Results 51 to 60 of about 489,830 (307)
Electric Potential Distribution Inside the Electrolyte During High Voltage Electrolysis [PDF]
, 2022 Applying an external potential difference between two electrodes leads to a voltage drop in an ion conducting electrolyte. This drop is particularly large in poorly conducting electrolytes and for high currents.
Albert Kilian, Engstfeld +3 more
core +2 more sources
Advanced Engineering Materials, EarlyView.Thermomechanical fatigue tests of laser beam powder bed fusion (PBF‐LB) Inconel 718 show that the additively manufactured material reaches almost the lifetimes of conventionally‐rolled material under no‐dwell conditions. Introducing dwell times at the maximum temperature markedly reduces the lifetimes due to pronounced grain boundary sliding associated
Stefan Guth +6 more
wiley +1 more source
Advanced Engineering Materials, EarlyView.Scandium (Sc)‐doped AlCoCrFeMo HEA coatings are fabricated via flame spraying with 0.1, 0.3, and 0.5 wt% Sc additions. Among these, the HEA‐Sc0.3 coating exhibits the highest corrosion resistance, indicated by a more positive corrosion potential and lower current density.
Pankaj Kumar +7 more
wiley +1 more source
, 2020 Electrolyte additives have been explored to attain significant breakthroughs in the long-term cycling performance of lithium-ion batteries (LIBs) without sacrificing energy density; this has been achieved through the development of stable electrode ...
Koeun Kim +7 more
core +1 more source
Machine Learning 3D-Resolved Prediction of Electrolyte Infiltration in Battery Porous Electrodes [PDF]
, 2021 Electrolyte infilitration is one of the critical steps of the manufacturing process of lithium ion batteries. Along with being the most time-consuming step in manufacturing, electrolyte wetting directly impacts the battery cell energy density, power ...
Alejandro A., Franco +5 more
core +1 more source
Rapidly Solidified High‐Strength Invar 36 Prepared by Planar‐Flow Melt Spinning
Advanced Engineering Materials, EarlyView.The Invar 36 alloy was rapidly solidified using the planar‐flow melt‐spinning technique. Ribbon samples with thicknesses ranging from 20 to 160 mm were produced. As the grain size of the ribbon decreased to sub‐micron levels, the hardness increased by more than 2 times.
Bekir Akgül, Mehmet Kul
wiley +1 more source
Electrolyte-supported solid oxide fuel cells for gas sensing applications
, 2021 Solid Oxide Fuel Cells show an ability to generate voltage and current outputs proportional to the type and concentration of fuel being supplied, and hence show sensitivity to these measures.
Vijay Venkatesan (2835221)
core +1 more source
Role of electrolyte pH on water oxidation for iridium oxides [PDF]
, 2023 Understanding the effect of non-covalent interactions of intermediates at the polarized catalyst-electrolyte interface on water oxidation kinetics is key for designing more active and stable electrocatalysts.
Ifan, Stephens +9 more
core +2 more sources
A Novel Approach to Estimate the Transition Temperature via Dynamic Nanoindentation
Advanced Engineering Materials, EarlyView.A new dynamic nanoindentation‐based method was developed that uses the stiffness ratio as an indicator of the elastic–plastic deformation contributions at different temperatures. The approach successfully identified transition temperatures in ferritic steel and distinguished them from continuously ductile austenitic steel.
Stefan Zeiler +4 more
wiley +1 more source
Material development II : Natural material-based composites for electrolyte layer-free fuel cells
, 2020 In this chapter, the development of natural materials including rare-earth oxide, hematite ore, CuFe oxide minerals, and bio-derived calcite for electrolyte-free fuel cell (EFFC) application is introduced.
Chen Xia +3 more
core +1 more source