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3.3 Organic Chemistry
3.3.14 Organic Synthesis (A-level only)
3.3.14.1 Synthetic Routes
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Organic synthesis allows chemists to build complex molecules with specific structures and
properties
What are synthetic routes used for in organic chemistry?
Transforming starting materials
What are the key considerations in designing effective synthetic routes?
Reagent choice, conditions, order
Understanding functional groups and their transformations is crucial for designing effective synthetic
routes
What are the key elements to consider when developing an effective synthetic route?
Reagent choice, reaction conditions, reaction order
Understanding reaction mechanisms is crucial for optimizing synthetic strategies in organic synthesis.
True
Organic synthesis
refers to the process of creating organic compounds from simpler starting
materials
What are synthetic routes used for in organic chemistry?
Transforming starting materials
Which functional group can undergo substitution reactions?
Alkanes
The key functional groups in organic chemistry and their common transformations are listed in a
table
Steps to consider when developing a multi-step synthetic route
1️⃣ Choose reagents that selectively target specific functional groups
2️⃣ Optimize reaction conditions like temperature and solvents
3️⃣ Sequence reactions to minimize side products and maximize yield
What is the primary goal of understanding reaction mechanisms in organic synthesis?
Optimize synthetic strategies
The choice between SN1 and SN2 mechanisms can significantly impact the outcome of a
synthetic
route.
True
Sustainable synthetic strategies aim to minimize
environmental
impact and reduce waste.
True
The Grignard reaction can be made more sustainable using aqueous conditions and
ethanol
What is the definition of organic synthesis?
Creating organic compounds
Organic synthesis often involves multiple steps, each designed to modify specific functional
groups
Organic synthesis involves creating organic compounds from simpler starting materials through chemical reactions.
True
Match the functional group with its common transformations:
Alkanes ↔️ Substitution, combustion
Alkenes ↔️ Addition, oxidation, polymerization
Alcohols ↔️ Oxidation, esterification
Carboxylic Acids ↔️ Esterification, nucleophilic substitution
Understanding reaction mechanisms is crucial for optimizing
synthetic
strategies.
True
Careful planning of the synthetic route is essential to efficiently construct complex organic molecules with the required structures and
properties
What type of solvents favor SN2 reactions?
Polar aprotic
Order the main types of reactions used in organic synthesis:
1️⃣ Addition
2️⃣ Substitution
3️⃣ Elimination
4️⃣ Rearrangement
Thoughtful planning of a synthetic route is essential for constructing
complex organic molecules
.
True
Understanding the characteristic transformations of key functional groups is crucial for designing effective synthetic
strategies
Understanding functional group transformations is crucial for designing effective synthetic
routes
Careful planning of the synthetic route is essential to efficiently construct complex organic
molecules
Which type of solvent favors the SN2 mechanism?
Polar aprotic
Visualize the steps in a synthetic route:
1️⃣ Starting Materials
2️⃣ Reaction 1
3️⃣ Intermediate 1
4️⃣ Reaction 2
5️⃣ Target Product
Match the sustainability element with its advantage:
Atom Economy ↔️ Reduces waste
Energy Efficiency ↔️ Lower carbon footprint
Solvent Selection ↔️ Safer conditions
Renewable Feedstocks ↔️ Decreases fossil fuel dependence
Organic synthesis is crucial because it enables the creation of
complex
molecules with desired properties.
True
Planning synthetic routes minimizes side products and maximizes
yield
Steps to consider in synthetic route design
1️⃣ Reagent Choice
2️⃣ Reaction Conditions
3️⃣ Reaction Order
What is the primary goal of multi-step synthetic strategies?
Create target organic compounds
Match the reaction mechanism with its characteristics:
SN1 ↔️ Two steps, unimolecular rate
SN2 ↔️ One step, bimolecular rate
Organic synthesis is crucial for creating
pharmaceuticals
and advanced materials.
True
Key considerations in designing effective synthetic routes include reagent choice, reaction conditions, and reaction
order
Match the functional group with its common transformations:
Alkenes ↔️ Addition, oxidation, polymerization
Alcohols ↔️ Oxidation, esterification, substitution
Aldehydes ↔️ Oxidation, reduction, nucleophilic addition
Aldehydes undergo oxidation, reduction, and nucleophilic
addition
Multi-step synthetic strategies involve transforming simple starting materials into complex
organic compounds
.
True
See all 42 cards
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