in makerspaces. This study is in the preliminarystages of developing such a tool.A university makerspace is where students may create personal projects, prototype ideas, orwork on class assigned projects by utilizing resources such as 3D printers, laser etchers, CNCmachines, sewing machines, embroiderers, vinyl heat-press, and other tools/crafting machinery.While these kinds of machines are not inherently gender/racially biased, the use of facilitiesnationally is not equally demographically balanced and supports data depicting a user dominanceof “affluent males” [5]. One hypothesis is that the gender imbalance could be due to ambientidentity cues that do not accurately portray a fully representative population [4]. With theunveiling of a new
human challenges.1 Engineering schools that are embedded within liberal artsschools, such as ours, are uniquely suited for such education. In addition, schools that havestrong research faculty can enable an additional component where students and curriculumare informed by research methodologies as well as advancements in science andengineering, thus creating a mind set for innovation and critical inquiry.In this paper we present two cases of comprehensive summer programs where studentsworked in teams on research-oriented projects. The teams are composed of internationalstudents and worked with a clear objective to learn and contribute in creating new devicesthat may advance state of the arts within a social and economic context. The topics of
Paper ID #25218Board 43: WIP: The Field of Engineering Education Research as Seen Throughthe Peer Review ProcessDr. Stephanie Cutler, Pennsylvania State University, University Park Stephanie Cutler has a Ph.D. in Engineering Education from Virginia Tech. Her dissertation explored faculty adoption of research-based instructional strategies in the statics classroom. Currently, Dr. Cutler works as an assessment and instructional support specialist with the Leonhard Center for the Enhance- ment of Engineering Education at Penn State. She aids in the educational assessment of faculty-led projects while also supporting
’ Design Process Concept MapsIntroductionIn our ongoing exploration of this EAGER EEC NSF-funded project, we share results of thedesign concept maps part of our research project. This paper is intended to share formativedevelopment of a coding scheme to assess and evaluate drawings by undergraduate engineeringstudents of their engineering design process. There is a spectrum of student responses anddeveloping a taxonomy, or categorization, is helpful to better understand where students beginand end from a design project learning experience. This can then inform and illustrate the waysin which students balance breadth and depth and learn and apply their engineering know how.Design may appear throughout a curriculum or be substantiated as a capstone
, teamwork-intensive activities, and group projects. Numerous studies show the positive influencecollaborative learning had on promoting higher levels of understanding and stronger retention ofmaterial6. As such, practices have been successfully established in engineering economicscourses. One such course is the University of Pennsylvania’s ESE 400/540 – EngineeringEconomics course. In conjunction with the aforementioned studies and ABET requirements, ESE400/540 mandates that the expected outcome is to “be able to work effectively in teams of 4 or 5to perform case study analyses and to present findings in written reports and verbalpresentations” [ABET Program Outcome D]. The professor integrated this by assigning teamcase study projects, whereby
a two-year, project-based program that allows students with two-yearcollege degrees to complete a bachelor’s degree in engineering. The program is a partnershipbetween a community college and a state university, separated geographically by severalhundred miles. The program takes place at the community college, targeting students in that partof the state and responding to the needs of local industries. Because of the complex nature of theinstitutional partnership, as well as the project-based, team-focused emphasis, the program servesas an innovative model for engineering education.IntroductionThe engineering profession is becoming steadily more global in nature,1 creating the need forengineering education to develop a graduate who is
student reflective learning outcomes during a final Leadership/Mentorshipcourse, after their participation in significant, experiential design projects in the University ofMichigan’s Multidisciplinary Design Program in the College of Engineering. Throughout thecourse, class discussions and assignments prompted students to reflect and examine theirpersonal experiences in engineering design projects, their learning (both technical andprofessional), leadership, and team styles as well as understand group development anddynamics.A feature of the projects was the integration of students from diverse disciplines in engineeringwith other programs such as: Art, Architecture, Primary Sciences, Kinesiology, and Business.The diverse teams provided a rich
in the U.S., Europe, and East Asia. He retired at the rank of Colonel. During his military career, Dr. Lenox spent 15 years on the engineering faculty of USMA – including five years as the Director of the Civil Engineering Di- vision. Upon his retirement from the U.S. Army in 1998, he joined the staff of the American Society of Civil Engineers (ASCE). In his position as educational staff leader of ASCE, he managed several new educational initiatives – collectively labeled as Project ExCEEd (Excellence in Civil Engineering Education). As ASCE’s Executive Vice President, Dr. Lenox led several educational and professional career-development projects for the civil engineering profession – with the overall objective of
research interests particularly focus on what prevents students from being able to integrate and extend the knowledge developed in specific courses in the core curriculum to the more complex, authentic problems and projects they face as professionals. Dr. Koretsky is one of the founding members of the Center for Lifelong STEM Education Research at OSU.Dr. John L. Falconer, University of Colorado, Boulder Professor of Chemical and Biological EngineeringDr. David L. Silverstein P.E., University of Kentucky David L. Silverstein is a Professor of Chemical Engineering at the University of Kentucky. He is also the Director of the College of Engineering’s Extended Campus Programs in Paducah, Kentucky, where he has taught for
Figure 2.VEX Utrasonic Rangefinder SensorInputsStart signal to the ultrasonic sensor.Connect to a interrupt port.Outputs3-Wire CableConnect to a interrupt portEcho response from the ultrasonic sensor.Black: GroundRed: +5VOrange/Yellow: Control SignalSystem Figure 3. The developed line tracking robot.Line trackers are mounted to the back of the robot. Ultrasonic range finder is mounted on thefront of the robot. iPhone streams video to a computer.Lessons LearnedStudents are currently working on the project. Students think that this is a very interesting andchallenging project. They report that they have never done something like this and are veryexcited about how their robot turned out and also how the robot interacted
Labequipment or not having enough funds for this emerging technology. There are different ways ofintroducing this Course (PLC) one way is to make it web based teaching which can be accessiblefrom anywhere. A Model building of PLC in an existing Course, Also it can be done in hybridCourse and Labs can be done in person at schools. To make our students to succeed we have touse intelligent tutoring system technology and games to teach about programmable language forPLC. Research has established Hands on education approach is most effective there fore PLC laboriented activities will be more exciting to Automation students.Integration of PLC ProjectA PLC project to develop a system for water level control was added to an existing two-yearcollege course on
, and AAAI.Dr. Elizabeth Ingraham, University of Nebraska, Lincoln Elizabeth Ingraham is Associate Professor in the School of Art, Art History & Design at the University of Nebraska-Lincoln. A Fellow of the Center for Great Plains Studies, she teaches design and computational creativity at UNL and received the Sorensen Award for excellence in humanities teaching. A sculptor whose work gives form and voice to lived experience, she won the Thatcher Hoffman Smith Award for Creativity for her series of life-size sewn fabric ”skins” sculptures. Her recent solo exhibition at the International Quilt Study Center & Museum showcased the result of more than 9,000 miles of travel across Nebraska for her project
Human-Centered Computing, both from UMBC. His primary research investigates the impact that Making may have on youth engagement in STEM education and careers.Stephanie Grimes, Digital Harbor Foundation Stephanie Grimes has been working in education for over 15 years in many different capacities. A former Early Childhood Educator, Stephanie is now the Director of Education for Digital Harbor Foundation in Baltimore, Maryland. Steph oversees all curricular creations and youth programs for the DHF Tech Center and workshop experiences. She works to produce innovative, project-based, and accessible content that focuses on preparing youth for the careers of tomorrow, with a focus on technology and making.Shawn Grimes
solution to fully grasp the overall concept. After presenting the materials to students,continual review with students is also essential. This reviewal process requires exploring use-cases for the programming mechanisms presented as solutions to the security issues discussed. Inaddition to the security modules presented in lectures, students were given a hands-on approachto understanding the concepts through Model-Eliciting Activities (MEAs). MEAs are open-ended, problem-solving activities in which groups of three to four students work to solve realisticcomplex problems in a classroom setting. The semester project related to encryption anddecryption was implemented into the course as an MEA.To assess the effectiveness of incorporating security
and design courses.In order to improve student knowledge in structural engineering, Norwich University’s CivilEngineering department made changes to the content and format of the undergraduate StructuralAnalysis, Structural Steel Design, and Reinforced Concrete Design courses. These changes wereintended to allow for the inclusion of experiential learning, to provide opportunities forincreased use of industry standard structural analysis and design software, and to provide timefor the students to begin to use Building Information Modeling (BIM) systems for analysis anddesign.The research in this project focuses on the impacts of incorporating these changes into theStructural Engineering courses of the Civil Engineering curriculum, and
Technology at Farmingdale YEONG S. RYU graduated from Columbia University with a Ph.D. and Master of Philosophy in Mechan- ical Engineering in 1994. He has served as an associate professor of Mechanical Engineering Technology at Farmingdale State College (SUNY) since 2006. In addition, he has conducted various research projects at Xerox Corporation (1994-1995), Hyundai Motor Corporation (1995-1997), and New Jersey Institute of Technology (2001-2003). He has been teaching and conducting research in a broad range of areas of system identification and control of nonlinear mechatronic systems and vibrations in structures requir- ing precision pointing to eliminate the detrimental effects of such diverse disturbance sources
systems. As a tenure-track faculty member and Chair of the University of Detroit Mercy Mechanical Engineering department, he has developed a program of instruction that promotes student-lead design of assistive technology products for people with disabilities. The guiding principle is that student project work is more meaningful and fulfilling when students have the opportunity to experience interaction with real live ”customers.” Dr. Kleinke is currently the Director of the Graduate Engineering Professional Programs, emphasizing Systems Engineering and Graduate Product Development programs. In addition to academic work, Dr Kleinke continues his involvement in industry as he conducts seminars on innovation which are
industries, majority of the responses seen was Data Science and ArtificialIntelligence as seen in Figure 3. 6 Figure 3: Application of technologies to various industriesWhen we look at the amount of understanding the freshmen have towards Blockchain we seefrom the Pie diagram in Figure 4, that majority of the freshmen did not have any understandingof the blockchain. Only 5.849% of the freshmen indicated that they understood well or verywell what blockchain is. Figure 4: Freshmen’s Understanding of BlockchainWhen the students were asked about taking working in teams for projects in Blockchain,Cryptocurrency and Data
high school.However, this can be difficult in the United States since engineering courses and thecorresponding interactive design projects for practical engineering products are not alwaysincluded in middle school, even high school curriculum. In this paper, we try to explore thepossibility of developing a short-time workshop with an interesting engineering project whichcan motivate middle or high school female students to learn engineering, and eventually pursuecareers in engineering. For the workshop, we need to consider two factors to develop it: (1) thetime period allowed for the students to complete the project and (2) the expense of the projectproduct. The workshop was included in the event, Next Generation Science, Technology
final deliverable.Students in the Electronics Engineering Technology program at Texas A&M have usedthe above practical process to successfully implement more than a dozen projects so farthat also has enabled them to learn the topics more effectively. Page 12.146.2IntroductionDue to the Wal-mart initiatives there has been a wide uproar in the industry about RFID.As a result of this mad rush people are implementing RFID systems without trulyunderstanding the benefits and negatives of the implementation. The industry tends tothink that RFID is a solution to every enterprise problem today! That is clearly not true.RFID is not a solution; instead it is
nuclear reactors and power plants. ‚ Introduction to reactor kinetics. ‚ Introduction to radiation effects and shielding ‚ Heat transfer and fluid flow ‚ Ecological impact 2. Performance of a student report and presentation to promote; ‚ Teamwork skills ‚ Written communication skills ‚ Oral presentation skill Table 1: Spring 2004 Course ObjectivesThe student projects topics category was included to provide a student self study component tothe course, and required the students to investigate and present information on instructor
experimental design. Achievementof student proficiency in designing experiments and statistically analyzing the data is theprincipal objective of this senior mechanical engineering laboratory course. During the initialfew classes, the students perform simple experiments to understand the concepts of randomvariables and their distribution. They correlate the results to designing experiments and theirquality. Later, they perform experiments using a factorial design of experiments chart. Then, theoutput data from the experiments are analyzed. Based on the experiments, a term project isassigned that will allow the students to develop an experimental design chart by identifying theindependent and dependent variables, collecting data by performing
messages. Figure 6shows a sample page of student discussion. It has been found that students provided excellentinputs on even a simple topic of discussion. These inputs were based on their real experience,their observation, and real construction projects. Usage of discussion board by students to engagein discussion far exceeded the expectation of course instructor. Most important was that studentsunderstood the difference between the textbook knowledge and real-world construction process.Course DeliveryThe first few steps to get the students started in an on-line course were critical. Besides thetutorial materials on course WebCT (Figure 2), an introductory letter was e-mailed to eachstudent enrolled in the course one week prior to the beginning
Summer Jr. to Sr. Start of Practicum Experience with the INL. Nominally 40-hrs/wk, including completion of Nuclear Systems Lab course Fall Spring Sr. year Sr. year Continuation of Practicum Full-time course load, including: Experience at the INL, ~ 20 hrs/wk Energy Systems and three courses: Thermal Fluids Lab Heat Transfer Eng. Probability and Statistics Design of Nuclear Fuel Systems Nuclear Materials Project
AC 2007-114: INTEGRATION OF TABLET PCS INTO COLLABORATIVELEARNING ENVIRONMENTSJeff Frolik, University of Vermont Page 12.939.1© American Society for Engineering Education, 2007 Integration of Tablet PCs into Collaborative Learning EnvironmentsIntroductionThis paper presents the results of a project, ongoing since Fall of 2004 at the University ofVermont (UVM), in which university-owned, Tablet PCs have been integrated into learningenvironments where engineering students collaborate most frequently: namely, in laboratoriesand design courses. The primary objective of this work was to ascertain how mobile, pen-basedcomputing can
in several ET courses including Engineering Fundamentals, 2-D CADD, 3-DCADD, Statics, Dynamics, Strength of Materials, Thermodynamics, Fluid Power, and IndustrialSafety. WebCT’s excellent file management system is very helpful in the CADD classesparticularly when students are required to submit several files for each project. The files aregrouped under each student’s ID and zipped so that the instructor needs to download only onefile and unzip it. This feature was not available on CourseInfo. The digital drop box letsstudents submit their assignment, tests, term papers and project reports electronically whileeliminating the need for hard copies, floppy/zip disks or CD’s. The instructor can edit the dropbox settings such as deadline, multiple
search for ways toreduce their expenses in order to become or remain financially stable.Combining the challenge for higher-education to give students industry experience whileproviding a method for organizations to maximize their services with little or no fiscalexpenditures, results in a process called service-learning [1]. This term refers to educationalactivity in partnership with a public or non-profit agency, organization, or project within thecommunity. Service-learning from an academic viewpoint is normally completed in one of twoways. The first, curricular service-learning, is a process in which the project is integrated into anacademic course and carries academic credit. The second, co-curricular service-learning,complements academic
president of Wulfinghoff Energy Services, Inc. Page 11.939.1© American Society for Engineering Education, 2006 Moving Engineering Practice into the Classroom: Using the New Interactive ReferencesA New Concept in Engineering EducationThe practice of engineering requires the skill to continually gain reliable understanding ofpreviously unfamiliar subjects, which will be used by the engineer as the basis for decisionsaffecting the welfare of clients and the public. The great variety of issues that an engineer mustaddress requires that principles and data must be found and assimilated into a project
development projects and product liability cases, respectively, and is a registered Professional Engineer in Illinois and Wisconsin. He is a co-creator of the BMES-idea national design competition and writes a quarterly column on senior design for IEEE-EMBS magazine. Education: B.S. General Engineering, University of Illinois, Urbana, IL, 1979; M.S. Bioengineering, University of Michigan, Ann Arbor, MI, 1980; Master of Engineering Management, Northwestern University, 1986; Ph.D. Biomedical Engineering (Biomaterials), Northwestern University, 1998 Page 11.1012.1© American Society for
23.750.2AbstractOne problem with trying to introduce information literacy skills to engineering students is thatsome faculty are reluctant to change their courses to include this new material. Other facultyhave difficulty developing an assignment that will require students to learn and use informationliteracy skills. Having had success with a freshman orientation class, a librarian and instructionaldesigner collaborated to transform that assignment into an online module. The module wascreated in Blackboard and was designed to be generic enough so that it can easily be modifiedfor any course. The assignment asks students to work in teams on a design project. The specificdesign project can be determined by the course instructor, making the module customizable