Integrating STEAM in the Preschool Classroom

Ashley Boudreaux, M.Ed., Sabine Parish School Board

Dr. Michelle Fazio-Brunson, Northwestern State University

Introduction to Science, Technology, Engineering, Art, and Math (STEAM) in Early Childhood Education

As technology continues to influence society and the workplace, STEAM instruction has become increasingly important in Early Childhood classrooms (Johnston et al, 2022). STEAM education integrates science, technology, engineering, art, and mathematics to help young children develop creativity, problem-solving, communication, and critical thinking skills. According to the National Center on Early Childhood Development, Teaching and Learning (2019), STEAM learning encourages children to “gather and use evidence to create knowledge or solve problems” (p. 1). These skills are easily practiced because young children naturally learn through observing, manipulating, exploring, and experimenting with their environment (Eckhoff, 2018; Alghamdi, 2023). Through these experiences, children begin asking questions, forming hypotheses, and expressing understanding through building, designing, and creating.

Research demonstrates that STEAM learning supports children’s cognitive, social, emotional, and creative development while promoting inquiry-based learning and engagement (Hunter-Doniger, 2021). Because STEAM instruction emphasizes play, imagination, and hands-on exploration, it aligns closely with developmentally appropriate practices commonly used in early childhood education. Furthermore, integrated STEAM instruction creates inclusive opportunities for all children by encouraging collaboration, creativity, and exploration regardless of gender or background (Areljung & Günther-Hanssen, 2021).

Creating a STEAM-Rich Learning Environment

A STEAM-rich classroom environment engages children’s senses through varied materials, textures, sounds, colors, and opportunities for exploration. One major advantage of STEAM instruction is its cross-curricular nature, allowing children to learn concepts from several disciplines simultaneously (Chaldi & Mantzanidou, 2021; Eckhoff, 2018). For example, children may mix colors during a science experiment and create artwork while exploring scientific concepts. Activities such as sorting objects, sequencing items, measuring materials, or comparing weights encourage critical thinking and problem-solving skills (National Center on Early Childhood Development, Teaching and Learning, 2019; Hunter-Doniger, 2021).

Young children benefit from open-ended learning provocations that encourage curiosity and investigation (Koester, 2014; Johnston et al., 2022). Because children develop at different rates and possess unique interests, they require adequate time to fully explore concepts and materials. Teachers play an essential role by listening to children’s observations, asking thoughtful questions, and providing scaffolding that extends learning (Eckhoff, 2018; Vartiainen). Recent research also emphasizes that playful inquiry and open-ended investigations are key components of successful STEAM instruction in Early Childhood classrooms (Johnston et al., 2022). Through meaningful exploration, children become active participants in the learning process rather than passive recipients of information.

Everyday Materials that Support STEAM Learning

One benefit of STEAM instruction is that meaningful learning experiences can often be created using inexpensive, everyday classroom materials. Teachers do not need expensive technology or specialized equipment to implement effective STEAM activities. Common materials that support STEAM learning include blocks, books, role-play props, measuring tools, art supplies, natural materials, ramps, magnifying glasses, sand and water tools, and recycled items. Sensory materials such as cotton balls, pom-poms, baking soda, food coloring, snow, and ice can also encourage experimentation and scientific inquiry.

Using familiar materials enables teachers to design open-ended experiences that support creativity and exploration while remaining aligned with curriculum standards (Koester, 2014; Vartiainen, 2021). Research on makerspaces and creative learning environments suggests that simple materials can effectively promote innovation, collaboration, and problem-solving in young children (Johnston et al., 2022). These opportunities help children practice persistence, communication, and flexible thinking while discovering new ways to interact with the world around them.

The Teacher’s Role in STEAM Learning

In STEAM classrooms, teachers serve as facilitators and guides rather than simply delivering information. Effective STEAM teaching supports children’s learning through play, inquiry, and exploration (Eckhoff, 2018; Areljung & Günther-Hanssen, 2021). Teachers must carefully balance when to scaffold learning and when to allow children to work independently. According to the National Center on Early Childhood Development, Teaching and Learning (2019), providing too little support may lead to frustration, while too much support can prevent children from developing problem-solving skills and independence.

Teachers can scaffold learning through prompting, questioning, modeling, discussing, and encouraging reflection without limiting children’s creativity. Questions such as “What do you notice?”, “What happened?”, “What else could you try?”, and “What do you think will happen next?” encourage children to predict, analyze, and reflect on their experiences. Observing and documenting children’s play also allows teachers to identify children’s strengths, interests, and challenges so they can plan meaningful experiences that meet individual developmental needs (Eckhoff, 2018; Chaldi & Mantzanidou, 2021).

Teacher preparation and confidence also play important roles in successful STEAM implementation. Research suggests that teachers who feel supported and knowledgeable about STEAM practices are more likely to create engaging, inquiry-based learning opportunities for children (Alghamdi, 2023). As a result, professional development and ongoing training are essential for helping teachers effectively integrate STEAM into Early Childhood classrooms.

Sample STEAM Activities for Young Children

“STEAM learning happens naturally every day as children explore, play, and try new things” (National Center on Early Childhood Development, Teaching and Learning, 2019, p. 1). Young children learn best through authentic activities that require reasoning, creating, and connecting prior knowledge with new information. Examples of meaningful STEAM activities include observing living things, experimenting with objects that sink and float, constructing with building materials, and exploring sensory materials (Koester, 2014; Johnston et al., 2022).

Free play is another important aspect of STEAM learning because it gives children opportunities to independently investigate materials and solve problems. Activities such as repurposing broken toys, creating with art materials, and exploring sensory, sand, and water bins encourage creativity and innovation. Research shows that play-based STEAM learning increases motivation, autonomy, and engagement while helping children build scientific thinking skills (Hunter-Doniger, 2021; Vartiainen, 2021).

Books and read-alouds also contribute to STEAM learning by expanding children’s vocabulary and encouraging curiosity about the environment. According to the National Center on Early Childhood Development, Teaching and Learning (2019), literature can prompt children to ask questions and notice characteristics of objects and living things. Follow-up STEAM activities after read-alouds may include asking “Why?” questions, participating in counting and rhyming activities, and retelling stories through music, movement, or dramatic play (Koester, 2014, Johnston et al., 2022). In addition, educational robotics and coding activities are increasingly used in early childhood classrooms to strengthen communication, collaboration, and technological literacy through playful engagement (Chaldi & Mantzanidou, 2021).

Conclusion

STEAM instruction provides young children with meaningful opportunities to investigate, create, experiment, and solve problems. Research consistently demonstrates a positive relationship between early STEAM experiences and future academic success (National Center on Early Childhood Development, Teaching and Learning, 2019; Johnston et al., 2022). By creating child-centered classrooms rich in exploration, creativity, and inquiry, teachers help children develop confidence, collaboration, and critical thinking skills that prepare them for lifelong learning (Eckhoff, 2018; Johnston et al., 2022). Recent research further supports the importance of play-based and inquiry-driven STEAM education in fostering innovation, curiosity, and engagement in young learners (Areljung & Günther-Hanssen, 2021; Johnston et al., 2022). Through intentional teaching practices and meaningful exploration opportunities, STEAM learning empowers children to become active, capable, and creative learners in an increasingly technological world.

References

Alghamdi, A. A. (2023). Exploring early childhood teachers’ beliefs about STEAM education in Saudi Arabia. Early Childhood Education Journal, 51, 247–256. https://doi.org/10.1007/s10643-021-01303-0

Areljung, S., & Günther-Hanssen, A. (2021). STEAM education: An opportunity to transcend gender and disciplinary norms in early childhood? Contemporary Issues in Early Childhood, 23(4), 390–403. https://doi.org/10.1177/14639491211051434

Chaldi, D., & Mantzanidou, G. (2021). Educational robotics and STEAM in early childhood education. Advances in Mobile Learning Educational Research, 1(2), 72–88. https://doi.org/10.25082/AMLER.2021.02.003

Eckhoff, A. (2018). Creative investigations in early science. Gryphon House.

Hunter-Doniger, T. (2021). Early childhood STEAM education: The joy of creativity, autonomy, and play. Art Education, 74(4), 22–27. https://doi.org/10.1080/00043125.2021.1905419

Johnston, K., Kervin, L., & Wyeth, P. (2022). STEM, STEAM and makerspaces in early childhood: A scoping review. Sustainability, 14(20), 13533. https://doi.org/10.3390/su142013533

Koester, A. (2014). Integrating STEAM into the ECE classroom: Finding and utilizing the right resources for your center. Early Childhood Investigations Webinars.  https://www.earlychildhoodwebinars.com/wp-content/uploads/2014/03/4.9.14-ECE-STEAM-slides.pdf

National Center on Early Childhood Development, Teaching and Learning. (2019). Understanding STEAM and how children use it. http://eclkc.ohs.acf.hhs.gov/sites/default/files/pdf/steam-ipdf.pdf

Vartiainen, J. (2021). Play is a pathway to science: STEAM education in early childhood. Childhood Education, 97(5), 56–59. https://doi.org/10.1080/00094056.2021.1982295

Dr. Michelle Brunson directs the graduate programs in Early Childhood Education at Northwestern State University of Louisiana. She is passionate about helping her husband, the former Natchitoches District Defender, remap the Cradle to Prison Pipeline to a Cradle to College Pipeline in Louisiana. She can be contacted at faziom@nsula.edu.

Ashley Boudreaux, M.Ed., has worked in Early Childhood Education for Sabine Parish School Board for more than 25 years. She currently serves as the Pre-K Educational Facilitator. 

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