Enabling Low-Cost Molten Sodium Batteries Through Engineered Catholyte-Separator Materials Chemistry.
Abstract not provided.
Spoerke, Erik↗
Engineering topics
Maraschky, Adam
Publications and source records attributed to Maraschky, Adam.
Higher Energy Density Mediated Lithium-Sulfur Flow Batteries.
Abstract not provided.
Meyerson, Melissa↗
Higher Energy Density Mediated Lithium-Sulfur Flow Batteries.
Abstract not provided.
Meyerson, Melissa↗
Optimizing the Current Collector for Sodium Iodide-Metal Halide Catholytes in Low-Temperature Molten Sodium Batteries .
Abstract not provided.
Maraschky, Adam↗
Exploring a Battery Worth Its Salt: Ceramic-Salt Interactions in a Low-Temperature Molten Sodium Battery.
Abstract not provided.
Spoerke, Erik↗
Evaluation of bio-inspired flow fields in a mediated Li-S flow battery for grid energy storage
Lithium-sulfur is a redox flow battery with high energy density for applications in safe, reliable, and lasting scaling of energy. However, lithium-based batteries often encounter platting as a problem thanks to poor Li-ions deposition after cycling. Aiming to reduce this impact, a uniform and continuous flow of ions is needed. On this work, novel bio-inspired flow fields in the electrochemical cell were tested to improve ions flowability and lithium platting control, ultimately enhancing battery performance and life. To secure Li-S efficient, low-cost, and secure energy storage capabilities, we chose a configuration with decamethylferrocene and cobaltocene acting as redox mediators, Li metal as anode and sulfur kept in a separate catholyte reservoir. Flow test and battery results insinuated a beneficial influence of bio-inspired designs in flowing electrolyte uniformly with less pressure and pump power in comparison to other conventional designs used in the industry, with an encouraging ability to approach a cheap, safe, and reliable Li-S grid energy storage.
25 ENERGY STORAGE↗
Keep It Lewis-Basic: Stability of NaSICON Separators in AlCl3-NaI Catholytes for Molten Sodium Batteries.
Abstract not provided.
Maraschky, Adam↗
Low-Temperature Molten Sodium Batteries for Large-Scale Storage: Fundamental Studies of Metal Halide Catholyte and Cathode Materials.
Abstract not provided.
Maraschky, Adam↗
Molten Salt-Based Batteries for Safe, Reliable, Long-Duration Energy Storage.
Abstract not provided.
Spoerke, Erik↗
Redox Mediated Li-S Flow Battery for Grid-Scale Energy Storage Applications.
Abstract not provided.
Meyerson, Melissa↗
Experimental and Modeling Studies of Metal Halide Catholyte and Cathode Materials to Enable Low-Temperature Molten Sodium Batteries .
Abstract not provided.
Maraschky, Adam↗
Higher Surface Area Lithium Anode for Mediated Lithium-Sulfur Flow Batteries.
Abstract not provided.
Meyerson, Melissa↗