35 results about "Textile sensors" patented technology

A method for the production of a conductive flexible textile array. The method includes the application of an oxidizing agent to selected areas of the textile; coating the textile with pyrrole by vapor deposition to form a conductive coated textile having a polypyrrole network; stabilizing the conductive coated textile; and forming the conductive flexible textile arrays as a sensor. With this method of production, the degree of polymerization of the conjugated polymer, the morphology and the rate of the capacitance delay is carefully controlled. As such, stable flexible textile sensors are produced with various levels of sensitivities and conductivities which are particularly useful for designed applications.

A method for making a textile sensor and a textile sensor can include selecting a combination of variables from the group consisting of yarn variables, stitch variables, and textile variables; and knitting an electrically conductive yarn in the textile sensor in accordance with the selected combination of variables, wherein the combination of variables is selected so as to provide a controlled amount of contact resistance in the textile sensor. The method and textile can further include a capacitive textile-sensor having at least two integrally knit capacitor plate elements and having a configuration adapted for a sensing activity. Resistance in the textile sensor can automatically calibrate to a stable baseline level after the textile sensor is applied to a body.

An independent wearable health monitoring system is configured for use by a living being on a daily basis. The system includes a knitted garment worn by the living being adjacently to preconfigured body locations, a garment-processing device having processor, and a multiplicity of sensors adapted to measure health parameters, wherein at least some sensors are integrally knitted with the knitted garment, and wherein the knitted textile sensors include electrodes adapted to provide ECG data. The system further includes an interface adapted to operatively connect at least one external medical device to the garment-processing device. Preferably, the health monitoring system further includes two conductive, integrally knitted pads operatively disposed tightly adjacently to the skin of the monitored living being, adapted to facilitate placing of a respective defibrillator paddles thereon and applying defibrillator shocks. Preferably, the garment-processing device controls the activation and deactivation of the defibrillator shocks.

A combined sensor adapted to measure at least one medical or clinical sign is provided. The combined sensor comprises a textile sensor configured so as to determine pressure applied to the combined sensor; and an optical sensor. The optical sensor typically comprises at least one fibre- optic sensor (FOS) and may function as a photoplethysmography (PPG) sensor, optionally a reflectance mode photoplethysmography (PPG) sensor. The combined sensor is able to eliminate motion artefacts caused by movement of a subject wearing the sensor thereby facilitating long-term ambulatory monitoring of subjects.

The invention provides a method for manufacturing a textile temperature sensor (100). The method comprises the steps of arranging a linear knitting machine comprising at least one first thread-guide and a second thread-guide; arranging a conductive insulated wire (120) on the first thread-guide, said conductive insulated wire (120) having a first end (121) and a second end (122); meshing the conductive insulated wire (120) for making a mesh portion B having not conductive surface. The method comprises then the steps of arranging an electric resistance measuring device configured to measure a variation of electric resistance R(T), said electric resistance R(T) being function of the temperature T, said step of measuring device phase of the electric resistance comprising a first electric cable (201) and a second electric cable (202); electric connection of the first electric cable (201) to the first end (121) and of the second electric cable (202) to the second end (122); arranging a control unit arranged to receive from the device the variation of electric resistance R(T) in order to calculate excursions of temperature T at the lead wire (120).

A process for the large-scale manufacturing vertically standing hybrid nanometer scale structures of different geometries including fractal architecture of nanostructure within a nano / micro structures made of flexible materials, on a flexible substrate including textiles is disclosed. The structures increase the surface area of the substrate. The structures maybe coated with materials that are sensitive to various physical parameters or chemicals such as but not limited to humidity, pressure, atmospheric pressure, and electromagnetic signals originating from biological or non-biological sources, volatile gases and pH. The increased surface area achieved through the disclosed process is intended to improve the sensitivity of the sensors formed by coating of the structure and substrate with a material which can be used to sense physical parameters and chemicals as listed previously. An embodiment with the structures on a textile substrate coated with a conductive, malleable and bio-compatible sensing material for use as a biopotential measurement electrode is provided.

The present application describes the creation of a flexible textile structure with sensing and lighting capabilities without the loss of important features of a typical textile, for instance, comfort, seamless and mechanical flexibility. As sensing applications are described three different approaches that may or may not work together in the same system: a directly printed self-capacitive sensor, a knitted textile sensor and the integration of temperature / humidity bulk capacitive sensors directly on the textile. As lighting applications for decorative and signage purposes are used two different approaches that could work individually or together: an electroluminescent sensing device and the use of a hybrid sensor that includes the use of SMD LEDs and a printed self-capacitive sensor. The sensing and lighting applications previously described can be used, as an example, inside an automobile passenger compartment since they are easily integrated on seats with different geometries, armrests and central panels to substitute common mechanical buttons and sensing devices, and create a cleaner and seamless environment, following current tendencies in car interiors.

The invention discloses an automatic cleaning machine and method for a textile sensor metal comb. The automatic cleaning machine comprises a feeding box, a feeding system, a conveying system, a cleaning and polishing system, a discharging box, a bracket, fixing corner pieces and adjusting feet. The automatic cleaning machine and method are suitable for polishing and cleaning of the textile sensor knitted belt laser cutting fixture metal comb. Modular design is adopted. The cleaning machine is mainly divided into the feeding system, the conveying system and the cleaning and polishing system. The main body of the cleaning machine for the metal comb is fixed to the bracket. The to-be-cleaned metal comb is placed in the feeding box, carried onto a conveying belt through the feeding system and ensured to be single; the metal comb is conveyed to the designated position through the conveying belt and fixed through an electromagnet; polishing and cleaning are started; and after cleaning is completed, the metal comb is conveyed to the metal comb discharging box through the conveying belt. The metal comb automatic cleaning method provided by the invention replaces an existing worker manual cleaning working mode, the working environment of metal comb cleaning workers is improved, and the cleaning efficiency is improved.

The invention discloses a method and a device for testing the infrared emission difference between the front and back of textiles. The test device includes: a bracket part, a horizontal movement part, a test part composed of an infrared light source, an upper and lower measuring arm and a sensor. The method of testing the infrared emission difference between the front and back of the textile is: fix the sample to be tested on the test board, turn on the infrared light source, realize the left and right movement of the test board through the horizontal movement part, transport the textile to the test position, and pass the upper and lower measuring arms. The sensor is used to measure the dynamic change of the infrared radiation intensity on the front and back of the textile from entering the infrared radiation area to the steady state. Through the data measured by the sensor, the direct infrared radiation intensity of the front and back sides, the infrared intensity emitted by the front and back sides, and the difference between the infrared emission intensity of the front and back sides are obtained, which can be used in the textile testing industry to realize the infrared emission of the front and back sides of textiles. A quick measure of difference.

The invention provides a fabric sensor-based upper limb functional movement monitoring system, comprising: a signal generating device, including a conductive fabric with a signal transmission line, the conductive fabric is connected to a button battery; the conductive fabric is closely attached to the elbow joint of the upper limb of the human body, and the upper limb moves Stretching the conductive fabric to change the voltage signal at both ends of the conductive fabric; the signal acquisition and transmission device collects the voltage signal and sends it to the signal receiving and display device; the signal receiving and display device receives the voltage signal, And perform functional movement characterization on it, and at the same time display the functional movement state in real time, save and image the data in real time. The invention also provides a method for monitoring upper limb functional movement based on the fabric sensor. The invention has the advantages of low cost, good stability, high sensitivity and strong adaptability, and at the same time, sensitive elements can be well integrated into daily clothing, which can provide a basis for biomechanical analysis of human upper limb movement.