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An Integrated Glass Nanofluidic Device Enabling In‐situ Electrokinetic Probing of Water Confined in a Single Nanochannel under Pressure‐Driven Flow Conditions

Yan Xu, Baihui Xu

Open publisher page 35 citations

Abstract

In-situ measurement of streaming currents in a single nanochannel with femtoliter-scale volumes is achieved using an elaborately designed and fabricated glass nanofluidic chip with probe electrodes embedded within the nanochannel. The device and the method suggest a useful nanoscale tool enabling in situ understanding of the unique liquid properties observed in nanofluidic channels.

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What this paper is about

In-situ measurement of streaming currents in a single nanochannel with femtoliter-scale volumes is achieved using an elaborately designed and fabricated glass nanofluidic chip with probe electrodes embedded within the nanochannel. The device and the method suggest a useful nanoscale tool enabling in situ understanding of the unique liquid properties observed in nanofluidic channels.

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OpenAlex reports 35 citations for this work. Citation counts describe recorded attention and do not establish research quality.

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Available abstract

In-situ measurement of streaming currents in a single nanochannel with femtoliter-scale volumes is achieved using an elaborately designed and fabricated glass nanofluidic chip with probe electrodes embedded within the nanochannel. The device and the method suggest a useful nanoscale tool enabling in situ understanding of the unique liquid properties observed in nanofluidic channels.

Key concepts: Electrokinetic phenomena, Nanotechnology, Nanofluidics, In situ, Nanoscopic scale, Materials science, Microfluidics, Streaming current

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An Integrated Glass Nanofluidic Device Enabling In‐situ Electrokinetic Probing of Water Confined in a Single Nanochannel under Pressure‐Driven Flow Conditions — Research Paper | ScholarLens