Answer:
The molarity of I₃⁻ (aq) solution: M₂ = 0.186 M
Explanation:
Given net ionic equation:
2S₂O₃²⁻ (aq) + I₃⁻ ( aq ) ⟶ S₄O₆²⁻ (aq) + 3I⁻ (aq)
Number of moles of S₂O₃²⁻: n₁ = 2, Number of moles of I₃⁻: n₂ = 1
Given- For S₂O₃²⁻ solution: Molarity: M₁ = 0.380 M, Volume: V₁ = 29.4 mL;
For I₃⁻ (aq) solution: Molarity: M₂ = ? M, Volume: V₂ = 30.0 mL
To calculate the molarity of I₃⁻ (aq) solution, we use the equation:
Therefore, the molarity of I₃⁻ (aq) solution: M₂ = 0.186 M
Answer:- 353.3 g
Solution:- The balanced equation is:
We start with given grams of calcium chloride and convert them to moles. Then using mol ratio, the moles of calcium phosphate are calculated and converted to grams as.
Molar mass of calcium chloride is 110.98 gram per mol and molar mass of calcium phosphate is 310 gram per mol.
The set is made using dimensional analysis as:
=
So, 353.3 grams of calcium phosphate can be formed.
Answer:
353.3g
Explanation:
B. 161 kPa
C. 16 kPa
D. 41 kPa
Answer:
A. 60 kPa
Explanation:
P2 = p1 times t2 / t1
Yes, because conservation of mass
B. magnetism
C. electromagnetic force
D. gravity
Answer:
✨Gravity✨ hope this helps
Explanation:
Answer:
Explanation:
Hello,
In this case, one can assume 1L as the volume of the solution, so we've got 0.010mg of cadmium. Now, as we're asked to know its molarity, one computes the moles of cadmium as follows:
Now, one obtains the molar concentration (molarity) as shown below:
Best regards.