restoration design will be implemented along Lost Creek, andwe will continue to monitor stream stability. Student evaluation comments will continue to beexamined to determine the impact experiential learning activities have on the student learning.This has been and will continue to be a unique opportunity for students to be involved in a pre-and post-restoration monitoring program of a real world project.Bibliography 1. Association for Experiential Education (AEE). 2013. http://www.aee.org/ (accessed December 2013). 2. Kolb, D.A., R.E. Boyatzis, C. Mainemelis. 2000. Experiential Learning Theory: Previous Research and New Directions. In R.J. Sternberg and L.F. Zhang (Eds.), Perspectives on cognitive, learning, and thinking
withstudents. They utilized online communication tools such as Zoom and Microsoft (MS) Teams tohost their office hours, advise and mentor students, or have one-on-one conversations withstudents in need. Many students felt comfortable sending direct messages to a faculty membervia MS Teams and most faculty responded to those messages in a timely matter – somethingstudents deeply appreciated. Showing care for students is especially important during pandemicwhen not only students’ learning is impacted but also their mental and physical health. A cultureof care contributes to a culture of belonging.g. Collaborative spirit. Collaboration among faculty and staff highlights the inclusive culture inthe department. Throughout the new curriculum described in
theanalysis of interview data, the depth of student responses revealed aspects of themicroelectronics activities and course structure that seemed to impact how students engaged withthe activities and the learning outcomes they experienced. During our deductive coding, themesemerged that extended beyond the scope of the original SCCT framework. These additionalthemes prompted a shift toward phenomenography to better capture the diverse experiences andperceptions of the participants. Phenomenography, which focuses on understanding variations inhow individuals experience and interpret phenomena, provided a more flexible lens for exploringthe rich and nuanced data from the interviews.The inductive pattern coding stage was largely guided by Miles and
. Percentage of graduates engaging in undergraduate research at the respondentinstitutionThe curriculum is another tool available for a department to impact the relationshipbetween a faculty and its students. Over 80% of respondents indicate that a course existswhich is designed to impact culture (6 or 9.8%), does affect the culture (19 or 31.2%), orhas potential to do so by virtue of the content of the course such as a professionaldevelopment course (24 or 39.3%). Page 15.1096.13Discussion and ConclusionsIn this work we have reviewed the literature on creating a culture within an academicprogram. No work was found that directly discussed this issue in
technical interviews. If you put all those into one class, I think that could be super [inaudible 00:21:06] and students are required to take it. Because if you have these meetings and people don’t have time or people have jobs, it’s hard to do on top of classes, so if you had your own three, four credit class, that would be super beneficial definitely.Other students mentioned how they felt uncomfortable speaking, or how they noticed others in thedepartment struggled with communication. As such, they felt gaining practice could help to betterprepare, as emphasized by Michael (an Asian, Black, and Hispanic male): I think providing students with some sort of soft skills interviewing course or something
are gaining a significant amount of knowledge about engineering, research, and bestpractices in teaching that will allow them to create more impactful and transformative learningexperiences for their students. Two of the most significant pieces of data that demonstrate theeffectiveness of the program are the following teacher comments:“ I realized the importance of sustaining an ongoing commitment to incorporating theseapproaches in my classes by remaining engaged in a network of supportive colleagues,resources, and technologies that this project had enabled me to develop through NDSU, the RETprogram faculty, and my fellow program participants”“I am already working with colleagues in my school district on expanding the use of theseapproaches
the emphasis from lower cognitive levels oflearning on to the upper levels.In the workshop, we discussed how the approach can be used to create learning communities,embedding flexibility in courses, leveraging diversity, making students aware of the learningprocess, and enabling students to make decisions where all information may not be available.2.2 Questions for the WorkshopThe workshop was structured around the following six questions for the workshop (QW1-QW6).QW1: What are the key foundational white space competencies that “tool maker” engineers must have to be able to create value in a wired and interconnected, democratized and diverse world?QW2: What are the key foundational technical competencies that “tool user” engineers must
data on student progress and errors. This data may offer additionalinsights into the process students use when drawing FBDs and highlight commonly madeerrors, allowing for tailored instruction or new approaches to teaching. In this paper, we detailour process for designing and implementing the app and provide initial data regarding studentimpressions and use.Why an FBD App?The proliferation of smartphones has transformed how people communicate and carry out tasks.Because smartphones are computationally powerful and constantly connected to the internet,mobile apps allow people to work and play in new ways. Some tasks that once required physicalproximity, such as cashing a check, can now be performed quickly and easily anywhere andanytime. Other
flow, b) data structures like dictionaries, lists, tuples, and classes c)structured and object oriented programming methods, d) interactive graphic programmingand e) the html, xml and http processing.The paper elaborates the pedagogy of classroom delivery and impact on student comprehen-sion, conceptual understanding, learning and mastering of Python philosophy. Both methodsof vertical and horizontal learning methods are used in this class. All programs that studentswrite are added to a class repertoire which the current and future students will have access tofor enhanced horizontal learning. Students are required to a design a project at the end of theclass in which student teams of twos work on a project using python and share with the
Page 23.928.1 c American Society for Engineering Education, 2013 New project-based instructional modules improve climate literacy (research to practice) Susan E. Powers, PhD, PE, Suresh Dhaniyala, PhD, Jan DeWaters, PhD, PE, and Mary Margaret Small, Ed.D. Clarkson University, Potsdam NYIntroductionThe scientific community now recognizes with a very high degree of confidence that industrialand agricultural activities have had and continue to have a profound impact on Earth’s climate. 1The anthropogenic release of greenhouse gases into the atmosphere from these activities iscausing a discernible warming and general
a structure for organizing the material,example approaches that illustrate possible design choices, and recommendations on educationalimplementation.Introduction Antenna theory is a core subject within electrical-engineering education. However, theabstract concepts may be difficult for students to comprehend. Specific application examplesand hands-on experimentation can aid student understanding. Antenna projects that are includedin electromagnetics courses can reinforce principles in design and measurement. These activitiesmay even incorporate competition, along with an element of fun, as in the case of a long-runningexercise used by the United States Air Force Academy. In their antenna theory course,engineering students design
World Commission on Environment and Development, also known asthe Brundtland Report [3. Most recently, “The 2030 Agenda for Sustainable Development”developed at the UN and accepted in 2015 by the member states [4] developed the idea ofsustainability further. In January of 2019, the UN reported that climate change is beingrecognized as a “threat multiplier” and has a significant impact on Peace [5]. Engineeringeducation has incorporated sustainability in general by increasing environmental engineeringprograms and courses, and teaching life cycle analysis and green design as part of designcourses.Beginnings of Peace Engineering EducationStudent engagement in communities to help solve local problems with their expertise has beenmaking its way
Aware of the impact of engineering solutions in a global, environmental, and societal context Maintain positive health (physical, mental and social)Streams of courses were identified for each of the roles which can be offered as core andelectives. Students are expected to work in teams during this phase. The teams work on thesame product with three sub-teams of product engineering, manufacturing systemsengineering and quality systems engineering. While the product is created by the team, themanufacturing and quality systems teams develop the concepts virtually and validate withsubject matter experts. Fig. 5 shows the courses (core and elective) for the role of productengineering. Similarly, there are
at the 2013 ASEE Annual Conference & Exposition, Atlanta, GA, USA, Jun. 23-26, 2013, doi: 10.18260/1-2--19717.[3] A. Karabulut-Ilgu, S. Yao, P. T. Savolainen, and C. T. Jahren, "A Flipped Classroom Approach to Teaching Transportation Engineering," presented at the 2016 ASEE Annual Conference & Exposition, New Orleans, LA, USA, Jun. 26-29, 2016, doi: 10.18260/p.26317.[4] S. Findlay-Thompson and P. Mombourquette, "Evaluation of a Flipped Classroom in an Undergraduate Business Course," Business Education & Accreditation, vol. 6, no. 1, pp. 63-71, 2014.[5] I. T. Awidi and M. Paynter, "The Impact of a Flipped Classroom Approach on Student Learning Experience," Computers &
B.S. in Mechanical Engineering and Secondary Mathematics Education at the University of Nevada, Reno (’17). Atop their education, Justin is a previous NSF Graduate Research Fellow and has won over a dozen awards for research, service, and activism related to marginalized communities, including the 2020 ASEE ERM Division Best Diversity Paper for their work on test anxiety. As a previous homeless and food-insecure student, Justin is eager to challenge and change engineering engineering education to be a pathway for socioeconomic mobility and broader systemic improvement rather than an additional barrier.Dr. Rachel Burch, Rowan University Dr. Rachel Burch is an adjunct instructor at Rowan University in the Department
injury, as well as more common conditions such asarthritis, chronic pain and sports injuries. RIC also provides specialized services such asAssistive Technology, Prosthetics and Orthotics and Vocational Rehabilitation whichhelp individuals of all ages lead more independent and fulfilling lives.In 2002, RIC and Northwestern received funding from NIDRR to operate research andtraining projects under the Rehabilitation and Research Training Center (RRTC). Thecenter is focused on finding the technology-assisted solutions for stroke survivors toachieve independence in their home and community environments. Part of the mission ofthis center is to engage engineering students in the development of novel designs to assistin accomplishing common tasks that
sea level rises to its full potential impacts. The video was picked up by National Public Radio and other media outlets. In 2007 he helped visualize the research of FAU’s Ocean Engineering using animation for a competition for a State of Florida Center of Excellence. FAU won the completion and has since been named as a national research center, Southeast Regional Marine Renewable Energy Center. Since 2009 he has collaborated with colleagues in Computer Sciences and other colleges to form cross-disciplinary student teams that create software applications for Android mobile devices. McAfee compliments his professional activities with volunteer service for ACM SIGGRAPH. He served on their executive committee as
–status quo forces tend to dominate in workplaces.Those who A. have not personally experienced discrimination and B. are more likely to be inpositions of power, i.e. majority men, tend to be more satisfied with the status quo (e.g.,[32]). On the other hand, experienced discrimination seems to impact men’s views of equityclimate more than women’s. Although Bairoh and Putila [31] did not study EQC, theirfindings suggest that men who had experienced (gender-based) discrimination were ratherpessimistic about equity in their work communities. Analyzing such results further couldyield interesting insights on how to improve both gender and age equality inengineering/technology workplaces, both in Finland and elsewhere.Certain previous studies conducted
naturally promotescollaboration within as well as across disciplines. A community was formed in the mentor teamas the mentors learned to rely on the expertise of each other. Thus, it was not surprising to findthat mentors frequently refer to the unique opportunity of teamwork and collaboration experiencewith different disciplines.Teamwork and Collaboration – Theme 1: Impact of teamworkA second-year engineering mentor expressed his initial worries about the lack of pedagogicalknowledge or teaching skills, and then shared the benefit of collaboration with the teachercandidates. “As the engineer, you’re like, ‘oh yeah, we can do this topic’, but you are thinking at the level that you are learning [as a college student with the content
matrices. We then compare these clusters to an adapted version ofTerenzini and Reason’s college impacts framework of influences on student learning andpersistence to identify potential areas for growth in the EL literature. We also map the clustersover time to explore the evolution in the research focus of the field since 1996, noting key eventsthat may have contributed to shifts in focus. This systematic review of the EL literature isintended to advance knowledge of the field by categorizing prior work and detailing theevolution of research topics, methods, and populations. Thus, the results will expand future ELresearch by documenting the field's foundations, progression, and potential future.IntroductionAs the engineering community and society
health and wellness for Purdue IE Graduate Student Organization.Mr. Siqing Wei, Purdue University, West Lafayette Siqing Wei received B.S. and M.S. in Electrical Engineering and Ph.D. in the Engineering Education program at Purdue University. His research interests span on three major research topics, which are teamwork, cultural diversity, and international and Asian (American) student experiences. As a research assistant, he investigates how the cultural diversity of team members impacts team dynamics and outcomes, particularly for international and Asian students. He aims to help students improve intercultural competency and teamwork competency through interventions, counseling, pedagogy, and tool selection to
study. Note that Likert scale items allow for both agreement and disagreement.Table 3 below contains sample survey items for the three aspects under study. The “H6” itemrelates to student motivation (aspect 1), the “SE2” item relates to perceived software engineeringlearning (aspect 2) and the “G2” item relates to impact on major and career plans (aspect 3). Thesurvey items are worded so that the positive outcome, Ha, will be reflected by student agreement(“agree” or “strongly agree”) with each statement. ID Item H6 Working with an H-FOSS community to develop a project has increased my interest in computing. SE2 I am comfortable that I could participate in the planning and development of a real-world software project. G2
engineeringinto STEM” each chosen by 25% of the groups. When identifying strategies for engaging students,participants almost universally cited the need for relevant, hands on, integrative and problem basedinstruction. Several suggested using complex issues as a context for teaching all STEM subjects,seeing this as an opportunity for students to connect the theory based environment of the classroomto the world around them. All indicated a need to identify effective ways to engage more and morediverse students, and then to study these methods to determine long term impact on studentachievement and future education and career choices. Comments made by those groups who choseassessment or integration fell along the same lines of identifying and publicizing
, theimplementation of the course was enriched by sequencing instruction around a series ofchallenge-based learning experiences following a proven learning cycle. This paper providesresults from an initial study evaluating the prior implementation relative to the enhanced versionof the course. The primary focus is to determine the impact of using small challenge projects toincrease the effectiveness of learning and instruction with second year civil engineering students.BackgroundChallenge-based instruction engages learners in complex problem spaces that require thecoordination of multiple concepts to define an effective solution[1,2,4,5]. That is, a challengeillustrates the context and conditions when knowledge is used. The central learning theoryfocuses on
assessment, manufacturing process, P&ID and Visio diagram, environmental impact, and desirable product features. They also write a reaction paper about technology impact on social problem: "Do Biofuels Starve the Poor", "What Should the U.S. Government do to Respond to Climate Change?" (45) - The University of Colorado’s elective 1 credit course has tours of labs, faculty describing research, student panels, team work and group project, and field trips. Examples of specific projects include an imaginative “scavenger hunt” and an egg drop project. Teams (with upper class mentor) are assigned an American state and for that state students identify two companies and select a chemical product. For the
syllabus statement on diversity, equity, and inclusion that has been adopted in severaldepartments, and is currently being discussed for college-wide adoption as a required part of allcourse syllabi.Feedback regarding these initiatives has, to this point, been anecdotal, but positive. We describethe aspects that have been particularly noted by students, faculty, and staff to have been helpful.We conclude the paper with a reflection on how we can improve our community building eventsand the online community and describe our future support services for underrepresentedstudents.1. IntroductionSeattle University is a small, private, religiously-affiliated and mission-driven institution locatedin Seattle. Our urban campus is home to eight colleges and
professor gave these instructions: “You should be at least as formal as the client. If he has a coat and tie, you keep your coat on. If he is in a shirt and tie, you can take off your jacket.” This posed dilemmas for women that did not exist for men.” [60, p. 163-164] “On the surface, formal lines of communication, such as orientations, graduate advisors Engineering and handbooks purporting to facilitate women becoming graduate students are not Preparation always reliable. The alternative, which no one explicitly states, is to engage in the informal (gendered roles and track through establishing social networks and building social capital.” [61, p. 145] implicit/explicit
eachyear. The SUES students and faculty will support the team from LTU during the design andbuild phase, then they will host the team during the actual competition which will take place inChina. Practical experience at enterprises during undergraduate years leads to a high rate ofemployment for SUES graduates.Observations and Impact on U.S. Engineering Education and U.S. Economy The delegates of the Engineering Education Delegation conducted by the People toPeople Ambassadors organization who completed the trip described in this paper formulated the Page 22.581.12following observations from their professional visits. During the trip, four
,promoting a more informed approach to the design and operation of sustainable energy solutions.Keywords: Virtual Reality (VR), Green Manufacturing Education, Wind Turbine Efficiency,Sustainable Energy Systems, Unity 3D Platform, AutoCAD and Blender, Wind Speed Control,Maximum Power Point (MPP), Innovative Educational Tools1. IntroductionThis paper outlines a green STEM (science, technology, engineering, mathematics) initiativecentered around a renewable energy project where students are engaged in designing andconstructing a wind turbine within a virtual reality (VR) environment and using Simulatingsoftware. The noticeable shift in educational settings, particularly the impact on hands-on labexperiences, prompted the exploration of VR technology to
based on ABET’s General Criteria 31. We focused on the followingstudent outcomes:(a) an ability to apply knowledge of mathematics, science, and engineering(d) an ability to function on multidisciplinary teams(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 Page 23.636.2(i) a recognition of the need for, and an ability to engage in life-long learning(j) a knowledge of contemporary issues(k) an ability to use the techniques, skills, and modern engineering tools necessary forengineering practice.Course SyllabusThe