89.3
To find the mass of barium sulfate produced, first calculate the moles of barium chloride and iron III sulfate using their volumes and concentrations. Then, determine the limiting reactant by comparing the moles of barium chloride and iron III sulfate and use it to find the moles of barium sulfate produced. Finally, multiply the moles of barium sulfate by its molar mass to find the mass in grams.
To find the limiting reactant, we need to determine how many grams of silver chloride can be produced from each reactant and compare the results. Calculate the amount of silver chloride that can be produced from 10.0 g of silver nitrate. Calculate the amount of silver chloride that can be produced from 15.0 g of barium chloride. The reactant that produces the lesser amount of silver chloride will be the limiting reactant.
Balanced equation first. BaCl2 + Na2SO4 -> 2NaCl + BaSO4 22.6 ml BaCl2 = 0.0226 liters 54.6 ml Na2SO4 = 0.0546 liters 0.160 M BaCl2 = moles BaCl2/0.0226 liters = 0.00362 moles BaCl2 0.055 M Na2SO4 = moles Na2SO4/0.0546 liters = 0.0030 moles Na2SO4 The ratio of BaCl2 to Na2SO4 is one to one, so either mole count wull drive this reaction. Use 0.0003 moles Na2SO4 0.0030 moles Na2SO4 (1 mole BaSO4/1 mole Na2SO4)(233.37 grams/1 mole BaSO4) = 0.700 grams of BaCO4 produced
First, you want to figure out how many grams 1 mol of barium is. Look at the periodic table of elements. (www.webelements.com) Barium is Ba. Scroll down a little bit after clicking and you will see atomic weight. It is 137g. Now get the atomic weight for chlorine. It is Cl. The atomic weight is 35.5g. Just add them together. 137+35.5 = 172.5g = 1 mol of barium chloride. For 188g, just divide it by 172.5g. Which is 1.09 moles.
117 grams of sodium chloride (NaCl) is equivalent to 117 grams of chlorine gas because each molecule of NaCl contains one sodium atom and one chlorine atom.
89.3
To find the mass of barium sulfate produced, first calculate the moles of barium chloride and iron III sulfate using their volumes and concentrations. Then, determine the limiting reactant by comparing the moles of barium chloride and iron III sulfate and use it to find the moles of barium sulfate produced. Finally, multiply the moles of barium sulfate by its molar mass to find the mass in grams.
If you start with 20.8 grams of barium sulfate (BaSO₄), you cannot produce more barium sulfate from it; you can only measure how much you have. Therefore, you can produce a maximum of 20.8 grams of barium sulfate if you are referring to using the same amount of BaSO₄ in a reaction or process. In summary, you have 20.8 grams of barium sulfate available, not more.
To determine the grams of barium sulfate produced from 20.8 g of barium chloride, we first need to consider the balanced chemical reaction between barium chloride (BaCl₂) and sodium sulfate (Na₂SO₄) to produce barium sulfate (BaSO₄) and sodium chloride (NaCl). The molar mass of barium chloride is approximately 137.33 g/mol (for Ba) + 2 × 35.45 g/mol (for Cl) = 137.33 + 70.90 = 208.23 g/mol. The molar mass of barium sulfate is about 233.39 g/mol. Using stoichiometry: Calculate moles of BaCl₂: ( \text{moles} = \frac{20.8 , \text{g}}{208.23 , \text{g/mol}} \approx 0.100 , \text{mol} ). Since the reaction produces 1 mole of BaSO₄ for every mole of BaCl₂, 0.100 moles of BaCl₂ will produce 0.100 moles of BaSO₄. Convert moles of BaSO₄ to grams: ( 0.100 , \text{mol} \times 233.39 , \text{g/mol} \approx 23.34 , \text{g} ). Thus, approximately 23.34 grams of barium sulfate can be produced from 20.8 grams of barium chloride.
Sodium sulfate is not prepared from hydrogen chloride.
9.11 g
To convert moles to grams, you need to use the molar mass of barium chloride, which is 208.23 g/mol. Multiply the number of moles (286 moles) by the molar mass to find the grams of barium chloride: 286 moles * 208.23 g/mol = 59,545.78 grams.
Barium sulfate (BaSO₄) is known for its very low solubility in water, with a solubility product (Ksp) indicating that only about 0.0002 grams can dissolve in 1 liter of water at room temperature. Therefore, to dissolve 1 gram of barium sulfate, an impractically large volume of water—approximately 5,000 liters—would be needed. This highlights the compound's nature as a sparingly soluble salt.
6,36 g of silver chloride are obtained.
The solubility of barium sulfate (BaSO₄) in water is extremely low, typically around 0.0002 grams per liter at room temperature. This translates to approximately 0.2 parts per million (ppm). Due to its low solubility, barium sulfate is often used as a radiocontrast agent in medical imaging.
233.43 g On A+ the answer's 233.4 =]
To determine the number of grams of lithium nitrate needed to make 250 grams of lithium sulfate, you need to calculate the molar mass of lithium sulfate and lithium nitrate, then use stoichiometry to find the ratio of lithium nitrate to lithium sulfate. Finally, apply this ratio to find the mass of lithium nitrate needed for the reaction. Lead sulfate is not involved in this calculation as it is not part of the reaction between lithium nitrate and lithium sulfate.