Placing the balloon in hot water increases the temperature of the gas inside the balloon. As a result, the gas molecules gain energy and move faster, increasing the volume of the gas inside the balloon due to expansion.
The volume of the balloon would increase when submerged in hot water because the heat causes the air particles inside the balloon to move faster and spread out, increasing the overall volume of the balloon.
To find the volume of an inflated balloon, you can measure its diameter using a ruler and then use the formula for the volume of a sphere, V = (4/3) * pi * r^3, where r is the radius (half of the diameter) of the balloon. Plug in the radius and calculate the volume. Alternatively, you can submerge the inflated balloon in a container of water and measure the water displacement to find the volume of the balloon.
To demonstrate that air occupies space, you can use a simple experiment by inflating a balloon and then placing it in a container filled with water. As the balloon is submerged into the water, you will notice that it displaces water, showing that the air inside the balloon is taking up space.
When a balloon is submerged in cold water, the air inside the balloon cools and contracts, leading to a decrease in volume. This causes the balloon to shrink in size.
Placing a balloon in the freezer will cause the air inside it to cool down and contract, decreasing the volume of the balloon. If the balloon is made of a material that can withstand the drop in temperature, it will likely shrink as the molecules inside it lose kinetic energy and move closer together.
The volume of the balloon would increase when submerged in hot water because the heat causes the air particles inside the balloon to move faster and spread out, increasing the overall volume of the balloon.
what is the effect of placing an object with a greater density than water in a bucket of water
To find the volume of an inflated balloon, you can measure its diameter using a ruler and then use the formula for the volume of a sphere, V = (4/3) * pi * r^3, where r is the radius (half of the diameter) of the balloon. Plug in the radius and calculate the volume. Alternatively, you can submerge the inflated balloon in a container of water and measure the water displacement to find the volume of the balloon.
Oh, dude, it's like the volume, man. You know, the space that water balloon takes up? That's the measure you want. Like, how much water can that bad boy hold without bursting? That's your answer, my friend.
By placing the object in water and the volume of water displaced is equal to the volume of the object immersed
To demonstrate that air occupies space, you can use a simple experiment by inflating a balloon and then placing it in a container filled with water. As the balloon is submerged into the water, you will notice that it displaces water, showing that the air inside the balloon is taking up space.
When water freezes, it expands as it turns into ice. This expansion causes the volume of the water balloon to increase, which can lead to the balloon bursting if the ice takes up too much space.
When a balloon is submerged in cold water, the air inside the balloon cools and contracts, leading to a decrease in volume. This causes the balloon to shrink in size.
For example changing the volume of a balloon.
Placing a balloon in the freezer will cause the air inside it to cool down and contract, decreasing the volume of the balloon. If the balloon is made of a material that can withstand the drop in temperature, it will likely shrink as the molecules inside it lose kinetic energy and move closer together.
It depends on many things, but if you're going by the equatorial radius as the same size, the balloon should be about 10-15% larger. Note that you can mesure the volume of irregular shapes, thanks to my good friend Archemedes ("Eurika!"). Take a mesuring container large enough to easily hold the balloon and fill it about 2/3 full. Note the volume the water occupies by the water level. Now, immerse the balloon in the water and mesure the volume by the water level again. the difference is the volume of the balloon.
The weight of water displaced in a massless balloon is equal to the weight of the water that the balloon displaces. This is determined by the volume of water displaced and its density, as weight is determined by the mass of the water and the acceleration due to gravity.