Electrophoretic separation of environmentally important phenolic compounds using montomorillonite‐coated fused‐silica capillaries

Mora, María F.; Garcı́a, Carlos D.

doi:10.1002/elps.200600493

Cited by 17 publications

(11 citation statements)

References 60 publications

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“…CE remains an important area of investigation for the analysis of these pollutants [34,36,38,39,42,46,61,68,69,72,82,87]. As outlined in Section 3, several studies using CE to analyze phenolic compounds in environmental matrices focused primarily on the improvement of sensitivity and sample clean-up techniques [34,68,69,72].…”

Section: Phenolsmentioning

confidence: 99%

Recent advances in CE and CEC of pollutants

Da̧bek-Złotorzyńska¹,

Celo²,

Yassine³

2007

Electrophoresis

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Recent advances in CE and CEC separation, detection and sample preparation/preconcentration methodologies, for the determination of a variety of compounds having current or potential environmental relevance, have been overviewed. The reviewed literature has illustrated the wide range of CE applications available, indicating a continuing interest in CE and CEC in the environmental field. New developments in chip-based CE systems are also discussed.

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Section: Phenolsmentioning

confidence: 99%

Recent advances in CE and CEC of pollutants

Da̧bek-Złotorzyńska¹,

Celo²,

Yassine³

2007

Electrophoresis

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“…Considering this, our group developed a simple and inexpensive method to coat silica capillaries with montmorillonite , a natural clay [12]. In addition, we studied the adsorption of alkyl surfactants with different chain lengths and head groups to poly(dimethylsiloxane) (PDMS), one of the most commonly used materials to fabricate microchip-CE devices.…”

Section: Capillary Electrophoresis Microchip-ce and Electrochemicalmentioning

confidence: 99%

Research Spotlight: The Next Big Thing Is Actually Small

Garcı́a

2012

Bioanalysis

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Summary Recent developments in materials, surface modifications, separation schemes, detection systems, and associated instrumentation have allowed significant advances in the performance of lab-on-a-chip devices. These devices, also referred to as micro total analysis systems (µTAS), offer great versatility, high throughput, short analysis time, low cost, and more importantly, performance that is comparable to standard bench-top instrumentation. To date, µTAS have demonstrated advantages in a significant number of fields including biochemical, pharmaceutical, military, and environmental. Perhaps most importantly, µTAS represent excellent platforms to introduce students to microfabrication and nanotechnology, bridging chemistry with other fields such as engineering and biology, enabling the integration of various skills and curricular concepts. Considering the advantages of the technology and the potential impact to society, our research program aims to address the need for simpler, more affordable, faster, and portable devices to measure biologically-active compounds. Specifically, the program is focused on the development and characterization of a series of novel strategies towards the realization of integrated microanalytical devices. One key aspect of our research projects is that the developed analytical strategies must be compatible with each other, therefore enabling their use in integrated devices. The program combines spectroscopy, surface chemistry, capillary electrophoresis, electrochemical detection, and nanomaterials. This article discusses some of the most recent results obtained in two main areas of emphasis: Capillary Electrophoresis, Microchip-CE, Electrochemical Detection, andInteraction of Proteins with Nanomaterials

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“…For that reason, a variety of techniques have been used for delivery and control of liquids in CE-sensors and other microfluidic devices. Among others [30, 188–191], a description of the principles and some applications of electrophoretic, electro-osmotic, opto-acoustic, optically-driven, electrochemical, and gravity-driven pumps has been recently published [25]. Because they do not require moving parts (motors, actuators, or check valves) and can be controlled with the same instrumentation used to power separation, most pumps used in CE and μchip-CE devices are electro-osmotically-driven.…”

Section: - Instrumentationmentioning

confidence: 99%

Recent developments in instrumentation for capillary electrophoresis and microchip‐capillary electrophoresis

2010

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Over the last years there has been an explosion in the number of developments and applications of capillary electrophoresis (CE) and microchip-CE. In part, this growth has been the direct consequence of recent developments in instrumentation associated with CE. This review, which is focused on contributions published in the last five years, is intended to complement the papers presented in this special issue dedicated to Instrumentation and to provide an overview on the general trend and some of the most remarkable developments published in the areas of high voltage power supplies, detectors, auxiliary components, and compact systems. It also includes few examples of alternative uses of and modifications to traditional CE instruments.

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Electrophoretic separation of environmentally important phenolic compounds using montomorillonite‐coated fused‐silica capillaries

Cited by 17 publications

References 60 publications

Recent advances in CE and CEC of pollutants

Recent advances in CE and CEC of pollutants

Research Spotlight: The Next Big Thing Is Actually Small

Recent developments in instrumentation for capillary electrophoresis and microchip‐capillary electrophoresis

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