We also present numerical assets on the major network parameters such as cell density, power dissipation and functional throughput, and compare them with the parameters projected for other nano-architectures such as CMOL-CrossNet, Quantum-Dot Cellular Automata, and Quantum Dot-Image Processor.
At 788 °C, the peak fuel cell power density was 0.69 W cm−2, and at a cell potential difference of 1.5 V, the electrolysis current density was 3.3 A cm−2, indicating that the performance of inkjet-printed YSZ-LSM electrodes can exceed those fabricated by conventional powder mixing processes.
Results show increased cell power density in comparison to non-spatial control strategies.
At 180 °C maximum CO air single cell power density was 17 mW cm−2 at cell voltage U = 0.18 V.
With 10 cells in series on the substrate, we achieved an open circuit voltage of 5.6 V and an average cell power density of 3 mW cm−2.
This finding explains why by improving flow uniformity in interconnects can result in more than 10% increase of the cell power density.
Of two proposed structures, the PANI/Pt/MWCNTs multilayer nanocomposites showed superior electrocatalytic activities in the hydrogen oxidation reaction and in fuel cell power density relative to the Pt/MWCNTs@PANI core shell design.
The fabricated composite membrane exhibited a maximum fuel cell power density of 150 mW cm−2, which was much higher that of Block-19 membrane and can be considered as a candidate for potential application in fuelcells.
With smooth treatment, the thickness aligned electrospun SPPESK membranes exhibit higher single cell power density and tensile strength as compared with Nafion 115 (around 1.2 and 1.5 folds, respectively).
Among the four reformer designs, IIR-SOFC containing an annular-coated wall reformer exhibited the highest performance in terms of cell power density (0.67 W·cm−2) and electrical efficiency (68%) with an acceptable temperature gradient and a moderate pressure drop across the reformer (3.53 × 10−5 kPa).
