Paper ID #30157A Mechanical Engineering Technology Baccalaureate Degree via the ”3+1”PathwayDr. David I. Spang, Rowan College at Burlington County Dr. David Spang is the Sr. Vice President and Provost at Rowan College at Burlington County in Mt. Laurel, NJ. Prior to being named Sr. Vice President and Provost, Dr. Spang served as Interim President, Provost, Vice President of Academic Programs and Dean of the Science, Mathematics, and Technology division. Dr. Spang holds a PhD degree in Materials Science and Engineering and a MBA degree, with a concentration in Innovation and Technology Management. Prior to joining academia
development at 2-year Hispanic Serving Institutions (HSIs).The goal of HSI ATE Hub is to build capacity and leadership at 2-year HSIs for developingcompetitive ATE proposals to elevate 2-year HSIs as drivers of their community’s economicsuccess via technician education.Data sets from three annual HSI ATE Hub Cohorts, four prior KickStarter Cohorts, and nineMentor-Connect Cohorts have been aggregated to assess the following research questions about2-year HSIs: 1. Are there unique opportunities/barriers/challenges related to STEM program development and grant-writing endeavors for advanced technological education? 2. How do we build capacity to pursue the opportunities and address the barriers/challenges? 3. How do mentoring efforts
Professoriate (HAGEP) grant in Environmental Sciences and Engineering. The HAGEP grant promotes the expansion of Hispanic doctoral students to faculty at community colleges or teaching intensive universities. Dr. Sivils received his B.S. in microbiology from Tue University of Texas at El Paso (UTEP), worked in the biotechnology field before returning to UTEP to receive his Doctorate in Toxicology, where he studied the compensatory mechanism resulting from the loss of the multi-drug resistance transporters 1 (MRP1). He attained a Post Doctoral position at UTEP where he collaborated in the discovery and development of small molecules used for the treatment of prostate cancer.Dr. Yasser Hassebo, The City University of New York
(STEM) at all levels, including the state colleges level, to maintain a broadpipeline of future engineers and computer scientists to ensure a highly advanced technologicalsociety. Computer Science's focus is particularly noteworthy given its dramatic impact on allsegments of society, all industries, the economy, our national security, and the educationalcommunity. The growth in Information Technology (IT) and related computer industry is expectedto increase exponentially over the next decade. Given the fact that the medical and health careindustries will require innovative software packages to manage health care, the exponential growthof 25.6 % in the IT sector is expected from 2018 to 2028[1], [2]-[5]. As a further indicator, theU.S. News and
forward in working topromote engineering and other STEM fields collectively, while also bridging the gap between theundergraduate research opportunities provided to community college and university students. Data willbe shared on the effectiveness of and increased student engagement created through the remoteundergraduate research experience.IntroductionCommunity colleges are cost-effective and positioned to provide personalized academic experiences incomparison to established baccalaureate universities. However, community college students are at anacute disadvantage in terms of attaining undergraduate research experiences, which are often reservedfor elite students at baccalaureate universities [1, 2]. This disadvantage can be attributed to a
School – Massachusetts Institute of Technology. American c Society for Engineering Education, 2021 Revolutionizing Transfer: A Novel and Holistic Programmatic Model that Eliminated the Visible and Invisible Barriers to Student SuccessABSTRACTThe Guided Pathways initiative is among many reform efforts that have been implemented byhundreds of community colleges in the country. Four main practice areas are intrinsic of GuidedPathways: 1) mapping pathways to students’ end goals, 2) helping students choose and enter aprogram pathway, 3) keeping students on a path, and 4) ensuring that students are learning.Although this approach is an important step toward successful transfer
two-year colleges at the institutional level and documentsvariegated results. One study [1] compares full-time enrollment between Summer2019 and Summer 2020 and finds that there was a disproportionate decrease inenrollment for male and traditional-aged students, and a total of 57.7% percentagedecrease in engineering technology enrollment during this period. On the otherhand, another survey [2] showed that students were mostly enrolled in online andhybrid courses during the Fall of 2020, and the vast majority state that their coursesmet or exceeded their expectations. In addition, when asked which instructionalmethod they would prefer in the future, 25% chose traditional face-to-face classes,45% chose online classes, and 30% chose hybrid
standards for educational programs is a professionalresponsibility of the academic community, as is establishing accreditation criteria to ensure qualityis sustained—enter ABET. This paper summarizes the major efforts that led to Associate’s degreeprograms in cybersecurity, along with the motivation to create the first ABET Associate’s Cyberse-curity Program Criteria. It discusses the process to develop these cybersecurity criteria, describesthe current criteria, and presents the current status of the effort. In essence, this process reflects thematuration of the cybersecurity discipline.1 IntroductionCybersecurity professionals at all levels of preparation are in high demand, with predictions thatthere will continue to be a global shortage in
barriers to the success of CC students and CC transfers; changes infaculty and staff perceptions regarding CC transfers; and the effects of the program on CCstudent matriculation and completion of Lipscomb’s engineering program are presented.IntroductionThe National Science Foundation (NSF) created the Scholarships in Science, Technology,Engineering, and Mathematics (S-STEM) program to enable low-income, talented domesticstudents to pursue successful careers in STEM fields and contribute to the American innovationeconomy with their knowledge [1]. The NSF provides support to institutes of higher educationin a competitive grant process to develop S-STEM programs and encourages four yearinstitutions to collaborate and encourage students to complete 4
the ESP is guided mentorship by community college facultymembers. During Year 1, the ESP took an unstructured approach to mentoring, allowing individualmentors to determine and apply their own mentoring strategies. Research and evaluation resultsindicated that faculty mentorship during Year 1 increased students’ belonging, helped themmanage and encouraged them to persist through personal and academic challenges, andempowered students to describe themselves as contributors to the STEM disciplines. Students alsoreported that mentoring could be improved through additional mentorship structure, increasedmeeting frequency, and strategic mentorship pairing.When the ESP sought to pivot towards a more formal mentorship approach for Year 2, ready
platform than those that use their PC to do so [1]. To be sure, advancesin PC and smartphone hardware and software technology (memory capacity, operating systemimprovements, display and camera technology, etc.) coupled with Internet access speeds havedriven our acceptance and reliance on the Internet. But, to most consumers, the concept of mobilityhas been the key transformative technology. This mobility paradigm, implemented throughwireless technology, is most likely going to be the driving force behind the next generation ofInternet applications.Wireless is not a new technology. It has been with us for well over one hundred years. For a greatdeal of that time period, it was known as radio and was used to provide human-to-humancommunications and
matching their areas of strength. It can be as discouraging as being told, “Womenare supposed to stay home and have children!” as experienced by one author. In the career ofnursing, it is often overlooked that the nature of such a career can be technically and emotionallychallenging. While human relations are a large part of the work, the technical aspects arefrequently overlooked. It is particularly interesting to note that 75% of the teachers inelementary and secondary schools are women [1]. Of course, the women teachers are typicallyonly teaching non-technical subjects. From this history of rhetoric, is it any surprise that wecontinue to have such a small number of women entering the world of engineering? There hasbeen a major effort in the
university curricula. See his YouTube channel at: https://www.youtube.com/c/TheBomPE American c Society for Engineering Education, 2021 Adding Industry-Based Certification and a Recruiting Partnership to Increase High School Participation in a Workforce Pathways ProjectAbstractThe objective of this paper is to share how an industry-based certification (IBC) and a strategicrecruiting partnership were integrated with a federally-funded, Arduino-based high school dualenrollment course in basic electricity and instrumentation in order to increase high school teacherparticipation in the project (see Figure 1). Project COMPLETE is
and instructors assessment of student work and coursecomprehension. The net effect of these certifications is not only earned degrees, but employerability to validate prospective employee skill and knowledge outside of an academicenvironment.This paper presents the approach followed in developing in-depth, project-based learningopportunities using cutting-edge technology for the new academic pathway in cloud literacy andthe program outcomes. A discussion on the best practices and lessons learned whileimplementing the first year of the program is included.IntroductionThere is a significant shortage of experienced cloud professionals with 63% of U.S. organizationsexpecting this gap to widen in the next two years [1]. Cloud migration has
), 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
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
-wide with more than 2500 codes from more than 1500organizations [1]. The list is of interest in that it is not an engineering society exclusive list,there are many professional organizations beyond those associated with engineering that havesome written rule of ethics. The list is not limited to professional organizations but includesprivate industry and their interpretation of guidelines for use in conducting business [2]. It isinteresting to note that in the case of industry, the code may extend beyond guidelines forconducting business, and may include what form of punishment will imposed in the case ofviolation of the guidelines such as termination of a contract or employment [2].For engineering programs planning to submit a request for
computer scienceprograms, and limited number of admission spots for transfer students, are two formidablebarriers to academically talented, low-income students from neighboring community colleges. This program attempts to increase retention and persistence of community collegeengineering and computer science students with support at three distinct stages: pre-transfer,during transfer and post-transfer. The program intends to do this through removing orminimizing economic barriers and supporting student development in five areas: 1) academic--via tutoring and other academic support workshops; 2) engineering transfer/career path--via
The Missing Third: The Vital Role of Two-Year Colleges in Shrinking Engineering Education DesertsIntroduction and BackgroundTwo-year colleges have been shown to provide educational, economic, and health benefits totheir surrounding communities. These colleges serve a critical role in post-secondary educationby providing transferable starting access to many four-year degree disciplines along with two-year degrees and certificates. Just under half of four-year degree graduates have transferred incourses from at least one two-year college [1], and one of the key factors for making thattransition successful is the connections students make with the faculty at their two-yearinstitutions [2]. In addition
and Marshall College. Hye Rin’s research interests are self-reflection, academic interventions, online learning in education, mea- surement, temporal motivation, and resilience in students with disabilities. Specifically, her research focuses on (1) creating an effective intervention that helps URMs persist and continue on in STEM ma- jors via the social media platform, YouTube; (2) examining the nuances related to various measures of academic self-related motivational beliefs; (3) resilient students who achieve high levels of academic per- formance despite their disability; and (4) combining aspects of cognitive and positive psychology to study individual differences in motivation, particularly in exploring
welcoming climate as well as nurturingprofessors and students. The current study focuses on transfer students in engineering at a publicuniversity in the MidAtlantic. The data are drawn from a baseline survey about the climate fordiversity and inclusion administered to all engineering college students in the Fall of 2016 andrepeated mid-year 2018-9. Suggested supports for transfer students are discussed in the paper’sconclusions.IntroductionThe proportion of vertical transfer students from two-year to four-year institutions of highereducation has been increasing over the past several decades, and most recently since 2008 [1].This pipeline is especially important for minorities and underrepresented groups in highereducation, especially those of
[1]. Between 2010 and 2017, almost half ofU.S. baccalaureate degree earners had done some coursework at a community college, and almost20% had earned an associate’s degree [3].The National Academy of Engineering (NAE) has highlighted the importance of communitycolleges in broadening participation in engineering because of the diversity they represent [4], [5].In fall 2017, approximately 43% of Hispanic undergraduates, 42% of American Indian/AlaskanNative undergraduates, and 35% of Black undergraduates were enrolled in two-year institutionsacross the United States [1]. Among women, 31% of undergraduate students were enrolled in two-year colleges in fall 2017 [1]. More attention to supporting students on the transfer pathway intoengineering
–they are global in nature. Certainly, they are also self-serving because they indicate that thecompany doing the advertisement can supply either services and/or software or hardware toimplement these (marvelous) applications of technology (they are for profit businesses after all!).Furthermore, many of these same technology companies have web sites specifically devoted to theInternet of Things. IBM touts its Internet of Things Foundation and a quick google search of“Microsoft IoT” or “Microsoft Windows 10 IoT” brings back a variety of web sites devoted toMicrosoft’s products or services that can be used with IoT applications (see screen shot - Figure1). Figure 1. Screen shot of Microsoft web site from google search of “Windows 10 IoT
educational research in engineering and science HE-programmes. From 2012 until now she’s the vice dean of the Faculty of Engineering Technology (KU Leuven, Bel- gium). In her research she’s focusing on the transition from secondary to university within the STEM- field. She’s the project coordinator of the two following Erasmus+ projects: (1) readySTEMgo, in which she focuses on early identification of STEM readiness and on targeted academic interventions (see http://iiw.kuleuven.be/english/readystemgo) and (2) PREFER, in which she studies professional roles and employability of future engineers (see http://preferproject.eu/). Greet Langie is committee chair capacity building within SEFI, she’s a member of the SEFI Physics
research labs fully contained and established at each of thefour participating member institutions and it evolved into a collaborative effort to shareeffective new green technology content. Its goal was to impart skills to faculty members ofthis network in order to strengthen their capacities and arm them with additional resources tosupport their efforts in recruiting and retaining students, and in particular, minorities andfemales in STEM programs offered at their institutions.San Antonio College (SAC) as part of this network worked continuously on developing andimplementing new undergraduate research projects related to green technologies for the entireduration of this partnership making a commitment to 1) encourage STEM faculty to attend Re
workforce needs. Therefore, it isimportant to consider the professional development of community college faculty. Faculty incommunity colleges need to have training and preparation that allows them to provide engagingand content-relevant curriculum to their students.1 Context-based learning approaches have beenidentified as one type of pedagogical approach that can encourage student persistence to degreeand facilitate student learning.1Research shows that community college faculty need exposure to this teaching method as well asto other pedagogical approaches that encourage hands-on experiences for students.2 Access toprofessional development opportunities that expose faculty to these methods is needed so thatcommunity college students receive an
techniciansprograms [1]–[3].In its five-year history, KS has also provided technical assistance for developing and submittingproposals to NSF but has engaged 2-year HSIs exclusively. Prior to proposal development, KSfacilitates a STEM self-assessment and strengths/gap heatmap discussion with a cross-departmental STEM team at each participating college [4] [5]. KS then facilitates the 2-year HSISTEM team in developing a STEM plan and prioritized research concepts that align with theCollege Strategy, leverage STEM strengths, and address STEM gaps. This approach by KS hasgenerated a portfolio of potential research funding opportunities for STEM improvements at each2-year HSI prior to proposal development.The approach for the HSI ATE Hub is a 2-step intervention
increasing the probability of pursuing graduate education[1]. Also, research experiences can provide increased self-efficacy. Due to the lack ofopportunities at a two-year institution, a Research Experience for Undergraduates (REU)Program purposefully recruited from a local community college. By recruiting from communitycollege students, we provide opportunities to underrepresented populations, women, and otherswhich can meet the demand for science, technology, engineering and mathematics (STEM)graduates for the United States to remain globally competitive [2].As global competitiveness increases, community colleges can also help to increase interest inSTEM careers, especially engineering. Through research experiences, community collegestudents are
well as helping to improve thestudent’s design competencies that are necessary for AM. This current paper will report thenature of the current AM coalition and share a sample student project designed and producedduring the Fall 2018 semester. The feedback received from the students will also be shared.BackgroundAM, also known as 3D Printing, is one of the most commonly used fabrication technologies usedin design, STEM, art, and healthcare lately to solidify students’ learning and success [1]. It hasbeen proven that students who gain the skill sets of today’s industry have a better chance ingetting a competitive job in their future careers [2]. So, it is clear that the impact of AM onseveral fields is growing widely [3], [4]. However, several
preliminary findings from interviews with three Blackstudents who started their academic careers at several community colleges in a Mid-Atlanticstate before transferring to the flagship institution of that same state. Interview transcripts wereanalyzed and coded by different members of the research team to document rich themes. This research is part of a larger-scale, three-year, NSF-funded qualitative study, whichexamines the academic trajectories of two distinct groups of Black engineering majors: 1) Blacksborn and educated in the United States and 2) Those born and educated in other countries. Bylooking at these two communities, we will build upon past literature that disaggregates theexperiences of Black STEM students who represent multiple