Palladium catalysed reactions are ubiquitous in synthetic organic chemistry in both organic
solvents and aqueous buffers. The broad reactivity of palladium catalysis has drawn interest …

Highlights•Bioorthogonal strategies for tagging biomolecules catalysed by palladium.•Pd-
mediated intracellular C–C bond formation inside cells.•Pd-mediated surface modification of …

The field of site‐specific modification of proteins has drawn significant attention in recent
years owing to its importance in various research areas such as the development of novel …

Palladium is probably the most versatile and exploited transition metal in catalysis due to its
capability to promote a myriad of organic transformations both at laboratory and industrial …

Bioorthogonal reactions have dramatically enhanced our ability to modify and manipulate
biomolecules within their native cellular context.[1] The CuI-catalysed azide–alkyne …

Owing to their bioorthogonality, transition metals have become very popular in the
development of biocompatible bond‐cleavage reactions. However, many approaches …

Palladium, a key transition metal in advancing modern organic synthesis, mediates diverse
chemical conversions including many carbon–carbon bond formation reactions between …

This review mainly discusses the various supporting tactics that have been used for the
immobilization of Pd complexes, and Pd nanoparticles typically on biopolymers, and the …

Palladium-catalyzed reactions are having a great impact on the synthesis of medicinal
agents due to their ability to form carbon-carbon and carbon-heteroatom bonds effectively …

Many important intracellular biochemical reactions are modulated by transition metals,
typically in the form of metalloproteins. The ability to carry out selective transformations …