Sodium Iodide is the solute which is created in the reaction and Sodium actetate solution is created.
NaI + PbC2H3O2 ---> PbI (Plumbum Iodide) + NaC2H3O2 (Sodium Acetate) solution.
To prepare a 2.0 M solution of NaI with a volume of 1.00 L, you would need to use 284 grams of NaI. This is calculated by multiplying the molarity by the volume in liters and the molar mass of NaI (149.89 g/mol).
To find the molarity, we first need to calculate the number of moles of NaI using its molar mass (149.89 g/mol). Then, we divide the moles of NaI by the volume of the solution in liters (0.250 L). This gives us the molarity, which would be around 1.43 M.
Silver nitrate for example: AgI(s) silver iodide
To determine the volume of 0.380 M NaI needed to oxidize 45.0 mL of 0.500 M KMnO4 in acidic solution, we first calculate the moles of KMnO4: [ \text{Moles of KMnO4} = 0.500 , \text{M} \times 0.045 , \text{L} = 0.0225 , \text{moles} ] In acidic conditions, the balanced reaction shows that 1 mole of KMnO4 reacts with 5 moles of I⁻ (from NaI). Therefore, the moles of NaI required are: [ \text{Moles of NaI} = 5 \times 0.0225 = 0.1125 , \text{moles} ] Now, using the concentration of NaI, we can find the volume needed: [ \text{Volume of NaI} = \frac{0.1125 , \text{moles}}{0.380 , \text{M}} \approx 0.296 , \text{L} \text{ or } 296 , \text{mL} ] Thus, approximately 296 mL of 0.380 M NaI is required.
NaI (sodium iodide) is highly soluble in water and will readily dissociate into Na+ and I- ions when mixed with water. The ions will interact with water molecules through ion-dipole interactions, forming a homogenous solution of NaI in water.
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To make a 0.010M NaI solution, you'll need 0.010 moles of NaI per liter. The molar mass of NaI is 149.89 g/mol. Therefore, to calculate the grams needed, you would multiply the molar mass by the number of moles, which gives you 1.499 g of NaI needed per liter of solution.
By definition, a 2.63 molar solution of NaI contains 2.63 moles, or in this instance more properly formula units, of NaI per liter of solution. The gram atomic formula mass of NaI is 149.89 and 100 ml is 0.100 liter. Therefore, the required answer is (0.100)(149.89)(2.63) or 39.4 grams of NaI, to the justified number of significant digits.
To prepare a 2.0 M solution of NaI with a volume of 1.00 L, you would need to use 284 grams of NaI. This is calculated by multiplying the molarity by the volume in liters and the molar mass of NaI (149.89 g/mol).
The most dissociated solution of NaI would be the one with the highest concentration, as the greater the concentration of ions in solution, the greater the likelihood of dissociation. Additionally, higher temperatures also promote greater dissociation in solutions.
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NaI is sodium iodide
To find the molarity, we first need to calculate the number of moles of NaI using its molar mass (149.89 g/mol). Then, we divide the moles of NaI by the volume of the solution in liters (0.250 L). This gives us the molarity, which would be around 1.43 M.
GAND MARAO BHOSDI WALO. ANSWER KAHIN NAI MILEGA.
"Nai nai" in Mandarin Chinese means paternal grandmother.
Silver nitrate for example: AgI(s) silver iodide
To determine the volume of 0.380 M NaI needed to oxidize 45.0 mL of 0.500 M KMnO4 in acidic solution, we first calculate the moles of KMnO4: [ \text{Moles of KMnO4} = 0.500 , \text{M} \times 0.045 , \text{L} = 0.0225 , \text{moles} ] In acidic conditions, the balanced reaction shows that 1 mole of KMnO4 reacts with 5 moles of I⁻ (from NaI). Therefore, the moles of NaI required are: [ \text{Moles of NaI} = 5 \times 0.0225 = 0.1125 , \text{moles} ] Now, using the concentration of NaI, we can find the volume needed: [ \text{Volume of NaI} = \frac{0.1125 , \text{moles}}{0.380 , \text{M}} \approx 0.296 , \text{L} \text{ or } 296 , \text{mL} ] Thus, approximately 296 mL of 0.380 M NaI is required.