Here, we have identified that the key issue for rational transitioning from spin-coating to blade-coating processes of perovskite films arises from whether intermediate phases participate in the phase transition.
The rational combination of transition metal oxides and carbon materials has been regarded as an efficient way of accessing the next-generation electrode materials for electrochemical capacitors.
The study in understanding the structural effect of Cu-doped glass on luminescence would be an important step towards the rational design of transition metal doped luminescent glasses for various applications.
The finding provides new opportunities for revealing the relationship of structures and catalytic performance, and insights in the rational design of transition metal oxides as catalysts or supports for renewable energy and fuel production.
The significant AIE, TA and OPL properties of these complexes would be useful for rational design of transition-metal complexes with high emission quantum yield, broadband excited-state absorption, long excited-state lifetime, and strong nonlinear absorption for multi-functional applications.
It does mean that we need to unite to put in place the price and regulatory frameworks to ensure a rational social and economic transition.
In this work, we show an effective strategy combining experimental and computational methods to explore and clarify rational design approaches utilizing transition metals for enhanced electrocatalysis of oxygen reactions.
