The wearable article 100 comprises an inner fabric layer 101 and an outer fabric layer 11loverlapping the inner fabric layer 101 to form an overlapping region 121. An electronics component 200a, 200b is disposed at least partially between the inner and outer fabric layer 101, 111 in the overlapping region 121. The inner fabric layer 101 comprises an opening 143a, 143b to expose part of the electronics component 200a, 200b.

The wearable article 100 comprises an inner fabric layer 101 and an outer fabric layer 11loverlapping the inner fabric layer 101 to form an overlapping region 121. An electronics component 200a, 200b is disposed at least partially between the inner and outer fabric layer 101, 111 in the overlapping region 121. The inner fabric layer 101 comprises an opening 143a, 143b to expose part of the electronics component 200a, 200b.

An ECG sensor system comprising: a substrate having a first side and a second side, the substrate of a non-conducting material; a plurality of textile-based sensors positioned on the first side, each of the plurality of textile-based sensors spaced apart from one another on the first side, the second side covering one side of the each of the plurality of textile-based sensors as an insulating covering, the each of the plurality of textile-based sensors including conductive fibres interlaced with one another; and a conductive trace connected to the each of the plurality of textile-based sensors, each of the conductive traces for connecting the plurality of textile-based sensors to an electronic controller for sending and receiving electronic signals from a selected pair of the plurality of textile-based sensors.

An ECG sensor system comprising: a substrate having a first side and a second side, the substrate of a non-conducting material; a plurality of textile-based sensors positioned on the first side, each of the plurality of textile-based sensors spaced apart from one another on the first side, the second side covering one side of the each of the plurality of textile-based sensors as an insulating covering, the each of the plurality of textile-based sensors including conductive fibres interlaced with one another; and a conductive trace connected to the each of the plurality of textile-based sensors, each of the conductive traces for connecting the plurality of textile-based sensors to an electronic controller for sending and receiving electronic signals from a selected pair of the plurality of textile-based sensors.

A wearable device including a garment portion including an inner textile layer, and an electronic portion including at least one electrode based on an electrically conductive elastomer, stitched to the inner textile layer and/or to a support layer attached to the inner textile layer. The garment portion is designed to at least partially surround a person's limb such that the inner textile layer and the at least one electrode are kept at least partially in contact with the person when the device is worn.

A wearable device including a garment portion including an inner textile layer, and an electronic portion including at least one electrode based on an electrically conductive elastomer, stitched to the inner textile layer and/or to a support layer attached to the inner textile layer. The garment portion is designed to at least partially surround a person's limb such that the inner textile layer and the at least one electrode are kept at least partially in contact with the person when the device is worn.

This bioelectrode is configured by applying a water-absorbing resin to a sheet-like structure including conductive fibers so as to have a moisture retention index of 0.8 or more. This bioelectrode-equipped apparatus comprises a fabric structure having, on a base fabric formed from an elastic fabric, an electrode placement region that includes a wiring formed on a surface of the base fabric, a bioelectrode provided to the terminal end of the wiring, and an insulating layer for covering the wiring, wherein the base fabric has a first extension direction exhibiting relatively low extensibility in the electrode placement region and a second extension direction which is different from the first extension direction and which exhibits higher extensibility than the first extension direction, and the wiring is formed along the first extension direction.

This bioelectrode is configured by applying a water-absorbing resin to a sheet-like structure including conductive fibers so as to have a moisture retention index of 0.8 or more. This bioelectrode-equipped apparatus comprises a fabric structure having, on a base fabric formed from an elastic fabric, an electrode placement region that includes a wiring formed on a surface of the base fabric, a bioelectrode provided to the terminal end of the wiring, and an insulating layer for covering the wiring, wherein the base fabric has a first extension direction exhibiting relatively low extensibility in the electrode placement region and a second extension direction which is different from the first extension direction and which exhibits higher extensibility than the first extension direction, and the wiring is formed along the first extension direction.

An in-ear device including a cloth, which defines a concave surface, at least one electrode in or on the cloth, and a conductive track connected to the at least one electrode. Also, a method of monitoring neurological or physiological diseases or disorders with the in-ear device and a method of collecting electroencephalography data with the in-ear device. Further, a process for manufacturing the in-ear device.

An in-ear device including a cloth, which defines a concave surface, at least one electrode in or on the cloth, and a conductive track connected to the at least one electrode. Also, a method of monitoring neurological or physiological diseases or disorders with the in-ear device and a method of collecting electroencephalography data with the in-ear device. Further, a process for manufacturing the in-ear device.