Incorporation of the multidentate additive H3TATB optimizes 1.84 eV perovskite films by restricting crystallization and suppressing halide segregation. The resulting devices achieve a high power conversion efficiency of 19.26% and enhanced stability.
The water solubility challenge of hydrophobic carboxylate HOF linkers is addressed by a His-promoted dissolution strategy, enabling the construction of high-performance enzyme@HOF biocomposites under entirely aqueous and biocompatible conditions.
An infinite multi-walled ultramicroporous MOF has been designed and prepared from a classical H3TATB linker and In(III) ions, exhibiting good C2H2/CO2 separation performance in both dry and humid gas phases.
An in situ reconstruction of a Bi-MOF into an efficient catalyst to reduce CO2 to formate was demonstrated.
The Knoevenagel condensation reaction is one of the important and versatile transformations used to prepare a wide range of organic compounds bearing carbon–carbon double bonds.