Session 2357 EVERYTHING YOUR MOTHER NEVER TOLD YOU ABOUT RUNNING AN ON-LINE COURSE-OR AT LEAST MOST OF IT1 Dennis E. Kroll, Ph.D. Industrial & Manufacturing Engineering & Technology Bradley University Peoria, IllinoisAbstract - You have spent years learning to teach in a classroom. Feedback is usually quick andyou can adjust as you go. Your students have spent years learning how to survive a classroomenvironment and, being engineering students, should be doing fairly well
learning enhances the student’s education includingthe areas of: work ethic, critical thinking, problem solving, social issues, and reasoning.1,2,3 Onegoal of Purdue University, the College of Technology, and the Building ConstructionManagement Department is to infuse global awareness in both undergraduate and graduatestudents. A study abroad course is one way to accomplish this goal. International experiencesgive our students an edge over other students and allow them to apply their knowledge to solveproblems outside of their comfort zone. Understanding different materials and methods ofconstruction expands their knowledge. The overall experience adds to their marketable skillswhen entering the workforce. Most students in this department tend to
Session 1260 Employment Pattern and Educational Standards of Engineering Graduates in the Lao PDR F. Coowar, M. Giger, C. Loukides and K. M. Siddiqui1 Swiss Federal Institute of Technology, Lausanne, Switzerland c/o National Polytechnic Institute, Vientiane, Lao PDRABSTRACTThe National Polytechnic Institute (NPI) is the only tertiary institution in the Lao PDR thatproduces engineering graduates at the Bachelor’s level in the major engineering fields ofCivil, Electrical and Mechanical Engineering. Since its establishment under a UNESCO-sponsored project in 1984, a total of
development of declarativeknowledge and procedural skills; it is uncommon and challenging to develop adaptive learningtools that specifically focus on developing conceptual understanding. In part, this difficulty stemsfrom limited understanding of how students’ conceptual knowledge emerges through interactionwith these adaptive tools. In a previous study, we have explained the components and how wequantitatively tested the adaptive logic of a newly developed Crystallography Adaptive LearningModule (CALM) in materials science. In the current study, we use a knowledge-in-piecesframework that views learning as the activation and coordination of resources. We seek toidentify and explicate student-tool interactions that may lead to or hinder the
module. The captured data wasinserted into a MySQL database where a webpage with a graphing application programminginterface (API) was used to display the data. The system has been successfully tested in real timewhere data was successfully obtained and displayed. Future enhancements to safeguard the data,including the encryption of the patient data is under investigation.Keywords: Body Area Networks, Sensor Networks, Wireless Communications.I. IntroductionPressing medical issues such as the aging population in developed countries andthe skyrocketing cost of healthcare have prompted the emergence of technology-driven improvements of current healthcare practices. For instance, recentadvances in electronics have enabled the development of
pursue four-year degrees [1]. Programsare needed to increase awareness of the upcoming expansion of the biotechnology field amongcommunity college students and prepare them to pursue opportunities as they become available. © American Society for Engineering Education, 2024 2024 ASEE Midwest Section ConferenceThese programs need to train students in biotechnology techniques in a lab setting as well asprepare them to become competitive candidates for biotechnology jobs. An additional challengelies in recruiting students and raising awareness of these emerging opportunities. Communitycollege students often have additional commitments to family or work they must balance whilecompleting their
communications skills.The course promotes students’ abilities to make use of the technologies inresearch, experimentation, data collection, analysis and presentation. Studentslearn the conventions of evidence, format, usage, and documentation in theirfield; understand the features and types of speaking in their disciplines; andadapt their speaking to field-specific audiences. They emerge from the coursewith a sense of confidence and the tools to handle and learn from future projects.The Independent Study CourseThis is an elective course designed for the undergraduate student who wishes toengage in research. The subject of research and the number of credits, rangingfrom one to three, are arranged with the instructor. The major objective of thecourse is
), Popular Science (”The New Face of Autism Therapy”, 2010), the IEEE Spectrum (”Caregiver Robots”, 2010), and is one of the LA Times Magazine 2010 Visionaries. Prof. Mataric is an associate editor of three major journals and has published extensively. She serves or has recently servied on a number of advisory boards, including the National Science Foundation Computing and Information Sciences and Engineering (CISE) Division Advisory Committee, and the Willow Garage and Evolution Robotics Scientific Advi- sory Boards. Prof. Mataric is actively involved in K-12 educational outreach, having obtained federal and corporate grants to develop free open-source curricular materials for elementary and middle-school robotics
, University of California, San DiegoEunice Chow Eunice Chow, M.A., is a Research Associate at WestEd. She has extensive experience leading and supporting research and evaluation studies funded by the U.S. Department of Education. Her research focuses on educational technology and early learning. Her expertise ranges from usability and implementation studies to multi-year randomized controlled trials. She earned her M.A. in Education from Stanford University and her B.S. in Psychology and Learning & Organizational Change from Northwestern University.Alec Barron, University of California, San Diego Dr. Alec Barron is the Director of the San Diego Science Project at UC San Diego CREATE. Through this role, he supports
to increase partnerships and collaborations and to further integratelibrary services into the engineering educational and research enterprise.The library is examiningthe traditional roles and responsibilities of liaison librarians and identifying opportunities for newways of engaging with the library’s user communities to better meet their information needs andto increase the visibility and relevancy of library services.For the past two years, the library has been adjusting to organizational changes brought about bythe pandemic, including implementing new and different modes of service delivery by utilizinginformation and communication technologies for socially distanced interactions, such as thefollowing: ● moving to virtual library
that their resources are “NGSS-aligned.” Introduction As of 2017, nineteen states have adopted the Next Generation Science Standards (NGSS)[1] with the main goal being to improve science instruction and encourage student interest inscience and technology fields. The NGSS focus on three strands of science learning, (1)disciplinary core ideas, (2) science and engineering practices, and (3) cross cutting concepts. Thestandards are aimed to focus on big ideas that blend with practices and cross-cutting concepts inorder to allow students the opportunity to explore and engage with these ideas in a meaningfuland applied way. Students should emerge from the K-12 progression as practitioners of an
Paper ID #23914Developing Humanitarian Engineering Perspectives Among UnderrepresentedScholars Through Engagement with the Sustainable Development Goals inGlobal ContextsDr. Renetta G. Tull, University of Maryland, Baltimore County Dr. Renetta Garrison Tull is Associate Vice Provost for Strategic Initiatives at the University of Maryland, Baltimore County (UMBC: An Honors University in Maryland). She serves Professor of the Practice for the College of Engineering and Information Technology, and is part of the Engagement Team. She is also on detail with the University System of Maryland (USM), where she is Special Assistant
. Given the relativelysparse literature on the topic, we encourage researchers addressing faculty careers to ask aboutdisability in their work and to analyze disability-related data to increase our understanding of theissues impacting this population. Moreover, we offer departments and institutions strategies thatthey can take related to institutional and departmental policies related to accommodationrequests, hiring practices, faculty evaluation, and other relevant areas; departmental culture;physical environments; collaboration and communication, and information technology. Weconclude with recommendations to researchers and practitioners regarding the development ofpractices that will lead to increased engagement and success of women in faculty
technology to support learning. His recent work involves using virtual worlds and other tools to support team based design strategies. Page 25.1493.1 c American Society for Engineering Education, 2012 WIP: Linking a Geographically Distributed REU Program with Networking and Collaboration Tools Abstract The George E. Brown, Jr. Network for Earthquake Engineering Simulation (NEES) coordinates a geographically distributed Research Experience for Undergraduates (REU) program with up to 30 students placed at five to eight research sites
orientation programs that align with the specific needs and aspirations of international graduate students. • Analysis of support services reveals varying levels of satisfaction among international students. While the majority express contentment with technology support and research assistance, challenges emerge in the areas of academic advising and availability of required courses. These findings underscore the importance of refining academic support structures to cater to the unique requirements of international students, ensuring their seamless integration into the program.A final point of discussion is that data seems to align with the broader literature on internationalstudent recruitment and
increasedemphasis on CAN communications and emerging areas such as the growth in electric vehicledevelopment and vehicle-to-vehicle communications. This technology provides an avenue toteach core concepts and techniques of data acquisition while focusing on modern applicationswithin vehicle engineering including electric vehicle applications. Page 15.341.2Instruction ApproachProject-based learning is effective in improving learning outcomes and increasing students’retention for courses and programs. The use of projects in both lower and upper level coursescan increase students’ interest and success provided the level of difficulty of the project matchesthe
style models serve as an initial approach to recognizing that individuals vary in theways they process and interact with information. Personalized education and learning stylemodels both aim to address the individual needs of learners, moving away from one-size-fits-allapproaches. Both perspectives share a core objective: tailoring education to accommodate learnerdiversity. While learning style models categorize learners based on certain preferences,personalized education builds on this idea by using data analytics and technology to createnuanced, individualized, and adaptive learning paths [10] that are based on learner profiles,attitudes, and prior knowledge and are flexible and self-paced [11]. As such, our proposedframework uses the Felder
& Turpen, 2018). Additionally, those from privileged backgrounds are more likely to struggle in recognizing the "culture of power" within disciplinary spaces (Delpit, 1988). So, we anticipate that it will be challenging work for engineering students to come to see the harm precipitated by these ideologies. However, little previous work has explored how and to what end these ideological narratives emerge in engineering students’ reasoning (Lambrinidou & Caney, 2016; Lachney & Banks, 2017; Papak, Gupta & Turpen, 2018; Canney, 2018). Our paper contributes to this line of inquiry
education work, including K-12 STEM and Social Studies via PBS LearningMedia, early childhood, and community-based educational media initiatives. His work focuses on designing and researching how educational technology can create more meaningful and equitable learning experiences. He has published his work extensively in major educational journals and conference proceedings.Ranida McKneally, GBH Ranida is a STEM curriculum developer keenly interested in nurturing curiosity and growing science literacy. Her bachelor’s degree in cell biology from Cornell University and master’s degree in biology from Harvard University Extension School have taken her from the microscopic realm to the vibrant tropical rainforest where
price has dropped substantially. Accordingto Wohlers Associates, a consultancy, the market for 3D printers and services was worth $2.2billion worldwide in 2012, up 29% from 2011.The 3D printing technology is used for both prototyping and distributed manufacturing withapplications in architecture, construction (AEC), industrial design, automotive, aerospace,military, engineering, dental and medical industries, biotech (human tissue replacement),fashion, footwear, jewelry, eyewear, education, geographic information systems, food, and manyother fields. One study has found that open source 3D printing could become a mass market itembecause domestic 3D printers can offset their capital costs by enabling consumers to avoid costsassociated with
industry support should play a key role in funding theprogram–particularly unique components such as summer internships. On the other hand, if thedisciplinary area is motivated by the excitement of a rapidly emerging area of science ortechnology (such as nanotechnology or biomedical engineering), then the program should befunded either by student fees or institutional reallocation (since the student credit hoursassociated with the minor concentration will come most likely at the expense of other electives inthe engineering curriculum).ConclusionsIt is increasingly clear that the nation faces a serious challenge in producing the next generationof scientists and engineers necessary to support our nuclear technology needs. Even a
., treatment management, lifestyle habit changes, stroke prediction, emergencysearch and rescue, triage, and first responder tracking). These are being implemented usingvarious wearable platforms such as a wrist band and chest patch. We believe that these test-beds,propelled by innovative technologies and informed by industrial, environmental, medical andsocial science practitioners, will directly address the Grand Challenges in Engineering inAdvanced Health Informatics. Moreover, we are committed to training our graduate students tomeet these grand challenges and achieve the vision of nanotechnology for the year 20201.Background and MotivationThe ASSIST center’s educational goal is to provide students with a comprehensive array oftechnical
, Design, and Technology program at the Pennsylvania State University.Dr. Gi Woong Choi, University of Cincinnati Gi Woong Choi, Ph.D. is an Assistant Professor of Instructional Design and Technology. Dr. Choi received his Ph.D. in Learning, Design, and Technology from Penn State University and has a background in human-computer interaction and user experience. His current research interests include AI in Education, informal STEM learning, problem-solving, makerspaces, and educational affordances of technologies.Ju Hui Kang, University of Cincinnati Ju Hui Kang is a PhD student in Instructional Design and Technology at the University of Cincinnati. She has a previous background in human-computer interaction and
truncated personascontaining typical user biographic information, goals, habits, or experiences. In our firstexperiment at Stanford University the students focused on the use of and outcome from theabbreviated personas and not the persona generation itself. The lessons learned from thisexperiment were then applied in a capstone course at the US Military Academy to betterunderstand the full extent of implementation into engineering education.The automotive design capstone originated in a mechanical engineering course focused onengineering engagement through story-telling and included three distinct presentation methodsfor abbreviated personas at a public exhibition. Over 250 participants interacted with theabbreviated personas and manipulated an
of Cali- fornia, Irvine, and Santa Barbara City College. He has worked in informal STEM education at the Santa Barbara Museum of Natural History and MOXI, The Wolf Museum of Exploration + Innovation. As MOXI’s first Director of Education, Skinner created the philosophical vision for the department, mapped out a five-year strategic plan, and built up an education staff of five full-time employees, 20 part-time employees, and over 100 volunteers. He planned, budgeted, and implemented a full slate of informal and formal education programs; collaborating with teachers and school administrators, university depart- ments, science and technology companies, community organizations, and donors. At MOXI, Skinner’s
trackedusing eye tracking technology. Semi-structured interviews were conducted following theproblem-solving interview and the rationale associated with their decisions to use a particularcontextual representation emerged. The results of this study show how the rationale caninfluence the problem-solving process of the four engineering pracitioners. Engineeringpractitioners used various contextual representaions and provided multiple rationale for theirdecisions. Eye tracking techniques and semi-structured interviews created a robust picture of theproblem-solving process that supplements previous problem-solving research.IntroductionWithin all fields of engineering, it is common for engineers to use multiple contextualrepresentations (e.g., graphs
gamified homework platform had on students’ motivation,students were asked to complete the Jones MUSIC Inventory4,5 and participate in an end ofsemester focus group. The Jones MUSIC Inventory measures academic motivation and providesa perspective on students’ motivation towards completing course objectives. 4,5 Focus groupresults were analyzed using a grounded emergent qualitative analysis approach by two analysts.The categories were then cross-referenced with the Jones MUSIC model4,5 to determinealignment of the categories observed with students’ academic motivation. Overall, the resultshave shown that the gamified learning environment had relatively neutral impact on students’academic motivation towards homework.Introduction and
these five reflections were collected, ateam of six researchers reviewed the five reflections, using manual preliminary coding methods[10] to take notes of words, phrases, or ideas that emerged. The group then met together todiscuss their takeaways. This led to coding the findings into categorical themes of the roles alearning coach takes on to be successful. While these methods were fairly informal, this is afoundation for future research directions that will evaluate the approaches and outcomes of thelearning coach to student relationships in both qualitative and quantitative ways.ParticipantsSome demographic information relating to the five facilitators who provided written reflectionson their experience as learning coaches is reflected in
engineer to receive the U.S. Campus Compact Thomas Ehrlich Faculty Award for Service-Learning. He was a co-recipient of the U.S. National Academy of Engineering’s Bernard Gordon Prize for Innovation in En- gineering and Technology Education and the recipient of the ASEE Chester Carlson Award for Innovation in Engineering Education. He is a fellow of ASEE and the National Society of Professional Engineers (NSPE).Qin Zhu, Purdue University Page 24.1199.1 c American Society for Engineering Education, 2014 The Discourse of Design: Examining Students’ Perceptions
and technology advancements 3. The next generation electrical engineersshould have significant technical and scientific capabilities, deep interdisciplinaryunderstandings, and soft skills such as self-learning abilities and communication competence 4.To satisfy these requirements, the successful EE education needs to continuously expose studentsto the latest technology, provide them opportunities to practice, and involve them in innovativeprojects. Cyber-physical systems (CPS) 5, an integration of computation, networking, andphysical processes, and its instance, Internet of Things (IoT) 6, a network of uniquely identifiablephysical objects or “things” embedded with electronics, software, sensors and connectivity,emerge as feasible and