The development of clean and efficient energy conversion and storage systems is becoming
increasingly vital as a result of accelerated global energy consumption. Solid oxide fuel cells …

The development of proton-conducting solid oxide electrolysis cells for the intermediate-
temperature range application is largely hindered by the limited choice of adequate anode …

High-temperature technologies like solid oxide cells (SOC) have been employed to provide
power-to-fuel and vice versa for energy conversion and storage. These technologies are a …

High power density is required to commercialize solid oxide fuel cells for vehicular
applications. In this work, high performance of metal supported solid oxide fuel cells (MS …

Improving the activity of a cathode material towards the oxygen reduction reaction (ORR)
and its tolerance against CO 2 impurities is of prime importance to realizing the application …

Breast cancer remains one of the commonly prevailing and challenging diseases.
Lanthanide-based nanomaterials are fascinating depending on their unique properties and …

The next generation of fuel cells, electrolyzers, and batteries requires higher power, faster
kinetics, and larger energy density, which necessitate the use of compositionally complex …

The electrochemical performance and stability of infiltrated praseodymium nickelate (PNO)
as the cathode for solid oxide fuel cell (SOFC) applications was studied. PNO cathode (Pr 2 …

The cathode activity in a solid oxide fuel cell can be promoted by introducing various
catalysts to reduce its polarization resistance towards oxygen reduction, and thus improve …

Abstract Pr 2 NiO 4 (PNO) is a known active oxygen electrode for solid oxide cells but
undergoes phase transformation at high temperatures. An in-situ synchrotron study on PNO …