Module 3 Integrating Science, Mathematics and Technology into Early Childhood Education (ECE)
Module overview
In this module we will unpack the learning areas of Mathematics, Science and Technologies and how these can be integrated into the early childhood curriculum through play-based learning and everyday experiences. We will consider the EYLFOpen this document with ReadSpeaker docReader
and NQS (https://www.acecqa.gov.au/sites/default/files/2018-07/RevisedNQSHandoutA4.pdf
和 NQS ( https://www.acecqa.gov.au/sites/default/files/2018-07/RevisedNQSHandoutA4.pdfOpen this document with ReadSpeaker docReader ) and Australian Curriculum Foundation Learning Areas (https://v9.australiancurriculum.edu.au/) to determine how these can be linked to experiences we plan for children. The close relationship between Mathematics and Science and how these learning areas connect with be explored, and how we can use technology as a tool to support children's learning will also be discussed.
)和澳大利亚课程基础学习领域(https://v9.australiancurriculum.edu.au/),以确定如何将这些领域与我们为儿童规划的体验相联系。我们还将探讨数学与科学之间的密切关系,以及这两个学习领域之间的联系,并讨论如何利用技术作为工具来支持儿童的学习。
和 NQS ( https://www.acecqa.gov.au/sites/default/files/2018-07/RevisedNQSHandoutA4.pdfOpen this document with ReadSpeaker docReader ) and Australian Curriculum Foundation Learning Areas (https://v9.australiancurriculum.edu.au/) to determine how these can be linked to experiences we plan for children. The close relationship between Mathematics and Science and how these learning areas connect with be explored, and how we can use technology as a tool to support children's learning will also be discussed.
)和澳大利亚课程基础学习领域(https://v9.australiancurriculum.edu.au/),以确定如何将这些领域与我们为儿童规划的体验相联系。我们还将探讨数学与科学之间的密切关系,以及这两个学习领域之间的联系,并讨论如何利用技术作为工具来支持儿童的学习。
Module purpose 单元目的
By the end of this module you will be able to:
本模块结束时,您将能够
本模块结束时,您将能够
- Define the terms mathematics and science
定义数学和科学 - Explain how science and mathematics concepts are integrated into ECE curriculum
解释如何将科学和数学概念纳入幼儿教育课程 - Describe how technology can be embeded across all curriculum areas as an effective resource
说明如何将技术作为一种有效资源嵌入所有课程领域
Introduction 导言
We will start this module with Mathematics, then look at Science and finally Technology. Even though these are separated learning areas in the Australian Curriculum (ACARA, 2022), our goal will be to consider how these can all be integrated together as no learning occurs in isolation.
本单元将从数学开始,然后是科学,最后是技术。尽管在澳大利亚课程(ACARA,2022 年)中,这些学习领域是分开的,但我们的目标是考虑如何将这些领域整合在一起,因为任何学习都不是孤立的。
本单元将从数学开始,然后是科学,最后是技术。尽管在澳大利亚课程(ACARA,2022 年)中,这些学习领域是分开的,但我们的目标是考虑如何将这些领域整合在一起,因为任何学习都不是孤立的。
Integrating mathematics and science into early childhood education is crucial for fostering a holistic and well-rounded developmental experience for young learners. By incorporating these learning areas into the curriculum, educators can promote curiosity, critical thinking, and problem-solving skills from an early age.
将数学和科学融入幼儿教育,对于培养幼儿全面、综合的发展经验至关重要。通过将这些学习领域纳入课程,教育工作者可以从小培养学生的好奇心、批判性思维和解决问题的能力。
将数学和科学融入幼儿教育,对于培养幼儿全面、综合的发展经验至关重要。通过将这些学习领域纳入课程,教育工作者可以从小培养学生的好奇心、批判性思维和解决问题的能力。
🔗Here are some key considerations and approaches for incorporating mathematics and science in early childhood education. Consideration of these will support you with the assessment tasks for this unit:
以下是将数学和科学纳入幼儿教育的一些主要考虑因素和方法。考虑这些因素将有助于你完成本单元的评估任务:
以下是将数学和科学纳入幼儿教育的一些主要考虑因素和方法。考虑这些因素将有助于你完成本单元的评估任务:
- Hands-On Exploration: 动手探索:
- Provide hands-on activities that allow children to explore mathematical and scientific concepts through play and discovery.
提供实践活动,让儿童通过游戏和发现来探索数学和科学概念。 - Use everyday objects and materials to engage children in activities that promote counting, sorting, measuring, and basic experimentation.
利用日常物品和材料,让儿童参与促进计数、分类、测量和基本实验的活动。
- Provide hands-on activities that allow children to explore mathematical and scientific concepts through play and discovery.
- Nature and Outdoor Learning:
自然与户外学习:- Take advantage of outdoor spaces to explore the natural world, fostering an early appreciation for science.
利用户外空间探索自然世界,培养早期的科学鉴赏力。 - Encourage activities like observing plants and animals, collecting leaves, and exploring the properties of natural materials.
鼓励开展观察动植物、收集树叶和探索自然材料特性等活动。
- Take advantage of outdoor spaces to explore the natural world, fostering an early appreciation for science.
- Storytelling and Literature:
讲故事与文学- Integrate mathematics and science into storytelling and literature to make these subjects more accessible and enjoyable for young learners.
将数学和科学融入讲故事和文学作品中,使这些学科更容易为青少年学习者所接受和喜爱。 - Choose books that introduce mathematical and scientific concepts in a relatable and age-appropriate manner.
选择以贴近生活、适合年龄的方式介绍数学和科学概念的书籍。
- Integrate mathematics and science into storytelling and literature to make these subjects more accessible and enjoyable for young learners.
- Inquiry-Based Learning: 探究式学习:
- Foster curiosity and critical thinking through inquiry-based learning experiences.
通过探究式学习体验培养好奇心和批判性思维。 - Encourage children to ask questions, make predictions, and explore answers through guided investigations.
鼓励孩子们提出问题、做出预测,并通过指导下的调查探索答案。
- Foster curiosity and critical thinking through inquiry-based learning experiences.
- Mathematics through Play:
在游戏中学习数学- Use games and activities to introduce mathematical concepts, such as number recognition, patterns, and spatial relationships.
利用游戏和活动介绍数学概念,如数字识别、模式和空间关系。 - Board games, puzzles, and building activities can provide a fun and interactive way to develop early math skills.
棋盘游戏、拼图和建筑活动可以提供一种有趣的互动方式来发展早期数学技能。
- Use games and activities to introduce mathematical concepts, such as number recognition, patterns, and spatial relationships.
- Scientific Exploration: 科学探索:
- Design age-appropriate experiments that allow children to observe, predict, and draw conclusions.
设计适合儿童年龄的实验,让他们观察、预测并得出结论。 - Incorporate simple science concepts like cause and effect, observation, and classification into hands-on experiments.
在动手实验中融入因果、观察和分类等简单的科学概念。
- Design age-appropriate experiments that allow children to observe, predict, and draw conclusions.
- Technology Integration: 技术整合:
- Introduce age-appropriate technology tools and resources that support mathematical and scientific exploration.
介绍适龄的技术工具和资源,以支持数学和科学探索。 - Interactive educational apps, educational videos, and age-appropriate digital tools can complement traditional learning methods.
- Introduce age-appropriate technology tools and resources that support mathematical and scientific exploration.
- Cross-Curricular Connections:
- Integrate mathematics and science with other subject areas to create meaningful connections and a holistic learning experience.
- Incorporate art, music, and language into activities that involve mathematical and scientific concepts.
By embedding mathematics and science into the early childhood curriculum, educators can contribute to the development of essential cognitive and analytical skills while fostering a love for learning in young children.
Integrating technology into early childhood education for mathematics and science can enhance learning experiences, engage young learners, and prepare them for the increasingly digital world. Here are some strategies for effectively incorporating technology into early childhood mathematics and science education:
- Educational Apps:
- Utilise age-appropriate educational apps that focus on math and science concepts. Choose apps that offer interactive, hands-on activities to make learning engaging and enjoyable.
使用适龄的教育应用程序,重点关注数学和科学概念。选择能提供互动和动手活动的应用程序,让学习充满吸引力和乐趣。 - Ensure that the apps align with educational goals and provide opportunities for exploration and discovery.
确保应用程序符合教育目标,并提供探索和发现的机会。
- Utilise age-appropriate educational apps that focus on math and science concepts. Choose apps that offer interactive, hands-on activities to make learning engaging and enjoyable.
- Interactive Whiteboards and Smart Tables:
交互式白板和智能桌:- Use interactive whiteboards or smart tables to facilitate collaborative learning experiences. These tools can be particularly effective for group activities that involve problem-solving, data representation, or virtual experiments.
使用交互式白板或智能桌来促进协作学习体验。这些工具对于涉及解决问题、数据表示或虚拟实验的小组活动尤为有效。
- Use interactive whiteboards or smart tables to facilitate collaborative learning experiences. These tools can be particularly effective for group activities that involve problem-solving, data representation, or virtual experiments.
- Digital Storytelling:
- Integrate digital storytelling tools to create interactive stories that incorporate mathematical and scientific concepts. This approach can enhance literacy skills while reinforcing content knowledge.
- Encourage children to use digital tools to illustrate and narrate their own stories related to math and science themes.
- Virtual Excursions:
- Go on virtual excursions using online resources that allow children to explore places related to science, such as museums, aquariums, or nature reserves. Virtual tours can provide rich, immersive experiences even when physical trips are not feasible.
- Interactive Simulations and Games:
- Incorporate interactive simulations and games that simulate real-world scientific phenomena or present math challenges in a playful way.
- Look for platforms that offer age-appropriate simulations, allowing children to experiment with concepts like gravity, weather, or basic arithmetic.
- Digital Manipulatives:
- Explore digital manipulatives that mimic traditional math tools like counters, pattern blocks, or number lines. Digital versions can provide a dynamic and interactive way for children to explore mathematical concepts.
- Apps and online platforms offering virtual manipulatives can be used to enhance hands-on learning experiences.
- Augmented Reality (AR) and Virtual Reality (VR):
- Integrate AR and VR experiences to bring abstract concepts to life. Virtual reality, in particular, can provide immersive environments for exploring scientific phenomena or mathematical concepts in three dimensions.
- Ensure that AR and VR experiences are developmentally appropriate and considerate of potential sensory issues.
- Online Collaborative Platforms:
- Use secure and age-appropriate online platforms for collaborative projects and discussions. These platforms can encourage communication, collaboration, and the sharing of ideas among young learners.
- Teachers can create digital spaces where children can work together on projects, share observations, and discuss scientific concepts.
- Digital Documentation:
- Implement digital documentation tools to capture and share children's learning experiences. Use photos, videos, and digital portfolios to showcase their engagement with math and science activities.
- Involving parents by sharing digital documentation can create a bridge between home and school learning.
When integrating technology into early childhood mathematics and science education, it is essential to balance screen time, choose developmentally appropriate tools, and align digital activities with educational goals. Additionally, regular monitoring and reflection on the impact of technology on learning outcomes can guide effective implementation.
Activity: Reading
Please read:
📖As an overview of the three areas: Chapter 9 from McLachlan, C., Fleer, M., & Edwards, S. (2013). Early Childhood Curriculum: Planning, Assessment, and Implementation (2nd ed.). Cambridge University Press.
Ch 9 content_knowledge_the_sciences_maths_and_numeracy.pdf
https://doi-org.ezproxy.scu.edu.au/10.1017/9781108131810.009
Ch 9 content_knowledge_the_sciences_maths_and_numeracy.pdf
https://doi-org.ezproxy.scu.edu.au/10.1017/9781108131810.009
🔎Should you wish to delve further into each of these individual learning areas consider the following:
Mathematics:
Vogt, F., Hauser, B., Stebler, R., Rechsteiner, K. & Urech, C. (2018) Learning through play – pedagogy and learning outcomes in early childhood mathematics, European Early Childhood Education Research Journal, 26:4, pp. 589-603. https://doi.org/10.1080/1350293X.2018.1487160
Science:
Supporting the Scientific Thinking and Inquiry of Toddlers and Preschoolers through Play. Hamlin, Maria Wisneski, Debora B. 2012.
Module 3 Hamlin, Wisneski et al., 2012 Supporting Scientific Thinking & Inquiry Through Play.pdf
Module 3 Hamlin, Wisneski et al., 2012 Supporting Scientific Thinking & Inquiry Through Play.pdf
Early childhood curriculum: planning, assessment and implementation: Book by Claire McLachlan; Marilyn Fleer; Susan Edwards 2013 Prescribed (pp.141-160) Chapter 9 - Content knowledge: The sciences, maths and numeracy.
McLachlan, Fleer, & Edwards (2013) Ch 9 content_knowledge_the_sciences_maths_and_numeracy.pdf
McLachlan, Fleer, & Edwards (2013) Ch 9 content_knowledge_the_sciences_maths_and_numeracy.pdf
Available in the library: Chapter 11 Sustainability and connecting to nature pp. 220-239 from Boyd, W., Green, N. & Jovanovic, J. (2021). Learning and Teaching in early childhood: Pedagogies of inquiry and relationships. Cambridge University Press. https://scu.primo.exlibrisgroup.com/permalink/61SCU_INST/114d5di/alma991012990273002368
Technology:
Pires Pereira, I. S., Cristo Parente, M. C. & Vieira da Silva, M. C. (2021). Digital literacy in early childhood education: what can we learn from innovative practitioners? International Journal of Early Years Education, pp.1-16.
Mathematics in early childhood
Young children are capable of mathematical thinking from a very early age. In the early years of childhood, especially from birth to five years old, it is essential for young children to be immersed in numeracy through everyday life experiences. Integrating mathematics into early childhood education through everyday experiences is a powerful way to help young children develop foundational math skills. Insights from brain research emphasise the importance of early stimulation and exposure to fundamental concepts associated with numeracy such as numbers, quantity, patterns, space, measurement and shapes. The Early Years Learning Framework (EYLF) describes numeracy as the capacity, confidence and disposition to use mathematics in daily life, and by incorporating mathematical concepts into daily routines and activities, educators and caregivers can make learning meaningful and relevant for young children.
In recognising the importance of integrating mathematics in everyday life ACECQA (2021) also highlight what mathematics in ECE is not. It is not rote learning, counting practice at group times, formal recognition of shapes, or pasting pre drawn numbers. Early childhood educators can experience pressure from families or external sources to introduce numeracy to young children in ways that may be unsuitable. This pressure often stems from families' desire to witness their children actively 'learning' and acquiring numeracy skills, and lack of understanding of the importance of play in ECE. A challenge for early childhood educators is to offer age-appropriate numeracy experiences that align with children's developmental stages while effectively communicating to families what constitutes appropriate numeracy for different age groups.
🔗🎬💭View this excellent video from the New South Wales (NSW) Government (2021) which considers numeracy in early childhood education. The video encourages you to reflect on your own thoughts about mathematics and suggests strategies for how to incorporate numeracy into ECE. The video also makes direct links to the EYLF Learning Outcomes, and will support you with your assessment tasks for this unit:
📖🔗 The following information sheet from the Australian Education Research Organisation (2021) builds on the information from the video and may be a helpful source to support you with your assessment tasks:
tried-tested-early-numeracy-aero.pdf (edresearch.edu.au)Open this document with ReadSpeaker docReader
tried-tested-early-numeracy-aero.pdf (edresearch.edu.au)Open this document with ReadSpeaker docReader
🎧The NSW Government also has the following numeracy in ECE podcasts available that you may wish to listen to: Early learning podcasts (nsw.gov.au)
🔗🔎 Theoretical and philosophical perspectives
Early childhood numeracy, or the development of mathematical understanding in young children, is approached from various theoretical perspectives in education and psychology. These perspectives offer frameworks for understanding how children acquire mathematical concepts, skills, and problem-solving abilities. Theoretical perspectives offer valuable insights into the processes underlying early childhood numeracy and inform instructional practices aimed at promoting mathematical learning and development in young children. Effective numeracy instruction often integrates principles from multiple theoretical perspectives and recognises the diverse ways in which children engage with mathematical concepts and problem-solving tasks, but what are these perspectives?
Jean Piaget's theory of cognitive development remains foundational in our understanding of how children construct mathematical knowledge during early childhood, suggests that children progress through distinct stages of cognitive growth. In terms of numeracy, Piaget proposed that children initially develop an understanding of basic mathematical concepts through hands-on experiences with objects and actions (sensorimotor stage). For example, they might engage in activities like counting objects, sorting items by size or shape, and comparing quantities. As they mature, children progress to more abstract and logical thinking about numbers and operations (concrete operational stage). Piaget's traditional belief that children cannot engage with complex mathematics until the concrete operational stage, typically around 6 years old, has faced criticism. Clements and Sarama (2018) have questioned this view. Dehaene (2011) argued that Piaget's research methods were not suitable for young children, leading to a failure to recognise infants' early mathematical abilities, including rudimentary arithmetic skills and a well-developed number sense.
Piaget emphasised the importance of active exploration and interaction with the environment in the development of mathematical understanding and recent research (Ondog & Kilag, 2023) has reiterated the positive impact of hands-on learning experiences, collaborative activities, and the integration of manipulatives in enhancing students' conceptual understanding of numeracy concepts Consider how this will impact the learning environment that you create for children: what will you include so that children can actively explore and interact with the environment to develop their mathematical understanding? The use of manipulatives, such as counting blocks, geometric shapes, and measuring tools, has been shown to be an effective instructional strategy in facilitating conceptual understanding and mathematical reasoning among young learners (Kilag, et al., 2023). Manipulatives not only provide concrete representations of abstract mathematical concepts but also enable children to engage in hands-on activities that promote a deeper understanding of numerical relationships and operations. A study by Saha (2023) has also highlighted the benefits of integrating play-based activities, such as games, puzzles, and interactive learning tasks, in promoting children's mathematical thinking and problem-solving skills. Play-based learning environments provide opportunities for children to develop mathematical concepts through exploration, collaboration, and creative problem-solving, thereby fostering a positive attitude towards mathematics and learning.
📖 For more discussion of Piaget's theory in relation to numeracy you may like to read: Emergent-Numeracy-Nature-Nurture-and-Meaning.pdf (researchgate.net)Open this document with ReadSpeaker docReader
Alongside Piaget, Maria Montessori intuitively recognised the significance of authentic experiences for developing understanding. Believing that children are born with a 'mathematical mind' supported by our human tendencies for order, exactitude, and orientation (Montessori, 2007). Montessori's educational philosophy emphasises hands-on learning, individualised instruction, and the creation of prepared environments conducive to children's natural development. In Montessori classrooms, numeracy development begins with concrete, sensorial experiences that allow children to explore mathematical concepts through manipulation and interaction with specially designed materials.
Vygotsky's socio-cultural theory emphasises the role of social interactions and cultural tools in cognitive development. From this perspective, children learn mathematical concepts and skills through social interactions with more knowledgeable others, such as parents, teachers, and peers. Vygotsky's theory highlights the importance of collaborative learning experiences and guided instruction. Teachers and caregivers play a critical role in facilitating children's mathematical development by providing opportunities for meaningful interactions, posing challenging tasks, and offering support and feedback as children engage in mathematical problem-solving activities. The use of language, symbols, and mathematical representations within the child's sociocultural context plays a crucial role in the development of numeracy skills. Language plays a central role in Vygotsky's theory of numeracy development. Through social interactions and dialogue with more knowledgeable others, Vygotsky considered that children internalise mathematical language, symbols, and concepts, which serve as cognitive tools for thinking and reasoning about numerical relationships and operations. By engaging in mathematical discourse, children not only clarify their own understanding but also construct new mathematical knowledge through collaborative meaning-making processes. Vygotsky's theory emphasises the importance of cultural tools, such as mathematical manipulatives, diagrams, and representations, in mediating children's mathematical thinking. These tools serve as external aids that support children's understanding of abstract mathematical concepts by providing concrete and visual representations of numerical relationships and operations.
📖 For more discussion of Vygotsky's theory in relation to numeracy you may like to read: Walshaw, M. (2017). Understanding mathematical development through Vygotsky. Research in Mathematics Education, 19 (3), 293-309. https://doi.org/10.1080/14794802.2017.1379728.
The Reggio Emilia approach to numeracy emphasises active exploration, inquiry-based learning, and the integration of mathematical concepts into meaningful contexts. By creating environments that fosters children's curiosity, creativity, and diverse ways of thinking, Reggio Emilia-inspired educators support children in developing a deep and meaningful understanding of numeracy that extends beyond rote memorisation and procedural knowledge. In Reggio Emilia-inspired environments, numeracy is integrated into daily experiences and activities, fostering a holistic approach to mathematical learning. Materials and resources related to numeracy, such as counting materials, measurement tools, and geometric shapes, are thoughtfully arranged to encourage exploration and inquiry. Children are encouraged to interact with these materials in open-ended ways, promoting mathematical thinking and problem-solving
0-5 Numeracy learning
🔗Infants and Toddler numeracy
Infants and Toddlers (0-2 year olds) begin to develop foundational mathematical understandings even in their earliest months. Children of this age naturally start building the groundwork for mathematical concepts through sensory experiences, interactions, and observations. It is essential to note that these early mathematical learnings occur naturally through everyday experiences, interactions, and play rather than formal instruction. The development of early numeracy skills is reinforced through repetitive routines like preparing for bedtime, the use of descriptive numeracy vocabulary such as "more water," and informal activities like counting toes or others objects in their environment. Educators and caregivers play a crucial role in creating a supportive environment that encourages children's play, exploration, provides exposure to mathematical concepts, and responds to the child's communication, cues and interests.
Here are some ways in which infants can begin to learn mathematical concepts:
- Counting and Quantity: Infants gradually develop a sense of quantity through experiences like recognising the number of fingers or toes, observing a caregiver counting during play, or engaging in activities that involve repetition.
- Patterns: Infants are sensitive to visual and auditory patterns. They may recognise familiar sequences, rhythms, or repeated actions, laying the groundwork for understanding basic patterns and sequences.
- Spatial Awareness: Infants begin to grasp spatial relationships by exploring their surroundings. For example, they learn about the concept of "in" and "out" through activities like placing objects into containers or taking them out.
- Comparisons: Infants can distinguish between different sizes, colours, and shapes. Simple activities such as playing with blocks or toys of various sizes contribute to their understanding of comparisons.
- Cause and Effect: Understanding cause and effect is a fundamental mathematical concept. Infants learn about relationships between actions and outcomes through interactions like dropping objects and observing reactions.
- Number Recognition: While infants may not comprehend numerical symbols, they can recognise and differentiate between small quantities. For instance, they may show a preference for a group of objects with more items.
📖🔎 You may like to read more about mathematical learning of very young children in the context of early childhood educational practice via the following article by Australian researchers: MacDonald, Deehan,. & Lee. (2023). Relations between early childhood educators’ qualifications and experience and their beliefs about mathematics education for babies and toddlers, Australian Journal of Education, 67(3), 253-269. https://doi.org/10.1177/00049441231193776
🔗Pre-school numeracy
Pre-school numeracy for 3-5 year olds focuses on building a strong foundation for future mathematical understanding through hands-on, interactive, and play-based experiences. The goal is to foster a positive attitude toward mathematics and promote a love for learning in these early years.
In the context of pre-school education for 3-5 year olds, emerging numeracy knowledge, skills and understanding encompasses the introduction of foundational mathematical concepts using a developmentally appropriate approach. Skills underpinning numeracy include reasoning, classifying, grouping, sorting, recognising, distinguishing, symbolising, sequencing, and representing, and the focus of educators should be on creating a supportive and engaging environment that encourages play, exploration, curiosity, and the gradual development of early numeracy skills. Here are key aspects of pre-school numeracy for 3-5 year olds:
- Counting and Numeral Recognition:
- Introduction to counting, recognising numbers, and understanding the concept of quantity.
- Engaging activities such as counting objects, fingers, or toes to develop basic numeracy skills.
- Basic Operations:
- Introduction to simple mathematical operations such as addition and subtraction in a playful and hands-on manner.
- Using manipulatives and visual aids to illustrate basic arithmetic concepts.
- Shapes and Patterns:
- Exploring basic shapes and patterns through activities like sorting and arranging objects.
- Encouraging creativity through art activities that involve geometric shapes and patterns.
- Measurement Concepts:
- Introduction to basic measurement concepts such as big and small, long and short.
- Incorporating measurement into everyday activities, such as comparing the sizes of objects.
- Spatial Awareness:
- Developing spatial awareness through activities that involve positioning and orientation.
- Playing games that enhance understanding of spatial relationships, such as inside and outside.
- Math in Daily Routines:
- Integrating numeracy into daily routines, such as counting during snack time or discussing the concept of time during scheduled activities.
- Providing real-world contexts for mathematical concepts.
- Play-Based Learning:
- Emphasising play-based learning to make numeracy enjoyable and engaging.
- Incorporating games and activities that involve mathematical concepts, fostering a positive attitude toward learning.
- Social Interaction and Communication:
- Encouraging children to communicate and express mathematical ideas verbally.
- Facilitating group activities that involve collaboration and communication.
- Assessment through Observation:
- Informal assessment through observations to understand each child's progress and tailor instruction accordingly.
- Identifying individual interests and preferences to customize numeracy experiences.
- Parental Involvement:
- Promoting parental engagement by providing resources and suggestions for reinforcing numeracy skills at home.
- Collaborating with parents to ensure continuity between home and pre-school learning experiences.
To establish an environment that fosters the growth of numeracy skills, educators must thoughtfully assess the resources within the Early Childhood Education (ECE) setting. Various materials, whether natural, recycled, or bought, offer a diverse range to enhance numeracy development in early childhood programs, both indoors and outdoors. Examples include shells, leaves, seed pods, or stones; water presented in troughs, tubs, or containers; outdoor sandpits or indoor troughs and trays filled with sand, and wooden blocks, available in both small and large sizes. Additional outside resources could include obstacle course which provides opportunities for modelling ‘positional language’ – words such as under, over, through, between, inside, outside, on top, underneath, across, up, down. Digging a patch in the garden: Concepts include the amounts of water in the digging patch, height of soil, depth of the holes that may be dug. Gardening: there are many opportunities for numeracy in gardening activities including placing one seed per hole to measuring plant growth over time.
🔗💭Consider the photos below and the links to numeracy/mathematic concepts:
🎧Podcast:
Numeracy and the EYLF Learning Outcomes
❗The following activity provides you with the opportunity to test your understanding regarding how the EYLF Learning Outcomes link to numeracy learning in ECE.
🔗This activity will support you with your assessment tasks.
As you continue to complete this module reflect on how the learning areas of Science and Technology could link to the EYLF Outcomes.
As you continue to complete this module reflect on how the learning areas of Science and Technology could link to the EYLF Outcomes.
NQS links to numeracy
🔗The National Quality Standard (NQS)https://www.acecqa.gov.au/sites/default/files/2018-07/RevisedNQSHandoutA4.pdfOpen this document with ReadSpeaker docReader
in Australia sets out the criteria for assessing and promoting the quality of education and care services. While it does not specifically mention numeracy, the principles and elements within the NQS can be linked to the development of numeracy skills in early childhood education. Review your understanding of which NQS Quality Areas can be linked to numeracy, and how, here:
🔗💭 As you continue to complete this module reflect on how the learning areas of Science and Technology could link to the NQS. This will support you with the assessment tasks.
Science within children's lives and the EYLF
All children are fledgling scientists by the definition of the Science Council of the United Kingdom (UK) which states:
"A scientist is someone who systematically gathers and uses research and evidence, to make hypotheses and test them, to gain and share understanding and knowledge". "Science is the pursuit and application of knowledge and understanding of the natural and social world following a systematic methodology based on evidence" (Science Council, 2022).
The Australia Academy of Science (2022) considers that science can be thought of as both things we have already discovered and is the process through which we acquire new knowledge, through observing, experimenting, testing and hypothesising. Children question their world seeking methods to find answers from the moment they are born. Without words, they use their senses to explore cause and effect, what happens if I drop my spoon on the floor, who will come if I cry, what the sand tastes like. All senses, all parts of their body, and then when they have the language skills comes the constant stream of questions. They are persistent and consistent in their pursuit of knowledge, insatiable and our role as educators is to try and feed the beasts that are their minds.
integrating science into early childhood education in Australia aligns with the EYLF Outcomes, Principles, and Practices, as well as the NQS. It provides children with opportunities to explore, discover, and develop an understanding of the world around them through scientific inquiry and engagement with the natural environment. The creation of active learning environments is a key element of the EYLF and supports the integration of Science. This is defined as:
"one in which children are encouraged to explore and interact with the environment to make (or construct) meaning and knowledge through their experiences, social interactions and negotiations with others. In an active learning environment, educators play a crucial role of encouraging children to discover deeper meanings and make connections among ideas and between concepts, processes and representations. This requires educators to be engaged with children’s emotions and thinking" (DET. 2019, p. 48).
This description aligns closely with the suggestion that educators are needed to facilitate connections between children and the environment they investigate. The EYLF Learning outcomes all require the educator to create a safe and secure environment for children to explore one that is ever expanding allowing the child to become confident and knowledgeable about that world. Science activities can contribute to various Learning Outcomes, particularly:
🔗Outcome 2: Children are connected with and contribute to their world.
Links to Science: Exploring the natural environment, understanding living things, and engaging in scientific inquiry contribute to children being connected with and understanding their world.
This is achieved by following the Principles and Practices of the EYLF (DET, 2022) under the NQS (ACECQA, 2018). Two principles that align with science education are:
Principle 4: Respect for Diversity.
Links to Science: Engaging in science activities that explore the diversity of living things, ecosystems, and the physical world promotes respect for diversity in the natural environment.
Principle 5: Ongoing Learning and Reflective Practice.
Principle 5: Ongoing Learning and Reflective Practice.
Links to Science: Reflecting on and extending science experiences supports ongoing learning for both educators and children. It encourages educators to refine and improve their science-based practices.
Which other EYLF Principles could science link to and how?
Science also aligns with several EYLF practices, including:
Practice 1: Secure, Respectful, and Reciprocal Relationships.
Links to Science: Building relationships with the natural environment, animals, and plants fosters a reciprocal connection and respect for the world around us.
Practice 3: Planning for and Implementing Learning through Play.
Links to Science: Designing play-based learning experiences that involve scientific exploration and experimentation supports children's engagement with scientific concepts.
Which other EYLF Practices could science link to and how?
Do a search of the EYLF below for the word Science to deepen your understanding of how it needs to be integrated into children's learning activities. (💡Quick Tip: use Ctrl F on your keyboard to quickly search for each place where the word Science appears in EYLF).
Technologies in early childhood
There is no more controversial topic that causes disharmony amongst both parents and educators, than the use of technologies in ECE. Everyone will have an opinion as to how much time should be spent on devices, what types of devices are educational, what programs are appropriate, what age should they be introduced, and the list goes on. But technology is ever advancing and ever more being integrated into our lives whether we like it or not. Children are increasingly growing up in digital contexts. Phones and watches are mini computers that track, manage and remind us what we should and shouldn't be doing every minute we are awake. Our refrigerators and lights can be programmed to talk to our phones, and we can watch our children in their EC service if we feel we want to. The march of technology has increased to a sprint with medicine, management of data, crypto currencies, and space exploration a few more examples of technologies impacting on our lives.
🎬View the Tedx Talk here which considers the power of screens, how children understand screens, and what they can learn from screens:
Technology, however, does not just encompass screens such as computers, televisions, and tablet devices. The EYLF defines technologies to include "much more than computers and digital technologies used for information, communication and entertainment. Technologies are the diverse range of products that make up the designed world. These products extend beyond artefacts designed and developed by people and include processes, systems, services and environments" (DET, 2019, p. 49). There is a consistent message throughout the EYLF (2022) that technologies must be incorporated so that children learn not only how they can benefit their research and production of ideas, but also so they are prepared and confident users, who become interested tech savvy society contributors.
Technology in early childhood education can be a valuable tool when used thoughtfully and purposefully. When integrated effectively, technology can enhance learning experiences, engage young learners, and support their overall development. Technology can be a way for educators and children to reflect and extend on their interests, as well as a way to explore the wider community.
The following are some ways technology is often used in early childhood education:
- Interactive Learning Apps:
- Educational apps designed for young children can provide interactive and engaging activities that promote early literacy, numeracy, and problem-solving skills.
- Digital Storytelling:
- Digital platforms, interactive e-books, and storytelling apps can be used to enhance language development and storytelling skills. Children may also create their own digital stories.
- Educational Websites:
- Safe and age-appropriate websites offer games and activities that reinforce educational concepts. These may cover a range of subjects, including science, math, and literacy.
- Smartboards and Interactive Whiteboards:
- Interactive whiteboards in classrooms allow teachers to present lessons in an engaging manner, incorporating interactive elements that encourage student participation.
- Educational Software:
- Educational software applications tailored for early childhood education can offer a variety of activities to support learning objectives, from phonics games to math challenges.
- Coding and Robotics:
- Simple coding apps and age-appropriate robotics kits can introduce young children to foundational concepts of coding and problem-solving in a playful way.
- Digital Art and Creativity Tools:
- Digital art tools and creative apps allow children to explore their artistic expression and develop fine motor skills through activities like drawing, painting, and designing.
- Virtual Excursions:
- Virtual reality (VR) or online platforms can provide virtual field trips, allowing children to explore different places and cultures without leaving the classroom.
- Communication Platforms:
- Digital communication tools can facilitate collaboration and communication between teachers, parents, and students, keeping everyone informed about a child's progress and activities.
- Adaptive Learning Platforms:
- Adaptive learning platforms can tailor content to each child's individual needs, providing targeted practice and support in areas where they may need additional help.
- Tablets and Touchscreen Devices:
- Tablets with educational apps and touchscreen devices can be used for interactive learning experiences that promote fine motor skills and hand-eye coordination.
- Digital Music and Audio Resources:
- Digital music apps and audio resources can introduce children to different genres of music, help with rhythm development, and support language acquisition.
When integrating technology in early childhood education, it's crucial to consider the following:
- Age-Appropriateness: Ensure that technology tools and content are developmentally appropriate for the age of the child.
- Balanced Use: Use technology as a supplement to, not a replacement for, hands-on and interactive learning experiences.
- Teacher Guidance: Teachers play a vital role in guiding and facilitating children's interactions with technology, providing support and context for their activities.
- Safeguarding: Prioritize children's online safety and ensure that they use age-appropriate and secure digital platforms.
Early Childhood Australia (ECA) Statement on young children and digital technologies
In 2018 the ECA Statement on young children and digital technologies was developed in response to an identified need for guidance for early childhood professionals on the role and optimal use of digital technologies with, by and for young children in early childhood education and care settings. The Statement on young children and technologies supports the early childhood education and care sector, children, families, decision-makers and technology developers to understand technology use with and for young children. It provides an overview of existing research about young children and digital technologies in four known areas of importance in early childhood education:
1. Relationships
2. Health and wellbeing
3. Citizenship
4. Play and pedagogy.
2. Health and wellbeing
3. Citizenship
4. Play and pedagogy.
Each area canvassed in this Statement is accompanied by a guiding principle and ‘practice advice’ intended to facilitate professional reflection on the role and optimal use of digital technologies with, by and for young children, according to the digital contexts in which young children, their families and educators play, live and work.
📖🔎The full statement can be downloaded here: Digital-policy-statement.pdf (earlychildhoodaustralia.org.au)Open this document with ReadSpeaker docReader
and a summary version with an overview of the four areas of importance can be accessed here: ECA-Digital-Policy-Statement_A-Summary-FA_web_SingleDoc.pdf (earlychildhoodaustralia.org.au)Open this document with ReadSpeaker docReader
🔗📖 The following ACECQA blog post by Rhonda Livingstone (2015) considers links between technology and the NQS areas, whilst also providing links and suggestions for resources to support educators’ work using digital touch technologies with children: Using digital touch technologies to support children’s learning | ACECQA
🎧The podcast here https://youtu.be/ffxtUQ5CFRQ although quite a long listen, is fabulous! Here children's rights to technology, the 21st century skills, and the debates around screentime are discussed.
Integrating technology across learning areas in EC
Embedding technology across all ECE learning areas involves thoughtful planning, intentional integration, and a focus on enhancing learning experiences. Here are some strategies for effectively incorporating technology into various learning areas in early childhood education:
- Assess Educational Goals:
- Identify the learning outcomes and goals for each learning area (e.g., literacy, numeracy, science, and social skills) to determine how technology can support and enhance these objectives.
- Choose Age-Appropriate Tools:
- Select technology tools that are developmentally appropriate for young children. This may include interactive apps, educational games, e-books, and digital storytelling platforms designed for early learners.
- Integrate Technology into Literacy:
- Use e-books, interactive storytelling apps, and digital resources to support early literacy skills. Encourage children to use technology tools to create their own digital stories or engage in literacy-based games.
- Enhance Numeracy with Technology:
- Integrate math apps, interactive games, and educational software that focus on numeracy skills. For example, use digital tools for counting, sorting, pattern recognition, and basic math concepts.
- Explore Science and Discovery Apps:
- Use science apps and digital resources to explore concepts like the natural world, weather, animals, and simple experiments. Virtual field trips and interactive simulations can enhance science learning.
- Promote Creativity and Art:
- Introduce digital art tools that allow children to express their creativity. Digital drawing apps, storytelling apps, and multimedia tools can be used to create and share artistic creations.
- Incorporate Technology into Physical Activities:
- Use technology to support physical development by integrating movement-based apps, dance or yoga videos, or interactive games that promote gross and fine motor skills.
- Support Social and Emotional Learning (SEL):
- Utilise technology tools that promote social and emotional development. Video conferencing for virtual playdates, interactive social stories, and emotion recognition apps can support SEL skills.
- Facilitate Collaborative Learning:
- Use technology to facilitate collaboration and communication among children. Interactive whiteboards, video conferencing, and collaborative project-based apps can enhance teamwork and communication skills.
- Encourage Problem-Solving and Critical Thinking:
- Integrate puzzle apps, coding games, and problem-solving activities that challenge children's thinking and enhance their cognitive skills.
- Provide Opportunities for Exploration:
- Use technology tools to extend learning beyond the classroom. Virtual field trips, online resources, and educational videos can provide children with opportunities to explore a variety of topics.
- Foster Family Involvement:
- Encourage families to use technology at home to reinforce learning. Share recommendations for educational apps, provide digital resources, and communicate how technology can support continued learning outside the classroom.
- Professional Development for Educators:
- Offer ongoing professional development opportunities for educators to stay informed about the latest educational technology trends and effective ways to integrate technology into the curriculum.
- Balance Screen Time:
- Ensure a balanced approach to screen time by incorporating a variety of learning experiences, including hands-on activities, outdoor play, and social interactions.
By integrating technology strategically across all early childhood learning areas, educators can provide a well-rounded and engaging educational experience that meets the developmental needs of young learners. It is essential to maintain a balance, ensuring that technology enhances learning without overshadowing other important aspects of early childhood education.
Summary
The three topics of Science, Mathematics and Technology are important for EC educators to embrace. Previous experiences at school or lack of confidence can sometimes result in educators to shy away from these areas. However, this Module has introduced simple ways to incorporate what appear to be complex topics, authentically into our programs through play based, real-life, and authentic learning activities. Children are investigators who solve problems, they inquire, they explore and question. These are natural traits of scientists and mathematicians. The EYLF (2022) and Australian Curriculum (ACARA, 2022) clearly show connections with, and the importance of supporting children learning utilising their innate traits and interests. Throughout this module we have shown that integration is not only possible but can be simple when authentically connected to child-centred experiences based on the children's interests and needs.
Showing children the incredible opportunities technology can have, growing their knowledge through, and by using everyday technologies, allows educators to model and discuss the healthy use of these devices. We can introduce children to online safety and how to check with adults when finding anything that does not feel right. Educators can help children to manage their own use of devices helping them to develop a balanced approach to using digital devices. Computers, Artificial Intelligence (AI), social robots, space travel are just some of the areas that will advance dramatically in their lifetimes; many children will move into jobs that are unknown now, based in these tech, science, and mathematics professions. It is our role to shine a light on both the good and not so good issues that envelop the use of technology through our ECE curriculum practices and conversations. We hope you personally feel more confident in managing these subjects after completing this Module and we look forward to unpacking these more with you during the Tutorials for this module where we will also consider the links between the three learning areas and the EYLF, NQS QAs, and Australian Curriculum Foundation level Learning Areas. in more depth too.