
(a)
Interpretation:
Nucleophile which forms the given compounds when it reacts with
Concept Introduction:
The SN2 reaction is a type of reaction mechanism in which one bond is broken and one bond is formed i.e., in one step. SN2 is a kind of nucleophilic substitution reaction mechanism.
The nucleophile attacks the back side of the carbon that is attached to the halogen. Therefore it takes an inversion of configuration.
The configuration of the product is inverted relative to the configuration of the reactant.
(b)
Interpretation:
Nucleophile which forms given compounds when it reacts with
Concept Introduction:
The SN2 reaction is a type of reaction mechanism in which one bond is broken and one bond is formed i.e., in one step. SN2 is a kind of nucleophilic substitution reaction mechanism.
Steric effect is the effect due to the groups occupies a certain volume of space.
Steric hindrance is caused by the bulky groups at the site of a reaction that makes it difficult for the reactants to approach each other.
(c)
Interpretation:
Nucleophile which forms given compounds when it reacts with
Concept Introduction:
The SN2 reaction is a type of reaction mechanism in which one bond is broken and one bond is formed i.e., in one step. SN2 is a kind of nucleophilic substitution reaction mechanism.
Aprotic solvent are polar solvent molecules which do not have hydrogen bonded to oxygen to nitrogen.
Protic solvent are polar solvent molecules which do have hydrogen bonded to oxygen to nitrogen.
The stronger base is always a better nucleophile in an aprotic solvent.
(d)
Interpretation:
Nucleophile which forms the following compounds when it reacts with
Concept Introduction:
The SN2 reaction is a type of reaction mechanism in which one bond is broken and one bond is formed i.e., in one step. SN2 is a kind of nucleophilic substitution reaction mechanism.
The stronger base is always a better nucleophile in an aprotic solvent.
(e)
Interpretation:
Nucleophile which forms the following compounds when it reacts with
Concept Introduction:
The SN2 reaction is a type of reaction mechanism in which one bond is broken and one bond is formed i.e., in one step. SN2 is a kind of nucleophilic substitution reaction mechanism.
The nucleophile attacks the back side of the carbon that is attached to the halogen. Therefore it takes an inversion of configuration.
The configuration of the product is inverted relative to the configuration of the reactant.
(f)
Interpretation:
Nucleophile which forms given compounds when it reacts with
Concept Introduction:
The SN2 reaction is a type of reaction mechanism in which one bond is broken and one bond is formed i.e., in one step. SN2 is a kind of nucleophilic substitution reaction mechanism. The nucleophile attacks the back side of the carbon that is attached to the halogen. Therefore it takes an inversion of configuration.
The configuration of the product is inverted relative to the configuration of the reactant.
(g)
Interpretation:
Nucleophile which forms given compound when it reacts with
Concept Introduction:
The SN2 reaction is a type of reaction mechanism in which one bond is broken and one bond is formed i.e., in one step. SN2 is a kind of nucleophilic substitution reaction mechanism.
The nucleophile attacks the back side of the carbon that is attached to the halogen. Therefore it takes an inversion of configuration.
The configuration of the product is inverted relative to the configuration of the reactant.
(h)
Interpretation:
Nucleophile which forms given compound when it reacts with
Concept Introduction:
The SN2 reaction is a type of reaction mechanism in which one bond is broken and one bond is formed i.e., in one step. SN2 is a kind of nucleophilic substitution reaction mechanism.
The nucleophile attacks the back side of the carbon that is attached to the halogen. Therefore it takes an inversion of configuration.
The configuration of the product is inverted relative to the configuration of the reactant.

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Chapter 9 Solutions
Organic Chemistry (8th Edition)
- 19) Which metal is most commonly used in galvanization to protect steel structures from oxidation? Lead a. b. Tin C. Nickel d. Zinc 20) The following molecule is an example of a: R₁ R2- -N-R3 a. Secondary amine b. Secondary amide c. Tertiary amine d. Tertiary amidearrow_forwardpls helparrow_forwardIndicate the product of the reaction OH OH CH3-CC- Ph + H2SO4 a 20°C | CH3 Pharrow_forward
- 35) Complete the following equation by drawing the line the structure of the products that are formed. Please note that in some cases more than one product is possible. You must draw all possible products to recive full marks! a. ethanol + 2-propanol + H2SO4 → b. OH conc. H2SO4 CH2 H3C CH + K2Cr2O7 C. d. H3C A pressure CH3 + H2 CH Pt catalystarrow_forward21) The rate of reaction depends upon: a. the concentration and nature of reactants b. the temperature of the reaction C. whether or not a catalyst was used d. all of the above 22) A Maxwell-Boltzmann curve shows the distribution of molecular energies in a reaction system. When the temperature in this system is increased, the peak is a. higher and further to the right. b. higher and further to the left. c. lower and further to the right. d. lower and further to the left. 23) Which of the following correctly describes the reaction represented by the reaction below? CaCO3 (s) + energy → CaO (s) + CO2 (g) a. It is exothermic and the potential energy is greater in the reactants than the products. b. c. It is exothermic and the potential energy is greater in the products than the reactants. It is endothermic and the potential energy is greater in the products than the reactants. d. It is endothermic and the potential energy is equal for the products and reactants.arrow_forwardpls helparrow_forward
- 27) Draw the energy level diagram and write the full and shorthand electron configuration for a neutral sulfur atom.arrow_forwardIndicate whether these compounds are isomers, enantiomers, or tautomers. OCH OCH محمد ممدarrow_forward30) Substance A to E below are listed with several of their properties. The identities of the substances are identified in random order below: Iron, ethane, ethanol, sodium nitrate, graphite First classify each substance as either a polar covalent compound, non-polar covalent compound, ionic compound, metallic solid, or network solid. Write your predictions in the sixth coloumn of the chart, under "type of substance." Then, identify the identity of the substance in the last coloumn. Substance Melting Point Boiling Point Solubility in H₂O Electrical Conductivity Type of Substance Identity of Substance (°C) (°C) as: Solid, Liquids, Solution A -182 -88 Insoluble No/No/- B 1538 2862 Insoluble Yes/Yes/- C 308 380 Soluble Yes/Yes/Yes Ꭰ 3456 Insoluble No/-/- E -114 78 Soluble No/No/Noarrow_forward
- Organic ChemistryChemistryISBN:9781305580350Author:William H. Brown, Brent L. Iverson, Eric Anslyn, Christopher S. FootePublisher:Cengage Learning

