Nickel-catalysed Suzuki–Miyaura coupling of amides (2024)

Nickel-catalysed Suzuki–Miyaura coupling of amides (1) https://doi.org/10.1038/nchem.2388 · Nickel-catalysed Suzuki–Miyaura coupling of amides (2) Full text

Journal: Nature Chemistry, 2015, №1, p.75-79

Publisher: Springer Science and Business Media LLC

Authors: Nicholas A. Weires, Emma L. Baker, Neil K. Garg

List of references

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FAQs

What is the Suzuki-Miyaura cross coupling reaction? ›

The first Suzuki-type cross coupling reaction between phenylboronic acid and haloarenes was published by Suzuki and Miyaura in 1981 (Scheme 1). Commonly, Suzuki coupling is compared to Stille coupling seeing that boron has a similar electronegativity to tin, which is used for transmetallation in Stille coupling.

What are the limitations of Suzuki coupling reaction? ›

The Suzuki coupling reaction is scalable and cost-effective for use in the synthesis of intermediates for pharmaceuticals or fine chemicals. The Suzuki reaction was once limited by high levels of catalyst and the limited availability of boronic acids.

What is the importance of Suzuki coupling reaction? ›

Merits of the Suzuki Coupling Reaction

This reaction is commonly used in the synthesis of substituted biphenyls, poly-olefins, and styrenes. Boronic acids are commonly available. They are also less toxic and environment-friendly when compared to organostannane and organozinc compounds.

What catalysts are used in Suzuki coupling? ›

(11,13,14) Most Suzuki–Miyaura coupling reactions employ palladium catalysts, which are highly reactive but expensive due to the scarcity of palladium.

What drugs are Suzuki coupling? ›

The Suzuki coupling reaction successfully introduced a C-C bond between boronic ester and pyrimidine to form a building block of abemaciclib. The Suzuki coupling reaction played a pivotal role for the synthesis of many other drugs and late-stage drug candidates, such as rucaparib, merestinib, and lapatinib [5] . ...

What is the mechanism of Suzuki-Miyaura? ›

(B) Widely accepted mechanism of the Suzuki-Miyaura reaction involving three key mechanistic events – oxidative addition, transmetalation, and reductive elimination. (C) Two possible pathways for oxidative addition involving either a 14-electron PdL2 or a 12-electron PdL1 palladium (0) 5 complex.

What is the best base for Suzuki coupling? ›

2 CO 3 was found to be the best base (Table 2, entry 4). Sodium hydroxide did not appear to be an effective base under these reaction conditions (Table 2, entry 3).

What are the conditions for Suzuki coupling? ›

Suzuki coupling reaction is performed between aryl halide (R-X) as an electrophile and organoborane (R-B) as a nucleophile with a metal catalyst, suitable base, aqueous and organic solvents, and temperature (usually 60–100 ℃) to make biaryls products (Scheme 1).

What is the alternative to Suzuki coupling? ›

The Hiyama Coupling is the palladium-catalyzed C-C bond formation between aryl, alkenyl, or alkyl halides or pseudohalides and organosilanes. This reaction is comparable to the Suzuki Coupling and also requires an activating agent such as fluoride ion or a base.

What are the advantages of Suzuki-Miyaura? ›

Advantages of the Suzuki-Miyaura Cross-Coupling Reaction

The use of organoboron compounds as a reagent provides high selectivity and stability in cross-coupling reactions as well as being non-toxic. The reaction forms an inorganic boron-based by-product that is also non-toxic and can be easily removed.

Why do we use water in Suzuki coupling? ›

The Suzuki–Miyaura coupling reaction proceeds efficiently in aqueous medium due to excellent stability of boronic acids in aqueous medium and also the ability of water to dissolve most of the bases favours the transmetalation step of the catalytic cycle.

What functional groups are tolerance in Suzuki coupling? ›

The Suzuki reaction

The reaction is extremely tolerant to a wide variety of functional groups such as carboxylic acids, esters, alcohols, aldehydes, and ketones, and this is one of the reasons for its popularity in natural product synthesis.

How to prevent dehalogenation in Suzuki coupling? ›

This dehalogenation can be suppressed by protection of the pyrrole nitrogen. Using a BOC protecting group, not only is dehalogenation suppressed, but the protecting group is also removed under the reaction conditions.

What is the byproduct of Suzuki coupling? ›

What is the byproduct of Suzuki coupling? Organoborane and sodium halide are the by-products of Suzuki coupling.

What are the side reactions of Suzuki-Miyaura? ›

Dehalogenation of the aryl halide substrate is another common side reaction. After oxidative addition, the Pd complex might oxidize something else in the reaction mixture (often amine base or alcoholic solvent) to gain hydride ligand. The aryl and hydride can then reductively eliminate, forming deshalo side product.

What is meant by cross coupling reaction? ›

Cross-coupling reaction refers to a powerful method used in organic synthesis to create complex organic structures by forming bonds between carbon and other atoms under mild conditions.

What is the Suzuki cross coupling reaction a review? ›

Suzuki cross coupling reaction is one of the most famous reaction in the field of chemistry. It is a very effective method for making carbon – carbon bonds. It has been extensively utilized in the synthesis of many carbon molecules including the most complex ones.

What is the cross coupling reaction of Sonogashira? ›

The Sonogashira reaction (also called the Sonogashira-Hagihara reaction) is the cross coupling of aryl or vinyl halides with terminal alkynes to generate conjugated enynes and arylalkynes (Scheme 1). The reaction typically proceeds in the presence of a palladium(0) catalyst, a copper(I) cocatalyst, and an imine base.

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