Paper ID #27759Integration of 3-D Printed Drone Project in General Engineering CurriculumGavin Garrett Tipker, Indiana University Purdue University, IndianapolisMr. Michael Golub, Indiana University Purdue University, Indianapolis Michael Golub is the Academic Laboratory Supervisor for the Mechanical Engineering department at IUPUI. He is an associate faculty at the same school, and has taught at several other colleges. He has conducted research related to Arctic Electric Vehicles and 3D printed plastics and metals. He participated and advised several student academic competition teams for several years. His team won 1st place
. Madathil, K. Frady, R. Hartley, J. Bertrand, M. Alfred, and A. Gramopadhye, "An Empirical Study Investigating the. Effectiveness of Integrating Virtual Reality- based Case Studies into an Online. Asynchronous Learning Environment," Computers in Education Journal, vol. 8, pp. 1 - 7, 2017.[10] J. Zhang, G. Singui, S. Wadghule, and C. Frend, "Virtual Reality Module for Additive Manufacturing Curriculum," in 2020 Illinois-Indiana Section Conference Proceedings, Indianapolis, Indiana, USA, 2020, pp. S900-1.
ideas on how toimplement this new course. However, every teaching method has its advantages as well as itsdifficulties, so effective instruction uses multiple approaches. One noteworthy comment fromLang [8] was the conclusion that “comprehension lies outside of the classroom.”BackgroundStudents at The Citadel take an institution-wide core curriculum in liberal arts, math and sciencethat comprises much of the first four semesters. For engineering majors, the majority of thecourses in the remaining four semesters builds on this foundation in the discipline-specificengineering.The approach taken by the Department of Mechanical Engineering begins with designing amulti-layered and dynamic educational experience for the students. The experience
outside the classroom in Engineering Technology Programs," 2014 IEEE Integrated STEM Education Conference, Princeton, NJ, 2014, pp. 1-4. doi: 10.1109/ISECon.2014.6891043[3] R.M. Felder, D.R. Woods, J.E. Stice, and A. Rugarcia, “The Future of Engineering Education. II. Teaching Methods that Work.” Chem. Engr. Education, Vol. 34, No. 1, pp. 26-39, 2000.[4] R.M. Felder and R. Brent, “Understanding Student Differences.” J. Engr. Education, Vol. 94, No. 1, pp. 57-72, 2005.[5] L.D. Feisel and A. J. Rosa, “The Role of the Laboratory in Undergraduate Engineering Education.” J. Engr. Education, Vol. 94, No. 1, pp. 121–130, 2005.[6] D. J. Moore and D. R. Voltmer, "Curriculum for an engineering renaissance
laboratory curriculum should be a balance of expository and inquiry instruction and,if possible, an introduction to independent research techniques (Svinicki and McKeachie, 2014;Tomasik, et al. 2013; Galloway, et al., 2016). Fourth, the laboratory program must be feasiblewithin available resources, which included time, costs, instrumentation, physical facilities, andsupport personnel (Larsen, et al. 2013). Fifth, we developed the laboratory curriculum topromote a more complex affective learning environment. Galloway et al. showed that accessingfeelings beyond interest about the laboratory experience encourages students to make aconscious choice to more actively participate in the laboratory learning environment (2016).2. Course Description and
year, I plan to integrate computer science and mechanical engineering into my curriculum in aspiration of becoming a mechatronics engineer in the future.Dr. Prudence Merton, Dartmouth CollegeDr. Vanessa Svihla, University of New Mexico Dr. Vanessa Svihla is a learning scientist and assistant professor at the University of New Mexico in the Organization, Information & Learning Sciences program, and in the Chemical & Biological Engineering Department. She served as Co-PI on an NSF RET Grant and a USDA NIFA grant, and is currently co-PI on three NSF-funded projects in engineering and computer science education, including a Revolutioniz- ing Engineering Departments project. She was selected as a National Academy
), computer-based simulationprojects of similar complexities were used to address the same topics.Creative thinking is an important skill needed for modern workplace in engineering and technology fields[3]. Instructors in higher education consider various ways of integrating creativity and innovation into thecourses they teach to better prepare students for their future careers [4]. Study shows that between the twocommonly-used approaches that enhance creativity, i.e., teaching vs. practice creativity, stimulatingcreativity by practices is considered to be more effective [5]. In addition, many professors used project-based learning [6, 7] when trying to foster creativity in their courses [8, 9].Due to robotics’ multi-disciplinary nature, we think
result fromstudents engaging in experiments and other forms of investigation. It concludes with a case studyof one instance of a novel study abroad course, focused on providing engineering students with akindred fieldwork experience.Evolution of Laboratory Instruction in Engineering EducationLaboratory is a defining facet of engineering education; an integral part of the studentexperience. However, the nature of what constitutes a “laboratory” has changed dramaticallysince engineering schools were founded in the mid-19th century. Initially laboratories involvedinvestigating the operation of actual engineering artefacts or equipment (for example a workinglocomotive used to measure thermodynamic performance) or conducting survey work
worked with a group to develop focus control for an OCT system. Currently Dr. Himmer is the facility manager at the Montana Mircofabrication Facility and he continues to research novel materials, actuators and optics that may be used in the development of optical systems. c American Society for Engineering Education, 2018 Work in Progress - Group Laboratory Experiment during Lecture in an Undergraduate Fluid Dynamics Class: Increasing Student Learning and Communication SkillsAbstract: Laboratory classes in engineering often occur toward the end of curriculum, excludingtheir benefits from the core class while it is being taught. Instead of a full laboratory,presentations and in
for a single apparatus are shown below for the Base Station (Table 1), theSatellite (Table 2), and the YoYo Despinner optional accessory (Table 3). Values for custom partsare approximate and include material and manufacturing costs. Table 1: Base Station Bill of Materials Table 2: Satellite Bill of MaterialsTable 3: YoYo Accessory Bill of MaterialsReferences[1] B. Argrow, “Proactive teaching and learning in the aerospace engineering curriculum 2000,” Proceedings of the 2002 American Society for Engineering Education Annual Conference, vol. Session 2793, pp. 1–15, 2002.[2] A. R. Seebass and L. D. Peterson, “Aerospace engineering 2000: An integrated, hands-on curriculum,” Frontiers of Computational Fluid
advanced, the field of mechatronics has expandedto include mechanical engineering, electronics, computer engineering, and controls engineering.This multidisciplinary nature of mechatronics makes it an ideal basis from which to constructnew capabilities and knowledge. Within the mechatronics course at The Citadel, manymechanical engineering students comprehend some basics of the mechatronic disciplines, butnow must integrate these areas while implementing new devices for the labs. The suggestedapproach in the mechatronics course is a progressive project that builds on the previous iteration.Students can choose their own mechatronics application project. This paper briefly describesseveral hands-on labs that progress in difficulty. Students are
remotelearning environment.Bibliography[1] J. Wang, N. C. Golly, B. Herren, J. I. Macdonald, Z. Siddique and Y. Liu, "Enhancing Mechanical Engineering Education with an Integrated 3-D Printing Approach," in Mechanical Engineering Division, ASEE, Tampa, FL, 2019.[2] U. o. M. T. C. Lorraine Francis and Michael Manno, "Integrating 3-D Printing and CAD into a Materials Science and Engineering Curriculum," in Materials Division, ASEE, Tampa, FL, 2019.[3] U. C. BV. [Online]. Available: https://ultimaker.com/software/ultimaker-cura.[4] T. P. S. University, "Innovation Commons at Penn State Behrend," 2021. [Online]. Available: https://behrend.psu.edu/research-outreach/ignite-erie/innovation-commons. [Accessed 07 03 2021].[5] R. I. o. T. Spencer
pathological), analysis and modeling of human postural control, and time-varying signals and systems. Engineering education research includes curriculum and laboratory development of biomechanics and bio-signal processing concepts. c American Society for Engineering Education, 2018 Student Reflections on Experiences Gained from an Open-Ended Problem-Solving Bio-Signals LaboratoryAbstractKolb’s Experiential Learning Theory maintains that learning occurs through a combination ofdoing as well as reflecting on the doing. Likewise, Schon’s Theory of the Reflective Practitionerhighlights the value of reflection within professional practice, in particular when dealing withcomplex problems within
Paper ID #26956Designing a Laboratory Ecosystem Framework, and Scaffolding an Interac-tive Internal Combustion EngineDr. David MacNair, Georgia Institute of Technology Dr. MacNair serves as Director of Laboratory Development in the Woodruff School, and manages Junior and Senior level laboratories in Mechanical Engineering. He develops innovative laboratory experiences based on lessons-learned from the maker movement and real-world industrial challenges, and is building an ”ecosystem” of academic laboratory equipment and curriculum resources which allows universities to collaborate on the development and execution of
to add thecomposite material manufacturing into an engineering curriculum were shown by Zhang et. al. in2011 [9] and Sengupta et. al. in 2016 [10]. Hence, the engineering faculty of Univalle requestedthe aid of the Fulbright commission through its Specialist program as an initial approximation toa hands-on approach for the improvement of the manufacturing techniques in fiber reinforcedcomposite materials.The main objectives of the composite materials training at Universidad del Valle were: toimprove the education of Colombian mechanical/aeronautical engineers based upon theprinciple of applying theoretical knowledge into practice. The focus of the training was oncomposite aerospace structures. Secondly, establishing a lasting relationship
be particularlydifficult for students to write to an external audience. To aid in this effort, WID increasinglyinvolves collaboration between engineering faculty and composition faculty [8].Writing across the curriculum (WAC) supports conceptual learningWriting across the curriculum (WAC)—also described as writing-to-learn—refers to anintegrative approach of emphasizing written communication as a form a learning across theentire curriculum [16]. In this approach, the emphasis is not on discipline-specific styles ofwriting or the mechanics of writing, but rather, to help students make sense of and organizedisciplinary content, generally in ways that connect to students' experiences and enable them toreceive feedback on their understanding [17
learning activities in a course.In the case of introductory physics labs, goals range from reinforcing content, learning aboutmeasurement and uncertainty, practicing communication skills, developing teamwork skills, and,more broadly, learning that physics is an experimental science. It is unrealistic to hit all thosegoals. A practical benefit SBG for educators is that SBG made assessment easy. Academicprograms in higher education are constantly under scrutiny of various organizations, such as theHigher Learning Commission (HLC) and Accreditation Board for Engineering and Technology(ABET). Because assessments and evidence collection are embedded in the day-to-day and lab-to-lab work, it is easier to integrate SBG into course level assessment
amajor worldwide deployment surge adding generating capacity at a remarkable rate, alsoincreasing employment opportunities [2]. While many universities offer classes in powerelectronics and its role in renewable energy development, the enormous breadth of a modernelectrical curriculum leaves little room to expose students to the issues of grid integration [3]. Atypical first course in power electronics may well focus on the underlying power switchingtechnologies, but the relevance to the associated technologies may be limited [4],[5].Compounding this problem, the enabling technologies for renewable integration, embeddedcomputing, and controls, are seldom taught within a context in which their applicability toenergy production and distribution is
, Faurecia, NTN Driveshaft,Valeo, and Aisin. Most of the manufacturing industry is related to automobile production.Purdue Polytechnic Columbus is unique among higher education institutions due to a partnershipwith diesel-engine manufacturer Cummins Inc. that has led to an environmentally-controlledmetrology lab located within the university facility. The lab contains a calibrated coordinatemeasuring machine, calibrated tensile tester, a surface finish instrument, a roundness tester and aplethora of donated hand tools including calipers, micrometers, height gauges, bore gauges, PItapes, sine blocks, and several sets of gauge blocks.The challenge has been to integrate measurement activities into a curriculum and an academicprogram that has not
Engineering Edu- cation (ASEE) and conducts research in engineering education.Darius Fieschko, University of Wisconsin - Platteville c American Society for Engineering Education, 2020 PLC Training in First Year Electrical Engineering ProgramAbstractProgrammable Logic Controllers ( PLCs) have had a profound impact on industry and society atlarge. PLCs are an integral part of a wide variety of control systems, ranging from industrialmanufacturing to amusement park rides and filmmaking. Programming languages like ladderlogic allow technicians and engineers without formal programming experience to build anddebug complex automation systems much faster than if they needed to physically build arrays ofrelays and
and software simulations. Along the same line, students inthe treatment groups were surveyed about the advantages of implementing design-project in theircourse. Figure 5(b) shows the students’ agreement percentages regarding the followingquestions:Q1: Working on the design project, it encouraged me to see and relate the course subject mattersto real-life examples.Q2: The design project gave me an opportunity to exercise creativity.Q3: The design-based project helped me to remember the design-process and decision makingtools learned in Freshman and Sophomore engineering courses.Q4: The design-based project enhanced the course curriculum. 100% 93% 85% 87% 80
Paper ID #25572Preliminary Investigation of Undergraduate Students’ Zone of Proximal De-velopment (ZPD) in Writing Lab Reports in Entry-level Engineering Labo-ratory Courses at Three UniversitiesDr. Dave Kim, Washington State University, Vancouver Dr. Dave (Dae-Wook) Kim is an Associate Professor and Coordinator of Mechanical Engineering in the School of Engineering and Computer Science at Washington State University Vancouver. He has 15 years of experience in engineering materials and manufacturing. His research area includes materials processing, structural integrity improvement, and hybrid composite manufacturing. He has been
American Society for Engineering Education, 2018 A Hands-on Project for an Avionics Systems Course in an Undergraduate Aviation Engineering Technology ProgramAbstractThere are electrical and electronic systems courses that are compulsory for students majoring inAeronautical Engineering Technology (AET), an undergraduate program accredited by theEngineering Technology Accreditation Commission of ABET (ABET-ETAC). In order toprepare students for the FAA Airframe and Powerplant Certification exams, and future successin their careers, students in the AET program are expected to develop an integrated ability ofunderstanding theoretical knowledge and proficient hands-on skills. This paper introduces ahands-on project for an upper
toaddress these known deficiencies in our curriculum. In the context of experimentation, designcan be interpreted as the design of an experimental plan to solve a stated problem. This includesdeveloping measurement protocols, study methodology, quantifying experimental uncertainty, anddata-reduction. In laboratory courses that support engineering science courses (examples includestrength of materials and fluid mechanics), time constraints can limit inclusion of experimentaldesign and detailed guidance on technical writing.This paper describes the development and implementation of this unique course. The follow-ing sections will present the course design, provide detailed module descriptions, and summarizecourse assessment of learning
ContextBeginning in the Fall of 2014 we instituted a major curriculum update in Electrical andComputer Engineering at the University of Virginia. Our basic three-course sequence of"Circuits," "Electronics," and "Signals and Systems" was replaced by a new sequence,"Fundamentals 1,2, and 3". Our approach focuses on a learning studio technique with highlyintegrated laboratory and lecture components [3],[4]. In each successive course, many of thesame topics are covered, and at an increasing depth of understanding. This approach has beenshown to increase learning of complex topics while minimizing the cognitive load at each phase[5].A substantial portion of this approach is a tightly integrated lecture-laboratory approach, i.e., alearning studio; our
is an assistant professor at Harvey Mudd College. His research interests include experi- ential and hands-on learning, and integrating mechanical, chemical and quantum devices into circuits and communication links. c American Society for Engineering Education, 2020 A Survey of the Proportion of Classes in Undergraduate Engineering Curricula that Include LabsAbstract -- This research paper describes the results of a systematic review of engineering coursecatalogs and program requirements that sought to answer the question, “How many laboratoryclasses does an engineering student take?”. This study is motivated by two observations: first,literature suggests that laboratories have
linkbetween student motivation and engagement in schoolwork 1,2,3,4 . A PBL curriculum provides thismotivation because the students can see what the end goal of the project is and are activelyengaged in the development 5 . (2) It provides deeper learning. PBL provides for deep learningbecause it requires the student to integrate knowledge gained in several classes into the creation ofa product 6,7 .When students work on a laboratory exercise that is simply following a set of detailed steps, thelearning is similar to what can be attained by listening in a lecture 8 . In order to gain the benefitsof PBL, there are several requirements 6 . • It needs to be a complex and challenging problem. • It needs to be an authentic or real-world problem
Test Facility for fuels and propulsion, and does applied research in fuel and propulsion. He has maintained research interests in propulsion systems and in fuels testing, in areas related to the recruitment of women into aviation. He has worked on methods for re-integrating hands-on skills into engineering and engineering technology education, and in the development of engineering technology in aerospace. He was a team member on an international working group studying inappropriate crew response to engine malfunctions. Prior to coming to Purdue, he was a field engineer for a major aerospace corporation, and worked closely with major airframe and turbine engine OEM’s, a task force examining root causes for propulsion
have a completeset of toolkits to conduct experiments. The choice depends on budget, software and hardwarecompatibility, and, practically, product availability. The authors explored all three options insummer 2020 and chose the third option across multiple courses in our engineering andtechnology programs in fall 2020 and spring 2021. This paper presents the exploration results ofall three options and provides detailed recommendations concerning how the lab kits may be bestutilized. For analog and digital circuit labs, there are several crucial functionalities that the labkits need to provide, such as AC and DC power supplies, oscilloscopes, digital I/O’s, or FPGA,and an adequate number of channels for each. Most lab kits integrate Analog-to
, vol. 24, pp. 8-22, 2013.[7] H. Georgiou. Putting physics knowledge in the hot seat: The semantics of student understandings of thermodynamics” in Knowledge-building: Educational studies in legitimation theory, K. Maton, S. Hood, and S. Shay, Eds. New York: Routledge, 2016.[8] D. Steyn. “Conceptualizing design knowledge and its recontextualization in the studio component of a design foundation curriculum,” unpublished MPhil thesis, 2012.[9] F. Christie. “Secondary school English literacy studies: Cultivating a knower code,” in Knowledge-building: Educational studies in legitimation theory, K. Maton, S. Hood, and S. Shay, Eds. New York: Routledge, 2016.[10] K. Wolff and K Luckett. “Integrating multidisciplinary