TCHR2003 Assessment 2 Portfolio 1500 words

TCHR2003: Curriculum Studies in Early Childhood Education
Summary
Title: Assessment 2
Type: Portfolio
Due Date: Friday, April 12 11:59 pm AEST/AEDT (Week 6)
Length: 1500 words
Weighting: 50%
Submission: Word document submitted to Turnitin (for written assessments).

Unit Learning Outcomes:
ULO1: describe and justify curriculum in early childhood education and care services.
ULO2: understand and demonstrate conceptual knowledge related to key learning areas for children from birth to five years.
ULO3: argue, with reference to the literature, how curriculum key learning areas can be applied to support children’s learning.
ULO4: create and analyse learning environments of curriculum key learning areas for children’s development and learning explain the role of the early childhood educator

TCHR2003 Assessment 2 Portfolio: Analysing Early Childhood Learning Environments Across Key Learning Areas

Introduction

Students working on TCHR2003 Assessment 2 are asked to do something that sits at the heart of skilled early childhood practice: to look carefully at a photograph of a real learning environment and extract from it the curriculum, theory, and pedagogy embedded within what might appear, at first glance, to be simply children playing. Assessment 2 requires students to analyse 2 early childhood education photos — one for the Infant and Toddler age group, and one for the Preschool age group. The purpose of this assignment is to develop deeper knowledge and understanding of how everyday objects, routines, and resources in the early childhood setting can be used to promote children’s learning and development across the key learning areas (Australian Curriculum, Foundation) with links to the EYLF and NQS QA.

Photo Analysis 1: Infant and Toddler Environment

Learning and Development in the Environment

The photograph selected for the Infant and Toddler analysis depicts a sensory exploration station within a long day care infant room. The environment features a low wooden shelf at crawling height holding a series of transparent containers filled with objects of varied textures — smooth river stones, coarse sand, dried pasta, and soft fabric squares — alongside a water tray fitted with floating toys of different densities. The space is bounded on two sides by a curved, natural-timber wall fitting that creates an intimate, enclosed area without restricting sight lines for observing educators. Natural light enters from a window positioned at low height, and a small speaker plays soft, ambient instrumental music.

This environment supports children’s learning and development across multiple dimensions simultaneously. The sensory diversity of the materials directly stimulates the tactile, visual, and auditory sensory systems that, in the early months of life, are the primary pathways through which infants build their understanding of physical cause-and-effect relationships (Sims & Hutchins, 2020). Reaching, grasping, mouthing, and manipulating objects of varied weight, texture, and temperature are not simply motor activities — they are epistemological acts through which infants construct their earliest schemas of the physical world. Piaget’s sensorimotor stage, and more contemporary dynamic systems theories of infant motor development, both converge on the insight that rich, varied sensory environments accelerate the neural integration that underpins later cognitive functioning (Fleer & Raban, 2020).

Key Learning Areas: Science and Mathematics

Within the Australian Curriculum, Foundation level Science strand, children develop their earliest scientific inquiry skills through direct observation, prediction, and testing of physical phenomena. In the photograph’s sensory environment, an infant who repeatedly drops a stone into the water tray and observes the splash is, at a primitive but genuine level, engaging in scientific inquiry: they are generating a hypothesis (dropping will produce effect), testing it through action, observing the outcome, and, over repeated trials, building a rudimentary model of cause-and-effect relationships (ACARA, 2022). The EYLF Learning Outcome 4 — Children are confident and involved learners — captures this disposition, emphasising that children develop “a range of skills and processes such as problem solving, inquiry, experimentation, hypothesising, researching and investigating” from the earliest months of life (AGDE, 2022, p. 39).

Mathematical learning in this environment is equally embedded. The comparative weight of the stone versus the fabric square, the relative density of objects that sink versus those that float, and the spatial relationships between containers of different sizes all provide the foundation for mathematical concepts of measurement, comparison, and classification. Research by Verdine et al. (2017) identifies object-manipulation play in infancy as a foundational precursor to the spatial reasoning skills that predict mathematical achievement at school entry.

Pedagogical Approaches and Educator Role

The pedagogical approach most appropriate to this environment is responsive caregiving combined with sustained shared attention. The role of the educator is to position themselves at the child’s level, follow the infant’s gaze and action, provide contingent verbal commentary on the child’s explorations (“You found the stone — it’s heavy, isn’t it?”), and introduce gentle variations that extend the child’s investigation without redirecting it entirely (Page, 2018). This responsive, child-following pedagogy aligns with NQS Quality Area 5, which requires educators to be responsive to infants’ and toddlers’ interests, needs, and wellbeing in moment-to-moment interactions.

Photo Analysis 2: Preschool Environment

Learning and Development in the Environment

The preschool photograph selected for analysis depicts an outdoor loose-parts construction area in a preschool setting. Large wooden cable reels, PVC pipe sections, planks of varied lengths, milk crates, and rope are arranged accessibly within a shaded outdoor area. Three children aged approximately four to five years are engaged in building what appears to be a “road” connecting two cable-reel “towers,” negotiating the length and placement of planks with evident seriousness. A nearby educator is seated at child height, observing and occasionally responding to children’s requests for input.

Loose-parts play environments, theorised by architect Simon Nicholson in 1971 and extensively researched in subsequent decades, have been found to generate the highest levels of creative problem-solving, collaborative language, and physical challenge compared to environments stocked with conventional fixed playground equipment (Maxwell et al., 2020). The decision to include loose parts in the outdoor curriculum reflects an intentional pedagogical philosophy — that children’s agency, creativity, and physical competence are best developed through environments that respond and change in relation to children’s own ideas.

Key Learning Areas: Technologies and Health and Physical Education

Within the Australian Curriculum Technologies strand, Foundation-level students are expected to “explore how technologies (products and processes) are used in the home and community to meet personal and local needs” and to use materials and tools to design and make solutions (ACARA, 2022). The loose-parts construction activity directly addresses this content description: children must evaluate whether a plank is long enough to span the gap between two cable reels, adjust their design when it fails, and collaborate with peers to lift and position heavy materials safely. These are genuine design-thinking processes. Health and Physical Education outcomes are simultaneously addressed as children navigate the physical terrain, negotiate shared use of materials, practise gross motor coordination in lifting and carrying, and develop the social-emotional competencies of cooperation and conflict resolution (ACARA, 2022).

Pedagogical Approaches and Educator Role

For preschool children in a loose-parts environment, the most effective pedagogical stance combines attentive observation with strategic, non-directive questioning. When children encounter a design problem — a plank too short, a tower that topples — the educator’s role is to resist the impulse to solve the problem for them and instead ask questions that activate children’s own problem-solving: “What do you think you could try?” or “Is there something else in the yard that might reach?” This approach, aligned with the EYLF practice of intentional teaching, supports children to develop persistence, self-regulation, and creative confidence alongside the specific knowledge and skills associated with science, technology, and mathematics learning (AGDE, 2022).

Conclusion

The analysis of these two early childhood learning environments demonstrates that the richest curriculum is often already present in the materials, spaces, and relationships that constitute everyday ECEC practice. When educators look at a sensory tray or a pile of loose parts through a theoretically informed lens — connecting what they see to the EYLF learning outcomes, the NQS quality areas, and the Australian Curriculum learning areas — they become equipped to both document what children are learning and to plan with intentionality for what they might learn next. This dual capacity, for observation and for planning, is the foundation of genuinely expert early childhood teaching.

References

Australian Curriculum, Assessment, and Reporting Authority (ACARA). (2022). The Australian Curriculum. https://v9.australiancurriculum.edu.au/

Australian Government Department of Education (AGDE). (2022). Belonging, being and becoming: The early years learning framework for Australia (V2.0). https://www.acecqa.gov.au/sites/default/files/2023-01/EYLF-2022-V2.0.pdf

Fleer, M., & Raban, B. (2020). Early childhood education and care: Building a future. Cambridge University Press.

Maxwell, L. E., Mitchell, M. R., & Evans, G. W. (2020). Effects of play equipment and loose parts on preschool children’s outdoor play behaviour: An observational study and design intervention. Children’s Environments, 25(2), 167–183.

Page, J. (2018). Characterising the principles of professional love in early childhood care and education. International Journal of Early Years Education, 26(2), 125–141. https://doi.org/10.1080/09669760.2017.1390390

Sims, M., & Hutchins, T. (2020). Program planning for infants and toddlers (3rd ed.). Pademelon Press.

Verdine, B. N., Golinkoff, R. M., Hirsh-Pasek, K., & Newcombe, N. S. (2017). Links between spatial and mathematical skills across the preschool years. Monographs of the Society for Research in Child Development, 82(1), 1–150. https://doi.org/10.1111/mono.12280