Liquid Electrolyte Sensors: Potentiometry, Amperometry, and Conductometry

Oehme, Friedrich

doi:10.1002/9783527620135.ch7

Cited by 7 publications

(1 citation statement)

References 82 publications

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“…Although electrochemical technology had long been proposed as a basis for gas detection [6], key advances in the design of gas diffusion electrodes [7] and the introduction of gas phase diffusion barriers in the late 1970s [8] were key enablers for the first truly practical designs. Early commercial products such as those marketed by City Technology (London, UK) in 1977 [9] (Figure 1) offered a compelling combination of attractive features for instrument designers and end users which none of the competing technologies available at the time could surpass.…”

Section: Consumable-anode Sensors—success Through Iterative Improvementmentioning

confidence: 99%

Oxygen Sensing for Industrial Safety — Evolution and New Approaches

Willett

2014

Sensors

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Abstract:The requirement for the detection of oxygen in industrial safety applications has historically been met by electrochemical technologies based on the consumption of metal anodes. Products using this approach have been technically and commercially successful for more than three decades. However, a combination of new requirements is driving the development of alternative approaches offering fresh opportunities and challenges. This paper reviews some key aspects in the evolution of consumable anode products and highlights recent developments in alternative technologies aimed at meeting current and anticipated future needs in this important application.

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Section: Consumable-anode Sensors—success Through Iterative Improvementmentioning

confidence: 99%

Oxygen Sensing for Industrial Safety — Evolution and New Approaches

Willett

2014

Sensors

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Multi‐Mode/Signal Biosensors: Electrochemical Integrated Sensing Techniques

Han,

Wang,

Wang

2024

Adv Funct Materials

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Electrochemical (EC) analysis has emerged as a high‐sensitivity, reliable, cost‐effective, and rapidly evolving technique that has garnered significant attention across diverse domains. Furthermore, EC‐based techniques hold great potential for miniaturization and integration. The integration of EC techniques with diverse mode/signal (such as light, magnetic, and thermal signals, etc.) provides unique opportunities for biosensors to acquire more information through a single sensing platform. By coupling multiple signals or processing them logically, the detection accuracy can be further improved, and the probability of false positives or negatives can be minimized. In this review, a thorough analysis of multi‐ mode/signal sensors in the field of EC sensing is conducted, along with their integration with various sensing techniques (e.g., fluorescence, photothermal, colorimetry, microfluidic, etc.). The aim is to delve into the latest advances, potential applications, as well as challenges in multi‐mode/signal biosensors, where the utilization of multiple sensing modalities helps enhance accuracy, sensitivity, and selectivity. This review provides new insight into the synergistic effects of integrating EC sensing with other techniques, aiming to shed light on the near‐future developments in EC‐integrated multi‐mode/signal biosensors.

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ION-SELECTIVE ELECTRODES | Overview

Štulı́k

2005

Encyclopedia of Analytical Science

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Liquid Electrolyte Sensors: Potentiometry, Amperometry, and Conductometry

Cited by 7 publications

References 82 publications

Oxygen Sensing for Industrial Safety — Evolution and New Approaches

Oxygen Sensing for Industrial Safety — Evolution and New Approaches

Multi‐Mode/Signal Biosensors: Electrochemical Integrated Sensing Techniques

ION-SELECTIVE ELECTRODES | Overview

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