CCSSM Implementation Plan: Improving Math Teaching at Scale

CCSSM Implementation Plan: Improving Math Teaching at Scale
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Karen Prigodich, District Math Specialist at Centennial School District, presented at the Portland Northwest Math Conference on October 11, 2014 about improving math teaching at scale through CCSSM implementation. She encouraged reflection on current teaching practices and consideration of the CCSSM Leadership Framework.

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About CCSSM Implementation Plan: Improving Math Teaching at Scale

PowerPoint presentation about 'CCSSM Implementation Plan: Improving Math Teaching at Scale'. This presentation describes the topic on Karen Prigodich, District Math Specialist at Centennial School District, presented at the Portland Northwest Math Conference on October 11, 2014 about improving math teaching at scale through CCSSM implementation. She encouraged reflection on current teaching practices and consideration of the CCSSM Leadership Framework.. The key topics included in this slideshow are . Download this presentation absolutely free.

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Slide1CCSSM Implementation Plan:Improving Math Teaching at Scale Karen Prigodich, District Math Specialist Centennial School District, Portland North West Math Conference October 11, 2014 kprigodich@gmail.com

Slide2Improving Math Teaching at ScaleWelcome! • While you are waiting, use the survey at your seat to reflect: – Where are you and/or your district with regard to the  Math Teaching Practices  defined in NCTM’s Principles to Actions ? – To what degree has your district considered the elements of the  CCSSM Leadership Framework from NCSM’s  It’s TIME?

Slide3Progress and Challenges Over 25 years of Standards-Based Math Reform: • steady rise  in the number of students scoring “proficient” or above  in math on the  NAEP • true for all students , regardless of gender, ethnicity, or SES • average mathematics scores on  TIMMS  for U.S. 4 th  and 8 th  grade  students   rose 23 and 17 points, respectively Mathematics achievement  of U.S. students is at  historically high levels

Slide4Progress and Challenges Significant challenges remain: • Persistent  achievement gaps  between white & black, white & Hispanic students • Pervasive  opportunity gaps   in the mathematics that students have the opportunity to learn • Only 44% HS grads demonstrate  college readiness  in math • PISA—US scores in decline,  show some success with low- level skills items  but struggle with mathematical modeling and reasoning We must move from  “pockets of excellence” to  “systemic excellence.” -- Principles to Actions  NCTM, 2014, p. 3

Slide5NCTM’s Vision of Ambitious Teaching• Teachers support students to solve  cognitively demanding tasks • Press students to provide  evidence for their reasoning  and  make connections  between their own and their peers’ solutions • Orchestrate  whole-class discussions  in which they build on students’ contributions to achieve their mathematical agendas for students’ learning • Learning opportunities are  distributed equitably

Slide6Five Key Components for Improvingthe Quality of Math Teaching at Scale ①  Coherent instructional system ②  Teacher networks ③  Mathematics coaching ④  School instructional leadership ⑤  District instructional leadership Instructional improvement at scale requires the coordination of all five components. Cobb, P., & Jackson, K. (2011). Towards an empirically grounded theory of action for improving the quality of mathematics teaching at scale.  Mathematics Teacher Education & Development ,  13 (2), 6–33.

Slide71. Coherent instructional system• Explicit goals  for students’ mathematical learning • Detailed vision  for quality mathematics instruction that specifies high-leverage instructional practices • Instructional materials /tools designed to support teachers’ development of practices • District teacher  professional development  (formal and job-embedded) – Focuses on  specified practices – Organized around  instructional materials – Sustained  over time • School-based  PLCs  for teachers to discuss/rehearse/adapt practices introduced in PD • Assessments  aligned with goals for student learning • Additional supports  for struggling students

Slide82. Teacher Networks• Supported by coherent instructional system • Trust • Mutual accountability  for student learning • Access to expertise of others • High-depth interactions : discussing different solution strategies to math tasks, analyzing student work • Presence of  accomplished teacher leader /coach essential

Slide93. Mathematics Coaching• Leadership in  PLC  meetings • Co-teaching , joint planning, observing, joint analysis of lesson • Foreground specific  instructional practices focused on in professional development • Model specific  routines of interaction : e.g. Press teachers to identify math relationships students need to understand in a task. • Coaches also need  scaffolding,  practicing these activities with district mathematics specialists

Slide104. School Instructional Leadership• Principals must be able to  distinguish between strong and weak  inquiry-oriented math lessons • Distinguish between  cognitively low- and high- demand  math tasks • Recognize key aspects of  ambitious mathematics teaching • Distributed model of school instructional leadership:  Collaborative relationship  w/Coaches – Coaches: supporting teachers’ learning – Principals: pressing/holding teachers accountable for developing intended instructional practices

Slide115. District Instructional Leadership• Shared  goals  and  vision , but also agreement on what to hold school leaders, coaches, and teachers  accountable  for • Instructional Improvement  (improving quality of instruction) and  Instructional Management (allocation of resources) need to be tightly coordinated • Regular opportunities to  collaborate  together • Learning perspective : Not about enforcing compliance but facilitating learning

Slide12Where are we now?What are our next steps? Discussion

Slide13Sources• Cobb, P., & Jackson, K. (2011). Towards an empirically grounded theory of action for improving the quality of mathematics teaching at scale.  Mathematics Teacher Education & Development,  13(2), 6–33. • NCSM (2014).  It's TIME: A Leadership Framework for Common Core Mathematics . Solution Tree: Bloomington, IN. • NCTM (2014).  Principles to Actions: Ensuring Mathematical Success for All.  Reston, VA.