A flexible structure with a light emitting net cover is provided. The flexible structure (10) includes a flexible carrier (1) and a light emitting net cover (2). The flexible carrier (1) includes an opening (11) and is composed of a leather, a fabric, a silicone, or a rubber material. The light emitting net cover (2) includes a light guiding net (21) and a light emitting module (22). The light guiding net (21) is fixed on the flexible carrier (1) and includes a weaving net portion (212) that is woven by multiple optical fibers (211) and the weaving net portion (212) covers the opening (11). The light emitting module (22) includes a LED (221) arranged correspondingly to the plurality of optical fibers (211). The purpose of the flexible structure (10) having special visual effect such as meshed light effect may be achieved.

A fabric cover may be configured to mechanically couple to and cover part of a frame and the fabric cover may have a plurality of layers including a first non-conductive fabric layer, a second non-conductive fabric layer, a piezoresistive core layer between the first non-conductive fabric layer and the second fabric non-conductive layer, and a first conductive layer comprising a plurality of first conductive fiber traces and located between the first non-conductive fabric layer and the second non-conductive fabric layer. A localized impedance of the piezoresistive core layer indicates a mechanical force applied to the fabric cover proximate to such localized impedance.

The invention relates to an embodiment in which the textile component comprises at least one flexible thread that can be woven. A plurality of semiconductor columns are attached in or on the thread and are configured to generate radiation. Furthermore, a plurality of electrical lines are located in or on the thread, by means of which lines the semiconductor columns are electrically contacted. An average height (H) of the semiconductor columns in a direction transverse to a longitudinal direction (L) of the thread is at most 20% of an average diameter (D) of the thread.

A tampering detection system for a dispensing nozzle of a dispensing system in which the dispensing nozzle is inserted into a connecting piece of the dispensing system comprises a flat, tactile sensor comprising at least two pressure sensitive and individually evaluable sensor segments. The sensor is arranged between the connecting piece and the dispensing nozzle and extends along an inner circumference of the connecting piece in a connecting region for the dispensing nozzle. The tamper detection system further comprises an evaluation unit connected to the sensor segments to detect a pressure acting on each of the sensor segments.

Examples are disclosed that relate to haptic actuators. One disclosed example provides a haptic actuator including an inductive coil, a layer of a compressible material positioned adjacent to the inductive coil and transverse to an axis of the inductive coil, and a magnet positioned on the layer of compressible material such that the magnet is movable relative to the inductive coil via compression of the layer of the compressible material upon application of a control signal to the inductive coil. Another example provides an article including a textile formed at least partially from a yarn including a core and a conductor wound around the core to form an inductive coil, and a magnetic object integrated with the textile at a position transverse to a direction of a magnetic field formed by the inductive coil.

A fabric-based item may include a housing that is covered in fabric. Areas of the fabric may overlap input circuitry such as button switches, touch sensors, force sensors, proximity sensors, and other sensing circuitry and may overlap other components such as light-emitting components and haptic output devices. The fabric-based item may include control circuitry that gathers user input from the input circuitry and wireless communications circuitry that the control circuitry uses to transmit remote control commands and other wireless signals in response information from the input circuitry. The fabric-based item may have a weight that is located in the housing to orient the housing in a desired direction when the housing rests on a surface. A movable weight may tilt the housing in response to proximity sensor signals or other input. Portions of the fabric may overlap light-emitting components and optical fiber configured to emit light.

A conductive woven fabric consisting of multiple weft yarns and multiple warp yarns and having at least one conductive part, wherein one of weft and warp is consisting of non-conductive yarns and the other of weft and warp is consisting of conductive yarns and non-conductive yarns which are parallel to each other, characterized in that said non-conductive yarns parallel to the conductive yarns are shrinking-processed yarns and the conductive part is formed by a repeating woven structure wherein the conductive yarns pass through the upper side of at least two of non-conductive yarns orthogonal to the conductive yarns and then pass through the back side of at least one of non-conductive yarns orthogonal to the conductive yarns, and a process for producing the same, and also provides a conductive member using the same.

This document describes conductive yarn structures for interactive textiles. The conductive yarn structures of the interactive textile include a conductive core that includes at least one conductive filament and a cover layer that may be constructed from flexible threads that covers the conductive core. In one embodiment, the conductive core includes a plurality of conductive filaments. Each conductive filament can be made from a metallic composition containing copper and silver. Silver can be contained in the metallic composition in an amount from 0.5% by weight to 40% by weight. Each conductive filament can include an insulating sheath made from a polyurethane.

One variation of a method for producing a smart yarn includes: aligning a set of sensing elements offset along a lateral axis in a magazine, wherein each sensing element in the set of sensing elements includes a sensor, a first conductive lead extending from a first side of the sensor along a longitudinal axis perpendicular to the lateral axis, and a second conductive lead extending from a second side of the sensor opposite the first side and along the longitudinal axis; wrapping a set of fibers into a yarn within a wrapping field; feeding a leading end of a first sensing element, in the set of sensing elements, from the magazine into the wrapping field; releasing the first sensing element from the magazine into the wrapping field; encasing the first sensing element between the set of fibers within the yarn; and repeating this process for the set of sensing elements.

In one aspect, the disclosure relates to multi-material fibers capable of distributedly measuring temperature and pressure in which the methods comprise a thermal drawing step, and the methods of fabricating the disclosed fibers. The fibers can be utilized in methods of temperature and pressure mapping or sensing comprising electrical reflectometry for interrogation. Further disclosed are devices comprising a disclosed fiber with the multi-point detection capability with simple one-end connection. Also disclosed are articles, e.g., smart clothing, wound dressing, robotic skin and other industrial products, comprising a disclosed fiber or a fabric comprising a disclosed fiber. This abstract is intended as a scanning tool for purposes of searching in the particular art and is not intended to be limiting of the present disclosure.