Abstract
Calcined silica SiO2 hollow spheres (SHS), with a specific surface area of 523 m2 g−1, were used as porous scaffolds of ammonia borane (AB). AB is used as precursor of boron nitride BN. By capillary effect, AB was infiltrated into the porosity of the SHS, and the as-obtained composite AB@SHS was pyrolyzed. Up to 160 °C, AB transforms into polyborazylene (PB); as a result, the composite PB@SHS was produced. Up to 600 °C, BN forms, and the composite BN@SHS was produced. Both composites are porous, with a specific surface area of 360 and 296 m2 g−1 respectively. Results from MAS NMR and XPS analyses showed that PB@SHS and BN@SHS contain B–O bonds, with more B–O bonds and possibly Si–O–B bonds for the latter. In other words, PB@SHS is made of PB, B–O bonds, and SiO2, while BN@SHS is made of BN, B–O bonds, possibly a Si–O–B interface, and SiO2. Based on first attempts, BN@SHS appeared to have a potential for improving the CO2 adsorption properties of the calcined SHS. Expressed in cm3(CO2) g−1, the CO2 uptakes are 6.7 for BN@SHS and 6.3 for the calcined SHS, at 30 °C under 1.5 bar CO2; but expressed in mm3(CO2) m−2, the respective CO2 uptakes are 22.6 and 12.
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Acknowledgements
We thank Mr. Kevin Turani-I-Belloto (University of Montpellier) who, at the very start of the project, helped TU in his laboratory work, as well as Mr. Damien Alligier (University of Montpellier) who assisted TU. UBD thanks Mrs. Rimeh Mighri and Dr. Johan Alauzun (University of Montpellier) for the density measurements.
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Syntheses and characterizations by TU and CACM; CO2 sorption measurements by JC; SEM by DC; Work led UBD; Data analyses and manuscript writing by UD, with help from CACM and TU; Manuscript validation by all.
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Umegaki, T., Castilla-Martinez, C.A., Cartier, J. et al. The porous composite BN@SHS made of boron nitride, silica hollow spheres and Si–O–B interface. J Porous Mater 29, 651–662 (2022). https://doi.org/10.1007/s10934-021-01189-8
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DOI: https://doi.org/10.1007/s10934-021-01189-8