Electroactive polymer-based devices for e-textiles in biomedicine. IEEE Trans Inf Technol Biomed

Interdepartmental Research Centre E. Piaggio, University of Pisa, 56126 Pisa, Italy.
IEEE Transactions on Information Technology in Biomedicine (Impact Factor: 2.49). 10/2005; 9(3):295-318. DOI: 10.1109/TITB.2005.854514
Source: PubMed


This paper describes the early conception and latest developments of electroactive polymer (EAP)-based sensors, actuators, electronic components, and power sources, implemented as wearable devices for smart electronic textiles (e-textiles). Such textiles, functioning as multifunctional wearable human interfaces, are today considered relevant promoters of progress and useful tools in several biomedical fields, such as biomonitoring, rehabilitation, and telemedicine. After a brief outline on ongoing research and the first products on e-textiles under commercial development, this paper presents the most highly performing EAP-based devices developed by our lab and other research groups for sensing, actuation, electronics, and energy generation/storage, with reference to their already demonstrated or potential applicability to electronic textiles.

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    • "Takashi et al. fabricated the flexible capacitive tactile sensors that possess the ability to detect both the direction and distribution of an applied force [17]. Carpi and De Rossi pointed out that the DE sensors can be implemented as wearable devices for smart electronic textiles in biomedical systems [19]. Son and Goulbourne put forward a large stretch tubular sensor and described a numerical model validated by experimental results [20]. "
    Journal of Applied Mechanics 06/2015; DOI:10.1115/1.4030889 · 1.37 Impact Factor
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    • "extensively and effortlessly integrated into the daily life of a patient in the form of wireless body sensor networks (WBANs) [1]. So far, most research efforts in this direction have been focused on the adaptation of miniaturized wearable designs based on relatively mature technologies such as motion tracking [2], bio-electrical signals analysis [3] and temperature detection [4]. On the other hand, the biochemical analytes contained in biological fluids have been often overlooked as possible sensor targets despite the valuable information they convey about the state of health of an individual. "
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    ABSTRACT: The state of the art and future challenges related to wearable chemical sensors are addressed within this review. Our attention is focused on the monitoring of biological fluids such as interstitial fluids, breath, sweat, saliva and tears, while aiming at the realization of miniaturized, non-invasive and low cost point of care systems. The development of such sensing devices is influenced by many factors and are usually addressed through the use of “smart materials” such as graphene, carbon nanotubes, poly ionic liquids, etc. These are seen as the pivotal steps towards the integration of chemical sensors within pervasive applications for personal health care.
    Sensors and Actuators B Chemical 05/2015; 211:403-418. DOI:10.1016/j.snb.2015.01.077 · 4.10 Impact Factor
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    • "Several studies have been carried out to show that a textile sensor is a practical and wearable electric device [6–9]. Electronic textiles (e-textiles) are used in the entertainment industry and the fashion industry, as well as for communication, sensing and monitoring, even for position location [10–15]. Due to the rigidity of an alloy strain gauge, the maximum static strain level is limited to low stress measurements. "
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    ABSTRACT: In this work a wearable gesture sensing device consisting of a textile strain sensor, using elastic conductive webbing, was designed for monitoring the flexion angle of elbow and knee movements. The elastic conductive webbing shows a linear response of resistance to the flexion angle. The wearable gesture sensing device was calibrated and then the flexion angle-resistance equation was established using an assembled gesture sensing apparatus with a variable resistor and a protractor. The proposed device successfully monitored the flexion angle during elbow and knee movements.
    Sensors 03/2014; 14(3):4050-4059. DOI:10.3390/s140304050 · 2.25 Impact Factor
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