Effective Scaffolding in Math
Effective Scaffolding in Math
Introduction
- Speaker: Kateri
- Effective scaffolding is essential for supporting learners in mathematics.
- Emphasis on the difficulty of providing individualized support to diverse learners.
- Goal of the session: to learn about effective scaffolds, particularly fading scaffolds.
Purpose of Scaffolding
- Definition of Scaffolding:
- Refers to temporary support strategies that assist learners in reaching challenging tasks or concepts.
- Provides safety and access when engaging with complex material.
- Discussion Prompts:
- Participants were asked to share their thoughts on the purpose of scaffolding in the chat.
- Common responses included:
- Support and stepping stones.
- Build upon prior knowledge and provide temporary assistance.
- Create a safety net for learners.
Characteristics of Effective Scaffolds
- Four characteristics to emphasize effective scaffolding:
- Customized: Adapted to the needs of individual learners, ensuring that it meets their specific challenges.
- Temporary: Scaffolding is designed to be removed as learners gain independence and mastery.
- Universal Application: Useful for all learners, regardless of age or content area.
- Necessary Support: Scaffolds should be utilized when tasks are unachievable without support.
- Scaffolding empowers learners and fosters a sense of capability and success.
Process of Scaffolding
- Key Steps:
- Developing a mental model of the task.
- Setting achievable goals.
- Engaging in the task with scaffolds in place.
- Fading away the support systematically.
- Example: Teaching a child to ride a bike involves:
- Starting with training wheels.
- Gradually removing support while encouraging independence and mastery.
Types of Fading Scaffolds
1. Language Frames and Word/Symbol Banks:
- Support for receptive and expressive language.
- Provides structure for students to engage in mathematical discourse.
- Example: Language frames for discussion in geometry.
2. Visual Cues and Prompts:
- Effective for supporting spatial reasoning or visual processing.
- Example: Color coding to distinguish numerals in multi-digit numbers.
3. CRA (Concrete-Representational-Abstract) Method:
- Supports quantitative reasoning and comprehension using three stages:
- Concrete: Manipulatives or tangible objects.
- Representational: Images or drawings that connect to concrete tools.
- Abstract: Numerical or symbolic representation.
- Parallel Modeling: Presenting all three stages together helps all learners comprehend/explore effectively.
4. Mnemonics and Organizers:
- Create a framework for strategic thinking.
- Example: Three C’s mnemonic - Choose, Change, Check for checking for reasonableness in math tasks.
5. Gradual Reveal:
- Presents information in smaller segments to manage cognitive load.
- Builds cognition around understanding and relationships within a problem.
- Example: Numberless problems that start with context and incrementally reveal numerical values.
6. Number Lines, Charts, and Calculators:
- Used to support computational skills and basic fact recall.
- Example: Using number charts and open number lines for performing calculations.
Application of Scaffolding to Real Tasks
- Example task discussed: "Bunch of Grapes" where learners determine how many groups of five grapes can be made from a larger bunch.
- Potential scaffolds include:
- Visual cues (e.g., circling groups of five).
- Language frames to help articulate responses.
- CRA representation with physical manipulatives and visual aids.
Conclusion
- Aim of the session: To ensure participants can explain scaffolding, describe its characteristics, and identify effective fading scaffolding strategies specific to mathematics education.
- Encouragement to use collaborative learning and discussions to enhance teaching techniques.
- Participants reminded that this is an ongoing process and to reach out with questions or experiences.
- Emphasis on the importance of community in teaching and learning in mathematics.