The calculation for normality isn't too hard, but you have to have some info before you can find it.
You need
1 the number of equivalents.
# mol * (subscript on first element of first compound/ number of that element are in the balanced equation) = # equivalents
I am probably confusing you on finding equivalents, but there is not much else I can do. sorry
Using 0.2489 g. of H2C2O4*2H20
is .00197mol so...
.00197 * (2/1) = 3.94*10^-3 equvialents
2 The volume in liters
# mL/1000 = #L
say 43 ml / 1000 +.043 L
so normality would be
(3.94*10^-3)/ .043 = 9.16*10^-2 as normality.
You would have a very tough time, because that isn't the formula to calculate work. (distance) divided by (time) is the formula to calculate speed. The formula to calculate work is: (force) multiplied by (distance).
an is a built in formula that uses arguments to calculate information. is FUNCTION
Molarity equals normality when the equivalence factor = 1.
You can use a graph to calculate speed.
The formula to calculate volume of a cylinder is: V = r2 x Pi x height (r = radius)
Normality= mass / (equivalent wt *volume)
To calculate the normality of NaOH for a 1:1 molar ratio, you can use the formula: Normality = Molarity x Number of equivalents. Since NaOH is a monoprotic base, it provides one equivalent per mole. Therefore, for a solution of NaOH with a molarity of 1 M, the normality would be 1 N.
Normality (N) of a liquid solution is calculated by dividing the number of equivalents of solute by the volume of solvent in liters. The formula for normality is N = (equivalents of solute) / (volume of solvent in liters).
To find the normality of ferrous ammonium sulfate, you need to first calculate the number of equivalents of the compound present. Since ferrous ammonium sulfate has two Fe(II) ions per formula unit, you need to take this into account when calculating the normality. Once you have the number of equivalents, you can divide this by the volume in liters to determine the normality.
To calculate normality using specific gravity, you would first determine the concentration of a solution in g/mL. Then, divide the concentration by the equivalent weight of the solute to get the number of equivalents per liter. This value represents normality.
To determine the normality of HCl (hydrochloric acid), you can perform a titration experiment with a standardized solution of sodium hydroxide (NaOH) of known concentration. By recording the volume of NaOH required to neutralize the HCl, you can calculate the normality of the acid using the formula: Normality = (Molarity of NaOH) x (Volume of NaOH used) / Volume of HCl sample.
The normality of benzoic acid depends on its concentration in solution and its molecular weight. To calculate normality, you need the molarity of the solution and the number of equivalents of acid per mole of benzoic acid. Normality is equal to Molarity times Equivalent factor.
To calculate the normality of ammonium hydroxide (NH4OH), we need to know the molarity first. Once we have the molarity, we can determine the normality for NH4OH by accounting for the number of equivalents it can provide in a reaction. Normality is calculated as the molarity multiplied by the number of equivalents per molecule.
Normality (N) is calculated by dividing the molarity (M) of a solution by the equivalent factor (EF) of the solute. The equivalent factor is determined by the number of ions produced or reacted per molecule of solute. The formula for calculating normality is N = M x EF.
Normality of iodine ((I_2)) can be calculated using the formula: Normality = Molarity x n, where n is the oxidation state of iodine in the reaction. For example, if you are using a 0.1 M (I_2) solution in a redox reaction where iodine is being reduced to iodide ions ((I^-)), then the normality of iodine would be 0.1 N.
The normality of the acid solution can be calculated using the formula: Normality of acid x Volume of acid = Normality of alkali x Volume of alkali. Plugging in the values, we get: Normality of acid x 50 ml = 0.1879 N x 48.6 ml. Solving for the normality of the acid gives approximately 0.186 N.
To prepare a 0.1 N solution of K2Cr2O7, you need to calculate the molar mass of K2Cr2O7 and use the formula for normality. By dividing the given weight by the molar mass, you can determine the number of moles present, and then calculate the normality using the volume of the solution.