What are you asking — what are the components of the 8 mathematical practices?

The 8 mathematical practices include problem solving, reasoning and explaining, modeling and using tools, using structure and generalizations, attending to precision, looking for and making use of structure, looking for and expressing regularity in repeated reasoning, and constructing viable arguments and critiquing the reasoning of others.

More detailed answer to your question

The 8 Mathematical Practices are the core pillars of the Common Core State Standards for Mathematics. These practices are designed to develop students’ abilities to think mathematically, using problem-solving and critical thinking skills.

According to the Common Core State Standards Initiative, the 8 Mathematical Practices are:

  1. Make Sense of Problems and Persevere in Solving Them: Students must be able to analyze a problem, identify the relevant information, and develop a plan to solve it.

  2. Reason Abstractly and Quantitatively: Students must be able to analyze complex problems and break them down into smaller, more manageable parts.

  3. Construct Arguments and Critique the Reasoning of Others: Students must be able to present cohesive arguments and logically critique the reasoning of others.

  4. Model with Mathematics: Students must be able to use mathematical models to represent real-world situations, interpret the results, and draw conclusions.

  5. Use Appropriate Tools Strategically: Students must be able to choose and use appropriate mathematical tools (such as calculators, graphs, and formulas) effectively.

  6. Attend to Precision: Students must pay attention to detail and maintain accuracy when making calculations or other mathematical operations.

  7. Look for and Make Use of Structure: Students must recognize patterns and structures in the problems they encounter and use this information to develop solutions.

  8. Look for and Express Regularity in Repeated Reasoning: Students must look for patterns in their problem-solving processes and use this information to generalize those processes for use in future situations.

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As noted by Jo Boaler, a Professor of Mathematics Education at Stanford University and author of “Mathematical Mindsets,” “The 8 Mathematical Practices are designed to emphasize that mathematics is a subject of inquiry, not just a set of rules to be memorized.” By developing these practices, students are better equipped to navigate complex mathematical problems and understand the real-world applications of mathematics.

Here is a table summarizing the 8 Mathematical Practices:

Practice Description
Make Sense of Problems and Persevere in Solving Them Analyze a problem, identify relevant information, and develop a plan to solve
Reason Abstractly and Quantitatively Analyze complex problems and break them down into smaller, more manageable parts
Construct Arguments and Critique the Reasoning of Others Present cohesive arguments and logically critique the reasoning of others
Model with Mathematics Use mathematical models to represent real-world situations, interpret results, and draw conclusions
Use Appropriate Tools Strategically Choose and use appropriate mathematical tools effectively
Attend to Precision Pay attention to detail and maintain accuracy when making calculations
Look for and Make Use of Structure Recognize patterns and structures in problems and use them to develop solutions
Look for and Express Regularity in Repeated Reasoning Look for patterns in problem-solving processes and generalize for future use

In conclusion, the 8 Mathematical Practices are essential for all students to learn and understand as they develop their mathematical minds. As stated by Boaler, “mathematical practices are what mathematics is all about – thinking, reasoning and problem-solving.” By emphasizing these practices, students can develop a strong foundation in mathematics, which will serve them well throughout their academic and professional careers.

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There are alternative points of view

Breaking down the Common Core’s 8 mathematical practice standards

  • Make sense of problems and persevere in solving them.
  • Reason abstractly and quantitatively.
  • Construct viable arguments and critique the reasoning of others.
  • Model with mathematics.
  • Use appropriate tools strategically.
  • Attend to precision.

The video discusses the importance of mathematical practices and how it goes beyond just knowledge and skills. It emphasizes that standards for mathematical practices are crucial as they capture the processes and proficiencies that students should possess. The speaker highlights the ability to construct arguments and reason mathematically as a crucial skill for students to succeed in their careers. The video also emphasizes the importance of modeling and applying mathematics to real-world problems, being strategic with technology, developing skills in seeing mathematical meaning, and transforming objects into something purposeful.

I’m sure you’ll be interested

What are the components of mathematical thinking?
The reply will be: 5 Critical Components For Mathematical Proficiency

  • CONCEPTUAL UNDERSTANDING.
  • PROCEDURAL FLUENCY.
  • STRATEGIC COMPETENCE.
  • ADAPTIVE REASONING.
  • PRODUCTIVE DISPOSITION.

How many mathematical practices are there?
Response to this: These eight practices describe the thinking processes, habits of mind, and dispositions that students need to develop a deep, flexible, and enduring understanding of mathematics.
What are the five components of mathematical thinking?
My study was to determine if focusing on the key traits of a mathematical thinker namely: Communication, Representation, Reasoning and Proof, Problem Solving and Connections and learning about the characteristics I had come up with for each of these five processes would improve my students’ mathematical thinking.
What are the NCTM standards of mathematical practice?
(1) Make sense of problems and persevere in solving them. (5) Model with mathematics. (2) Reason abstractly and quantitatively. (3) Construct viable arguments and critique the reasoning of others.

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