Publications by authors named "Lian-Wen Zhu"

Article Synopsis
  • Researchers have designed a new catalyst using a combination of a crystalline Fe/Ni bimetallic metal-organic framework (MOF) and an amorphous Fe-MOF to enhance oxygen evolution reactions during electrolysis.
  • This catalyst features a unique lattice-heterostructure interface that boosts electron transfer, leading to impressive catalytic activity with a low overpotential of 257 mV at a current density of 10 mA cm.
  • Additionally, the catalyst shows excellent electrochemical stability, highlighting the potential of lattice-heterostructure interfaces for creating high-performance catalysts.
View Article and Find Full Text PDF

When it comes to an efficient catalytic oxygen evolution reaction (OER) in the production of renewable energy and chemicals, the construction of heterogeneous structures is crucial to break the linear scalar relationship of a single catalyst. This heterogeneous structure construction helps creatively achieve high activity and stability. However, the synthesis process of heterogeneous crystalline materials is often complex and challenging to capture and reproduce, which limits their application.

View Article and Find Full Text PDF

A novel BiOBr@TiO/carbon hybrid framework as a continuous flow sunlight water purification system has been reported in the present work. The BiOBr@TiO/carbon hybrid framework was fabricated via the sequential growth of TiO nanowires and BiOBr nanoplates on carbon fiber cloth. TiO nanowires interweaved with carbon fibers to form a porous network, while BiOBr nanoplates were arrayed on TiO nanowires.

View Article and Find Full Text PDF

Treatment of [Et(4)N][Tp*WS(3)] (1) (Tp* = hydridotris(3,5-dimethylpyrazol-1-yl)borate) with 2 equiv of AgSCN in MeCN afforded a novel neutral compound [(Tp*WS(2))(2)(μ-S(2))] (2). Reactions of 2 with excess CuX (X = Cl, Br, I) in MeCN and CH(2)Cl(2) or CHCl(3) formed three neutral W/Cu/S clusters [{Tp*W(μ(3)-S)(3)Cu(3)(μ-Cl)}(2)Cu(μ-Cl)(2)(μ(7)-Cl)(MeCN)](2) (3), [{Tp*W(μ(3)-S)(3)Cu(3)}(2)Br(μ-Br)(2)(μ(4)-Br)(MeCN)] (4), and [{Tp*W(μ(3)-S)(3)Cu(3)}(2){Cu(2)(μ-I)(4)(μ(3)-I)(2)}] (5), respectively. On the other hand, treatment of 2 with CuX (X = Cl, Br) in the presence of Et(4)NX (X = Cl, Br) produced two anionic W/Cu/S clusters [Et(4)N][{Tp*W(μ(3)-S)(3)Cu(3)X}(2)(μ-X)(2)(μ(4)-X)] (6: X = Cl; 7 X = Br).

View Article and Find Full Text PDF