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Building Educator Expertise in Integrating STEM

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Presentation on theme: "Building Educator Expertise in Integrating STEM"— Presentation transcript:

1 Building Educator Expertise in Integrating STEM
Louis S. Nadelson, PhD Boise State University Anne L. Seifert Idaho National Lab

2 Teacher Preparation Focus
Integrated STEM Authentic STEM Learning Cross Curricular Application Career and Workforce Development Concept Based Learning Placed-Based Learning Assessment of Student Learning Leadership Research-based Practices

3 Mix of Top Down and Bottom Up Mixture of Order Thinking
Defining STEM Shorthand S-T-E-M Foundational Knowledge Level Direct Instruction Content Level Top Down Highly Structured Lower Order Thinking Literacy Mixed S-T-E-M Applications Problem Level Guided or Modeled Mix of Top Down and Bottom Up Some Structured Mixture of Order Thinking Competency Integrated STEM Synthesis Project Level Discovery Based Bottom Up Open End Ill Structured Higher Order Thinking Proficiency STEM Spectrum

4 Technology Application
Methods of Science Technology Application Engineering Design Mathematical Modeling INNOVATE THINKING

5 Modeling Innovative Thinking

6 Research Measures Comfort with teaching STEM*
Efficacy for teaching STEM Knowledge of Engineering Design Inquiry Implementation* Similarities and Differences between SI and EDP* Pedagogical Discontentment with STEM* Place based STEM education* Leadership in STEM Engagement in STEM Education* Trust in science and scientists Demographics * Teaching STEM and 21st century skills

7 Free Standing Tower Using existing knowledge Optimization Criteria
Marshmallows as fasteners Materials Modeling Trial and error Practical application Forces, gravity, vectors Bending Resistance Materials – Solid Polymers Chemistry /composition Mass Equilibrium Free Standing Tower Using existing knowledge Optimization Criteria Constraints Vectors Shapes Angles/trig Area Volume Equilibrium Ratios/proportions Height Measurement Mass

8

9 Engagement in Teaching STEM
Research Results Comfort Design Knowledge STEM Implementation Engagement in Teaching STEM .35** .66** .41** .32** .21** .58**

10 Engagement in Teaching STEM
Research Results Pre-Test Mean (SD) Post Test Mean (SD) t -Stat prob Effect Size Comfort 6.06 (2.60) 7.59 (1.76) 9.05 .00 .71 Design Knowledge 10.55 (3.27) 14.03 (2.85) 14.37 1.12 STEM Implementation 3.16 (.60) 3.64 (.53) 13.43 1.07 Engagement in Teaching STEM 2.93 (.52) 3.12 (.46) 6.73 .52

11 Research Results STEM CONTENT KNOWLEDGE Mean Pretest % correct = 44.5
Mean Posttest % correct = 87.4 T-Stat = 21.43 p < .01 Effect Size = 1.63

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13 Gaps and Directions for Research
Teacher perceptions of integrated STEM The alignment of K-12 STEM curriculum with STEM workforce needs How to assess an integrated STEM approach to learning Teacher preparation programs’ focus on integrated STEM Relationship between CCSSM/NGSS and integrated STEM School system priorities and integrated STEM curriculum


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