increasing first year students’ understandingof diversity, equity and inclusion (DEI) issues without impacting the overall learning outcomesof the course. These changes included: ● Creation of a pre-class/-lab assignment ● In-class/-lab discussions ● Collaborative creation of team and Class/Lab RulesAt the core of these course additions were case studies related to diversity and inclusion issuespresented at the STEM diversity forum. Students were tasked to read the case studies, reflect onquestion prompts and submit their ideas towards the creation of team or class rules that could beput in place to prevent the situation or what action they would take if they witness similarsituations on their own team or another team. This approach of
specified results of professional development component of NCETE include: 1)technology education teachers will be successfully prepared to deliver engineering designcontent, 2) technology education students will engage in and reflect on open-endedengineering design challenges, 3) develop effective communication with Centerparticipants. These results guide the professional development experiences as well asassist with refocusing the pre-service technology education programs. During the fivesyears of the project teacher professional development workshops are being conducted inschool districts across the country, providing over 120 hours of professional developmenteducation to more than 150 teachers. Among the information collected in the
findings against a previously reported research initiative from 20027.On the whole, the data suggested the: Program of the study received an increasingly positive assessment over time, Program enhanced the students’ portfolio of skills, i.e., to assess, assimilate and apply learned content Program and students benefited from the continuous quality improvement process, Directed project was perceived as being an important part of the program and also important to the students, Program provided a positive impact on student career, opportunities, job responsibilities and salary, and, Employers of the students were largely supportive with both time release and educational assistance and many
apost module assessment was administered to gauge student learning. The pre and post moduleassessments were analyzed to develop the learning objectives based on the questionnaire results.The paper concludes with an assessment of the effectiveness and student engagement. Thisinnovative design thinking will create a new mentality in FYE engineering students.IntroductionWith the prerogative that the world is becoming unsustainable because of the technology in use.Engineering education in sustainable development is a topic being into context for the last fewdecades. Because of this interest, now, the most representative engineering associations in theworld [1], [2], [3].[4], concur to the suggestion that engineering education for
on the fellow to “teach” the teams individually. It is obviouslyharder and more time consuming for the fellow to scale-up his efforts in this fashion, howeverthe impact to the student is more profound.It is important to note that the GK-12 fellow did not begin work with MHS until six weeks intothe school year. In coming years, the difficulty integrating GK-12 and POE can be minimized bybetter communication and preparation before classes begin. As an inaugural year of the GK-12program in the area, future high school/RPI pairings will only gain in effectiveness as both sidesin the collaboration learn from the experience.Participant Biographies:George ReluzcoGeorge Reluzco teaches pre-engineering classes at Mohonasen High School in Rotterdam
on the fellow to “teach” the teams individually. It is obviouslyharder and more time consuming for the fellow to scale-up his efforts in this fashion, howeverthe impact to the student is more profound.It is important to note that the GK-12 fellow did not begin work with MHS until six weeks intothe school year. In coming years, the difficulty integrating GK-12 and POE can be minimized bybetter communication and preparation before classes begin. As an inaugural year of the GK-12program in the area, future high school/RPI pairings will only gain in effectiveness as both sidesin the collaboration learn from the experience.Participant Biographies:George ReluzcoGeorge Reluzco teaches pre-engineering classes at Mohonasen High School in Rotterdam
differences between the groups. In other words, it does not appear that the web-tutorials and weekly tutoring with a mentor of similar ethnicity had a measurable impact over thecourse of the study. To gain further insight, students in the test cohort also generated "userprofiles" of a high-school students, listing their needs if they were to go to college along withtheir concerns. The resulting profiles, focusing on a range of social factors related to learningmotivation, underscore the need for outreach activities to incorporate a systems approach,simultaneously leveraging the multitude of factors that contribute to academic resilience. In thispaper, we present the failed 1-dimensional approach, the data from the "user profiles", and aguidelines for
industry and faculty colleagues.This course was not intended to duplicate the traditional computer science method of presentingprogramming. Our goal was to educate students to model problems relevant to our disciplines,solve these problems using modeling tools, and then analyze these solutions through decisionsupport (i.e., become “power users” and not programmers). This paper will address the criticaldevelopment of a series of “InClassLabs” and their impact on student learning and our twocurricula. Many of our homework and cases studies come from industrial sponsor data andrepresent real cases. The paper will discuss the fundamental issues that lead the two authors todevelop this computer-intensive course. Of special interest is the classroom
develop and study the impact of using MARVLS in the physics classroom. She started a small business called MARVLS, LLC.Dr. Jason Morphew, Purdue University, West Lafayette Jason W. Morphew is an Assistant Professor in the School of Engineering Education at Purdue University. He earned a B.S. in Science Education from the University of Nebraska and spent 11 years teaching math and science at the middle school, high school, and community college level. He earned a M.A. in Educational Psychology from Wichita State and a Ph.D. from the University of Illinois Urbana-Champaign.Dr. George E Hassel, Siena College George Hassel is a Teaching Assistant Professor of Physics and Astronomy at Siena College. He earned a PhD in
more of our graduate programs inthe college. Most recently, we were asked to create a plan for the university. As changescontinue, we will evaluate outcomes and impact within the college and across the university overtime, which we hope will inform best practices for improving completion of graduate degreesand diversity of graduate programs.IntroductionFor decades, graduate programs have evaluated students for admission based in considerable parton the standardized graduate record examination (GRE) and grade point average (GPA). Thesemetrics, however, have limited correlation to success in graduate school. Moreover, based on a2008 Council of Graduate Schools study, only about 50% of PhD students in science completetheir degree in seven years
, political, ethical, health and safety, manufacturability, and sustainability (d) an ability to function on multidisciplinary teams (e) an ability to identify, formulate, and solve engineering problems (f) 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 (k) an ability to use the techniques, skills, and modern engineering tools necessary for engineering practice” The plan was
projectdocumentation and regular communication with the client. The system engineer’s grade isweighted towards system integration and functional decomposition milestone. The designengineers have the heaviest point weighting on developing individual subsystems for integrationinto the overall project. Points were, however, shared between all three roles in every milestoneso that inter-dependence among team members is maintained.There were several rationales to increase the team size. In the past when smaller teams were thenorm students who were not sufficiently prepared or who chose not to engage with the designcourse had a strong impact on the course outcomes since one students reduces effective team sizeby a third or a quarter. In addition teams without
) curriculum development.Community Engagement.Work related to community engagement was previously reported [3, 5]. Through such work, wewere able to characterize and describe the collaborations. From a pragmatic perspective, it isnoteworthy that our three industry partners remained with the program all three years. Each yearthe size of our program increased in terms of teachers and students involved, as shown in Table1. Though we scaffolded our involvement with the activities (as discussed below), our partnerssupported the project with an increasing number of employees who had helped. Our communitypartners each had core participants, whom the students began to know. In at least one case, asnoted by the research observer, 7th grade students in year two
. Research on gender in engineering has typically framed gender within a rigid,essentialized cisgender binary. Current literature is lacking detail on the processes used bygender diverse students in the transgender and gender nonconforming (TGNC) community asthey navigate the gendered engineering field. We wish to highlight the experiences thatundergraduate engineering students have had in relation to their social support and perceptions ofgender as it relates to engineering culture within their undergraduate programs. Two studentsparticipated in autoethnography as a method of data collection to meet this objective.Collaborative autoethnographic methods position the students as coauthors and coresearchers toensure the validity of analysis alongside
.” “Six weeks of research and the possibility to get published.”Responses to the question “Do you think your RET experience will have an impact on studentachievement? Why or why not?” included: “Yes. They will gain skills and knowledge local employers are seeking.” “Yes, I think that my students will benefit from the lessons I developed. I think the time and commitment spent on creating a quality lesson will always increase student achievement.” “Yes I think the lesson and activity that my partner and I developed will have a positive impact on our students’ achievement, it is a well thought out, exciting and innovative. Also being able to share about our experience without students will have a positive
guide, and five age-appropriate newsletters have been developed by experts for 5 educational levels including: middle elementary, upper elementary, middle school, early high school and late high school. The curriculum is designed to highlight the contributions engineers make to improve the quality of our lives; dispel stereotypes of engineering as a field for "white males"; make the connection between students' math and science courses and engineering; and explore the skills and interests needed to become an engineer. The activities focus on three topic areas which are of particular interest to girls: environment, sports, and communication• What Do Engineers Do? A book of demonstrations, laboratories and research projects
. Therefore, focusing ongraduate students' experiences of professional identities could have a significant impact onengineering education [11], [12].This research explores the professional academic identities of "teacher" and "researcher" asexperienced by an engineering educator filling dual roles as a graduate student and full-timeacademic faculty. Specifically, this study aims to investigate both facets of professional identityin tandem, unlike many studies of graduate students that look at one or the other in isolation [13],[14]. Also, many studies of professional identity in graduate students take an etic viewpoint of anoutsider to the phenomenon [15]. Using an autoethnographic approach supports an emic, orinsider, perspective of teacher identity
factorof successful robot applications. In order to teach manufacturing engineering technology (MET)students to program industrial robots, we propose an effective learning approach for industrialrobot programming in our curriculum. Research indicates that the use of off-line programming(OLP) method for learning industrial robot programming has a positive impact on reducing therobotics lab programming time (Ex. only two robots are available for 20 students), reducing thedowntime of equipment when programming new workpieces/variants, and acceleratingprogramming complex paths. This paper describes the development of off-line programmingmethod to help students learn industrial robot programming. The off-line programming methodis based on examples from
the researchers I amworking with seem to be changing as well. In the beginning they were participating out ofpoliteness, and answering my questions guardedly. Now, most are coming across aspersonally engaged and interested in these discussions. Perhaps in the end, personalgrowth for all of us will be an unanticipated consequence of this basic research project.As an example of what kinds of ideas emerge, here is an excerpt from one conversation:RussellROSALYN: Alright, assuming a divine order or intelligence in the universe, is there aconnection between that intelligence, and our increasing capacity to manipulate and control thematerial world, and where we seem to be going with it? If there is one, that’s what I want to talkabout
to new technologies through network simulation.1 – IntroductionIn the design of new systems, modeling and simulation allow us to verify new architecturesbefore their actual implementation. In the analysis of existing networks, modeling and simulationallow us to identify bottlenecks and evaluate the impact of new users, applications or changes tothe network infrastructure. Using OpnetTM as a software tool to simulate and model computernetworks, our course on Communication Networks Modeling, Simulation and Testing, in theTelecommunications Engineering Technology program at Texas A&M, teaches our students toevaluate and identify limitations in network architectures and protocols.Moreover, one of our goals is to teach them to integrate new
response to the problems of thebuilt environment. As Patricia Galloway notes in her book The 21st-Century Engineer, “Theneeds [of developed, developing, and underdeveloped nations] are quite different, and theengineer must understand those differences and how best to address them when planninginfrastructure projects that adhere to the principles of sustainable design.”6 If engineeringlibraries can encourage and motivate students to engage in extracurricular reading for enjoyment,could this RA activity not have a similar desirable educational impact in the lives of futureengineering professionals to what Moyer found for adult leisure readers? Today, as graduates of our institutions enter their fields, they are encountering one of themost
allows the remote camera tofocus in on them directly should they wish to ask questions or make a comment during the class.This ability to achieve two-way communication greatly enhances the general quality of theclassroom experience for both the students and the instructor. Each of the eleven remote sites hassimilarly equipped classrooms that are accessible from the FAMU campus. Investment in distance-learning capabilities has been a priority for most of the two-year community/junior colleges in thestate of Florida. In some instances the facilities available are far superior to those available on theFAMU campus.IV. Issues and Challenges Encountered in Delivering Course Several issues and challenges, both technical and non-technical
responsibility, an ability to communicate effectively, the broad education necessary to understand the impact of engineering solutions in a global, economic, environmental, and societal context, a recognition of the need for, and an ability to engage in life-long learning, a knowledge of contemporary issues, and an ability to use the techniques, skills, and modern engineering tools necessary for engineering practice.In addition to the educational outcomes specific to the RBE program, in 2009, WPI facultyapproved a set of outcomes for the capstone design (Table 1). Table 1: Capstone Learning Outcomes Students who complete a Major Qualifying Project will: (a
skills acquired in the circuit analysiscourse and a digital electronics course. The project also aligns perfectly with the schedules of thesetwo sophomore courses which are taken by the same group of students in the same quarter. Theobjectives of the course project are twofold: First, to demonstrate how analog and digital designmethodologies combine in the creation of mixed-signal designs. Secondly, to provide studentshands-on opportunities to practice important design skills. The collaborative nature of this courseproject offers multiple benefits such as enabling students to apply knowledge and skills acquiredfrom two different courses in the same quarter to design real-life circuits; bridging two differentEE subjects together through engaging
, by states. Washington D.C.: National Academies Press. 2. National Research Council. (2012). A framework for K-12 science education: Practices, crosscutting concepts, and core ideas. Washington, DC.: The National Academy Press. 3. National Research Council. (2004). Engaging schools: Fostering high school students' motivation to learn. Washington, DC: National Academies Press. 4. Roehrig, G. H., Moore, T. J., Wang, H. H., & Park, M. S. (2012). Is Adding the E Enough? Investigating the Impact of K‐12 Engineering Standards on the Implementation of STEM Integration. School Science and Mathematics, 112(1), 31-44. 5. http://www.eie.org/eie-curriculum/curriculum-units/water-water-everywhere-designing-water
be implemented again after 5 years as a measure of change that might actually have occurredwithin the department. To support department changes, ADVANCE has provided regularcommunication to college Deans on the process and status of the program.Through this department transformation process, engineering tenure-track faculty expressed theneed to: ‚ reduce isolation, ‚ increase communication, ‚ increase connectivity and collaborations (especially as subfields shift and funding for research shifts, ensuring that all faculty continue to feel engaged in the department and with each other), ‚ have strong mentoring and leadership that promotes mentoring at the university and department level
the support of aregional electric cooperative and equipment supplier to take a medium sized row crop dieseltractor and convert it to a dual fuel vehicle with minimal modifications. Performance resultsfrom the proof of concept phase will be reported.Besides presenting experimental results, insights and experiences gained in the process ofestablishing a multidisciplinary student team will be described. The significant communicationrole played by web-based organizational tools and the impact of student skills on teameffectiveness will be discussed. Future efforts will be described.OverviewThe purpose of this paper is to serve as an illustrative example of how a senior level capstonedesign experience can be utilized to conduct funded research in
pertain to course design and execution at a distance.First about the university. Located along the Charles River in the heart of Boston, Boston University (BU)is the fourth largest private university in the USA. The institution offers more than ten fully online degreeprograms and ten online graduate certificates in a variety of disciplines. The MS in Computer InformationSystems is one of the largest online programs in the country. The program has concentrations inInformation Security, IT Project Management and Database Systems. Its success, to a great degree, reliesupon competent core faculty, highly qualified students, enthusiastic and dedicated support staff, user-friendly learning management systems, and relevant communication and
as a shockthat current education practices often diminish engineering undergraduates’ sentiments towardsserving humanity. Erin Cech’s seminal work highlights the ‘culture of disengagement’ acrossdiverse undergraduate engineering programs, with students deriving less value and identitytowards serving the public welfare compared to before entering college. This indicates a pressingneed to reform pedagogy to develop more socially aware engineers. Subsequent work continuesto stress the deficiency of ethical and social dimensions in engineering graduates.How we teach ethics to engineers remains a contested question for our community. While thisauthor embraces an embedded ethics model, many universities still rely on a capstone-focused ora stand
. Page 15.661.4Organizations such as AIChE,26 the World Congress of Chemical Engineering,27 andNASA28 sponsor annual design competitions. Kundu and Fowler29 discuss the use ofengineering design competitions to engage students. Often these involve the use ofmultidisciplinary teams, which is discussed by Redekopp.30Web Resources that Help Teach Auxiliary Skills: ≠ Cadwell et al. 31 feature a series of short on-line videos on “Topics in Engineering Design” which include communication in design, design considerations, the design process, and patents and literature. ≠ The On-Line Ethics Center at the National Academy of Engineering,32 the Markkula Center for Applied Ethics,33 and the Center for the Study of Ethics in