experience of the present paper test this recommendation.using a common inquiry-based exchange of ideas, Does the addition of short topic specifictheory, and hands-on activities and incorporating videos to instruction already aided with visualguided student mentoring. handouts further assist student learning? This Currently available technology is used to study was conducted by testing two lowerdevelop a variety of unique learning communities level construction classes each consisting of 17to enhance and extend the environmental students. One group was the control group andscience curriculum in K-7 classrooms, especially the other
followed by Outcome 1 at % 87.32. 95.83% of the students achieved a grade of 80% (B-) or better in the laboratory/project section. Quality of student works in both the labs and project were beyond satisfactory. %70.3 of the students received acceptable grades 80% or (B-) better due to not turning in some of their home-works. This can be explained with students’ interest in doing. Their learning style was kinesthetic and showed less interest in written assignments. 95.83% of the students earned a grade of 80% (B-) or better from their examinations including a take home examination and open-note/books final examination. Students were eager to engage in hands-on practical activities. Increasing the content on student writing and
confirm potential impact of this project as we target high schoolstudents and their teachers with our work, in hopes of increasing teachers’ and students’knowledge in these fields and consequently influence the students' career choices. In addition, asimilar approach was done by another group of researchers [5] who introduced engineeringproject-based learning to grade school students and determined that the students’ interest inSTEM careers increased after their exposure.The second part of career preparedness is soft skills such as interpersonal communications, theability to work well with others, professionalism, ethics and others similar facets. Employershave, for a long time, voiced concerns about the lack of preparedness of new hires in terms
Prevention (P2) and Economy, Energy and Environment (E3) Best Practices. Over thepast year, business sectors such as healthcare, hospitality and manufacturing, have benefitedfrom ENMRN’s on-site P2 and E3 assessments that guide businesses on strategies for reducingenergy consumption and minimizing water use and waste. Conducted by a team of faculty andstaff alongside graduate and undergraduate students from NMSU, these engineering extensionoutreach services not only increase the operational and financial efficiency of local industry, butalso educates businesses on the impact they have on the environment. Through the assessmentprocess, the NMSU team collects data, calculates energy savings, provides recommendations forenergy efficient equipment, and
engineering students may practice computational thinking. The expected outcomeis to provide a more precise direction regarding enhancing different engineering majors’computational thinking abilities.Literature ReviewIn recent years, the growing relevance of computational skills has created a demand for highercompetency in CT. The term “computational thinking” gained attention beyond the computerscience community after Wing’s 2006 article, which outlined how CT benefits everyone, not justcomputer scientists. CT shares many common practices with other STEM fields, making itwidely applicable in integrated STEM. CT is widely described as the thought processes involvedin defining problems and coming up with solutions such that the solutions take on a form
provides a very low-cost solution toprototyping solutions in a 3D interactive environment and also has the advantage ofsharing results with an international audience. The ability to engage cooperatively andinteractively is one key advantage of virtual worlds over other simulation tools. We areplanning to perform additional testing in this virtual living environment and also to sharethe environment with other students and researchers interested in utilizing virtual worldtechnology to promote this technology. Figure 5: Virtual Living Space with floor robot Page 22.1069.6 Figure 6: Virtual Living Space
students can take away from their technicaleducation is the ability to become ‘curious and persistent continuous learners,’ to quote PurdueUniversity’s Purdue Engineer of 2020 outcomes statement.2 The engineering community haslong realized the need for lifelong learning, as evidenced by the theme of the 1978 ASEE AnnualConference of ‘Career Management – Lifelong Learning.’ However, with the publication ofEducating the Engineer of 2020, which recommends, ‘…as well as delivering content,engineering schools must teach engineering students how to learn, and must play a continuingrole along with professional organizations in facilitating lifelong learning,’(pg. 55) lifelonglearning has taken on much greater visibility in the engineering curriculum
testing expanded to a largerrange of undergraduate lab-based courses. These courses included chemistry, physics, andbiology and were being taught at a range of institutions, including community colleges,historically minority institutions (HBCUs), small private colleges and large universities. In all ofthese cases, the initial two-hour training was provided, but instructors were given more latitudeas to how they implemented the LabWrite materials. This was a more realistic scenario as to howLabWrite is likely to be implemented on a larger scale. Periodic site visits were made to theseinstitutions to observe labs, interview lab instructors and students, and collect lab report samples.Arising out of both the initial study—and the later, larger-scale
improve student learning.a See http://www.stack.nl/~dimitri/doxygen/projects.html.b JavaDoc is included in Oracle’s Java implementation and used to document its API, resulting in wide adoption inthe Java community. See, for example, https://docs.oracle.com/javase/8/docs/api/overview-summary.html.Much of the instruction in the microprocessors course requires students to integrate material frommultiple sources. For example, the function shown in Figure 1(a) also depends on understandingof a timer provided in the textbook used in the course, and specific reference to the definition ofbits in timer 2’s control register which is provided in the microcontroller’s datasheet. Cognativeload theory predicts that when these elements are spatially or
engaged in any scholarly activities that allow him orher to peer review technical papers or publications of other students in the Ph.D. program. Thisissue deserves attention. One of the primary goals of a Ph.D. program is to prepare a graduatestudent to conduct an independent research study and more importantly, to conduct researchwork on his her own upon graduation and publish research papers in technical journals orconference proceedings. Publications in technical journals require that the work be peeredreviewed. So, why does a student have to complete his or her dissertation before he or she learnshow to write a successful technical journal?Fourth, as noted before the format for the traditional Ph.D. dissertations does not require thestudent’s
provide ample opportunities for faculty and studentsalike to undertake service learning domestically and internationally. One well-established organizationwhich provides opportunities for engineering faculty to volunteer their timeor make monetary contributions is Engineers Without Borders (EWB).EWB “supports community-driven development programs worldwide bycollaborating with local partners to design and implement sustainableengineering projects, while creating transformative experiences andresponsible leaders” [12]. EWB-USA members participate in professionalor student chapters on a wide variety of projects in locations around theworld. Members have the opportunity to travel but need not do so in orderto make valuable contributions to their
Energy Efficiency, and assesses operations focusing on environmental and P2 performance to provide recommendations for improvements and related cost savings. He has also been Co-PI of a Source Reduction Grant from EPA and PI for six projects funded by the Bureau of Reclamation (BOR). He has trained many undergrad and graduate students on energy and environmental assessments.Dr. Patricia A. Sullivan, New Mexico State University Patricia A. Sullivan serves as Associate Dean for Outreach and Recruitment in the College of Engineering at New Mexico State University. Throughout her career in higher education, Dr. Sullivan has successfully expanded access to NMSU-based services for communities and businesses across New
participants, is presented to UN experts at focused on this need via sustainable waterthe end of the Lab and published as a book. The distribution and sanitation infrastructurework of Lab participants is collaborative and development in rural Honduras. Its missionutilizes a specially designed wiki that encourages is to create sustainable, community-orientedcollaboration, transparency, and synergy. The solutions to meet the needs of the communitiesprocess is experiential, intense, and fast paced— and, secondarily, to train students to be globallythe program is usually seven to nine days in and environmentally-aware professionals.length and eight to twelve hours per day. The
foundation for high-level problem-solving and success inSTEM, which have often been overlooked in K-12 education. It also indicated that spatial skillsas cognitive skills can be improved if appropriate constructive exercises are offered to facilitatethe learning process.In this NSF-funded project, we aim to enhance Student’s Spatial Skills Through AugmentedReality (SSTAR). This interactive, color-coded tool provides a step-by-step 3D learningexperience, providing scaffolding and engagement while learning spatial skills. Students canscan images with smart devices to trigger 3D models with manipulable components forconstructing the correct 3D models. They can also visualize different surfaces projected on thesides of a glass box offering 2D
Paper ID #42561Board 59: Work in Progress: Streamer and Viewer Interactions in Softwareand Game-Development Live StreamsElla Kokinda, Clemson University Ella Kokinda is a PhD student at Clemson University’s Zucker Family Graduate Center in Charleston, South Carolina. Her research surrounds live streaming, software and game development, and developer communities.Dr. D. Matthew Boyer, Clemson University Dr. Boyer is a Research Associate Professor in the Department of Engineering & Science Education in the College of Engineering, Computing, and Applied Sciences at Clemson University. His work focuses on how technology
) an understanding of professional and ethical responsibility, (g) an ability to communicate effectively, (h) the broad education necessary to understand the impact of engineering solutions in a global, economic, environmental, and societal context, (i) a recognition of the need for, and an ability to engage in life-long learning, (j) a knowledge of contemporary issues, and (k) an ability to use the techniques, skills, and modern engineering tools necessary for engineering practice.2.4. CURRICULUM The program structure integrates foundational concepts from
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. American c Society for Engineering Education, 2021 Engineering Identity, Slackers and Goal Orientation in Team Engineering ProjectsAbstract -- This research paper will describe the results from a qualitative investigation oflong-running, team-based engineering projects at a small liberal arts college. Long-running,team-based engineering projects are projects in which groups of students perform an engineeringtask over three or more weeks
eachsemester by the course instructors and each project team in the course addresses this common designchallenge. In Engineering Design II, the course coordinator solicits a set of design challenges eachsemester from a broad cross-section of projects clients consisting of approximately 52% industry-sponsored projects, 23% service-learning projects, 11% student design club projects and 14%projects supporting faculty research and nearly every team addresses a unique design challenge.Traditionally, at our institution students’ individual preferences for project topics have beenconsidered during project team formation on the premise that matching students with project topicsof personal interest increases student engagement and we seek to maintain this
language [6]. Theseinstances are but several applications of the many in the supervised learning domain, as DL hasalso found footholds in reinforcement learning with successes like Google’s AlphaStar capable ofplaying the complex game of Starcraft [7].Yet, for all of these applications, challenges still exist in the deep-learning educational pipeline.Focusing herein on the DL introduced in undergraduate artificial intelligence (AI) and machinelearning (ML) courses, students may be left with several blind spots: they rarely encounter the finerdetails of the data gathering/labeling process nor appreciate the massive amounts often required forcomplex tasks; they may find the typical performance metrics like classification accuracy, preci-sion, etc
-defined engineering technology problems appropriate to program educational objectives e. An ability to function effectively as a member or leader on a technical team f. An ability to identify, analyze, and solve broadly-defined engineering technology problems g. An ability to apply written, oral, and graphical communication in both technical and non- technical environments; and an ability to identify and use appropriate technical literature h. An understanding of the need for and an ability to engage in self-directed continuing professional development i. An understanding of and a commitment to address professional and ethical responsibilities including a respect for diversity j. A knowledge of the impact
‘conceptualizing, innovating and effectively managing’organizations.1-3 This has a tremendous impact on the human resource needs of manufacturingenterprises and certainly for the new engineers and managers who will become part of theworkforce.Since the 1980s we have seen several initiatives supported by the government, nationallaboratories, the private sector, and professional societies stimulating one or more of thefollowing:· integration of research and development in the undergraduate curriculum,· more hands-on strategies towards learning/teaching engineering and technology,· partnerships across disciplines to stimulate a more integrated educational process in science and engineering,· strategies to incorporate the K-12 community into the learning
, and all of them agreed on theimportance of an infrastructure project to the built environment and the communities. Thisdemonstrates that even when the students did not have much understanding of infrastructureconstruction at the beginning, after the PBL activity they recognized the necessity of integratingFront-End Planning practices for Sustainable Infrastructure projects into the CM curricula.Indeed, participation in the PBL activity positively impacted students in different aspects: (1) itincreased the student’s familiarity with project scope definition and the pre-project planningprocess; (2) it allowed students to learn about the importance of early meeting with all projectstakeholders; (3) it helped students to differentiate between
greening of the faculty resulting in more need for facultydevelopment funds for promotion and tenure support (primarily teaching focused school), theavailable funds being allocated based on previous usage of funds left each school short onfunds versus demand. Until additional fund raising can increase availability to overcomedramatic decreases in state funding due to changes in post-secondary education support at thestate level and limited endowment growth, if any, during the most recent recession, theallocation plan presented in the paragraph above was initiated.The use of this funding model as well as the emphasis of a 60-20-20 load model has haddramatic impact on research, scholarship, and student recruiting and retention. It could beassumed
level of the assignment, acknowledging thediverse needs of students. Late Assignment Policy • Quizzes—need to be done on time; no make-up; for absences due to academic activities, let the instructor know before the quiz. • Applications and other assignments—1 to 2 days late, email the instructor; more than 2 days, email the instructor and tell them when you expect to get it done. • End Assessments—you must email the instructor and clear it with them first; make and communicate a plan of when it will be finished.Quizzes have the least impact on the grade and, thus, the least room for variation. Theyare also formative for the instructor to ensure students understand material
community colleges, industry representatives,and displaced workers; and 3) K-12 teachers and high school students.” There are severalcourses in robotics automation for two- and four-year degree institutions, as well as industryrepresentatives that have already been developed via this partnership. These courses are: Real-Time Robotics Systems, Handling Tool Operation and Programming, and Robot Operations.Authors have already reported on these developments [51-55] and therefore the detaileddescription of these courses is omitted here.Task 2: Curriculum for Students from any Institution, Industry, and Displaced WorkersWhile robots play a role in all STEM fields, robots are key components of most manufacturingindustries – from health to automotive
) Page 12.1598.4 • Ability to function effectively on teams and within a diverse environment.(3,4)(e,j) Proceedings of the 2007 American Society for Engineering Education Annual Conference & Exposition Copyright © 2007, American Society for Engineering Education • Ability to communicate effectively in oral, written, visual and graphic modes.(3),(g) • Recognition of the need for self-improvement through continuing education and the ability to engage in lifelong learning. (4)(h,k) • Understanding of professionalism and ethics and associated responsibilities. (4)(i,k) • Knowledge of contemporary issues and understanding of the impact of engineering/technical
design to freshmen. From its start in 2008 through 2014, she was also co-PI and project manager of Penn State’s $2.5M, NSF-sponsored, Toys’n MORE project.Dr. Kathleen Fadigan, Pennsylvania State University - Abington Kathy Fadigan received her BS in Biology and her Ed.D. in Curriculum, Instruction, and Technology in Education from Temple University. She is currently the Program Chair for Education at Penn State Abington. She teaches courses in sustainability, early childhood and STEM education for pre-service elementary teachers. Her research investigates the long-term effects of out-of-school STEM programs on students’ educational and career trajectories. c American Society for Engineering
Thermodynamics,and Structure of Materials. We also flipped the courses, requiring students to self-study topicsoutside the class. In the class, the instructors focused on demonstrating real-world materialsproblems and guiding the students to solve the problems using different computational modelingtechniques. Learning the computational modeling concepts within a short period of time waschallenging to the students. Another challenge was that the students had various STEMbackgrounds, such as MSE, mechanical engineering, and physics. In order to foster studentlearning, engage student interest and seamlessly couple computational modeling modules withthe courses, real-world problems, examples and homework were all developed based on studentbackground and
, majority never return toworkforce [3].Additionally, the COVID-19 pandemic has affected nearly all the aspects of society since it's onset in early2020 and its attack on the labor market has impacted millions of women who has either lost jobs or leftworkforce voluntarily due to many unprecedented circumstances [4]. As the COVID-19 pandemiccontinues to spread its impact in the workforce, women all over the world are disadvantaged to asignificantly greater extent [9]. Women who are now making their comeback to the workforce are alsostruggling to find appropriate jobs that suit the demand and need of their life. However, returning women,very rarely choose to pursue computing education or cannot get into the computing profession due tovarious reasons
traditional college degrees.This self-depreciating view suggests that the content of traditional engineering technologyprograms is intrinsically of less value, a view not supported by research.The value and need of applications-based education should be compared to the impacts ofengineering departments removing the application technology from the programs. It has beensuggested this loss of practical knowledge has had a negative impact not only on the ability ofthe engineering graduate to perform successfully in an industrial environment, but also onengineering graduate education in that students are not well prepared to participate in successfulor useful research endeavors.Another academic consideration is the necessity for and the responsibility to