BiOI microspheres were synthesized via a facile hydrolytic method with sodium dodecyl sulfate （SDS）. The results showed that 8% SDS-BiOI microspheres possessed the homogeneous morphology, larger specific surface are...BiOI microspheres were synthesized via a facile hydrolytic method with sodium dodecyl sulfate （SDS）. The results showed that 8% SDS-BiOI microspheres possessed the homogeneous morphology, larger specific surface area and more oxygen vacancies compared with the pure BiOl. Moreover, the adsorption efficiency of rhodamine B （RhB） and methyl orange （MO） for 8% SDS-BiOI reached almost 96.4% and 79.4%, respectively. It was found that the oxygen vacancy induced by SDS improved adsorption performance of BiOI due to the enhanced electrostatic interaction.展开更多
A new type of simple emissive organic cage consisting of diphenyl sulfone units and nitrogen atoms was developed via one-pot C–N coupling condensation or two-step reactions along with a series of sulfoxide cages obta...A new type of simple emissive organic cage consisting of diphenyl sulfone units and nitrogen atoms was developed via one-pot C–N coupling condensation or two-step reactions along with a series of sulfoxide cages obtained, which exhibited excellent chemical modifiability and structural stability. By precisely controlling the participation of donor and acceptor units, a highly soluble organic cage with delayed fluorescence was obtained for the first time. More interestingly, due to the restriction of intramolecular flipping by locking the building blocks within a rigid framework, this emissive organic cage further showed narrowband ultra-deep blue electroluminescence emission at 413 nm with a full-width at half-maximum of 35 nm. This finding not only expands the family of electroluminescent organic cages, but also opens up a new platform for delayed fluorescence materials with high solubility and color purity.展开更多
基金supported by the National Natural Science Foundation of China (No. 11179029)the Science Technology PlanProject of Hebei Province (No. 15211109D)Hebei Normal University (No. L2017K05)
文摘BiOI microspheres were synthesized via a facile hydrolytic method with sodium dodecyl sulfate （SDS）. The results showed that 8% SDS-BiOI microspheres possessed the homogeneous morphology, larger specific surface area and more oxygen vacancies compared with the pure BiOl. Moreover, the adsorption efficiency of rhodamine B （RhB） and methyl orange （MO） for 8% SDS-BiOI reached almost 96.4% and 79.4%, respectively. It was found that the oxygen vacancy induced by SDS improved adsorption performance of BiOI due to the enhanced electrostatic interaction.
基金supported by the Basic and Applied Basic Research Major Program of Guangdong Province (2019B030302007)the Program for Science and Technology Development of Dongguan (2019622163009)the National Natural Science Foundation of China (21905048)。
文摘A new type of simple emissive organic cage consisting of diphenyl sulfone units and nitrogen atoms was developed via one-pot C–N coupling condensation or two-step reactions along with a series of sulfoxide cages obtained, which exhibited excellent chemical modifiability and structural stability. By precisely controlling the participation of donor and acceptor units, a highly soluble organic cage with delayed fluorescence was obtained for the first time. More interestingly, due to the restriction of intramolecular flipping by locking the building blocks within a rigid framework, this emissive organic cage further showed narrowband ultra-deep blue electroluminescence emission at 413 nm with a full-width at half-maximum of 35 nm. This finding not only expands the family of electroluminescent organic cages, but also opens up a new platform for delayed fluorescence materials with high solubility and color purity.
