https://www.taxtmi.com/news?id=51443 Researchers developed an underwater vibration sensor that detects tiny waves at the air-water interface created by exhaled air when a person attempts to speak; a conductive porous sponge converts these disturbances into electrical signals, which Convolutional Neural Networks analyse to enable automated, contactless voice recognition for individuals with partial or complete vocal-cord impairment, allowing hands-free control of devices and guiding further clinical validation and industry translation. en-us Mon, 04 Aug 2025 14:46:02 +0530 Mon, 04 Aug 2025 14:46:02 +0530 TaxTMI RSS Generator https://www.taxtmi.com/news?id=51443 Researchers developed an underwater vibration sensor that detects tiny waves at the air-water interface created by exhaled air when a person attempts to speak; a conductive porous sponge converts these disturbances into electrical signals, which Convolutional Neural Networks analyse to enable automated, contactless voice recognition for individuals with partial or complete vocal-cord impairment, allowing hands-free control of devices and guiding further clinical validation and industry translation. News - Mon, 04 Aug 2025 14:46:02 +0530 https://www.taxtmi.com/news?id=51443