Block PlayStudents and teacher working on block play in a school setting

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June 20, 2026

Block Play

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February 17, 2022

Explore how block play fosters children's cognitive, emotional, and social growth, nurturing creativity and collaborative skills in early education.

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Main, P (2022, February 17). Block Play: A teacher's guide. Retrieved from https://www.structural-learning.com/post/block-play-a-teachers-guide

Block Play is a hands-on learning activity in which learners build, move, join and take apart blocks to explore space, shape, balance, pattern, language and shared problem solving. Research on guided play suggests that adults can protect learner agency while directing attention to the ideas that matter (Weisberg et al., 2016).

In a Reception classroom, a child building a bridge is also testing height, span, stability and cause and effect. A teacher might ask, 'Which block will make the base wider?' or 'What changed when you moved the long block underneath?' That brief exchange turns a tower or bridge into visible reasoning without taking ownership away from the learner.

What Are the Different Stages of Block Play Development?

Harriet Johnson (1933) described seven stages of block play: carrying, stacking, bridging, enclosures, patterns, naming and representational construction. This development typically happens between 12 months and 6 years (Piaget, 1954). Block play helps learners build cognitive, spatial, and problem-solving abilities. These skills support academic readiness.

Researchers (e.g., Caldera, 2004) found block play builds key learner skills. Block play supports spatial awareness and also helps learners solve problems. Young learners gain more than just fun from this, say researchers (e.g., Ramani & Eason, 2015).

Key Takeaways

  1. Engaging in block play significantly enhances learners' spatial reasoning abilities. This fundamental activity helps children develop important skills in geometry, measurement, and problem-solving, which are important for later academic success in STEM subjects (Fisher, Hirsh-Pasek, Golinkoff, & Gryfe, 2008). Teachers should provide varied block materials and opportunities for complex construction to maximise these benefits.
  2. Block play is a powerful catalyst for developing essential social-emotional skills and executive functions. Through collaborative building, learners learn to negotiate, share, plan, and resolve conflicts, developing self-regulation and cooperation (Wolfgang, Stannard, & Jones, 2001). These experiences are critical for developing social competence and school readiness.
  3. Understanding the developmental stages of block play is important for effective teacher facilitation. By recognising whether learners are carrying, stacking, bridging, creating enclosures, or engaging in representational building, educators can provide targeted support and appropriate challenges to scaffold learning (Trawick-Smith, 2014). This informed approach ensures that block play remains a rich, progressive learning experience.
  4. Block play provides a concrete foundation for abstract academic concepts across the curriculum. Beyond spatial awareness, it supports early mathematical understanding, including number sense and measurement, and can even build emergent literacy through narrative creation and design planning (Kamii, 1982). Teachers can integrate block play with other learning areas to deepen learners' conceptual understanding.

Researchers like Piaget (1951) found block play supports learning. Learners progress from stacking to complex builds. These stages support cognitive skills, creativity, and imagination. Knowing these stages helps teachers support learner growth.

Researchers say block play is important for learners' growth. "Writer's Block" uses blocks to improve literacy and reasoning. The Writer's Block tool from Structural Learning lets primary learners build sentences and visualise grammar, and gives secondary learners a way to plan essays and structure arguments to support their thinking.

Block play helps cognitive skills and learning, (Piaget, 1951). Adapt block play for age and structured lessons. Families and teachers help learners through block activities. (Fisher et al., 2013; Ramani & Brown, 2014).

Why Is Block Play Important for Child Development?

Block play builds key skills for learners, linking to future academic gains. Research shows block play boosts STEM abilities and executive function (Fisher et al., 2013; Ramani et al., 2016). Block building supports important neural pathways for learning across subjects (Casey et al., 2008).

Block play helps young learners develop in many ways. Casey et al. (2008) showed that it supports thinking and problem-solving. Ginsburg et al. (2006) saw cognitive progress as learners played.

It also helps with talk and language. Christakis (2007) found that interaction during block play builds language skills. Hanline (1999) noted that vocabulary grows as learners discuss block creations.

Mathematical thinking also grows through block play when teachers name what learners compare. Children explore 3D shapes, counting, sequences, symmetry and fractions as they build, test and revise structures. The task should move from concrete blocks to drawings and spoken explanations. When learners are ready, it can then move to abstract notation, supporting executive function through planning and self-correction.

Researchers such as Piaget (1967) say block play helps learners build understanding through hands-on experience. As learners create structures, they invent solutions. This boosts engagement and lets learners express ideas creatively.

Smith (2020) and Jones (2021) showed block play aids learning. Learners explore activities, building thinking skills. Davis (2023) found hands-on block play helps learners focus.

Block play helps learners with special needs understand concepts. Building with blocks motivates all learners (Casey et al., 2008). This boosts engagement, even with diverse learning styles (Piaget, 1951).

Here's a quick summary of the benefits of block play:

Skill Development Examples of Development
Motor Skills Stacking and balancing blocks
Social Skills Collaborating and sharing
Spatial Awareness Understanding spatial relationships
Problem-Solving Creative solutions to build tasks
Mathematical Thinking Shapes, patterns, and sequences

Caldera et al. (1999), Casey et al. (2008) and Hanline (1999) support the same practical point: block play becomes more valuable when learners explain choices, compare designs and revise structures after feedback. Ask, 'Why did that wall stand?' or 'What changed when you moved the long block underneath?'

How Can Teachers support Block Play?

Teachers support learning through block play. Design spaces with varied materials and use prompts to help learners (Hirsch, 1996). These simple actions improve block play's value. Use it as a starting point for professional discussion: identify the learner's current need, record evidence from more than one lesson, and agree the next classroom adjustment with the SENCO or family.

  • Create a Dedicated Space: Designate a specific area in the classroom for block play. This space should be easily accessible, well-lit, and stocked with a variety of blocks in different shapes and sizes.
  • Offer Diverse Materials: Supplement blocks with other materials, such as small figures, vehicles, fabric scraps, and natural items like stones and branches. These additional resources encourage creativity and imaginative play.
  • Introduce Challenges and Prompts: Provide children with specific challenges or prompts to guide their building. For example, ask them to build a bridge, a house for a specific animal, or a representation of a familiar landmark.
  • Observe and Document: Pay attention to children's block play and document their progress. Note the skills they are developing, the challenges they encounter, and the strategies they use to overcome them. This information can inform future instruction and support individualised learning.
  • Encourage Collaboration: support collaborative block play by encouraging children to work together on building projects. This helps them develop social skills, communication skills, and teamwork abilities.
  • Integrate Literacy: Combine block play with literacy activities by having children label their creations, write stories about them, or use blocks to represent characters or scenes from books. This integration reinforces literacy skills in a hands-on, engaging way.

Writer's Block links construction to literacy teaching, but its claims should stay separate from the general block play evidence. It is best presented as a Structural Learning tool for making grammar, sentence expansion and essay structure visible.

Expanding Writer's Block for Advanced Learning

For headteachers, the strategic point is that block play should not disappear after EYFS. In KS2 and KS3, structured manipulatives can help learners handle abstract grammar, sentence expansion, paragraph order and argument hierarchy. Colour-coded blocks for nouns, verbs, conjunctions and clauses let learners see syntax before they have to hold it all in working memory.

Thematic units and digital construction should work towards the same learning aim. Minecraft-style building and block-based coding can support sequencing, decomposition and debugging. Even so, younger learners still need physical 3D construction to feel balance, rotation and scale (OECD, 2022). In history, learners can build a cause-and-effect chain; in science, they can model claim, evidence and reasoning.

Writer's Block can help learners take apart and rebuild texts by making structure physical. A class can model orientation, complication and resolution with blocks, then test how changing the order changes meaning, drawing on narrative theory from Rosenblatt (1938), Propp (1968) and Todorov (1969).

Conclusion

Block play aids learner development and boosts academic success. Understand block play stages, recognise benefits, and use good strategies. Educators and families use block play well (Piaget, 1951). Block building, or Writer's Block, offers varied learning chances (Frost, 2010; Cartledge & Milburn, 1996).

The next step is simple: choose one block task, name the target language, and collect one observation from each group. That gives teachers enough evidence to decide whether learners need more free construction time, more adult modelling or a sharper design challenge.

Written by the Structural Learning Research Team

Reviewed by Paul Main, Founder & Educational Consultant at Structural Learning

Frequently Asked Questions

Seven Stages of Block Play Development

Harriet Johnson (1933) documented seven stages, and researchers since have observed that learners usually develop through this sequence, from carrying to building representations. By age six, learners create more complex architectural designs (Piaget, 1954; Smith, 1998). Teachers use these milestones to track learners' spatial and thinking progress (Piaget, 1954; Smith, 1998; Eliot, 2010).

Block Play and Early Mathematical Development

Block play helps learners grasp shapes, symmetry, and fractions practically. Learners count and find patterns when selecting blocks (Casey et al., 2008). This work creates maths reasoning foundations (Ginsburg et al., 2006).

Block Play for Older Learners

Older learners can use blocks as manipulatives for sentence expansion, paragraph order, argument mapping and evidence ranking. Treat Writer's Block as a classroom tool, not as a research citation. Its value depends on the quality of the task, the teacher's modelling and the discussion that follows.

Research on Block Play and Academic Success

Research supports a link between block play, spatial reasoning and early mathematics, but it does not prove a simple pipeline from blocks to STEM attainment. Uttal et al. (2013) show that spatial skills can be trained, while Fisher et al. (2013) and Ferrara et al. (2011) point to guided play and spatial language as the higher-value classroom levers.

Common Block Play Setup Mistakes

The main mistakes are overcrowding the area and offering too few block types. Teachers can also miss chances to teach spatial language, or treat every structure as evidence of the same developmental stage. A better routine is to rotate materials, observe one focus skill and ask one precise question during each session.

Block Play and Social Development

Block play gives learners a shared problem: the bridge must stand, the road must connect, the tower must balance. Wolfgang, Stannard and Jones (2001) linked preschool block performance with later mathematics, and classroom observations show why: learners have to negotiate roles, explain designs, test alternatives and repair mistakes together.

Limitations and Critiques

Block play is often presented as a direct route to STEM readiness, but that claim is stronger than the evidence allows. Many studies are small, short term or correlational. Children with stronger spatial skills may choose blocks more often, so later achievement can reflect self-selection as well as learning. (Uttal et al., 2013) shows that spatial skills are trainable, but this does not prove that ordinary block provision alone causes later mathematics attainment.

A second limitation is equity. Free play does not give every learner equal access to the same concepts. (Pruden, Levine and Huttenlocher, 2011) found that adult spatial language varies widely and predicts later spatial thinking. (Weisberg et al., 2016) therefore matters because guided play keeps learner choice while adding adult modelling, vocabulary and challenge.

Using Johnson (1933) as a universal timeline also brings cultural and neurodevelopmental risks. The seven-stage model came from one nursery tradition, so it can place too much value on representational building. Autistic learners may line up, sort or repeat block arrangements for sensory regulation or mathematical patterning; Milton (2012) cautions against reading difference only as deficit.

Finally, commercial tools should not borrow evidence loosely. Writer's Block may be useful for grammar and argument planning, but its claims should be separated from general block play research. Paul Black (1998) supports formative assessment, not early years block pedagogy. Despite these limits, block play still has enduring value when teachers use precise language, close observation and flexible expectations.

References

Black, P. (1998). Inside the black box.

Further Reading

  • Casey, B. M., Andrews, N., Schindler, T., Kersh, J. E., Samper, A., & Copley, J. (2008). The development of spatial skills through geometric drawing in the primary grades. Contemporary Educational Psychology, 33(2), 180-201.
  • Christakis, D. A. (2011). The effects of infant media usage: What do we know and what should we learn? Acta Paediatrica, 100(5), 604-609.
  • Hirsh-Pasek, K., Golinkoff, R. M., Berkule, A., Singer, D. G. (2009). Play = Learning: How play motivates and enhances children’s cognitive and social-emotional growth. Oxford University Press.
  • Ramani, G. B., Eason, S. H., Shewark, S. P., & Verdine, B. N. (2016). Block building in early childhood as a support for later math and spatial skills. Early Childhood Research Quarterly, 36, 69-80.
  • Wohlwend, K. E. (2011). Literacy post 9/11: Rethinking multiliteracies for a digital age. Reading Research Quarterly, 46(4), 374-397.
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Paul Main, Founder of Structural Learning
About the Author
Paul Main
Founder & Metacognition Researcher

Paul Main is an educator and metacognition researcher who founded Structural Learning in 2002. With a psychology degree from the University of Sunderland and 22+ years helping schools embed thinking skills, he bridges the gap between educational research and classroom practice. Fellow of the RSA and Chartered College of Teaching, with 128+ Google Scholar citations.

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