15.15d | Calculate the concentration of all solute species: Zn(OH)2(s) in a solution buffered at a

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15.15d | Calculate the concentration of all solute species: Zn(OH)2(s) in a solution buffered .

(1:58)

15.15c | Calculate the concentration of all solute species: Ag2SO4(s) in 0.500 L of a solution

(14:23)

15.15b | Calculate the concentration of all solute species: CaF2(s) in 0.00133 M KF

(10:24)

15.15a | Calculate the concentration of all solute species: AgCl(s) in 0.025 M NaCl

(9:57)

15.16d | Calculate the concentration of all solute species: Cd(OH)2(s) in a solution buffered at a

(12:52)

15.59 | The carbonate ion concentration is gradually increased in a solution containing divalent

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15.16a | Calculate the concentration of all solute species: TlCl(s) in 1.250 M HCl

(9:52)

15.11b | Calculate the solubility product for Ba(BrO3)2·H2O, 0.30 g/100 mL

(11:54)

15.11a | Calculate the solubility product for BaSeO4, 0.0118 g/100 mL

(10:5)

15.10a | Calculate the solubility product for BaSiF6, 0.026 g/100 mL (contains SiF6 2− ions)

(9:21)

15.23 | Public Health Service standards for drinking water set a maximum of 250 mg/L (2.60 × 10–3 M)

(7:8)

15.35 | Calculate the concentration of PO4 3− when Ag3PO4 starts to precipitate from a solution that

(5:42)

Low vision Assessment ,Learn from the Masters - Sankara Academy of Vision

(58:32)

15.20 | Calculate the solubility of aluminum hydroxide, Al(OH)3, in a solution buffered at pH 11.00

(11:12)

15.16b | Calculate the concentration of all solute species: PbI2(s) in 0.0355 M CaI2

(12:23)

15.13d | Calculate the molar solubility of Hg2I2 from its solubility product

(7:34)

15.31d | How to find if a compound precipitates from a solution: Pb3(PO4)2

(5:53)

15.17b | Calculate the concentration of all solute species: BaF2(s) in 0.0313 M KF

(16:13)

15.29a | Calculate the Ksp for TlCl: [Tl+] = 1.21 × 10–2 M, [Cl–] = 1.2 × 10–2 M

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15.17a | Calculate the concentration of all solute species: TlCl(s) in 0.025 M TlNO3

(15:10)

15.69 | Using the dissociation constant, Kd = 3.4 × 10^–15, calculate the equilibrium concentrations

(11:32)

15.14d | Calculate the molar solubility of CaC2O4·H2O from its solubility product

(7:39)

15.26a | Calculate the concentrations of ions in a saturated solution of TlCl

(4:29)

15.89 | Calculate the equilibrium concentration of Zn2+ in a solution initially with 0.150 M Zn2+

(11:52)

15.8d | Write the ionic equation and the solubility product (Ksp) expression for SrSO4

(5:8)