Download progression document
Includes statements from Development Matters (birth to age five) and the relevant ELGs in full, for the Create your own island provocation
Includes statements from Development Matters (birth to age five) and the relevant ELGs in full, for the Create your own island provocation
Play, Be, C Units provide enabling environments with teaching and support from adults. Reflecting on the characteristics of effective teaching and learning, children will have opportunity to learn and develop by:
- Playing and exploring – children investigate and experience things, and ‘have a go’.
- Active learning – children concentrate and keep on trying if they encounter difficulties and enjoy achievements.
- Creating and thinking critically – children have and develop their own ideas, make links between ideas, and develop strategies for doing things.
Early Years Foundation Stage Statutory Framework: accessed November 2024. Available under the Open Government Licence v3.0.
Build, create, fasten, balance, heavy, light, stable, unstable, wobbly, structure, tie, stick, join, big, bigger, small, smaller, large, larger, tall, taller, short, shorter, wide, wider, narrow, narrower, heavier, lighter
Tell the children that they are going to be creative like civil engineers and make their own Elephant Islands. Show children pictures of the first Elephant Island on pages 29/30.
You could ask:
Encourage the children to create their island independently using the construction materials and fastenings of their choice. You could ask the children to draw a plan of their island instead of making it.
Take a photograph of their creation for use in the plan to completed creation adult led activity or in your review session. If you have enough resources for other children to use for this task, you could save their creation to talk about later.
Talk to the children about their designs and ask them to explain to you what they have made. You could ask:
Remember to refer to the children as civil engineers and praise them for using the attributes. You could say things like:
“You have been creative like a civil engineer when you designed and built your model.”
We have put together some useful information about the science of civil engineering to accompany this activity. Don’t worry, this is for your information only and to help you answer any questions children may have. We don’t expect you to explain this to the children in your setting!
The centre of gravity of an object is the point that an object’s weight will balance around. Imagine balancing a ruler on the end of your finger without it falling off – your finger is in line with the centre of gravity. If you place the book or ruler onto a table with the centre of gravity off the edge of the table, it will fall. For symmetrical solid objects, the centre of gravity is in the middle of the object.
If a tower is built upright on flat ground, the centre of gravity is directly above the centre point of the base so the tower is very stable.
If a tower is built on sloping ground, the centre of gravity is no longer above the centre of the base and the tower will be more unstable.
If blocks are stacked unevenly their centre of gravity will not be above the centre of the base and they are more likely to fall.
The higher you stack blocks, the higher the centre of gravity becomes. A 4 block tower will have its centre of gravity at 2 blocks, a 10 story tower will have its centre of gravity at 5 blocks. The higher the centre of gravity, the easier it is to tip it so that it is no longer directly above the base and it will tip.
Objects with a wide base are more stable than objects with a narrow base. This is because it’s more likely that the centre of gravity will be directly above the base of the object. Blocks need to be stacked so their centre of gravity is above their base in order not to fall. If you put a cuboid shaped block on the floor horizontally, has a wide base relative to its height so it won’t tip over if you push on its side with your finger. It has a low centre of gravity. If you stand the same block vertically on one end the base is now narrower compared to its height and it has a higher centre of gravity. If you push the block near the top, it will probably fall over.
Objects with a wide base are more stable than objects with a narrow base. This is because it’s more likely that the centre of gravity will be directly above the base of the object. Blocks need to be stacked so their centre of gravity is above their base in order not to fall. If you put a cuboid shaped block on the floor horizontally, has a wide base relative to its height so it won’t tip over if you push on its side with your finger. It has a low centre of gravity. If you stand the same block vertically on one end the base is now narrower compared to its height and it has a higher centre of gravity. If you push the block near the top, it will probably fall over.
When we add the new blocks to our structures, we are changing the position of the centre of gravity of our structure. If we choose to put a heavy object at the top of a tower of blocks, the centre of gravity is higher up. This makes it easier for the tower to tip because that the centre of gravity is no longer above its base, and the tower falls down. If we place heavier objects lower down on our structures and lighter objects towards the top, the centre of gravity is lower and the structure is less likely to topple.
When we add new parts to our structures, we are changing the position of the centre of gravity of our structure. If we choose to put a heavy object at the top of a structure, the centre of gravity is higher up. This makes it easier for the structure to tip because that the centre of gravity is no longer above its base, and the structure falls down. If we place heavier objects lower down on our structures and lighter objects towards the top, the centre of gravity is lower and the structure is less likely to topple.
Fasteners ensure that materials are securely joined together. They help structures withstand the loads and forces placed upon them.
Fasteners reinforce and strengthen connections between the parts of the structure. They providing additional support and ensure that the structure is more stable over time. Examples of fasteners include nails, nuts and bolts, screws, rivets and anchors.