
Concept explainers
a)

Interpretation:
How to synthesize 1-pentyne from acetylene using any alkyl halide with four or fewer number of carbons is to be shown.
Concept introduction:
Terminal
To state:
How to synthesize 1-pentyne from acetylene using any alkyl halide with four or fewer number of carbons.
b)

Interpretation:
How to synthesize 3-hexyne from acetylene using any alkyl halide with four or fewer number of carbons is to be shown.
Concept introduction:
Terminal alkynes can be converted into their alkynides by treating with NaNH3 in liquid NH3. The alkynides when treated with alkyl halides with the required number of carbons yield the higher alkyne needed. Acetylene has two acidic hydrogens. Both hydrogens can be replaced by alkyl groups through this process.
To state:
How to synthesize 3-hexyne from acetylene using any alkyl halide with four or fewer number of carbons.
c)

Interpretation:
How to synthesize 4-methyl-1-pentene from acetylene using any alkyl halide with four or fewer number of carbons is to be shown.
Concept introduction:
Terminal alkynes can be converted into their alkynides by treating with NaNH3 in liquid NH3. The alkynides when treated with alkyl halides with the required number of carbons yield the higher alkyne needed. The alkyne can be reduced to the corresponding
To state:
How to synthesize 4-methyl-1-pentene from acetylene using any alkyl halide with four or fewer number of carbons.
d)

Interpretation:
How to synthesize 4-octanone from acetylene using any alkyl halide with four or fewer number of carbons is to be shown.
Concept introduction:
Terminal alkynes can be converted into their alkynides by treating with NaNH3 in liquid NH3. The alkynides when treated with alkyl halides with the required number of carbons yield the higher alkyne needed. The alkyne undergoes hydration when treated with dilute H3SO4 in the presence of HgSO4 to yield an enol which tautomerizes to a
To state:
How to synthesize 4-octanone from acetylene using any alkyl halide with four or fewer number of carbons.
e)

Interpretation:
How to synthesize hexanal from acetylene using any alkyl halide with four or fewer number of carbons is to be shown.
Concept introduction:
Terminal alkynes can be converted into their alkynides by treating with NaNH3 in liquid NH3. The alkynides when treated with alkyl halides with the required number of carbons yield the higher alkynes needed. The alkynes yield enols with OH on terminal carbon in hydroboration-oxidation reaction which tautomerize to yield
To state:
How to synthesize hexanal from acetylene using any alkyl halide with four or fewer number of carbons.

Trending nowThis is a popular solution!

Chapter 9 Solutions
EBK ORGANIC CHEMISTRY
- Complete the following esterification reaction by drawing the structural formula of the product formed. HOH HO i catalyst catalyst OH HO (product has rum flavor) (product has orange flavor)arrow_forwardThe statements in the tables below are about two different chemical equilibria. The symbols have their usual meaning, for example AG stands for the standard Gibbs free energy of reaction and K stands for the equilibrium constant. In each table, there may be one statement that is faise because it contradicts the other three statements. If you find a false statement, check the box next to t Otherwise, check the "no false statements" box under the table. statement false? AG"1 no false statements: statement false? AG-0 0 InK-0 0 K-1 0 AH-TAS no false statements 2arrow_forwardComplete the following esterification reactions by drawing the line formulas of the carboxylic acid and alcohol required to form the ester shown. catalyst catalyst catalyst apricot fragrancearrow_forward
- Show the saponification products of the following ester: You don't need to draw in the Na+ cation. catalyst, A catalyst, A catalyst, Aarrow_forwardWhat would happen if the carboxylic acid and alcohol groups were on the same molecule? In essence, the molecule reacts with itself. Draw the structure of the products formed in this manner using the reactants below. If two functional groups interact with one another on the same molecule, this is called an “intramolecular" (within one) rather than "intermolecular" (between two or more) attack. OH OH catalyst OH HO catalyst catalyst HO OHarrow_forwardQ3: Write in the starting alkyl bromide used to form the following products. Include any reactants, reagents, and solvents over the reaction arrow. If more than one step is required, denote separate steps by using 1), 2), 3), etc. H OH racemic OH OH 5 racemicarrow_forward
- Draw the Lewis structure of the SO3-O(CH3)2 complex shown in the bottom right of slide 2in lecture 3-3 (“Me” means a CH3 group) – include all valence electron pairs and formal charges.From this structure, should the complex be a stable molecule? Explain.arrow_forwardPredict all organic product(s), including stereoisomers when applicable.arrow_forwardQ5: Propose a reasonable synthesis for the following decalin derivative. using only decalin and alkanes of 3 or fewer carbons. Decalin H3C HO க CH3arrow_forward
- 2Helparrow_forwardplease add appropriate arrows, and tell me clearly where to add arrows, or draw itarrow_forwardWhat I Have Learned Directions: Given the following reaction and the stress applied in each reaction, answer the question below. A. H2(g) + Cl2(g) 2 HCl(g) Stress applied: Decreasing the pressure 1. What is the Keq expression? 2. What will be the effect in the number of moles of HCl(g)? 3. What will be the Equilibrium Shift or the reaction? B. Fe3O4(s) + 4 H2(g) + heat 53 Fe(s) + 4 H₂O(g) Stress applied: Increasing the temperature 1. What is the Keq expression?. 2. What will be the effect in the volume of water vapor collected? 3. What will be the Equilibrium Shift or the reaction? C. 4 NH3(g) + 5 O2(g) 4 NO(g) + 6 H2O(g) + heat Stress applied: Increasing the volume of the container 1. What is the Keq expression?. 2. What will be the effect in the amount of H₂O? 3. What will be the Equilibrium Shift or the reaction?arrow_forward
- Organic ChemistryChemistryISBN:9781305580350Author:William H. Brown, Brent L. Iverson, Eric Anslyn, Christopher S. FootePublisher:Cengage Learning

