public and industry/government. Furthermoreenvironmental justice issues are an integral part of environmental engineering education andshould be addressed to some degree in environmental engineering courses such assolid/hazardous waste management and regulatory oriented courses such as EnvironmentalImpact Analysis.There is a general consensus that minorities and low-income people experience disproportionateexposure to hazardous waste and pollution from waste management facilities. The intent
electrical expertise needed in such settings? We brainstormed a collection oftopics most important for a student to achieve the concentration objective. Thebrainstormed topics were organized using a mind mapping technique that provides ahierarchical structure to the collection. After generating an initial collection, we held a Page 12.590.7group discussion with members of our department's industrial advisory board to findomissions and to refine the emphasis in the topic areas. As the curriculum has beendeveloped, we have also restructured the collection to provide detail and reflect commonelements between topics. The mind map with the current set of topics
this section) notdirectly integrated within the Cornerstone system. This design was introduced during the COVIDpandemic and, due to success in employment under the remote course setting, it was decided tokeep this as a second design upon return to in-person instruction. Figure 2 in the appendix showsexamples of these two different Cornerstone systems.For the water filtration project, the two design challenges are: 1) housing for a turbidity (watercleanliness) sensor that is in-line with piping, and 2) a housing for an ultrasonic (distance) sensormounted above a tank of water to act as a “tank-level indicator”, providing real-time water levelmeasurements (Figure 3 in the appendix).Technical WritingTeams of students are required to document
development of learningprogressions. First, we understand that instruction and curriculum are an integral part ofconsidering learning progressions. However, since we know very little about elementarystudents’ knowledge and reasoning about design, the first step is for us to find out the status quoof understanding in order to make suggestions on targeted instruction and progressions. Second,we are employing a cross-sectional study to document students’ development of knowledge andreasoning on design across multiple grades. Third, learning progressions focus on fundamentaland generative ideas in a discipline, and design has been identified as an important concept inengineering learning [15]. Some might argue that designing involves procedural skills
bundle in basic analysis toolsand some manufacturing, others provide additional capabilities in advanced manufacturingplanning and simulation, advanced analysis, integrated product lifecycle management, processplanning and project management tools, and systems engineering. Finally, though some mayargue otherwise, there are employment advantages for graduates in some industries that do theirCAx work using a preferred platform.This paper will present the plans, efforts and experiences to date in deploying and use ofDassault Systemes 3DExperience® platform within a Manufacturing Engineering curriculum.This is a multi-year effort starting with CAD and Analysis that will over time incorporate intothe curriculum many of the additional capabilities
engaged in aneffort to develop and integrate applied drug delivery coursework and experiments throughout theRowan Engineering curriculum. This paper describes a senior/graduate level elective course indrug delivery, with descriptions of the course structure, organization and content, references,experiments and projects used in this course.Introduction Drug Delivery is a burgeoning field that represents one of the major research anddevelopment focus areas of pharmaceutical industry today, with new drug delivery system salesexceeding 10 billion dollars per year [1]. Chemical Engineers play an important and expandingrole in this exciting field, yet undergraduate chemical engineering students are rarely exposed todrug delivery through their
AC 2012-4616: PROFESSIONAL DEVELOPMENT FOR SOPHOMOREENGINEERING STUDENTSDr. Edward F. Glynn P.E., Villanova University Ed Glynn is an Assistant Professor in the Department of Civil and Environmental Engineering at Villanova University.Prof. Frank E. Falcone, Villanova University Page 25.1074.1 c American Society for Engineering Education, 2012 Professional Development for Sophomore Engineering StudentsAbstractThe development of project management skills and interaction with the regional professionalengineering community are integral parts of Civil Engineering Fundamentals, a required
ofTechnology. In this curriculum, the recent nationwide trend of enhancing traditional lecture-basedcourses with a design spine and a laboratory experience that propagates through the entirecurriculum is acknowledged. At the same time, it is recognized that the incorporation of design andlaboratory components into all engineering courses places a significant strain on the spatial,temporal and fiscal resources of the institute. Therefore, new concepts for the implementation ofaffordable integrated experimental and design laboratories have to be developed in order toaccommodate the anticipated enrollment. These laboratories must allow for the required studentthroughput using the limited existing laboratory space without compromising the educational
students to “design and build a prototype of a four-wheel, singleseat, off-road recreational vehicle intended for sale to the non-professional weekend off-road enthusiast.” [2] (See Figures 1and 2, above) The competition requires thesubmission of a design report and a cost report. Static judging includes scores forengineering design and penalties for safety violations. Dynamic events includeAcceleration, Top Speed, Braking; Land Maneuverability; DeepWater Maneuverability;Power Pull; Suspension and Traction; and an Endurance Race.As part of the required curriculum for a major in mechanical engineering, students at theUnited States Military Academy are required to take a two-course sequence consisting ofa course in automotive power plants and a
) Practices Outside the Classroom Integrity of Practice [4] OC1 Have one-on-one conversations with students IP1 Acknowledge there is more than one way to teach OC2 Do outreach on campus or with K-12 students and learn OC3 Do Land acknowledgements IP2 Be aware that it is important to be intentional OC4 Do course preparation or revamping curriculum IP3 Acknowledge the educator’s role in normalizing OC5 Ensure building accessibility inclusivity OC6 Talk with other faculty as a site of inclusion IP4 Be flexible OC7 In grading, include meaningful comments IP5 Think
, implementation of Autodesk MoldflowTM as an instructional tool forpromoting a dynamic interactive classroom environment and providing seamless integration ofclassroom activities such as traditional classroom teaching, computer simulation ofmanufacturing process, and actual physical laboratory experience related with the process. In thatregard, Autodesk MoldflowTM is used as one of the tools that would be used for promotingpositive outcomes associated with the student learning. Autodesk MoldflowTM is used formodeling and simulating of the plastic injection molding process. During computer simulationlaboratories, specific examples of Autodesk MoldflowTM is introduced for providing ideas tostudents on how the manufacturing process would be improved by
in thispaper.Design courses, which can provide many opportunities for sociotechnical integration, aredeprioritized in most engineering programs, as are courses in the humanities and social sciences[15], [16]. Through choices in curriculum and content, we see that engineering education oftenreinforces the false divide between the social and technical in engineering [17]. Thoughuncommon, sociotechnical integration has been attempted within the context of specific courses.These include Andrade and Tomblin’s inclusion of social context in the course Engineering forSustainability [18], [19], sociotechnical engineering taught in an introductory course [20], ateam-taught, community-engaged engineering projects course [21], and a controls system
learning techniques in undergraduate classes as well as integration of innovation and entrepreneurship into the engineering curriculum. In particular, she is interested in the impact that these tools can have on student perception of c American Society for Engineering Education, 2016 Paper ID #14873the classroom environment, motivation and learning outcomes. She obtained her certification as a Trainingand Development Professional (CTDP) from the Canadian Society for Training and Development (CSTD)in 2010, providing her with a solid background in instructional design, facilitation and evaluation. She wasselected to
engineering curricula.Unfortunately, many of these topics have not yet been woven into the technical curricula andmay have students wondering why they are learning these skills, and how they are supposed toapply them in an academic or professional setting. Some educators have begun to study and write about integrating into the curriculumpersonal development topics such as perception,7 interpersonal skills and creativity, 8,9 andreflection.10 These more esoteric topics, however, are not yet uniformly considered valuableenough to include in many university engineering curricula. One recent effort to teach personalskills is taking place at Sherbrooke University in Quebec.11 Sherbrooke has completelyrethought and revised its mechanical
Paper ID #15838A Modular System for Energy Efficiency Study of Hydraulic ApplicationsDr. Alamgir A. Choudhury, Western Michigan University Alamgir A. Choudhury is an Associate Professor of Engineering Design, Manufacturing and Management Systems at Western Michigan University, Kalamazoo, Michigan. His MS and PhD are in mechanical en- gineering from NMSU (Las Cruces) and BS in mechanical engineering from BUET (Dhaka). His interest includes computer applications in curriculum, MCAE, mechanics, fluid power, and instrumentation & control. He is a Registered Professional Engineer in the State of Ohio and affiliated with ASME
Page 3.123.1enough continuity to ignore rigorous derivations when appropriate. For example, theunderstanding of MOSFET operation in power-switching applications is a key topic in theelectronics curriculum. The calculus-based derivation of the drain-source characteristics includedin the textbook is not of immediate concern. In this instance, the students are guided by thesupplementary information file to focus on the relationships between the variables in theresulting equations. The derivation of closed-loop gain of an op amp circuit when open-loopgain is finite is extremely important in the design of practical op amp circuits. The derivation inthe textbook is complete, however, many algebraic and circuit analysis steps are taken forgranted
qualification runsuccessfully but lost a drive chain on the second run. The second year a portion of the design wascompleted in an introductory design class. The class, working in teams, was able to develop asuccessful dual range drive system that allowed high torque for difficult obstacles and high speedfor flat stretches. They were able to utilize the mechanics/statics that learned in a previouscourse.The race is used as an integral part of courses at other institutions. Pittsburg State University inPittsburg, Kansas utilizes the race as a central part of their design curriculum. Each team of, from5 to 6 students in the class, is required to design and build a buggy for the competition. This, plusthe sponsorship of are industry, has resulted in some
have been an option for post-secondary education with the premise of assisting students’ transition from school to workplace. Page 14.42.3These programs have been defined as structured educational strategies integrating academiclearning through productive work experiences in a field related to career goals 4, 5, 6.Groenewald7 determined that cooperative education has four core dimensions: “(a) an integratedcurriculum, (b) learning derived from work experience, (c) cultivation of a support-base, and (d)the logistical organization and coordination of the learning experience.” The basic concepts ofalternating school with work over a substantial
to the dearthof relevant experience most teachers possess [6].2. Project Purpose & DescriptionWith the program’s overarching theme of energy, we aimed to: (a) deepen high school teachers’understanding of engineering principles, practices, and design, (b) support the development ofSTEM-integrated curriculum aligned with the Next Generation Science Standards (NGSS), and(c) to enhance ongoing collaboration and interchange among university faculty, local schools, andindustry-based personnel. The purpose of the program evaluation was both formative andsummative, aiming to improve incoming cohorts’ experience, and report on the impact of theprogram on participants. We hypothesized that teachers would a) have an enhanced knowledgeand experience
to ease adoption pains. The paper will also discuss efforts at James MadisonUniversity to expose students to the various aspects of this technology.RFID NetworksAt the enterprise level, an RFID system will comprise many different technologies, includingbarcodes systems, passive and active tags, GPS/GIS systems, and chain of smart software – thehardware and software from different vendors must be seamlessly integrated. See Figure 1 forrepresentative auto ID technologies that one will find in a robust enterprise system. Transport Movement Item Packaging Unit Load Container unit
in the current engineering curriculum ?Interview AnalysisThis study’s data was a set of interviews with 27 engineering faculty members about theirexperience teaching core engineering classes and the mathematical abilities of their students.Faculty were selected to participate in the study if they had taught an engineering course thatrequired any course from the Calculus Sequence (Calculus I, Calculus II, Calculus III, LinearAlgebra, and Differential Equations) as either a direct prerequisite or as a corequisite. Theseinterviews were approved by our university board governing human subjects research.Interviews with faculty were semi-structured, with an initial interview protocol but with room toask off-script questions to further explore
attractingand retaining engineering talent with a range of specialties in narrowly defined fields. “Instead ofthe traditional engineering disciplines, these operations require engineering generalists with astrong theoretical background, broad knowledge in a range of areas, and specific skills inproblem solving to give them a sound but flexible base for managing and implementingtechnology change and operations.”1 East Carolina University initiated a bachelor’s degreeprogram in general engineering (BSE) to fill this requirement. The BSE curriculum isimplemented “through a concept and program identified as the Integrated CollaborativeEngineering Educational Environment, or ICE3 (pronounced “ice cube”). The ICE3 program…emphasizes a broad but highly
[4].An additional benefit of a project-based curriculum is the ability to emphasize dimensions ofengineering design decisions that go beyond the technical functioning of a part or component.Research has shown that engineering curriculum in the United States prioritizes technical aspectsof design problems over social dimensions, but success in the engineering workforce requires anunderstanding of the interplay between both facets [5]. In this context, “social” as a termencompasses environmental, ethical, economic, health, safety, political, and cultural factors [5].The inherent duality of social and technical factors in the solution to a materials design problemis showcased beautifully in “the dual tetrahedron” proposed by Savage et al. (see
industry and academia. Through his research on product modeling, variant design, design-with-manufacture integration, standardized product data ex- change, as well as digital and virtual engineering he has made numerous contributions to the advance- ment of cross-disciplinary integrated design of complex engineered systems. At the Georgia Institute of Technology (USA) he started spearheading research on Cloud-based Design and Manufacturing, now an emerging high-impact area in which he and his team stand at the forefront. A passionate educator, Dr. Schaefer also conducts research on design education, personalized learning, distance learning, and professional faculty development. His work has resulted in approximately 130