Organic Synthesis
Strategy and tactics for constructing complex organic molecules from simpler precursors.
Organic Synthesis — Strategy and tactics for constructing complex organic molecules from simpler precursors.
The field organises around several methodological axes: how the underlying objects are modelled, how they are measured, how they are connected to the rest of chemistry, and which empirical phenomena drive open questions. The references below anchor the topic in established treatments and current literature.
Foundations and core methods
A primary reference for this area is Strategic Applications of Named Reactions in Organic Synthesis (Kurti and Czako, 2005), which lays out the core concepts that govern organic synthesis. The treatment frames the subject within the broader context of organic chemistry and motivates the conceptual vocabulary used throughout this page. The discussion here cites this work as a general anchor rather than for a specific claim, since the exact contribution claim is treated cautiously in line with the Charted sourcing policy.
A complementary perspective comes from Classics in Total Synthesis (Nicolaou and Sorensen, 1996), which provides further background on the methods and results most relevant to organic synthesis. Together with the previous reference, it establishes the standard expectations for how practitioners approach the topic in current practice.
Open questions
Open methodological questions in organic synthesis include the transferability of the standard methods to harder regimes, the integration of newer measurement and modelling tools, and the connection to neighbouring subfields of organic chemistry. Future revisions of this page will deepen the treatment as more primary literature is curated.
Prerequisites
Sources
- textbook · primary · 2005Strategic Applications of Named Reactions in Organic Synthesiskurti-2005, czako-2005
- textbook · primary · 1996Classics in Total Synthesisnicolaou-1996, sorensen-1996
In context
Where this topic sits in the prerequisite graph. Click any node to jump.
Explore
- 01
Retrosynthetic Analysis
Disconnection logic, synthons, and route planning for target-oriented synthesis.
- 02
Total Synthesis of Natural Products
Multi-step routes to complex natural products and the methodology they motivate.
- 03
Protecting Groups
Orthogonal protection strategies and chemoselective deprotection in multi-step synthesis.
- 04
Cross-Coupling Reactions
Suzuki, Negishi, Stille, Heck, and Sonogashira couplings for C–C bond formation.
- 05
C–N and C–O Bond Formation
Buchwald–Hartwig amination, Chan–Lam coupling, and Ullmann-type heteroatom couplings.
- 06
Olefin Metathesis
Grubbs and Schrock catalysts, ring-closing and cross metathesis in synthesis and polymers.
- 07
Asymmetric Synthesis
Enantioselective methodology — chiral auxiliaries, catalysts, and stereoinduction strategies.
- 08
Organocatalysis
Small-molecule catalysis without metals — proline, MacMillan catalysts, NHCs, and chiral acids.
- 09
C–H Activation and Functionalization
Direct functionalization of unreactive C–H bonds via transition metal and main-group catalysis.
- 10
Flow Chemistry
Continuous-flow reactor design, residence-time control, and process intensification.
- 11
Organic Electrosynthesis
Electrochemically driven C–C and C–heteroatom bond formation as a synthetic platform.
- 12
Mechanochemistry
Ball-milling and solvent-free synthesis driven by mechanical force.
- 13
Click Chemistry
Modular, high-yield ligations — CuAAC, SPAAC, thiol-ene, and SuFEx.
- 14
Multicomponent Reactions
One-pot transformations like Ugi, Passerini, and Hantzsch that build complexity in a single step.
Review this topic
This page was drafted by an agent and is waiting on expert review. Spotted a wrong prerequisite, a missing concept, a misattributed source, or a factual slip? Tell us — your review opens a tracked issue maintainers act on.