Influential Interventions: Improving STEM Learning Outcomes for Underrepresented Students James Diedrick, Associate Dean of the College Drew Homa, Academic Assessment Coordinator 25th International Conference on The First-Year Experience Vancouver, B. C. • July 17, 2012 Agnes Scott College Atlanta, Georgia Student Body as of Fall 2011: 883 students, representing 41 states and territories and 29 countries 89% of traditional students live on campus 11% are international students More than 40% are students of color. About 40% will study abroad before they graduate Historically and presently, Agnes Scott students have earned academia’s most prestigious scholarships including the Marshall, Rhodes, Fulbright, Goldwater, the Pickering Fellowship and the Gates Millennium Scholarship. Students in the Generating Excellence in Math & Science Summer Scholars Program (GEMS), Summer 2011 Our Commitment to STEM Education Majors: Biology, Biochemistry and Molecular Biology, Chemistry, Mathematics, MathematicsPhysics, Mathematics-Economics, Neuroscience, Public Health, Physics & Astronomy Dual degree programs in Engineering, Computer Science and Nursing with Emory University & Georgia Tech State-of-the art facilities in new science building, observatory on campus Emphasis on supporting & encouraging women in pursuit of STEM fields Increasing Ethnic Diversity 1992-2011 1992 2011 2002 17.9% 32.5% 4.0% 3.9% 74.2% White 40.4% 44.1% 4.5% 5.2% 57.9% Non-resident International White 4.7% 10.8% Increasing Ethnic Diversity 1992-2011 100% Diversity on Campus: Total Undergraduate Population 90% 80% 70% 100% Diversity on Campus: Total First-Year Population 90% 80% 70% 60% American Indian/Alaska Native 60% American Indian/Alaska Native 50% Unknown 50% Unknown Hispanic 40% 30% 20% Two or more races Asian/Pacific Islander Asian/Pacific Islander Non-resident International 20% Non-resident International White 0% Two or more races 30% African American 10% Hispanic 40% African American 10% White 0% 1992 2002 2011 1992 2002 2011 Achievement Gap for URM STEM Students Analysis of performance in introductory STEM courses clearly demonstrated a trend that faculty had long noticed (data from 2004-2009) Achievement gap persists even for students who choose to major in a STEM discipline Percentage of STEM Majors Having a GPA ≥3.33 (2010) GEMS Summer Scholars on field trip to Georgia Aquarium, 2011 Began 2007 Year-round program aimed at supporting the success of students pursuing majors in mathematics and/or the natural and physical sciences GEMS Summer Scholar Program, 2009-2011 Activities include bi-monthly meetings, excursions, service projects and collaboration with ASC faculty Students encouraged to take advantage of academic support centers. Living-Learning component initiated for 2012-13 year. Generating Excellence in Math & Science GEMS Program Factors influencing success & persistence in STEM Family Background Skills & Abilities Classroom Climate Stereotype Threat Prior Schooling Feedback on Learning Inquiry-Based Learning Decision to enroll in STEM class/major Exposure to RealWorld Applications & Careers Extracurricular Activities University of Michigan Center for Research and Learning Peer Group Interactions Potential for peer-led Supplemental Instruction in gateway math & science courses to have a positive influence Academic Integration Re-evaluate commitments & goals Social Integration Decision to persist or depart from STEM Teagle Foundation Support for Interventions to Promote STEM Student Success Two-year grant received in collaboration with Davidson College to develop academic support initiatives that particularly benefit first generation and URM students Initiative runs from August 2011-May 2013 Goal includes use of student learning outcome data to continue the levels of academic support beyond the funding period Initiative includes joint meetings of two institutions, workshops on campus climate issues, stereotype threat, STEM pedagogy Project Objectives Increase student success and persistence in STEM disciplines by adding peer-led supplemental instruction (SI) sessions to gateway math and science courses All students are encouraged to attend SI sessions Specific impact to URM and first generation students determined through assessment SI has been associated with more dramatic gains among URM students than among their peers* Addressing/improving campus/classroom climate issues (Diverse Learning Environments Survey (DLE) administered Spring 2012, comparative data to be released September 2012) * Rath, Kenneth, et. al. “Supplemental Instruction in Introductory Biology I: Enhancing the Performance and Retention of URM Students” (CBE – Life Science Education 6 [2007]:203-216). New forms of academic support Coordinator for Resource Center for Math & Science (RCMS) Assisting in facilitating the implementation and assessment of the SI program Supporting & coordinating the work of all LA’s and peer tutors (individual peer tutors have been in place for two decades) Increasing the level & variety of academic support available to our students in math and the sciences Peer Learning Assistants (LA’s) Juniors or seniors selected by faculty Training: 2-day session in August, ½ day session in January, and on-going training at regular meetings throughout each semester Responsibilities: attending course lectures, leading SI sessions, developing workshop content (to varying extents), holding 1:1 tutoring hours & attending regular staff meetings Grant support allowed for hiring students not eligible for traditional work-study Math & Science Learning Center Coordinator Dr. Molly Smith, Math & Science Learning Center Coordinator Ph.D. in Chemical Engineering from University of Michigan 6 years experience working in a university environment as a graduate student, including voluntary service roles in coordination, leadership and planning of education programs and events 5 years corporate experience managing projects and programs involving team members in multiple locations and partners at other companies and universities; included teaching intensive mini-courses on biology and chemistry fundamentals for employees Dr. Molly Smith Ethnic & Racial Diversity of LA’s 2011-12 2012-13 9% 17% 8% 36% 50% 55% 25% White White Total of 11 LA’s for 2011-12 and 12 LA’s for 2012-13 SI Implementation: Overview Implemented SI in 6 gateway math & science courses (13 total sections, 194 individual students) during 2011-2012 FALL 2011 Biology 191: Cell and Animal Biology Chemistry 101: Fundamental Concepts of Matter and Reactions Math 118: Calculus I SPRING 2012 Biology 192: Molecular Biology and Genetics Chemistry 102: Periodicity and Chemical Reactions Math 118: Calculus I Math 119: Calculus II SI Implementation: Overview Some aspects of implementation were common across courses, while others varied by course/professor COMMON All students encouraged to attend SI SI sessions offered weekly, in the evenings SI sessions led by peer Learning Assistants (LA’s) LA’s attend course lectures as often as possible VARIED Method of encouraging attendance Number of sessions per week Level of guidance professors provided LA’s for SI content Supplemental Instruction Rubric Session Date & Day of Week: __________________ SI Leader: ______________ Course: ____________________ Course Instructor: _______________________ Objective: What are the two most difficult concepts the students need to work on today? _________________________________________________________________ _________________________________________________________________ Beginning reminders: Arrange seats in a circle Hand out Participation Log Set agenda with group Remember to relax and be flexible! Supplemental Instruction Rubric - continued Content to cover Processes to use* Possible Processes: Informal Quiz, Matrix, Reciprocal Questioning, Paired Problem-Solving, Turn to Use Your Partner, Note Processing, Problem-Solving Rubric, Formal Definition (or ID’s), Text Review (Divide and Conquer), Pictorial Representations, Sequencing Closure options: Predict next lecture, summarize session, informal quiz, 1-minute writing --Rubric adapted from Deanna, Martin C. and David R. Arendale, Supplemental Instruction: Improving First-Year Student Success in High-Risk Courses. (National Resource Center for the Freshman Year Experience, University of South Carolina, 1992). SI Implementation: Details Fall 2011 LA’s SI/week Attendance Incentive 3 sections 3 profs 4 4 Encourage mid 76 3 sections 2 profs 2 4 Require high 29 1 section 1 prof 2 Exam Bonus Points (starting½ way) high Course Enrolled BIO 191 95 CHEM 101 Math 118 # Sections & Profs 2 Guidance to LAs* Definitions for level of guidance provided to LA’s Low: LA’s develop nearly all content, based on their observations during lecture & recollections from when they took the course Mid: Profs & LA’s meet weekly to discuss possible SI topics and profs provide some guidance on specific exercises/problems to do High: Profs provide detailed worksheets and meet regularly with LA’s SI Implementation: Details Spring 2012 Course BIO 192 CHEM 102 Enrolled # Sections & Profs 63 2 sections 2 profs 60 LA’s SI/Week Attendance Incentive 3 3 Encourage Low Encourage* Mid* Require* High* 2 sections 2 profs 2 Guidance to LAs 4 MATH 118 30 1 section 1 prof 2 2 Exam bonus points High Math 119 29 1 section 1 prof 1 2 Exam bonus points High * Each CHEM 102 professor used a different approach to encourage attendance Assessment Methodologies Quantitative Data SI session attendance logs Mid-term and Final grades Descriptive student variables (class year, URM, FGEN, etc.) Qualitative Data Focus group interviews with First-Year students in STEM gateway courses Meetings and focus groups with Learning Assistants Workshops and discussions with STEM faculty using LA’s and SI Session Attendance Trends 194 Individual students participated Of those, 135 (70%) were “Target” students, either FGEN or URM Since some students took more than one course, we have a total of 346 class-students who we studied. Of those 346 students, 254 (73%) of them participated in at least 1 workshop The ratio of Target students who participated in workshops is the same as those attending the class (108 of 156 = 70%.) SI Attendees Perform Better Overall 4 Average 3Final Grade SI Group Non-SI Group 2 1 0 191 BIO 192 101 CHEM SI Group: attended 2 or more sessions 102 118 FA 118 SP 119 MATH Non-SI Group: attended 0 or 1 session(s) Varied Levels of Session Attendance Times Attended Semester 11/FA 11/FA 11/FA 11/FA 11/FA 11/FA 11/FA 12/SP 12/SP 12/SP 12/SP 12/SP 12/SP Class BIO-191 BIO-191 BIO-191 CHE-101 CHE-101 CHE-101 MAT-118 BIO-192 BIO-192 CHE-102 CHE-102 MAT-118 MAT-119 # students 28 41 17 24 27 23 26 21 33 23 37 25 24 0 46% 22% 41% 8% 37% 17% 31% 33% 12% 30% 41% 24% 4% 1-2 11% 24% 29% 8% 15% 22% 42% 19% 15% 13% 19% 16% 25% 3-5 32% 20% 6% 33% 30% 22% 19% 14% 30% 17% 16% 16% 33% 6+ 11% 34% 24% 50% 19% 39% 8% 33% 42% 35% 22% 44% 38% Positive Impact of Regular SI Attendance From Mid-term Grade to Final Grade... Grade Improved or was an A at mid-term No Change Worsened Target Students (40%) 95 (22%) 53 (38%) 89 Non-Target Students (55%) 55 (43%) 43 (16%) 16 ...Based on Number of Sessions Attended 0.5 0.4 0.3 Percentage of Students 0.5 # times attended 0.4 0 0.2 0.3 Percentage of Students 0 0.2 0.1 0.1 0 0 I mproved or A at mid-term # times attended I mproved or A at mid-term Comparison of Fall and Spring Performance From Mid-term Grade to Final Grade From Fall 2011 to Spring 2012 Of the 102 students who took an SI class in both semesters: More sessions attended in Spring than Fall Same sessions attended in Spring as in Fall Fewer sessions attended in Spring than Fall No sessions attended Fall or Spring More improvement in Spring than Fall Same improvement in Spring and Fall 19 6 14 2 4 5 2 2 10 3 21 3 11 Less Earned A's at improvement Mid-term and in Spring than Final, both Fall Fall and Spring Samples of Student Feedback—first years [My LA] helps me to restore my faith in chemistry and want to study more. She has been very helpful, kind, patient, and honest. She explains topics in real world scenarios by making references to reality TV shows, elementary schools, and everyday life situations. At times when the textbook and word problems become to wordy she breaks them down into smaller simpler pieces that help me to piece things together and think through the question in a more useful, sensible way instead of getting stressed out and giving up. She teaches us with authority while showing humility and compassion, which makes it easier to relate to her and ask her questions that might seem trivial. I do not know what I would have done this semester without her help. The [LAs] were complete life savers- always so friendly and able to help. I absolutely loved them and was privileged to work with them. Samples of LA Feedback “What were some of your favorite things about being a Teagle Learning Assistant?” Getting to work with students and feeling a sense of accomplishment knowing I helped them learn something. Students trusted and respected me and I had an active role in helping them succeed. Helping others understand concepts and seeing them apply them to all areas. Having a close bonding with first year calculus students Having the experience of teaching college material. Having fun creating new forms of teaching and activities Sharing the excitement of every “aha” moment; and of course introducing the world’s coolest subject to a new generation Next Steps/Future Plans… SI Rubric used by all faculty Move from encourage to require attendance at SI sessions Facebook page to facilitate contact between students and LAs Sharing positive impacts we’ve seen with students Analyzing DLE data and comparing ASC with national data Adding additional classes to SI/LA initiative (Physics) Working with Davidson College to compare findings and best practices Selected References Brown, Marie Kendall, et al. “Teaching for Retention in Science, Engineering and Math Disciplines: A Guide for Faculty” University of Michigan Center for Research and Learning Occasional Paper No. 25, 2009. Davis, Jeff. The First-Generation Student Experience: Who They Are, Their Characteristics, and Strategies for Improving Their Persistence and Success. Stirling, Virginia: Stylus, 2010. Deanna, Martin C. and David R. Arendale. Supplemental Instruction: Improving First-Year Student Success in High-Risk Courses. The Freshman Year Experience: Monograph Series Number 7. 3 rd Ed. Columbia, South Carolina: National Resource Center for the Freshman Year Experience, 1992. Eagan, Kevin & Jessica Sharkness. “A Strong Start in the Sciences: Factors Influencing Minority Students’ Academic and Social Engagement.” Conference Presentation, 28 th Annual Conference on the First Year Experience, Orlando, FL February 2009. Freeman, Scott, et. al. “Prescribed Active Learning Increases Performance in Introductory Biology. CBE— Life Sciences Education, 6 (2007): 132–139. Jones Taylor, Valerie and Gregory M. Walton. “Stereotype Threat Undermines Academic Learning (Personality and Social Psychology Bulletin 37 (2011): 1055–1067. Rath, Kenneth A., et. al. “Supplemental Instruction in Introductory Biology I: Enhancing the Performance and Retention of Underrepresented Minority Students.” CBE—Life Sciences Education 6 (2007): 203– 216. Steele, Claude. “A Threat in the Air: How Stereotypes Shape Intellectual Identity and Performance” American Psychologist 52 (1997): 613-629. Thanks to: Dr. Molly Smith, Math & Science Learning Center Coordinator Dr. Lerita Coleman Brown, Director of the Science Center for Women Jennifer Cannady, Assistant Dean of the College, Director of Academic Advising & Student Success Agnes Scott students, staff & STEM faculty Agnes Scott ITS Staff Bradley Observatory And also thanks to: Dr. Laura Palucki-Blake, Assistant Director of the Cooperative Institutional Research Program (CIRP) at the Higher Education Research Institute, UCLA Dr. Valerie Jones Taylor, Assistant Professor of Psychology at Spelman College The National Center for the First-Year Experience and Students in Transition The Teagle Foundation Dr. Laura Palucki Blake
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