paper then discussesthe alignment of the program with the NICE Framework and puts forth recommendations toimprove the alignment.IntroductionThe field of cybersecurity has become a very high in-demand profession. Recent estimatesindicate that the shortage of adequately educated and trained cybersecurity workers will continueinto the foreseeable future [1], [2]. This lack of adequately trained resources has severeimplications for national security and economic growth, as every business these days relies oncyber and its related infrastructure [3], [4]. This critical shortage has resulted in efforts fromvarious sectors (e.g., Government, Industry, Academia) being accelerated and given a highpriority for resources and funding [5]. There is now a
: Circuitry and Sensory Substitution Curriculum UnitTime: Two weeks Lessons: 4 Grades: 10-12 Focus: Physics/Cambridge IGCSE PhysicsIn this unit, physics students extend their knowledge of basic electric circuits by studying the function and use of more complex components [1, 2]. Students are introduced to basic neuroscience principles and use these concepts to design, build, and optimize a prototype of a sensory-substitution device on circuit boards. They present their models on a scientific poster. https://centerforneurotech.uw.edu/education-k-12-lesson- plans/circuitry-and
-cost and versatile hardware kit for a remote first-year mechanical engineering design classI. IntroductionEngineering design courses with hands-on laboratories are a critical component of an engineeringundergraduate curriculum. In particular, incorporating design courses early has been shown tohelp with retention rates in engineering, as well as with improved ability of students to solve open-ended problems [1, 2]. These courses have also shown student progress in academic achievementby helping to build confidence in their engineering skills, and by expanding their perspective onproblems and solutions [3, 4]. Introduction to Engineering Graphics and Design is an introductorylevel course, usually taken by
), learning sciences and technology, embodied interaction, embodied learning, HCI for accessibility (especially for individuals with blindness), multi- modal verbal/non-verbal interaction, multimodal meeting analysis, vision-based interaction, multimedia databases, medical imaging, assistive technology for the blind, human computer interaction, computer vision, and computer graphics. http://teilab.tamu.edu American c Society for Engineering Education, 2021 Design and Development of a Horizontal CTE Curriculum to Prepare Students for the New Manufacturing Economy (Work in Progress)1. BackgroundHow we educate students is
for distance learning and possibly identify potential areas for further improvement. Keywords: Engineering Education, Feedback control system, distance learning1. IntroductionNew York City College of Technology (City Tech) is one of the senior colleges of the CityUniversity of New York (CUNY), which is the nation’s largest urban public university. CityTech is the largest public, baccalaureate college of technology in the Northeast and serves asa transformative engine of social mobility in New York City. [1] The department of ComputerEngineering Technology (CET) is dedicated to preparing students with the fundamentals ofelectrical technology, electromechanical technology, computer hardware, software, networks,using engineering principles to
undergraduate studentswith multidisciplinary engineering technology majors in Fall 2019, then extended to Spring 2020due to the scope of the project, and finally completed in August 2020 by two different seniorstudents due to the graduations and Covid-19 pandemic related challenges. The funding for theproject was provided by the City of Huntsville. The students and faculty members involved inthe senior design project have served for the community outreach purposes.There are two objectives of this senior design project; (1) to provide more shading for guests andstaff members in the aquatic center since the area is missing satisfactory shading, (2) to help thecity for improving its sustainability efforts by providing renewable energy-based
ElectricalEngineering Technology (EET) bachelor curriculum that have the flexibility to implement thisform of training. This project looks to aid the preparation of future undergraduates interested inautomatic control implementations.IntroductionPID control is an integral component of industrial automation [1, 2]. It is used to automaticallycontrol process variables such as temperature, liquid level, pressure, flow rates, etc. Althoughprogrammable logic controllers (PLCs) have software functions for implementing PID controlusing analog input and output modules, all major manufacturers offer stand-alone PIDcontrollers since they are easier to program, monitor and maintain [3]. This creates a need toteach this cornerstone control calculation to university-level
traditional systems. In 2019 the EU program launched a series of faculty developmentworkshops framed with both a systems approach and design thinking. A summary of the program changesover time is shown in Figure 1.The primary goal of the faculty development program is to foster EM in engineering education byengaging faculty in EM activities and perspectives that they can implement with their students [1].Faculty needs were mapped to a suite of faculty development offerings that included workshopsaddressing EM activities and perspectives targeting curriculum, teaching, research, industry, andleadership. Figure 1. Timeline of EU faculty development; iterative elements are shown for feedback processes.Design thinking is a systematic problem-solving
the programfor continuing to improve the experience and success of future cohorts.I. Design-Based Research MethodThe curricular development work for this project-based learning (PBL) program began in 2016[1] utilizing design-based research (DBR) as the methodology for both design and research.Design-based research (DBR) was adopted as the methodology to 1) address learning theories, 2)to study learning in context, 3) to develop measures of learning, and 4) to contribute to newdesigns and learning theories [2] for the program development. The work incorporates the fourphases of DBR identified by Kolmos [3]: design; implementation; data collection and analysis;and findings and conclusions. The DBR phases were adapted and combined with
sustaining ourongoing development [1]. The ratio of STEM jobs available to the number of trained, qualifiedapplicants is 13 to 1 [2]. In Illinois, the ratios were as high as 18 to 1. The percentages of womenand underrepresented minorities is disproportionately lower, a fact that has captured the attentionof the nation’s science communities and highest levels of government. "The challenges to thenational competitiveness and sustained STEM global leadership can be better met through thefull utilization of all of the nation's talent and resources [3]." Project SYNCERE is working to fill this void through its multi-year engineeringprogram, E-CADEMY. E-CADEMY providing students in grades 6-11 with a guided pathway ofopportunities that are aimed at
(interest, self-efficacy and STEM identity) outcomes, and ultimately lead to their increased participation inSTEM fields, particularly engineering. The paper will report on preliminary findings for theplanning and implementation of the 6th grade course.Program DescriptionThis four year project is a collaboration between the College of Engineering and the FridayInstitute for Educational Innovation at NCSU, the MSEN pre-college program, a rural schooldistrict in NC, and the local advanced manufacturing industry.The program consists of three parts: 1) 3-part Engineering Design elective course for grade levels6-8 in which rural middle school students engage in engineering design experiences closely tiedto local advanced manufacturing technologies and
a program uses to popularize its product, its plan will fail if the productdoes not connect with the stakeholders’ interests and needs. By creating tools to explore thescience of music, LTW connects with the children and educators' innate interest in music, andthe schools’ need for hands-on, engaging science activities. There are several other reportedexperiences connecting music with STEM. Most of them have required heavy support fromSTEM professionals [1]–[6] and consequently have not gone beyond a few implementations,whereas some others requiring less training have become more popular [7], [8]. Given theinherent interest in music on the part of both educators and students, I think it is possible toenvision a much larger and broader
employed to extend the utilization of robots intoadditional areas. The history of modular robots starts in 1972 when the active chain chordmechanism (ACM) was developed, leading to future development of chain-type modular robots.[1] The modular robot research started to gain momentum in the late 1980s, followed by thedevelopment of Cellular Robotic System (CEBOT), which was characterized by self-organization, self-evaluation and functional amplification where multiple modules collaboratedto accomplish the task. [2]Modular robots are mostly reconfigurable and thus more adaptable. There a two distinct types:user-configurable and self-configuring: User-configurable robots are configured by their operators to perform desired tasks. The
impact of those events in the island’sinfrastructure, as well as the role that professionals, government and community-basedcommunities had in the pre- and post-hurricane situations associated with the performance ofthose infrastructural elements in the context of sustainability and resiliency [1].In alignment with these concerns, our research team received funding from the National ScienceFoundation for a project titled ¨Resilient Infrastructure and Sustainability Education –Undergraduate Program (RISE-UP). RISE-UP includes the development of a case study databaseto preserve the nature of extension of the impact of the damages caused by the hurricanes, in thecontext of the academic project. The project is aimed to carry out research and
(RevED) team are influenced by critical education theory. The RevEDteam is multidisciplinary and integrates expertise in civil and environmental engineering,sociology, and engineering education. Critical education theory is a framework that utilizespractices in education that enable social transformation in students [1].Prior to the start of the RED grant, the CEE Department had fewer women and UnderrepresentedMinorities than the current national average of women and URMS in CEE as reported by theNational Academy of Engineering [2]. The grant provided the CEE Department a chance tochange its own profile and directly address these issues. The CEE Department will investigate allforms of visible and non-visible diversity. Non-visible elements of
see ERCs as an under-utilized opportunity for longitudinal research in both EWDand DCI. This ability to trace individuals and patterns over time is an invaluable knowledgeresource, especially as we seek to develop an infrastructure of roadways and pathways for EWD.Figure 1 shows an impressionistic schematic of what we envision: an interconnected system ofsystems where the same individual who participates in an informal summer camp or otheroutreach activity has access to further learning through formal K-12 experiences, 2 and/or 4-yearundergraduate degrees, Trades, graduate degrees and professional workforce learningopportunities... with seamless transitions among them. These are pathways - not pipelines, whichmay leak with no recovery19
Robotics and Advanced ManufacturingAbstractThis paper presents the curriculum, courses, laboratory modules and other student-centricactivities for a new Robotics Engineering Technology baccalaureate degree program which iscurrently being developed at Miami University. The new program consists of theory andlaboratory courses on industrial robotics, advanced manufacturing and automation systems, to bedelivered in a mixed format to support workforce development in the Southwest Ohio region. Inthis paper, we present the curriculum, course structure and planned evaluation methods of thenew RET program and discuss the challenges and opportunities that motivated us to develop theprogram.1. IntroductionRecent advances in robotics and automation have
in engineering can be achieved through a combination ofcurricular and real-world experiences. Thus, this project incorporates faculty and industrymentorship, workforce development seminars, an industrial internship, and entrepreneurshipprograms.introductionThe Tech Intrapreneurs Program (TIP) at Texas Tech University responds to a needs analysisand industry requests to hire a more diverse workforce [1] with individuals from traditionallyunderrepresented groups (women and ethnic minorities) advancing to managerial positions. Theprogram is designed to produce intrapreneurs with a particular focus on bolstering therepresentation of underrepresented minorities. Intrapreneurship is the practice of developing anew venture, product, or service
emphasis includes faculty development and mentoring, graduate student development, critical thinking and communication skills, enhancing mathematical student success in Calculus (including Impact of COVID-19), and promoting women in STEM. Her technical research focuses on sustainable chemical process design, computer aided design, and multicriteria decision making. She also has extensive experience in K-12 STEM education and program evaluation and assessment. She has held a variety of administrative positions: 1) Director of STEM Faculty Development Initiatives-Clemson, 2) Associate Dean for Undergraduate Studies in the College of Engineering, Computing and Applied Sciences-Clemson, 3) Interim Director of Student
Workforce1. Introduction Throughout the world, there is an agreement that there is a gap between the skillslearned in school and those needed in the workforce [1]. Engineering curricula mustcontinuously change to prepare students for industry needs [2], and universities should alignwhat they teach to the most demanded skills required in the workforce [3]. However, this isnot always the case, and empirical evidence has shown a gap between the undergraduateengineering program's skills taught and industry needs [4-6]. Several studies have revealedthe gap in water-related undergraduate programs [7], and such a gap can stand in the way ofmeeting the needs of the water and wastewater industry [8]. According to UNESCO-UNEVOC International
the Feedbackimplementing to diversify the field of engineering. While many in the Classification Tool to provide insights into what feedback practices were being used in that course andengineering education community have supported this initiative and the characteristics of those practices.called for changes at research and institutional levels [1], what can bedone at the individual course, classroom, and instructor level to improvestudents’ feelings of inclusion and motivation to persist in this field? Development A
better than the quality of the textbooks in their othercourses. Overall, students reported using the textbook in this course more frequently thantextbooks in a typical course.IntroductionHigher education costs have been increasing more rapidly than inflation over the last fewdecades. From 2002 to 2012, tuition, fees, and textbook prices increased at a rate of 3 times therate of inflation [1]. These increasing costs and a complex financial aid system contribute tostudents taking longer to earn a degree or to leave school without a degree [2]. One way todecrease textbook cost is to use open educational resources (OER), which are licensed in a waythat allow everyone to engage in the “5R activities”: retain, reuse, revise, remix and redistribute[3
ARISE program at UIUC. Here we describe thedevelopment, structure, and outcomes of the pilot year of an all-undergraduate soft roboticsresearch program.Introduction Participation in undergraduate research opportunities increases understanding, confidenceand awareness of opportunities in STEM fields [1]. In a national study, students’ desire to pursuea PhD increased by ~29% after performing undergraduate research [1]. Approximately 45% ofUIUC Engineering undergraduate students participate in research on or off campus.Comparatively, less than 1% of students from the three cohorts of ARISE program haveparticipated in research. To help close the undergrad research gap between ARISE students andtheir peers, we proposed developing a mentored
across the five periodical databases and restricted for peer-review journal publications. The resulting publications of each search was consolidated using 2Mendeley citation manager where duplicates were removed. Following the removal ofduplicates, we reviewed the article’s title and abstracts against the following research contextinclusion criteria: (1) participants in P-12 engaged in a STEM intervention with some focus onengineering, and (2) the measured affective view(s) focused on the views of the student as itrelates to engineering not the teacher, facilitator, or educator. Lastly, we scanned the remainingarticles’’ full-text against the
TAs did in the first term of remote learning worked;and carrying forward those practices into future remote instruction and instruction beyond theCOVID-19 pandemic may be recommended.IntroductionAccording to the 2019 Open Doors Report by the Institute of International Education (IIE), thenumber of international students studying in the U.S. was at its highest ever during the 2018-2019 academic year – almost 1.1 million students or 5.5% of the total population in highereducation [1]. In total, these students contributed over 44 billion dollars to the U.S. economy.And, of these students, over half pursued Science, Technology, Engineering, and Mathematics(STEM) degrees, with engineering remaining the most popular academic discipline among
underrepresented in STEM, has long been a focus of policy makers, industry, anduniversity administrators alike [1]–[3]. Much attention has been paid to whether and howstudents are made to feel welcome in STEM as a result of classroom and extracurricularexperiences and, secondarily, how these experiences impact STEM retention outcomes [4]–[6].One psychological dimension that has emerged as particularly relevant is belongingness, or astudent’s “subjective feeling of fitting in and being included as a valued and legitimate memberof a particular setting” [7:421].Experimental results exploring students’ decisions to stay within or leave STEM fields can beunderstood within the context of student retention literature more broadly, specifically Tinto’sModel of
program needs.1. IntroductionThis paper summarizes three cases which each address diversity and inclusion while directlysupporting traditional course content within the civil engineering curriculum. The casesidentified were: Flint Water Crisis (Environmental Engineering), Robert Moses & The SouthernState Parkway’s Bridges (Transportation Engineering), and Hurricane Katrina Levee Failures(Geotechnical Engineering). The paper also suggests teaching interventions and directly mapsout the content in each case study as it pertains to ABET outcomes and traditional civilengineering course subject matter. A select case and teaching intervention were implementedduring a pilot initiative within the Roger Williams University Spring 2021
DisparitiesIntroductionIn the U.S., the COVID-19 pandemic has caused significant distress for many families andindividuals, but perhaps predominantly among marginalized communities of color [1]. Beyondthe medical toll, the negative impacts on social and economic conditions have been devastatingfor many ethnic and racial minorities. Many of these are young people and some are students inengineering [2]. The challenges of navigating higher education and professional formation inengineering are formidable enough for those lacking the expected social capital for academia [3].However, the challenges are intensified as the pandemic conditions threaten family, livelihood,and economic and social well-being. From our vantage point of several years of research ondiversity
and in their future careers.1.0 IntroductionTo properly contextualize Carnegie Mellon’s work around DEI, we need to situate it within alarger movement that has gained traction and momentum around engineering and social justice[1]-[3]. These happenings build upon the seminal work of Baillie [4], Riley [5], and their jointwork with their collaborators [6]. This has sprung a series of engineering and social justice-related or -infused courses, seminar series, and workshops across engineering campuses such asthose at the University of San Diego [7], Colorado School of Mines [8], Purdue [9], Stanford[10], the National Academies [11], and others. The most recent illustration is a series of global,humanitarian, and peace engineering programs that
is likelyhighly dependent on the foundation they have brought to the course. More general academicskills and attributes such as motivation, self-regulation, self-efficacy, sense of belonging andmindset also influence how students engage with the course.Existing research demonstrates the importance of math and physics preparation to studentsuccess in mechanics [1], [2], [3], [4], [5]. Problem solving skill is also clearly an importantcomponent to success [5]. The correlation of spatial abilities to broader measures of success andretention for engineering majors in general is well-established [6]. However, existing studiesexploring the importance of spatial abilities to success in mechanics courses find mixed results.Many fundamental concepts