- 15.1: What are the major species in solution after NaHSO4 is dissolved in...
- 15.2: A friend asks the following: Consider a buffered solution made up o...
- 15.3: Mixing together solutions of acetic acid and sodium hydroxide can m...
- 15.4: Sketch two pH curves, one for the titration of a weak acid with a s...
- 15.5: Sketch a pH curve for the titration of a weak acid (HA) with a stro...
- 15.6: Devise as many ways as you can to experimentally determine the Ksp ...
- 15.7: You are browsing through the Handbook of Hypothetical Chemistry whe...
- 15.8: A friend tells you: The constant Ksp of a salt is called the solubi...
- 15.9: Explain the following phenomenon: You have a test tube with about 2...
- 15.10: What happens to the Ksp value of a solid as the temperature of the ...
- 15.11: Which is more likely to dissolve in an acidic solution, silver sulf...
- 15.12: You have two salts, AgX and AgY, with very similar Ksp values. You ...
- 15.13: The common ion effect for weak acids is to significantly decrease t...
- 15.14: Consider a buffer solution where [weak acid] _[conjugate base]. How...
- 15.15: A best buffer has about equal quantities of weak acid and conjugate...
- 15.16: Consider the following four titrations. i. 100.0 mL of 0.10 M HCl t...
- 15.17: Figure 15.4 shows the pH curves for the titrations of six different...
- 15.18: Acidbase indicators mark the end point of titrations by magically t...
- 15.19: The salts in Table 15.4, with the possible exception of the hydroxi...
- 15.20: List some ways one can increase the solubility of a salt in water.
- 15.21: A certain buffer is made by dissolving NaHCO3 and Na2CO3 in some wa...
- 15.22: A buffer is prepared by dissolving HONH2 and HONH3NO3 in some water...
- 15.23: Calculate the pH of each of the following solutions. a. 0.100 M pro...
- 15.24: Calculate the pH of each of the following solutions. a. 0.100 M HON...
- 15.25: Compare the percent dissociation of the acid in Exercise 23a with t...
- 15.26: Compare the percent ionization of the base in Exercise 24a with the...
- 15.27: Calculate the pH after 0.020 mol HCl is added to 1.00 L of each of ...
- 15.28: Calculate the pH after 0.020 mol HCl is added to 1.00 L of each of ...
- 15.29: Calculate the pH after 0.020 mol NaOH is added to 1.00 L of each of...
- 15.30: Calculate the pH after 0.020 mol NaOH is added to 1.00 L of each of...
- 15.31: Which of the solutions in Exercise 23 shows the least change in pH ...
- 15.32: Which of the solutions in Exercise 24 is a buffered solution?
- 15.33: Calculate the pH of a solution that is 1.00 M HNO2 and 1.00 M NaNO2.
- 15.34: Calculate the pH of a solution that is 0.60 M HF and 1.00 M KF.
- 15.35: Calculate the pH after 0.10 mol of NaOH is added to 1.00 L of the s...
- 15.36: Calculate the pH after 0.10 mol of NaOH is added to 1.00 L of the s...
- 15.37: Calculate the pH of a buffer solution prepared by dissolving 21.46 ...
- 15.38: A buffered solution is made by adding 50.0 g NH4Cl to 1.00 L of a 0...
- 15.39: Calculate the pH after 0.010 mol gaseous HCl is added to 250.0 mL o...
- 15.40: An aqueous solution contains dissolved C6H5NH3Cl and C6H5NH2. The c...
- 15.41: Calculate the mass of sodium acetate that must be added to 500.0 mL...
- 15.42: What volumes of 0.50 M HNO2 and 0.50 M NaNO2 must be mixed to prepa...
- 15.43: Consider a solution that contains both C5H5N and C5H5NHNO3. Calcula...
- 15.44: a. Carbonate buffers are important in regulating the pH of blood at...
- 15.45: Consider the acids in Table 14.2. Which acid would be the best choi...
- 15.46: Consider the bases in Table 14.3. Which base would be the best choi...
- 15.47: Which of the following mixtures would result in buffered solutions ...
- 15.48: Which of the following mixtures would result in a buffered solution...
- 15.49: How many moles of NaOH must be added to 1.0 L of 2.0 M HC2H3O2 to p...
- 15.50: Calculate the number of moles of HCl(g) that must be added to 1.0 L...
- 15.51: Consider the titration of a generic weak acid HA with a strong base...
- 15.52: Sketch the titration curve for the titration of a generic weak base...
- 15.53: Consider the titration of 40.0 mL of 0.200 M HClO4 by 0.100 M KOH. ...
- 15.54: Consider the titration of 80.0 mL of 0.100 M Ba(OH)2 by 0.400 M HCl...
- 15.55: Consider the titration of 100.0 mL of 0.200 M acetic acid (Ka _ by ...
- 15.56: Consider the titration of 100.0 mL of 0.100 M H2NNH2 by 0.200 M HNO...
- 15.57: A 25.0-mL sample of 0.100 Mlactic acid is titrated with 0.100 M NaO...
- 15.58: Repeat the procedure in Exercise 57, but for the titration of 25.0 ...
- 15.59: Repeat the procedure in Exercise 57, but for the titration of 25.0 ...
- 15.60: Repeat the procedure in Exercise 57, but for the titration of 25.0 ...
- 15.61: Calculate the pH at the halfway point and at the equivalence point ...
- 15.62: In the titration of 50.0 mL of 1.0 M methylamine, CH3NH2 (Kb _ 4.4 ...
- 15.63: You have 75.0 mL of 0.10 MHA. After adding 30.0 mL of 0.10M NaOH, t...
- 15.64: A sample of an ionic compound NaA, where A_ is the anion of a weak ...
- 15.65: Two drops of indicator HIn (Ka _ 1.0 _ 10_9), where HIn is yellow a...
- 15.66: Methyl red has the following structure: It undergoes a color change...
- 15.67: Potassium hydrogen phthalate, known as KHP can be obtained in high ...
- 15.68: A certain indicator HIn has a pKa of 3.00 and a color change become...
- 15.69: Which of the indicators in Fig. 15.8 could be used for the titratio...
- 15.70: Which of the indicators in Fig. 15.8 could be used for the titratio...
- 15.71: Which of the indicators in Fig. 15.8 could be used for the titratio...
- 15.72: Which of the indicators in Fig. 15.8 could be used for the titratio...
- 15.73: Estimate the pH of a solution in which bromcresol green is blue and...
- 15.74: A solution has a pH of 7.0. What would be the color of the solution...
- 15.75: Write balanced equations for the dissolution reactions and the corr...
- 15.76: Write balanced equations for the dissolution reactions and the corr...
- 15.77: Use the following data to calculate the Ksp value for each solid. a...
- 15.78: Use the following data to calculate the Ksp value for each solid. a...
- 15.79: The concentration of Pb2_ in a solution saturated with PbBr2(s) is ...
- 15.80: The concentration of Ag_ in a solution saturated with Ag2C2O4(s) is...
- 15.81: Calculate the solubility of each of the following compounds in mole...
- 15.82: Calculate the solubility of each of the following compounds in mole...
- 15.83: The solubility of the ionic compound M2X3, having a molar mass of 2...
- 15.84: A solution contains 0.018 mol each of When the solution is mixed wi...
- 15.85: Calculate the molar solubility of Co(OH)3, .
- 15.86: Calculate the molar solubility of Cd(OH)2, .
- 15.87: For each of the following pairs of solids, determine which solid ha...
- 15.88: For each of the following pairs of solids, determine which solid ha...
- 15.89: Calculate the solubility (in moles per liter) of Fe(OH)3 (Ksp _ 4 _...
- 15.90: The Ksp for silver sulfate (Ag2SO4) is 1.2 _ 10_5. Calculate the so...
- 15.91: Calculate the solubility of solid Ca3(PO4)2 (Ksp _ 1.3 _ 10_32) in ...
- 15.92: The solubility of Ce(IO3)3 in a 0.20 M KIO3 solution is 4.4 _ 10_8 ...
- 15.93: What mass of ZnS will dissolve in 300.0 mL of 0.050 M Ignore the ba...
- 15.94: The concentration of Mg2_ in seawater is 0.052 M. At what pH will 9...
- 15.95: Which of the substances in Exercises 81 and 82 show increased solub...
- 15.96: For which salt in each of the following groups will the solubility ...
- 15.97: Will a precipitate form when 75.0 mL of 0.020 M BaCl2 and 125 mL of...
- 15.98: Will a precipitate form when 100.0 mL of 4.0 _ 10_4 M Mg(NO3)2 is a...
- 15.99: Calculate the final concentrations of K_(aq), C2O4 2_(aq), Ba2_(aq)...
- 15.100: A solution is prepared by mixing 50.0 mL of 0.10 M Pb(NO3)2 Hg2_ wi...
- 15.101: A solution contains 1.0 _ 10_5 M Na3PO4. What is the minimum concen...
- 15.102: A solution contains 0.25 M Ni(NO3)2 and 0.25 M Cu(NO3)2. Can the me...
- 15.103: Write equations for the stepwise formation of each of the following...
- 15.104: Write equations for the stepwise formation of each of the following...
- 15.105: Given the following data, calculate the value for the overall forma...
- 15.106: In the presence of Fe3_ forms the complex ion The equilibrium conce...
- 15.107: When aqueous KI is added gradually to mercury(II) nitrate, an orang...
- 15.108: As sodium chloride solution is added to a solution of silver nitrat...
- 15.109: The overall formation constant for . That is, 1.0 _ 1030 _ 3HgI4 2_...
- 15.110: A solution is formed by mixing 50.0 mL of 10.0 M NaX with 50.0 mL o...
- 15.111: a. Calculate the molar solubility of AgI in pure water. Ksp for AgI...
- 15.112: Solutions of sodium thiosulfate are used to dissolve unexposed AgBr...
- 15.113: Kf for the complex ion Ag(NH3)2 _ is Ksp for AgCl is Calculate the ...
- 15.114: The copper(I) ion forms a chloride salt that has Copper(I) also for...
- 15.115: A series of chemicals were added to some AgNO3(aq). NaCl(aq) was ad...
- 15.116: The solubility of copper(II) hydroxide in water can be increased by...
- 15.117: Derive an equation analogous to the HendersonHasselbalch equation b...
- 15.118: a. Calculate the pH of a buffered solution that is 0.100 M in C6H5C...
- 15.119: Consider a solution containing 0.10 M ethylamine (C2H5NH2), 0.20 M ...
- 15.120: You make 1.00 L of a buffered solution (pH _ 4.00) by mixing acetic...
- 15.121: You have the following reagents on hand: What combinations of reage...
- 15.122: Tris(hydroxymethyl)aminomethane, commonly called TRIS or Trizma, is...
- 15.123: Calculate the value of the equilibrium constant for each of the fol...
- 15.124: The following plot shows the pH curves for the titrations of variou...
- 15.125: Calculate the volume of M NaOH that must be added to 500.0 mL of 0....
- 15.126: Repeat the procedure in Exercise 57, but for the titration of 25.0 ...
- 15.127: The active ingredient in aspirin is acetylsalicylic acid. A 2.51-g ...
- 15.128: One method for determining the purity of aspirin (empirical formula...
- 15.129: A certain acetic acid solution has Calculate the volume of 0.0975 M...
- 15.130: A 0.210-g sample of an acid is titrated with 30.5 mL of 0.108 M NaO...
- 15.131: A student intends to titrate a solution of a weak monoprotic acid w...
- 15.132: A student titrates an unknown weak acid, HA, to a pale pink phenolp...
- 15.133: a. Using the Ksp value for Cu(OH)2 (1.6 _ 10_19) and the overall fo...
- 15.134: The solubility rules outlined in Chapter 4 say that Ba(OH)2, Sr(OH)...
- 15.135: The Ksp of hydroxyapatite, Ca5(PO4)3OH,is . Calculate the solubilit...
- 15.136: In the chapter discussion of precipitate formation, we ran the prec...
- 15.137: Calculate the concentration of Pb2_ in each of the following. a. a ...
- 15.138: Another way to treat data from a pH titration is to graph the absol...
- 15.139: A buffer is made using 45.0 mL of 0.750 M HC3H5O2 (Ka _ 1.3 _ 10_5)...
- 15.140: A 0.400 M solution of ammonia was titrated with hydrochloric acid t...
- 15.141: What volume of 0.0100 M NaOH must be added to 1.00 L of 0.0500 M HO...
- 15.142: Consider a solution formed by mixing 50.0 mL of 0.100 M H2SO4, 30.0...
- 15.143: When a diprotic acid, H2A, is titrated by NaOH, the protons on the ...
- 15.144: The titration of Na2CO3 with HCl has the following qualitative prof...
- 15.145: A few drops of each of the indicators shown in the accompanying tab...
- 15.146: Consider a solution made by mixing 500.0 mL of 4.0 M NH3 and 500.0 ...
- 15.147: What is the maximum possible concentration of Ni2_ ion in water at ...
- 15.148: You add an excess of solid MX in 250 g of water. You measure the fr...
- 15.149: a. Calculate the molar solubility of SrF2 in water, ignoring the ba...
- 15.150: A solution saturated with a salt of the type M3X2 has an osmotic pr...
- 15.151: A buffer solution is prepared by mixing 75.0 mL of 0.275 M fluorobe...
- 15.152: The Ksp for Q, a slightly soluble ionic compound composed of M2 2_ ...
- 15.153: Calculate the pH of a solution prepared by mixing 250. mL of 0.174 ...
- 15.154: A 225-mg sample of a diprotic acid is dissolved in enough water to ...
Solutions for Chapter 15: Applications of Aqueous Equilibria
Full solutions for Chemistry | 7th Edition
ISBN: 9780618528448
Since 154 problems in chapter 15: Applications of Aqueous Equilibria have been answered, more than 77690 students have viewed full step-by-step solutions from this chapter. Chemistry was written by and is associated to the ISBN: 9780618528448. This textbook survival guide was created for the textbook: Chemistry, edition: 7. Chapter 15: Applications of Aqueous Equilibria includes 154 full step-by-step solutions. This expansive textbook survival guide covers the following chapters and their solutions.
-
addition reaction
A reaction in which a reagent adds to the two carbon atoms of a carbon–carbon multiple bond. (Section 24.3)
-
Bond length
The distance between atoms in a covalent bond in picometers (pm; 1 pm 5 10212 m) or Å (1Å 5 10210 m).
-
electronegativity
A measure of the ability of an atom that is bonded to another atom to attract electrons to itself. (Section 8.4)
-
Hammond’s postulate
The structure of the transition state for an exothermic step looks more like the reactants of that step than the products. Conversely, the structure of the transition state for an endothermic step looks more like the products of that step than the reactants.
-
high-spin complex
A complex whose electrons populate the d orbitals to give the maximum number of unpaired electrons. (Section 23.6)
-
l sugar
A carbohydrate for which the chirality center farthest from the carbonyl group will have an OH group pointing to the left in the Fischer projection.
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matter
Anything that occupies space and has mass; the physical material of the universe. (Section 1.1)
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nonionizing radiation
Radiation that does not have sufficient energy to remove an electron from a molecule. (Section 21.9)
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oxidizing agent, or oxidant
The substance that is reduced and thereby causes the oxidation of some other substance in an oxidation–reduction reaction. (Section 20.1)
-
Part per million (ppm)
Units used on NMR spectra to record chemical shift relative to the TMS standard.
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Pauli exclusion principle
A rule stating that no two electrons in an atom may have the same four quantum numbers (n, l, ml, and ms). As a reflection of this principle, there can be no more than two electrons in any one atomic orbital. (Section 6.7)
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percent yield
The ratio of the actual (experimental) yield of a product to its theoretical (calculated) yield, multiplied by 100. (Section 3.7)
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pericylic reactions
Reactions that occur via a concerted process and do not involve either ionic or radical intermediates.
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Polyester
A polymer in which each monomer unit is joined to the next by an ester bond, as, for example, poly(ethylene terephthalate).
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proton
A positively charged subatomic particle found in the nucleus of an atom. (Section 2.3)
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radical anion
An intermediate that has both a negative charge and an unpaired electron.
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Solvolysis
A nucleophilic substitution in which the solvent is also the nucleophile
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Stork enamine synthesis
A Michaelreaction in which an enamine functions as anucleophile.
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syn addition
An addition reaction in which two groups are added to the same face of a p bond.
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wavelength
The distance between adjacent peaks of an oscillating magnetic or electric field.