Abstract: It is disclosed a capacitive touch sensor (10) comprising a support layer (1) having a plurality of sensing threadlike elements (2) coupled thereto and configured to be electrically connected to a detection device (5) for evaluating the capacitance value (C) of each sensing threadlike element (2) of said plurality of sensing threadlike elements, characterized in that said sensing threadlike elements (2) comprise a plurality of electrically resistive threadlike elements (2r), wherein the electrical resistance per unit of length of each electrically resistive threadlike element (2r) is comprised between 10 k?/m and 10 M?/m. An article comprising the capacitive touch sensor (10) and a method for detecting a touch event on a support layer (1) are also disclosed.

Abstract: The present invention relates to a process for producing an electrically conductive composite textile article, comprising a step of providing at least part of a textile article with a biopolymer, wherein at least part of said biopolymer comprises an electrically conductive material. The invention also relates to an electrically conductive composite textile article comprising a textile article and a biopolymer, wherein at least part of said biopolymer is provided with an electrically conductive material; and to a yarn, or a fabric, or a garment, consisting of, or essentially consisting of a biopolymer that can be produced by a microorganism, wherein at least part of said biopolymer is provided with an electrically conductive material.

Abstract: Disclosed is a wearable step counter system comprising a garment for a wearer's legs, a capacitive electrode and a microcontroller, said garment comprising a textile fabric portion, said capacitive electrode comprising an electrically conductive yarn woven into said textile fabric portion, said textile fabric portion being arranged on said garment for providing a parasitic capacitive coupling between said capacitive electrode and a wearer's leg, said microcontroller being electrically connected to said capacitive electrode for evaluating said parasitic capacitive coupling so that the relative movement between the wearer's legs is detected by the microcontroller.

Abstract: It is disclosed a wearable touch sensitive garment (100) comprising an array (12) of electronic capacitive sensors integrated into the garment (100), the array (12) of electronic capacitive sensors comprising a plurality of electrodes (E1-E5), each electrode (E1-E5) being individually electrically connected to an Electronic Control Unit (ECU) (30), the ECU (30) being configured to evaluate a parasitic capacitive coupling between each of the electrodes (E1-E5) and a wearer's touch, the ECU (30) being provided with a readable display (35) configured to display an indication representative of a gesture performed on the array (12).

Abstract: The disclosure provides a compression garment (68) formed of a stretchable fabric (10) with a uniform, i.e. constant, elasticity but in which the compression garment provides different degrees of garment compression when worn by a wearer due to geometric cuts (6, 8) made to the fabric to form one or more fabric panels (2, 4) that extend the entire length of the circumferential portion (60) of the garment. The circumferential portion surrounds a wearer's body part (66) and includes degrees of compression that vary at different locations (12, 14, 16, 18, 20, 22, 24, 26), along the axial direction (62). The geometric cuts produce non-linear edges (6A, 6B, 8A, 8B) and are made to provide different circumferential lengths (12F, 14F, 16F, 18F, 20F, 22F, 24F, 26F) of fabric that produce desired compression levels at various axial locations, and are calculated using formulas and algorithms that take into account various factors relating to the fabric and the garment being formed.

Abstract: Provided is a garment comprising fabric and at least one seam, said garment comprising at least one vibrotactile actuator configured for producing a vibrational pattern based on audio and/or messaging information provided by an information signal from an external device. The vibrotactile actuator is contained within the seam. Also provided is a system, circuit and method for transmitting audio and/or messaging information to a user. The system comprises the garment, the external device, and a conversion unit comprising a microcontroller that converts the audio and/or messaging information into a driving signal to be provided to the vibrotactile actuator. The circuit comprises the microcontroller and the vibrotactile actuators coupled to one another by a ribbon of a flexible material. The method evaluates the delay between the vibrational pattern produced by the vibrotactile actuator and acoustic and/or visual signals produced by the external device based on the audio and/or messaging information.

Abstract: This invention relates to a process and apparatus for dyeing of textiles, to an immobilized enzyme comprised in said apparatus required for carrying out the process, and to a method to produce enzymatically indigo and derivatives thereof.

Abstract: A real-time motion capture system and garment includes a wearable activity monitor that may be a pair of denim jeans. The wearable activity monitor includes multiple sensors such as accelerometers, gyrometers, magnetometers disposed within the seams of the garment. A microprocessor and wireless transmitter) communicate the motion data to an external device. The microprocessor and wireless transmitter may be included within one of the seams. An elastically stretchable ribbon or a flexible ribbon such as a kapton ribbon or a ribbon formed of textile, electrically couples the sensors and microprocessor and is also disposed inside the seams and the components within the seam are coated with a waterproof coating. The external device can store the data or display and analyze the data real-time, and may communicate the data to a further electronic device.

Abstract: Provided is a process for the production of a dyed fabric using enzyme aggregates. In particular, provided is a process that comprises a step of providing a woven fabric that comprises a base layer and an additional layer which is located on at least one side of the fabric, wherein the yarns of the additional layer comprise fibers that are at least partially dyed, and a step of contacting the woven fabric with enzyme aggregates such as cross-linked enzyme aggregates (CLEAs), to remove at least part of the dye from at least the yarns of said additional layer. The disclosure also provides a fabric obtained with the process and garments including the fabric.

Abstract: It is disclosed a woven textile fabric comprising a first and a second electrically conductive layer (20; 30) of interwoven conductive yarns (22, 24; 32, 34) and a first intermediate pseudo-layer (40) of structural and insulating yarns (45) comprised between the first and the second electrically conductive layer and a plurality of binding yarns (47) interlacing the first and second conductive layers (20; 30) and the intermediate layer (40). The structural yarns (45) and the binding yarns (47) have piezoelectric properties.

Abstract: A textile is dyed by treating the textile with a composition containing 2D nano and/or microparticles of carbon and by dyeing the textile with a dye that is different from said carbon particles.

Abstract: Provided is a process for the production of a dyed fabric using enzyme aggregates. In particular, provided is a process that comprises a step of providing a woven fabric that comprises a base layer and an additional layer which is located on at least one side of the fabric, wherein the yarns of the additional layer comprise fibers that are at least partially dyed, and a step of contacting the woven fabric with enzyme aggregates such as cross-linked enzyme aggregates (CLEAs), to remove at least part of the dye from at least the yarns of said additional layer. The disclosure also provides a fabric obtained with the process and garments including the fabric.

Abstract: It is disclosed an electromagnetic shield (1) and a related method for providing electromagnetic shielding wherein the shield comprises a shielding surface provided with a plurality of electrically conductive elements (2), said plurality of electrically conductive elements (2) being electrically connected to a switching assembly (3) configured to switch said electromagnetic shield (1) between an open configuration, wherein said electrically conductive elements (2) are electrically insulated from one another, and a shorted configuration wherein said electrically conductive elements (2) are electrically connected to each other at a common node (C). When the electrically conductive elements (2) of the electromagnetic shield (1) are switched between the open and shorted configurations, a change of the electromagnetic shielding effectiveness (EMSE) occurs.

Abstract: The present invention relates to a process of finishing a textile to impart a shiny effect to such textile comprising the step of preparing a composition containing 2D carbon microparticles in a carrier, applying said composition to said textile and drying said textile carrying said composition. The present invention also relates to a textile, a fabric and yarn coated with the composition above. The present invention finally relates to uses of 2D carbon microparticles to provide a shiny effect on textiles.

Abstract: It is disclosed a capacitive touch sensor (10) comprising a support layer (1) having a plurality of sensing threadlike elements (2) coupled thereto and configured to be electrically connected to a detection device (5) for evaluating the capacitance value (C) of each sensing threadlike element (2) of said plurality of sensing threadlike elements, characterized in that said sensing threadlike elements (2) comprise a plurality of electrically resistive threadlike elements (2r), wherein the electrical resistance per unit of length of each electrically resistive threadlike element (2r) is comprised between 10 k?/m and 10 M?/m. An article comprising the capacitive touch sensor (10) and a method for detecting a touch event on a support layer (1) are also disclosed.

Abstract: It is disclosed a composite yarn (1) comprising an electrically conductive yarn (2) and an electrically resistive yarn (3), wherein said electrically conductive yarn (2) is coupled to said electrically resistive yarn (3), and wherein the electrically conductive yarn (2) is electrically insulated from the electrically resistive yarn (3). It is further disclosed a touch sensor (10) comprising at least one composite yarn (1) according to anyone of the previous claims, and a detection device (5) configured to evaluate the capacitance values (CR, CC) of the electrically resistive yarn (3) and of the electrically conductive yarn (2) of said composite yarn (1), said detection device (5) being configured to calculate the ratio (CR/CC) between said capacitance values (CR, CC) of the electrically resistive yarn (3) and of the electrically conductive yarn (2) and to provide an output signal (SOUT) indicative of the location of a touch event along said composite yarn (1) in function of said ratio (CR/CC).

Abstract: A wearable device and a method are disclosed for determining induced voltage exposure of a human body to low voltage fluctuations or induced static electricity variation on human body. The wearable device includes conductive elements which form at least part of an antenna and comprises an RF-to-DC converter connected to the conductive elements of the wearable device for harvesting RF energy and induced static electricity variation at the input in the form of an AC voltage (Vin), while the RF-to-DC converter provides a DC voltage (Vout) at the output. The wearable device also comprises a control unit connected to the output of the RF-to-DC converter to determine the induced voltage exposure of a device wearer's body.

Abstract: It is disclosed a stretchable touchpad (10) of the capacitive type including a stretchable textile fabric (20) having a plurality of conductive elements incorporated therein. The conductive elements are resistive strain gauges (30, 40) which form electrodes to detect a change of capacitance caused by a touch. It is also disclosed a method for operating a stretchable touchpad (10) comprising the steps of measuring continuously a capacitance analog signal provided by a resistive strain gauge (30, 40) of the stretchable touchpad (10); and comparing the measured capacitance signal with a threshold value in order to determine whether or not a touch has taken place, wherein the threshold value is continuously adjusted as a function of the actual measurement of capacitance and as a function of the resistance of said resistive strain gauges (30, 40) which form the capacitor electrodes of said touchpad (10).

Abstract: It is disclosed a wearable touch sensitive garment (100) comprising an array (12) of electronic capacitive sensors integrated into the garment (100), the array (12) of electronic capacitive sensors comprising a plurality of electrodes (E1-E5), each electrode (E1-E5) being individually electrically connected to an Electronic Control Unit (ECU) (30), the ECU (30) being configured to evaluate a parasitic capacitive coupling between each of the electrodes (E1-E5) and a wearer's touch, the ECU (30) being provided with a readable display (35) configured to display an indication representative of a gesture performed on the array (12).

Abstract: It is disclosed a capacity touch fabric sensor (10) comprising a fabric layer (30) and layer (20) of a highly resistive material coating, the resistive coating layer (20) coating the fabric layer (30), wherein the fabric sensor (10) further comprises a plurality of electrodes (40) superimposed to the fabric layer (30), the plurality of electrodes (40) being electrically coupled with the first layer (20) of resistive material coating, each electrode (40) being connected by means of an electrical connection (50) to an electronic control unit (450), the electronic control unit (450) being configured to evaluate the capacitance variation of the resistive layer that is indicative of a touch event on the capacity touch fabric sensor (10).