Early Childhood - Connecticut State Department of Education
Early Childhood - Connecticut State Department of Education
Early Childhood - Connecticut State Department of Education
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Science Chapter 7<br />
CURRICULUM DEVELOPMENT<br />
In early childhood education, science curriculum allows<br />
children to investigate their world and to search for<br />
answers to questions that begin with words such as<br />
What? How? Why? and When? Science curriculum can<br />
develop the child’s innate ability to wonder, to discover<br />
new ideas, and to explore the world he or she lives<br />
in. In quality classroom environments, where science<br />
is an integral curriculum component, early childhood<br />
teachers:<br />
• observe, listen, facilitate and question;<br />
• recognize that learning is the process <strong>of</strong><br />
exploring;<br />
• believe that the goal <strong>of</strong> teaching is not<br />
about right answers, but rather about the<br />
development <strong>of</strong> independent thinking and<br />
problem-solving dispositions;<br />
• know that children need time to explore and<br />
to take risks;<br />
• recognize that learning must be hands-on<br />
and minds-on;<br />
• provide learners <strong>of</strong> all abilities with<br />
opportunities to experience the wonder<br />
<strong>of</strong> questioning and discovery by making<br />
accommodations to the environment and to<br />
expectations;<br />
• model enthusiasm for science and discovery<br />
so children can see how exciting these<br />
pursuits are;<br />
• balance child-initiated activities with teacherprompted<br />
ideas; and<br />
• create relationships with families that<br />
encourage involvement in science at home.<br />
The National Academy <strong>of</strong> Sciences has developed<br />
National Science <strong>Education</strong> Standards for early<br />
childhood science curriculum as a comprehensive guide<br />
for educators and policymakers. The standards call for<br />
more than “science as process,” where students learn the<br />
skills <strong>of</strong> observing, inferring and experimenting. They<br />
suggest that, while these process skills are appropriate in<br />
early childhood science curriculum, there is also worthy<br />
and achievable science content for young children to<br />
learn in preschool. (National Research Council, 1996)<br />
This chapter includes:<br />
a. discussion <strong>of</strong> the teacher’s role in developing<br />
curiosity, including strategies and tips on<br />
preparation <strong>of</strong> the environment;<br />
b. an overview on the process <strong>of</strong> developing<br />
inquiry, including thinking skills and<br />
problem-solving abilities; and<br />
99<br />
c. making connections with the <strong>Connecticut</strong><br />
Core Science Curriculum Framework, PreK-<br />
10 and <strong>Connecticut</strong>’s Preschool Curriculum<br />
Framework, including ideas for ageappropriate<br />
investigations.<br />
DEVELOPING CURIOSITY<br />
Curiosity can be described as the disposition to know.<br />
From birth infants seek understanding, trying to grasp<br />
objects, exploring their environments and gathering<br />
information. Both environments and experiences<br />
affect children’s dispositions to be curious. A safe and<br />
encouraging atmosphere motivates young children<br />
to take risks, explore and discover. Questioning<br />
children is a strategy adults – educators and parents<br />
– can use to encourage curiosity. Questions may be<br />
either open-ended, encouraging divergent thinking<br />
and brainstorming, or closed, motivating the learner to<br />
gather specific information.<br />
Effective questions stimulate and expand<br />
children’s thinking or promote comparison, sorting or<br />
further experimentation. Questions may be used to:<br />
• Initiate discovery: “How can we learn more<br />
about this machine?”<br />
• Elicit predictions: “What will happen if this<br />
powder is mixed in the water?”<br />
• Probe for understanding: “Why do you<br />
think that block worked better in the ramp<br />
construction?”<br />
• Promote reasoning: “Why is this side a<br />
different color than that side?”<br />
• Serve as a catalyst: “What would you do<br />
differently?”<br />
• Encourage creative thinking: “If you could<br />
be any animal, which one would it be and<br />
why?”<br />
• Reflect on feelings: “Is this your best work?”<br />
A carefully prepared environment also<br />
promotes the development <strong>of</strong> curious children. The<br />
teacher, through observation, knows children’s abilities<br />
and interests, understands their developmental growth<br />
patterns, and uses this information to create a classroom<br />
that provides safe, interesting and satisfying challenges.<br />
Creating the typical science table with unusual items<br />
contributed by children and teacher is not enough. The<br />
science center must be an area <strong>of</strong> investigation. This is<br />
accomplished by keeping in mind the main theme in the<br />
science curriculum, “hands-on and minds-on.”