AJUNTAMENT D'ALCOI
Website
Generalitat Valenciana
Website
Ayuntamiento de Valencia
Website
Cicloplast
Website
Ayuntamiento de Onil
Website
Anarpla
Website
Ayuntamiento de Mislata
Website
nlWA, North London Waste Authority
Website
Ayuntamiento de Salinas
Website
Zicla
Website
Fondazione Ecosistemi
Website
PEFC
Website
ALQUIENVAS
Website
DIPUTACI� DE VAL�NCIA
Website
AYUNTAMIENTO DE REQUENA
Website
UNIVERSIDAD DE ZARAGOZA
Website
OBSERVATORIO CONTRATACIÓN PÚBLICA
Website
AYUNTAMIENTO DE PAIPORTA
Website
AYUNTAMIENTO DE CUENCA
Website
BERL� S.A.
Website
CM PLASTIK
Website
TRANSFORMADORES INDUSTRIALES ECOL�GICOS
INDUSTRIAS AGAPITO
Website
RUBI KANGURO
Website
If you want to support our LIFE project as a STAKEHOLDER, please contact with us: life-future-project@aimplas.es
In this section, you can access to the latest technical information related to the FUTURE project topic.
Highly stretchable and robust textile-based capacitive mechanical sensor for human motion detection
Mechanically stretchable capacitive sensors are extremely promising for applications in continuous health-monitoring. Typical capacitive sensors, made from polymer and thin metal film supporters, lack interfacial adhesion or chemical bonding and have intrinsically low stretchability. Moreover, the performance of most sensors is critically affected by the conformity mismatch at the electrode and dielectric layer interface during high mechanical deformation. Many mechanical sensors have limited practical applications due to significant hysteresis, low sensitivity, and lack of reproducibility. Herein, we develop a textile-based capacitive mechanical sensor by utilizing titanium carbide-based MXene (Ti3C2Tx) to fabricate conductive textiles and a composite film of polystyrene (PS) fibers and ecoflex silicone as a dielectric layer. Ti3C2Tx showed strong bonding with the fabric owing to its rich surface chemistry, hydrophilicity, and large surface area. The MXene-coated fabric and integration of the composite film make the sensor mechanically stretchable, thus improving its sensitivity, response time, and stability. The sensor showed negligible hysteresis (?0.2) and demonstrated a high sensitivity of 1.11 when stretched to 100?% elongation and 13.02?kPa?1 when squeezed at a pressure?of 200?kPa and excellent cyclic stability (1000 cycles). The sensor was further utilized for the detection of human motion when specific?body movements were performed.
» Author: Jagan Singh Meena, Su Bin Choi, Tran Duc Khanh, Hyun Sik Shin, Jun Sang Choi, Jinho Joo, Jong-Woong Kim
C/ Gustave Eiffel, 4
(València Parc Tecnològic) - 46980
PATERNA (Valencia) - SPAIN
(+34) 96 136 60 40
Project Management department - Sustainability and Industrial Recovery
life-future-project@aimplas.es