mhurhangee/patent-ind-claim-en huggingface dataset:
A coupling system for hose lines and/or pipelines, comprising - a plug nipple and - a valve body , into which the plug nipple can be inserted with an accompanying detachable fastening via the valve body ; wherein a) the valve body has a first valve mechanism , which is opened via the plug nipple by means of the plug nipple being inserted into the valve body , and which closes independently when the plug nipple is separated from the valve body ; and wherein b) the plug nipple has a second valve mechanism ; wherein - the coupling system comprises at least one insert , wherein the first valve mechanism of the valve body and the at least one insert are designed as two components of the valve body that are separable from one another; and which at least one insert - can be removably arranged in a receptacle formed by the valve body , and which insert , when removably arranged in the receptacle formed by the valve body , is designed to independently open the second valve mechanism when the plug nipple is inserted into the valve body , which second valve mechanism is part of the plug nipple . - a plug nipple and - a valve body , into which the plug nipple can be inserted with an accompanying detachable fastening via the valve body ; wherein a) the valve body has a first valve mechanism , which is opened via the plug nipple by means of the plug nipple being inserted into the valve body , and which closes independently when the plug nipple is separated from the valve body ; and wherein b) the plug nipple has a second valve mechanism ; wherein a) the valve body has a first valve mechanism , which is opened via the plug nipple by means of the plug nipple being inserted into the valve body , and which closes independently when the plug nipple is separated from the valve body ; and wherein b) the plug nipple has a second valve mechanism ; wherein - the coupling system comprises at least one insert , wherein the first valve mechanism of the valve body and the at least one insert are designed as two components of the valve body that are separable from one another; and which at least one insert - can be removably arranged in a receptacle formed by the valve body , and which insert , when removably arranged in the receptacle formed by the valve body , is designed to independently open the second valve mechanism when the plug nipple is inserted into the valve body , which second valve mechanism is part of the plug nipple .
Apparatus for non-invasive measurement of a concentration of a substance within a body, comprising: a detector configured to sense radiation emitted or remitted from a body; an optical subsystem configured to focus the radiation on a sensitive area of the detector; and one or more temperature sensors (61-75) attached to one or more of a plurality of elements of the optical subsystem and one or more additional temperature sensors attached to the detector , the one or more temperature sensors being configured to measure the temperature of the one or more elements of the optical subsystem, the one or more additional temperature sensors being configured to measure the temperature of the detector, and the apparatus being configured to correct a value of the sensed radiation for the effects of the emission of each of the detector and the one or more elements of the optical subsystem using predetermined calibration parameters determined from the measured temperatures of the one or more elements of the optical subsystem and of the detector and to measure the concentration of the substance using the corrected value of the sensed radiation. a detector configured to sense radiation emitted or remitted from a body; an optical subsystem configured to focus the radiation on a sensitive area of the detector; and one or more temperature sensors (61-75) attached to one or more of a plurality of elements of the optical subsystem and one or more additional temperature sensors attached to the detector , the one or more temperature sensors being configured to measure the temperature of the one or more elements of the optical subsystem, the one or more additional temperature sensors being configured to measure the temperature of the detector, and the apparatus being configured to correct a value of the sensed radiation for the effects of the emission of each of the detector and the one or more elements of the optical subsystem using predetermined calibration parameters determined from the measured temperatures of the one or more elements of the optical subsystem and of the detector and to measure the concentration of the substance using the corrected value of the sensed radiation.
A method of proactive management of a plurality of storage arrays in a multi-array system , the method comprising: comparing one or more conditions of a particular storage array to conditions of other storage arrays in the multi-array system to determine which of the storage arrays are underperforming with respect to a particular condition relative to the other storage arrays in the multi-array system, the one or more conditions representing operational aspects of a storage array ; generating, based on the comparison, a plurality of action recommendations specifying one or more actions for improving the one or more conditions of the particular storage array relative to the one or more conditions of the other storage arrays , each action recommendation associated with one of the storage arrays in the multi-array system and comprising a criticality level comprising a value used to convey how important a particular action is to apply, and presenting one or more of the action recommendations including highlighting the one or more of the action recommendations in dependence upon the criticality level of the one or more action recommendations . comparing one or more conditions of a particular storage array to conditions of other storage arrays in the multi-array system to determine which of the storage arrays are underperforming with respect to a particular condition relative to the other storage arrays in the multi-array system, the one or more conditions representing operational aspects of a storage array ; generating, based on the comparison, a plurality of action recommendations specifying one or more actions for improving the one or more conditions of the particular storage array relative to the one or more conditions of the other storage arrays , each action recommendation associated with one of the storage arrays in the multi-array system and comprising a criticality level comprising a value used to convey how important a particular action is to apply, and presenting one or more of the action recommendations including highlighting the one or more of the action recommendations in dependence upon the criticality level of the one or more action recommendations .
A silicone rubber composition comprising: a silicone rubber; and fibrous carbon nanostructures including carbon nanotubes, wherein the fibrous carbon nanostructures exhibit a convex upward shape in a t-plot obtained from an adsorption isotherm, and a content of an electrically conductive material other than the fibrous carbon nanostructures is 25% by mass or less, and the carbon nanotubes have not undergone carbon nanotube opening formation treatment. a silicone rubber; and fibrous carbon nanostructures including carbon nanotubes, wherein the fibrous carbon nanostructures exhibit a convex upward shape in a t-plot obtained from an adsorption isotherm, and a content of an electrically conductive material other than the fibrous carbon nanostructures is 25% by mass or less, and the carbon nanotubes have not undergone carbon nanotube opening formation treatment.
An at least partly implantable system for injecting a substance into a patient's body, comprising - at least one implantable infusion needle arranged in at least one first housing, the at least one implantable infusion needle having a tip end for injecting a substance into a penetration area of a patient, and - at least one drive unit (D) coupled to the at least one implantable infusion needle and arranged for moving the tip end of the at least one infusion needle for varying the penetration site, wherein the at least one drive unit is a drive unit arranged for moving the tip end of the at least one infusion needle using hydraulic force characterized in that the system is adapted to use infusion liquid to be injected into the patient's body as hydraulic fluid. - at least one implantable infusion needle arranged in at least one first housing, the at least one implantable infusion needle having a tip end for injecting a substance into a penetration area of a patient, and - at least one drive unit (D) coupled to the at least one implantable infusion needle and arranged for moving the tip end of the at least one infusion needle for varying the penetration site, wherein the at least one drive unit is a drive unit arranged for moving the tip end of the at least one infusion needle using hydraulic force characterized in that the system is adapted to use infusion liquid to be injected into the patient's body as hydraulic fluid.
A Z-pin , characterized in that the Z-pin comprises: a first bi-metal structure including a first metal strip and a second metal strip bonded together, where the first and second metal strips have different coefficients of thermal expansion; and a second bi-metal structure ) including a third metal strip and a fourth metal strip bonded together, where the third metal strip and the fourth metal strip have different coefficients of thermal expansion, wherein the second metal strip and the third metal strip are selectively secured together at at least one discrete location so that heating of the Z-pin causes the first and second bi-metal strip structures to deform relative to each other. a first bi-metal structure including a first metal strip and a second metal strip bonded together, where the first and second metal strips have different coefficients of thermal expansion; and a second bi-metal structure ) including a third metal strip and a fourth metal strip bonded together, where the third metal strip and the fourth metal strip have different coefficients of thermal expansion, wherein the second metal strip and the third metal strip are selectively secured together at at least one discrete location so that heating of the Z-pin causes the first and second bi-metal strip structures to deform relative to each other.
. A cable treatment device for treatment of an end section of a power cable , the cable treatment device comprising: - an affixing means for reversible securing around a circumference of a power cable , - a kinematic means having attachment means for attaching to the affixing means , said kinematic means is adapted to provide kinematic motion relative to said attachment means, the kinematic motion being fully controllable through a plurality of force input connections, and - a tooling means attached to said kinematic means, said tooling means adapted to receive said kinematic motion, wherein the kinematic means allows the tooling means to move cross-sectionally relative to the extension of a power cable , to which the affixing means is securable, preferably the cable treatment device further has a tool head connected to said tooling means, said tool head being a cable end treatment tool facing a cable end of a power cable securabled by the affixing means . - an affixing means for reversible securing around a circumference of a power cable , - a kinematic means having attachment means for attaching to the affixing means , said kinematic means is adapted to provide kinematic motion relative to said attachment means, the kinematic motion being fully controllable through a plurality of force input connections, and - a tooling means attached to said kinematic means, said tooling means adapted to receive said kinematic motion, wherein the kinematic means allows the tooling means to move cross-sectionally relative to the extension of a power cable , to which the affixing means is securable,
An electronic device comprising: a touch screen ; a communication circuitry ; a memory ; a power input unit ; a battery ; and a processor comprising a power management module , wherein the power management module comprises a watch-dog timer, wherein the power management module is configured to: control the power input unit to supply power to the battery , the touch screen and the communication circuitry in a normal operation state; control the battery to supply the power to the touch screen and the communication circuitry in an abnormal operation state, wherein the abnormal operation state comprises one of an overcurrent condition, an overheating condition and a system lock-up condition; control the watch-dog timer to monitor whether the processor identifies a register bit within a predetermined time; when the processor does not identify the register bit within the predetermined time, control the watch-dog timer to determine that the processor is in the abnormal operation state; and in response to determining that the processor is in the abnormal operation state, block power supplied through the power input unit being supplied to the battery , the touch screen and the communication circuitry . a touch screen ; a communication circuitry ; a memory ; a power input unit ; a battery ; and a processor comprising a power management module , wherein the power management module comprises a watch-dog timer, wherein the power management module is configured to: control the power input unit to supply power to the battery , the touch screen and the communication circuitry in a normal operation state; control the battery to supply the power to the touch screen and the communication circuitry in an abnormal operation state, wherein the abnormal operation state comprises one of an overcurrent condition, an overheating condition and a system lock-up condition; control the power input unit to supply power to the battery , the touch screen and the communication circuitry in a normal operation state; control the battery to supply the power to the touch screen and the communication circuitry in an abnormal operation state, wherein the abnormal operation state comprises one of an overcurrent condition, an overheating condition and a system lock-up condition; control the watch-dog timer to monitor whether the processor identifies a register bit within a predetermined time; when the processor does not identify the register bit within the predetermined time, control the watch-dog timer to determine that the processor is in the abnormal operation state; and in response to determining that the processor is in the abnormal operation state, block power supplied through the power input unit being supplied to the battery , the touch screen and the communication circuitry .
Apparatus for manufacturing a sheath for electrical cables , in particular a sheath for cables in automobiles, comprising at least one manipulator and one nozzle connected to the manipulator for dispensing a curable liquid plastic material in the course of a generative manufacturing method, wherein the sheath is produced entirely or partly using the generative manufacturing method by constructing a layering sequence, characterized in that the sheath closely envelops the cables or a wiring harness constituted in this way in the manner of a tubular sheath , wherein further for the construction of the sheath initially a first layer is built up on a base by the manipulator performing a circular movement about the wiring harness which is fed through an opening in the base , which movement is controlled with a control unit , and wherein the plastic material includes a grafted acrylate polymer as the main constituent.
Method for producing a semiconductor device comprising the following steps: - providing a semiconductor component , - providing a carrier body , on which the semiconductor component is mounted and which comprises a ceramic body and a thermistor sensor structure integrated into the carrier body and directly connected to the ceramic body , wherein the ceramic body and the thermistor sensor structure are produced in a common process and form a monolithic ceramic part, and - providing a heat sink , on which the carrier body is mounted. - providing a semiconductor component , - providing a carrier body , on which the semiconductor component is mounted and which comprises a ceramic body and a thermistor sensor structure integrated into the carrier body and directly connected to the ceramic body , wherein the ceramic body and the thermistor sensor structure are produced in a common process and form a monolithic ceramic part, and - providing a heat sink , on which the carrier body is mounted.
An autonomous vehicle system, comprising: an autonomous vehicle , comprising: a communications system configured to communicate with a base station ; a control system communicatively coupled to the communications system , the control system comprising a processor configured to: receive driving commands from the base station ; execute the driving commands to drive the autonomous vehicle ; and characterised by executing a vehicle controller-to-subsystems latency protocol to determine a communications latency between a vehicle controller and vehicle subsystems, and to stop the autonomous vehicle if the communications latency exceeds a user-configurable latency value, wherein the vehicle controller and vehicle subsystem are disposed in the autonomous vehicle . a communications system configured to communicate with a base station ; a control system communicatively coupled to the communications system , the control system comprising a processor configured to: receive driving commands from the base station ; execute the driving commands to drive the autonomous vehicle ; and characterised by executing a vehicle controller-to-subsystems latency protocol to determine a communications latency between a vehicle controller and vehicle subsystems, and to stop the autonomous vehicle if the communications latency exceeds a user-configurable latency value, wherein the vehicle controller and vehicle subsystem are disposed in the autonomous vehicle . receive driving commands from the base station ; execute the driving commands to drive the autonomous vehicle ; and characterised by executing a vehicle controller-to-subsystems latency protocol to determine a communications latency between a vehicle controller and vehicle subsystems, and to stop the autonomous vehicle if the communications latency exceeds a user-configurable latency value, wherein the vehicle controller and vehicle subsystem are disposed in the autonomous vehicle .
A toothbrush having an elongated handle and a brush head connected to the handle supporting an array of bristles including a plurality of bundles of bristles , wherein a plurality of bundles of bristles provided at an outer edge of the array of bristles have a diameter between 0.8 and 1.2 mm and/or are formed from microfilaments having a diameter of 0.10 to 0.15 mm (4 to 6 mils), the tooth-facing end of which has a tapering shape, characterized in that the brush head has a solid base body defining a surface from which the bundles of bristles protrude, and in that the bundles of bristles having a diameter of between 0.8 and 1.2 mm and/or being formed from microfilaments having a diameter of 0.10 to 0.15 mm (4 to 6 mils) protrude from surface portions that are higher than the surface portions from which the conventional bundles of bristles formed of filaments having a diameter of 0.13 to 0.20 mm (5 to 8 mils) protrude.
A method for controlling a wind turbine , the method comprising: measuring a loading condition acting on the wind turbine; determining a first scaler factor based on the measured loading condition; determining a correction parameter for the wind turbine, the correction parameter being a function of at least two measured operating conditions and representative of a real-time operational state of the wind turbine; determining a second scaler factor based on the correction parameter; calculating an adjustment set point for the wind turbine based on a common function of the first scaler factor and the second scaler factor; and characterized by : controlling the wind turbine based on the adjustment set point by curtailing a de-rated power curve to increase up to and above a rated power curve whilst maintaining loading at less than design loads, and calculating the adjustment set point by multiplying the first scaler factor by the second scaler factor. measuring a loading condition acting on the wind turbine; determining a first scaler factor based on the measured loading condition; determining a correction parameter for the wind turbine, the correction parameter being a function of at least two measured operating conditions and representative of a real-time operational state of the wind turbine; determining a second scaler factor based on the correction parameter; calculating an adjustment set point for the wind turbine based on a common function of the first scaler factor and the second scaler factor; and characterized by : controlling the wind turbine based on the adjustment set point by curtailing a de-rated power curve to increase up to and above a rated power curve whilst maintaining loading at less than design loads, and calculating the adjustment set point by multiplying the first scaler factor by the second scaler factor. controlling the wind turbine based on the adjustment set point by curtailing a de-rated power curve to increase up to and above a rated power curve whilst maintaining loading at less than design loads, and calculating the adjustment set point by multiplying the first scaler factor by the second scaler factor.