How Memory Impacts Math Learning in Kids

Early Childhood Education
Mar 3, 2025

Explore how different types of memory influence children's math learning and discover effective strategies to enhance their skills.

Memory is a key factor in how children learn math. Here's a quick summary of how different types of memory contribute to math skills:

  • Working Memory: Helps kids hold and process information while solving problems, like mental math (e.g., 43 × 5).

  • Long-Term Memory: Supports quick recall of math facts (e.g., multiplication tables), reducing mental effort.

  • Visuospatial Memory: Aids in understanding geometry and spatial reasoning.

  • Verbal Memory: Becomes critical for formal math learning as kids grow older.

Key Age Milestones:

  • Ages 5–6: Visuospatial short-term memory predicts early math abilities.

  • Ages 6–7: Visuospatial working memory supports both informal and formal math tasks.

  • Ages 7–8: Verbal memory plays a bigger role in advanced math learning.

Challenges and Solutions:

  • Memory Issues: Over 80% of kids with working memory difficulties face learning disorders like dyscalculia.

  • Strategies: Break tasks into steps, use visuals, and practice regularly to strengthen memory.

Digital tools like Funexpected Math combine memory exercises with interactive math games, boosting learning by up to 3x faster.

Memory is the foundation for math success. With focused strategies and tools, kids can overcome challenges and excel in math.

Memory Types That Support Math Skills

Several memory systems work together to help children grasp and excel in mathematics. Each type of memory plays a specific role in building different math abilities. By understanding these systems, educators and parents can better support children's math learning.

Working Memory in Math Calculations

Working memory has three main components that play a big role in math performance:

  • Central executive: Helps kids switch between tasks and update information as needed.

  • Phonological short-term memory: Stores verbal number information, like math instructions or equations.

  • Visuospatial short-term memory: Holds visual and spatial details, such as a mental image of a math problem.

Research shows that these components account for about 56% of the differences in children's math abilities. A meta-analysis of 46 studies found a moderate connection (r = 0.312) between working memory and arithmetic skills [5][3]. While working memory is key for processing math in real-time, mastering math facts depends heavily on long-term memory.

Long-Term Memory and Math Facts

Long-term memory is essential for quickly recalling basic math facts, like addition or multiplication tables. This automatic recall reduces mental effort, allowing for faster problem-solving. Using a mix of visual, auditory, and hands-on methods, along with consistent practice, can strengthen long-term memory for math facts [6].

Visual Memory in Math and Geometry

Visual memory adds another layer of support, especially for geometry and spatial reasoning. Research highlights that strong visuospatial working memory improves geometric problem-solving. For instance, in a study teaching trapezoids, children reached 60.5% accuracy after just one hour of visual-focused instruction [7]. Additionally, studies reveal that 62–85% of children with ADHD experience working memory challenges when tested with reliable tools [5]. This emphasizes the importance of tailored strategies to help students who struggle with memory-related issues.

Memory Growth and Math Skills

Children's memory development plays a key role in shaping how they learn math.

Memory Changes by Age

Studies reveal a clear pattern in how children rely on different types of memory as they grow. Between the ages of 6 and 7, visuospatial working memory becomes essential for tackling more complex math problems. By ages 7 to 8, verbal short-term memory takes on a larger role in supporting formal math learning [2].

This shift shows how children move from visual and spatial strategies - like mental number lines or counting on fingers - to more abstract, verbal methods that allow for quicker arithmetic [2]. These changes lay the foundation for more advanced math strategies as they progress in school.

Memory Skills and Math Success

Memory abilities are closely tied to math performance. Research highlights several important connections:

  • Working memory and arithmetic skills have a moderate correlation (r = 0.312) based on data from 46 studies involving over 11,000 participants [3].

  • Verbal working memory has a stronger link to arithmetic success than visuospatial working memory [3].

As children grow, the relationship between memory types and math skills shifts. While the influence of visuospatial memory remains steady, the impact of verbal working memory on arithmetic tends to decrease with age [3]. These trends help guide classroom strategies and interventions.

Memory Issues in Math Learning

Memory challenges can significantly impact a child's ability to learn math. Studies indicate that over 80% of children with working memory difficulties also have a specific learning disorder like dyscalculia [1].

Memory Problems and Math Disabilities

Children struggling with memory often face specific hurdles in math:

  • Number Processing: Tasks like counting backward from 11 can be tough because they require holding multiple numbers in working memory [4].

  • Complex Operations: Activities such as mental multiplication become difficult due to limited working memory capacity [1].

"When we're able to automate a task it no longer requires working memory to function. Remembering what to do next takes up cognitive workspace - and that's not necessary." [10]

These issues highlight the need for targeted interventions, which are discussed below.

Help for Memory-Based Math Problems

To address these challenges, specific strategies can make math learning more manageable:

| Strategy | Implementation | Benefit |
| --- | --- | --- |
| Task Breakdown | Break problems into steps | Eases mental effort |
| Visual Aids | Use graphic organizers | Aids in visuospatial thinking |
| External Tools | Use lists and reminders | Frees up mental capacity |
| Routine Building | Establish consistent habits | Automates foundational tasks

These methods not only reduce memory strain but also help build essential math skills.

Chris Woodin's techniques, such as visualization and chunking, have shown success in lowering cognitive load and improving math fact recall [4].

Recent studies back the effectiveness of combined approaches. For instance, research involving children aged 9-14 found that pairing working memory training with metacognitive strategies led to lasting improvements in math reasoning, with results still evident three months later [11].

Memory Practice for Better Math Skills

Practicing memory can significantly improve math abilities. A study from the University of Cambridge in January 2021 found that regular memory exercises, such as card games, led to a 15% increase in working memory capacity for children aged 7–9. This improvement translated into better math problem-solving skills.

Here are some proven ways to strengthen memory for math:

  • Daily Practice: Repeated practice of math facts reduces the mental effort needed during problem-solving [8].

  • Multisensory Techniques: Combining visual, auditory, and hands-on activities strengthens both working and long-term memory [9].

  • Active Learning: Encourage children to teach math concepts to others. This boosts recall and understanding [8].

"When the child becomes the teacher, they are switching into a more active role and thus enhancing their working memory skills." - Laine J., Author at Peak Academics [8]

Breaking down complex problems into smaller, manageable steps is especially helpful for children with working memory challenges. This structured approach minimizes overload and supports their learning [1].

Digital Tools for Memory and Math

Digital tools are increasingly incorporating memory techniques into interactive learning experiences. When aligned with children's cognitive development, these tools can significantly improve both memory and math skills.

Digital math tools supporting memory can accelerate mathematical learning up to three times faster. This progress is achieved by combining active engagement with structured skill-building.

| Feature | Memory Benefit | Math Learning Impact |
| --- | --- | --- |
| <strong>Interactivity</strong> | Strengthens working memory | Speeds up problem-solving |
| <strong>Visual Explanations</strong> | Improves visual memory | Builds spatial reasoning |
| <strong>Adaptive Difficulty</strong> | Balances memory load | Keeps engagement high |
| <strong>Immediate Feedback</strong> | Reinforces memory retention | Quickly corrects misconceptions

This approach forms the foundation for apps like Funexpected Math.

Funexpected Math: Memory-Driven Math Games

Funexpected Math

Funexpected Math is a standout example of a tool that uses memory-building techniques to enhance math learning. Instead of relying on rote memorization, the app emphasizes understanding through visual aids and hands-on tasks. With over 10,000 interactive activities, it offers a rich learning environment [14].

A pilot study conducted by the University of Mons in November 2023 reported that just two 15-minute sessions per week led to notable math skill improvements [15].

"By providing a low-pressure and fun math experience, Funexpected has helped us reduce math-related anxiety and frustrations, which improves overall learning outcomes." - Eric, Tech Teacher/Tech Integration, Academy at the Lakes [15]

The app's success lies in its well-rounded approach to memory development:

  • Working Memory: Tasks adjust to match each child's cognitive abilities.

  • Visual Memory: Features engaging visuals and spatial exercises.

  • Long-Term Memory: Reinforces concepts through varied and repeated activities.

The results speak for themselves, with educational impact data showing strong outcomes [15]:

  • 100% reduction in teacher workload

  • 88% improvement in students' knowledge retention

  • 88% boost in teaching efficiency

  • 75% decrease in attainment gaps

  • 69% increase in overall student performance

Conclusion: Memory's Impact on Math Success

Memory plays a crucial role in developing math skills. Research highlights that working memory is a major factor in math performance [1].

Studies also indicate that verbal working memory is particularly important for early arithmetic skills, though its influence tends to decrease as children grow older [3].

Here are some effective strategies to support different types of memory:

| <strong>Memory Type</strong> | <strong>Strategy</strong> | <strong>Benefit</strong> |
| --- | --- | --- |
| Working Memory | Write down each step | Eases mental strain |
| Visual Memory | Use graphic organizers | Improves spatial reasoning |
| Long-Term Memory | Review before sleeping | Boosts information retention

Breaking down challenging math problems into smaller, more manageable steps and incorporating multi-sensory methods can strengthen the connection between memory and math skills [16]. When combined with regular practice and helpful digital tools, these techniques provide a strong base for mastering mathematical concepts.

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  • 7 Fun Math Games to Play with Preschoolers at Home

  • Role of Spatial Skills in Early Math Learning

Transform Math Learning for Kids

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