Hypervalent bromine(III) reagents possess a higher electrophilicity and a stronger oxidizing power compared to their iodine(III) counterparts. Despite the superior reactivity, bromine(III) reagents have a reputation of hard‐to‐control and difficult‐to‐synthesize compounds. This is partly due to their low stability, and partly because their synthesis typically relies on the use of the toxic and highly reactive BrF3 as a precursor. Recently, we proposed chelation‐stabilized hypervalent bromine(III) compounds as a possible solution to both problems. First, they can be conveniently prepared by electro‐oxidation of the corresponding bromoarenes. Second, the chelation endows bromine(III) species with increased stability while retaining sufficient...
Hypervalent iodine reagents are environmentally benign alternatives to heavy metal oxidants. They a...
Successful crystallization and X-ray crystallographic analyses of the highly metastable (1∶1) comple...
Moving up a row in the Periodic Table leads from hypervalent iodine compounds to hypervalent bromine...
Hypervalent bromine(III) reagents possess a higher electrophilicity and a stronger oxidizing power c...
Hypervalent compounds play a prominent role in homogeneous oxidation catalysis. Despite the higher r...
The clean and facile electrochemical synthesis of hypervalent iodine reagents is a fast growing fiel...
Understanding the role of boranes in hypervalent iodine chemistry will open up new reactivities whic...
The bromination of organic molecules has been extensively studied to date, yet there is still a dema...
Bromination reactions are crucial in today’s chemical industry since the versatility of the formed o...
A reliable synthesis of unstable and highly reactive BrO2F is reported. This compound can be convert...
The need for environmentally safe reagents for the promotion of organic transformations is critical ...
Facile bromination of various organic substrates has been demonstrated with a 2 : 1 bromide:bromate ...
A mild, metal-free bromination method of arenes has been developed using the combination of bis(trif...
In past two decades, hypervalent iodine chemistry has developed as an important tool in synthetic an...
The reaction of electron-rich arenes with alkali metal bromides such as sodium and potassium bromid...
Hypervalent iodine reagents are environmentally benign alternatives to heavy metal oxidants. They a...
Successful crystallization and X-ray crystallographic analyses of the highly metastable (1∶1) comple...
Moving up a row in the Periodic Table leads from hypervalent iodine compounds to hypervalent bromine...
Hypervalent bromine(III) reagents possess a higher electrophilicity and a stronger oxidizing power c...
Hypervalent compounds play a prominent role in homogeneous oxidation catalysis. Despite the higher r...
The clean and facile electrochemical synthesis of hypervalent iodine reagents is a fast growing fiel...
Understanding the role of boranes in hypervalent iodine chemistry will open up new reactivities whic...
The bromination of organic molecules has been extensively studied to date, yet there is still a dema...
Bromination reactions are crucial in today’s chemical industry since the versatility of the formed o...
A reliable synthesis of unstable and highly reactive BrO2F is reported. This compound can be convert...
The need for environmentally safe reagents for the promotion of organic transformations is critical ...
Facile bromination of various organic substrates has been demonstrated with a 2 : 1 bromide:bromate ...
A mild, metal-free bromination method of arenes has been developed using the combination of bis(trif...
In past two decades, hypervalent iodine chemistry has developed as an important tool in synthetic an...
The reaction of electron-rich arenes with alkali metal bromides such as sodium and potassium bromid...
Hypervalent iodine reagents are environmentally benign alternatives to heavy metal oxidants. They a...
Successful crystallization and X-ray crystallographic analyses of the highly metastable (1∶1) comple...
Moving up a row in the Periodic Table leads from hypervalent iodine compounds to hypervalent bromine...