Metal free bioimaging reagent for intracellular citrate in prostate cancer cells using aryl boronate derivative

[Display omitted] •A novel boronate derivative was designed and synthesized for use as a metal-free citrate sensor.•The sensor changes color from blue to green in the presence of citrate.•Sensor showed 500-fold selectivity over other carboxylates, and the LOD was 10 nM.•This probe showed low cytotox...

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Veröffentlicht in:Sensors and actuators. B, Chemical Chemical, 2018-04, Vol.259, p.90-96
Hauptverfasser: Rajalakshmi, Kanagaraj, Nam, Yun-Sik, Selvaraj, Muthusamy, Lee, Yeonhee, Lee, Kang-Bong
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container_start_page 90
container_title Sensors and actuators. B, Chemical
container_volume 259
creator Rajalakshmi, Kanagaraj
Nam, Yun-Sik
Selvaraj, Muthusamy
Lee, Yeonhee
Lee, Kang-Bong
description [Display omitted] •A novel boronate derivative was designed and synthesized for use as a metal-free citrate sensor.•The sensor changes color from blue to green in the presence of citrate.•Sensor showed 500-fold selectivity over other carboxylates, and the LOD was 10 nM.•This probe showed low cytotoxicity and can be utilized for the detection of citrate in live PC3 cells. A boronate group integrated on a triphenylimidazoleoxadiazolephenyl (TPIOP) moiety exhibited unusual sensing and detection abilities towards citrate. TPIOP boronate exhibited a bathochromic shift in its fluorescence emission upon interaction with citrate. Quantification of trace levels of citrate ions in the human body may aid in the diagnosis of prostate cancer and kidney malfunctions. Herein, a novel, metal-free sensing strategy for citrate was developed based on fluorimetric detection with TPIOP boronate. The fluorescence of TPIOP boronate increased linearly and was gradually red-shifted upon addition of citrate. The enhanced emission intensity was attributed to aggregation induced emission. The vacant ‘p’ orbital of boron in TPIOP boronate acts as a Lewis acid, and accepts electrons from citrate, which is a Lewis base. Upon binding, the hybridization geometry of boron changes from sp2 trigonal planar to sp3 tetrahedral. The TPIOP boronate-citrate aggregates increase the polarity of TPIOP-boronate, which caused the red shift in the fluorescence. Citrate could be detected visually using a UV lamp, as the probe changed from blue to green upon interaction with the analyte. The developed probe was applied for the visualization of endogenous citrate in PC3 live cells.
doi_str_mv 10.1016/j.snb.2017.12.047
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A boronate group integrated on a triphenylimidazoleoxadiazolephenyl (TPIOP) moiety exhibited unusual sensing and detection abilities towards citrate. TPIOP boronate exhibited a bathochromic shift in its fluorescence emission upon interaction with citrate. Quantification of trace levels of citrate ions in the human body may aid in the diagnosis of prostate cancer and kidney malfunctions. Herein, a novel, metal-free sensing strategy for citrate was developed based on fluorimetric detection with TPIOP boronate. The fluorescence of TPIOP boronate increased linearly and was gradually red-shifted upon addition of citrate. The enhanced emission intensity was attributed to aggregation induced emission. The vacant ‘p’ orbital of boron in TPIOP boronate acts as a Lewis acid, and accepts electrons from citrate, which is a Lewis base. Upon binding, the hybridization geometry of boron changes from sp2 trigonal planar to sp3 tetrahedral. The TPIOP boronate-citrate aggregates increase the polarity of TPIOP-boronate, which caused the red shift in the fluorescence. Citrate could be detected visually using a UV lamp, as the probe changed from blue to green upon interaction with the analyte. The developed probe was applied for the visualization of endogenous citrate in PC3 live cells.</description><identifier>ISSN: 0925-4005</identifier><identifier>EISSN: 1873-3077</identifier><identifier>DOI: 10.1016/j.snb.2017.12.047</identifier><language>eng</language><publisher>Lausanne: Elsevier B.V</publisher><subject>Aromatic compounds ; Boron ; Boronate sensor ; Citrate assay ; Doppler effect ; Emission ; Fluorescence ; Fluorescence cell imaging ; Lewis acid ; Lewis base ; Malfunctions ; Medical imaging ; Polarity ; Prostate cancer ; Reagents ; Red shift ; Sensors</subject><ispartof>Sensors and actuators. B, Chemical, 2018-04, Vol.259, p.90-96</ispartof><rights>2017 Elsevier B.V.</rights><rights>Copyright Elsevier Science Ltd. 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B, Chemical</title><description>[Display omitted] •A novel boronate derivative was designed and synthesized for use as a metal-free citrate sensor.•The sensor changes color from blue to green in the presence of citrate.•Sensor showed 500-fold selectivity over other carboxylates, and the LOD was 10 nM.•This probe showed low cytotoxicity and can be utilized for the detection of citrate in live PC3 cells. A boronate group integrated on a triphenylimidazoleoxadiazolephenyl (TPIOP) moiety exhibited unusual sensing and detection abilities towards citrate. TPIOP boronate exhibited a bathochromic shift in its fluorescence emission upon interaction with citrate. Quantification of trace levels of citrate ions in the human body may aid in the diagnosis of prostate cancer and kidney malfunctions. Herein, a novel, metal-free sensing strategy for citrate was developed based on fluorimetric detection with TPIOP boronate. 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subjects Aromatic compounds
Boron
Boronate sensor
Citrate assay
Doppler effect
Emission
Fluorescence
Fluorescence cell imaging
Lewis acid
Lewis base
Malfunctions
Medical imaging
Polarity
Prostate cancer
Reagents
Red shift
Sensors
title Metal free bioimaging reagent for intracellular citrate in prostate cancer cells using aryl boronate derivative
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