It takes a village to raise a scientist Craig Ogilvie, Iowa State University • Howard Hughes Medical Institute grant (2010-14) • Engaging all 1st and 2nd year STEM students @ ISU in authentic science projects • General lessons for large scale education reform 1 cogilvie@iastate.edu July 15, 2013 Loss of STEM majors @ ISU Loss mainly in 1st and 2nd year Presidential Council (PCAST) Report 7 Feb 2012 “…increasing the retention of STEM majors from 40% to 50% would generate three-quarters of the targeted 1 million additional STEM degrees over the next decade. 2 cogilvie@iastate.edu July 15, 2013 Confronting reasons that students leave STEM Why Undergraduates Leave the Sciences. Seymour and Hewitt, 1997 Loss of interest in the subject matter of science Belief that a non-science major would offer a better education Losses occur among the best qualified students Losses occur also due to math challenges, low-resilience,… PCAST recommendations: Engage to excel Widespread adoption of empirically validated teaching practices; Replace standard laboratory courses with discovery-based research courses; Improving retention will also improve quality STEM education 3 cogilvie@iastate.edu July 15, 2013 Inquiry intro labs: each >1000 students B A Biology A, Cookbook: identification labels and detailed lab instructions B, Inquiry: Identify plants 1, 2, 3. What are key phyla differences? Physics A, Cookbook: measure P, V, T of gas and plot P vs V etc. B, Inquiry: Determine if air exhibits properties of an ideal gas. 4 cogilvie@iastate.edu July 15, 2013 Class as scientific community Teaching Assistant training on using inquiry processes is vital. 5 cogilvie@iastate.edu July 15, 2013 Student research Classic model: 1-on-1 mentoring Scale? Additional model, courses 20-300 students 5-6 week research project in lab courses ROLE project, UPR-Mayaguez 6 cogilvie@iastate.edu July 15, 2013 Course-based student research @ISU Freshman chemistry major lab (Chem201) Design and test CO2 reduction processes and catalysts as part of a faculty’s chemistry research program. In Geology 100, students characterize the local watershed via high-tech diagnostic wells 12 research-lab courses @ ISU: Over 850 students/year 7 cogilvie@iastate.edu July 15, 2013 Student engagement in large “lectures”: Flipped classes Use face-to-face class time for tasks that require a community Wrestle with new concepts via group discussions Scaffold skills, complex problems Students work on lower-level skills, video clips, before/after class In Class Out of Class 8 cogilvie@iastate.edu From Robert Talbert July 15, 2013 Village Lab 1 Lab 1 Large face-toface meeting Lab II Lab II Inquiry lab Lab 1 Lab 1 Research lab Lab II Upper 1 I Upper Upper IIII Upper 9 cogilvie@iastate.edu Lab 1 Lab II July 15, 2013 8500 students impacted/year 10 cogilvie@iastate.edu July 15, 2013 Assessment Students’ understanding of Nature of Science after research labs • Consistent increase • Encouraging since lack of creativity was one reason for leaving • Gains also on content knowledge (bio), but no changes in efficacy 11 cogilvie@iastate.edu July 15, 2013 Retention Uptick post reform, hard to prove cause Kept 3% c.f. prior 25% loss, changed 1 in 9 students’ decision 12 cogilvie@iastate.edu July 15, 2013 Lesson I: Emergent change, learning organization Faculty Learning Communities Time/space to discuss what change is needed Support during implementation 80+ faculty involved Science educator postdocs Bring energy, time, expertise and short-timescale Graduate TA Learning Communities (GTALC) How students learn Led by senior TAs and postdocs 13 cogilvie@iastate.edu July 15, 2013 Lesson II: Productive Tension Experiential learning vs calls to lower costs What skills do graduates need to help solve 21st century challenges? http://www.aacu.org/leap/documents/2013_ Innovation EmployerSurvey.pdf Team – work Ongoing drive to learn/adapt Communication Experiential learning can help develop these skills • Research experiences • Extra-curricular student groups Considerable concern about costs of higher ed, tuition, debt…. Resolution? Redirect existing activities into experiential learning with little extra costs, courses, extra-curricular projects,…. 14 cogilvie@iastate.edu July 15, 2013 Invest in experiential learning as higher priority than student admin, dorms, rec centers,… Student Innovation Center @ ISU (proposed) Out of dark basements into prime real-estate Competitive advantage for residential university Canon Design 15 cogilvie@iastate.edu July 15, 2013 Invest resources in experiential learning Lab-space for course-based research Space for extra-curricula organizations, cross-fertilization Canon Design 16 cogilvie@iastate.edu July 15, 2013 Conclusions Refocused our science labs at ISU Inquiry rather than cookbook when ~1000 students 5-6 week research projects when 20-300 students Higher-level cognitive work in large class meetings (flip) Lessons Emergent change Faculty learning communities: time/space to plan Postdocs bring in energy, expertise 2. Productive tension: experiential learning vs calls to reduce costs Impact more students at similar cost Projects improve quality: innovation, team-work, communication 1. 17 cogilvie@iastate.edu July 15, 2013 Acknowledgments HHMI grant $1.6M 2010-2014 Cinzia Cervato, Tom Greenbowe, Jo Anne Powell-Coffman, Gene Takle Facilitators of Faculty Learning Communities Charles Kerton, Stan Harpole, Bill Gallus, Nikki Pohl, Diane Bassham, Jim Colbert, Tom Greenbowe, Doug Gentile, Paula Siklody, Nancy Boury, David Vleck, Phil Becraft, Soeren Prell, Tom Holme, Alex Travesset, Jason Chen, Clark Coffman, Cinzia Cervato HHMI Science Teaching Fellows Now faculty: Liz Addis, Mike Slade, Glene’ Mynhardt Current or Fall 13, Emily Elliot, Carol Chappel, Jenny Brigham Deans of Liberal Arts and Sciences, College of Agriculture and Life Sciences Chem education postdocs Kim Linenberger, Jeff Raker Community College Leaders Jermaine Johnson, Sally Willson, Chris Russell CESMEE staff Patsey Reilly, Tracie Miller, Stacy Renfro 18 cogilvie@iastate.edu July 15, 2013 Backup slides 19 cogilvie@iastate.edu July 15, 2013 Iowa State University Residential Land Grant university, 32,000 students Fall13 6000 more students than in 2005 Rich tradition in agriculture, science, engineering,… Learning communities, extra-curricular student groups 20 cogilvie@iastate.edu July 15, 2013 Student Reaction Inquiry introductory labs "I really enjoyed that we were encouraged to answer our own experimental questions, even at the cost of finishing a planned activity for the lab. It enabled us to be interested in and take an active role in our learning, rather than simply following step by step the lab activities.” 21 cogilvie@iastate.edu July 15, 2013 SIC 22 cogilvie@iastate.edu July 15, 2013 23 cogilvie@iastate.edu July 15, 2013 24 cogilvie@iastate.edu July 15, 2013 Analytics Use data on who is not being retained as science major at ISU 1300 new science majors from HS 70% stay as major after 1-year 17% leave ISU after 1-year 13% leave science after 1-year but stay at ISU Science-switchers Broad range of ACT scores Lower math diagnostic scores (rational numbers, radicals) Lower self-efficacy, confidence (MAP-works 5 week survey) Predictive model of high-risk switchers? Advising, bridge programs, pre-calc math….. 25 cogilvie@iastate.edu July 15, 2013 Inquiry introductory labs Dept Courses Physics 111,112,115,221,222 Status POGIL Implemented Chemistry 177L, 178L POGIL/local First trials Fall 13, spring 14 Biology 211L Diversity exploration Implemented Biology 212L First trial Fall 13 TA training Phys 501, two Graduate TA Learning Communities, Spring 13 CIRTL www.cirtl.net 26 cogilvie@iastate.edu July 15, 2013 Intro bio lectures, bio 212: National and ISU concern that courses were sequence of factoids FLCs discussed, forged consensus on big-picture outcomes, e.g. 212 1. 2. 3. 4. 5. Cellular / molecular basis of life, including an understanding of scale, biological membranes, and basic cellular structure and function Transmission and expression of genetic information Bioenergetics & carbon and nitrogen cycles Compare and contrast plants, animals, and microbes Understanding how science is conducted and why it is important. Assess, teach for these big picture goals Active learning in large lectures with undergraduate learning assistants First results showed very little gain in student understanding Some growth in student efficacy Improve active learning materials, more attention to Karplus learning cycle 27 cogilvie@iastate.edu July 15, 2013 Research projects in lab courses Course Astro 250 Astro 344L Astro 346 Bio 256L Human physiology Bio 313L Genetics Bio 423L Developmental Biology Lab BIOLOGY 354L ANIMAL BEHAVIOR Chem 201 Chem 334L Geol 100L Mteor 301 Psych 440 Psych 102 28 cogilvie@iastate.edu Fall 12 Spring 13 enrollment/ semester 16 12 27 340 180 25 14 50 26 70 22 80 July 15, 2013 Increasing diversity Many under-represented students start at community college Challenge is transfer to 4-year + continue as science major Potential key is student’s identity as a young scientist ~10 students nominated by CC faculty 8 weeks summer research-work in ISU faculty labs Summer after first year of CC, return to CC for sophomore year Math/bio coursework + field trips Summer 2012 scholars 29 cogilvie@iastate.edu July 15, 2013 SUSSI NoS: Student Understanding of Science and Scientific Inquiry (SUSSI, Liang et al, 2005) • 8 NoS categories • 4 questions with Likert scale • 1 short response • Pre and post test A. B. Scientists use their imagination and creativity when they collect data. Scientists use their imagination and creativity when they analyze and interpret data. SD D U A SA SD D U A SA C. Scientists do not use their imagination and creativity because these conflict with their logical reasoning. SD D U A SA D. Scientists do not use their imagination and creativity because these can interfere with the need to be unbiased. SD D U A SA Explain why scientists use OR do not use imagination and creativity, and provide examples to support your answer. 30 cogilvie@iastate.edu July 15, 2013 Course-based student research (III of III) Old organic lab: detailed instructions to make final “product” New organic lab: Research of faculty, novel organic dyes Student groups responsible for multi-step synthesis Thinking like a chemist 31 cogilvie@iastate.edu July 15, 2013 Lesson I: Large scale educational change Research-based instructional strategies (RBIS) Widely available, but not adopted Develop, test, disseminate (run workshops, provide materials) 32 Henderson, C., Dancy, M., & Niewiadomska-Bugaj, M. (submitted) The Use of Research-Based Instructional Strategies in Introductory Physics: Where do Faculty Leave the Innovation-Decision Process?. cogilvie@iastate.edu July 15, 2013 Assessment (II of II) Faculty engagement in teaching/learning Increase in conversations about teaching within a dept 2009-2010 2011-2012 Roles in network: 1) hubs of sub-groups, 2) connectors between groups strategically work with these individuals to facilitate change 33 cogilvie@iastate.edu July 15, 2013 HHMI 2.0 RFP HHMI: Persistence in science Anchored on PCAST “Engage to excel” course-based research labs, active learning lectures,.. … Tools to excel: math Diversify pathways Deadline Oct 1, 35 awards ~$2M each Writing over summer 34 cogilvie@iastate.edu July 15, 2013 Vision for next proposal (I of II) 35 cogilvie@iastate.edu July 15, 2013 Vision for next proposal (II of II) Vision 2: Support Faculty, staff, graduate students as they grow from being good to great educators 36 cogilvie@iastate.edu July 15, 2013