Amperometric NO gas sensor in the presence of diffusion barrier: selectivity, mass transfer of NO and effect of temperature

Do, Jing-Shan; Wu, Kanq-Jiuan; Tsai, Ming-Liao

doi:10.1016/s0925-4005(02)00154-5

Cited by 19 publications

(13 citation statements)

References 16 publications

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“…From the slope of this straight line, the diffusion coefficient was calculated as 1.2798 · 10 À6 cm 2 s À1 . The obtained value is slightly lower than the earlier one reported on the PTFE modified electrodes [33,34]. Generally, on the PTFE a modified electrode, the diffusion co-efficient of NO was found increased with the increase of the pore size of the PTFE coating.…”

Section: Chronoamperometric Studies For Calculation Of Diffusion Coefcontrasting

confidence: 70%

Preparation and electrocatalytic properties of the TBO/nafion chemically-modified electrodes

Chen

Chuang

Vasantha

2006

Journal of Electroanalytical Chemistry

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Section: Chronoamperometric Studies For Calculation Of Diffusion Coefcontrasting

confidence: 70%

Preparation and electrocatalytic properties of the TBO/nafion chemically-modified electrodes

Chen

Chuang

Vasantha

2006

Journal of Electroanalytical Chemistry

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“…Several permselective membranes have since been employed to fabricate electrochemical sensors with analytically useful selectivity. Examples of such membranes include cellulose acetate (117), collodion/polystyrene (118), polycarbazole (119), Nafion (120), polyeugenol (121), polydimethylsiloxane (122), poly(tetrafluoroethylene) (123), and phenylenediamine (124). …”

Section: Electrochemical Techniquesmentioning

confidence: 99%

Analytical Chemistry of Nitric Oxide

Hetrick

Schoenfisch

2009

Annual Rev. Anal. Chem.

275

277

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Nitric oxide (NO) is the focus of intense research, owing primarily to its wide-ranging biological and physiological actions. A requirement for understanding its origin, activity, and regulation is the need for accurate and precise measurement techniques. Unfortunately, analytical assays for monitoring NO are challenged by NO’s unique chemical and physical properties, including its reactivity, rapid diffusion, and short half-life. Moreover, NO concentrations may span pM to µM in physiological milieu, requiring techniques with wide dynamic response ranges. Despite such challenges, many analytical techniques have emerged for the detection of NO. Herein, we review the most common spectroscopic and electrochemical methods, with special focus on the fundamentals behind each technique and approaches that have been coupled with modern analytical measurement tools or exploited to create novel NO sensors.

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“…Hence, developing a NO sensor for measuring NO levels is critical to monitor and hopefully reduce NO pollution [2]. NO is often monitored by using chemical sensors of various resistive [3], amperometric [4], quartz crystal microbalance [5], optical [6], and capacitive [7] types. Resistive-type gas sensors exhibit advantages such as easy fabrication, low cost of mass production, and simplicity.…”

Section: Introductionmentioning

confidence: 99%