Click Chemistry Synthesis
Click Chemistry Synthesis - Related Videos
09:14
Synthesis of Protein Bioconjugates via Cysteine-maleimide Chemistry
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Cited by 8 •
2016
This protocol details the important steps required for the bioconjugation of a cysteine containing protein to a maleimide, including reagent purification, reaction conditions, bioconjugate purification and bioconjugate characterization.
08:44
Synthesis and Reaction Chemistry of Nanosize Monosodium Titanate
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Cited by 1 •
2016
The surfactant mediated sol-gel synthesis of nanosized monosodium titanate is described, along with preparation of the corresponding peroxide modified material. An ion-exchange reaction with Au(III) is also presented.
09:35
Using Click Chemistry to Measure the Effect of Viral Infection on Host-Cell RNA Synthesis
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Cited by 15 •
2013
This method describes the use of click chemistry to measure changes in host cell transcription after infection with the Rift Valley fever virus (RVFV) strain MP-12. Results can be visualized qualitatively via fluorescence microscopy or obtained quantitatively through flow cytometry. This method is adaptable for use with other viruses.
08:42
Coordination Chemistry Complexes
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2023
Source: Laboratory of Dr. Neal Abrams — SUNY College of Environmental Science and Forestry Transition metals are found everywhere from vitamin supplements to electroplating baths. Transition metals also make up the pigments in many paints and compose all minerals. Typically, transition metals are found in the cationic form since they readily oxidize, or lose electrons, and are surrounded by electron donors called ligands. These ligands do not form ionic or covalent bonds with the metal center,...
09:42
Solid Phase Synthesis
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2023
Source: Vy M. Dong and Diane Le, Department of Chemistry, University of California, Irvine, CA Merrifield's solid-phase synthesis is a Nobel Prize winning invention where a reactant molecule is bound on a solid support and undergoes successive chemical reactions to form a desired compound. When the molecules are bound to a solid support, excess reagents and byproducts can be removed by washing away the impurities, while the target compound remains bound to the resin. Specifically, we will...
FAQs
Copper acts as the catalytic component that enables organic azides and terminal alkynes to react under relatively mild conditions. This catalytic arrangement supports the selective formation of a 1,2,3-triazole linkage while limiting unwanted byproducts. In practice, the copper-catalyzed version provides a dependable way to connect two prepared molecular building blocks without requiring especially harsh reaction conditions.
The resulting 1,2,3-triazole linkage is stable, which helps preserve the connection between the joined molecular fragments after synthesis. Its formation is also highly selective and produces minimal byproducts, simplifying the overall molecular construction process. These properties make the linkage useful when researchers need to attach functional groups or assemble more complex compounds from smaller, deliberately chosen components.
High selectivity, relatively mild reaction conditions, and compatibility with diverse substrates are central factors. Together, they allow researchers to connect varied molecular components while reducing competing products and operational complications. The modular design also means that different building blocks can be exchanged within a synthetic plan, supporting efficient preparation of complex compounds and libraries rather than requiring a completely different strategy for each target.
A typical workflow begins by selecting an organic azide and a terminal alkyne as complementary building blocks. Researchers then bring these components together with the copper catalyst under relatively mild conditions. The reaction forms the intended 1,2,3-triazole connection with high selectivity and minimal byproducts, providing a streamlined route for assembling the chosen molecular structure.
Medicinal chemists can use the modular reaction format to attach selected molecular fragments and generate families of related compounds. Because building blocks can be exchanged while preserving the same joining strategy, researchers can assemble libraries efficiently for subsequent investigation. The method therefore supports rapid molecular design when many structurally varied compounds must be prepared from compatible components.
In polymer and materials science, the approach supports the assembly or modification of larger structures from functional building blocks. In chemical biology and bioconjugation, it can attach functional groups to biomolecules or connect molecular partners. Its selectivity, mild operating conditions, and substrate compatibility are especially relevant when researchers need controlled molecular modification across these different chemistry-focused applications.