When dissolved oxygen levels in a solution become very low, it can lead to hypoxia in aquatic organisms, causing stress, suffocation, and even death. This can disrupt the balance of the ecosystem and result in negative impacts on biodiversity and aquatic life. Monitoring and maintaining proper oxygen levels is crucial for the health of aquatic environments.
A solution can be dilute and saturated if there is a small amount of solute relative to the amount of solvent, making it dilute, but all of the solvent has already dissolved the maximum amount of solute possible at that temperature, making it saturated. This can happen when the solute has low solubility in the solvent or if the temperature decreases after the solution has been prepared.
The percentage of dissolved oxygen in sewage can vary depending on factors such as temperature, organic load, and biological activity. Typically, sewage contains very low levels of dissolved oxygen, often approaching 0% in areas with high levels of organic pollutants due to microbial respiration and decomposition processes.
A common example of a solution made of gas dissolved in a gas is air, which is a mixture of gases consisting mainly of nitrogen, oxygen, and trace amounts of other gases like carbon dioxide and water vapor.
Distilled water typically has very low levels of dissolved oxygen due to the absence of minerals and other gases. The dissolved oxygen level can vary depending on exposure to air and temperature, but it is generally low compared to other types of water.
Yes, iron sulfate is soluble in water. It forms a greenish solution when dissolved.
The atmosphere, which is a solution of nitrogen, oxygen, carbon dioxide and several other gases in very low proportions.
When there is an excess of solvent in a solution, causing it to become unstable and unable to maintain the solute in a dissolved state, it is referred to as supersaturation. This can lead to precipitation or crystallization of the solute from the solution.
Starch solution is used in the Winkler method to act as an indicator for the presence of oxygen. When titrating the sample with iodine, the starch solution forms a blue-black complex with the iodine in the presence of oxygen, providing a visual endpoint for the titration. This helps to accurately determine the amount of dissolved oxygen in the sample.
A solution can be dilute and saturated if there is a small amount of solute relative to the amount of solvent, making it dilute, but all of the solvent has already dissolved the maximum amount of solute possible at that temperature, making it saturated. This can happen when the solute has low solubility in the solvent or if the temperature decreases after the solution has been prepared.
the air becomes rarefied and has a very low oxygen
In oceans, Oxygen gets dissolved in a very small proportion from the atmosphere. This process is very gradual. Oxygen also comes from the aquatic plants present in the water bodies.
Very similar to the salt in the ocean. It is dissolved into a solution.
No, a solution cannot be both saturated and dilute at the same time. A saturated solution contains the maximum amount of solute that can be dissolved in a solvent at a given temperature, while a dilute solution has a relatively small amount of solute dissolved in the solvent.
Yes, mixtures are a type of solution. A solution is a homogeneous mixture where the components are fully dissolved in each other, while a mixture can be either homogeneous or heterogeneous, with its components in varying proportions and not fully dissolved.
yes, it is a homogeneous mixture. i had a lab packet for chemistry due the other day and we went over it and this was a very similar question. it showed 4 pictures and we had to pick the homogeneous mixture in the previous illustrations.
The percentage of dissolved oxygen in sewage can vary depending on factors such as temperature, organic load, and biological activity. Typically, sewage contains very low levels of dissolved oxygen, often approaching 0% in areas with high levels of organic pollutants due to microbial respiration and decomposition processes.
solution when the solubility limit of the dissolved substance is exceeded, causing it to come out of solution and form solid particles. This can happen due to changes in temperature, pressure, or the addition of other chemicals that interact with the dissolved substance.