SCIENCE

INTRODUCTION

The Science curriculum is the area that involves children in the investigation of natural phenomena on how to ask questions, to make predictions, as well as experimental designs. Discovery-based learning relates to science, encouraging curiosity and imaginations, within early childhood education, and whereby children can devise theories, propose ideas and creatively analyses results; which in this case, instills creativity in discovery (Fielding & Murcia, 2022).

IMPORTANCE

Science education takes a central position in nurturing creativity throughout childhood as it focuses on teaching students to be imaginative, to frame empirical questions, to create or pose a hypothesis, and to digest, reflect upon the created evidence. Engagements with practical scientific inquisitions develop stimulation of divergent thinking, hypothesis-making explorations, and creative, play-based problem-solving, thus, developing the creative confidence in kids, and helping them make sense of the world through their experiences of discovering (Murphy et al., 2024).

CREATIVITY THEORIES & PERSPECTIVES

Creative thinking of Vygotsky through the introduction of symbolic play and experimentation gives children a way to relate the ideas to the actions that opens creative scientific thinking in the context of discovery.
Reggio Emilia philosophy (Malaguzzi & Rodari) views creativity as a cognitive process rather than a product; documentation and child-initiated science inquiry have been resourcefully recorded by the Australian teachers who have been involved in NSW-Italy Reggio collaborations.

(Leggett, 2024).

THINGS TO ENGAGE CHILDREN

RESOURCES

Teachers can use, science’s centre kits, backyard bioblitz guides and hands-on STEM activity booklets (University of South Australia, 2024).

MATERIALS

Materials that can be used are magnets, seeds and soil, water containers, common solids/liquids for sink-float experiments, cardboard tubes, food colouring, slime-making ingredients (University of South Australia, 2024).

DIGITAL TECHNOLOGIES

The interactive apps, online museum STEM workshops (e.g., Scitech live sessions), digital microscopes, photo / video recording apps, and easy coding (e.g. Bee -Bots) (University of South Australia, 2024).

LEARNING EXPERIENCES BY AGE

0-2 YEARS

1. Floating/sinking toys: Put some safe toys, such as plastic spoons, corks, etc. in a tray of water; allow the baby to explore them. Teacher describes cause and effect, prompting ear-appealing sound of splashes. Such a sensory experience, creates curiosity and prediction.

2. Sponge water transfer: Put wet and dry sponges; children put the water out of one container into another one by squeezing the sponge. Promotes fine movements, mixing absorption experiments, and imaginative thinking.

(O’Connor et al., 2021)

2-3 YEARS

1. Grow seed sprouting: Children use clear glass jars to sprout cress/watercress seeds, observe the daily growth and make a drawing or a photographs of the sprouts. Has stimulated observation and sequencing and free draws of plant development.

2. Magnet finding area: Take out magnets and also a selection of metallic and non metallic items. Children, when guided, test out which sticks and which do not and make predictions or simple sorting. It promotes conceptualizing hypothesis and classification of thinking.

(O’Connor et al., 2021)

3-5 YEARS

1. Colour‑mixing milk/soap chemical reaction “milk‑dance”: Children add food colouring to the milk surface and then add dish soap on a cotton tip. It promotes the feelings of wonder and science.

2. Construct a marble/ run track with recycled tubes: Children construct ramps and tilt angles to vary speeds of marbles where they are introduced to concepts of gradient and forces of physics. Promotes invention of imagination forethought, red invention and problem solving.

(O’Connor et al., 2021)

6-8 YEARS

1. Shoreline Science Exploration (Outdoor Learning): Sand or a beach like area is investigated by children. They touch, feel, examine the patterns of the shells and check buoyancy. Teachers pose questions which will aid in development of curiosity, scientific thinking and creativity.

2. Digital STEM Workshop + Creative Engineering Task: Children attend a digital STEM workshop (eg, of Scitech, Questacon) on forces, and motion. They then use recycled materials in making paper helicopters or ramps. Group discussions are guided by teachers, which develops innovation, collaboration, and scientific thinking.

(O’Connor et al., 2021)

DIGITAL EVIDENCE

CRITICAL REFLECTION & EVALUATION

Successful creative teaching in science demands that the teacher model and display the competencies being sought. When done in this sort of reflective practice, teaching methods can be constantly adjusted and improved thus diversifying the curriculum and fostering lifelong interest in investigation and exploration on the part of the students. Innovative ways of doing things do not only enhance knowledge of the scientific material, but also develop critical thinking abilities, curiosity, and problem resolution, which are essential among modern learners.

(Howard & Mayesky, 2022).

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