Because the balloon gets stretched when it is inflated and it is trying to contract again it pushes inwards. The molecules in the air get compressed slightly because of the confined space, meaning that the density of the air in the balloon increases. The molecules move closer together = more Energy = slightly warmer.
A balloon is typically made from latex, which is a type of rubber. The latex is usually mixed with additives such as accelerators, antioxidants, and pigments to give the balloon its desired properties such as elasticity, color, and durability.
A hydrogen balloon will deflate the fastest because molecules of hydrogen are the smallest and thus will more easily slip through the latex of the balloon. The carbon dioxide-filled balloon will deflate the slowest because these molecules are the biggest, and thus will have more trouble escaping the tiny pores in the balloon.
A helium "balloon" is composed of two parts: the SOLID rubber balloon skin, and the GASeous helium. So the balloon part itself is a solid.
If a balloon is filled with water, it becomes less susceptible to being popped over a flame, because the water can absorb some of the heat. Otherwise, the flame will rapidly destroy the material of the balloon (rubber, latex).
at low molecular wight ~6000mol/g it is used as dispersant may be at higher molecular weight it forms a water soluble polymer, but i dont know if there are any useful application for that
Latex is the material a balloon can be made of. Helium is a gas that a balloon can be filled with. The question does not make sense. Please restate the question.
A balloon is typically made from latex, which is a type of rubber. The latex is usually mixed with additives such as accelerators, antioxidants, and pigments to give the balloon its desired properties such as elasticity, color, and durability.
The weight of an inflated balloon can vary depending on the size and material of the balloon. On average, a standard latex balloon filled with air weighs less than a gram, while a larger helium-filled foil balloon can weigh a few grams to a few ounces.
A hydrogen balloon will deflate the fastest because molecules of hydrogen are the smallest and thus will more easily slip through the latex of the balloon. The carbon dioxide-filled balloon will deflate the slowest because these molecules are the biggest, and thus will have more trouble escaping the tiny pores in the balloon.
A latex balloon is a type of balloon made from natural latex rubber. It is stretchy and durable, making it suitable for inflating with air or helium for decorative purposes at events and parties. Latex balloons are biodegradable and come in a variety of colors, shapes, and sizes.
A balloon has mass because it is made of matter, specifically latex or rubber. Even though a balloon filled with helium or air may feel light, it still has mass, which is the amount of matter it contains.
Yes, a latex balloon is expandable. When inflated, the latex material stretches to accommodate the air or gas inside, allowing the balloon to increase in size. However, there is a limit to how much a latex balloon can expand before it risks bursting due to overstretching.
A helium "balloon" is composed of two parts: the SOLID rubber balloon skin, and the GASeous helium. So the balloon part itself is a solid.
A balloon that contains water would not last a long time under heat. the balloons latex rubber will not be able to handle the heat and will pop, but a balloon filled with air will pop instantly.
If a balloon is filled with water, it becomes less susceptible to being popped over a flame, because the water can absorb some of the heat. Otherwise, the flame will rapidly destroy the material of the balloon (rubber, latex).
A balloon is an object that hovers and move with the wind.
The duration a latex balloon inflated with an air compressor lasts can vary based on factors like the quality of the latex, the environment's temperature, and any potential punctures or damage. Generally, a latex balloon inflated with air can last anywhere from a few hours to a few days before beginning to deflate.