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Development of the Ca/FeS2 Chemistry for Thermal Batteries
Alternative battery chemistries are the focus of growing attention due to their potential advantages over lithium; however, the field of thermal batteries sees much less research into alternative chemistries, as the current lithium alloy–metal sulfide cell is seen as the “gold standard”. In this wor...
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Published in: | Chemistry of materials 2021-09, Vol.33 (18), p.7367-7378 |
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container_start_page | 7367 |
container_title | Chemistry of materials |
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creator | Dickson, Stewart A. M Gover, Richard K. B Irvine, John T. S |
description | Alternative battery chemistries are the focus of growing attention due to their potential advantages over lithium; however, the field of thermal batteries sees much less research into alternative chemistries, as the current lithium alloy–metal sulfide cell is seen as the “gold standard”. In this work, we demonstrate the operation of a thermal battery using a calcium-containing eutectic and calcium metal against the FeS2 cathode material. An initial assessment of the CaCl2–NaCl eutectic is presented, showing that it is a good candidate for use as an electrolyte. Cells were assembled and characterized using a range of physical and electrochemical techniques, and their properties were studied. Discharge voltages at low current densities were promising, with cells displaying discharge voltages >2 V and capacities in excess of 100 mAh g–1. Rate capability was also explored, which can be improved by modification of the cathode. Although the cathode material was not fully utilized during discharge, there was evidence of electrochemical reactions occurring, which were explored in detail using powder X-ray diffraction (PXRD), scanning electron microscopy (SEM), and neutron diffraction. It is hoped that these results will stimulate development and ideas for high-temperature battery chemistries, expanding the horizons of these types of batteries for new applications. |
doi_str_mv | 10.1021/acs.chemmater.1c01864 |
format | article |
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Discharge voltages at low current densities were promising, with cells displaying discharge voltages >2 V and capacities in excess of 100 mAh g–1. Rate capability was also explored, which can be improved by modification of the cathode. Although the cathode material was not fully utilized during discharge, there was evidence of electrochemical reactions occurring, which were explored in detail using powder X-ray diffraction (PXRD), scanning electron microscopy (SEM), and neutron diffraction. 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Discharge voltages at low current densities were promising, with cells displaying discharge voltages >2 V and capacities in excess of 100 mAh g–1. Rate capability was also explored, which can be improved by modification of the cathode. Although the cathode material was not fully utilized during discharge, there was evidence of electrochemical reactions occurring, which were explored in detail using powder X-ray diffraction (PXRD), scanning electron microscopy (SEM), and neutron diffraction. 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title | Development of the Ca/FeS2 Chemistry for Thermal Batteries |
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