Structural versus electrical properties of an organic-inorganic hybrid material based on sulfate

Crystal structure and electronic structure calculations of a novel organic triphosphate complex: excellent electrochemical properties with ultra-efficient lithium storage capacity

“…O( 8) O( 10) O( 9) O( 7) 45 (6) 107.08 (6) 108.64 ( 5) O (10) 119.45 (6) À 1 À : À 4 À 9 À 7 À 0( À 1 À 0) 111.52 (6) 103.50 ( 5) O (9) 107.08 (6) 111.52 (6) À 1 À : À 5 À 6 À 4 À 1( À 1 À 0) 105.81 ( 5) O (7) 108.64 (5) 103.50 ( 5) dissociation occurring within the temperature range of 180-280 1C. Triphosphoric anions begin to decompose across a broad temperature range just prior to 300 degrees Celsius.…”

“…Hybrid materials have the capability to perform a wide range of functions. [1][2][3][4] Such materials may be used for academic and research purposes in technology applications, such as optics, electronics, 5 mechanics, sensors, magnetism, 6 catalysis, and medicine. 7 The focus is particularly on phosphate-based hybrid compounds, including triphosphates, such as those with the general anionic formula [P 3 O 10 ] 5À .…”

“…Hybrid materials have the capability to perform a wide range of functions. 1–4 Such materials may be used for academic and research purposes in technology applications, such as optics, electronics, 5 mechanics, sensors, magnetism, 6 catalysis, and medicine. 7…”

Growth, crystal structure, Hirshfeld surface analysis, DFT studies, physicochemical characterization, and cytotoxicity assays of novel organic triphosphate

“…Up to date, hybrid solids are subject to many scientific studies due to their low cost, ease of synthesis, structural tenability and specific physical, chemical and biological properties. Such materials can be applied in both academic research and technological applications such as optic [8,9], electronic [10], mechanics, sensors, magnetism [11,12], catalysis and medicine [13,14].…”