Robust Room Temperature Hysteresis in an FeIII Spin Crossover Metallomesogen
Anthony J. Fitzpatrick, Paulo N. Martinho, Brendan Gildea, John D. Holbrey, Grace Genevieve Morgan
Abstract
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Anthony J. Fitzpatrick, Paulo N. Martinho, Brendan Gildea, John D. Holbrey, Grace Genevieve Morgan
Abstract
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Abstract The high temperature magnetic and structural properties of an amphiphilic iron(III) spin crossover complex are reported. Thermal cycling reveals a scan rate‐dependent 20 K thermal hysteresis in the mT vs. T data close to room temperature. A fast scan rate is essential for the hysteresis but it is robust and reproducible after multiple thermal cycles. Differential scanning calorimetry and cross polarized microscopy are used to show that the magnetic switching aligns with a material state change from solid to ordered liquid phase on warming.
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Abstract The high temperature magnetic and structural properties of an amphiphilic iron(III) spin crossover complex are reported. Thermal cycling reveals a scan rate‐dependent 20 K thermal hysteresis in the mT vs. T data close to room temperature. A fast scan rate is essential for the hysteresis but it is robust and reproducible after multiple thermal cycles. Differential scanning calorimetry and cross polarized microscopy are used to show that the magnetic switching aligns with a material state change from solid to ordered liquid phase on warming.
Key concepts: Thermal hysteresis, Differential scanning calorimetry, Chemistry, Spin crossover, Hysteresis, Temperature cycling, Thermal, Magnetic hysteresis