At 60°C, the solubility of sodium chloride is approximately 39 g/100 ml of water, while the solubility of sodium chloride is about 36 g/100 ml of water. Therefore, at this temperature, around 3 g more sodium chloride will dissolve in 100 ml of water compared to sodium chloride.
Amount of sodium chlorate that will dissolve in 100 mL of water at 60°C is higher compared to the amount of sodium chloride. Sodium chlorate is more soluble in water than sodium chloride at this temperature due to their different solubility characteristics.
Yes, 50 g of sodium chloride can dissolve in 100 ml of water at 60°C. At this temperature, the solubility of sodium chloride in water is high, allowing it to fully dissolve within the given volume of water.
As temperature increases, the solubility of sodium chloride also increases. This is because higher temperatures provide more energy for the water molecules to break apart the sodium and chloride ions, allowing more sodium chloride to dissolve.
Adding sodium chloride to water with constant stirring helps to dissolve the salt more quickly and evenly. The stirring increases the surface area of contact between the salt particles and water, allowing for faster dissolution.
In seawater, sodium chloride (table salt) is the most abundant salt present, accounting for approximately 85% of the total dissolved salts. Calcium salts are less abundant compared to sodium chloride in seawater.
Amount of sodium chlorate that will dissolve in 100 mL of water at 60°C is higher compared to the amount of sodium chloride. Sodium chlorate is more soluble in water than sodium chloride at this temperature due to their different solubility characteristics.
Oh, dude, at 60°C, approximately 102 grams of sodium chlorate can dissolve in 100 mL of water, while only about 36 grams of sodium chloride can dissolve in the same amount of water. So, like, sodium chlorate can dissolve almost three times more than sodium chloride at that temperature. Just don't go making some salty, chlorate-laden soup or anything, okay?
Yes, 50 g of sodium chloride can dissolve in 100 ml of water at 60°C. At this temperature, the solubility of sodium chloride in water is high, allowing it to fully dissolve within the given volume of water.
As temperature increases, the solubility of sodium chloride also increases. This is because higher temperatures provide more energy for the water molecules to break apart the sodium and chloride ions, allowing more sodium chloride to dissolve.
Yes, this is the saturation point. For sodium chloride, the saturation concentration in pure water is relatively high - you can dump a lot of salt into water before it will precipitate out as a solid at the bottom of the container.
Dissolve 36g in 100ml of water Dissolve 36g in 100ml of water -------------->lol ............ofcourse......what kind of question is this?
Sodium nitrate (NaNO3) is more soluble in water compared to sodium chloride (NaCl). Sodium nitrate has a higher solubility due to the presence of more polar nitrate (NO3-) ions in the compound.
Glucose and sodium chloride dissolve in water due to their polarity. Both substances have polar bonds that interact with the polar water molecules, breaking the attractions within the substance and allowing them to mix with water. You can find more information on this topic from reputable sources such as chemistry textbooks or educational websites like chemguide.co.uk or chem.libretexts.org.
Adding sodium chloride to water with constant stirring helps to dissolve the salt more quickly and evenly. The stirring increases the surface area of contact between the salt particles and water, allowing for faster dissolution.
Sodium Chloride is an ionic salt that has a lattice (crystal) structure composed of alternating sodium cations and negative chloride anions (Na+ Cl-). Water (H2O) is a polar molecule, which means it has an uneven charge distribution (i.e. the oxygen is more negatively charged than the 2 hydrogen atoms that have a slightly positive charge). The negative (oxygen) end of water is attracted to the positive sodium ion in the salt, extracts it from the lattice and more water molecules surround it (i.e. "dissolve" it). The same is true for the positive (hydrogen) end of water and the negative chloride ion in the salt. These positive and negative attractions allow for NaCl to dissolve in water. However, benzene (C6H6) is a non-polar molecule, which means it has an even charge distribution (i.e. no positive or negative sides). Without these charges, the benzene molecule is not really attracted to the salt crystals and thus the salt remains in a crystal form and does not dissolve. S.M.
Break down a word like hydrolysis:hydro (water) & lysis (to break).This is the use of water to dissociate a chemical compound.Take table salt (sodium chloride, solid), pour some into a glass of water. Slowly, the solid sodium chloride will dissolve, or dissociate into the water.Afterwards, there will be sodium cations (positively charged) and chloride anions (negatively charge), but they won't be a solid.Let the water evaporate, and slowly the sodium & chloride will recombine and crystalize as a solid on the bottome & sides of the container.You know it will happen if you place a water-soluable salt in a container of water. It should begin immediately, but you can watch the process as more and more salt dissolves.
It is false; sodium iodide is more soluble than sodium chloride in water.