Speech-assistive interfacing via a secondary-flow-induced ionogel

• Secondary flow streamlines the gel production process of immiscible monomers. • The strategy mitigates phase separation, enabling uniform dispersion for polymerization. • The ionogel enables detect speech, making it ideal for speech assistance devices. Impaired language function significantly restricts the communication ability and quality of life for aphasia patients. Even though current Human-Machine Interaction (HMI) system mainly relies on explicit signal, it is difficult to meet the demand for natural and real-time expression. To achieve the accurate recognition of non-speech intention, a highly sensitive capacitive sensor based on ionogel is proposed. An innovative dynamic polymerization strategy induced by secondary flow is designed to address the phase separation issue caused by incompatibility between ionic liquid (IL) and monomer. The method overcomes interfacial tension limitations, enabling uniform dispersion of monomer within IL and facilitating three-dimensional network construction. The resulting ionogel exhibits excellent mechanical properties (tensile strength of 50 kPa, elongation at break of 219%), as well as high pressure sensitivity (0.042 kPa -1 ) and antibacterial properties, capable of detecting subtle tactile stimuli. This study offers critical material support for the development of non-speech interaction system of aphasia patients and provides a universal strategy for the construction of functional ionogels.

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Publication Details

Journal
Chemical Engineering Journal Advances
Published
2025-08-31
DOI
https://doi.org/10.1016/j.ceja.2025.100848
Primary Topic
Speech and Audio Processing
Type
article
Field-Weighted Citation Impact
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article

Speech-assistive interfacing via a secondary-flow-induced ionogel

Meng Jin, Xuan Shi, Bin Wu, Ning Ma et al.
Chemical Engineering Journal Advances
Speech and Audio Processing
article

Speech-assistive interfacing via a secondary-flow-induced ionogel

Meng Jin, Xuan Shi, Bin Wu, Ning Ma, Fang‐Chang Tsai, Zongguo Hong, Xue-Qing Zhan, R. J. You
article en

Abstract

• Secondary flow streamlines the gel production process of immiscible monomers. • The strategy mitigates phase separation, enabling uniform dispersion for polymerization. • The ionogel enables detect speech, making it ideal for speech assistance devices. Impaired language function significantly restricts the communication ability and quality of life for aphasia patients. Even though current Human-Machine Interaction (HMI) system mainly relies on explicit signal, it is difficult to meet the demand for natural and real-time expression. To achieve the accurate recognition of non-speech intention, a highly sensitive capacitive sensor based on ionogel is proposed. An innovative dynamic polymerization strategy induced by secondary flow is designed to address the phase separation issue caused by incompatibility between ionic liquid (IL) and monomer. The method overcomes interfacial tension limitations, enabling uniform dispersion of monomer within IL and facilitating three-dimensional network construction. The resulting ionogel exhibits excellent mechanical properties (tensile strength of 50 kPa, elongation at break of 219%), as well as high pressure sensitivity (0.042 kPa -1 ) and antibacterial properties, capable of detecting subtle tactile stimuli. This study offers critical material support for the development of non-speech interaction system of aphasia patients and provides a universal strategy for the construction of functional ionogels.

Chemical Engineering Journal AdvancesVol. 24
Hubei University (CN)
Openalex Percentile: Top 72%
Speech and Audio Processing
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