everything that the students need to participate in the class discussion. This handout explains the scenes, the objectives of the exercise, step-by-step what the student should do and a set of sample question for Scene 1. c. Discussion Questions: For each video, suggested discussion questions for each scene is available as a power point slides. Instructors are welcome to modify these questions or use their own questions. d. Assessment Instrument: The assessment instrument is a simple survey primarily for indirect assessment of student learning outcome, and also for student feedback. This is a survey that assesses students on communication and content knowledge. It is designed for generic use in every
participation in learning and teachingpartnerships between elementary classrooms facing high barriers to success and collegeclassrooms can: 1) influence the knowledge of, interest in, and aspirations toward post-secondaryeducation in populations less likely to explore college; 2) impact college students’ sense of civicknowledge, civic learning, civic reflection, and civic efficacy.Background and MotivationCollege Aspiration and Barriers to SuccessStudents whose parents did not attend college often have to overcome barriers in their pursuit ofhigher education that students whose parents have attained at least a bachelor’s degree do not. Asearly as the eighth grade, first generation students have low expectations about their ability toattend college [1
longer the people our educational system wasdesigned to teach” [1]. Prensky noted that contemporaneous students represented a singulargeneration that had grown up with digital technology, which had fundamentally changed howthis generation thought and processed information. The STEM education world took note of Prensky’s observations and began to discuss waysto meet the needs and thought processes of digital natives. In 2004, the National Academy ofEngineering (NAE) published a report entitled “The Engineer of 2020: Visions of Engineering inthe New Century”. In this report, NAE recognizes that we are progressing in age ofextraordinary technological growth and sets forward ideal attributes for the next generation ofengineers. The author
Engineering Department Fellowship Award in Spring 2010 from University of California, Santa Barbara, Radar Systems Spot Award Achievement Certificate in recognition of superior individual effort for developing signal processing algorithms, in February 2011 from Exelis (currently known as Harris Corp.), Inc. and 59th Annual National Engineers Outstanding En- gineering Achievement Merit Award in Universal City, California in February 2014. He has collaborated actively with researchers in several other disciplines of, particularly computer architecture, reconfigurable hardware, and signal and image processing. He has been a member of Technical Program Committee for International Conference on ReConFigurable Computing and
members are tenure-track professors at prestigious universitiesacross the nation and 1 member is currently a PhD candidate and will be graduating soon. While the coregroup still remains intact, the term “ChocDocs” was adapted to include the broader network of AfricanAmerican female engineering faculty during the proposal development phase of the project detailed inthis paper. The primary focus of the project was to host a workshop designed to foster mentoring acrossmultiple generations of African American female engineering faculty.The Intergenerational Mentoring WorkshopDuring the summer of 2019, the Intergenerational Mentoring Among African American Women in theEngineering Academy workshop was conducted. The workshop was scheduled contiguously
graduation rate, which is low at 35% (nationally standardized IPEDS rate for completionsin 150% time) and the overall 1-year retention rate of 68% for baccalaureate-degree seekingstudents. Institutionally, UVU receives by far the greatest amount of Pell grants awarded tostudents at any public institution of higher education in its state (NCES 2020/21).Demographics for the ME/CIVE degree programs are like those of the institution with onenoticeable difference – only 11% of students in these programs are women, compared to 49% ofstudents at the University. Minority student and first-generation student participation are 2–3%lower. Table 1 shows the Fall 2022 enrollment and demographics of students and the 2021/22graduation in the target
with Michigan Engineering’s strengths and needs:positive emotions and purpose-finding; generalized reciprocity; positive energizers andhigh-quality connections; the fundamental state of leadership; and abundance gaps. (SeeAppendix A for a glossary of these concepts.) Key metrics of success were participants’frequency of experiments with positive leadership concepts; frequency and depth of reflectionand intentionality in leadership; attention to positive developments in the College; and perceivedlevel of social connection with colleagues.Fundamental to the design of the leadership program was a professional development frameworkof “learn-experiment-reflect.” (See Figure 1.) Namely, after learning a positive leadershipconcept, participants would
is in the moderate agreement range. Anydisagreements in coding were resolved through consensus coding sessions, which involved allanalysts watching the relevant video segment together, debating the disagreement, and coming toconsensus about the assignment of IDN symbols.In general, once IDN coding is complete, many possible analyses can be carried out using the richdataset we collect from each workshop, including some or all of the following:1. Interaction segment analysis: An interaction segment consists of a chain of IDN responses, each dependent on the preceding responses in the sequence and organized around a continuous coherent topic. Once IDN representations are broken down into interaction segments, the total number of segments
understood. Chiefamong these technological hurdles is the use of continuous processing of spent fuel to removefission products while the reactor is online [1]. The voluminous literature on molten salt reactors mostly dates to the 1960s era. Notably,in the U.S. the Molten Salt Reactor Experiment at Oak Ridge National Laboratory was an 8MW(th) reactor that was designed primarily to study the technical feasibility and safety of usinga molten salt based fuel and coolant. In addition to demonstrating the practicality of a moltensalt reactor, the Molten Salt Reactor Experiment also addressed issues of on-line refueling, fuelmakeup, and salt chemistry. Towards the end of the Molten Salt Reactor Experiment, andcontinuing after its shutdown, research
]. Figure 2: Concept Map [26]Causal Loop Diagram. Causal loop diagrams “describe basic causal mechanisms hypothesizedto generate the reference mode of behavior of the system over time” [33, p. 37]. Causal loopdiagrams are similar to concept maps in that both show how one concept is connected to another,but they are different in that causal loop diagrams “depict how changes in one concept are linkedto changes in another,” [28, p. 1]. In their study, Rehmann et al. [27] examined causal loopdiagrams that built upon the rich pictures created by student teams. They used “the notation “s”and “o” to indicate whether concepts connected with an arrow change in the same or oppositedirection,” (emphasis original) [27, Sec. Introduction]. Figure 3 shows a
six items were rated using a Likert scale ranging from 1(Strongly Disagree) to 5 (Strongly Agree). The last, or sixth, item was also rated on a 5-pointscale, however ranging from 1 (Never) to 5 (All the time). Our choice for these six items wasinformed by our review of extant research studies on Black students in STEM and engineering,which are overwhelmingly qualitative in nature. We were also motivated to curtail the number ofitems included in the Student-Faculty Interactions (SFI) scale, and more generally our surveyinstrument, given the influence that time commitment often has on survey dropout andcompletion rates (Kanekar, Sharma, & Atri, 2010; Nair, Ataseven, Habermann, & Dreyfus,2016). We acknowledge that the SFI scale therefore
undergraduate (MET 4173) class as well as through the hands-on training sessions and certification (level 1 to 4) in the Endeavor Digital Manufacturing Maker Space.Ms. Pragya Niraula, Oklahoma State University Pragya Niraula is a graduate student in Industrial Engineering and Management at Oklahoma State Uni- versity (OSU). She earned a MS degree in Energy Engineering at Asian Institute of Technology, Thailand in 2016 and BS degree in Mechanical Engineering at Tribhuwan University, Nepal in 2010. She has been associated with OSU Industrial Assessment Center since 2017 and has participated in 25 energy assessment in industrial manufacturers. Her area of interest includes energy management, continuous improvement, maximizing
to start designing their projects by hand,using AutoCAD or Micro Station applications and also construct their final presentationsin Power Point in the most unique and creative way they could. Also, all sessions wereled by a panel student leader and two or three project team members. Page 23.613.12The investigator wrote notes throughout these sessions by observing students based onseveral factors. The factors included: the students’ interactions with their team members,senior leader and instructor, their confidence in generating ideas, risk taking in voicingopinions, frequency of asking assistance from the senior leader and course instructor
Feature 3. Generic high-impedance voltage input 4. Instrumentation amplifier input for differential sensors Machine Regulatory Maintainer Compliance Signal Output Feature Feature 1. Be able to drive 8Ohm speaker load at full rails with low distortion 2. Be able to drive high-impedance load
for skilled workers across a range of energy sectors because ofretirements, infrastructure growth, and changing energy technologies [1]. Science, technology,engineering, and mathematics (STEM) education and a diversified workforce are the essentialbuilding blocks to accomplishing the U.S. Department of Energy's mission. Further, theConsumer Energy Alliance has indicated, STEM education is a must for the next generation ofenergy workers as a STEM bachelor's degree nearly doubles the likelihood of working in theenergy industry. Currently, the energy industry is facing three key workforce challenges: (i)technical and soft skills gap, (ii) lack of awareness of job opportunities, and (iii)underrepresentation of minorities and women. The adoption
has waned in recent years, construction remains a highly significantsector for national development [1]. Nevertheless, there are critical challenges to overcome inthis sector, such as a housing deficit of approximately 600,000 homes and several ongoingpublic infrastructure projects. Indeed, the State has emphasized the importance of 52 publicinfrastructure projects with an estimated investment of USD13.258 billion [2]. Theconstruction of these projects requires professionals capable of leading teams, managing,understanding, and complying with technical specifications. In particular, expert knowledgeis needed regarding structural standards since these represent a critical component of thedesign and building stages of projects in a country so
Academy. He was commissioned a General Unrestricted Line Ensign through NROTC at the University of Notre Dame after receiving his Bachelors of Science in Electrical Engineering. He achieved a Masters of Science in Electrical Engineer- ing from the University of Illinois at Urbana-Champaign. He has completed the Bettis Reactor Engineer- ing School and was granted an Associates Degree in Italian from the Defense Language Institute Foreign Language Center. He has worked as an Engineer, Instrumentation and Control Division, NAVSEA 08K (Office of Naval Nuclear Propulsion), Crystal City, VA; as Assistant Operations Officer and Alfa Company Commander with U.S. Naval Mobile Construction Battalion FIVE, Port Hueneme, CA
annual earnings. However, minorities continue to be underrepresented in scienceand engineering fields as reported by the National Science Board, Science & EngineeringIndicators. This work-in-progress project presents our attempts to tackle the challenges andimprove undergraduate training in EE program. Considering that the next generation electricalengineers should be exposed to the latest technology and have significant technical and scientificcapabilities, deep interdisciplinary understandings, and soft skills such as self-learning abilitiesand communication competence, Cyber-physical systems (CPS)/Internet of Things (IoT), thefeasible and effective platforms to present the undergraduate EE students with various sub-disciplines of EE, are
less important than the students experiencelearning how to use the presented technologies to implement their design. Working through arealistic design process prepares students for future professional work on the next generation ofIoT products, one of our desired goals.We encountered many external challenges throughout the development of this course, including apandemic, that drastically changed many of our original plans. This paper documents ourexperiences, shares the positive results we achieved and outlines future plans for courseimprovements.Motivations for the CourseThe conceptual framework for the course originated through conversations with industry partnerswho were concerned with the technical know-how of recent college graduates
and 5 give an overview on the similar questions that were asked weekly as thequiz was completed. Both answers are satisfactory, but in general the articles received scoringjust above average. The answers to the questions 7 and 8 give a clear message that some of thepapers were more approachable for the students, and they were clearly helpful for learning. Thequestions 4 and 6 regarding the relevance of topics to the future career of students received theTable 1. First part of the mandatory questionnaire completed at the end of the course. The meanvalues and the standard deviation (std) for the questions are presented with n = 41. Before the course, I was already familiar with the IEEE Yes 23 1. Xplore database
incorporating the following: 1) documentingcommunication that fosters co-design between students and the community, 2) reporting on thetesting in an actual setting, 3) identifying the societal and technical constraints to provide contextfor the design, and 4) incorporating milestones and tasks for project management that includessocietal interactions. Effective documentation is important since projects are designed bystudents who generally only work on the projects for a single academic year. Course instructorsmay change as well, but the documentation can assure that there is continuity from one year tothe next. Thus, effective documentation is critical for project sustainability, allowing for futurestudents and instructors to assess past community
sections of the course. Overallstudents performed well in both: (1) technical content (62 out of 70 points on average) and (2)preparation and organization (28 out of 30 points on average). The average grade on finalreports was 90% with grades ranging from 82% to 96%. All students got a 70% or better on thegroup project, indicating a high success rate for project completion. Generally, students did agood job identifying an environmental problem (9.4 out of 10 points on average), alternatives toassess the problem and sustainability metrics spanning social, economic, and environmentalimpacts to evaluate the alternatives (9.3 out of 10 points on average). Additionally, studentgroups generally did well compiling a life cycle inventory data and
, 2019 Key Sociocultural Influences Shaping Latinx Students’ Pathways into Engineering/CS: An Ethnographic LensThe underrepresentation of Latinas/as in engineering and computer science across the pipeline –from undergraduate studies into the profession – remains a persistent challenge. Based on 2017NSF reports, only 10.3% of engineering and computer science degrees in the U.S. were awardedto Hispanics from 2004-2014 [1]. Similarly, a 2018 Pew report analyzing IPUMS data indicatedthat only 8% of the engineering workforce and 7% of the computing workforce, respectively,was comprised of Hispanics [2]. Studies from a range of disciplinary perspectives have shedlight on some of the challenges faced by Hispanic students, hereby
generally more engaged with the material thanthey would be otherwise.This paper provides details of the organization of the project and the methods by which studentswere evaluated. Survey data which gauged student perceptions of the project, including theirability to apply key concepts, use campus resources, and capture and process IMU data, is alsopresented and used to assess project effectiveness. This data shows that students valued the IMUproject and the opportunity to work with hardware, and generally found the project helpful inlearning the mathematics necessary to relate different reference frames.IntroductionUndergraduate mechanical engineering students find it difficult to analyze the dynamics of rigidbodies in three dimensions. This topic
be separated into short-term and long-termcategories. The short-term category reflects a sub-set of learners who will beimpacted by this curriculum in the 0-5 year period. The long-term category reflects asub-set of learners who will be a part of the CEM 5-10 year plan. The short-term category will focus on undergraduate learners who will eitherbe a junior or senior in CEM, Civil Engineering (CE) or Building ConstructionManagement (BCM). The course will initially be populated by a majority of CEMstudents as a technical elective course aimed at augmenting the experiential andacademic experiences outlined in the construction engineering curriculum. Thespecial needs (or characteristics) of the CEM students are generalized as follows
for general discussion.Five courses with the same content were taught via three tools from March 2017 toJune 2017. According to the course metrics shown on Table 1, social media courses(WeChat and QQ) work more effectively than traditional online courses (WebEx).The number of attendees per session reaches 305 for WeChat and 36 for QQ, whilethe number of attendees per WebEx session is 19. As attendees are able to activelyinteract with the instructor before, during and after the course, active engagement isobserved throughout the lifecycle of social media user groups. The number ofquestions during the course Q&A is 6 and 9, at WeChat and QQ respectively,compared to 2 at WebEx. The number of questions asked outside of the course is 35and 15
using only a browser. Figure 1: Locations of the 48 indoor radio nodes (USRP2) in an on-campus research building.2.2 Testbed SoftwareThe experiment management framework known as CRTS (Cognitive Radio Test System) [4]provides a flexible framework for over the air test and evaluation of cognitive radio (CR)networks. Users can rapidly define new testing scenarios involving a large number of CR’s andinterferers while customizing the behavior of each node individually. Execution of thesescenarios is simple and the results can be quickly visualized using Octave/Matlab logs that arekept throughout the experiment.CRTS evaluates the performance of CR networks by generating network layer traffic at each CRnode and logging metrics based on the received
1,scored on a scale of 1-3 with 3 being the highest. This rubric was used by the TA and for the peerreviews. The nine areas for the rubric are included: 1. Sequence of information 2. Effectiveness 3. Use of Graphics 4. Text-Font choice and formatting 5. Spelling and grammar 6. Delivery 7. Technical content accuracy 8. Technical content depth 9. Technical content integrationResults Herein we present results of the assessment data collected for this project. There are a coupleof goals related to the assessment of the videos. The first item reviewed was the self-reflectionsfrom all the students in the class. We generated a word count
objectives [1]. Overthe last year, the U.S. electricity generation from renewable resources has doubled from 19% to38% by 2050 [2]. Decreasing the overall energy consumption became a crucial goal for thebuilding industry. Researchers, developers and practitioners, dedicated to improving the builtenvironment [3]. This paper disseminates the lessons learned and best practices from a verticalcourse that focuses on Sustainable Design and the LEED initiative. Where the curriculum isaimed at advanced understanding of the theory and principles relating to design, energyconservation, and research methods applicable in different climatic regions throughout the world.The methodologies include climate responsive design, energy conservation, passive solar
built-in sensors. Byleveraging smartphones as the system foundation, we have achieved a balance of functionality, affordability, andinternet connectivity, making the humanoid robot a generally practical tool for CRI research. As a field of study, CRI research explores the use of robots as tutors, or as companions for children's spontaneouslearning. Reports suggest that children perceive robots as interactive entities, and that using them as tutors orcompanions enhances learning motivation and other outcomes ([1] R. Zviel-Girshin et al., 2018; [2] J. K. Westlundet al., 2016). One of the most well-known models of robot used in this type of research is called 'Nao' ([11]manufactured by Aldebaran Robotics) ([3] M. Y. Mustar et al., 2022), with