. She is a graduate of the University of Hartford, where she earned a Bachelor of Science Degree in Mechanical Engineering (2007) and Master of Engineering Degree in Mechanical Engineering (2013). Before coming to the Coast Guard Academy, Ms. Regan worked in the aerospace industry as a Project Engineer for Air-Lock, Inc. c American Society for Engineering Education, 2016 Design of an Economical Student-built Automatic Control SystemAbstractEconomical student-owned and built laboratory equipment is proposed as a means to increasestudent exposure to hand-on learning activities without the consumption of resources normallyassociated with offering a traditional laboratory course. The case presented
Paper ID #48987BOARD # 42: Re-Engineering Chemical Engineering Education: MakingUnit Operations Laboratory More Accessible Through 3D Printing and Self-GuidedLearningProf. Ariel Chan, University of Toronto Professor Ariel Chan joined the Department of Chemical Engineering and Applied Chemistry at the University of Toronto in 2017. She is also a practicing professional engineer registered in Ontario, Canada. Her research focuses on experiential learning and laboratory curriculum design. She has also devoted her research to cultivating more equitable and inclusive learning using a data analytic approach to identify factors
the Department of Biomedical Engineering at The University of Akron since August 2013. The overall goal of his research laboratory is to improve human health by studying the multi-scale biomechanics and biotransport in cardiovascular, ocular, and digestive systems. Dr. Amini’s research has been funded by the National Science Foundation, Akron Children’s Hospital, Firestone Foundation, and American Heart Association. c American Society for Engineering Education, 2018 WIP: Mandatory Attendance in Office Hours to Improve Students’ Learning ExperienceIntroductionOffice hours have long existed as a tool to provide instructor-student interaction, and to helpstudents ask
upon the number of good partsproduced and the defect rate 3. However, there has been no report so far that a simple hands-onexperiment has been designed to help the engineering students apply the control charts in theSQR course.3. design of the catapult experimentThe catapult project simulates the manufacturing improvement process. It uses a catapult tosimulate a production process and a target board as product specifications. As the major shootingequipment in the experiment, the catapult is shown in Figure 1 (a). The projectile is either atennis ball or a golf ball as shown in Figure 1 (b). The target board is made of plastic foam. It has3 concentric circles. The largest circle has the diameter of about 1 foot (as shown in Figure 1(c)). The
also worked as a researcher at four federal laboratories. His research interests include modeling and simulation, both physical and numerical, with special interest in the response of structures to extreme loads. Helping others learn to apply engineering mechanics to better understand their world is a passion.Dr. Aaron J. Rubin, Smith College Aaron J. Rubin is a lecturer at Smith College where he teaches Junior and Senior level undergraduate engineering courses including Finite Element Modeling and Senior Design Clinic. American c Society for Engineering Education, 2021 Are You Sure About That? Introducing Uncertainty in
Remote and Virtual Experiments in eLearningin Statistical Mechanics and Thermodynamics”, Proceedings of the Fifth Annual IEEE International Conference onPervasive Computing and Communications Workshops, 19-23 March, 2007, White Plains, NY17. Yousuf, A., Wong, A., and Edens, D., 2013, “Remote Circuit Design Labs with Analog Discovery”,Proceedings of the ASEE Annual Conference, June 23-26, 2013, Atlanta, GA18. Li, Y., Esche, S., and Chassapis, C., 2007, “An Architecture for Real-Time Remote Laboratories”, Proceedingsof the 2007 ASEE Annual Conference, June 24-27, 2007, Honolulu, Hawaii19. Ondracek, R.P., 1999, “Multimedia Virtual Laboratories for Introductory Materials Science Courses”,Proceedings of the 1999 ASEE Annual Conference, June, 1999
Engineering CurriculumAbstract This paper explains the approach taken to develop a “design spine” within our mechanicalengineering curriculum. Developing a design spine started as a discussion about the ASMEVision 2030 document, which encourages programs to provide design experience throughout allfour years of the curriculum. Towards this end, the mechanical engineering faculty reviewed ourcurriculum and identified where and how we do teach engineering design in lecture courses,laboratories, and in the capstone design courses. We recognized that many design elements arealready incorporated throughout the curriculum but we needed to approach design in a moresystematic manner. The very meaning of “engineering design” does not enjoy universaldefinition
Maryland.Mr. Justin Albrecht, University of Maryland, College Park Justin Albrecht is a junior undergraduate student in Mechanical Engineering at the Clark School of Engi- neering at the University of Maryland. Page 26.106.1 c American Society for Engineering Education, 2015 A Scalable Instructional Method to Introduce FirstYear Engineering Students to Design and Manufacturing Processes by Coupling 3D Printing with CAD Assignments Abstract Providing firstyear engineering majors with an opportunity to experience engineering through a projectbased design
have expanded the global project program to include projects in the students'major disciplines. Several senior capstone design projects have been completed at internationalsponsors' agencies. The teams are composed of competitively selected WPI engineering studentswho work on-site to solve a key problem posed by the sponsoring agency. During the process thestudents experience hands-on application of engineering projects and learn to work astechnologists within the engineering domain of the host country. The outcome of their work is afully documented professional report containing complete results and key recommendations, asappropriate, as well as a high quality presentation of the highlights of their findings to thesponsors. This paper
code, an increased media publicitythat has brought more students and sponsors, and the expansion of the tutoring team from aprofessor and assistant to laboratory personnel and graduate students.American UniversityThe product design and development course at the American University started in the early1990s in the larger context of addressing the dwindling competitiveness of US manufacturingthroughout the 1980s. An ambitious project between the American University’s EngineeringDepartment and Business School and major American manufacturing companies aimed ateducating future leaders in the manufacturing area and to conduct research on manufacturingprocesses. Product development was soon determined as a principal driver of
academic interest include the design, modeling, and analysis of structures, and how students can gain insight into structural engineering through demonstrations and hands-on experiences. c American Society for Engineering Education, 2016 Inquiry-based Learning to Explore the Design of the Built EnvironmentAbstractTypically in introductory structural engineering courses with a lab component, the instructionalapproach is to present the underlying theory via pre-lab lecture/reading and subsequently havestudents conduct guided experiments that affirm that theory. The new Fall 2015 course offeringdescribed in this paper took the reverse approach where students
author) for the mechanical engineering program, this forced me into an unexpectedsituation. As many other engineering professors can attest, teaching laboratory intensive classesand design courses adds additional layers of complexity within the online delivery mode.The co-author who taught two other sections of senior design and the first author had toimmediately devise a plan on how to continue to deliver a meaningful design experience tostudents online in the middle of the semester. While most programs in the country adjusted theircapstone programs to face the unexpected pandemic, our program had its own set of challengesto overcome. The first concern for the authors was how to continue to provide a meaningfuldesign experience to the students
cooled water returns to theblend storage tank. The experiment is designed to control the temperature of the cooled blend(control variable) returning to the storage tank. A steam pressure regulator sets the temperatureof the saturated steam to the heating section. A pneumatic control ball valve regulates the flow ofthe cooling water (manipulated variable). A pneumatic control ball valve regulates the flow ofthe blend (disturbance variable). Twenty-two temperatures are monitored and recorded across thesystem at strategic points of the flow diagram (Figure 5). Figure 5. Double-pipe heat exchanger setup: picture and basic diagramTable 5. Double pipe heat exchanger main equipment component A carbon steel 0.5 x 0.5 x 1 m tank containing
. In other 9words, the students were trained only to answer examination questions that were highly similarto questions they had already answered. They had not learned to transfer experience gained intheir experimental investigations and project work which they had to do as part of theircoursework. The students were trained to be rote problem solvers and the engineeringcoursework was not sufficient to dislodge this reaction to a test question.Committee member Kelly ended his report on a rather gloomy note. He wrote, “To what extentthis can be remedied by repetition of the experiences, or by circulation of model answers, isuncertain…Put another way – is it possible to teach engineering design?”The
Session 2425 A Just-In-Time Approach to Teaching Senior Design By: Thomas R. Grimm Associate Professor of Mechanical Engineering Michigan Technological UniversityAbstractThe subject of this paper is the approach used to teach the senior design project course inthe Mechanical Engineering Department at Michigan Technological University. Theprimary objective in the development of the required two semester senior designsequence was to insure a positive experience in mechanical engineering design whileeliminating the procrastination that can be prevalent in long term
communication, specifically,technical writing in the fall and public speaking in the spring. Each section has oneCommunications faculty member for the semester, and for these faculty, each section is viewedas a 3-hour course for workload purposes. In the laboratory portion of the course, three sectionsmeet simultaneously. Consequently, for the engineering faculty, there are two lab sessions eachweek, each consisting of 60-65 students, and five instructors. For workload purposes this is Page 11.359.2viewed as a 3-hour course for each member of the engineering faculty.In the laboratory component of the course, students work on open-ended design projects
, American Society for Engineering EducationThe Product-Architecture Digital Media Laboratory supports the Masters program. Thelaboratory focuses on advanced digital design environments including geometricmodeling, interactivity, scripting languages and virtual reality. The laboratory is equipedwith a full Computer Aided Three-dimensional Interactive Application (CATIA) suite.Interactive Digital Media is explored using scripting capabilities in Maya, ActionScripting and Rhino and the laboratory includes a full set of ceiling mounted cameras,blob tracking devices and projection systems for full scale performative environmentstudies. Three dimensional scanning technologies are explored using a wide array ofdevices including a Cyrax - Lidar type
: Issues and Challenges. American Society for Engineering Education. Presentations, five most relevant: TeleRobotics: The Internet, a Physical Sensor 73rd Annual Confer- ence Program, ITEEA 2011. Dr. Kallis, J., Boyles, R. Implementation of Microgravity Experiments in the Classroom 73rd Annual Conference Program, ITEEA 2011 Teaching STEM Concepts with Agile Robotics. Dr. Kallis, J., Boyles, R. 73rd Annual Conference Program, ITEEA 2009. Tremaux’s Algo- rithm with Recursion 73rd Annual Conference Program, ITEEA 2009. ”Normalcy” 2008 Intercollegiate Art Show, Best of Show, California University of PA, April 3rd, 2008. ”Die Verfeinerung von Sustain- ability” Create the Future Design Contest, NASA Tech Briefs and SolidWorks
semester2011 which was developed for the students to obtain this eyes-on learning. In order to expand thelearning opportunity in the course and to make it more than simply a series of tours, the coursewas designed so the students would do background work to gain an understanding of what theywould be visiting, and then actually visit the facility and talk with operators. At the conclusion ofeach visit the students would then write a journal of their visit to each regional power and energyrelated facility. Assessments from the students about the course and its learning opportunitieswill also be presented. The class represents a potential model for exposing students to industryfacilities in the form of a learning laboratory and also exposes the students
then developed based on knowledgeable faculty in the area, agraduate student who had extensive prior experience in industrial control field work, andtextbook content. The following course description and objectives were developed followed by alesson-by-lesson outline.Course description: Industrial Control. 3. This course emphasizes the control of industrialdevices and processes using state-of-the-art programmable logic controllers (PLCs) andmicrocontrollers. We will investigate control algorithm design in detail and also discuss sensors,transducers, and interfacing. Students will also use state-of-the-art design and troubleshootingtools. Students will apply control theory to a series of hands on laboratory exercises.Course Objectives: Students
., Schmalzel, J., Slater, C., Development of multifunctional laboratories in a new engineering school, in Proceedings of ASEE Annual Conference, 1996.,9. Dorland, D., Mosto, P., The Engineering clinics at Rowan University: A unique experience, Proceedings of the 17th international Congress of Chemical and Process Engineering (CHISA 2006) Prague, Czech Republic, August 27-31, 2006.10. Dahm, K.D., Riddell, W., Constans, E., Courtney, J., Harvey, R., von Lockette, P., “The converging- diverging approach to design in the Sophomore Engineering Clinic, Paper 2006-945 in Proceedings of the 2007 ASEE Annual Conference, Honolulu, HI, June, 200711. Von Lockette, P., Acciania, D., Courtney, J., Diao, C., Riddell, W., Dahm, K
Paper ID #14584A Building-Block Approach to Industrial Controls Laboratories Using Pro-grammable Logic ControllersProf. Robert J. Durkin, Indiana University - Purdue University, Indianapolis Mr. Durkin teaches courses in Mechanical and Electrical Engineering Technology; including the capstone design and independent study projects. He serves as a Faculty Senator and earned the 2013 Outstanding Teacher Award. He has over 25 years of engineering and manufacturing experience including; design, project management, and various engineering, research and manufacturing leadership roles. He has been awarded two US patents. He is an
Linköping, Sweden Belfast, UKIntroductionProject courses in which students design, build and test a device on their own are increasinglybeing used in engineering education. The reasons include that such projects do not only trainstudents skills in design and implementation but can also be exploited in order to increasestudent motivation, to give an improved understanding of engineering science knowledge and topractice non-technical skills such as teamwork and communication. However, design-build-test(DBT) experiences may also be costly, time-consuming, require new learning environments anddifferent specialized faculty competence (Malmqvist et al.1). In particular, design-build-test experiences play a
proposed laboratory platform can be used to study a wide range of topics regardingautonomous vehicles, ranging from low-level data acquisition and control to higher-level conceptssuch as sensor fusion and SLAM. This paper discusses the pedagogical considerations in thesyllabus and experimental laboratory platform design for this unique course. The course wasoffered as a cross-listed elective course among Mechanical Engineering, Mechatronics andRobotics Engineering, and Computer Science majors. Therefore, the challenges faced during thecourse offering, especially to ensure that the course is appropriate for ME, MRE, and CS studentswhile complex enough to cover the essential fundamentals of autonomous vehicles are alsodiscussed. Finally, the
, 2021 MAKER: Design of a Virtual CNC Mill by Unity Software AbstractIt requires a lot of hands-on experience to learn how to operate a computer numerical control (CNC)mill. Virtual Reality (VR) can serve as a way to teach how to properly operate it. The goal of thisresearch is to create a virtual CNC mill that can provide interactive training for students. The Unitysoftware was used for this goal. Unity is a game development engine used to produce video games,utility software, and more. The functionality of the CNC simulation was created with C# scripting.The visual representation of the CNC mill was built through 3D modeling, and then transferredinto FBX 3D models which are compatible
summer of 2017 as a pilot tofive community college students who were participating in an internship at VSU, under theNational Science Foundation (NSF) supported Washington-Baltimore-Hampton Roads LouisStokes Alliance for Minority Participation (WBHR-LSAMP) program. These students havefuture plans of continuing their education in either engineering (mechanical, electrical, computer,and manufacturing) or physics. The course consisted of lectures; laboratory experiments oncircuits, rapid prototyping, PLC, and data acquisition with LabVIEW; and projects. Participantscompleted two team projects related to the manufacturing area, one of which was on an“Experimental Kinematic Study of Slider Crank Mechanism” that was designed to convertstraight-line
design process at TCU isbased on these criteria. A 3-semester, team-oriented, industry-funded, electrical/mechanical,interdisciplinary design sequence, beginning in the second semester of the TCU studentengineer’s junior year, is described.introductionEarly in their engineering educational process, students are typically forced to select a specificdiscipline (mechanical, electrical, civil, etc.). They then dutifully follow a program of studiesthat embraces the requisite technical courses (thermodynamics, solid mechanics, circuits, etc.) tosupport this discipline. While laboratory courses may provide an opportunity to stimulate groupinteraction, success in the majority of their engineering courses is typically assessed based uponindividual
provided drawings and stock materials and workunder minimal supervision. The project is designed in such a way that the laboratory (shop)work follows closely the lecture classes. The lecture unit on casting is followed by thefabrication of the handle for the hacksaw which is formed out of cast aluminum. The unit onrolling and bending is followed by the bending of the steel bar to produce the frame of thehacksaw; the unit on sheet metal processing is followed by the part of the hacksaw (retainer) thatinvolves cutting and bending sheet metal; the general topic of machining is followed by theproduction of the tensioner which involves facing and turning on a lathe, and a finishingoperation by milling. There are also applications of joining processes
, visualization, analysis, and dissemination of information. However, there isa gap in literature that describes empirical studies of knowledge maps in engineering informationliteracy instruction.The purpose of this paper is to explore the effectiveness of knowledge maps in enhancingengineering information literacy instruction. With the knowledge maps, librarians can save timein preparing the library instruction materials. The maps can be used for in-class exercises andinformation literacy skills assessments. Engineering students can use the knowledge maps in theclass and for future reference and other learning activities such as laboratory research.The experiment was done in an information literacy instruction session for a senior-levelundergraduate
manufacturing, in order to improve and/or optimize its functionality. ( French standard NF E 01010 ) The concluding course in this sequence, ME450, Design and Manufacturing III , is the senior level course. This course gives students an opportunity to collaborate in teams to apply a design process from eliciting user needs through to prototype validation on an openended design challenge as part of a capstone design experience. Complementing these Design and Manufacturing courses are two Laboratory experiences. Laboratory I introduces the student to the basics of experimentation, instrumentation, data collection and analysis, error analysis, and reporting within the context of fluid mechanics, thermodynamics, mechanics, materials, and dynamical