Development of a Novel Thermal Technique for Detection of Water in Solvents

Accurate measurement of water concentration in various common solvents presents significant challenges due to the limitations of traditional detection methods, including low throughput and high costs. This study introduces a novel thermal detection technique, the LiquiSensor probe, designed for low-cost, rapid, and accurate quantification of water concentration in ethanol. The measurement principle utilizes differential thermal responses across a range of water concentrations (0-30%) in ethanol, combined with a reverse interval partial least squares (iPLS) regression model. In blind benchtop trials, LiquiSensor demonstrated accuracy within <1% of the actual water concentrations, with a standard deviation of 0.107%, indicating excellent precision, and a measurement time of only 10 minutes for multiple readings (with potential for reduction). This rapid response time, coupled with high accuracy and precision, presents significant opportunities for in-situ process monitoring as well as benchtop quality control.

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Publication Details

Journal
Fortune Journal of Health Sciences
Published
2025-02-13
DOI
https://doi.org/10.26502/fjhs.257
Primary Topic
Advanced Chemical Sensor Technologies
Type
article
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article

Development of a Novel Thermal Technique for Detection of Water in Solvents

Prab Birdi, Joe Kirkup, Kam Chana, Phil Radford
Fortune Journal of Health Sciences
Advanced Chemical Sensor Technologies
article

Development of a Novel Thermal Technique for Detection of Water in Solvents

Prab Birdi, Joe Kirkup, Kam Chana, Phil Radford
article en

Abstract

Accurate measurement of water concentration in various common solvents presents significant challenges due to the limitations of traditional detection methods, including low throughput and high costs. This study introduces a novel thermal detection technique, the LiquiSensor probe, designed for low-cost, rapid, and accurate quantification of water concentration in ethanol. The measurement principle utilizes differential thermal responses across a range of water concentrations (0-30%) in ethanol, combined with a reverse interval partial least squares (iPLS) regression model. In blind benchtop trials, LiquiSensor demonstrated accuracy within <1% of the actual water concentrations, with a standard deviation of 0.107%, indicating excellent precision, and a measurement time of only 10 minutes for multiple readings (with potential for reduction). This rapid response time, coupled with high accuracy and precision, presents significant opportunities for in-situ process monitoring as well as benchtop quality control.

Fortune Journal of Health Sciences
Openalex Percentile: Top 93%
Advanced Chemical Sensor Technologies
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