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EC A Partnership for Research with Elementary Math and Science - - PowerPoint PPT Presentation

ED Every Day, Every Child: EC A Partnership for Research with Elementary Math and Science Instructional Specialists This material is based upon work supported by the National Science Foundation under Grant No. DRL- 1316520. Any opinions,


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Every Day, Every Child:

A Partnership for Research with Elementary Math and Science Instructional Specialists

ED EC

This material is based upon work supported by the National Science Foundation under Grant No. DRL-

  • 1316520. Any opinions, findings, and conclusions or

recommendations expressed in this material are those of the author(s) and do not necessarily reflect the views of the National Science Foundation.

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Elementary Science Instruction

  • 3 basic models, with sub-categories (Gess-

Newsome, 1999)

– Classroom generalist model (traditional self- contained) – Specialist: Student Instructional Models*

  • Departmentalized model, or Collaborative Specialist (Nelson

& Landel, 2007) >>> Team-Teaching

  • Pull-out model >>> Science as a special

– Specialist: Teacher Mentoring Models

  • Resource/Coaching model
  • Science support team model
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Our focus: Elementary Science Instructional Specialists

Operational definition: An instructional specialist is a full time (elementary) classroom teacher who teaches two or more classes of students in a specific content area. …but the devil is in the details

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Our Project - Five Studies

EDEC is an exploratory research project to

  • Study 1: understand and categorize instructional

specialist models in mathematics and science;

  • Study 2: investigate the content knowledge,

preparation and needs of teachers in these roles;

  • Study 3: determine the instructional effectiveness
  • f instructional specialists; and
  • Study 4: determine the impact of instructional

specialists on student learning and attitudes towards mathematics and science.

  • Study 5: identify the prevalence of models of

content specialization in mathematics and science in elementary schools nationally.

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Science Specialist Sample

  • Year one – 15 total

– 10 participated as science specialist only – 5 participated as both math & science specialist

  • Year two – 15 total

– 8 participated as science specialist only – 7 participated as both math & science specialist (two had been science only & added math)

  • 19 total specialists completed at least part of study (4

lost due to retirement, reassignment, & attrition)

  • 6 districts, 13 schools
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Specialists & Self-Contained Matches: Demographics

Demographic Elementary Science Specialists Science Self-Contained Participants Mean age (years) 46.6 44.3 Mean teaching experience (years) 15.6 18.2 Mean school % FRL students 48.4 52.5 Mean school % students of color 35.3 36.7

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Diversity of Models in Our Sample

Model Other subjects taught besides science # of Teachers Team-Teaching (within- grade) All but reading (1) or mathematics (1) 2 Team-Teaching (within- grade) 2-3 of Spanish literacy, math support in Spanish, social studies 2 Team-Teaching (within- grade) Math (all 6) plus some combination of writing, social studies, and/or art 6 Team-Teaching (within- grade) Social studies (2); word study (1) 2 Team-Teaching (across- grades) Reading, social studies, art (1); None (1) 2 Science as a special Technology (2); Reading (1); None (2) 5

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Study 2

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Study 2 Research Question & Measures

  • RQ: How do factors related to teacher

preparation & content knowledge differ for instructional specialists & non-specialist teachers?

  • Measures

– Online survey (preparation) – Harvard MOSART (content knowledge)

  • Astronomy/Space Science, Earth Science, Life

Science, Physical Science subtests

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Findings – Formal Preparation

  • Specialists were more likely to have completed a

science content degree (N = 5, 26%) than self- contained teachers (N = 0)

  • Specialists and self-contained teachers were equally

likely to have completed a science education degree (N = 3, 16% for specialists; N = 3, 19% for self- contained)

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Findings – Preparedness

  • Specialists rated themselves higher (p < 0.05, two-tailed

independent samples T-test) on survey questions assessing:

– Preparedness to teach science – Familiarity with NGSS – Preparedness to teach engineering content – Agreement with:

  • “I know the strengths & weaknesses of each of my students in

science”

  • “I have enough time with my students to meet their needs in

science”

  • “I have enough time to plan for all the subjects I teach”
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Findings – Content Knowledge

MOSART Test Specialists (N=19) Self-Contained (N=16) Mean Difference p value (1- tailed) Effect size (Hedges’ g) Mean SD Mean SD Astro/Space 74.74% 14.81 pp 62.67% 22.84 pp 12.07 pp 0.036* 0.6243 Earth 87.16% 9.94 pp 80.00% 12.38 pp 7.16 pp 0.035* 0.6293 Life 85.26% 10.42 pp 81.87% 12.91 pp 3.40 pp 0.201 0.2851 Physical 70.00% 13.54 pp 60.67% 15.10 pp 9.33 pp 0.034* 0.6388 OVERALL 80.42% 9.21 pp 72.93% 13.74 pp 7.49 pp 0.034* 0.6367

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Study 3

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Study 3 Research Questions & Measures

  • RQ1: How does the quality of instruction of science

specialists compare to that of matched non-specialist teachers?

  • RQ2: What factors related to preparation, content

knowledge, & instructional model predict qualify of instruction?

  • Measures

– Modified AIM Observation protocol (Horizon Research) – Online Survey + MOSART scores

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Study 3 Findings – Instructional Quality

* Indicates p < 0.05, two-tailed

Score Type Teacher Type N of Observations Mean SD Effect Size (Hedges' g) Adjusted Total Specialist 47 2.8436 0.65112 0.3688 Self-Contained 44 2.6015 0.65049 Targeted Idea Specialist 47 2.9362 0.81838 0.3063 Self-Contained 44 2.6818 0.82892 Initial Ideas Specialist 30 2.7333 0.69149

  • 0.0607

Self-Contained 28 2.7857 0.99469 Engaging with Phenomena Specialist 45 2.8667 0.78625

  • 0.0826

Self-Contained 43 2.9302 0.73664 Using Evidence to Make Claims* Specialist 39 2.6923 0.95018 0.5155 Self-Contained 41 2.2439 0.76748 Sense Making* Specialist 21 2.4286 0.87014 0.6577 Self-Contained 24 1.875 0.78741 Classroom Culture Specialist 47 3.0851 0.58346 0.3312 Self-Contained 44 2.8409 0.86113

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Differences in Instructional Quality

  • Specialists scored significantly higher on the

following lesson aspects, with medium effect sizes:

– Using evidence to make claims – Sense-making

  • What factors might predict these differences? What

is it about being a specialist that made the difference?

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Study 3 – Predictors of Observation Scores

  • Variables included in stepwise regression:

– Teacher Type (specialist / self-contained) – Composite MOSART scores (content knowledge) – Number of semester science or science education courses completed by teacher – Years of teaching experience – Time per week spent teaching science – Time per week spent planning for science – Whether teacher had completed science PD in last 3 years* *Note: Nearly all specialists had completed recent science PD while very few matches had done so, making this variable nearly identical to the variable for teacher type

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Study 3 Findings – Predictors of Observation Scores

Best model predicting score on using evidence to make claims was one that only included MWSP – minutes per week of science planning

Model Summary Model R R Square Adjusted R Square

  • Std. Error of the

Estimate 1 .302a .091 .079 .79657

  • a. Predictors: (Constant), MWSP

ANOVAa Model Sum of Squares df Mean Square F Sig. 1 Regression 4.598 1 4.598 7.246 .009b Residual 45.686 72 .635 Total 50.284 73

  • a. Dependent Variable: EvClaims
  • b. Predictors: (Constant), MWSP
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Study 3 Findings – Predictors of Observation Scores

Best model predicting score on sense-making was one that only included MWSC – minutes per week spent teaching science content

Model Summary Model R R Square Adjusted R Square

  • Std. Error of the

Estimate 1 .380a .145 .124 .77686

  • a. Predictors: (Constant), MWSC

ANOVAa Model Sum of Squares df Mean Square F Sig. 1 Regression 4.289 1 4.289 7.106 .011b Residual 25.348 42 .604 Total 29.636 43

  • a. Dependent Variable: SenseMake
  • b. Predictors: (Constant), MWSC
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Summary

  • Elementary science specialists in our sample scored

higher than self-contained teachers on measures of content knowledge and preparation to teach science

  • Specialists appeared to be more skilled at leading

students through the processes of using evidence to make claims and sense-making.

– Differences primarily attributable to specialists having MORE TIME to both plan for and engage students in science lessons

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Limitations

  • Sample size (< 20 per teacher type)
  • Possible limitations of content knowledge measure
  • Data on time spent planning for & teaching science

are self-report

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Thank you!

  • Participating students & teachers
  • Today’s audience

Joe Brobst, Ed.D. Science, Mathematics, & Technology Education Western Washington University Joe.Brobst@wwu.edu (302) 383-5194 (cell)