needed for America to compete in the diverse globaleconomy. This outreach effort has been designed and implemented with the aim of instillingan interest in computer science, engineering and entrepreneurship among the futureinnovators of America.LEAD-SEI’s three-week core curriculum consists of a team-based research project andcomputer science. These components allow groups to develop innovative solutions,products/prototypes, business plans and technology driven presentations to address real worldproblems; including the global challenges of the 21st century. In addition to theaforementioned, participants learn the scope of the different engineering fields fromUniversity professors and graduate students. Beyond discovering computer science
students to enter theworkforce (Entrepreneurship Path) or to pursue a graduate degree (Research Path) following thecompletion of a baccalaureate degree in a targeted STEM discipline. This goal is facilitatedthrough scholarships offered by the program to qualified student participants in the last twocollege years (maturing years – juniors and seniors), a mentorship program (faculty and industrymentors), and enhanced educational opportunities (Distinguished Speaker seminar series,Symposium, learning community). The program continues the efforts of and recruits fromanother NSF-funded program, Science, Technology, Engineering, and Mathematics TalentExpansion (STEP) program, which focuses on the first two student college years (early years—freshman and
, researchers have found ways to link African American malescommunicating in cultural practices such as playing Spades, a card game, with the practice ofargumentation in science classrooms. [15]Business and ManagementBusiness and management in the African American community is often tied to concepts ofinnovation, entrepreneurship and identity. As with many instances of entrepreneurship, needdrives business in the Black community. Racism and segregation, had an unanticipatedbyproduct that no one could have planned - the birth of successful Black business which had aniche market, their own people. The following themes will be discussed and will help to situatethe attribute in the lived experiences of Black people: service oriented entrepreneurship
Paper ID #10041Dialogue of Innovation: Did you come to See or did you come to Stay?Mr. Richard Harris, Northeastern University Richard Harris College of Engineering Assistant Dean for Academic Scholarship, Mentoring & Outreach Director, NUPRIMEMs. Lauren Machunis, Northeastern University Lauren Machunis is an undergraduate Academic Advisor in the College of Engineering at Northeastern University, where she advises first year students, as well as upper class students majoring in Chemical Engineering. Additionally, she is an adjunct instructor in Liberal Studies within Northeastern’s College of Professional Studies
minority girls think aboutSTEM and to unveil careers in STEM, especially engineering, they might not have otherwiseconsidered. The framework of our mixed-methods study is socio-cultural and critical race theorywith a feminist perspective. Most of the data analysis tools are qualitative but some surveys arealso conducted. In its first year, we saw what we believe to be a fear response from the girls ingrades 4-5. During both the in-class and the staged interviews the teachers and coordinatorsinfluenced students to give the “right answers.” We believe this behavior has the same roots asthat of the girls: a fear of failure. In this case the teachers are trying to mitigate the girls’ failure.Because our second-year curriculum has a strong engineering
students interested inpursuing STEM careers 1. Literature suggests that female students tend to lose interest inpursuing STEM classes and careers between the 6th – 8th grades.2-4 This is attributed to a lack inrole models, gender biases, and negative peer pressure suggesting female students are not good atscience and math.3, 5, 6. The North Carolina A&T State University (NCA&T) Case Studies inScience and Engineering Enrichment Lab program is an informal science and engineeringeducation program in its third year of operation. It is a hands-on STEM program designed to useguided inquiry and case studies to teach critical process skills for scientific inquiry. Theoverarching goal of the program was to identify how an all-female environment
application (app)development and 3) mentoring from college students and minority men. In addition, eachinstitution has added unique elements based on capabilities and philosophy. These activitiesexposed participants to activities designed to enhance their knowledge of personal development,entrepreneurship, and other STEM topics, and included workshops and field trips. For example,one university integrated robotics into the program activities and provided competitiveopportunities. Participants are drawn from middle schools (grades 6 – 8) that enroll at least 40%of students from families falling at or below 185% of the poverty line ($44,863 in 2015, for afamily of four), as measured by students receiving Free And Reduced Meals (FARMs)26,27.However
Paper ID #23814Effects of Research and Internship Experiences on Engineering Task Self-Efficacy on Engineering Students Through an Intersectional LensAbisola Coretta Kusimo, Stanford University - Mechanical Engineering Dept. Abisola Kusimo received her bachelor’s degree in mechanical engineering with minors in Rhetoric Com- munication, Engineering Leadership Development, and Technology Entrepreneurship from the University of Maryland, College Park in 2015. She is currently pursuing a Ph.D. at Stanford with a focus on Addi- tive Manufacturing in highly-constrained environments and is a National GEM Ph.D. Fellow, American
Paper ID #10977Can an engineering summer bridge program effectively transition underrep-resented minority students leading to increased student success?Dr. Darryl Dickerson, Purdue UniversityFreddy Solis, Purdue University, West Lafayette Freddy Solis is a doctoral candidate in the School of Civil Engineering at Purdue University, West Lafayette, Indiana. He holds a civil engineering degree from the Universidad Autonoma de Yucatan, Mexico, and M.Sc. in civil engineering and MBA degrees from Purdue University. His research focuses on innovation, design, entrepreneurship, and engineering education.Ms. Virginia Booth Womack, Purdue
research.Lorelle Meadows, University of Michigan Lorelle Meadows, Ph.D., is Director of Academic Programs in the College of Engineering at the University of Michigan. In this role, she holds primary responsibility for the design, management and delivery of the first year program to undergraduate students. She also serves as a catalyst for coordination among the engineering programs encompassed by the Office of Undergraduate Education, including the Center for Entrepreneurship, the International Programs Office and the Multidisciplinary Design program.David Lorch, University of Michigan David Lorch, Ph.D., received his B.S.E. (Mechanical Engineering), M.S.E. (Biomedical Engineering) and Ph.D
questions: “Howcan I make my shock absorber stronger?”, “Why doesn’t my rocket go straight?”, "Whatball worked better and why?”, “What kinds of wings can we make?”, and “Why arelighter materials better.?”Second year project findings show children are learning new concepts and vocabularyand actually remembering them weeks and months after the class is over. In fact, nearlythree quarters (74.8%) of children reported that since participating in Family Science,they have a better understanding of science and engineering.Children said they share their knowledge with their siblings and friends after they learnsomething interesting in the Family Science Workshop. The children feel empowered toshare what they know with others. Some children have been
teambased design project. All 20 freshman S-STEM scholars were required to enroll in the class infall 2008, and the eight freshmen from the 2009 cohort were enrolled.Chemistry 1201 All 2008 S-STEM freshmen scholars enrolled in CHEM 1201 in the fallsemester except for two students who took the honors equivalent of the course. The mean GPAin chemistry for this freshman S-STEM cohort was 2.91 for this course. Only 5 students in the2009 S-STEM freshman cohort enrolled in CHEM 1201 in the first year at LSU, and the meanGPA in chemistry for this cohort was 3.34.Math LSU placed students into appropriate level math classes based on the student’s ACT mathscore and the departmental placement test score, therefore both freshmen cohorts were enrolledin a range
Cleveland OH where she manages a cowork- ing space and promotes community and diversity in the city’s entrepreneurship ecosystem. She served as an AmeriCorps VISTA member at California Polytechnic State University in San Luis Obispo where she was involved with a variety of diversity and inclusion efforts in the College of Engineering ranging from student support programs, faculty bias awareness trainings, and inclusive cultural change. Prior to her work at Cal Poly, received a B.S. in Industrial and Systems Engineering from Ohio State University, where she was also very involved with social justice initiatives.Dr. Katherine Chen, Worcester Polytechnic Institute Dr. Katherine C. Chen is the Executive Director of the STEM
, identity wheel activity Week 5 Values affirmation activity, time management activity Week 7 Current events and social issues research project and presentation Week 8 STEM outreach training and volunteering Week 9 Social entrepreneurship presentation Week 10 Final class celebration and reflectionThe curriculum incorporated collaborative learning activities and a variety of speakers to makethe course interactive and engaging. Multiple class sessions were dedicated to exposing studentsto different types of engineering and career opportunities. In the beginning of the quarter, wepresented students with information about all the engineering
Paper ID #34661WIP: Assessing Engineering State of Mind of First-Year UndergraduateAfrican American/Black Students in Scholar ProgramsJameka Wiggins, University of Maryland, Baltimore County Jameka Wiggins is an undergraduate senior Chemical Engineering major and Entrepreneurship minor at the University of Maryland, Baltimore County (UMBC). She is a member of the Center for Women in Technology and Ronald E. McNair Scholar Programs, as well as a Senator for UMBC’s Chapter of The National Society of Black Engineers. Her research fields include the use additive manufacturing to create biomass containment devices and the
technology administration, computer science, computerengineering, and mathematics. Demographic information about undergraduate students at thissite are given in Table 2. Table 2: Demographic information about undergraduate students in the IPS class. Semester 1 Semester 2Student Student Gender Major Gender Major ID ID Business Technology UG1 Female Computer Engineering UG7 Female
process that engages local needs experts, who are people with disabilities and organizations that support people with disabilities. 2. Through this course, we provide an example of an inclusive culture in engineering. 3. The HuskyADAPT course is an example of integrating accessibility into a design course, which aligns with the recent addition of accessibility in the ABET definition of engineering design [7]. 4. The service learning component of our course may be especially attractive to underrepresented students in engineering, as engineering courses that include service learning commonly enroll a higher number of underrepresented students [8-12], and engineering classes or projects with clear service
freshmen ENG^2 scholars were required toenroll in the class. The course provides in-depth information on the types of engineering, careeropportunities, degree programs, assistance in the career decision processes, the basics of theengineering design process, and reinforcement of the importance of communication, studyhabits, teamwork and continued professional development within the engineering profession.Students are required to maintain a design and professional development journal, attend a careerfair and work on a team based design project. Total enrollment in the fall 2008 class was 76students at day 14, and the fall 2009 class enrollment was 64 at day 14.“Discipline Chats” were held to provide in-depth information about the specific
[7]. Our model leverages the nine broad "Core Competency" areas for professional developmentestablished by the Graduate College at N.C. A&T. The nine Core Competencies are as follows:1) Career Development, 2) Communication, 3) Disciplinary Expertise & InterdisciplinaryConnections, 4) Entrepreneurship, 5) Global Awareness & Cultural Sensitivity, 6) Leadership &Management, 7) Personal Development, 8) Research, and 9) Teaching. For each of these CoreCompetency areas, students develop skills that build cumulatively in the course of their graduateeducation and their subsequent faculty career.For participants in the Preparing Future Minority Faculty for the Professoriate Program, the corecompetencies model discussed above forms a
AC 2012-3600: MIND LINKS 2012: RESOURCES TO MOTIVATE MI-NORITIES TO STUDY AND STAY IN ENGINEERINGDr. Maria M. Larrondo-Petrie, Florida Atlantic UniversityDr. Ivan E. Esparragoza, Pennsylvania State University Ivan E. Esparragoza is an Associate Professor of engineering at Penn State, Brandywine. His interests are in engineering design education, innovative design, global design, and global engineering education. He has introduced multinational design projects in a freshman introductory engineering design course in collaboration with institutions in Latin America and the Caribbean as part of his effort to contribute to the formation of world class engineers for the Americas. He is actively involved in the International
Paper ID #22321Reflections on a new community partnership: How does an engineering sum-mer camp evolve to meet the needs of an increasingly diverse student popula-tion? (WIP)Emily E. Liptow, California Polytechnic State University, San Luis Obispo Emily Liptow currently works at a tech startup accelerator in Cleveland OH where she manages a cowork- ing space and promotes community and diversity in the city’s entrepreneurship ecosystem. She served as an AmeriCorps VISTA member at California Polytechnic State University in San Luis Obispo where she was involved with a variety of diversity and inclusion efforts in the College of
, Technology, and Engineering and Math (STEM) programs relies heavilyon authentic partnerships. True partnerships are not just a transfer of monetary resources, but acombination of time, effort, access to cutting-edge technology and world-class laboratories, etc.Partnerships require commitment from all individuals and groups involved, in the case ofunderrepresented minorities, an evolving level of social and institutional cultural competence isalso required.Why are partnerships so important to the continuation of these vital programs? One of the largestnational deficits is the lack of STEM professionals, educators, and students currently studying inthe science and technology fields. It is imperative that we combine our resources to provide amulti
accompanying related Grand ChallengesScholars Program website: http://www.grandchallengescholars.org/. There are a series of eventsscheduled posted at http://summit-grand-challenges.pratt.duke.edu/ with the goals to:1. Enhance student interest in engineering and science.2. Increase the visibility and importance of engineering and science to society.3. Underscore the importance of recognizing that engineering education must be coupled to policy/business/law and must be student-focused.4. Enhance student interest in engineering, science, and technology entrepreneurship.5. Foment future collaborations of interested scientists, engineers, policy makers and researchers in business, law, social sciences and humanities needed to successfully address
in campus activities has been demonstrated to be important to cognitivedevelopment and persistence, as well as the accumulation of important social and culturalcapital.27-29 However, the benefits of involvement may be differently distributed among studentsfrom dissimilar social-class backgrounds. Specific differences, such as low SES students’ need towork, affects the amount of time they can commit to extracurricular activities such as ECT.30Faculty must recognize that subjective thresholds of time commitment may exclude somestudents from participation.We acknowledge that many different dimensions of diversity impact students’ experiences inengineering education and that these interlocking “inequality regimes” create different barriersfor
size in prior research. High schools in the region vary from agraduating class of 20to a class of over 400. The MIDFIELD study found there are differencesin retention in engineering that correlate to high school size (Chen & Ohland, 2012; Orr,Ramirez, & Ohland, 2011). In addition, high school STEM course offerings vary by school size;the smallest schools offer only the state requirements in mathematics and science, while thelarger schools offer advanced math and science electives. Huang (2000) found a statisticallysignificant difference in the availability of Advanced Placement (AP) or college level courses inPhysics and Chemistry for Hispanic high school students in comparison to white and Asianstudents. There are also teacher
, science, and technology entrepreneurship. Page 15.874.95. Foment future collaborations of interested scientists, engineers, policy makers and researchers in business, law, social sciences and humanities needed to successfully address these complex societal issues.A critical factor in determining whether a student will be successful in engineering is theirexposure to Mathematics. Teachers and counselors profile students into college bound and notcollege bound during their K-12 years, and have been criticized for not motivating or counselingminority and female students to take rigorous math courses. A poster is available throughNACME
implementation of best practices within deaf education at the postsecondary level[9].During the 2017-18 academic year (fall 2017 and spring 2018), the R&D center’s researchfaculty and students worked on several projects. The R&D center encourages students to developand test prototypes of devices to benefit individuals with diverse abilities. Numerous prototypesand services directly resulted from the creative work of DHH students which was thoroughlyvetted by subject matter experts, many of whom are DHH. Selected projects are listed below. • Real-Time Translation Service: The R&D center has been conducting a pilot program with Microsoft Translator, an automatic speech recognition (ASR) technology, in several classes. The ASR
population of students because it provides a framework for describing class, gender, ethnic,racial, and geopolitical issues that these youth confront, suggesting a more distinct framework of race relations that includescitizenship, phenotype, residency status, immigration, language, and history3. Borderlands theory highlights three main componentsincluding: 1. Shifting identities, 2. Critical discourse: Talking Back, and 3. Staying connected through Sitio y Lengua (decolonizing spaces and discourses).The work of Bernal et al. (2009) is significant because of the application of Borderlands theory to Mentoring and it’s intersect withService-learning in order to provide a service to Latinas/os elementary school
Pittsburgh Dr. Mary Besterfield-Sacre is Associate Dean for Academic Affairs and Nickolas A. DeCecco Professor in Industrial Engineering at the University of Pittsburgh. She is the Founding Director for the Engineer- ing Education Research Center (EERC) in the Swanson School of Engineering, and serves as a Center Associate for the Learning Research and Development Center. Her principal research is in engineering education assessment, which has been funded by the NSF, Department of Ed, Sloan, EIF, and NCIIA. Dr. Sacre’s current research focuses on three distinct but highly correlated areas – innovative design and entrepreneurship, engineering modeling, and global competency in engineering.Dr. Wendy Carter-Veale, University
the tensions between student values and the dominant discourse thathe observed in an undergraduate engineering program [5], a research study exploring thecultures, structure, composition, and processes of a variety of student engineering teams [6], anexploratory study on the relationships between student characteristics such as socio-demographictraits and academic performance, and entrepreneurship education programmatic choices such asacademic and co-curricular programs [7], redesigning a bridge experience that supportscommunity college students’ transition to university STEM programs [8]. The paper by Paguyo,et al., Creating Inclusive Environments in First-Year Engineering Classes to Support StudentRetention and Learning, [4] was selected as