Yes
Yes
Yes, the shape of the container can affect the rate of evaporation. A container with a larger surface area will typically allow for faster evaporation compared to a container with a smaller surface area. This is because more water molecules are exposed to the air in a larger container, leading to increased evaporation.
The amount of water in a container will affect how fast it heats up. If there is a small amount of water in a container the water will biol/heat faster. However, if there is a big amount of water it will take longer for the heat to reach all parts of the water resulting in a longer time for the water to boil/heat
The size of the container or vessel used for the solute and solvent would likely not affect the rate of solubility, as long as there is sufficient space for mixing.
Yes, impurities in water can affect the evaporation rate. Impurities such as salts or minerals can increase the boiling point of water, which can in turn affect the rate of evaporation. Additionally, impurities can disrupt the hydrogen bonding between water molecules, making it harder for them to escape into the air as vapor. Overall, impurities can slow down the evaporation rate of water.
Yes, the result could differ if the reaction were carried out in a sealed container. In a sealed container, the gases produced during the reaction would be trapped, potentially creating pressure. This could affect the rate and completeness of the reaction compared to an open system where the gases can escape.
The shape of the container can affect the rate at which water freezes. A container with a larger surface area will transfer heat more quickly, causing the water to freeze faster. Additionally, the shape can influence how easily heat can be conducted away from the water, impacting the freezing rate.
The shape of a container affects the freezing rate of water because it can impact the surface area exposed to the surrounding environment. A container with a larger surface area allows for more heat transfer, resulting in faster freezing. Conversely, a container with a smaller surface area will have slower heat transfer and slower freezing.
Yes, the shape of the container can affect the rate of evaporation. A container with a larger surface area will typically allow for faster evaporation compared to a container with a smaller surface area. This is because more water molecules are exposed to the air in a larger container, leading to increased evaporation.
the bigger the surface area the faster the water will evaporate
The manipulated variable is what you change (the shape of the container) The responding variable is the result (the temperature at which the water in the container freezes). (Don't forget the time factor!)
Yes, the size of a container can affect the rate of evaporation. A larger container will have more surface area, allowing for more molecules to escape and evaporate. However, the shape of the container typically has less effect on the rate of evaporation, as it is primarily the surface area that influences the rate.
The amount of water in a container will affect how fast it heats up. If there is a small amount of water in a container the water will biol/heat faster. However, if there is a big amount of water it will take longer for the heat to reach all parts of the water resulting in a longer time for the water to boil/heat
Yes. Other things being equal, the cooling rate should be more or less proportional to the surface area.
Maybe you should change your question to something more like, "Will the difference in material between a glass container and plastic container affect the rate of condensation of water?"
Yes, evaporation can still occur in a closed container, but the rate of evaporation will eventually slow down because the amount of water vapor in the container will reach an equilibrium with the liquid water. At this point, the rate of condensation will equal the rate of evaporation.
Yes; the dissolution rate is increased when a substance is as small particles.
The most important is the area of water exposed to atmosphere.