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We used orange clay to represent solid particles and blue to indicate the bond between these solid particles. 

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Solid metals that have a high melting point suggests that their bond is so strong that it cannot be easily broken, meaning that they are all closely together in a regular form and does not have any movement making their bond to be very firm and strong.

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In this model, we can see that the solid is really grouped up, which makes it have a higher melting point since it is more inpenetrable and harder to melt. When it melts, the particles of the solid spread out and it became a liquid. But in this case it does not hapen since they are in a room tempreature

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In our model, we separated three sets of plasticine; the first one has different little round figures stuck together, representing the particle structure for the solids. The plasticine in the middle represents fire, which melted the solids and turned them into further-apart particles (representing the liquids).

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When analysing this model, we tried to make it is clear that half of the whiteboard represents the particles before and after being melted by its high melting point. The other half of the whiteboard represents the metal's particles when its shape is altered by a big impact.

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when you hammer the solid, the particles will continue together, but they will expand and get flatter, turnig the solid to another shape. When you make the solid into wires, the logic is practicaly the same, but the particles will get a bit looser and not as tight together.

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When we hammer the solid metal, it would not fully break the substance itself but change the shape by making it bend and be curved. The particles inside the solid will be kept the same that they will still be sticked with each other continuing creating a strong bond.

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Metals can conduct electricity because they have free electrons roaming around the atoms. Since electrons are electricity, having the electrons roam around the atoms makes the metals conduct electricity. Metals are also good heat conductors because of the same reason: the electrons are free and roaming around the atoms. Our group believes that electrons carry both elctricity and heat energy, so that would explain why metals can serve both by being good heat conductors and electricity conduction.

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in our model, we produced a plasticine representation of the particles when a metal is in contact with electricity, which is represented by the green lines in between the blue dots. We then wrote underneath why we think metal is a good conductor

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Metals that are able to conduct electricity and are good thermal conductors mean that it has a good flow of heat and electricity. Therefore, we represent these flows of heat and electricity as green electrons and placed them in an irregular way in order to indicate that these electrons are free and going around the particles without any typical order, meaning that the flow of electricity and heat is good.