The electrochemical synthesis of mesoporous ruthenium (Ru) films using sacrificial self-assembled block polymer micelles templates, and its electrochemical surface oxidation to RuO is described. Unlike standard methods such as thermal oxidation, the electrochemical oxidation method described here retains the mesoporous structure. Ru oxide materials serve as high-performance supercapacitor electrodes due to their excellent pseudocapacitive behavior. The mesoporous architectured film shows superior specific capacitance (467 F g) versus a nonporous Ru/RuO electrode (28 F g) that is prepared via the same method but omitting the pore-directing polymer. Ultrahigh surface area materials will play an essential role in increasing the capacitance of ...
Electrode material is the key player in supercapacitor applications, in addition to electrolyte and ...
In this rising field of portable electronics, all solid state thin film supercapacitors (ASSTFSs) ha...
International audienceFlexible and miniaturized energy storage devices are necessary for the develop...
Synthesis of ordered mesoporous RuOx electrodes was conducted by electro-deposition using a lyotropi...
Mesoporous PtRu alloy films with various compositions were synthesized by electrochemical plating in...
As a newly emerging excellent energy storage device, supercapacitors have been widely studied due to...
International audienceMicrosupercapacitor electrodes with 3D architectures have drawn increasing int...
Mesoporous, nanocrystalline metallic lead ruthenium oxide (a pyrochlore) was synthesized through the...
International audienceTo power the next generation of miniaturized electronic devices, 3D micro-supe...
Nanotubular ruthenium oxides were prepared by using manganite nanorods as a morphology sacrificial t...
High-surface-area mesoporous materials expose abundant functional sites for improved performance in ...
A new ruthenium cobalt oxide (RuCo2O4) with a unique marigold‐like nanostructure and excellent perfo...
We here demonstrate the formation of bundles of RuO2 nanoneedles (ca. 100 nm diameter) by a template...
Ruthenium dioxide is deposited on stainless steel (SS) substrate by galvanostatic oxidation of Ru3+....
Electrode material is the key player in supercapacitor applications, in addition to electrolyte and ...
In this rising field of portable electronics, all solid state thin film supercapacitors (ASSTFSs) ha...
International audienceFlexible and miniaturized energy storage devices are necessary for the develop...
Synthesis of ordered mesoporous RuOx electrodes was conducted by electro-deposition using a lyotropi...
Mesoporous PtRu alloy films with various compositions were synthesized by electrochemical plating in...
As a newly emerging excellent energy storage device, supercapacitors have been widely studied due to...
International audienceMicrosupercapacitor electrodes with 3D architectures have drawn increasing int...
Mesoporous, nanocrystalline metallic lead ruthenium oxide (a pyrochlore) was synthesized through the...
International audienceTo power the next generation of miniaturized electronic devices, 3D micro-supe...
Nanotubular ruthenium oxides were prepared by using manganite nanorods as a morphology sacrificial t...
High-surface-area mesoporous materials expose abundant functional sites for improved performance in ...
A new ruthenium cobalt oxide (RuCo2O4) with a unique marigold‐like nanostructure and excellent perfo...
We here demonstrate the formation of bundles of RuO2 nanoneedles (ca. 100 nm diameter) by a template...
Ruthenium dioxide is deposited on stainless steel (SS) substrate by galvanostatic oxidation of Ru3+....
Electrode material is the key player in supercapacitor applications, in addition to electrolyte and ...
In this rising field of portable electronics, all solid state thin film supercapacitors (ASSTFSs) ha...
International audienceFlexible and miniaturized energy storage devices are necessary for the develop...