reluctance among the engineering faculty to opening up their courses to studentsfrom outside of engineering – itself representing a potent example of the technical core ofengineering being insulated from perceived outside incursions. In fact, only one elective programin the College wanted to have its courses recognized as part of the core curriculum, which meantthe Associate Dean was eager get a class like Discovering Engineering on the books for allstudents at Purdue. Given such factors, my department head and I agreed that the time was rightto take over the effort, and the Associate Dean replied in kind by partially funding one of mygraduate students to help design and teach the next iteration of the course.We planned to offer the course again in
preparations are targeted to the backgroundand skills level of the students. Classroom/laboratory delivery requires that the TF: a) present in Page 24.1271.5a professional manner, b) maintain a classroom environment that is conducive to learning for allstudents, c) monitor student attention and apparent understanding of the course content, d) assiststudent groups with activities, and e) assess learning and plan for future sessions.While summer programs for middle and high school students typically do not have the samerigorous treatment of academic content that is found in a college course, the learningenvironment can mimic many of the same situations
interface to the PC soundcard. Figure 3 below shows a screen capture from GRC thatimplements an FM radio receiver using a built-in WBFM Receive block and includes an audiosink to play back demodulated sound. Figure 3: Screen capture of a broadcast FM radio receiver in GNU Radio CompanionAlong with the student-owned RTL-SDR, we also plan to leverage a more capable SDR for in-class experiments. By pairing the low-cost RTL-SDR with an SDR transmitter, such as the EttusResearch B200 shown in Figure 4, the instructor can generate a wide variety of signals that canbe used for controlled experiments within the course. We plan to include such experiments inorder to demonstrate lecture concepts, as active learning exercises, and to investigate
number of engineering students in respective program. The concept ofincreasing the number of engineering students thereby increasing the number of graduates wasanalyzed as part of strategic planning for the School of Engineering. Key indicators found duringthis study were increased marketing, preparedness of the incoming students, retention of thosewho arrive, and the addition of new programs. This paper will only focus on the retention ofthose students who arrive each year as freshman. The School of Engineering used a simplesuggestion by one of its faculty concerning a well-known concept such as SI, supplementalinstruction, to improve retention of engineering freshman by nearly 20%. This paper willestablish the conditions prior to the
-efficacy. In 2010, Joneset al. found mixed results in a study of first-year engineering students, with no statisticallysignificant differences associated with attainment, interest, utility, identification, or career-plans;although men did score higher with respect to self-efficacy and expectancy, the difference wassignificant only for expectancy10.In a related study, Jones et al. found few differences between men and women with respect toengineering identification, gender identification, GPA, or likelihood of changing major, andwomen reported higher perceptions of engineering ability11. The analysis also indicated noeffects for stereotype threat; notably, however, although both men and women scored relativelylow with respect to endorsing negative
planned for April 2013. • Kid Wind Teacher Workshops were presented at Central and Southern California locations for middle and high school teachers and the resulting pre and post evaluation data showed a high degree of improvement in teacher content knowledge and attitude toward wind energy curriculum and teaching. • Kid Wind Student Regional Competitions were hosted with co-sponsorship from public schools and the wind industry and the highest performing student teams competed at the Kid Wind Student finals co-supported by CREATE, AWEA, industry and KidWind at the AWEA national conference in Atlanta, CA in June of 2012 and CREATE-trained teams won both the middle school and high school divisions
process of combining concepts ormethods from different disciplines.34 The precursor of “multi” suggests a simple mixing withoutany additional integrative efforts of planning and coordination. This represented the start ofcrossing disciplines and focused on adding rather than integrating methods. The conscious stepof concerted inclusion occurs in the onset of interdisciplinary research.Interdisciplinary research expands upon multidisciplinary research because of the inclusion ofintegration. There is an intentional and necessary coordination of the research that goes beyondsimply mixing methods. Drawing from the general education movements arising post World WarI and from the cultural revolution of the 1960s, interdisciplinarity arose to show a
price model was developed when I worked for Unocal Corporation in the1980’s. It is based on theories developed in finance and engineering economy that are similar tothe “discounted cashflow” method of stock evaluation (Rahgozar, 2008, Becchetti et all, 2004,Rawley et al 2006). When at Unocal, my colleagues and I in the strategic planning departmentbuilt a model to forecast the stock price of Unocal during the take over fight with T. BoonePickens (McCoy, 1985). We used the model to predict the change in the stock price asinformation was relayed to the investment community. It was very accurate and was extremelyhelpful in the take over defense.The point of this project, as it was in the case of Unocal’s stock price model, is not to develop amodel
. While the former is pure digital the latter isan integrated part of a system that may have analog and RF circuits as well as sensors andactuators. It is time that digital circuit implementation is considered as a fundamental subject andtaught as a required course because it is what digital design engineers must deal with at work.Digital system implementation has become complex and critical due to a number ofimplementation choices such as small floor plans, high-speed and mixed-signal design,integration of sensors and actuators and minimum power consumption. One key issue at chip orPCB level implementation is signal and power integrity (SI, PI), which holds the key to successor failure of a digital system implementation. This topic has become so
increased enrollment in their on-sitecourses. Industry near the host sites benefit from the increased number of well-qualified UW- Page 23.1023.5Platteville BSEE graduates who have ties to the host university area.Lab managers from UW-Platteville handle all lab logistics at the remote sites. They arrange labschedules with the students and travel to the two-year campuses at the assigned times. Sincethey cover locations throughout the state, the two lab managers usually create a biweekly siteschedule which both students and faculty can plan around. The current lab managers travel anaverage of four days each week and spend a whole day at one site or
instrument, studentsentered a four digit identification code that was created and distributed by the course instructor.The code was used during data analysis to match multiple surveys and course grades fromrespondents. The resulting data allowed the evaluation team to conduct the analyses required totest the relationships in the 4P model. We conducted both qualitative and quantitative analysis tofind out the effectiveness of the serious game. The detailed quantitative analysis results will bediscussed in the journal paper titled "Teaching Engineering Design Principles through a SeriousGame," and we are planning to submit this to the Computers in Education(CoED) journal. Somepreliminary qualitative results are presented here.ResultsStudents learned
performed if it is not valid.The ability to store circuits to disc or load them is also included. This facility can be used byinstructors or tutorial writers to create specific circuits. This initial version of the circuit editorallows editing on a PowerPoint slide. We plan however to revise this system so that editing isperformed on a form instead, which will enable a greater degree of control over the userinteractions. We are further in the process of developing the ability to check edited circuits as Page 23.1146.4 Fig. 1. Interactive circuit editor implemented in PowerPoint.part of the problem-solving process, to determine
twelve major interaction behavior categories are question, mind change,reasoning, identify problem, decision, choice, action plan, fix, checklist, reflection, uncertainty,and cancel, and we share our definitions. There were multiple types of questions, from bothteacher (usually redirecting) and students, so there are subcategories. Question subcategoriesinclude: interrogatives of why, what, how, when, or where; redirecting back to task or a topic,clarifying for understanding meaning, and reconsidering alternatives or missing pieces. A mindchange occurs when a student is going in one direction with a thought but switches for a statedreason. Reasoning happens when an idea is evolving, through expanding to make it larger,deepening a specific aspect
creative license that engineering students should be encouraged to take.The projects that form the foundation of this curriculum are meant to provide a diverse array ofengineering knowledge and practice. We hope that students will find their engineering passionin one of these challenges. Students can then assume different roles based on their interests andstrengths in the coming years as they engage in multidimensional engineering projects in theircommunity. Further, this curriculum provides a week-by-week breakdown of the concepts andlearning objectives, but it does not provide explicit lesson plans. Teachers are meant to bringtheir own expertise and nuanced instruction style to supplement this curriculum. In SomervilleHigh School, teachers have
Page 23.1359.2expectations.12,13 In order to ensure that these teams are successful, a critical first step isdetermining the virtual media and tools that the offering will use. The technology planning forthe course offering must account for everything from basic infrastructure to innovative tools thatenhance frequent communications.Many organizations are also using team collaboration tools, such as online white boarding,shared applications, and team workspaces, enabling dispersed employees to work together moreeffectively.14,15 Furthermore, forward-looking organizations are adopting social media tools,such as blogs, podcasts, and wikis to help teams collaborate and gain a sense ofcommunity.16,17,18 A virtual team requires not only the right
% 73 45% 69 50% Senior - 0% - 0% - 0% 9 4% 73 31% 86 44% 94 44% Total 104 11% 211 20% 283 26% 335 33% 375 35% 382 36% 423 35% StudentsThe Context of the UAETo better assess the level of conviction the founders and supporters of this Program have, it isnecessary to study the context within which it was planned, developed, and supported. Over thepast decade, the United Arab Emirates has pushed for a rapid development in both itsinfrastructure and its human capabilities. Two public documents are worth analyzing within thiscontext, the UAE National Charter for 2021, and the Abu Dhabi Economic Vision 2030.The UAE National Charter for 20211
from abetter understanding of what it takes to launch a successful business by learning more about thecharacteristics that contribute to entrepreneurial success.In recent years, educators in the field of engineering have placed increased value on encouragingstudents to adopt an entrepreneurial outlook. The goal of this change is to encourage originalthought, inventiveness, and a can-do spirit in the next generation of engineers. To do this, manydifferent plans and programs have been put into motion. Engineering schools have begun offeringspecific entrepreneurship courses and programs in an effort to encourage students to develop theirown business ideas. Students can learn valuable lessons in business planning, market research, IPprotection
positions. Dr. Kinney has significant experience in using technology to improve business practices, organizational change management, strategic planning, process improvement, and grant writing and evaluation. Prior to West Shore Community College, Dr. Kinney was the Dean for Business and Technology at Bay College in Michigan’s Upper Peninsula. ©American Society for Engineering Education, 2024 Paper ID #40983Prof. Scott A. Kuhl, Michigan Technological University Scott Kuhl is an Associate Professor of Computer Science and an Adjunct Associate Professor of Cognitive & Learning Sciences at Michigan
andeffective use by language models.System DevelopmentThe development of the system was carried out iteratively, following a cyclical approach of design,implementation, and evaluation. This process ensured that each system component responded tothe objectives and aligned with academic standards. During the planning stage, the conceptualarchitecture of the system was defined, which was structured into three main components: ● Frontend (React and Vite): Designed as a dynamic and accessible interface, facilitating user interaction with the system. ● Backend (FastAPI): Planned to manage system logic, process requests, and coordinate communication with the LLM. ● Integration with LLM (Ollama on AWS EC2): Developed as the processing core, in
students pursuing an associate degreecould enroll in courses they knew would transfer toward a bachelor’s degree, ultimately knowingwhich courses were remaining post-transfer across universities in a specific 4-year program. Thiseffort aimed to increase transparency and empower students categorized as “resource curators,” aterm the book [1] used to describe students who sought out multiple forms of information to findthe most reliable information to plan their course enrollment. This enabled 4-year degreeprograms to directly advise students while they pursued an associates degree at any VirginiaCommunity College (VCC). This state-wide effort was important because of the purpose society, industry and nationalleaders expect from higher
Product Lifecycle Management (PLM) [1], [2]. Beyondmanufacturing, DTs are now integral to the AECFM industry, supporting real-time sensing, datavisualization, and analytics [3], [13], [5]. The integration of various advanced technologies underthe Industry 4.0 paradigm has made DT essential for modern AECFM applications [15], [16], [8].DT technologies offer dynamical simulations and data-driven insights, enabling informeddecision-making across various project phases, including design and planning, constructionmanagement, and facility operations. DT has revolutionized construction practices, leading tosignificant advancements in productivity, cost savings, and delay mitigation. According toMcKinsey & Co., implanting cutting-edge construction
staff, and lead engaging STEM focused activities. LLC Mentors are compensated with a free bed in the residence hall. The role requires 15hrs/week see Table 3. Table 3: STEM LLC Mentor Responsibilities 15 hours/week Responsibilities 2 hrs/wk Attend the LLC House Course weekly (course schedule permitting). 5 hrs/wk Hold weekly mentoring hours. 2 hrs/wk Plan, advertise, and implement one STEM-related activity per month. 1 hr/wk Communicate regularly with the LLC student community through platforms such as the LLC Canvas page, GetInvolved, GroupMe, bulletin boards, email, flyers 5 hrs/wk Complete other LLC-related tasks
.2 Literature Review2.1 Training Mode and Path of Digital Engineering Management TalentsIn the era of digital intelligence, professional talents need to adapt to the requirementsof industrial digital transformation, for which data resources as the key element, andthey must have the ability to solve problems in a “data-driven” manner [7]. Therefore,mastering and flexibly applying digital intelligence technologies such as generativeartificial intelligence, big data, and cloud computing for theoretical analysis andpractical creation has become a new requirement for cultivating high-level compositeinnovative talents [8]. Based on this, academia has explored and formulated newtalent cultivation plans from multiple perspectives. Zhang Tingting et
Professional Civil Engineering Consultant's needsAbstract There is a gap between the preparation of Civil Engineering (CE) students at graduationand the needs and expectations of the professional Civil Engineering Consultant industry. Withthe American Society of Civil Engineers rating our nation’s infrastructure a C-, and the federalgovernment enacting an infrastructure plan to address the needed improvements, the success ofinfrastructure initiatives depends on a skilled workforce to design, build, construct, and maintaincritical infrastructure. This gap between engineering consultant requirements and studentpreparation impacts companies' productivity and exposes issues within engineering educationprograms. The paper will identify the
, industry skills are taught in senior-level capstoneclasses [5] and a compelling effort within engineering education is to reduce the mismatchbetween industry needs and student preparedness [1], [2]. Engineering students will be bettertrained to enter industry if more industry skills are taught starting in the first year of anundergraduate degree rather than the traditional senior-level focus to increase student’s fluencyin their professional skills. Students feel more prepared to enter the engineering industry if theyhave been taught both the technical and professional skills throughout their entire undergraduatedegree plan [2]. Therefore, it is important to study professional skills in engineering educationprograms; the earlier in the degree plan
each of the labs into its engineering applications (used to motivate studentinquiry), the math concepts it contains (which are the primary outcome of the lab), and its status(finalized, needs minor revision, or needs major revision). As a work in progress paper, weanticipate continuing to tweak each of these labs based on student and peer feedback over thecoming years; however, “finalized” is used to refer to labs we would be comfortable giving toanother instructor to implement in their own class as is. We plan to make all of the labs andassociate curriculum publicly available online once they are finalized.Table 2. Summary of Math Labs for fall 2024 and winter 2025. Labs marked with an asteriskwere also implemented during winter 2024. Quarter
human identity.Future workWe plan to ask each other the additional questions related to identity formation (2 questions), andpathway progression (4 questions) in subsequent focus groups and expand on the initial findings ofthis paper. The number of questions may evolve as we progress with the collaborativeautoethnography methodology, given that collaborative autoethnography emphasizes an iterativerather than a linear research process [15, p. 24]. Additionally, we plan on using collage and journeymaps as data elicitation methods in future focus groups. The career pathway progression focusgroups involve recalling parts of our entire lives. We plan on adding additional data streams to graspmore important elements that contributed to our identity
, Teach for Americaprovides PreK-12 lesson plans for teaching sustainability [10].Ozis et al (2022) introduced a tangram-puzzle activity in the classroom of civil andenvironmental engineering students to introduce the paradigm shift necessary to implementsustainability practices into traditional engineering design and construction [11]. Theinnovative and engaging pedagogy that nurtures “thinking outside the box” is needed for allproblem-solvers. This activity can be used to teach the concept of sustainability, thinkingoutside the box, and a paradigm shift for the affective domain [12], for students to learn thenecessary attitudes, values and motivations to implement new ways of thinking, problemsolving, and designing. Normalizing failure by
inimplementing automation and robotics technologies in the classroom and in the industry,reflecting the conservative nature of the industry. They also indicated a perceived lack of interestamong civil engineering students at that time in learning about construction automation androbotics.Current status of incorporating automation in construction educationIncorporating automation-related concepts and practices in the construction managementeducation curriculum is important for preparing future professionals to navigate the rapidlyevolving landscape of the construction industry [6]. The construction sector increasinglyembraces technological advancements in planning, design, construction, andoperation/maintenance, posing a need that students must be
Native American undergraduates [5], [6]. Additionally, within the community collegepopulation, 58 percent are women and approximately 30 percent would qualify as firstgeneration college or low income students [2], [7] . Overall, 41 percent of all undergraduatesattend community college [5].First generation students make up almost one-third of all undergraduates and are more likely toattend community college [8], [9]. Additionally, first generation students with low-incomebackgrounds and an underrepresented racial identity often have less personal experience inacademic planning and are aware of fewer academic and career opportunities. These factorscontribute to the struggle many face with completing STEM degree programs. Supporting STEMdevelopment