This document discusses Universal Design for Learning (UDL) principles for mathematics instruction. It explains that UDL is based in neuroscience and aims to engage students' recognition, strategic, and affective networks by providing multiple means of representation, action and expression, and engagement. Examples are given of how to illustrate concepts like division using arrays, place value blocks, and area models. The document emphasizes teaching both partitive and quotitive division problems. It also discusses challenges like algorithms and terminology that can hinder understanding, and ways to address these through visual representations and context.
The document discusses building math fact fluency for students through meaningful practice and understanding the phases of counting, reasoning, and retrieval. It recommends teaching addition, subtraction, multiplication, and division strategies to help students develop understanding and move from counting to retrieval. A variety of activities are presented to engage students at different phases in developing fluency with basic facts.
The document provides an overview of differentiated instruction according to Carol Ann Tomlinson. It defines differentiated instruction as a way to systematically plan curriculum and instruction to meet the individual needs of academically diverse students. The goals are to honor each student's learning needs and maximize their learning capacity. Teachers should differentiate content, process, and products based on students' readiness, interests, and learning profiles. Key aspects of differentiation include flexible grouping, ongoing assessment, and providing multiple options for students.
The document provides guidance on establishing effective classroom management for college instructors. It discusses organizing students into groups to get to know each other and define appropriate classroom behavior. Examples of disruptive student behaviors like challenging the instructor or using phones in class are described along with potential solutions like establishing clear rules or holding students accountable. The document emphasizes setting expectations, avoiding boredom, and fostering relationships to promote student engagement and learning.
This document outlines and compares various teaching approaches and methods, including teacher-centered vs learner-centered, subject matter-centered vs learner-centered, individualistic vs collaborative, and direct vs indirect instruction. It also lists examples of specific approaches like direct instruction/lecture, demonstration, inquiry, problem-solving, project-based learning, cooperative learning, blended learning, and reflective teaching. Finally, it discusses appropriate learning activities at different phases of a lesson.
The Seven Laws of the Learner outline principles for effective teaching:
1. Teachers are responsible for student learning - if students are not learning, teaching needs improvement.
2. Have high expectations for students and avoid low expectations that can be a form of bias.
3. Ensure knowledge is applied for life changes, as knowledge without application can lead to arrogance.
This lesson plan introduces 1st grade students to measurements using inches. The teacher will capture students' interest through questions and group activities measuring classroom objects. Students will then explore measuring through a scavenger hunt. To explain the concepts, the teacher will ask students what they know about measurement and introduce inches and rulers. New vocabulary like inches, length, and unit will be defined. Later, students will develop a deeper understanding of standard units by comparing different measurement methods. The lesson objectives will be evaluated through homework, group work observations, and a class discussion to review the key points.
This document discusses constructivism and student-centered learning approaches. It explains that constructivism is a theory where learners discover and construct their own understanding by checking new information against prior knowledge and adapting when necessary. The document outlines principles of constructivist teaching such as valuing student perspectives, using activities to challenge assumptions, and assessing student learning in the context of daily lessons. It also contrasts traditional and constructivist classrooms, noting that constructivist approaches emphasize big concepts, student questions, and group work over strict curricula and textbooks. While critics argue subject matter may be sacrificed, the document advocates for a balanced approach combining direct instruction and discovery methods.
Math FACTS (Free Awesome, Cool Tools for Students)sqoolmaster
Explore all of the best K-6 math tools the web has to offer! From basic addition to geometry and fractions, from virtual manipulates to interactive games, from online calculators and converters to graphing tools. This workshop provides resources for every math topic you teach.
The document discusses building math fact fluency for students through meaningful practice and understanding the phases of counting, reasoning, and retrieval. It recommends teaching addition, subtraction, multiplication, and division strategies to help students develop understanding and move from counting to retrieval. A variety of activities are presented to engage students at different phases in developing fluency with basic facts.
The document provides an overview of differentiated instruction according to Carol Ann Tomlinson. It defines differentiated instruction as a way to systematically plan curriculum and instruction to meet the individual needs of academically diverse students. The goals are to honor each student's learning needs and maximize their learning capacity. Teachers should differentiate content, process, and products based on students' readiness, interests, and learning profiles. Key aspects of differentiation include flexible grouping, ongoing assessment, and providing multiple options for students.
The document provides guidance on establishing effective classroom management for college instructors. It discusses organizing students into groups to get to know each other and define appropriate classroom behavior. Examples of disruptive student behaviors like challenging the instructor or using phones in class are described along with potential solutions like establishing clear rules or holding students accountable. The document emphasizes setting expectations, avoiding boredom, and fostering relationships to promote student engagement and learning.
This document outlines and compares various teaching approaches and methods, including teacher-centered vs learner-centered, subject matter-centered vs learner-centered, individualistic vs collaborative, and direct vs indirect instruction. It also lists examples of specific approaches like direct instruction/lecture, demonstration, inquiry, problem-solving, project-based learning, cooperative learning, blended learning, and reflective teaching. Finally, it discusses appropriate learning activities at different phases of a lesson.
The Seven Laws of the Learner outline principles for effective teaching:
1. Teachers are responsible for student learning - if students are not learning, teaching needs improvement.
2. Have high expectations for students and avoid low expectations that can be a form of bias.
3. Ensure knowledge is applied for life changes, as knowledge without application can lead to arrogance.
This lesson plan introduces 1st grade students to measurements using inches. The teacher will capture students' interest through questions and group activities measuring classroom objects. Students will then explore measuring through a scavenger hunt. To explain the concepts, the teacher will ask students what they know about measurement and introduce inches and rulers. New vocabulary like inches, length, and unit will be defined. Later, students will develop a deeper understanding of standard units by comparing different measurement methods. The lesson objectives will be evaluated through homework, group work observations, and a class discussion to review the key points.
This document discusses constructivism and student-centered learning approaches. It explains that constructivism is a theory where learners discover and construct their own understanding by checking new information against prior knowledge and adapting when necessary. The document outlines principles of constructivist teaching such as valuing student perspectives, using activities to challenge assumptions, and assessing student learning in the context of daily lessons. It also contrasts traditional and constructivist classrooms, noting that constructivist approaches emphasize big concepts, student questions, and group work over strict curricula and textbooks. While critics argue subject matter may be sacrificed, the document advocates for a balanced approach combining direct instruction and discovery methods.
Math FACTS (Free Awesome, Cool Tools for Students)sqoolmaster
Explore all of the best K-6 math tools the web has to offer! From basic addition to geometry and fractions, from virtual manipulates to interactive games, from online calculators and converters to graphing tools. This workshop provides resources for every math topic you teach.
Engaging all learners with student centered activitiescbhuck
The document provides information about strategies for differentiated instruction to engage all learners, including English learners. It discusses Cubing, Think Dots, and Canned Questions strategies that can be used to provide differentiated small group activities based on content, Bloom's Taxonomy, and student needs. Examples are given for how each strategy can be implemented in various subject areas and at different cognitive levels to support higher order thinking. The strategies aim to meet the needs of diverse learners through student-centered learning and scaffolding.
Ccss how are arlington teachers preparing boe feb 2011dgalente
The document discusses how teachers in the Arlington school district are preparing for the Common Core State Standards in mathematics. It outlines professional development days where teachers learned about the new standards and requested additional supports. Moving forward, teachers will receive in-service courses, revised materials, and individualized support through grade-level meetings and coaching to emphasize multiple strategies and modeling in mathematics instruction as required by the Common Core.
Ccss how are arlington teachers preparing boe feb 2011 v2dgalente
The document discusses how teachers in the Arlington school district are preparing for the Common Core State Standards in mathematics. It outlines professional development days where teachers learned about the new standards and requested additional supports. Moving forward, teachers will receive in-service courses, revised materials, and individualized support through grade-level meetings and coaching to emphasize multiple strategies and modeling in mathematics instruction as required by the Common Core.
Ccss how are arlington teachers preparing boe feb 2011dgalente
The document summarizes how teachers in the Arlington school district are preparing for the Common Core State Standards in mathematics. It discusses overview sessions where teachers learned about the new standards and requested additional support materials. It outlines the district's plan to provide additional training through courses and individualized support to help teachers emphasize multiple strategies and mathematical modeling, which are two big themes of the Common Core Standards.
The document discusses the importance of teaching thinking skills to students and taking a whole-school approach. It provides examples of thinking strategies and tools that can be taught at different year levels, including the Six Thinking Hats, Brainstorming, Thinkers Keys, Graphic Organisers, SCAMPER, and Blooms Taxonomy. The whole-school approach aims to develop a thinking culture and empower students with analytical, critical and creative thinking abilities.
This document outlines an agenda for a professional development session on incorporating rigor through effective questioning strategies. It includes activities where teachers discuss and share how they write test questions, ask questions in class, and use question information. Models of questioning like Bloom's Taxonomy and Ciardello's question types are presented. Teachers work in groups to match question types to taxonomy levels and provide examples. Accommodations for English learners and exceptional children are discussed. The session aims to dispel myths about rigor and provide strategies for increasing complexity, such as problem-based learning.
The document discusses three frameworks for thinking skills and applying them in education: Bloom's Taxonomy, Marzano's Dimensions of Learning, and Costa and Kallick's 16 Habits of Mind. Bloom's Taxonomy categorizes different levels of thinking from basic recall to evaluation. Marzano's model focuses on five dimensions of learning including attitudes, knowledge acquisition, extending knowledge, using knowledge, and productive habits. Costa and Kallick outline 16 habits including persisting, thinking flexibly, questioning, and continuous learning. The document provides examples of applying each framework in lessons, projects, and assessments to develop students' higher-order thinking abilities.
These are the unpacking documents to better help you understand the expectations for Third gradestudents under the Common Core State Standards for Math. The examples should be very helpful.
The document summarizes Doni Dorak's lesson on learning theories for other teachers. It introduces three major learning theories: behaviorism, cognitivism, and constructivism. Doni explains that the goal is for teachers to understand the theories, identify them in lesson plans, and adapt lessons to best meet instructional goals and settings. Doni provides examples of how a lesson was designed according to cognitivism and also adapts it for behaviorism and constructivism.
The document describes a professional development session that provided teachers with strategies to develop differentiated instruction using higher order thinking skills. The session introduced three strategies - cubing, think dots, and canned questions - and provided examples of how each could be used with different content areas. The objectives were for teachers to be able to use the strategies to create engaging, differentiated activities aligned with standards and student needs. The session also discussed connections to SIOP components and Marzano instructional elements.
The document discusses tiered assignments and differentiation strategies for teachers. It defines tiered instruction as involving whole group instruction initially, then identifying student differences and increasing or decreasing abstraction, support, sophistication, and complexity of goals, resources, activities, and products based on student needs. The document provides examples of how to tier assignments in various subjects and grade levels by differentiating content, process, and product. The goal of tiered assignments is to increase rigor and engagement for all students.
15 reflection strategies to help students retain what you just taught them ...EquidaddeGneroIjtb
15 reflection strategies to help students retain what was just taught:
1. Pair students to verbally share and discuss lessons to reinforce learning and allow teachers to assess understanding.
2. Use sentence stems to guide students into structured critical thinking patterns.
3. Create "layered texts" with hyperlinks that allow students to revisit and comment on lessons.
4. Ask students to summarize lessons in 140 characters or less to focus relection.
The document discusses teaching mathematics concepts through big ideas and problem solving. It describes big ideas as large networks of interrelated concepts that students understand as whole chunks. Teachers should explicitly model big ideas and have students actively discuss and reflect on them. Examples of big ideas in geometry include properties of shapes and geometric relationships. The document provides strategies for structuring the classroom and lessons to encourage problem solving, communication, and assessing student understanding of big ideas through observation, interviews, student work and self-assessment.
The document discusses George Polya's four-step process for mathematical problem solving - understanding the problem, devising a plan, implementing the plan, and reflecting on the solution. It provides examples of strategies teachers can use to help students with each step, such as paraphrasing problems, estimating solutions, using logical reasoning and Venn diagrams, and discussing different problem-solving approaches.
Scaffolding instruction using the workshop model in pbljeffcockrum
The document discusses how to use the workshop model to scaffold instruction for project based learning. It describes a three part workshop structure of a mini-lesson, practice/application, and assessment for learning. Additionally, it provides an example of how a teacher implemented this workshop model in her middle school humanities classroom to scaffold a project analyzing a Supreme Court case.
This document discusses student-centered instruction. It defines student-centered instruction as focusing on how students learn, what they experience, and how they engage with learning. Students actively construct their own knowledge through discovery, inquiry, and problem solving. The teacher acts as a facilitator rather than solely delivering information. Examples of student-centered instruction include cooperative problem solving, students justifying their thinking, and performance-based problems that require constructing ideas. The goal is for students to deeply understand concepts by making connections between new and existing ideas, rather than just knowing answers.
This document discusses effective mathematics instruction and the "big ideas" approach to teaching fractions to grades 4-6. It outlines the big ideas of quantity, operational sense, relationships, representation, and proportional reasoning. It provides examples of how these big ideas can be explored when teaching fractions, such as determining the quantity of fractional parts, using fractions to represent real-world situations, and comparing proportional relationships with fractions. The document encourages teachers to use the online resources at eworkshop.on.ca to improve their fraction instruction through guides, videos, activities and discussion forums.
Taking the Pizza Out of Fractions discusses the importance of fractions and strategies for teaching them effectively to students. It emphasizes starting with equal sharing problems to draw on students' natural understanding of fair partitioning. Using different models like regions, lengths, and sets can help clarify fractional concepts. Problem solving strategies like bar modeling provide visual representations to solve word problems. Hands-on learning allows students to construct their own understanding rather than just memorizing procedures.
The document discusses teaching multiplication and division of whole numbers using concrete representations and modeling. It outlines curriculum outcomes related to demonstrating understanding of multiplication up to 5x5 and division, including representing problems using repeated addition, equal groups, arrays, and relating multiplication and division. Assessment strategies are also mentioned.
This presentation was provided by Rebecca Benner, Ph.D., of the American Society of Anesthesiologists, for the second session of NISO's 2024 Training Series "DEIA in the Scholarly Landscape." Session Two: 'Expanding Pathways to Publishing Careers,' was held June 13, 2024.
Engaging all learners with student centered activitiescbhuck
The document provides information about strategies for differentiated instruction to engage all learners, including English learners. It discusses Cubing, Think Dots, and Canned Questions strategies that can be used to provide differentiated small group activities based on content, Bloom's Taxonomy, and student needs. Examples are given for how each strategy can be implemented in various subject areas and at different cognitive levels to support higher order thinking. The strategies aim to meet the needs of diverse learners through student-centered learning and scaffolding.
Ccss how are arlington teachers preparing boe feb 2011dgalente
The document discusses how teachers in the Arlington school district are preparing for the Common Core State Standards in mathematics. It outlines professional development days where teachers learned about the new standards and requested additional supports. Moving forward, teachers will receive in-service courses, revised materials, and individualized support through grade-level meetings and coaching to emphasize multiple strategies and modeling in mathematics instruction as required by the Common Core.
Ccss how are arlington teachers preparing boe feb 2011 v2dgalente
The document discusses how teachers in the Arlington school district are preparing for the Common Core State Standards in mathematics. It outlines professional development days where teachers learned about the new standards and requested additional supports. Moving forward, teachers will receive in-service courses, revised materials, and individualized support through grade-level meetings and coaching to emphasize multiple strategies and modeling in mathematics instruction as required by the Common Core.
Ccss how are arlington teachers preparing boe feb 2011dgalente
The document summarizes how teachers in the Arlington school district are preparing for the Common Core State Standards in mathematics. It discusses overview sessions where teachers learned about the new standards and requested additional support materials. It outlines the district's plan to provide additional training through courses and individualized support to help teachers emphasize multiple strategies and mathematical modeling, which are two big themes of the Common Core Standards.
The document discusses the importance of teaching thinking skills to students and taking a whole-school approach. It provides examples of thinking strategies and tools that can be taught at different year levels, including the Six Thinking Hats, Brainstorming, Thinkers Keys, Graphic Organisers, SCAMPER, and Blooms Taxonomy. The whole-school approach aims to develop a thinking culture and empower students with analytical, critical and creative thinking abilities.
This document outlines an agenda for a professional development session on incorporating rigor through effective questioning strategies. It includes activities where teachers discuss and share how they write test questions, ask questions in class, and use question information. Models of questioning like Bloom's Taxonomy and Ciardello's question types are presented. Teachers work in groups to match question types to taxonomy levels and provide examples. Accommodations for English learners and exceptional children are discussed. The session aims to dispel myths about rigor and provide strategies for increasing complexity, such as problem-based learning.
The document discusses three frameworks for thinking skills and applying them in education: Bloom's Taxonomy, Marzano's Dimensions of Learning, and Costa and Kallick's 16 Habits of Mind. Bloom's Taxonomy categorizes different levels of thinking from basic recall to evaluation. Marzano's model focuses on five dimensions of learning including attitudes, knowledge acquisition, extending knowledge, using knowledge, and productive habits. Costa and Kallick outline 16 habits including persisting, thinking flexibly, questioning, and continuous learning. The document provides examples of applying each framework in lessons, projects, and assessments to develop students' higher-order thinking abilities.
These are the unpacking documents to better help you understand the expectations for Third gradestudents under the Common Core State Standards for Math. The examples should be very helpful.
The document summarizes Doni Dorak's lesson on learning theories for other teachers. It introduces three major learning theories: behaviorism, cognitivism, and constructivism. Doni explains that the goal is for teachers to understand the theories, identify them in lesson plans, and adapt lessons to best meet instructional goals and settings. Doni provides examples of how a lesson was designed according to cognitivism and also adapts it for behaviorism and constructivism.
The document describes a professional development session that provided teachers with strategies to develop differentiated instruction using higher order thinking skills. The session introduced three strategies - cubing, think dots, and canned questions - and provided examples of how each could be used with different content areas. The objectives were for teachers to be able to use the strategies to create engaging, differentiated activities aligned with standards and student needs. The session also discussed connections to SIOP components and Marzano instructional elements.
The document discusses tiered assignments and differentiation strategies for teachers. It defines tiered instruction as involving whole group instruction initially, then identifying student differences and increasing or decreasing abstraction, support, sophistication, and complexity of goals, resources, activities, and products based on student needs. The document provides examples of how to tier assignments in various subjects and grade levels by differentiating content, process, and product. The goal of tiered assignments is to increase rigor and engagement for all students.
15 reflection strategies to help students retain what you just taught them ...EquidaddeGneroIjtb
15 reflection strategies to help students retain what was just taught:
1. Pair students to verbally share and discuss lessons to reinforce learning and allow teachers to assess understanding.
2. Use sentence stems to guide students into structured critical thinking patterns.
3. Create "layered texts" with hyperlinks that allow students to revisit and comment on lessons.
4. Ask students to summarize lessons in 140 characters or less to focus relection.
The document discusses teaching mathematics concepts through big ideas and problem solving. It describes big ideas as large networks of interrelated concepts that students understand as whole chunks. Teachers should explicitly model big ideas and have students actively discuss and reflect on them. Examples of big ideas in geometry include properties of shapes and geometric relationships. The document provides strategies for structuring the classroom and lessons to encourage problem solving, communication, and assessing student understanding of big ideas through observation, interviews, student work and self-assessment.
The document discusses George Polya's four-step process for mathematical problem solving - understanding the problem, devising a plan, implementing the plan, and reflecting on the solution. It provides examples of strategies teachers can use to help students with each step, such as paraphrasing problems, estimating solutions, using logical reasoning and Venn diagrams, and discussing different problem-solving approaches.
Scaffolding instruction using the workshop model in pbljeffcockrum
The document discusses how to use the workshop model to scaffold instruction for project based learning. It describes a three part workshop structure of a mini-lesson, practice/application, and assessment for learning. Additionally, it provides an example of how a teacher implemented this workshop model in her middle school humanities classroom to scaffold a project analyzing a Supreme Court case.
This document discusses student-centered instruction. It defines student-centered instruction as focusing on how students learn, what they experience, and how they engage with learning. Students actively construct their own knowledge through discovery, inquiry, and problem solving. The teacher acts as a facilitator rather than solely delivering information. Examples of student-centered instruction include cooperative problem solving, students justifying their thinking, and performance-based problems that require constructing ideas. The goal is for students to deeply understand concepts by making connections between new and existing ideas, rather than just knowing answers.
This document discusses effective mathematics instruction and the "big ideas" approach to teaching fractions to grades 4-6. It outlines the big ideas of quantity, operational sense, relationships, representation, and proportional reasoning. It provides examples of how these big ideas can be explored when teaching fractions, such as determining the quantity of fractional parts, using fractions to represent real-world situations, and comparing proportional relationships with fractions. The document encourages teachers to use the online resources at eworkshop.on.ca to improve their fraction instruction through guides, videos, activities and discussion forums.
Taking the Pizza Out of Fractions discusses the importance of fractions and strategies for teaching them effectively to students. It emphasizes starting with equal sharing problems to draw on students' natural understanding of fair partitioning. Using different models like regions, lengths, and sets can help clarify fractional concepts. Problem solving strategies like bar modeling provide visual representations to solve word problems. Hands-on learning allows students to construct their own understanding rather than just memorizing procedures.
The document discusses teaching multiplication and division of whole numbers using concrete representations and modeling. It outlines curriculum outcomes related to demonstrating understanding of multiplication up to 5x5 and division, including representing problems using repeated addition, equal groups, arrays, and relating multiplication and division. Assessment strategies are also mentioned.
This presentation was provided by Rebecca Benner, Ph.D., of the American Society of Anesthesiologists, for the second session of NISO's 2024 Training Series "DEIA in the Scholarly Landscape." Session Two: 'Expanding Pathways to Publishing Careers,' was held June 13, 2024.
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These slides walk through the story of 1 Samuel. Samuel is the last judge of Israel. The people reject God and want a king. Saul is anointed as the first king, but he is not a good king. David, the shepherd boy is anointed and Saul is envious of him. David shows honor while Saul continues to self destruct.
Level 3 NCEA - NZ: A Nation In the Making 1872 - 1900 SML.pptHenry Hollis
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From the NZ Wars to Liberals,
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Gender and Mental Health - Counselling and Family Therapy Applications and In...PsychoTech Services
A proprietary approach developed by bringing together the best of learning theories from Psychology, design principles from the world of visualization, and pedagogical methods from over a decade of training experience, that enables you to: Learn better, faster!
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إضغ بين إيديكم من أقوى الملازم التي صممتها
ملزمة تشريح الجهاز الهيكلي (نظري 3)
💀💀💀💀💀💀💀💀💀💀
تتميز هذهِ الملزمة بعِدة مُميزات :
1- مُترجمة ترجمة تُناسب جميع المستويات
2- تحتوي على 78 رسم توضيحي لكل كلمة موجودة بالملزمة (لكل كلمة !!!!)
#فهم_ماكو_درخ
3- دقة الكتابة والصور عالية جداً جداً جداً
4- هُنالك بعض المعلومات تم توضيحها بشكل تفصيلي جداً (تُعتبر لدى الطالب أو الطالبة بإنها معلومات مُبهمة ومع ذلك تم توضيح هذهِ المعلومات المُبهمة بشكل تفصيلي جداً
5- الملزمة تشرح نفسها ب نفسها بس تكلك تعال اقراني
6- تحتوي الملزمة في اول سلايد على خارطة تتضمن جميع تفرُعات معلومات الجهاز الهيكلي المذكورة في هذهِ الملزمة
واخيراً هذهِ الملزمة حلالٌ عليكم وإتمنى منكم إن تدعولي بالخير والصحة والعافية فقط
كل التوفيق زملائي وزميلاتي ، زميلكم محمد الذهبي 💊💊
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3. AGENDAAGENDA
• Recognizing Connections between learning andg g g
neuroscience
• Understanding the three UDL principlesg p p
• Reviewing examples of math practice that illustrate
alignment of UDL to curriculum
• Discovering hands-on exploration in math that support
UDL
• Clarifying the curriculum framework as a structure for
designing lessons
• Resources for Next Steps
4. “N ”“Norms”
• Listen as an Ally
• Value Differences http://thebenevolentcouchpotato.wordpress.com/201
1/11/30/norm-peterson-bought-the-house-next-door/
• Maintain Professionalism
• Participate Actively
6. “Teachers must …regard
every imperfection in the
il’ h i tpupil’s comprehension not
as a defect in the pupil, but
as a deficit in their ownas a deficit in their own
instruction, and endeavor
to develop the ability top y
discover a new method of
teaching.”
–Leo Tolstoy
7. Instead of saying
“students can’t”,
we now identify
instructional strategies
that demonstrate
“how students can”.
10. Universal Design for LearningUniversal Design for Learning
A i ll d i dA universally designed
curriculum is
d l d f thdeveloped from the
start to be accessible
ll h ll ias well as challenging,
for ALL students.
11. UDL has its basis inUDL has its basis in
neuroscience
Three principles correlate with the three
networks in the brain:
• Recognition Network
St t i N t k• Strategic Network
• Affective NetworkAffective Network
The three must be simultaneously engaged for optimal learning to occur.
12.
13. Recognition Networks
• Gathering facts. How we identify and
categorize what we see hear and readcategorize what we see, hear, and read.
• Identifying letters, words, or an author'sy g
style are recognition tasks
the " hat" of learningthe "what" of learning.
14. Strategic Networks
• Planning and performing tasks.
H i d id• How we organize and express our ideas.
Writing an essay or solving a math
bl t t i t kproblem are strategic tasks—
the "how" of learningthe how of learning
15. Affective Networks
• How students are engaged and
motivated.
• How they are challenged, excited, or
i t t d Th ff tiinterested. These are affective
dimensions
the "why" of learning
16.
17. We have talked about the
three primary brain networks…
What should be some
considerations when
developing plans for yourdeveloping plans for your
classroom?
18. Three UDL PrinciplesThree UDL Principles
A universally designed curriculum offers:A universally-designed curriculum offers:
• Multiple means of representation to give learners
various ways of acquiring information and knowledgevarious ways of acquiring information and knowledge
• Multiple means of action and expression to provide
learners alternatives for demonstrating what they knowlearners alternatives for demonstrating what they know
• Multiple means of engagement to tap into learners'
interests challenge them appropriately and motivateinterests, challenge them appropriately, and motivate
them to learn
19. Multiple Means ofMultiple Means of
Representation
• The “what” of learning
• Present information and content in
different ways
20. Multiple Means of ActionMultiple Means of Action
and Expression
• The “how” of learning
• Differentiate the ways the students can
express what they knowp y
21. Multiple Means ofMultiple Means of
Engagement
• The “why” of learning
S f• Stimulate interest and motivation for
learning
22. What is Universal Design for Learning?
- a set of principles for curriculum
development that applies to the general
education curriculum that gives alleducation curriculum that gives all
individuals equal opportunities to learn.
23. Universal Design for LearningUniversal Design for Learning
provides a blueprint for creating
instructional goals, methods, materials, and
assessments that work for everyone--not a
single one-size-fits-all solution but rathersingle, one-size-fits-all solution but rather
flexible approaches that can be customized
and adjusted for individual needs.
25. Purpose of UDL Curriculum
is not simply to help students master a
specific body of knowledge or a specificp y g p
set of skills, but to help them master
learning itself—in short, to become expertg , p
learners.
26. L t’ thi k b t thLet’s think about some math
considerations when
developing UDL plans for
divisiondivision
• Discuss at your table
Sh id W ll i h• Share your ideas on Wallwisher
http://wallwisher.com/wall/hxqpnwkxac
•
27. Write down threeWrite down three
things that youg y
think are critical for
t hi di i iteaching division.
28. Research
Simply being able to perform calculations does
not necessarily mean that students understandnot necessarily mean that students understand
these operations. Conceptual knowledge is
based on understanding relationship betweeng p
multiplication and division. Since everyday
mathematics is almost always applied in the
t t f d t b l it i i t tcontext of words, not symbols, it is important
for students to understand the relationship
inherent in multiplication and divisioninherent in multiplication and division
problems.
31. Common Core State Standards
Third Grade
Operations & Algebraic Thinking
Represent and solve problems involving multiplication
and division.
3.OA.2 Interpret whole-number quotients of whole numbers,3.OA.2 Interpret whole number quotients of whole numbers,
e.g., interpret 56 ÷ 8 as the number of objects in each
share when 56 objects are partitioned equally into 8
shares or as a number of shares when 56 objects areshares, or as a number of shares when 56 objects are
partitioned into equal shares of 8 objects each. For
example, describe a context in which a number of shares
or a number of groups can be expressed as 56 ÷ 8.
32. Two Types of Divisionyp
Partitive and Quotitive
Partitive (number in a group) division problems is one
of dividing or partitioning a set into a predetermined
number of groups.number of groups.
Twenty-four apples need to be placed into eight paper
sacks. How many apples will you put in each sack if
you want the same number in each sack?
If students use partitive division problems exclusively in
instruction students often have difficulty making senseinstruction, students often have difficulty making sense
of quotitive/measurement division problems.
33. In quotitive/measurement (number of groups) division
bl ( l ti f d t t d bt tiproblems (also sometimes referred to as repeated subtraction
problems) the number of objects in each group in known, but
the number of groups is unknown
F l I h 24 l H k ill IFor example: I have 24 apples. How many paper sacks will I
be able to fill if I put 3 apples into each sack?
The action involved in quotitive/measurement (number of
)groups) division is one subtracting out predetermined
amounts. If asked to model this problem, students usually
repeatedly subtract 3 objects from a group of 24 objects and
then count the number of groups the removed (24 objects intothen count the number of groups the removed (24 objects into
3 groups).
Students benefit from exposure to both types of division
examples so that they internalize that two actions subtractingexamples so that they internalize that two actions, subtracting
and partition, are used to find quotients.
34. Which type of multiplication is
most prevalent in themost prevalent in the
classroom?
• Partitive (number in a group)
or
• Quotitive (number of groups)• Quotitive (number of groups)
35. Which type of DivisionWhich type of Division
Partitive or Quotitive?
Max the monkey loves bananas. Molly
his trainer, has 24 bananas. If she
gives Max 4 bananas each day, how
many days will the bananas last?
37. Max the monkey loves bananas MollyMax the monkey loves bananas. Molly
his trainer, has 24 bananas. If she
gives Max 4 bananas each day howgives Max 4 bananas each day, how
many days will the bananas last?
• How would you describe students’
strategies?
• What does your description indicate
about his or her understanding of divisionabout his or her understanding of division
and/or multiplication
38. Common Core State Standards
Third Grade
Operations & Algebraic Thinking
Represent and solve problems involving multiplication
and division.
3.OA.2 Interpret whole-number quotients of whole numbers,3.OA.2 Interpret whole number quotients of whole numbers,
e.g., interpret 56 ÷ 8 as the number of objects in each share
when 56 objects are partitioned equally into 8 shares, or as
a number of shares when 56 objects are partitioned intoa number of shares when 56 objects are partitioned into
equal shares of 8 objects each. For example, describe a
context in which a number of shares or a number of groups
can be expressed as 56 ÷ 8.
39. Max the monkey loves bananas MollyMax the monkey loves bananas. Molly
his trainer, has 24 bananas. If she
gives Max 4 bananas each day howgives Max 4 bananas each day, how
many days will the bananas last?
Arrays in third grade helps students toArrays in third grade helps students to
make the connect with multiplication and
divisiondivision
40.
41. Arrays in third grade making that connect to
multiplication and division
Repeated division with place value blocksRepeated division with place value blocks
Max the money loves bananas. Molly, hisy y,
trainer, has 24 bananas. If she gives Max
4 each day, how many days will they y y
bananas last?
42. Max the monkey loves bananas MollyMax the monkey loves bananas. Molly
his trainer, has 24 bananas. If she
gives Max 4 bananas each day howgives Max 4 bananas each day, how
many days will the bananas last?
The action involved in quotitive/
measurement (number of groups)
division is one subtracting out
predetermined amounts. Student need
this experience to build understanding
43. Max the monkey loves bananas. Molly,a t e o ey o es ba a as o y,
his trainer, has 24 bananas. If she
gives Max 4 bananas each day, howg y,
many days will the bananas last?
H ld d ib t d t ’• How would you describe students’
strategies?
• What does your description indicate
about his or her understanding of divisionabout his or her understanding of division
and/or multiplication
44. How have you seen the
principals of UDLprincipals of UDL
demonstrated?
• Discuss at your table
• Share your ideas on Wallwisher
http://wallwisher.com/wall/hxqpnwkxac
45. Which type of DivisionWhich type of Division
Partitive or Quotitive?
Mrs. Campbell is arranging transportation for a
class trip She plans to drive and some parentsclass trip. She plans to drive, and some parents
will too. Mrs. Campbell has 24 students in her
class, and she plans to assign 4 children to each
car How many cars will Mrs Campbell need forcar. How many cars will Mrs. Campbell need for
the trip?
Video Clip
46. Mrs. Campbell is arranging transportation forMrs. Campbell is arranging transportation for
a class trip. She plans to drive, and some
parents will too. Mrs. Campbell has 24
t d t i h l d h l tstudents in her class, and she plans to
assign 4 children to each car. How many
cars will Mrs Campbell need for the trip?cars will Mrs. Campbell need for the trip?
• How would you describe students’
t t i ?strategies?
• What does your description indicate abouty p
his or her understanding of division and/or
multiplication
47. Turn and TalkTurn and Talk
Work with your table partners to decide if
the tasks are:
Group Size Unknown (Partitive)
or
Number of Groups Unknown
(Quotitive/Measurement)
48. Group Size or
Number of Groups Unknown
• A loaf of bread has 18 slices Mike’s mom uses 6 slicesA loaf of bread has 18 slices. Mike s mom uses 6 slices
each time she packs lunches for the family. How many
times will she be able to make lunches from one loaf of
b d?bread?
• Kevin has $15.00 to use to buy balls that cost $3.00
apiece How many balls can Kevin buy?apiece. How many balls can Kevin buy?
• Katy is decorating goody bags for her birthday party.
She has 5 goody bags that she must decorate in theShe has 5 goody bags that she must decorate in the
next 35 minutes. How many minutes should she spend
on each bag?
49. Which examples do mostp
teachers provide for students in
their classroom?their classroom?
On chart paper write a few problems
using the quotitive/measurement
(number of groups) division problems
(also sometimes referred to as repeated
subtraction problems) the number of
objects in each group in known, but the
number of groups is unknown.
50. Common Core State Standards
Third Grade
Operations & Algebraic Thinking
Represent and solve problems involving multiplication and division.
3 OA 2 Interpret whole-number quotients of whole numbers e g interpret 56 ÷ 8 as the number of3.OA.2 Interpret whole-number quotients of whole numbers, e.g., interpret 56 ÷ 8 as the number of
objects in each share when 56 objects are partitioned equally into 8 shares, or as a number of shares
when 56 objects are partitioned into equal shares of 8 objects each. For example, describe a context
in which a number of shares or a number of groups can be expressed as 56 ÷ 8.
Fourth Grade
Number & Operations in Base Ten¹
Use place value understanding and properties of operations to
perform multi-digit arithmetic.
4.NBT.6 Find whole-number quotients and remainders with up to four-
digit dividends and one-digit divisors, using strategies based on place
value, the properties of operations, and/or the relationship between
lti li ti d di i i Ill t t d l i th l l ti bmultiplication and division. Illustrate and explain the calculation by
using equations, rectangular arrays, and/or area models.
51.
52. Number in a GroupNumber in a Group
Using 4-digit by 1-digit
Mrs. Campbell’s class collected 3,468 cans
of food for the 3 food shelters If herof food for the 3 food shelters. If her
students divide the cans evenly among the
shelters how many cans of food would eachshelters how many cans of food would each
shelter get?
How might a number of groups problem look?
53. Algorithms for DivisionAlgorithms for Division
The long division algorithm is often difficult
f t d t t d d t dfor students to use and understand.
However, when teachers present an
bb i t d f t d t ’ d t diabbreviated form students’ understanding
is often sacrificed. Students demonstrate
l fi i i t th l ithless proficiency in carry out the algorithm
and make more errors.
NCCTN Developing Essential Understanding of
Multiplication and Division
54. Compounding the difficultly of divisionCompounding the difficultly of division
notation is the unfortunate phrase, “six goes
into twenty-four.” This phrase carries little
meaning about division especially inmeaning about division, especially in
connection with fair-sharing or partitioning
context. The “goes into” (or guzinta”)
i l i i l i d i d lterminology is simply engrained in adult
parlance and has not been in textbooks for
years. If you tend to use that phrase, it isyears. If you tend to use that phrase, it is
probably a good time to consciously
abandon it.
Teaching Student-Centered Mathematics Grades 3-5
John Van de Walle
55.
56.
57.
58. Now you try a problem using
an area model.
Mrs. Campbell’s class collected 3,468Mrs. Campbell s class collected 3,468
cans of food for the 3 food shelters. If her
students divide the cans evenly amongstudents divide the cans evenly among
the shelters how many cans of food
would each shelter get?ou d eac s e te get
59.
60. Standards for Mathematical Practice
1. Make sense of problems and persevere in solving them.
Standards for Mathematical Practice
2. Reason abstractly and quantitatively.
3. Construct viable arguments and critique the reasoning of
othersothers.
4. Model with mathematics.
5 Use appropriate tools strategically5. Use appropriate tools strategically
6. Attend to precision.
7 L k f d k f t t7. Look for and make use of structure.
8. Look for and express regularity in repeated reasoning.
61. How have you seen the
principals of UDLprincipals of UDL
demonstrated?
• Discuss at your table
• Share your ideas on Wallwisher
http://wallwisher.com/wall/hxqpnwkxac
62. Common Core State Standards
Third Grade
Operations & Algebraic Thinking
Represent and solve problems involving multiplication and division.
3 OA 2 Interpret whole-number quotients of whole numbers e g interpret 56 ÷ 8 as the number of3.OA.2 Interpret whole-number quotients of whole numbers, e.g., interpret 56 ÷ 8 as the number of
objects in each share when 56 objects are partitioned equally into 8 shares, or as a number of shares
when 56 objects are partitioned into equal shares of 8 objects each. For example, describe a context
in which a number of shares or a number of groups can be expressed as 56 ÷ 8.
Fourth Grade
Number & Operations in Base Ten¹
Use place value understanding and properties of operations to perform multi-digit arithmetic.
4.NBT.6 Find whole-number quotients and remainders with up to four-digit dividends and one-digit
divisors, using strategies based on place value, the properties of operations, and/or the relationship
between multiplication and division. Illustrate and explain the calculation by using equations,between multiplication and division. Illustrate and explain the calculation by using equations,
rectangular arrays, and/or area models.
Fifth Grade
Number & Operations in Base Ten¹
Perform operations with multi-digit whole numbers and with decimals to hundredths.
5 NBT 6 Find hole n mber q otients of hole n mbers ith p to fo r digit di idends and t o digit5.NBT.6 Find whole-number quotients of whole numbers with up to four-digit dividends and two-digit
divisors, using strategies based on place value, the properties of operations, and/or the relationship
between multiplication and division. Illustrate and explain the calculation by using equations,
rectangular arrays, and/or area models.
70. ResearchResearch
The national Council of Teachers of
M th ti d th t t d t h ldMathematics recommends that students should
“develop a stronger understanding of various
meanings of multiplication and divisionmeanings of multiplication and division,
encounter a wide range of representations and
problems situations that embody them, learnp y ,
about the properties of these operations, and
gradually develop fluency in solving
multiplication and division problems.”
(NCTM 2000, 149)( , )
72. R i f Y IdReview of Your Ideas
• How did you see the Three Principles of
UDL demonstrated in the math lesson?
• Discuss at your table
Share your ideas from Wallwisher• Share your ideas from Wallwisher
http://wallwisher.com/wall/hxqpnwkxac
73.
74.
75. Discussion
• What are the benefits of analyzing the
curriculum for strengths and weaknessesg
rather than focusing on the student’s
strengths and weaknesses? What are theg
challenges of this approach?
76. “Teachers must …regard
every imperfection in the
pupil’s comprehension not
as a defect in the pupil, but
as a deficit in their ownas a deficit in their own
instruction, and endeavor
to develop the ability toto develop the ability to
discover a new method of
teaching.”
–Leo Tolstoy
77. Instead of saying
“students can’t”,
we now identify
instructional strategies
that demonstrate
“how students can”.
78. Next Steps
• What are your next steps to integrate
UDL into your school environment?y
http://cast.org/
79. R fReferences
• CAST, Inc: http://udlonline.cast.org
• Rose, D., & Meyer, A. (2002). Teaching every student in the digital age:
Universal design for learning. Retrieved from
http://www.cast.org/teachingeverystudent/ideas/tes/
• http://aim.cast.org/learn/historyarchive/backgroundpapers/differentiated_in
struction_udl
80.
81. DPI Contact Information
Kitty Rutherford
Elementary Mathematics Consultant
919 807 3934
Mary Keel
Professional Development Consultant
252 725 2570919-807-3934
kitty.rutherford@dpi.nc.gov
252-725-2570
mary.keel@dpi.nc.gov
http://www wikicentral ncdpi wikispaces nethttp://www.wikicentral.ncdpi.wikispaces.net