This research has progressed to an effective detection chemosensor of zinc, aluminum ions and oxytetracycline hydrochloride antibiotic based on the fluorescence technique. A straightforward method utilizing microwave irradiation was employed to synthesize the salen‐type Schiff base ligand N,N′‐bis(salicylaldehyde)4,5‐dichloro‐1,2‐phenylenediamine ( H 2 I ), providing a good 70 % yield. In ethanol, the H 2 I sensor demonstrated remarkable rapidity, selectivity, and sensitivity in detecting zinc ions. The fluorescence spectrum exhibited a 44‐fold substantial enhancement at 522 nm and achieved a low limit of detection (LOD) of 1.47 μM. Furthermore, the H 2 I probe's emission intensity increased by 124 times when compared to the ligand's ability to detect Al 3+ ions at 494 nm with a LOD value of 7.4 μM. Additional research was done using the H 2 I probe's effective Zn 2+ detection capability. The ability to recognize zinc ions in different real water samples demonstrated a recovery rate of 98.67 % to 103.31 %. Interestingly, a naked‐eye visible fluorescence color of H 2 I solution impregnated filter papers turned colorless into yell ow under UV irradiation by adding Zn 2+ ions, renders it suitable for developing a practical zinc ion detection kit test. In particular, the I‐Zn 2+ complex effectively quenched the fluorescence toward oxytetracycline hydrochloride (OTC) with a LOD value of 1.49×10 −2 μM in DMSO:H 2 O (6 : 4, v/v ). This is a novel and effective procedure for sensing OTC antibiotic by the I‐Zn 2+ complex. These findings hold immense potential for the development of dual fluorescent probes, thereby enhancing sensitivity and specificity in identifying metal ions and antibiotics in a wide range of applications.
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Nguyen et al. (2024) studied this question.
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