Wiki User
∙ 13y agoWant this question answered?
Be notified when an answer is posted
If it is a small shape that is denser than a convenient fluid and insoluble in it and also does not react with it then the displacement method is simplest. Fill a graduated cylinder with the fluid, measure the volume of the fluid. Then gently insert the shape and measure the apparent volume of the fluid. The difference between the two volume readings is the volume of the shape. If the shape is less dense than the fluid you have to make one change. You need to find a dense insoluble object. Measure the volume of the fluid with the dense object immersed in it. Then measure the volume when the dense object and the shape are joined together and submerged. The difference between the two measures is the volume of the shape. This method will not work with soluble shapes unless you can find a fluid that it is not soluble in. Similarly, you cannot use a fluid that will react. So measuring the volume of a lump of sugar or a lump of sodium using water are non-starters. Finally, the method will not work if the irregular shape is huge.
If the object is irregular you have no hope of calculating its volume from any known dimensions. The easiest way to find its volume is to fill a container full of a liquid (with which the object will not react). Submerge the object in the liquid and collect the liquid displaced. The volume of the displaced liquid, which should be easily measurable, will be the same as that of the object.
Water does not need to react with oxygen to make water!
Violently
They attract
To determine the volume of 0.270 M solution needed to react completely with 3.245 g of oxalic acid, first calculate the number of moles of oxalic acid (by dividing the mass by its molar mass). Then, use the mole ratio between the acid and the solution (from the balanced chemical equation) to find the moles of solution required. Finally, use the molarity to calculate the volume using the formula: volume (in liters) = moles / molarity. Convert the volume to milliliters, if needed.
To solve this problem, we need to use the balanced chemical equation between HCl and Na2CO3. From the equation, we can see that it is a 1:2 ratio for HCl to Na2CO3. Therefore, we need twice the volume of 0.161 M Na2CO3 to react completely with HCl. Calculate the volume of HCl required by multiplying the volume of Na2CO3 by 2.
The volume of titrant required to reach the equivalence point is directly measured in a titration. This volume corresponds to the amount of titrant needed to completely react with the analyte in the sample.
To find the volume of calcium hydroxide solution needed to react with the phosphoric acid solution, you need to determine the mole ratio between calcium hydroxide and phosphoric acid. The balanced chemical equation for the reaction will guide you in calculating the amount needed. Once you have the mole ratio, you can use the concentrations and volumes of the solutions to determine the volume of calcium hydroxide needed.
To determine the volume of the Na3PO4 solution needed for complete reaction, we would first write a balanced chemical equation for the reaction between Na3PO4 and CuCl2. Then, use the molarity of CuCl2 and the stoichiometry of the reaction to calculate the volume of Na3PO4 required.
To determine the volume of .25M cobalt(III) sulfate required to react completely with 25 mL of .0315M calcium hydroxide, you need to write and balance the chemical equation for the reaction. Then, use the stoichiometry of the balanced equation to determine the amount of cobalt(III) sulfate needed based on the moles of calcium hydroxide used in the reaction. Finally, use the concentration of cobalt(III) sulfate to calculate the volume needed.
To determine the volume of 2.00 M HCl needed to completely react with 75.0 g of iron sulfide, we first write and balance the chemical equation. FeS + 2HCl → FeCl2 + H2S. Then, calculate the number of moles of FeS (75.0 g / molar mass of FeS) and use the mole ratio from the balanced equation to find the moles of HCl needed. Finally, use the definition of molarity to determine the volume of HCl solution required.
To find the volume of 16M HNO3 required to react with 0.0214g of Cu metal, you need to calculate the moles of Cu. Then, using the balanced equation for the reaction between Cu and HNO3 (Cu + 4HNO3 → Cu(NO3)2 + 2NO2 + 2H2O), you can determine the moles of HNO3 needed. Finally, using the molarity of the HNO3 solution, you can calculate the volume in drops.
First, calculate the number of moles of CaCO3 using its molar mass. Then, determine the ratio between HCl and CaCO3 according to the balanced chemical equation. Finally, use the concentration of the HCl solution to find the required volume using the formula: volume = moles/concentration.
One method is to use a spectrophotometer to measure the absorbance of the solutions at a specific wavelength and compare them. Another option is to conduct a visual comparison, looking for differences in color intensity or turbidity between the solutions. Additionally, you could perform a titration to determine the relative concentrations by observing the volume of a known concentration solution required to react completely with the unknown solution.
First, calculate the number of moles of K2CO3 in 10.0 grams. Next, write and balance the chemical equation for the reaction between HCl and K2CO3. Use the stoichiometry of the balanced equation to determine the number of moles of HCl required to react with the moles of K2CO3. Finally, use the molarity of the HCl solution to calculate the volume needed.
Two atoms of sodium are required to react with one molecule of Br2 to form sodium bromide. Therefore, to completely react with 5 molecules of Br2, you would need 10 atoms of sodium.