Experimental and Theoretical Approaches Toward Anion-Responsive Tripod-Lanthanide Complexes: Mixed-Donor Ligand Effects on Lanthanide Complexation and Luminescence Sensing Profiles

A new series of tripods were designed to form anion‐responsive, luminescent lanthanide complexes. These tripods contain pyridine, thiazole, pyrazine, or quinoline chromophores combined with amide carbonyl oxygen and tertiary nitrogen atoms. Crystallographic and EXAFS studies of the 10‐coordinated tr...

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Veröffentlicht in:Chemistry : a European journal 2008-06, Vol.14 (17), p.5258-5266
Hauptverfasser: Kataoka, Yumiko, Paul, Dharam, Miyake, Hiroyuki, Yaita, Tsuyoshi, Miyoshi, Eisaku, Mori, Hirotoshi, Tsukamoto, Shinya, Tatewaki, Hiroshi, Shinoda, Satoshi, Tsukube, Hiroshi
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container_issue 17
container_start_page 5258
container_title Chemistry : a European journal
container_volume 14
creator Kataoka, Yumiko
Paul, Dharam
Miyake, Hiroyuki
Yaita, Tsuyoshi
Miyoshi, Eisaku
Mori, Hirotoshi
Tsukamoto, Shinya
Tatewaki, Hiroshi
Shinoda, Satoshi
Tsukube, Hiroshi
description A new series of tripods were designed to form anion‐responsive, luminescent lanthanide complexes. These tripods contain pyridine, thiazole, pyrazine, or quinoline chromophores combined with amide carbonyl oxygen and tertiary nitrogen atoms. Crystallographic and EXAFS studies of the 10‐coordinated tripod–La(NO3)3 complexes revealed that each La3+ cation was cooperatively coordinated by one tetradentate tripod and three bidentate NO3− anions in the crystal and in CH3CN. Quantum chemical calculations indicated that the aromatic nitrogen plays a significant role in lanthanide complexation. The experimentally determined stability constants of complexes of the tripod with La(NO3)3, Eu(NO3)3, and Tb(NO3)3 were in good agreement with the theoretically calculated interaction energies. Complexation of each tripod with lanthanide triflate gave a mixture of several lanthanide complex species. Interestingly, the addition of a coordinative NO3− or Cl− anion to the mixture significantly influenced the lanthanide complexation profiles. The particular combination of tripod and a luminescent Eu3+ center gave anion‐selective luminescence enhancements. Pyridine‐containing tripods exhibited the highest NO3− anion‐selective luminescence and thus permit naked‐eye detection of the NO3− anion. Bright sparks! A series of tripod–lanthanide complexes (see graphic) were experimentally and theoretically characterized. Some of them exhibited anion‐responsive luminescence signals and can thus be used for the naked‐eye detection of the NO3− anion.
doi_str_mv 10.1002/chem.200701898
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The particular combination of tripod and a luminescent Eu3+ center gave anion‐selective luminescence enhancements. Pyridine‐containing tripods exhibited the highest NO3− anion‐selective luminescence and thus permit naked‐eye detection of the NO3− anion. Bright sparks! A series of tripod–lanthanide complexes (see graphic) were experimentally and theoretically characterized. 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source MEDLINE; Wiley Online Library Journals Frontfile Complete
subjects Acetonitriles - chemistry
anion sensing
Anions - chemistry
Crystallography, X-Ray
density functional calculations
EXAFS spectroscopy
Heterocyclic Compounds - chemistry
lanthanides
Lanthanoid Series Elements - chemistry
Ligands
Luminescence
Magnetic Resonance Spectroscopy
Spectrophotometry, Ultraviolet
title Experimental and Theoretical Approaches Toward Anion-Responsive Tripod-Lanthanide Complexes: Mixed-Donor Ligand Effects on Lanthanide Complexation and Luminescence Sensing Profiles
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