To determine the mass of strontium hydroxide (Sr(OH)₂) needed to neutralize a given volume of citric acid (C₆H₈O₇) with a specific molarity, you'll first need to calculate the moles of citric acid present in the solution. Since citric acid is a triprotic acid, each mole can react with three moles of hydroxide ions (OH⁻). Using the equation for the neutralization reaction, you can then find the required moles of Sr(OH)₂. Finally, convert the moles of Sr(OH)₂ to mass using its molar mass.
First get a cup then go to a small dark corner and take a dump in it. second... eat it. now you are ready to put citric acid in water If you cant do this, you are a complete retard.
Citric acid is considered tribasic because it has three carboxylic acid groups that can donate hydrogen ions in a solution, making it capable of forming three different types of salts. This property is what classifies citric acid as tribasic.
Citric acid is considered to be a weak acid.
There are two acids in lemons; - #1 citric acid and #2 ascorbic acid (vitamin 'C').
To find out if citric acid forms a solution with water, you can simply mix a small amount of citric acid into water and observe if it dissolves completely. If it does, then citric acid is soluble in water, forming a solution.
50% citric acid powder = 50 g citric acid/100 g 4% citric acid solution = 4 g citric acid/100 ml distilled water Determining how much citric acid powder to use is based upon how much citric acid solution you wish to make. To make 100 ml of solution, you should use 8 g of powder.
The molar mass of phosphoric acid is 97,99 g.
(.05)X(grams of total solution) = grams of acetic acid (grams of acetic acid)/ (mol. wt. of acetic acid(=60g/mol)) = mol. acetic acid (mol. acetic acid)/ (Liters of total solution) = molarity(M)
The molarity of nitric acid, HNO3, can vary depending on the concentration of the solution. For example, a 1 M solution of nitric acid would contain 1 mole of HNO3 per liter of solution. It is important to know the concentration or volume of the solution to determine the molarity of nitric acid.
To effectively neutralize citric acid in a solution, you can add a base such as sodium bicarbonate or sodium hydroxide. The base will react with the citric acid to form water, carbon dioxide, and a salt, which will help balance the acidity of the solution.
To find the molarity, first convert the mass of sulfuric acid to moles by dividing by its molar mass (98.08 g/mol). Then, calculate the molarity by dividing the moles of sulfuric acid by the volume of the solution in liters (280 mL = 0.28 L). Molarity = moles of solute / liters of solution.
To find the molarity, we first need to calculate the weight percent of hydrochloric acid in the solution: 35% of the solution is HCl. Then we calculate the molarity using the specific gravity, which is the ratio of the density of the solution to the density of water. Finally, we use the molarity formula to find the molarity: Molarity = (Weight % HCl / molar mass of HCl) / (Specific gravity of the solution).
Adding water to a solution of oxalic acid does not affect its molarity because the total number of moles of oxalic acid in the solution remains the same. Molarity is calculated based on the number of moles of solute divided by the volume of the solution, so as long as the number of moles of oxalic acid stays constant, the molarity remains unchanged.
The molarity of H3O+ (hydronium ion) would depend on the specific solution being referred to, as it is generally formed in acidic solutions. To calculate the molarity of H3O+, you would need to know the concentration of the acid present in the solution and the dissociation constant of the acid.
The neutralization of citric acid and sodium hydroxide is an acid-base reaction. Citric acid, being an acid, reacts with sodium hydroxide, a base, to form water and a salt (sodium citrate), resulting in a neutral pH solution.
To determine the mass of strontium hydroxide (Sr(OH)₂) needed to neutralize a given volume of citric acid (C₆H₈O₇) with a specific molarity, you'll first need to calculate the moles of citric acid present in the solution. Since citric acid is a triprotic acid, each mole can react with three moles of hydroxide ions (OH⁻). Using the equation for the neutralization reaction, you can then find the required moles of Sr(OH)₂. Finally, convert the moles of Sr(OH)₂ to mass using its molar mass.