AC 2011-2360: INSTRUCT INTEGRATING NASA SCIENCE, TECHNOL-OGY, AND RESEARCH IN UNDERGRADUATE CURRICULUM AND TRAIN-INGRam V. Mohan, North Carolina A&T State University (Eng) Dr. Ram Mohan is currently an Associate Professor with the interdisciplinary graduate program in com- putational science and engineering (CSE). He serves as the module content director for the INSTRUCT project. Dr. Mohan currently has more than 90 peer reviewed journal articles, book chapters and con- ference proceedings to his credit. He plays an active role in American Society for Mechanical Engineers (ASME) and serves as the chair of the ASME materials processing technical committee and a member of the ASME Nanoengineering Council Steering
during the Summer II term in 2010, for a total of100 students.It is one of the main goals of this new course to get students engaged in STEM fieldsthrough CBI, working in teams, and performing hand-on activities as early as possible inCollege. It is important that students integrate multidisciplinary knowledge andexperience real-world situations, not only to become engaged and motivated in thelearning process but also to acquire a holistic perception of the STEM education processas early as possible in their careers5-14.2. Education with Challenge-Based InstructionChallenge-based instruction contextualizes the knowledge and provides an environmentthat is knowledge, assessment, learner, and community centered15-20 to engage students inthe
, especially inthe pool of potential college students. Furthermore, increasing the participation of minorities inthe sciences, engineering and math fields is also a matter of fairness. Despite the growingnumber of STEM careers in the American economy, education statistics suggest that far too fewHispanic students are being encouraged and equipped to take advantage of opportunities intechnical disciplines. According to national statistics, Hispanics are not only the largest minorityin the United States but also one of the fastest growing [3-5].In the present paper, the Catalyzing and Supporting Minority Talent Development model ispresented, it is based on an integration of proven engineering education models, undergraduateresearch experiences, and
22.814.3on anecdotal evidence from teacher feedback to improve students’ understanding of fundamentalengineering concepts8,9,10. The Integrated Teaching and Learning (ITL) Program at theUniversity of Colorado at Boulder developed a Creative Engineering course for students at anearby high school. This course focused on hands-on design based engineering in conjunctionwith the high school curriculum and demonstrated that students had increased confidence in theuse of engineering methods to solve problems11.Research on learning styles reflects the positive impact of integrating kinesthetic learningenvironments with traditional learning structures. A recent study showed that learning is aconglomeration of a variety of interactions12. The results
ResearchInstitute‟s curriculum. The units, which are integrated with the wetlab curriculum (Table 6),emphasize research ethics, research integrity, and the ethical, legal, and social implications ofgenetic research, creating an essential and powerful learning experience. Table 6. Examples of Ethics and Science Topic Pairing Ethics Science Introduction to Ethics in Science, Proper Lab Safety and Pipetting Lab Record Keeping (lab notebooks) The Search for the Structure of DNA DNA Structure and Function Tutorial/Lab (case study)These teaching modules, which close with an interactive capstone project, assist the students inmaking the
the first semester of engineering physics.Among those six, one student achieved an A in engineering physics, one a C, and the other fourreceived grades of D or below—so physics achievement appears to be a major barrier for studentsuccess in the Engineering GoldShirt Program.The results from the first group of students who passed preparatory physics and then performedpoorly in engineering physics showed that their preparation was clearly insufficient. Thus, weredesigned the preparatory physics curriculum for the second cohort by consulting with twoprofessors from the physics department, reviewing course content with the GoldShirt team,obtaining feedback from students and integrating more learning technology into the curriculum.The changes
University Dr. Wei Zheng is an Assistant Professor of Civil Engineering at Jackson State University (JSU). He received his Ph.D. degree in Civil Engineering from University of Wisconsin-Madison in 2001 and has over 10-year industrial experience. Since becoming a faculty member at JSU in 2005, he has made continuous efforts to integrate emerging technologies and cognitive skill development into engineering curriculum. He serves as a freshmen advisor for the First Year Experience Program at JSU and is the Principle Investigator for ongoing CCLI-Phase I Project funded by NSF. He has led the new course module development for CCLI-Phase I project and integrated its implementation in his course at the Department of Civil
% implementation of training and integration of lean manufacturing principles at the 3.7L and 4.7L Mack Engine Facilities. In her current position as Minority Engineering Programs Director for Purdue, Virginia looks forward to continuing the legacy of MEP and addressing retention and matriculation issues using a ’lean manu- facturing’ engineering approach. Her current passion in this effort is to assist in the establishment of a standardized metric system that can be used to demonstrate the impact MEP has had (and continues to have) on increasing the number of engineering graduates from historically under-represented populations. Her passion is to assist in developing, assessing, and sustaining effective STEM initiatives. MEP
-authored three ASEE papers on FIRST LEGO League and engineering in the middle school classroom. My current projects include an NSF research project called Science Learning Integrating Design, Engineering, and Robotics (SLIDER) and a NASA online professional development course for K-12 teacher on Using LEGO Robots to Enhance STEM Learning.N. Anna Newsome, Center for Education Integrating Science, Mathematics, and Computing (CEISMC) atGeorgia Tech Anna Newsome serves as a Program Coordinator for the Center for Education Integrating Science, Math- ematics, and Computing (CEISMC), the K-12 outreach arm of Georgia Tech. She provides input and assistance to various projects at CEISMC, including Science Learning Integrating Design
building through commonresidence hall living assignments, common course scheduling, a specialized SLS seminar, timemanagement and study skills training12, supplemental academic advising10, professionaldevelopment and social events5. Research tells us that formalized mechanisms for structuringthis integration are significant for many students of color and those from lower socioeconomicbackgrounds whose prior social and academic experiences are less closely aligned with thestructure and culture of university life13.SLS students were encouraged to enroll each semester in an interdisciplinary service learningseminar focused on professional skills development and collaborative problem solving with localAmerican Indian communities. “Hands-on” experience
, “SAAST Robotics-An Intensive Three-Week Robotics Program for High School Students,” ASME International Design Engineering Technical Conferences, Las Vegas, Nevada, September 4-7, 2007.[12] Mechanical Engineering Undergraduate Education for the Next Twenty-Five Years, A Report on a Workshop for U.S. Mechanical Engineering Departments, M.I.T., Cambridge, MA, Oct. 7-8, 1996.[13] Engineering Education and Practice in the United States, National Academy Press, 1985.[14] Engineering Education: Designing an Adaptive System, Report of the NRC Board on Engineering Education, National Research Council, 1995[15] Joseph Bordogna, Eli Fromm, and Edward Ernst, "Engineering Education: Innovation Through Integration
to students the benefits of getting involved in research 2. Identify research opportunities (tribal college, NDSU, UND, industry, federal/state agencies. 3. Acquire necessary equipment and instrumentation 4. Determine whether or not to include the project in the curriculum or if it should be used as an enrichment activity for selected students only 5. Decide what measures will be used for evaluationNative Science ConceptsNative people have understood that nature was not merely a collection of objects. Throughstories, art and ways of community, Native tribes have expressed science as ever flowing andinseparable from our own perceptions with nature at the center19. They believe that everythinghas a spirit and everything is
AC 2011-698: EFFECTIVENESS OF TEAM-BASED STEM PROJECT LEARN-ING TO RECRUIT MINORITY HIGH SCHOOL STUDENTS TO STEMJean Kampe, Michigan Technological University DR. JEAN KAMPE is currently department chair of Engineering Fundamentals at Michigan Techno- logical University, where she holds an associate professorship in the Department of Materials Science and Engineering. She received her Ph.D. in metallurgical engineering from Michigan Tech, M.Ch.E. in chemical engineering from the University of Delaware, and a B.S. degree in chemical engineering from Michigan Tech. She was employed as a research engineer for five years at the Naval Research Laboratory in Washington, DC, and she held an associate professorship in the
AC 2011-1742: ”SUCCESS IS DIFFERENT TO DIFFERENT PEOPLE”:A QUALITATIVE STUDY OF HOW AFRICAN AMERICAN ENGINEER-ING STUDENTS DEFINE SUCCESSQuintin S. Hughes, University of Oklahoma Quintin Hughes received both is B.S. (2004) and M.S. (2009) in Industrial Engineering from the Univer- sity of Oklahoma. He received a Bridge to Doctorate graduate fellowship to fund his Master’s research, which was centered in Engineering Education and sought to understand the pre-college influences of suc- cessful African American engineering students. He is currently an Industrial Engineering doctoral student with the same emphasis in Engineering Education. His doctoral research will take a further look at identi- fying common success
graduate students to select and pursue a major in an Engineering or STEM discipline, and find scholarships to fund their studies • faculty to survive the tenure process and thrive in an academic environment • academic administrators to get training in academic administration • professionals to thrive and stay viable, competitive and current in their professional life • researchers who want to study, publish and get funding for research in pedagogy and diversityBy collecting links in one place that are helpful throughout the lifetime of a minority or womeninterested in a career in engineering, it is hoped that this gives the reader a lifelong perspective ofconsidering the entire career and short and long term opportunities
with theentire summer (10 weeks typically) after high school being used to teach Group I studentsCollege Algebra. This reserves Trigonometry for the first semester in the Fall of their Freshmanyear and Calculus I for the Spring semester of the Freshman year. This necessitates a secondsummer session after the Freshmen year for Community College Group 1 students so they canreceive an Associates degree in May of their sophomore year and join their high school peergroup at the University for their Junior Year. Table 8 summarizes the Group 1 and Group 2 fouryear programs from the mathematics curriculum perspective. Group 1 (Community College) Group 2 17 ≤ Math ACT ≤ 20 20
AC 2011-1548: METRICS OF MARGINALITY: HOW STUDIES OF MI-NORITY SELF-EFFICACY HIDE STRUCTURAL INEQUITIESAmy E. Slaton, Drexel University (Eng.) Amy E. Slaton is an associate professor of history at Drexel University and a visiting associate professor at Haverford College. She received her PhD in the History and Sociology of Science from the Univer- sity of Pennsylvania and has written on the history of standards and instrumentation in materials science, engineering and the building trades. Her most recent book , Race, Rigor, and Selectivity in U.S. Engineer- ing: The History of an Occupational Color Line (Harvard University Press, 2010), traces American ideas about race and technical aptitude since 1940. Current