1. Compared with commercial SPE adsorbents, MIP-IL@UiO-66 exhibited better adsorption performance. Then the MISPE column based on MIP-IL@UiO-66 was built and combined with high-performance liquid chromatography (HPLC) to absorb and sense sulfamethoxazole in pork, egg, soil, and water samples, satisfactory recoveries of 91-106% were obtained. Ahmadijokani et al. used a well-known stable UiO-66 MOF for cationic and anionic dye removal from aqueous solutions [81]. Through a series of experimental characterizations, pristine UiO-66 showed outstanding structural stability against DMF, chloroform, and water. The adsorption capacity was 384 mg/g for methyl red, 454 mg/g for methyl orange, 133 mg/g for malachite green, and 370 mg/g for methylene blue, and the partition coefficients were 1.137, 2.208, 0.070, and 1.345 mg/g �M, respectively. The excellent absorption capability can be attributed to the physical adsorption, ?-? stacking interaction, hydrogen bonding, electrostatic interaction, and porous capture. Furthermore, UiO-66 nanoparticles aged in water exhibited a larger propensity to adsorb anionic methyl red and methyl orange than cationic malachite green, mainly because of the electrostatic attractions therein. Yu et al. produced a chemically stable Zr(IV)-based MOF (BUT-17) for simultaneous adsorption and determination of bisphenol compounds (BPs) [82]. At first, the generated BUT-17 had a large surface area of 2936 m 2 /g, which can achieve efficient and rapid adsorption of BPs with an adsorption capacity of 111 mg/g and an adsorption rate of 1.76 g/mg/min;MIP-IL@UiO-66 had the advantages of excellent adsorption selectivity (selectivity coefficient, 11.36), ultrafast equilibrium rate (equilibrium time, 10 min), good reusability (number of cycles, five times), and large adsorption capability (maximum capacity
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