Isaac S Schomberg-Sanchez, Wilmar A Janusz, Christopher M Lemon
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Beyond BODIPY: dipyrrin complexes of P-block elements.
Dipyrrin has proven to be a versatile ligand platform for metals across the periodic table. Since much of the coordination chemistry has focused on transition metals, main-group dipyrrin chemistry has been underexplored, particularly in the case of heavy p-block elements. Boron dipyrrin complexes (also known as BODIPY) were initially reported in 1968, yet the first well-characterized example of a heavy p-block dipyrrin complex was in 2006. This nascent area of research has undergone a significant surge, where nearly half of the reports in this field have been published since 2019. Given this renewed interest and rapid development, we provide a focused review on heavy p-block dipyrrin complexes, describing the synthesis, structure, and spectroscopy of these molecules. One significant aspect of these complexes is their optical properties, which access red and near-infrared wavelengths with high quantum yields. While these main-group dipyrrins have been used as catalysts, they have also been leveraged for a variety of biological applications including photodynamic therapy, tumor imaging, and cytotoxic drugs. With the advent of synthetic methods for these novel p-block complexes, dipyrrins can begin to interface with recent advances and applications of main-group chemistry, potentially offering advantages over other ligand platforms.
期刊介绍:
The Journal of Coordination Chemistry publishes the results of original investigations of coordination complexes, loosely defined as the interactions of organic or inorganic ligands with metal centres. Original investigations may involve syntheses, structures, physical and chemical properties, kinetics and mechanisms of reactions, calculations and applications of coordination compounds. The applications may involve bioinorganic, organometallic, catalytic, solid state/materials, coordination chemistry of nanostructured surfaces and medicinal studies.
The Journal publishes original manuscripts, communications and reviews. Original manuscripts are expected to provide a clear contribution to the advance of coordination chemistry. Communications are short manuscripts with an urgency that requires rapid publication. Reviews are welcome in all areas of coordination chemistry and may focus on the metal, ligand or applications. Reviews of emerging areas of coordination chemistry should be developed fully from the basics, carefully relating the topic to the field in general. Reviews of well established subjects should collect developments from the literature and take a critical view of recent work.