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</div><h2>SL Paper 2</h2><div class="specification">
<p class="p1">The following equation represents a combustion reaction of propane, \({{\text{C}}_{\text{3}}}{{\text{H}}_{\text{8}}}{\text{(g)}}\) when the oxygen supply is limited.</p>
<p class="p1">\[{{\text{C}}_3}{{\text{H}}_8}{\text{(g)}} + {\text{3}}\frac{1}{2}{{\text{O}}_2}{\text{(g)}} \to {\text{3CO(g)}} + {\text{4}}{{\text{H}}_2}{\text{O(g)}}\]</p>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Define the term <em>average bond enthalpy</em>.</p>
<div class="marks">[2]</div>
<div class="question_part_label">a.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">(i) <span class="Apple-converted-space"> </span>Determine \(\Delta H\), the enthalpy change of the reaction, in \({\text{kJ}}\,{\text{mo}}{{\text{l}}^{ - 1}}\), using average bond enthalpy data from Table 10 of the Data Booklet. The bond enthalpy for the carbon-oxygen bond in carbon monoxide, CO, is \({\text{1072 kJ}}\,{\text{mo}}{{\text{l}}^{ - 1}}\).</p>
<p class="p1">(ii) <span class="Apple-converted-space"> </span>The CO molecule has dative covalent bonding. Identify a nitrogen-containing positive ion which also has this type of bonding.</p>
<div class="marks">[4]</div>
<div class="question_part_label">b.</div>
</div>
<br><hr><br><div class="specification">
<p class="p1">Ethanol is used as a component in fuel for some vehicles. One fuel mixture contains 10% by mass of ethanol in unleaded petrol (gasoline). This mixture is often referred to as Gasohol E10.</p>
</div>
<div class="specification">
<p class="p1">Assume that the other 90% by mass of Gasohol E10 is octane. 1.00 kg of this fuel mixture was burned.</p>
<p class="p1">\[\begin{array}{*{20}{l}} {{\text{C}}{{\text{H}}_3}{\text{C}}{{\text{H}}_2}{\text{OH(l)}} + {\text{3}}{{\text{O}}_2}{\text{(g)}} \to {\text{2C}}{{\text{O}}_2}{\text{(g)}} + {\text{3}}{{\text{H}}_2}{\text{O(l)}}}&{\Delta {H^\Theta } = - 1367{\text{ kJ}}\,{\text{mo}}{{\text{l}}^{ - 1}}} \\ {{{\text{C}}_8}{{\text{H}}_{18}}{\text{(l)}} + {\text{12}}\frac{1}{2}{{\text{O}}_2}{\text{(g)}} \to {\text{8C}}{{\text{O}}_2}{\text{(g)}} + {\text{9}}{{\text{H}}_2}{\text{O(l)}}}&{\Delta {H^\Theta } = - 5470{\text{ kJ}}\,{\text{mo}}{{\text{l}}^{ - 1}}} \end{array}\]</p>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Calculate the mass, in g, of ethanol and octane in 1.00 kg of the fuel mixture.</p>
<div class="marks">[1]</div>
<div class="question_part_label">a.i.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Calculate the amount, in mol, of ethanol and octane in 1.00 kg of the fuel mixture.</p>
<div class="marks">[1]</div>
<div class="question_part_label">a.ii.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Calculate the total amount of energy, in kJ, released when 1.00 kg of the fuel mixture is completely burned.</p>
<div class="marks">[3]</div>
<div class="question_part_label">a.iii.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">If the fuel blend was vaporized before combustion, predict whether the amount of energy released would be greater, less or the same. Explain your answer.</p>
<div class="marks">[2]</div>
<div class="question_part_label">b.</div>
</div>
<br><hr><br><div class="specification">
<p class="p1">Ammonia, \({\text{N}}{{\text{H}}_{\text{3}}}\), is a base according to both the Brønsted–Lowry and the Lewis theories of acids and bases.</p>
</div>
<div class="specification">
<p class="p1">The equation for the reaction between sodium hydroxide, NaOH, and nitric acid, \({\text{HN}}{{\text{O}}_{\text{3}}}\), is shown below.</p>
<p class="p1">\[\begin{array}{*{20}{l}} {{\text{NaOH(aq)}} + {\text{HN}}{{\text{O}}_3}{\text{(aq)}} \to {\text{NaN}}{{\text{O}}_3}{\text{(aq)}} + {{\text{H}}_2}{\text{O(l)}}}&{{\text{ }}\Delta H = - 57.6{\text{ kJ}}\,{\text{mo}}{{\text{l}}^{ - 1}}} \end{array}\]</p>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Distinguish between the terms <em>strong base </em>and <em>weak base</em>, and state one example of each.</p>
<div class="marks">[3]</div>
<div class="question_part_label">a.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">State the equation for the reaction of ammonia with water.</p>
<div class="marks">[1]</div>
<div class="question_part_label">b.i.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Explain why ammonia can act as a Brønsted–Lowry base.</p>
<div class="marks">[1]</div>
<div class="question_part_label">b.ii.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Explain why ammonia can also act as a Lewis base.</p>
<div class="marks">[1]</div>
<div class="question_part_label">b.iii.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">(i) <span class="Apple-converted-space"> </span>When ammonium chloride, \({\text{N}}{{\text{H}}_{\text{4}}}{\text{Cl(aq)}}\), is added to excess solid sodium carbonate, \({\text{N}}{{\text{a}}_{\text{2}}}{\text{C}}{{\text{O}}_{\text{3}}}{\text{(s)}}\), an acid–base reaction occurs. Bubbles of gas are produced and the solid sodium carbonate decreases in mass. State <strong>one </strong>difference which would be observed if nitric acid, \({\text{HN}}{{\text{O}}_{\text{3}}}{\text{(aq)}}\), was used instead of ammonium chloride.</p>
<p class="p1">(ii) <span class="Apple-converted-space"> </span>Deduce the Lewis structures of the ammonium ion, \({\text{NH}}_4^ + \), and the carbonate ion, \({\text{CO}}_3^{2 - }\).</p>
<p class="p1" style="text-align: center;">Ammonium ion\(\quad \quad \quad \quad \quad \quad \quad \quad \quad \quad \quad \quad \quad \quad \quad \)Carbonate ion</p>
<p class="p1">(iii) <span class="Apple-converted-space"> </span>Predict the shapes of \({\text{NH}}_4^ + \) and \({\text{CO}}_3^{2 - }\).</p>
<p class="p1">\({\text{NH}}_4^ + \):</p>
<p class="p1">\({\text{CO}}_3^{2 - }\):</p>
<div class="marks">[5]</div>
<div class="question_part_label">c.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">(i) <span class="Apple-converted-space"> </span>Sketch and label an enthalpy level diagram for this reaction.</p>
<p class="p1">(ii) <span class="Apple-converted-space"> </span>Deduce whether the reactants or the products are more energetically stable, stating your reasoning.</p>
<p class="p1">(iii) <span class="Apple-converted-space"> </span>Calculate the change in heat energy, in kJ, when \({\text{50.0 c}}{{\text{m}}^{\text{3}}}\) of \({\text{2.50 mol}}\,{\text{d}}{{\text{m}}^{ - 3}}\) sodium hydroxide solution is added to excess nitric acid.</p>
<div class="marks">[6]</div>
<div class="question_part_label">d.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">When 5.35 g ammonium chloride, \({\text{N}}{{\text{H}}_{\text{4}}}{\text{Cl(s)}}\), is added to \({\text{100.0 c}}{{\text{m}}^{\text{3}}}\) of water, the temperature of the water decreases from 19.30 °C to 15.80 °C. Determine the enthalpy change, in \({\text{kJ}}\,{\text{mo}}{{\text{l}}^{ - 1}}\), for the dissolving of ammonium chloride in water.</p>
<div class="marks">[3]</div>
<div class="question_part_label">e.</div>
</div>
<br><hr><br><div class="specification">
<p class="p1">Two students were asked to use information from the Data Booklet to calculate a value for the enthalpy of hydrogenation of ethene to form ethane.</p>
<p class="p1">\[{{\text{C}}_2}{{\text{H}}_4}{\text{(g)}} + {{\text{H}}_2}{\text{(g)}} \to {{\text{C}}_2}{{\text{H}}_6}{\text{(g)}}\]</p>
<p class="p1">John used the average bond enthalpies from Table 10. Marit used the values of enthalpies of combustion from Table 12.</p>
</div>
<div class="specification">
<p class="p1">John then decided to determine the enthalpy of hydrogenation of cyclohexene to produce cyclohexane.</p>
<p class="p1">\[{{\text{C}}_{\text{6}}}{{\text{H}}_{{\text{10}}}}{\text{(l)}} + {{\text{H}}_{\text{2}}}{\text{(g)}} \to {{\text{C}}_{\text{6}}}{{\text{H}}_{{\text{12}}}}{\text{(l)}}\]</p>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Calculate the value for the enthalpy of hydrogenation of ethene obtained using the average bond enthalpies given in Table 10.</p>
<div class="marks">[2]</div>
<div class="question_part_label">a.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Marit arranged the values she found in Table 12 into an energy cycle.</p>
<p class="p1" style="text-align: center;"><img src="images/Schermafbeelding_2016-10-16_om_08.37.35.png" alt="M09/4/CHEMI/SP2/ENG/TZ1/02.b"></p>
<p class="p1">Calculate the value for the enthalpy of hydrogenation of ethene from the energy cycle.</p>
<div class="marks">[1]</div>
<div class="question_part_label">b.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Suggest <strong>one </strong>reason why John’s answer is slightly less accurate than Marit’s answer.</p>
<div class="marks">[1]</div>
<div class="question_part_label">c.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Use the average bond enthalpies to deduce a value for the enthalpy of hydrogenation of cyclohexene.</p>
<div class="marks">[1]</div>
<div class="question_part_label">d.i.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">The percentage difference between these two methods (average bond enthalpies and enthalpies of combustion) is greater for cyclohexene than it was for ethene. John’s hypothesis was that it would be the same. Determine why the use of average bond enthalpies is less accurate for the cyclohexene equation shown above, than it was for ethene. Deduce what extra information is needed to provide a more accurate answer.</p>
<div class="marks">[2]</div>
<div class="question_part_label">d.ii.</div>
</div>
<br><hr><br><div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Define the term <em>average bond enthalpy</em>.</p>
<div class="marks">[2]</div>
<div class="question_part_label">a.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Deduce the balanced chemical equation for the complete combustion of butan-1-ol.</p>
<div class="marks">[1]</div>
<div class="question_part_label">b.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Determine the standard enthalpy change, in \({\text{kJ}}\,{\text{mo}}{{\text{l}}^{ - 1}}\), for the complete combustion of butan-1-ol, using the information from Table 10 of the Data Booklet.</p>
<div class="marks">[3]</div>
<div class="question_part_label">c.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Based on the types of intermolecular force present, explain why butan-1-ol has a higher boiling point than butanal.</p>
<div class="marks">[2]</div>
<div class="question_part_label">d.</div>
</div>
<br><hr><br><div class="specification">
<p class="p1">An example of a homogeneous reversible reaction is the reaction between hydrogen and iodine.</p>
<p class="p1">\[{{\text{H}}_{\text{2}}}{\text{(g)}} + {{\text{I}}_{\text{2}}}{\text{(g)}} \rightleftharpoons {\text{2HI(g)}}\]</p>
</div>
<div class="specification">
<p class="p1">Propane can be formed by the hydrogenation of propene.</p>
<p class="p2">\[{\text{C}}{{\text{H}}_3}{\text{CH=C}}{{\text{H}}_2}{\text{(g)}} + {{\text{H}}_2}{\text{(g)}} \to {\text{C}}{{\text{H}}_3}{\text{C}}{{\text{H}}_2}{\text{C}}{{\text{H}}_3}{\text{(g)}}\]</p>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Outline the characteristics of a homogeneous chemical system that is in a state of equilibrium.</p>
<div class="marks">[2]</div>
<div class="question_part_label">a.i.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Deduce the expression for the equilibrium constant, \({K_{\text{c}}}\).</p>
<div class="marks">[1]</div>
<div class="question_part_label">a.ii.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Predict what would happen to the position of equilibrium and the value of \({K_{\text{c}}}\) if the pressure is increased from 1 atm to 2 atm.</p>
<div class="marks">[2]</div>
<div class="question_part_label">a.iii.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">The value of \({K_{\text{c}}}\) at 500 K is 160 and the value of \({K_{\text{c}}}\) at 700 K is 54. Deduce what this information tells us about the enthalpy change of the forward reaction.</p>
<div class="marks">[1]</div>
<div class="question_part_label">a.iv.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">The reaction can be catalysed by adding platinum metal. State and explain what effect the addition of platinum would have on the value of the equilibrium constant.</p>
<div class="marks">[2]</div>
<div class="question_part_label">a.v.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">State the conditions necessary for the hydrogenation reaction to occur.</p>
<div class="marks">[2]</div>
<div class="question_part_label">b.i.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Enthalpy changes can be determined using average bond enthalpies. Define the term <em>average bond enthalpy</em>.</p>
<div class="marks">[2]</div>
<div class="question_part_label">b.ii.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Determine a value for the hydrogenation of propene using information from Table 10 of the Data Booklet.</p>
<div class="marks">[2]</div>
<div class="question_part_label">b.iii.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Explain why the enthalpy of hydrogenation of propene is an exothermic process.</p>
<div class="marks">[1]</div>
<div class="question_part_label">b.iv.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Describe a chemical test that could be used to distinguish between propane and propene. In <strong>each </strong>case state the result of the test.</p>
<div class="marks">[2]</div>
<div class="question_part_label">c.i.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Under certain conditions propene can polymerize to form poly(propene). State the type of polymerization taking place and draw a section of the polymer to represent the repeating unit.</p>
<div class="marks">[2]</div>
<div class="question_part_label">c.ii.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Other than polymerization, state <strong>one </strong>reaction of alkenes which is of economic importance.</p>
<div class="marks">[1]</div>
<div class="question_part_label">c.iii.</div>
</div>
<br><hr><br><div class="specification">
<p>Enthalpy changes depend on the number and type of bonds broken and formed.</p>
</div>
<div class="specification">
<p>The table lists the standard enthalpies of formation, \(\Delta H_{\text{f}}^\Theta \), for some of the species in the reaction above.</p>
<p style="text-align: center;"><img src="images/Schermafbeelding_2018-08-10_om_08.21.04.png" alt="M18/4/CHEMI/SP2/ENG/TZ2/04.b"></p>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Hydrogen gas can be formed industrially by the reaction of natural gas with steam.</p>
<p> CH<sub>4</sub>(g) + H<sub>2</sub>O(g) → 3H<sub>2</sub>(g) + CO(g)</p>
<p>Determine the enthalpy change, Δ<em>H, </em>for the reaction, in kJ, using section 11 of the data booklet.</p>
<p>Bond enthalpy for C≡O: 1077 kJ mol<sup>−1</sup></p>
<div class="marks">[3]</div>
<div class="question_part_label">a.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Outline why no value is listed for H<sub>2</sub>(g).</p>
<div class="marks">[1]</div>
<div class="question_part_label">b.i.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Determine the value of Δ<em>H</em><sup>Θ</sup>, in kJ, for the reaction using the values in the table.</p>
<div class="marks">[1]</div>
<div class="question_part_label">b.ii.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Outline why the value of enthalpy of reaction calculated from bond enthalpies is less accurate.</p>
<div class="marks">[1]</div>
<div class="question_part_label">b.iii.</div>
</div>
<br><hr><br><div class="specification">
<p>Ethane-1,2-diol, HOCH<sub>2</sub>CH<sub>2</sub>OH, has a wide variety of uses including the removal of ice from aircraft and heat transfer in a solar cell.</p>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Ethane-1,2-diol can be formed according to the following reaction.</p>
<p style="text-align: center;">2CO (g) + 3H<sub>2 </sub>(g) \( \rightleftharpoons \) HOCH<sub>2</sub>CH<sub>2</sub>OH (g)</p>
<p>(i) Deduce the equilibrium constant expression, <em>K</em><sub>c</sub>, for this reaction.</p>
<p> </p>
<p>(ii) State how increasing the pressure of the reaction mixture at constant temperature will affect the position of equilibrium and the value of <em>K</em><sub>c</sub>.</p>
<p style="padding-left: 30px;">Position of equilibrium:</p>
<p style="padding-left: 30px;"><em>K</em><sub>c</sub>:</p>
<p style="padding-left: 30px;"> </p>
<p>(iii) Calculate the enthalpy change, Δ<em>H</em><sup>θ</sup>, in kJ, for this reaction using section 11 of the data booklet. The bond enthalpy of the carbon–oxygen bond in CO (g) is 1077kJmol<sup>-1</sup>.</p>
<p> </p>
<p>(iv) The enthalpy change, ΔH<sup>θ</sup>, for the following similar reaction is –233.8 kJ.</p>
<p style="text-align: center;">2CO(g) + 3H<sub>2</sub>(g) \( \rightleftharpoons \) HOCH<sub>2</sub>CH<sub>2</sub>OH (l)</p>
<p>Deduce why this value differs from your answer to (a)(iii).</p>
<div class="marks">[7]</div>
<div class="question_part_label">a.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Determine the average oxidation state of carbon in ethene and in ethane-1,2-diol.</p>
<p style="padding-left: 30px;">Ethene:</p>
<p style="padding-left: 30px;">Ethane-1,2-diol:</p>
<div class="marks">[2]</div>
<div class="question_part_label">b.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Explain why the boiling point of ethane-1,2-diol is significantly greater than that of ethene.</p>
<div class="marks">[2]</div>
<div class="question_part_label">c.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Ethane-1,2-diol can be oxidized first to ethanedioic acid, (COOH)<sub>2</sub>, and then to carbon dioxide and water. Suggest the reagents to oxidize ethane-1,2-diol.</p>
<div class="marks">[1]</div>
<div class="question_part_label">d.</div>
</div>
<br><hr><br><div class="specification">
<p class="p1">If white anhydrous copper(II) sulfate powder is left in the atmosphere it slowly absorbs water vapour giving the blue pentahydrated solid.</p>
<p class="p1" style="text-align: center;"><img src="images/Schermafbeelding_2016-10-30_om_04.56.53.png" alt="M11/4/CHEMI/SP2/ENG/TZ2/01_1"></p>
<p class="p1">It is difficult to measure the enthalpy change for this reaction directly. However, it is possible to measure the heat changes directly when both anhydrous and pentahydrated copper(II) sulfate are separately dissolved in water, and then use an energy cycle to determine the required enthalpy change value, <span class="s1">\(\Delta {H_{\text{x}}}\)</span>, indirectly.</p>
<p class="p1" style="text-align: center;"><img src="images/Schermafbeelding_2016-10-30_om_04.57.32.png" alt="M11/4/CHEMI/SP2/ENG/TZ2/01_2"></p>
</div>
<div class="specification">
<p class="p1">To determine \(\Delta {H_1}\) a student placed 50.0 g of water in a cup made of expanded polystyrene and used a data logger to measure the temperature. After two minutes she dissolved 3.99 g of anhydrous copper(II) sulfate in the water and continued to record the temperature while continuously stirring. She obtained the following results.</p>
<p class="p1" style="text-align: center;"><img src="images/Schermafbeelding_2016-10-30_om_05.00.06.png" alt="M11/4/CHEMI/SP2/ENG/TZ2/01.a"></p>
</div>
<div class="specification">
<p class="p1">To determine \(\Delta {H_2}\), 6.24 g of pentahydrated copper(II) sulfate was dissolved in 47.75 g of water. It was observed that the temperature of the solution decreased by 1.10 °C.</p>
</div>
<div class="specification">
<p class="p1">The magnitude (the value without the \( + \) or \( - \) sign) found in a data book for \(\Delta {H_{\text{x}}}\) is \({\text{78.0 kJ}}\,{\text{mo}}{{\text{l}}^{ - 1}}\).</p>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Calculate the amount, in mol, of anhydrous copper(II) sulfate dissolved in the 50.0 g of water.</p>
<div class="marks">[1]</div>
<div class="question_part_label">a.i.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Determine what the temperature rise would have been, in °C, if no heat had been lost to the surroundings.</p>
<div class="marks">[2]</div>
<div class="question_part_label">a.ii.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Calculate the heat change, in kJ, when 3.99 g of anhydrous copper(II) sulfate is dissolved in the water.</p>
<div class="marks">[2]</div>
<div class="question_part_label">a.iii.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Determine the value of \(\Delta {H_1}{\text{ in kJ}}\,{\text{mo}}{{\text{l}}^{ - 1}}\).</p>
<div class="marks">[1]</div>
<div class="question_part_label">a.iv.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Calculate the amount, in mol, of water in 6.24 g of pentahydrated copper(II) sulfate.</p>
<div class="marks">[2]</div>
<div class="question_part_label">b.i.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Determine the value of \(\Delta {H_2}\) in \({\text{kJ}}\,{\text{mo}}{{\text{l}}^{ - 1}}\).</p>
<div class="marks">[2]</div>
<div class="question_part_label">b.ii.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Using the values obtained for \(\Delta {H_1}\) in (a) (iv) and \(\Delta {H_2}\) in (b) (ii), determine the value for \(\Delta {H_{\text{x}}}\) in \({\text{kJ}}\,{\text{mo}}{{\text{l}}^{ - 1}}\).</p>
<div class="marks">[1]</div>
<div class="question_part_label">b.iii.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Calculate the percentage error obtained in this experiment. (If you did not obtain an answer for the experimental value of \(\Delta {H_{\text{x}}}\) then use the value \({\text{70.0 kJ}}\,{\text{mo}}{{\text{l}}^{ - 1}}\), but this is <strong>not </strong>the true value.)</p>
<div class="marks">[1]</div>
<div class="question_part_label">c.i.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">The student recorded in her qualitative data that the anhydrous copper(II) sulfate she used was pale blue rather than completely white. Suggest a reason why it might have had this pale blue colour and deduce how this would have affected the value she obtained for \(\Delta {H_{\text{x}}}\).</p>
<div class="marks">[2]</div>
<div class="question_part_label">c.ii.</div>
</div>
<br><hr><br><div class="specification">
<p class="p1">Consider the following equilibrium:</p>
<p class="p1">\[\begin{array}{*{20}{l}} {{\text{4N}}{{\text{H}}_3}{\text{(g)}} + {\text{5}}{{\text{O}}_2}{\text{(g)}} \rightleftharpoons {\text{4NO(g)}} + {\text{6}}{{\text{H}}_2}{\text{O(g)}}}&{\Delta {H^\Theta } = - 909{\text{ kJ}}} \end{array}\]</p>
</div>
<div class="specification">
<p class="p1">Nitrogen reacts with hydrogen to form ammonia in the Haber process, according to the following equilibrium.</p>
<p class="p1">\[\begin{array}{*{20}{l}} {{{\text{N}}_{\text{2}}}{\text{(g)}} + {\text{3}}{{\text{H}}_{\text{2}}}{\text{(g)}} \rightleftharpoons {\text{2N}}{{\text{H}}_{\text{3}}}{\text{(g)}}}&{\Delta {H^\Theta } = - 92.6{\text{ kJ}}} \end{array}\]</p>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Deduce the equilibrium constant expression, \({K_{\text{c}}}\), for the reaction.</p>
<div class="marks">[1]</div>
<div class="question_part_label">a.i.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Predict the direction in which the equilibrium will shift when the following changes occur.</p>
<p class="p1">The volume increases.</p>
<p class="p1">The temperature decreases.</p>
<p class="p1">\({{\text{H}}_{\text{2}}}{\text{O(g)}}\) is removed from the system.</p>
<p class="p1">A catalyst is added to the reaction mixture.</p>
<div class="marks">[4]</div>
<div class="question_part_label">a.ii.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Define the term <em>activation energy</em>, \({E_{\text{a}}}\).</p>
<div class="marks">[1]</div>
<div class="question_part_label">b.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Nitrogen monoxide, NO, is involved in the decomposition of ozone according to the following mechanism.</p>
<p class="p2">\[\begin{array}{*{20}{l}} {}&{{{\text{O}}_{\text{3}}} \to {{\text{O}}_{\text{2}}} + {\text{O}} \bullet } \\ {}&{{{\text{O}}_3} + {\text{NO}} \to {\text{N}}{{\text{O}}_2} + {{\text{O}}_2}} \\ {}&{{\text{N}}{{\text{O}}_2} + {\text{O}} \bullet \to {\text{NO}} + {{\text{O}}_2}} \\ {{\text{Overall:}}}&{{\text{2}}{{\text{O}}_3} \to {\text{3}}{{\text{O}}_2}} \end{array}\]</p>
<p class="p1">State and explain whether or not NO is acting as a catalyst.</p>
<div class="marks">[2]</div>
<div class="question_part_label">c.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Define the term <em>endothermic reaction</em>.</p>
<div class="marks">[1]</div>
<div class="question_part_label">d.i.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Sketch the Maxwell-Boltzmann energy distribution curve for a reaction with and without a catalyst, and label both axes.</p>
<div class="marks">[3]</div>
<div class="question_part_label">d.ii.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Define the term <em>rate of reaction</em>.</p>
<div class="marks">[1]</div>
<div class="question_part_label">e.i.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Iron, used as the catalyst in the Haber process, has a specific heat capacity of \({\text{0.4490 J}}\,{{\text{g}}^{ - 1}}{{\text{K}}^{ - 1}}\). If 245.0 kJ of heat is supplied to 8.500 kg of iron, initially at a temperature of 15.25 °C, determine its final temperature in K.</p>
<div class="marks">[3]</div>
<div class="question_part_label">f.</div>
</div>
<br><hr><br><div class="specification">
<p>This question is about ethene, C<sub>2</sub>H<sub>4</sub>, and ethyne, C<sub>2</sub>H<sub>2</sub>.</p>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Ethyne, like ethene, undergoes hydrogenation to form ethane. State the conditions required.</p>
<div class="marks">[2]</div>
<div class="question_part_label">a.i.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Outline the formation of polyethene from ethene by drawing three repeating units of the polymer.</p>
<div class="marks">[1]</div>
<div class="question_part_label">a.ii.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Under certain conditions, ethyne can be converted to benzene.</p>
<p>Determine the standard enthalpy change, Δ<em>H</em><sup>ϴ</sup><em>, </em>for the reaction stated, using section 11 of the data booklet.</p>
<p> 3C<sub>2</sub>H<sub>2</sub>(g) → C<sub>6</sub>H<sub>6</sub>(g)</p>
<div class="marks">[2]</div>
<div class="question_part_label">b.i.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Determine the standard enthalpy change, Δ<em>H</em><sup>Θ</sup><em>, </em>for the following similar reaction, using Δ<em>H</em><sub>f</sub> values in section 12 of the data booklet.</p>
<p>3C<sub>2</sub>H<sub>2</sub>(g) → C<sub>6</sub>H<sub>6</sub>(l)</p>
<div class="marks">[2]</div>
<div class="question_part_label">b.ii.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Explain, giving two reasons, the difference in the values for (b)(i) and (ii). If you did not obtain answers, use −475 kJ for (i) and −600 kJ for (ii).</p>
<div class="marks">[2]</div>
<div class="question_part_label">b.iii.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>One possible Lewis structure for benzene is shown.</p>
<p> <img src="images/Schermafbeelding_2018-08-09_om_15.01.32.png" alt="M18/4/CHEMI/SP2/ENG/TZ1/03.c"></p>
<p>State one piece of physical evidence that this structure is <strong>incorrect</strong>.</p>
<div class="marks">[1]</div>
<div class="question_part_label">c.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>State the characteristic reaction mechanism of benzene.</p>
<div class="marks">[1]</div>
<div class="question_part_label">d.</div>
</div>
<br><hr><br><div class="specification">
<p class="p1">Methanol is made in large quantities as it is used in the production of polymers and in fuels. The enthalpy of combustion of methanol can be determined theoretically or experimentally.</p>
<p class="p1">\[{\text{C}}{{\text{H}}_3}{\text{OH(l)}} + {\text{1}}\frac{1}{2}{{\text{O}}_2}{\text{(g)}} \to {\text{C}}{{\text{O}}_2}{\text{(g)}} + {\text{2}}{{\text{H}}_2}{\text{O(g)}}\]</p>
</div>
<div class="specification">
<p class="p1">The enthalpy of combustion of methanol can also be determined experimentally in a school laboratory. A burner containing methanol was weighed and used to heat water in a test tube as illustrated below.</p>
<p class="p1" style="text-align: center;"><img src="images/Schermafbeelding_2016-10-25_om_06.34.49.png" alt="M11/4/CHEMI/SP2/ENG/TZ1/01.b_1"></p>
<p class="p1">The following data were collected.</p>
<p class="p1" style="text-align: center;"><img src="images/Schermafbeelding_2016-10-25_om_06.36.09.png" alt="M11/4/CHEMI/SP2/ENG/TZ1/01.b.2"></p>
</div>
<div class="specification">
<p class="p1">The Data Booklet value for the enthalpy of combustion of methanol is \( - {\text{726 kJ}}\,{\text{mo}}{{\text{l}}^{ - 1}}\). Suggest why this value differs from the values calculated in parts (a) and (b).</p>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Using the information from Table 10 of the Data Booklet, determine the theoretical enthalpy of combustion of methanol.</p>
<div class="marks">[3]</div>
<div class="question_part_label">a.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Calculate the amount, in mol, of methanol burned.</p>
<div class="marks">[2]</div>
<div class="question_part_label">b.i.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Calculate the heat absorbed, in kJ, by the water.</p>
<div class="marks">[3]</div>
<div class="question_part_label">b.ii.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Determine the enthalpy change, in \({\text{kJ}}\,{\text{mo}}{{\text{l}}^{ - 1}}\), for the combustion of 1 mole of methanol.</p>
<div class="marks">[2]</div>
<div class="question_part_label">b.iii.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Part (a)</p>
<div class="marks">[1]</div>
<div class="question_part_label">c.i.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Part (b)</p>
<div class="marks">[1]</div>
<div class="question_part_label">c.ii.</div>
</div>
<br><hr><br><div class="specification">
<p class="p1">In December 2010, researchers in Sweden announced the synthesis of N,N–dinitronitramide, \({\text{N(N}}{{\text{O}}_{\text{2}}}{{\text{)}}_{\text{3}}}\). They speculated that this compound, more commonly called trinitramide, may have significant potential as an environmentally friendly rocket fuel oxidant.</p>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Methanol reacts with trinitramide to form nitrogen, carbon dioxide and water. Deduce the coefficients required to balance the equation for this reaction.</p>
<p class="p1" style="text-align: center;">___ \({\text{N(N}}{{\text{O}}_2}{{\text{)}}_3}{\text{(g)}} + \) ___ \({\text{C}}{{\text{H}}_3}{\text{OH(l)}} \to \) ___ \({{\text{N}}_2}{\text{(g)}} + \) ___ \({\text{C}}{{\text{O}}_2}{\text{(g)}} + \) ___ \({{\text{H}}_2}{\text{O(l)}}\)</p>
<div class="marks">[1]</div>
<div class="question_part_label">a.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Calculate the enthalpy change, in \({\text{kJ}}\,{\text{mo}}{{\text{l}}^{ - 1}}\), when one mole of trinitramide decomposes to its elements, using bond enthalpy data from Table 10 of the Data Booklet. Assume that all the N–O bonds in this molecule have a bond enthalpy of \({\text{305 kJ}}\,{\text{mo}}{{\text{l}}^{ - 1}}\).</p>
<div class="marks">[3]</div>
<div class="question_part_label">c.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Outline how the length of the N–N bond in trinitramide compares with the N–N bond in nitrogen gas, \({{\text{N}}_{\text{2}}}\).</p>
<div class="marks">[2]</div>
<div class="question_part_label">d.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Deduce the N–N–N bond angle in trinitramide and explain your reasoning.</p>
<div class="marks">[3]</div>
<div class="question_part_label">e.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Predict, with an explanation, the polarity of the trinitramide molecule.</p>
<div class="marks">[2]</div>
<div class="question_part_label">f.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Methanol can also be burnt as a fuel. Describe an experiment that would allow the molar enthalpy change of combustion to be calculated from the results.</p>
<div class="marks">[3]</div>
<div class="question_part_label">g.i.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Explain how the results of this experiment could be used to calculate the molar enthalpy change of combustion of methanol.</p>
<div class="marks">[3]</div>
<div class="question_part_label">g.ii.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Predict, with an explanation, how the result obtained would compare with the value in Table 12 of the Data Booklet.</p>
<div class="marks">[2]</div>
<div class="question_part_label">g.iii.</div>
</div>
<br><hr><br><div class="specification">
<p class="p1">In some countries, ethanol is mixed with gasoline (petrol) to produce a fuel for cars called gasohol.</p>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Define the term <em>average bond enthalpy</em>.</p>
<div class="marks">[2]</div>
<div class="question_part_label">a.i.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Use the information from Table 10 of the Data Booklet to determine the standard enthalpy change for the complete combustion of ethanol.</p>
<p class="p1">\[{\text{C}}{{\text{H}}_{\text{3}}}{\text{C}}{{\text{H}}_{\text{2}}}{\text{OH(g)}} + {\text{3}}{{\text{O}}_{\text{2}}}{\text{(g)}} \to {\text{2C}}{{\text{O}}_{\text{2}}}{\text{(g)}} + {\text{3}}{{\text{H}}_{\text{2}}}{\text{O(g)}}\]</p>
<div class="marks">[3]</div>
<div class="question_part_label">a.ii.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">The standard enthalpy change for the complete combustion of octane, \({{\text{C}}_{\text{8}}}{{\text{H}}_{{\text{18}}}}\), is \( - 5471{\text{ kJ}}\,{\text{mo}}{{\text{l}}^{ - 1}}\). Calculate the amount of energy produced in kJ when 1 g of ethanol and 1 g of octane is burned completely in air.</p>
<div class="marks">[2]</div>
<div class="question_part_label">a.iii.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Ethanol can be oxidized using acidified potassium dichromate, \({{\text{K}}_{\text{2}}}{\text{C}}{{\text{r}}_{\text{2}}}{{\text{O}}_{\text{7}}}\), to form two different organic products.</p>
<p class="p1" style="text-align: center;">\({\text{C}}{{\text{H}}_{\text{3}}}{\text{C}}{{\text{H}}_{\text{2}}}{\text{OH}}\xrightarrow[{{{\text{H}}^ + }}]{{{\text{C}}{{\text{r}}_{\text{2}}}{\text{O}}_7^{2 - }}}\) <strong>A</strong> \(\xrightarrow[{{{\text{H}}^ + }}]{{{\text{C}}{{\text{r}}_{\text{2}}}{\text{O}}_7^{2 - }}}\) <strong>B</strong></p>
<p class="p1">State the structural formulas of the organic products <strong>A </strong>and <strong>B </strong>and describe the conditions required to obtain a high yield of each of them.</p>
<div class="marks">[4]</div>
<div class="question_part_label">a.iv.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Deduce and explain whether ethanol or <strong>A </strong>has the higher boiling point.</p>
<div class="marks">[2]</div>
<div class="question_part_label">a.v.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Ethene can be converted into ethanol by direct hydration in the presence of a catalyst according to the following equation.</p>
<p class="p1">\[{{\text{C}}_{\text{2}}}{{\text{H}}_{\text{4}}}{\text{(g)}} + {{\text{H}}_{\text{2}}}{\text{O(g)}} \rightleftharpoons {\text{C}}{{\text{H}}_{\text{3}}}{\text{C}}{{\text{H}}_{\text{2}}}{\text{OH(g)}}\]</p>
<p class="p1">For this reaction identify the catalyst used and state <strong>one </strong>use of the ethanol formed other than as a fuel.</p>
<div class="marks">[2]</div>
<div class="question_part_label">a.vi.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">State the name of <strong>one </strong>structural isomer of pentane.</p>
<div class="marks">[1]</div>
<div class="question_part_label">b.i.</div>
</div>
<br><hr><br><div class="specification">
<p class="p1">To determine the enthalpy change of combustion of methanol, \({\text{C}}{{\text{H}}_{\text{3}}}{\text{OH}}\), 0.230 g of methanol was combusted in a spirit burner. The heat released increased the temperature of \({\text{50.0 c}}{{\text{m}}^{\text{3}}}\) of water from 24.5 °<span class="s2">C </span>to 45.8 °<span class="s2">C</span>.</p>
</div>
<div class="specification">
<p class="p1">The manufacture of gaseous methanol from CO and \({{\text{H}}_{\text{2}}}\) involves an equilibrium reaction.</p>
<p class="p2">\[{\text{CO(g)}} + {\text{2}}{{\text{H}}_2}{\text{(g)}} \rightleftharpoons {\text{C}}{{\text{H}}_3}{\text{OH(g)}}\,\,\,\,\,\Delta {H^\Theta } < 0\]</p>
</div>
<div class="specification">
<p class="p1">State and explain the effect of the following changes on the equilibrium position of the reaction in part (c).</p>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Calculate the enthalpy change of combustion of methanol.</p>
<div class="marks">[4]</div>
<div class="question_part_label">a.i.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Using the theoretical value in Table 12 of the Data Booklet, discuss the experimental results, including <strong>one </strong>improvement that could be made.</p>
<div class="marks">[3]</div>
<div class="question_part_label">a.ii.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Methanol can be produced according to the following equation.</p>
<p>\[{\text{CO(g)}} + {\text{2}}{{\text{H}}_2}{\text{(g)}} \to {\text{C}}{{\text{H}}_3}{\text{OH(l)}}\]</p>
<p>Calculate the standard enthalpy change of this reaction using the following data:</p>
<p>\[\begin{array}{*{20}{l}} {{\text{I: 2C}}{{\text{H}}_3}{\text{OH(l)}} + {\text{3}}{{\text{O}}_2}{\text{(g)}} \to {\text{2C}}{{\text{O}}_2}{\text{(g)}} + {\text{4}}{{\text{H}}_{\text{2}}}{\text{O(l)}}}&{\Delta {H^\Theta } = - 1452{\text{ kJ}}\,{\text{mo}}{{\text{l}}^{ - 1}}} \\ {{\text{II: 2CO(g)}} + {{\text{O}}_2}{\text{(g)}} \to {\text{2C}}{{\text{O}}_2}{\text{(g)}}}&{\Delta {H^\Theta } = - 566{\text{ kJ}}\,{\text{mo}}{{\text{l}}^{ - 1}}} \\ {{\text{III: 2}}{{\text{H}}_2}{\text{(g)}} + {{\text{O}}_2}{\text{(g)}} \to {\text{2}}{{\text{H}}_2}{\text{O(l)}}}&{\Delta {H^\Theta } = - 572{\text{ kJ}}\,{\text{mo}}{{\text{l}}^{ - 1}}} \end{array}\]</p>
<div class="marks">[3]</div>
<div class="question_part_label">b.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Outline the characteristics of a chemical equilibrium.</p>
<div class="marks">[2]</div>
<div class="question_part_label">c.i.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Deduce the equilibrium constant expression, \({K_{\text{c}}}\), for this reaction.</p>
<div class="marks">[1]</div>
<div class="question_part_label">c.ii.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Increase in temperature.</p>
<div class="marks">[2]</div>
<div class="question_part_label">d.i.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Increase in pressure.</p>
<div class="marks">[2]</div>
<div class="question_part_label">d.ii.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Addition of a catalyst.</p>
<div class="marks">[2]</div>
<div class="question_part_label">d.iii.</div>
</div>
<br><hr><br><div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Define the term <em>activation energy</em>, \({E_{\text{a}}}\).</p>
<div class="marks">[1]</div>
<div class="question_part_label">a.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">State <strong>two </strong>conditions necessary for a reaction to take place between two reactant particles.</p>
<div class="marks">[2]</div>
<div class="question_part_label">b.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Sketch an enthalpy level diagram to describe the effect of a catalyst on an <em>exothermic </em>reaction.</p>
<div class="marks">[3]</div>
<div class="question_part_label">c.</div>
</div>
<br><hr><br><div class="specification">
<p>Alkenes, such as <strong>A</strong> (shown below), are important intermediates in the petrochemical industry because they undergo addition reactions to produce a wide variety of products, such as the conversion shown below.</p>
<p style="text-align: center;"><img src="images/Schermafbeelding_2016-08-17_om_17.00.19.png" alt="M14/4/CHEMI/SP2/ENG/TZ2/06"></p>
</div>
<div class="specification">
<p>Another way to make <strong>B</strong> is the reaction shown below.</p>
<p><img src="images/Schermafbeelding_2016-08-17_om_17.11.56.png" alt="M14/4/CHEMI/SP2/ENG/TZ2/06.c"></p>
</div>
<div class="specification">
<p><strong>B </strong>can be converted into <strong>C</strong>.</p>
<p style="text-align: center;"><img src="images/Schermafbeelding_2016-08-17_om_17.16.54.png" alt="M14/4/CHEMI/SP2/ENG/TZ2/06.d"></p>
</div>
<div class="specification">
<p>In the gas phase, <strong>A</strong> reacts with hydrogen to form <strong>D</strong>.</p>
<p style="text-align: center;"><img src="images/Schermafbeelding_2016-08-17_om_17.41.44.png" alt="M14/4/CHEMI/SP2/ENG/TZ2/06.g"></p>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Applying IUPAC rules, state the name of <strong>A</strong>.</p>
<div class="marks">[1]</div>
<div class="question_part_label">a.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>State the reagent required to convert <strong>A</strong> into <strong>B</strong>.</p>
<div class="marks">[1]</div>
<div class="question_part_label">b.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>(i) State the conditions required for this reaction to occur.</p>
<p> </p>
<p>(ii) Outline why it would give a poor yield of the desired product.</p>
<div class="marks">[2]</div>
<div class="question_part_label">c.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>(i) State the reagent required.</p>
<p> </p>
<p>(ii) Explain the mechanism of this reaction, using curly arrows to represent the movement of electron pairs.</p>
<div class="marks">[4]</div>
<div class="question_part_label">d.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p><strong>A </strong>can also be converted into <strong>C </strong>without going via <strong>B</strong>. State the reagent and conditions required.</p>
<div class="marks">[2]</div>
<div class="question_part_label">e.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>(i) State why <strong>C </strong>is <strong>not </strong>readily oxidized by acidified potassium dichromate(VI).</p>
<p> </p>
<p> </p>
<p>(ii) Deduce the structural formula of an isomer of <strong>C </strong>that could be oxidized to a carboxylic acid by this reagent.</p>
<div class="marks">[2]</div>
<div class="question_part_label">f.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>State the conditions required for this reaction to occur.</p>
<div class="marks">[1]</div>
<div class="question_part_label">g.i.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>State the homologous series to which <strong>D</strong> belongs.</p>
<div class="marks">[1]</div>
<div class="question_part_label">g.ii.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Determine the enthalpy change, in \({\text{kJ}}\,{\text{mo}}{{\text{l}}^{ - 1}}\), for the reaction of <strong>A</strong> with hydrogen, using Table 10 of the Data Booklet, and state whether the reaction is exothermic or endothermic.</p>
<div class="marks">[4]</div>
<div class="question_part_label">g.iii.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>The standard enthalpy change of combustion of <strong>A</strong> is \( - 4000{\text{ kJ}}\,{\text{mo}}{{\text{l}}^{ - 1}}\). Calculate the amount of <strong>A</strong>, in mol, that would have to be burned to raise the temperature of \({\text{1 d}}{{\text{m}}^{\text{3}}}\) of water from 20 °C to 100 °C.</p>
<div class="marks">[2]</div>
<div class="question_part_label">g.iv.</div>
</div>
<br><hr><br><div class="specification">
<p class="p1">Two groups of students (Group A and Group B) carried out a project* on the chemistry of some group 7 elements (the halogens) and their compounds.</p>
<p class="p1"> </p>
<p class="p1"><span class="s1"><em>* </em></span><em>Adapted from J Derek Woollins, (2009), Inorganic Experiments and Open University, (2008), Exploring the Molecular World.</em></p>
</div>
<div class="specification">
<p class="p1">In the first part of the project, the two groups had a sample of iodine monochloride (a corrosive brown liquid) prepared for them by their teacher using the following reaction.</p>
<p class="p1">\[{{\text{I}}_{\text{2}}}{\text{(s)}} + {\text{C}}{{\text{l}}_{\text{2}}}{\text{(g)}} \to {\text{2ICl(l)}}\]</p>
<p class="p1">The following data were recorded.</p>
<p class="p1" style="text-align: center;"><img src="images/Schermafbeelding_2016-09-23_om_06.15.25.png" alt="N12/4/CHEMI/SP2/ENG/TZ0/01.a"></p>
</div>
<div class="specification">
<p class="p1">The students reacted ICl(l) with CsBr(s) to form a yellow solid, \({\text{CsIC}}{{\text{l}}_{\text{2}}}{\text{(s)}}\), as one of the products. \({\text{CsIC}}{{\text{l}}_{\text{2}}}{\text{(s)}}\) has been found to produce very pure CsCl(s) which is used in cancer treatment.</p>
<p class="p1">To confirm the composition of the yellow solid, Group A determined the amount of iodine in 0.2015 g of \({\text{CsIC}}{{\text{l}}_{\text{2}}}{\text{(s)}}\) by titrating it with \({\text{0.0500 mol}}\,{\text{d}}{{\text{m}}^{ - 3}}{\text{ N}}{{\text{a}}_{\text{2}}}{{\text{S}}_{\text{2}}}{{\text{O}}_{\text{3}}}{\text{(aq)}}\). The following data were recorded for the titration.</p>
<p class="p1" style="text-align: center;"><img src="images/Schermafbeelding_2016-09-23_om_06.22.04.png" alt="N12/4/CHEMI/SP2/ENG/TZ0/01.c"></p>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">(i) <span class="Apple-converted-space"> </span>State the number of significant figures for the masses of \({{\text{I}}_{\text{2}}}{\text{(s)}}\) and ICl(l).</p>
<p class="p2"> </p>
<p class="p1">\({{\text{I}}_{\text{2}}}{\text{(s)}}\):</p>
<p class="p2"> </p>
<p class="p1">ICl (l):</p>
<p class="p2"> </p>
<p class="p1">(ii) <span class="Apple-converted-space"> </span>The iodine used in the reaction was in excess. Determine the theoretical yield, in g, of ICl(l).</p>
<p class="p1">(iii) <span class="Apple-converted-space"> </span>Calculate the percentage yield of ICl(l).</p>
<p class="p1">(iv) <span class="Apple-converted-space"> </span>Using a digital thermometer, the students discovered that the reaction was exothermic. State the sign of the enthalpy change of the reaction, \(\Delta H\).</p>
<div class="marks">[6]</div>
<div class="question_part_label">a.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Although the molar masses of ICl and <span class="s1">\({\rm{B}}{{\rm{r}}_2}\) </span>are very similar, the boiling point of ICl is 97.4 °C and that of <span class="s1">\({\rm{B}}{{\rm{r}}_2}\) </span>is 58.8 °C. Explain the difference in these boiling points in terms of the intermolecular forces present in each liquid.</p>
<div class="marks">[2]</div>
<div class="question_part_label">b.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">(i) <span class="Apple-converted-space"> </span>Calculate the percentage of iodine by mass in \({\text{CsIC}}{{\text{l}}_{\text{2}}}{\text{(s)}}\), correct to <strong>three</strong> significant figures.</p>
<p class="p1">(ii) <span class="Apple-converted-space"> </span>State the volume, in \({\text{c}}{{\text{m}}^{\text{3}}}\), of \({\text{0.0500 mol}}\,{\text{d}}{{\text{m}}^{ - 3}}{\text{ N}}{{\text{a}}_{\text{2}}}{{\text{S}}_{\text{2}}}{{\text{O}}_{\text{3}}}{\text{(aq)}}\) used in the titration.</p>
<p class="p1">(iii) <span class="Apple-converted-space"> </span>Determine the amount, in mol, of \({\text{0.0500 mol}}\,{\text{d}}{{\text{m}}^{ - 3}}{\text{ N}}{{\text{a}}_{\text{2}}}{{\text{S}}_{\text{2}}}{{\text{O}}_{\text{3}}}{\text{(aq)}}\) added in the titration.</p>
<p class="p1">(iv) <span class="Apple-converted-space"> </span>The overall reaction taking place during the titration is:</p>
<p class="p1">\[{\text{CsICl(s)}} + {\text{2N}}{{\text{a}}_2}{{\text{S}}_2}{{\text{O}}_3}{\text{(aq)}} \to {\text{NaCl(aq)}} + {\text{N}}{{\text{a}}_2}{{\text{S}}_4}{{\text{O}}_6}{\text{(aq)}} + {\text{CsCl(aq)}} + {\text{NaI(aq)}}\]</p>
<p class="p1">Calculate the amount, in mol, of iodine atoms, I, present in the sample of \({\text{CsIC}}{{\text{l}}_{\text{2}}}{\text{(s)}}\).</p>
<p class="p1">(v) <span class="Apple-converted-space"> </span>Calculate the mass of iodine, in g, present in the sample of \({\text{CsIC}}{{\text{l}}_{\text{2}}}\)</p>
<p class="p1">(vi) <span class="Apple-converted-space"> </span>Determine the percentage by mass of iodine in the sample of \({\text{CsIC}}{{\text{l}}_{\text{2}}}{\text{(s)}}\), correct to <strong>three </strong>significant figures, using your answer from (v).</p>
<div class="marks">[6]</div>
<div class="question_part_label">c.</div>
</div>
<br><hr><br><div class="specification">
<p class="p1">Chlorine occurs in Group 7, the halogens.</p>
</div>
<div class="specification">
<p class="p1">Two stable isotopes of chlorine are \(^{{\text{35}}}{\text{Cl}}\) and \(^{{\text{37}}}{\text{Cl}}\) with mass numbers 35 and 37 respectively.</p>
</div>
<div class="specification">
<p class="p1">Chlorine has an electronegativity value of 3.2 on the Pauling scale.</p>
</div>
<div class="specification">
<p class="p1">Chloroethene, H<sub><span class="s1">2</span></sub>C=CHCl, the monomer used in the polymerization reaction in the manufacture of the polymer poly(chloroethene), PVC, can be synthesized in the following two-stage reaction pathway.</p>
<p class="p1">\[\begin{array}{*{20}{l}} {{\text{Stage 1:}}}&{{{\text{C}}_2}{{\text{H}}_4}{\text{(g)}} + {\text{C}}{{\text{l}}_2}{\text{(g)}} \to {\text{ClC}}{{\text{H}}_2}{\text{C}}{{\text{H}}_2}{\text{Cl(g)}}} \\ {{\text{Stage 2:}}}&{{\text{ClC}}{{\text{H}}_2}{\text{C}}{{\text{H}}_2}{\text{Cl(g)}} + {\text{HC=CHCl(g)}} + {\text{HCl(g)}}} \end{array}\]</p>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Define the term <em>isotopes of an element</em>.</p>
<div class="marks">[2]</div>
<div class="question_part_label">a.i.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Calculate the number of protons, neutrons and electrons in the isotopes <sup><span class="s1">35</span></sup>Cl and <sup><span class="s1">37</span></sup>Cl.</p>
<p class="p1"><img src="images/Schermafbeelding_2016-09-19_om_06.41.13.png" alt="M13/4/CHEMI/SP2/ENG/TZ2/06.a.ii"></p>
<div class="marks">[2]</div>
<div class="question_part_label">a.ii.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Using the mass numbers of the two isotopes and the relative atomic mass of chlorine from Table 5 of the Data Booklet, determine the percentage abundance of each isotope.</p>
<p class="p2"> </p>
<p class="p2"> </p>
<p class="p2"> </p>
<p class="p2"> </p>
<p class="p1">Percentage abundance <sup><span class="s1">35</span></sup>Cl:</p>
<p class="p2"> </p>
<p class="p1">Percentage abundance <sup><span class="s1">37</span></sup>Cl:</p>
<div class="marks">[2]</div>
<div class="question_part_label">a.iii.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Define the term <em>electronegativity</em>.</p>
<div class="marks">[1]</div>
<div class="question_part_label">b.i.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Using Table 7 of the Data Booklet, explain the trends in electronegativity values of the Group 7 elements from F to I.</p>
<div class="marks">[2]</div>
<div class="question_part_label">b.ii.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">State the balanced chemical equation for the reaction of potassium bromide, KBr(aq), with chlorine, Cl<sub><span class="s1">2</span></sub>(aq).</p>
<div class="marks">[1]</div>
<div class="question_part_label">b.iii.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Describe the colour change likely to be observed in this reaction.</p>
<div class="marks">[1]</div>
<div class="question_part_label">b.iv.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Determine the enthalpy change, \(\Delta H\), in \({\text{kJ}}\,{\text{mo}}{{\text{l}}^{ - 1}}\), for stage 1 using average bond enthalpy data from Table 10 of the Data Booklet.</p>
<div class="marks">[3]</div>
<div class="question_part_label">c.ii.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">State whether the reaction given in stage 1 is exothermic or endothermic.</p>
<div class="marks">[1]</div>
<div class="question_part_label">c.iii.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Draw the structure of poly(chloroethene) showing <strong>two </strong>repeating units.</p>
<div class="marks">[1]</div>
<div class="question_part_label">c.iv.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Suggest why monomers are often gases or volatile liquids whereas polymers are solids.</p>
<div class="marks">[2]</div>
<div class="question_part_label">c.v.</div>
</div>
<br><hr><br><div class="specification">
<p>Consider the following list of organic compounds.</p>
<p> Compound 1: \({\text{C}}{{\text{H}}_{\text{3}}}{\text{C}}{{\text{H}}_{\text{2}}}{\text{CH(OH)C}}{{\text{H}}_{\text{3}}}\)</p>
<p> Compound 2: \({\text{C}}{{\text{H}}_{\text{3}}}{\text{C}}{{\text{H}}_{\text{2}}}{\text{COC}}{{\text{H}}_{\text{3}}}\)</p>
<p> Compound 3: \({\text{C}}{{\text{H}}_{\text{3}}}{\text{C}}{{\text{H}}_{\text{2}}}{\text{C}}{{\text{H}}_{\text{2}}}{\text{OH}}\)</p>
<p> Compound 4: \({\text{C}}{{\text{H}}_{\text{3}}}{\text{C}}{{\text{H}}_{\text{2}}}{\text{C}}{{\text{H}}_{\text{2}}}{\text{CHO}}\)</p>
</div>
<div class="specification">
<p>Hydrochloric acid neutralizes sodium hydroxide, forming sodium chloride and water.</p>
<p style="text-align: center;">\({\text{NaOH(aq)}} + {\text{HCl(aq)}} \to {\text{NaCl(aq)}} + {{\text{H}}_{\text{2}}}{\text{O(l)}}\) \(\Delta {H^\Theta } = -57.9{\text{ kJ}}\,{\text{mo}}{{\text{l}}^{ - 1}}\)</p>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Apply IUPAC rules to state the name of compound 1.</p>
<div class="marks">[1]</div>
<div class="question_part_label">a.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>(i) Define the term <em>structural isomers</em>.</p>
<p> </p>
<p> </p>
<p>(ii) Identify the two compounds in the list that are structural isomers of each other.</p>
<div class="marks">[2]</div>
<div class="question_part_label">b.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Determine the organic product formed when each of the compounds is heated under reflux with excess acidified potassium dichromate(VI). If no reaction occurs write NO REACTION in the table.</p>
<p style="text-align: center;"><img src="images/Schermafbeelding_2016-08-23_om_08.41.32.png" alt="N14/4/CHEMI/SP2/ENG/TZ0/07.c"></p>
<div class="marks">[4]</div>
<div class="question_part_label">c.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Explain the mechanism for the substitution reaction of bromoethane with sodium hydroxide. Use curly arrows to represent the movement of electron pairs.</p>
<div class="marks">[4]</div>
<div class="question_part_label">d.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>(i) Define the term <em>standard enthalpy change of reaction</em>, \(\Delta {H^\Theta }\).</p>
<p> </p>
<p> </p>
<p> </p>
<p>(ii) Determine the amount of energy released, in kJ, when \({\text{50.0 c}}{{\text{m}}^{\text{3}}}\) of \({\text{1.00 mol}}\,{\text{d}}{{\text{m}}^{ - 3}}\) sodium hydroxide solution reacts with \({\text{50.0 c}}{{\text{m}}^{\text{3}}}\) of \({\text{1.00 mol}}\,{\text{d}}{{\text{m}}^{ - 3}}\) hydrochloric acid solution.</p>
<p> </p>
<p> </p>
<p> </p>
<p> </p>
<p>(iii) In an experiment, 2.50 g of solid sodium hydroxide was dissolved in \({\text{50.0 c}}{{\text{m}}^{\text{3}}}\) of water. The temperature rose by 13.3 °C. Calculate the standard enthalpy change, in \({\text{kJ}}\,{\text{mo}}{{\text{l}}^{ - 1}}\), for dissolving one mole of solid sodium hydroxide in water.</p>
<p>\[{\text{NaOH(s)}} \to {\text{NaOH(aq)}}\]</p>
<p>(iv) Using relevant data from previous question parts, determine \(\Delta {H^\Theta }\), in \({\text{kJ}}\,{\text{mo}}{{\text{l}}^{ - 1}}\), for the reaction of solid sodium hydroxide with hydrochloric acid.</p>
<p>\[{\text{NaOH(s)}} + {\text{HCl(aq)}} \to {\text{NaCl(aq)}} + {{\text{H}}_{\text{2}}}{\text{O(l)}}\]</p>
<div class="marks">[9]</div>
<div class="question_part_label">e.</div>
</div>
<br><hr><br><div class="specification">
<p>0.100 g of magnesium ribbon is added to \({\text{50.0 c}}{{\text{m}}^{\text{3}}}\) of \({\text{1.00 mol}}\,{\text{d}}{{\text{m}}^{ - 3}}\) sulfuric acid to produce hydrogen gas and magnesium sulfate.</p>
<p>\[{\text{Mg(s)}} + {{\text{H}}_2}{\text{S}}{{\text{O}}_4}{\text{(aq)}} \to {{\text{H}}_2}{\text{(g)}} + {\text{MgS}}{{\text{O}}_4}{\text{(aq)}}\]</p>
</div>
<div class="specification">
<p>Magnesium sulfate can exist in either the hydrated form or in the anhydrous form. Two students wished to determine the enthalpy of hydration of anhydrous magnesium sulfate. They measured the initial and the highest temperature reached when anhydrous magnesium sulfate, \({\text{MgS}}{{\text{O}}_{\text{4}}}{\text{(s)}}\), was dissolved in water. They presented their results in the following table.</p>
<p style="text-align: center;"><img src="images/Schermafbeelding_2016-08-16_om_10.27.16.png" alt="M14/4/CHEMI/SP2/ENG/TZ1/01.0b"></p>
</div>
<div class="specification">
<p>The students repeated the experiment using 6.16 g of solid hydrated magnesium sulfate, \({\text{MgS}}{{\text{O}}_{\text{4}}} \bullet {\text{7}}{{\text{H}}_{\text{2}}}{\text{O(s)}}\), and \({\text{50.0 c}}{{\text{m}}^{\text{3}}}\) of water. They found the enthalpy change, \(\Delta {H_2}\), to be \( + 18{\text{ kJ}}\,{\text{mo}}{{\text{l}}^{ - 1}}\).</p>
<p>The enthalpy of hydration of solid anhydrous magnesium sulfate is difficult to determine experimentally, but can be determined using the diagram below.</p>
<p style="text-align: center;"><img src="images/Schermafbeelding_2016-08-16_om_11.08.23.png" alt="M14/4/CHEMI/SP2/ENG/TZ1/01.c"></p>
</div>
<div class="specification">
<p>Magnesium sulfate is one of the products formed when acid rain reacts with dolomitic limestone. This limestone is a mixture of magnesium carbonate and calcium carbonate.</p>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>(i) The graph shows the volume of hydrogen produced against time under these experimental conditions.</p>
<p style="text-align: center;"><img src="images/Schermafbeelding_2016-08-16_om_10.18.50.png" alt="M14/4/CHEMI/SP2/ENG/TZ1/01.a"></p>
<p>Sketch two curves, labelled <strong>I</strong> and <strong>II</strong>, to show how the volume of hydrogen produced (under the same temperature and pressure) changes with time when:</p>
<p>I. using the same mass of magnesium powder instead of a piece of magnesium ribbon;</p>
<p>II. 0.100 g of magnesium ribbon is added to \({\text{50 c}}{{\text{m}}^{\text{3}}}\) of \({\text{0.500 mol}}\,{\text{d}}{{\text{m}}^{ - 3}}\) sulfuric acid.</p>
<p>(ii) Outline why it is better to measure the volume of hydrogen produced against time rather than the loss of mass of reactants against time.</p>
<div class="marks">[3]</div>
<div class="question_part_label">a.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>(i) Calculate the amount, in mol, of anhydrous magnesium sulfate.</p>
<p> </p>
<p> </p>
<p>(ii) Calculate the enthalpy change, \(\Delta {H_1}\), for anhydrous magnesium sulfate dissolving in water, in \({\text{kJ}}\,{\text{mo}}{{\text{l}}^{ - 1}}\). State your answer to the correct number of significant figures.</p>
<div class="marks">[3]</div>
<div class="question_part_label">b.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>(i) Determine the enthalpy change, \(\Delta H\), in \({\text{kJ}}\,{\text{mo}}{{\text{l}}^{ - 1}}\), for the hydration of solid anhydrous magnesium sulfate, \({\text{MgS}}{{\text{O}}_{\text{4}}}\).</p>
<p> </p>
<p> </p>
<p>(ii) The literature value for the enthalpy of hydration of anhydrous magnesium sulfate is \( - 103{\text{ kJ}}\,{\text{mo}}{{\text{l}}^{ - 1}}\). Calculate the percentage difference between the literature value and the value determined from experimental results, giving your answer to <strong>one</strong> decimal place. (If you did not obtain an answer for the experimental value in (c)(i) then use the value of \( - 100{\text{ kJ}}\,{\text{mo}}{{\text{l}}^{ - 1}}\), but this is <strong>not</strong> the correct value.)</p>
<div class="marks">[2]</div>
<div class="question_part_label">c.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Another group of students experimentally determined an enthalpy of hydration of \( - 95{\text{ kJ}}\,{\text{mo}}{{\text{l}}^{ - 1}}\). Outline two reasons which may explain the variation between the experimental and literature values.</p>
<div class="marks">[2]</div>
<div class="question_part_label">d.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>(i) State the equation for the reaction of sulfuric acid with magnesium carbonate.</p>
<p> </p>
<p> </p>
<p>(ii) Deduce the Lewis (electron dot) structure of the carbonate ion, giving the shape and the oxygen-carbon-oxygen bond angle.</p>
<p> </p>
<p>Lewis (electron dot) structure:</p>
<p> </p>
<p>Shape:</p>
<p> </p>
<p>Bond angle:</p>
<div class="marks">[[N/A]]</div>
<div class="question_part_label">e.</div>
</div>
<br><hr><br><div class="specification">
<p>Ethanol has many industrial uses.</p>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>(i) State an equation for the formation of ethanol from ethene and the necessary reaction conditions.</p>
<p> </p>
<p>Equation:</p>
<p> </p>
<p>Conditions:</p>
<p> </p>
<p> </p>
<p>(ii) Deduce the volume of ethanol, in dm<sup>3</sup>, produced from \({\text{1.5 d}}{{\text{m}}^{\text{3}}}\) of ethene, assuming both are gaseous and at the same temperature and pressure.</p>
<div class="marks">[4]</div>
<div class="question_part_label">a.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Define the term <em>average bond enthalpy</em>.</p>
<div class="marks">[2]</div>
<div class="question_part_label">b.i.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Ethanol can be used as a fuel. Determine the enthalpy of combustion of ethanol at 298 K, in \({\text{kJ}}\,{\text{mo}}{{\text{l}}^{ - 1}}\), using the values in table 10 of the data booklet, assuming all reactants and products are gaseous.</p>
<div class="marks">[4]</div>
<div class="question_part_label">b.ii.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Suggest why the value of the enthalpy of combustion of ethanol quoted in table 12 of the data booklet is different to that calculated using bond enthalpies.</p>
<div class="marks">[1]</div>
<div class="question_part_label">b.iii.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Explain why the reaction is exothermic in terms of the bonds involved.</p>
<div class="marks">[1]</div>
<div class="question_part_label">b.iv.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Identify the homologous series to which ethanol belongs and state <strong>two </strong>features of a homologous series.</p>
<div class="marks">[3]</div>
<div class="question_part_label">c.</div>
</div>
<br><hr><br><div class="specification">
<p class="p1">Ethene, C<sub><span class="s1">2</span></sub>H<sub><span class="s1">4</span></sub>, and hydrazine, N<sub><span class="s1">2</span></sub>H<sub><span class="s1">4</span></sub>, are hydrides of adjacent elements in the periodic table.</p>
</div>
<div class="specification">
<p class="p1">The polarity of a molecule can be explained in terms of electronegativity.</p>
</div>
<div class="specification">
<p class="p1">The reaction between N<sub><span class="s1">2</span></sub>H<sub><span class="s1">4</span></sub>(aq) and HCl (aq) can be represented by the following equation.</p>
<p class="p1">\[{{\text{N}}_2}{{\text{H}}_4}({\text{aq)}} + 2{\text{HCl(aq)}} \to {{\text{N}}_2}{\text{H}}_6^{2 + }({\text{aq)}} + 2{\text{C}}{{\text{l}}^ - }({\text{aq)}}\]</p>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">(i) <span class="Apple-converted-space"> </span>Draw Lewis (electron dot) structures for \({{\text{C}}_{\text{2}}}{{\text{H}}_{\text{4}}}\) and \({{\text{N}}_{\text{2}}}{{\text{H}}_{\text{4}}}\) showing all valence electrons.</p>
<p class="p1">(ii) <span class="Apple-converted-space"> </span>State and explain the H–C–H bond angle in ethene and the H–N–H bond angle in hydrazine.</p>
<div class="marks">[7]</div>
<div class="question_part_label">a.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">(i) <span class="Apple-converted-space"> </span>Define the term <em>electronegativity</em>.</p>
<p class="p1">(ii) <span class="Apple-converted-space"> </span>Compare the relative polarities of the C–H bond in ethene and the N–H bond in hydrazine.</p>
<p class="p1">(iii) <span class="Apple-converted-space"> </span>Hydrazine is a polar molecule and ethene is non-polar. Explain why ethene is non-polar.</p>
<div class="marks">[4]</div>
<div class="question_part_label">b.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">The boiling point of hydrazine is much higher than that of ethene. Explain this difference in terms of the intermolecular forces in each compound.</p>
<div class="marks">[2]</div>
<div class="question_part_label">c.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Hydrazine is a valuable rocket fuel.</p>
<p class="p1">The equation for the reaction between hydrazine and oxygen is given below.</p>
<p class="p2">\[{{\text{N}}_2}{{\text{H}}_4}({\text{g)}} + {{\text{O}}_2}({\text{g)}} \to {{\text{N}}_2}({\text{g)}} + 2{{\text{H}}_2}{\text{O(g)}}\]</p>
<p class="p1">Use the bond enthalpy values from Table 10 of the Data Booklet to determine the enthalpy change for this reaction.</p>
<div class="marks">[3]</div>
<div class="question_part_label">d.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">State the name of the product and identify the type of reaction which occurs between ethene and hydrogen chloride.</p>
<div class="marks">[2]</div>
<div class="question_part_label">e.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">(i) <span class="Apple-converted-space"> </span>Identify the type of reaction that occurs.</p>
<p class="p1">(ii) <span class="Apple-converted-space"> </span>Predict the value of the H–N–H bond angle in \({{\text{N}}_{\text{2}}}{\text{H}}_6^{2 + }\).</p>
<div class="marks">[2]</div>
<div class="question_part_label">f.</div>
</div>
<br><hr><br><div class="specification">
<p class="p1">In an experiment to measure the enthalpy change of combustion of ethanol, a student heated a copper calorimeter containing 100 cm<sup><span class="s1">3 </span></sup>of water with a spirit lamp and collected the following data.</p>
<p class="p1">\[\begin{array}{*{20}{l}} {{\text{Initial temperature of water:}}}&{{\text{20.0 }}^\circ {\text{C}}} \\ {{\text{Final temperature of water:}}}&{{\text{55.0 }}^\circ {\text{C}}} \\ {{\text{Mass of ethanol burned:}}}&{{\text{1.78 g}}} \\ {{\text{Density of water:}}}&{{\text{1.00 g}}\,{\text{c}}{{\text{m}}^{ - 3}}} \end{array}\]</p>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">(i) Use the data to calculate the heat evolved when the ethanol was combusted.</p>
<p class="p1">(ii) Calculate the enthalpy change of combustion per mole of ethanol.</p>
<p class="p1">(iii) Suggest two reasons why the result is not the same as the value in the Data Booklet.</p>
<div class="marks">[6]</div>
<div class="question_part_label">a.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Ethanol is part of the homologous series of alcohols. Describe <strong>two </strong>features of a homologous series.</p>
<div class="marks">[2]</div>
<div class="question_part_label">b.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">(i) Below are <strong>four structural </strong>isomers of alcohols with molecular formula \({{\text{C}}_{\text{4}}}{{\text{H}}_{{\text{10}}}}{\text{O}}\). State the name of each of the isomers <strong>a</strong>, <strong>b</strong>, <strong>c </strong>and <strong>D</strong>.</p>
<p class="p1" style="text-align: center;"><img src="images/Schermafbeelding_2016-10-07_om_09.52.00.png" alt="M10/4/CHEMI/SP2/ENG/TZ1/06.d"></p>
<p class="p1">(ii) <span class="Apple-converted-space"> </span>Determine the isomer that cannot be oxidized by acidifi ed potassium dichromate(VI), \({{\text{K}}_{\text{2}}}{\text{C}}{{\text{r}}_{\text{2}}}{{\text{O}}_{\text{7}}}\).</p>
<p class="p1">(iii) <span class="Apple-converted-space"> </span>Determine the isomer which can be oxidized to butanal.</p>
<p class="p1">(iv) <span class="Apple-converted-space"> </span>Determine the isomer which can be oxidized to butanone.</p>
<p class="p1">(v) <span class="Apple-converted-space"> </span>Suggest the structural formula of another isomer of \({{\text{C}}_{\text{4}}}{{\text{H}}_{{\text{10}}}}{\text{O}}\).</p>
<div class="marks">[8]</div>
<div class="question_part_label">c.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1" style="text-align: center;"><img src="images/Schermafbeelding_2016-10-07_om_09.52.00.png" alt="M10/4/CHEMI/SP2/ENG/TZ1/06.d"></p>
<p class="p1">(i) Isomer <strong>a </strong>is formed by reacting 1-bromobutane with aqueous sodium hydroxide. State whether the reaction would proceed via an S<sub><span class="s1">N</span></sub>1 or S<sub><span class="s1">N</span></sub>2 mechanism.</p>
<p class="p1">(ii) Explain the mechanism named in part (d) (i) using curly arrows to represent the movement of electron pairs.</p>
<div class="marks">[4]</div>
<div class="question_part_label">d.</div>
</div>
<br><hr><br><div class="specification">
<p>Some reactions of but-2-ene are given below.</p>
<p style="text-align: center;"><img src="images/Schermafbeelding_2016-08-10_om_09.21.33.png" alt="M15/4/CHEMI/SP2/ENG/TZ2/07"></p>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Deduce the full structural formula of compound <strong>A</strong>.</p>
<div class="marks">[1]</div>
<div class="question_part_label">a.i.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Apply IUPAC rules to name compound <strong>A</strong>.</p>
<div class="marks">[1]</div>
<div class="question_part_label">a.ii.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Describe the colour change observed when excess but-2-ene reacts with bromine to form compound <strong>A</strong>.</p>
<div class="marks">[1]</div>
<div class="question_part_label">a.iii.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>State the names of the reagents <strong>D </strong>and <strong>E</strong>.</p>
<div class="marks">[2]</div>
<div class="question_part_label">b.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>(i) Outline <strong>two </strong>reasons why the polymerization of alkenes is of economic importance.</p>
<p> </p>
<p> </p>
<p> </p>
<p> </p>
<p>(ii) Identify the structure of the repeating unit of poly(but-2-ene).</p>
<div class="marks">[3]</div>
<div class="question_part_label">c.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Compound <strong>C</strong>, \({{\text{C}}_{\text{4}}}{{\text{H}}_{\text{9}}}{\text{OH}}\), can also be formed directly from compound <strong>B</strong>, \({\text{C}}{{\text{H}}_{\text{3}}}{\text{CHBrC}}{{\text{H}}_{\text{2}}}{\text{C}}{{\text{H}}_{\text{3}}}\).</p>
<p>(i) State the reagent and the conditions required for this reaction.</p>
<p> </p>
<p> </p>
<p>(ii) State the name of the type of reaction occurring in this conversion.</p>
<div class="marks">[2]</div>
<div class="question_part_label">d.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Compound <strong>C </strong>can be oxidized by acidified potassium dichromate(VI) to form compound <strong>F</strong>.</p>
<p>(i) State the name of the functional group present in compound <strong>F</strong>.</p>
<p> </p>
<p>(ii) Deduce the structural formula of an alcohol which is a structural isomer of compound <strong>C </strong>and <strong>cannot </strong>be oxidized by acidified potassium dichromate(VI).</p>
<div class="marks">[2]</div>
<div class="question_part_label">e.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Explain why but-2-ene is more volatile than compound <strong>C</strong>, \({{\text{C}}_{\text{4}}}{{\text{H}}_{\text{9}}}{\text{OH}}\).</p>
<div class="marks">[2]</div>
<div class="question_part_label">f.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Define the term <em>average bond enthalpy</em>.</p>
<div class="marks">[2]</div>
<div class="question_part_label">g.i.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Deduce the equation for the complete combustion of compound <strong>C</strong>.</p>
<div class="marks">[1]</div>
<div class="question_part_label">g.ii.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Determine the enthalpy change, \(\Delta H\), in \({\text{kJ}}\,{\text{mo}}{{\text{l}}^{ - 1}}\), for the complete combustion of compound <strong>C </strong>when all reactants and products are in the gaseous state, using table 10 of the data booklet.</p>
<div class="marks">[3]</div>
<div class="question_part_label">g.iii.</div>
</div>
<br><hr><br><div class="specification">
<p>A student carried out an experiment to determine the concentration of a hydrochloric acid solution and the enthalpy change of the reaction between aqueous sodium hydroxide and this acid by thermometric titration.</p>
<p>She added \({\text{5.0 c}}{{\text{m}}^{\text{3}}}\) portions of hydrochloric acid to \({\text{25.0 c}}{{\text{m}}^{\text{3}}}\) of \({\text{1.00 mol}}\,{\text{d}}{{\text{m}}^{ - 3}}\) sodium hydroxide solution in a glass beaker until the total volume of acid added was \({\text{50.0 c}}{{\text{m}}^{\text{3}}}\), measuring the temperature of the mixture each time. Her results are plotted in the graph below.</p>
<p style="text-align: center;"><img src="images/Schermafbeelding_2016-08-09_om_18.48.41_1.png" alt="M15/4/CHEMI/SP2/ENG/TZ2/01"></p>
<p>The initial temperature of both solutions was the same.</p>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>By drawing appropriate lines, determine the volume of hydrochloric acid required to completely neutralize the \({\text{25.0 c}}{{\text{m}}^{\text{3}}}\) of sodium hydroxide solution.</p>
<div class="marks">[2]</div>
<div class="question_part_label">a.i.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Determine the concentration of the hydrochloric acid, including units.</p>
<div class="marks">[2]</div>
<div class="question_part_label">a.ii.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Determine the change in temperature, \(\Delta T\).</p>
<div class="marks">[1]</div>
<div class="question_part_label">b.i.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Calculate the enthalpy change, in \({\text{kJ}}\,{\text{mo}}{{\text{l}}^{ - 1}}\), for the reaction of hydrochloric acid and sodium hydroxide solution.</p>
<div class="marks">[3]</div>
<div class="question_part_label">b.ii.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>The accepted theoretical value from the literature of this enthalpy change is \( - 58{\text{ kJ}}\,{\text{mo}}{{\text{l}}^{ - 1}}\). Calculate the percentage error correct to <strong>two </strong>significant figures.</p>
<div class="marks">[1]</div>
<div class="question_part_label">b.iii.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Suggest the major source of error in the experimental procedure <strong>and </strong>an improvement that could be made to reduce it.</p>
<div class="marks">[2]</div>
<div class="question_part_label">b.iv.</div>
</div>
<br><hr><br><div class="question">
<p class="p1">The standard enthalpy change of three combustion reactions is given below in kJ.</p>
<p class="p2">\[\begin{array}{*{20}{l}} {{\text{2}}{{\text{C}}_{\text{2}}}{{\text{H}}_{\text{6}}}{\text{(g)}} + {\text{7}}{{\text{O}}_{\text{2}}}{\text{(g)}} \to {\text{4C}}{{\text{O}}_{\text{2}}}{\text{(g)}} + {\text{6}}{{\text{H}}_{\text{2}}}{\text{O(l)}}}&{\Delta {H^\Theta } = - 3120} \\ {{\text{2}}{{\text{H}}_2}({\text{g)}} + {{\text{O}}_2}{\text{(g)}} \to {\text{2}}{{\text{H}}_2}{\text{O(l)}}}&{\Delta {H^\Theta } = - 572} \\ {{{\text{C}}_2}{{\text{H}}_4}({\text{g)}} + {\text{3}}{{\text{O}}_2}{\text{(g)}} \to {\text{2C}}{{\text{O}}_2}{\text{(g)}} + 2{{\text{H}}_2}{\text{O(l)}}}&{\Delta {H^\Theta } = - 1411} \end{array}\]</p>
<p class="p1">Based on the above information, calculate the standard change in enthalpy, \({\Delta {H^\Theta }}\), for the following reaction.</p>
<p class="p1">\[{{\text{C}}_2}{{\text{H}}_6}({\text{g)}} \to {{\text{C}}_2}{{\text{H}}_4}({\text{g)}} + {{\text{H}}_2}{\text{(g)}}\]</p>
</div>
<br><hr><br><div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>The standard enthalpy change of three combustion reactions are given below.</p>
<p>\[\begin{array}{*{20}{l}} {{{\text{H}}_2}{\text{(g)}} + \frac{1}{2}{{\text{O}}_2}{\text{(g)}} \to {{\text{H}}_2}{\text{O(l)}}}&{\Delta H = - 286{\text{ kJ}}\,{\text{mo}}{{\text{l}}^{ - 1}}} \\ {{{\text{C}}_3}{{\text{H}}_8}{\text{(g)}} + {\text{5}}{{\text{O}}_2}{\text{(g)}} \to {\text{3C}}{{\text{O}}_2}{\text{(g)}} + {\text{4}}{{\text{H}}_2}{\text{O(l)}}}&{\Delta H = - 2219{\text{ kJ}}\,{\text{mo}}{{\text{l}}^{ - 1}}} \\ {{\text{C(s)}} + {{\text{O}}_2}{\text{(g)}} \to {\text{C}}{{\text{O}}_2}{\text{(g)}}}&{\Delta H = - 394{\text{ kJ}}\,{\text{mo}}{{\text{l}}^{ - 1}}} \end{array}\]</p>
<p>Determine the change in enthalpy, \(\Delta H\), in \({\text{kJ}}\,{\text{mo}}{{\text{l}}^{ - 1}}\), for the formation of propane in the following reaction.</p>
<p>\({\text{3C(s)}} + {\text{4}}{{\text{H}}_2}{\text{(g)}} \to {{\text{C}}_3}{{\text{H}}_8}{\text{(g)}}\)</p>
<div class="marks">[4]</div>
<div class="question_part_label">a.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">A catalyst provides an alternative pathway for a reaction, lowering the activation energy, \({E_{\text{a}}}\). Define the term <em>activation energy</em>, \({E_{\text{a}}}\).</p>
<div class="marks">[1]</div>
<div class="question_part_label">b.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p class="p1">Sketch <strong>two </strong>Maxwell–Boltzmann energy distribution curves for a fixed amount of gas at two different temperatures, \({T_{\text{1}}}\) and \({T_2}{\text{ }}({T_2} > {T_1})\) and label <strong>both </strong>axes.</p>
<p class="p1" style="text-align: center;"><img src="images/Schermafbeelding_2016-09-19_om_05.17.47.png" alt="M13/4/CHEMI/SP2/ENG/TZ2/02.c"></p>
<div class="marks">[3]</div>
<div class="question_part_label">c.</div>
</div>
<br><hr><br><div class="specification">
<p>Two hydrides of nitrogen are ammonia and hydrazine, N<sub>2</sub>H<sub>4</sub>. One derivative of ammonia is methanamine whose molecular structure is shown below.</p>
<p style="text-align: center;"><img src="images/Schermafbeelding_2017-09-22_om_18.03.06.png" alt="M17/4/CHEMI/SP2/ENG/TZ1/04"></p>
</div>
<div class="specification">
<p>Hydrazine is used to remove oxygen from water used to generate steam or hot water.</p>
<p style="text-align: center;">N<sub>2</sub>H<sub>4</sub>(aq) + O<sub>2</sub>(aq) → N<sub>2</sub>(g) + 2H<sub>2</sub>O(l)</p>
<p>The concentration of dissolved oxygen in a sample of water is 8.0 × 10<sup>−3</sup> g\(\,\)dm<sup>−3</sup>.</p>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Estimate the H−N−H bond angle in methanamine using VSEPR theory.</p>
<div class="marks">[1]</div>
<div class="question_part_label">a.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Ammonia reacts reversibly with water.</p>
<p style="text-align: center;">NH<sub>3</sub>(g) + H<sub>2</sub>O(l) \( \rightleftharpoons \) NH<sub>4</sub><sup>+</sup>(aq) + OH<sup>−</sup>(aq)</p>
<p>Explain the effect of adding H<sup>+</sup>(aq) ions on the position of the equilibrium.</p>
<div class="marks">[2]</div>
<div class="question_part_label">b.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Hydrazine reacts with water in a similar way to ammonia. Deduce an equation for the reaction of hydrazine with water.</p>
<div class="marks">[1]</div>
<div class="question_part_label">c.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Outline, using an ionic equation, what is observed when magnesium powder is added to a solution of ammonium chloride.</p>
<div class="marks">[2]</div>
<div class="question_part_label">d.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Hydrazine has been used as a rocket fuel. The propulsion reaction occurs in several stages but the overall reaction is:</p>
<p style="text-align: center;">N<sub>2</sub>H<sub>4</sub>(l) → N<sub>2</sub>(g) + 2H<sub>2</sub>(g)</p>
<p>Suggest why this fuel is suitable for use at high altitudes.</p>
<div class="marks">[1]</div>
<div class="question_part_label">e.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Determine the enthalpy change of reaction, Δ<em>H</em>, in kJ, when 1.00 mol of gaseous hydrazine decomposes to its elements. Use bond enthalpy values in section 11 of the data booklet.</p>
<p style="text-align: center;">N<sub>2</sub>H<sub>4</sub>(g) → N<sub>2</sub>(g) + 2H<sub>2</sub>(g)</p>
<div class="marks">[3]</div>
<div class="question_part_label">f.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>The standard enthalpy of formation of N<sub>2</sub>H<sub>4</sub>(l) is +50.6 kJ\(\,\)mol<sup>−1</sup>. Calculate the enthalpy of vaporization, Δ<em>H</em><sub>vap</sub>, of hydrazine in kJ\(\,\)mol<sup>−1</sup>.</p>
<p style="text-align: center;">N<sub>2</sub>H<sub>4</sub>(l) → N<sub>2</sub>H<sub>4</sub>(g)</p>
<p>(If you did not get an answer to (f), use −85 kJ but this is not the correct answer.)</p>
<div class="marks">[2]</div>
<div class="question_part_label">g.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Calculate, showing your working, the mass of hydrazine needed to remove all the dissolved oxygen from 1000 dm<sup>3</sup> of the sample.</p>
<div class="marks">[3]</div>
<div class="question_part_label">h.i.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Calculate the volume, in dm<sup>3</sup>, of nitrogen formed under SATP conditions. (The volume of 1 mol of gas = 24.8 dm<sup>3</sup> at SATP.)</p>
<div class="marks">[1]</div>
<div class="question_part_label">h.ii.</div>
</div>
<br><hr><br><div class="specification">
<p>Impurities cause phosphine to ignite spontaneously in air to form an oxide of phosphorus and water.</p>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>(i) 200.0 g of air was heated by the energy from the complete combustion of 1.00 mol phosphine. Calculate the temperature rise using section 1 of the data booklet and the data below.</p>
<p>Standard enthalpy of combustion of phosphine, <img src="data:image/png;base64,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" alt><br>Specific heat capacity of air = 1.00Jg<sup>−1</sup>K<sup>−1</sup> = 1.00 kJkg<sup>−1</sup>K<sup>−1</sup></p>
<p>(ii) The oxide formed in the reaction with air contains 43.6 % phosphorus by mass. Determine the empirical formula of the oxide, showing your method.</p>
<p>(iii) The molar mass of the oxide is approximately 285gmol<sup>−1</sup>. Determine the molecular formula of the oxide.</p>
<div class="marks">[5]</div>
<div class="question_part_label">a.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>(i) State the equation for the reaction of this oxide of phosphorus with water.</p>
<p>(ii) Predict how dissolving an oxide of phosphorus would affect the pH and electrical conductivity of water.</p>
<p>pH:</p>
<p>Electrical conductivity:</p>
<p>(iii) Suggest why oxides of phosphorus are not major contributors to acid deposition.</p>
<p>(iv) The levels of sulfur dioxide, a major contributor to acid deposition, can be minimized by either pre-combustion and post-combustion methods. Outline <strong>one</strong> technique of each method.</p>
<p>Pre-combustion:</p>
<p>Post-combustion:</p>
<div class="marks">[5]</div>
<div class="question_part_label">b.</div>
</div>
<br><hr><br><div class="specification">
<p>The Bombardier beetle sprays a mixture of hydroquinone and hydrogen peroxide to fight off predators. The reaction equation to produce the spray can be written as:</p>
<table style="width: 388.667px; margin-left: 120px;">
<tbody>
<tr>
<td style="width: 211px;">C<sub>6</sub>H<sub>4</sub>(OH)<sub>2</sub>(aq) + H<sub>2</sub>O<sub>2</sub>(aq)</td>
<td style="width: 18px;">→</td>
<td style="width: 195.667px;">C<sub>6</sub>H<sub>4</sub>O<sub>2</sub>(aq) + 2H<sub>2</sub>O(l)</td>
</tr>
<tr>
<td style="width: 211px;">hydroquinone</td>
<td style="width: 18px;"> </td>
<td style="width: 195.667px;">quinone</td>
</tr>
</tbody>
</table>
<p style="text-align: center; padding-left: 120px;"><br> </p>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Calculate the enthalpy change, in kJ, for the spray reaction, using the data below.</p>
<p>\(\begin{array}{*{20}{l}} {{{\text{C}}_{\text{6}}}{{\text{H}}_{\text{4}}}{{{\text{(OH)}}}_{\text{2}}}{\text{(aq)}} \to {{\text{C}}_{\text{6}}}{{\text{H}}_{\text{4}}}{{\text{O}}_{\text{2}}}{\text{(aq)}} + {{\text{H}}_{\text{2}}}{\text{(g)}}}&{\Delta {H^\theta } = + {\text{177.0 kJ}}} \\ {{\text{2}}{{\text{H}}_{\text{2}}}{\text{O(l)}} + {{\text{O}}_{\text{2}}}{\text{(g)}} \to {\text{2}}{{\text{H}}_{\text{2}}}{{\text{O}}_{\text{2}}}{\text{(aq)}}}&{\Delta {H^\theta } = + {\text{189.2 kJ}}} \\ {{{\text{H}}_{\text{2}}}{\text{O(l)}} \to {{\text{H}}_{\text{2}}}{\text{(g)}} + \frac{{\text{1}}}{{\text{2}}}{{\text{O}}_{\text{2}}}{\text{(g)}}}&{\Delta {H^\theta } = + {\text{285.5 kJ}}} \end{array}\)</p>
<div class="marks">[2]</div>
<div class="question_part_label">a.i.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>The energy released by the reaction of one mole of hydrogen peroxide with hydroquinone is used to heat 850 cm<sup>3</sup> of water initially at 21.8°C. Determine the highest temperature reached by the water.</p>
<p>Specific heat capacity of water = 4.18 kJ\(\,\)kg<sup>−1</sup>\(\,\)K<sup>−1</sup>.</p>
<p>(If you did not obtain an answer to part (i), use a value of 200.0 kJ for the energy released, although this is not the correct answer.)</p>
<div class="marks">[2]</div>
<div class="question_part_label">a.ii.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Identify the species responsible for the peak at <em>m/z</em> = 110 in the mass spectrum of hydroquinone.</p>
<p style="text-align: left;"><img 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"></p>
<div class="marks">[1]</div>
<div class="question_part_label">b.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Identify the highest <em>m/z</em> value in the mass spectrum of quinone.</p>
<p style="text-align: left;"><img 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"></p>
<div class="marks">[1]</div>
<div class="question_part_label">c.</div>
</div>
<br><hr><br><div class="specification">
<p>Magnesium reacts with sulfuric acid:</p>
<p style="text-align: center;">Mg(s) + H<sub>2</sub>SO<sub>4</sub>(aq) → MgSO<sub>4</sub>(aq) + H<sub>2</sub>(g)</p>
<p>The graph shows the results of an experiment using excess magnesium ribbon and dilute sulfuric acid.</p>
<p style="text-align: center;"><img src="images/Schermafbeelding_2017-09-25_om_09.45.43.png" alt="M17/4/CHEMI/SP2/ENG/TZ2/05.a.i"></p>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Outline why the rate of the reaction decreases with time.</p>
<div class="marks">[1]</div>
<div class="question_part_label">a.i.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Sketch, on the same graph, the expected results if the experiment were repeated using powdered magnesium, keeping its mass and all other variables unchanged.</p>
<div class="marks">[1]</div>
<div class="question_part_label">a.ii.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Nitrogen dioxide and carbon monoxide react according to the following equation:</p>
<p style="text-align: center;">NO<sub>2</sub>(g) + CO(g) \( \rightleftharpoons \) NO(g) + CO<sub>2</sub>(g) Δ<em>H</em> = –226 kJ</p>
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"></p>
<p style="text-align: left;">Calculate the activation energy for the reverse reaction.</p>
<div class="marks">[1]</div>
<div class="question_part_label">b.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>State the equation for the reaction of NO<sub>2</sub> in the atmosphere to produce acid deposition.</p>
<div class="marks">[1]</div>
<div class="question_part_label">c.</div>
</div>
<br><hr><br><div class="specification">
<p>Trends in physical and chemical properties are useful to chemists.</p>
</div>
<div class="specification">
<p>The Activity series lists the metal in order of reactivity.</p>
<p style="text-align: center;"><img src="data:image/png;base64,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"></p>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Explain the general increasing trend in the first ionization energies of the period 3 elements, Na to Ar.</p>
<div class="marks">[2]</div>
<div class="question_part_label">a.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Explain why the melting points of the group 1 metals (Li → Cs) decrease down the group.</p>
<div class="marks">[2]</div>
<div class="question_part_label">b.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>State an equation for the reaction of phosphorus (V) oxide, P<sub>4</sub>O<sub>10</sub> (s), with water.</p>
<div class="marks">[1]</div>
<div class="question_part_label">c.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Describe the emission spectrum of hydrogen.</p>
<div class="marks">[2]</div>
<div class="question_part_label">d.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Identify the strongest reducing agent in the given list.</p>
<div class="marks">[1]</div>
<div class="question_part_label">e.i.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>A voltaic cell is made up of a Mn<sup>2+</sup>/Mn half-cell and a Ni<sup>2+</sup>/Ni half-cell.</p>
<p>Deduce the equation for the cell reaction.</p>
<div class="marks">[1]</div>
<div class="question_part_label">e.ii.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>The voltaic cell stated in part (ii) is partially shown below.</p>
<p>Draw and label the connections needed to show the direction of electron movement and ion flow between the two half-cells.</p>
<p><img src="data:image/png;base64,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"></p>
<div class="marks">[2]</div>
<div class="question_part_label">e.iii.</div>
</div>
<br><hr><br><div class="specification">
<p>Phosgene, COCl<sub>2</sub>, is usually produced by the reaction between carbon monoxide and chlorine according to the equation:</p>
<p><img src="data:image/png;base64,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" alt></p>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>(i) Deduce the equilibrium constant expression, <em>K</em><sub>c</sub>, for this reaction.</p>
<p>(ii) State the effect of an increase in the total pressure on the equilibrium constant, <em>K</em><sub>c</sub>.</p>
<div class="marks">[2]</div>
<div class="question_part_label">a.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>(i) Sketch the potential energy profile for the synthesis of phosgene, using the axes given, indicating both the enthalpy of reaction and activation energy.</p>
<p><img 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" alt></p>
<p>(ii) This reaction is normally carried out using a catalyst. Draw a dotted line labelled “Catalysed” on the diagram above to indicate the effect of the catalyst.</p>
<p>(iii) Sketch and label a second Maxwell–Boltzmann energy distribution curve representing the same system but at a higher temperature, T<sub>higher</sub>.</p>
<p><img 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" alt></p>
<p>(iv) Explain why an increase in temperature increases the rate of this reaction.</p>
<div class="marks">[6]</div>
<div class="question_part_label">b.</div>
</div>
<br><hr><br><div class="specification">
<p>A student titrated an ethanoic acid solution, CH<sub>3</sub>COOH (aq), against 50.0 cm<sup>3</sup> of 0.995 mol dm<sup>–3</sup> sodium hydroxide, NaOH (aq), to determine its concentration.</p>
<p>The temperature of the reaction mixture was measured after each acid addition and plotted against the volume of acid.</p>
<p><img 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"></p>
</div>
<div class="specification">
<p>Curves <strong>X</strong> and <strong>Y</strong> were obtained when a metal carbonate reacted with the same volume of ethanoic acid under two different conditions.</p>
<p style="text-align: center;"><img src="data:image/png;base64,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"></p>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Using the graph, estimate the initial temperature of the solution.</p>
<div class="marks">[1]</div>
<div class="question_part_label">a.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Determine the maximum temperature reached in the experiment by analysing the graph.</p>
<div class="marks">[1]</div>
<div class="question_part_label">b.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Calculate the concentration of ethanoic acid, CH<sub>3</sub>COOH, in mol dm<sup>–3</sup>.</p>
<div class="marks">[2]</div>
<div class="question_part_label">c.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Determine the heat change, <em>q</em>, in kJ, for the neutralization reaction between ethanoic acid and sodium hydroxide.</p>
<p>Assume the specific heat capacities of the solutions and their densities are those of water.</p>
<div class="marks">[2]</div>
<div class="question_part_label">d.i.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Calculate the enthalpy change, Δ<em>H</em>, in kJ mol<sup>–1</sup>, for the reaction between ethanoic acid and sodium hydroxide.</p>
<div class="marks">[2]</div>
<div class="question_part_label">d.ii.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Explain the shape of curve <strong>X</strong> in terms of the collision theory.</p>
<div class="marks">[2]</div>
<div class="question_part_label">e.i.</div>
</div>
<div class="question" style="padding-left: 20px; padding-right: 20px;">
<p>Suggest <strong>one</strong> possible reason for the differences between curves <strong>X</strong> and <strong>Y</strong>.</p>
<div class="marks">[1]</div>
<div class="question_part_label">e.ii.</div>
</div>
<br><hr><br>