Interpretation:
- The kinetic and
thermodynamic products of the given reaction has to be predicted.
Concept Introduction:
Reactions of conjugated dienes:
An electrophilic addition reaction to a conjugated diene forms both
Kinetic and thermodynamic products:
Kinetic product: The more rapidly formed product is called the kinetic product. The reactions that produce the kinetic product as the major product are said to be kinetically controlled. The kinetic product predominates when the reaction is irreversible.
Thermodynamic product: The more stable product is called the thermodynamic product. The reactions that produce the thermodynamic product as the major product are said to be thermodynamically controlled. The thermodynamic product predominates when the reaction is reversible. The thermodynamic product is the product with the most highly substituted double bond.
Rule: The stabilities of carbocation are,
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EBK ORGANIC CHEMISTRY
- For the following reactions at constant pressure, predict if HE,HE,orH=E a. 2HF(g)H2(g)+F2(g) b. N2(g)+3H2(g)2NH3(g) c. 4NH3(g)+5O2(g)4NO(g)+6H2O(g)arrow_forwardDetermine the AH of the reaction 1 1 NO29) + 702c9) +5H20(9) → HNO3(aq) 4 AH = 33.2 kJ 5 N2c9) + O2cg) → N02c9) 1 Haa) +Nzo) +0zc) → HNO3(aq) AH = -202.3 kJ 1 H2(g) - ΗΝO3(αq) 1 H2(g) * 2 → H20(g) AH = -285.8 kJarrow_forwardCalculate AHrxn for the following reaction: Cr2 O3 (s) + 3CO(g) → 2Cr(s) +3CO2(g) Use the following reactions and given AH values: 2Cr(s) + O2(g) → Cr2O3(s), ΔΗ -1134.7 kJ CO(g) +02(g) → CO2(g), ΔΗ -282.7 kJ Express your answer in kilojoules to three significant figures.arrow_forward
- Use the thermodynamic quantities given below to calculate the theoretical ΔH for this reaction: NH3 + HCl → NH4Cl ΔH°f for NH3 (aq) = - 80.29 kJ/mol ΔH°f for HCl (aq) = - 167.2 kJ/mol ΔH°f for NH4+ (aq) = - 132.5 kJ/mol ΔH°f for Cl- (aq) = - 167.2 kJ/mol I found this answer to be -52.21 kJ/mol 6. What is the percent error of experimental results when using the theoretical value calculated in Question 5? I need help finding thisarrow_forwardUse the thermodynamic quantities given below to calculate the theoretical ΔH for this reaction: NH3 + HCl → NH4Cl ΔH°f for NH3 (aq) = - 80.29 kJ/mol ΔH°f for HCl (aq) = - 167.2 kJ/mol ΔH°f for NH4+ (aq) = - 132.5 kJ/mol ΔH°f for Cl- (aq) = - 167.2 kJ/molarrow_forwardUse the thermodynamic quantities given below to calculate the theoretical ΔH for this reaction: NH3 + HCl → NH4Cl ΔH°f for NH3 (aq) = - 80.29 kJ/mol ΔH°f for HCl (aq) = - 167.2 kJ/mol ΔH°f for NH4+ (aq) = - 132.5 kJ/mol ΔH°f for Cl- (aq) = - 167.2 kJ/mol I found this answer to be -52.21 kJ/mol 6. What is the percent error of experimental results when using the theoretical value calculated in Question 5? I need help finding this pleasearrow_forward
- Given that the reaction of 4 NH3 (g) + 5 O2 (g) → 4 NO (g) + 3 H20 (g) ΔΗ - - 906 kJ What would AH for NO (g) + ? H20 (g) → NH3 (g) + O2 (g) be? 2. 906 kJ 226.5 kJ -226.5kJ 453 kJarrow_forwardA.) What is the heat of reaction, ΔH°? CO2(g) + H2O(l) à H2CO3(aq) –20.2 kJ mol–1 –1379 kJ mol–1 –592 kJ mol–1 B.) What is the average bond energy in CO2? CO2(g) ΔH°f, = –393.5 kJ mol–1 CO(g) ΔH°f, = –110.5 kJ mol–1 C(g) ΔH°f, = +715 kJ mol–1 CO32–(aq) ΔH°f, = –676.3 kJ mol–1 O(g) ΔH°f, = +249.0 kJ mol–1 207 kJ mol–1 1607 kJ mol–1 804 kJ mol–1arrow_forwardThe conversion of glucose (C,H12O6) into lactic acid (2CH3CH(OH)COOH) drives the phosphorylation of 2 moles of ADP to ATP and has a AG° = -135 kJ/mol. CH,0,(aq) + 2HPO? (aq) + 2ADP³3- (aq) +2H*(aq) –→ 2CH,CH(OH)COOH(aq) +2ATPª¯(ag) + 2H,0(1) The conversion of ATP to ADP has a AG° = -30.5 kJ/mol. ATP4 (ag)+H,0(1) –→ ADP³-(aq) + HPO? (aq) + H*(aq) 1st attempt See Periodic Tabl O See Hint What is AG° for the conversion of glucose into lactic acid? CH1206(aq) → 2CH,CH(OH)COOH(aq) A SUBMIT ANSWERarrow_forward
- Given the following data: Br2(l) + 5F2(g) → 2BrF5(l) ΔH°=-918.0 kJ BrF3(l) + Br2(l) → 3BrF(g) ΔH°=125.2 kJ 2NaBr(s) + F2(g) → 2NaF(s) + Br2(l) ΔH°=-316.0 kJ NaBr(s) + F2(g) → NaF(s) + BrF(g) ΔH°=-216.6 kJ calculate ΔH° for the reaction:BrF3(l) + F2(g) → BrF5(l)ΔH°=arrow_forwardThe lead-acid storage battery is the oldest rechargeable battery in existence. It was invented in 1859 by French physician Gaston Plante and still retains application todaY, more than 150 years later. There are two reactions that take place during discharge of the lead-acid storage battery. In one step, sulfuric acid decomposes to form sulfur trioxide and water: H, SO,() – SO;(9) + H,O() AH-+113. kJ In another step, lead, lead(IV) oxide, and sulfur trioxide react to form lead(II) sulfate: Pb(s) – PbO,(s) - 2 S0, (g) → 2 PbSO,(s) AH= -775. J Calculate the net change in enthalpy for the formation of one mole of lead(II) sulfate from lead, lead(IV) oxide, and sulfuric acid from these reactions. Round your answer to the nearest kJ.arrow_forwardGiven the following reactions: ΔΗ = -1299.5 kJ CH2(g) + ,02(9) → 2C02(9) + H20() CO2(9) AH° = -393.5 kJ C(s) + 02(9) H2(g) + /½02(g) -> - H,0(t) = -285.8 kJ -> ΔΗΟ Calculate AH° (in kJ) for the reaction: 2Cs) + H29) → C,H2(9) Select one: -142 +227 142 -227arrow_forward
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