Data for: Glowing kaolinite intercalated with N-Methyl imidazole and Eu3+/Tb3+ salts and potential application in UV-to-red light conversion

Figure S1: PXRD patterns in the 2 range of 20-26 of raw Kaolinite used in this study, and HI analysis for the structure order degree (ref. Aparicio P. & Galan, E. 1999). Figure S2 PXRD patterns of the samples of raw Kaolinite, K-DMSO and K-NMI, respectively, in the 2 range of 5-50. Figure S3: Optical photos of K-NMI-Eu@PVDF-X (X = 1, 2, 5, 10%, representing the mass percentage of K-NMI-Eu in film). Figure S4: TG plots of Eu and Tb nitrates in 25-800 C. Table S1: ICP results for Raw Kaolinite we sued in this study Table S2: The room temperature quantum yield value of K-NMI-Eu in comparison with other Eu3+ / Tb3+solid state light emitting materials.图S1：本研究所用原始高岭石在2θ范围20~26°的X射线粉末衍射（PXRD）图谱，以及用于表征其结构有序度的HI分析（参考文献：Aparicio P. & Galan, E. 1999）。 图S2：分别为原始高岭石、K-DMSO与K-NMI样品在2θ范围5~50°的X射线粉末衍射（PXRD）图谱。 图S3：K-NMI-Eu@聚偏氟乙烯（PVDF）-X（X=1、2、5、10，代表K-NMI-Eu在薄膜中的质量占比）样品的光学照片。 图S4：硝酸铕与硝酸铽在25~800℃区间的热重（TG）曲线。 表S1：本研究所用原始高岭石的电感耦合等离子体（ICP）测试结果。 表S2：K-NMI-Eu的室温量子产率值，并与其他Eu³⁺/Tb³⁺固态发光材料进行对比。