54
Designing Common Core State Standards Systemic Mathema4cs Curriculum Presented By Janet Hale www.CurriculumMapping101.com

CMI2012 CCSS for Mathematics

Embed Size (px)

DESCRIPTION

CMI 2012 Presentation By Janet Hale

Citation preview

Page 1: CMI2012 CCSS for Mathematics

Designing  Common  Core  State  Standards  Systemic  Mathema4cs  Curriculum  

Presented  By  Janet  Hale        www.CurriculumMapping101.com  

Page 2: CMI2012 CCSS for Mathematics

Backchannel: todaysmeet.com/ccssm

Page 3: CMI2012 CCSS for Mathematics
Page 4: CMI2012 CCSS for Mathematics

Architects design. LEARN

Contractors build.

TEACH

Page 5: CMI2012 CCSS for Mathematics

Systemic Design - Interdependent 1 Grove…1 Root System

Aspen Grove Mentality

Page 6: CMI2012 CCSS for Mathematics

Designing Systemic K-12 CCSS Math Collaborative Maps

How long will it take for the K-12 Task

Force to complete Stage 1?

Page 7: CMI2012 CCSS for Mathematics

Part 1 Design / Part 2 Design Vertical Alignment

Design units that represent K-12 learning continuum

(e.g., Geometry, Measurement/Data) by single/mixed domains

across grade levels

Horizontal Alignment Design units of study that

integrate learning within and/or among strands in one grade level (e.g., intradisciplinary,

program-based, interdisciplinary)

Page 8: CMI2012 CCSS for Mathematics

Part 1 – Phase I

•  Unit Names

•  Enduring Understandings/ Essential Questions

•  Standards for Mathematical Practice

•  Vocabulary

Page 9: CMI2012 CCSS for Mathematics

Designing UNIT NAMES

Quickly locating learning

by reading electronic “binder” spine. (Pre-­‐K)  K  through  12  

Page 10: CMI2012 CCSS for Mathematics

Arizona http://www.azed.gov/standards-practices/mathematics-standards/

http://education.ohio.gov/GD/Templates/Pages/ODE/ODEDetail.aspxPage=3&TopicRelationID=1704&Content=123507 (Transitional Tools)

Ohio

Page 11: CMI2012 CCSS for Mathematics

High School Course Design

Determine Desired Pathway

Math CCSS Appendix A

 

Page 12: CMI2012 CCSS for Mathematics

Math CCSS Courses – Suggested Starting Points K-8 Math (K-8) GEOMETRY (K-2, 6-8) GEOMETRY/MEASURMENT (3-5)

DATA: MEASUREMENT/DATA (K-5) DATA: STATISTICS/PROBABILITY (6-8)

NUMBER/QUANTITATIVE: COUNTING/CARDINALITY (K) NUMBER/ALGEBRAIC: NUMBER BASE 10/OPERATIONS (K-5) NUMBER: NUMBER SYSTEM/EXPRESSIONS/EQUATIONS (6-8)

QUANTITATIVE: RATIOS/PROPORTIONAL RELATIONSHIPS (6-8) Coordinate Algebra (9) (Integrated Pathway) EXPRESSIONS/EQUATIONS LINEAR FUNCTIONS EXPOTENTIAL FUNCTIONS DATA ANALYSIS COORDINATE PLANE INEQUALITIES Analytic Geometry (10) Advanced Algebra (11) (Above examples based on work in Muscogee CSD, Columbus, GA)

 

Page 13: CMI2012 CCSS for Mathematics

Part 1 – Phase I

•  Unit Names

•  Enduring Understandings/ Essential Questions

•  Standards for Mathematical Practice

•  Vocabulary

Page 14: CMI2012 CCSS for Mathematics

K-12 CCSS Aligned/Designed

Enduring Understandings/ Essential Questions

Create CCSS-based EUs/EQs prior to Part 1 or… Create CCSS-based EUs/EQs prior to Part 2

Page 15: CMI2012 CCSS for Mathematics

Enduring Understandings/ Essential Questions

It usually takes a task force two full days (including initial training: “What are EUs/EQs/SQs?”)

to create K-12 CCSS-based Math EUs/EQs.

Page 16: CMI2012 CCSS for Mathematics

Part 1 – Phase I •  Unit Names

•  Understandings/ Essential Questions

•  Standards for Mathematical Practice

•  Vocabulary

Page 17: CMI2012 CCSS for Mathematics

(CCSS,  p.  5)  

Domains, Cluster, Standard Statements  

Page 18: CMI2012 CCSS for Mathematics

1. Make sense of problems and persevere in solving them. 2. Reason abstractly and quantitatively. 3. Construct viable arguments and critique the reasoning of

others. 4.  Model with mathematics. 5.  Use appropriate tools strategically. 6.  Attend to precision. 7.  Look for and make use of structure. 8.  Look for and express regularity

in repeated reasoning.

Standards for Mathematical Practice are the same K-12…

Page  7-­‐8,  CCSSM  

Page 19: CMI2012 CCSS for Mathematics
Page 20: CMI2012 CCSS for Mathematics

http://www.azed.gov/standards-practices/mathematics-standards/

Page 21: CMI2012 CCSS for Mathematics

Standards for Mathematical Practice

Choices… 1.  Embed SMP expectations as part of skill

statements by asking for justifying reasoning and provide examples (e.g., ____) for teachers to gain insight into higher level of expectation (students “owning” the learning)

2.  Create SMP-based skill statements that represent the essence of the eight practices to be included as a part of Part 2’s units of study.

3. Construct viable arguments and critique the reasoning of others.

 

Page 22: CMI2012 CCSS for Mathematics

Grade  1    GEOMETRY  Content  E.  Geometrical  Rela.onships:  Composi.on  -­‐-­‐2-­‐Dimensional  (Quarter  Circle,  Half  Circle,  Quarter  Circle,  Circle,  Square,  Rectangle,  Triangle,  Trapezoid,  Hexagon)  -­‐-­‐3-­‐Dimensional  (Cube)  

Skill  E.  Compose  manipula.vely,  orally,  and  in  wri.ng  1  two-­‐dimensional  shape/figure  using  appropriate  2-­‐dimensional  shapes  (i.e.,  see  Possible  Composi/ons  reference)  and  jus.fy  reasoning  (e.g.,  Ami  has  a  cardstock  square  in  front  of  her.  She  has  various  cardstock  shapes  nearby.  Mr.  Mar/n  asks  her  to  show  him  3  ways  she  can  compose  a  square  with  the  various  shapes.  Ami  makes  1  square  first  using  4  smaller  squares;  next  using  2  rectangles;  and  then  using  4  triangles.  The  teachers  asks  her  to  explain  in  wri/ng  what  she  did  and  why.  Ami  shared,  “I  first  composed  1  large  square  using  4  small  squares…See  1,  2,  3,  4  equal  shares.  Then  I  took  them  off  and  used  2  equal  shares;  2  rectangles.  And  last,  I  took  off  the  rectangles  and  used  4  equal  shares,  but  this  /me  they  were  triangles  instead  of  squares,  but  the  s/ll  fit  just  right  on  the  large  square.”)  

Page 23: CMI2012 CCSS for Mathematics

Design  Note  …  Use  of  parentheses  in  skill  statements      

 Reduce  complex  frac.on  (frac.on  over  frac.on)  by  mul.plying  by  common  denominator  (e.g.,  see  complex  frac/on  example)    

 Describe  orally  and  in  wri.ng  par..oned  shares  using                                        6  terms  (halves,  half  of,  thirds,  third  of,  quarters,  quarter  of)            (e.g.,  Carmen  par//ons  a  circle  into  2  equal  shares.  She  writes:  The  circle              has  2  equal  shares  or  2  halves.)  

(e.g.,  _____________  )  =  

(i.e.,  ______________)  =  

(______________)    =  

Page 24: CMI2012 CCSS for Mathematics

Algebra  “Connec4ons”  ….  Use  of  “Baby  a”  Content  S.  Addi.on/Subtrac.on:  Differen.a.on  Between        1-­‐Step/2-­‐Step  Word  Problems  Skills  Sa.  Differen.ate  orally  and  in  wri.ng  between  1-­‐step  word  problem  having  1-­‐event  equa.on  (1  sum/1  difference)  versus  2-­‐step  problem  where  sum/difference  of  1st-­‐event  equa.on  must  be  used  in  2nd-­‐event  equa.on  to  find  final  sum/difference  and  jus.fy  reasoning        (e.g.,  Mr.  Bryan  reads  2  displayed  word  problems  to  his  class,  "The  first  problem  says:  George  collects  coins.  He  has  32  coins.  His  uncle  brought  him  14  coins  from  Japan  to  add  to  the  his  collec/on.  How  many  coins  does  George  have  now?  The  second  problem  says:  A  cafeteria  has  a  basket  of  25  oranges.  The  basket  has  5  oranges  leY  in  it  at  the  end  of  lunch.  The  next  morning  a  cafeteria  worker  adds  10  more  oranges  to  the  basket.  How  many  oranges  will  be  available  for  lunch  today?"  Mr.  Bryan  asks,  "Which  problem  is  a  1-­‐step  problem  and  which  problem  is  a  2-­‐step  problem?"  Jeb  raises  his  hand.  Mr.  Bryan  asks  him  to  come  to  the  board.  Jeb  comes  up  and  shares  his  reasoning,  "The  problem  about  the  coins  is  a  1-­‐step  problem  because  all  you  have  to  do  is  add  the  2  sets  of  coins  together  so  it  is  1  event.”  He  writes  on  the  board:  32  +  14    =  46.  "The  second  problem  is  a  2-­‐step  problem  because  it  has  2  events.  For  the  1st  event  you  have  to  subtract  to  find  the  difference.  Then  you  have  to  add  10  to  the  difference  in  the  2nd  event."  He  writes:  25  –  20  =  5,  5  +  10  =  15).    

Page 25: CMI2012 CCSS for Mathematics

Part 1 – Phase I

•  Unit Names

•  Enduring Understandings/ Essential Questions

•  Standards for Mathematical Practice

•  Vocabulary

Page 26: CMI2012 CCSS for Mathematics

Vocabulary

Choices… Embed vocabulary terms

and definitions within Content field? Skills field? Resources as an attachment?

Format… Agree on visual format so vocabulary will

be consistent for curriculum design not only for Math, but other disciplines as well. The more continuity among disciplines, the more accurate and useful the reporting features are within a mapping system.

 

Page 27: CMI2012 CCSS for Mathematics

Grade  6        QUANTITATIVE:  RATIOS/PROPORTIONAL  RELATIONSHIPS  

A.  Communicate  concepts/explana.ons  orally  and  in  wri.ng  using  3  terms:  

Page 28: CMI2012 CCSS for Mathematics

Part 1 – Phase I

•  Unit Names

•  Enduring Understandings/ Essential Questions

•  Standards for Mathematical Practice

•  Vocabulary

Page 29: CMI2012 CCSS for Mathematics

Part 1 – Phase II

•  Breaking Apart (Translating, Unpacking) Standards (Design Influences – Key Shifts, Depth of Knowledge)

•  Systemic Content / Skills Development (Process: Format … Collaborative Agreement on Tight and Loose)

•  PreK-12 Vertical Reviews (Internal Alignment – Content/Skills & External Alignment to CCSS)

•  Horizontal Units of Study (Bridging Part 1 and Part 2 Design Work)

Page 30: CMI2012 CCSS for Mathematics

Implicit Influences

•  Breaking Apart (Translating, Unpacking) Standards

Teachers will, as architects-designers, spend extensive time studying the explicit and implicit intent of the codes, but need to first consider design influences.

•  Math CCSS - 3 Key Shifts

•  Depth of Knowledge (PARCC, SMARTER Balance)

Page 31: CMI2012 CCSS for Mathematics

CCSS Mathematics – 3 Key Shifts (www.achievethecore.org)

1.  FOCUS Focus Strongly Where the Standards Focus (narrow the scope of content to allow in-depth learning; no “but we have so much to cover”; need “inch wide, mile deep” mindset to ensure time necessary for students to explore, test, and reach personal conceptual understanding)

2. COHERENCE Think across grade levels (systemic design) (each new standard is not a “new event” … each new standard is an extension of previous distinct or linked learning) Link learning among domains within one grade level (leverage) (conceptual relationships across and among standards to aid in conceptual understanding and reasoning)

3. RIGOR Equitable, balanced curriculum (learning/teaching): –Conceptual Understanding –Procedural Skills and Fluencies –Application of Math Process using real-world/authentic problems/tasks (within/across disciplines)

Page 32: CMI2012 CCSS for Mathematics

Presenta.on  Slide  from  CCSS  for  Mathema/cs:  Key  ShiYs  -­‐Sandra  Alber.,  Student  Achievement  Partners  

1.   FOCUS  2.   COHERENCE  

Page 33: CMI2012 CCSS for Mathematics

www.achievethecore.org  

Grade  7    (Content  lis/ng  in  an  Essen/al  Map  unit)    Algebraic  Representa.ons:                                        Equa.on  Fluency  Involving  4  Opera.ons  Mul.-­‐Step  Word  Problems  (Posi.ve/Nega.ve  Ra.onal  Numbers,  Inequali.es,  Complex  Frac.ons)  

High  School  Fluencies:  Algebra,  Func4ons,  Geometry,  Sta4s4cs  &  Probability,  and  Modeling  

3.  RIGOR   --Conceptual Understanding --Procedural Skills and Fluencies --Application of Math Process  

CCSS  Fluency  ≠  Rote  Memoriza4on  

CCSS  Fluency    =    Speed  and  Accuracy        using  self-­‐selected  strategies    

Page 34: CMI2012 CCSS for Mathematics

Implicit Influences

•  Breaking Apart (Translating, Unpacking) Standards

Teachers will, as architects-designers, spend extensive time studying the explicit and implicit intent of the codes, but need to first consider design influences.

•  Math CCSS - 3 Key Shifts

•  Depth of Knowledge (PARCC, SMARTER Balance)

Page 35: CMI2012 CCSS for Mathematics

Cognitive Complexity New

BLOOM’S

DOK

Page 36: CMI2012 CCSS for Mathematics

Evaluate Predict Hypothesize

Output E/C

Generate Speculate Forecast

Imagine If/then Create

Judge Apply Speculate

Compare Distinguish Analyze

Process A/A

Contrast Explain Synthesize

Classify Discriminate Reason

Infer Sequence Interpret

Duplicate Identify Paraphrase

Input R/U

Count List Recite

Define Memorize Locate

Describe Name Reproduce

Understanding/Remembering

Analyzing/Applying

Creating/Evaluating

New Bloom’s

Page 37: CMI2012 CCSS for Mathematics

Cognitive Complexity

R/U Input

A/A Process

E/C Output

New BLOOM’S

DOK

Page 38: CMI2012 CCSS for Mathematics

Several  things  are  involved,  including  the  content,  the  ac4vity  and/or  thinking  processes,  and  the  complexity  of  both  the  content  and  ac4vity/thinking  processes.    -­‐-­‐Debbie  Baughman,    The  Standards  Company  

Norman  Webb’s    

Depths  of  Knowledge  DOK  Model  (1997)  created  to  analyze  the  cogni.ve  expecta.on  

demanded  by  standards,  curricular  ac.vi.es,  and  assessment  tasks.    redesign.rcu.msstate.edu      

Page 39: CMI2012 CCSS for Mathematics

DOK    Four  Levels  

Level  1  Recall/Reproduc4on              Recall  facts,  informa.on,  procedures,                              basic  concept  founda.ons                                                                                                                                    (minor  comprehension  involved  at  this  level,                                                                                                  no  depth,  no  complexity)  

Level  2  Skill/Concept                                      Apply/process  facts,  informa.on,  procedures,  conceptual  understanding  involving  at  least  two  steps  that  require  reasoning                                                                                                                      (a  need  to  interpret  material  and  make  simple  decisions  about  how  to  approach  a  problem,  but  does  not  yet  have  a  deep  complexity)  

Page 40: CMI2012 CCSS for Mathematics

DOK    Four  Levels  

Level  3  Strategic  Thinking                    Requires  deeper  reasoning,  developing  a                                                        plan  or  sequence  of  steps  to  complete  a  task;                    more  than  one  possible  solu.on/answer                                                                                      (deal  with  abstrac/ons  and  open-­‐ended  conclusions  and  able  to      support  one’s  reasoning;  wrestle  with  complex  concepts,  tasks,  material)  

Level  4  Extended  Thinking  Process  mul.ple  condi.ons  and  solu.ons  for  the  problem;  extend  thinking  by  comple.ng  much  deeper  and  complex  tasks                                                                                                          (according  to  Webb,  higher-­‐level  thinking  is  absolutely  central;  interac/on  with  concepts,  tasks,  material  is  in-­‐depth  and  purposeful)  

Page 41: CMI2012 CCSS for Mathematics

CAUTION!  

Bloom’s  Verbs  cannot  be  applied  with  the  same  mindset  for  what  students  must  cogni9vely  do  when  applying  Webb’s  Depth  Of  Knowledge  (DOK)  to  student  learning,  teaching,  and  assessment  items/tasks.  

Page 42: CMI2012 CCSS for Mathematics

DOK  2  –  Describe  number/shape  paberns  that  follow  determined  term/rule  and  jus.fy  reasoning  (e.g.,  Look  at  the  bowling  pins  pafern.  What  will  the  next  two  rows  look  like  in  this  pafern?  Explain  the  increase  using  textual,  visual,  and  number  representa/ons.  Without  drawing,  what  would  be  the  number  of  pins  in  the  15th  row?  Explain  your  reasoning.  )  

DOK  1  –  Describe  shape-­‐pabern  term/number-­‐pabern  rule  using  real-­‐world  examples  (e.g.,  Pretend  you  are  walking  outside.  Draw  and  explain  a  natural  or  man-­‐made  pafern’s  term.)  

The  “cau4on”  influences  wri4ng  skills…    

Measurable  Verb  +  Descriptor  

Page 43: CMI2012 CCSS for Mathematics

Cognitive Complexity

1 Recall/

Reproduction

2 Skill/

Concept

4 Extended Thinking

3 Strategic Thinking

New BLOOM’S

DOK PARCC www.parcconline.org/parcc-content-frameworks

Smarter Balanced www.smarterbalanced.org/wordpress/wp-content/uploads/2012/03/

DRAFTMathItemSpecsShowcase2.pdf

R/U Input

A/A Process

E/C Output

Page 44: CMI2012 CCSS for Mathematics

www.illustrativemathematics.org

Page 45: CMI2012 CCSS for Mathematics

Implicit Influences

•  Breaking Apart (Translating, Unpacking) Standards

Teachers will, as architects-designers, spend extensive time studying the explicit and implicit intent of the codes, but need to first consider design influences.

•  Math CCSS - 3 Key Shifts

•  Depth of Knowledge (PARCC, SMARTER Balance)

Page 46: CMI2012 CCSS for Mathematics

Part 1 – Phase II

•  Breaking Apart (Translating, Unpacking) Standards (Design Influences – Key Shifts, Depth of Knowledge)

•  Systemic Content / Skills Development (Process: Format … Collaborative Agreement on Tight and Loose)

•  PreK-12 Vertical Reviews (Internal Alignment – Content/Skills & External Alignment to CCSS)

•  Horizontal Units of Study (Bridging Part 1 and Part 2 Design Work)

Page 47: CMI2012 CCSS for Mathematics
Page 48: CMI2012 CCSS for Mathematics

Step  1:  Code  hard-­‐copy  of  each  Part  1  “full-­‐year”  UNIT’s  Content/Skill  statements  to  aligned  standards.  

Part  2  –  Phase  II  K-­‐8  Process  For    “Pla4ng”  Quartered  Learning  Expecta4ons  

Step  2  (Quartered  Units):  Cut  out  Content/Skills  Sets  and  create  graphic  organizers  that  represent  full          year  of  “quartered”  UNIT  learning.  

Page 49: CMI2012 CCSS for Mathematics

Step  3:  Create  quartered  UNITS  in  mapping  system  (ensure  newly  created  UNITS  include  aligned  standards  for  each  quarter’s  learning).  

Part  2  –  Phase  II  K-­‐8  Process  For    “Pla4ng”  the  Learning  Expecta4ons  

Step  4:  Ensure  abachments  are  included  properly  in  each  quartered  UNIT  (preferably  as  .pdf  files).    

Page 50: CMI2012 CCSS for Mathematics
Page 51: CMI2012 CCSS for Mathematics

Step  1:  Code  hard-­‐copy  of  each  UNIT’s  Content/Skill  statements  to  aligned  standards.  

Part  2  –  Phase  II  Process  For    “Pla4ng”  Sequen4al  Learning  Expecta4ons  

Step  2  (Sequen.al  Units):  Cut  out  Content/Skills  Sets  and  create  graphic  organizers  that  represent  full  year  of  learning.  

Step  3:  Create  sequen.al  UNITS  in  mapping  system  (ensure  newly  created  UNITS  include  aligned  standards  for  each  UNIT’s  learning).  

Step  4:  Ensure  abachments  are  included  properly  in  each  UNIT  (preferably  as  .pdf  files).    

Page 52: CMI2012 CCSS for Mathematics

Part 1 – Phase II

•  Breaking Apart (Translating, Unpacking) Standards (Design Influences – Key Shifts, Depth of Knowledge)

•  Systemic Content / Skills Development (Process: Format … Collaborative Agreement on Tight and Loose)

•  PreK-12 Vertical Reviews (Internal Alignment – Content/Skills & External Alignment to CCSS)

•  Horizontal Units of Study (Bridging Part 1 and Part 2 Design Work)

Page 53: CMI2012 CCSS for Mathematics

Wearing  the  right  design  gear,  dive  on  in!            (Even  though  it  may  feel  a  liple  unnerving  at  first…)  

Page 54: CMI2012 CCSS for Mathematics

Janet  Hale  www.CurriculumMapping101.com  

[email protected]      520-­‐241-­‐8797