mhurhangee/patent-ind-claim-en huggingface dataset:
A method for manufacturing a dry-laid mat suitable for thermoforming, comprising the steps of a) impregnating cellulosic or lignocellulosic fibers with a cross linking agent dissolved in a solvent which is able to penetrate into the pores of the fiber structures, so that the cross linking agent is adsorbed onto the fiber surfaces and also absorbed into the pores of the fiber structures, followed by drying the mixture of cellulosic or lignocellulosic fibers and cross linking agent at such conditions that the temperature of the fibers does not exceed 150°C; followed by b) forming a mat comprising the product of step a), said product of step a) having a moisture content of less than 10 wt-%, by a dry forming process carried out at such conditions that the temperature of the fibers does not exceed 150°C, wherein the mat formed in step b) comprises at least one thermoplastic polymer. a) impregnating cellulosic or lignocellulosic fibers with a cross linking agent dissolved in a solvent which is able to penetrate into the pores of the fiber structures, so that the cross linking agent is adsorbed onto the fiber surfaces and also absorbed into the pores of the fiber structures, followed by drying the mixture of cellulosic or lignocellulosic fibers and cross linking agent at such conditions that the temperature of the fibers does not exceed 150°C; followed by b) forming a mat comprising the product of step a), said product of step a) having a moisture content of less than 10 wt-%, by a dry forming process carried out at such conditions that the temperature of the fibers does not exceed 150°C, wherein the mat formed in step b) comprises at least one thermoplastic polymer.
A robot cleaner comprising: a cleaner main body defining an external appearance of the robot cleaner; a fan unit mounted in the cleaner main body for generating suction force; a suction unit provided in the cleaner main body and having a suction port for suctioning air containing dust via driving of the fan unit and a first discharge port for discharging the air containing the dust; characterized in that the robot cleaner further comprises a second discharge port for discharging the air containing the dust; a first guide member coupled to the first discharge port ; a second guide member coupled to the second discharge port ; and a cyclone unit for separating the dust from the air suctioned through the suction port using centrifugal force, the cyclone unit having a first communication hole for communicating with the first guide member and a second communication hole for communicating with the second guide member , wherein the air guided by the first guide member and the air guided by the second guide member are mixed with each other in the cyclone unit . a cleaner main body defining an external appearance of the robot cleaner; a fan unit mounted in the cleaner main body for generating suction force; a suction unit provided in the cleaner main body and having a suction port for suctioning air containing dust via driving of the fan unit and a first discharge port for discharging the air containing the dust; characterized in that the robot cleaner further comprises a second discharge port for discharging the air containing the dust; a first guide member coupled to the first discharge port ; a second guide member coupled to the second discharge port ; and a cyclone unit for separating the dust from the air suctioned through the suction port using centrifugal force, the cyclone unit having a first communication hole for communicating with the first guide member and a second communication hole for communicating with the second guide member , wherein the air guided by the first guide member and the air guided by the second guide member are mixed with each other in the cyclone unit .
An array substrate, comprising: a base substrate , thin-film transistors (TFTs) each including a gate electrode , a gate insulating layer , an active layer , an ohmic contact layer , a source electrode and a drain electrode , an isolation layer and an organic resin layer formed on the base substrate , and a common electrode layer formed on the organic resin layer , wherein the isolation layer covers the source electrodes and the drain electrodes of the TFTs; the organic resin layer covers the isolation layer and is provided with first through holes corresponding to the drain electrodes of the TFTs; the isolation layer is provided with second through holes communicated with the first through holes to expose partial drain electrodes ; and the diameter of the second through holes is greater than that of the first through holes , wherein the through holes are configured to connect the drain electrode with a pixel electrode.
Openable hood hinge , comprising a hood part assigned to a hood (A), a body part assigned to a vehicle body (B), a joint arrangement which hingedly connects the hood part and the body part , a release arrangement which deploys the hood part with respect to the body part , a locking device for locking the hood part in its opened position with respect to the body part , and a limiting arrangement for limiting a movement of the hood part relative to the body part , the limiting arrangement comprising a first limiting element and a second limiting element and being moved from a passive position to a limiting position when the hood part is deployed with respect to the body part , the first limiting element being designed as a pivoting support, and the pivoting support being biased toward the limiting position by a biasing means , characterized in that the first limiting element comprises a coupling portion at a first end, which coupling portion is provided for coupling to the second limiting element , and that the first limiting element comprises a stop portion at a second end. a hood part assigned to a hood (A), a body part assigned to a vehicle body (B), a joint arrangement which hingedly connects the hood part and the body part , a release arrangement which deploys the hood part with respect to the body part , a locking device for locking the hood part in its opened position with respect to the body part , and a limiting arrangement for limiting a movement of the hood part relative to the body part , the limiting arrangement comprising a first limiting element and a second limiting element and being moved from a passive position to a limiting position when the hood part is deployed with respect to the body part ,
A method for wireless communications, comprising: generating control information for scheduling transmissions of a user equipment in one or more subframes; transmitting the control information to a user equipment in a downlink control channel with at least one field; wherein different values of the at least one field indicate via a mapping different combinations of one or more different subframes and one or more different component carriers to which the control information is to be applied, wherein the mapping is specific to a user equipment and may be dynamically updated, and wherein the at least one field comprises: a carrier indicator field; and an uplink index, wherein the uplink index indicates subframes for uplink transmission within a radio frame of a time division duplex, TDD, system. generating control information for scheduling transmissions of a user equipment in one or more subframes; transmitting the control information to a user equipment in a downlink control channel with at least one field; wherein different values of the at least one field indicate via a mapping different combinations of one or more different subframes and one or more different component carriers to which the control information is to be applied, wherein the mapping is specific to a user equipment and may be dynamically updated, and wherein the at least one field comprises: a carrier indicator field; and an uplink index, wherein the uplink index indicates subframes for uplink transmission within a radio frame of a time division duplex, TDD, system. a carrier indicator field; and an uplink index, wherein the uplink index indicates subframes for uplink transmission within a radio frame of a time division duplex, TDD, system.
Method for determining the state of an electrical switchgear assembly , wherein the electric current (I) and the voltage (U) dropped across the switchgear assembly are measured, characterized in that a time interval of an arc occurring during a switching operation is ascertained, wherein the time interval begins when the value of the measured voltage (U) exceeds a first threshold value and the time interval ends when the value of the current intensity (I) falls below a second threshold value , characterized in that the time interval ascertained in this way is compared with a reference value that is specific to the switchgear assembly and that is ascertained using the same method for an assembly in the new state, and the time difference (Δt) between the ascertained time interval and the reference value, and the voltage profile (U(t)) is measured during the time interval and is compared with a reference voltage profile measured on an assembly in the new state.
Converter arrangement having - a converter , which is switchable between an AC voltage power supply system and a DC voltage circuit and has power semiconductor valves (121-126), which extend in each case between an AC voltage connection and a DC voltage connection , wherein each power semiconductor valve (121-126) comprises a series circuit of two-pole submodules , which comprise power semiconductors , and - a star point reactor , which is arranged on the AC-voltage side of the converter and has inductor coils , which are interconnected to form a grounded neutral point, characterized in that the inductor coils have a common coil core , wherein a compensation winding is assigned to each inductor coil of the star point reactor , wherein the compensation windings are arranged in an electrical series circuit between the neutral point and the link to ground , wherein the compensation windings and the inductor coils have a common coil core wherein the star point reactor is arranged between a transformer , which is arranged on the AC-voltage side of the converter , and the AC voltage connection of the converter , wherein a winding sense of the compensation windings and of the inductor coils is in the same direction, and the star point reactor has a switching unit , which is arranged between the compensation windings and the link to ground . - a converter , which is switchable between an AC voltage power supply system and a DC voltage circuit and has power semiconductor valves (121-126), which extend in each case between an AC voltage connection and a DC voltage connection , wherein each power semiconductor valve (121-126) comprises a series circuit of two-pole submodules , which comprise power semiconductors , and - a star point reactor , which is arranged on the AC-voltage side of the converter and has inductor coils , which are interconnected to form a grounded neutral point, characterized in that the inductor coils have a common coil core , wherein a compensation winding is assigned to each inductor coil of the star point reactor , wherein the compensation windings are arranged in an electrical series circuit between the neutral point and the link to ground , wherein the compensation windings and the inductor coils have a common coil core wherein the star point reactor is arranged between a transformer , which is arranged on the AC-voltage side of the converter , and the AC voltage connection of the converter , wherein a winding sense of the compensation windings and of the inductor coils is in the same direction, and the star point reactor has a switching unit , which is arranged between the compensation windings and the link to ground .
An electronic system comprising a set of electronic devices , each electronic device comprising a memory and a communication module for communicating with one or more other electronic devices of the set, the electronic system comprising: - at least one verification module for verifying the compatibility of each electronic device with the other complementary electronic device(s) with which said electronic device is able to communicate, - at least one generating module for generating at least one deviation indicator when an incompatibility is detected between two electronic devices, wherein each memory of each electronic device comprises a compatibility table for defining compatibility with said other complementary electronic device(s), each compatibility table comprising at least one minimum required version number for each of said other complementary electronic device(s), and each verification module is adapted for comparing, for one or more given electronic devices, a version number of each of said other complementary electronic device(s) with the corresponding minimum required version number, each verification module is incorporated into a respective electronic device , and at least one device comprises a module for delegating the compatibility verification to another electronic device comprising a verification module , and the delegating module is adapted for sending, to said verification module , the version numbers contained in the compatibility table of the electronic device that comprises said delegating module . - at least one verification module for verifying the compatibility of each electronic device with the other complementary electronic device(s) with which said electronic device is able to communicate, - at least one generating module for generating at least one deviation indicator when an incompatibility is detected between two electronic devices,
Method for determining a class of an object using an ultrasonic sensor system , wherein the method comprises: - driving the ultrasonic sensor system to emit ultrasonic waves , - receiving the ultrasonic waves reflected by the object at the ultrasonic sensor system , - determining a shape of an envelope corresponding to an amplitude of the ultrasonic waves received at the ultrasonic sensor system , wherein determining the shape of the envelope comprises determining a number of peaks included in the envelope after emitting the ultrasonic waves , and - determining the class of the object based on the determined shape of the envelope , characterized in that - determining the shape of the envelope comprises, when the number of peaks included in the envelope is determined to be equal to two, determining a shape of the peaks included in the envelope . - driving the ultrasonic sensor system to emit ultrasonic waves , - receiving the ultrasonic waves reflected by the object at the ultrasonic sensor system , - determining a shape of an envelope corresponding to an amplitude of the ultrasonic waves received at the ultrasonic sensor system , wherein determining the shape of the envelope comprises determining a number of peaks included in the envelope after emitting the ultrasonic waves , and - determining the class of the object based on the determined shape of the envelope , - determining the shape of the envelope comprises, when the number of peaks included in the envelope is determined to be equal to two, determining a shape of the peaks included in the envelope .
An epilator for removing body hair, the epilator comprising a body having a head section , a plucking cylinder which is rotatable about a first rotation axis (I) in the head section for plucking hairs and at least one shaving blade for shaving off hairs , which is mounted in the head section movable with respect to the plucking cylinder , wherein the at least one shaving blade is transferable between a retracted position in which the at least one shaving blade does not protrude from the head section and an extended position in which the at least one shaving blade protrudes from the head section , characterized in that the at least one shaving blade is pivotably mounted in the head section .
A multiple-use tie strip, formed in a ladder-shaped construction comprising: two substantially linear side rails of generally uniform cross-section, the rails being interconnected by a plurality of closely spaced curved or chevron rungs which define between them similarly shaped apertures , wherein the tie is adapted such that, in use, a free end of the tie strip can readily pass through one of said apertures in a forward direction and form a closed loop, but when pulled in the reverse direction, the rungs engage to form a co-operative latch and thereby prevent withdrawal, and wherein the side arms are generally inclined towards a rear end of the strip in all three dimensions, laterally, longitudinally and vertically to create a double rake angle of each rung that points both backwards and upwards; characterised in that the interconnecting rungs have both longitudinal and vertical rakes of approximately 20° to 30° when the tie strip is in a relaxed unthreaded state. two substantially linear side rails of generally uniform cross-section, the rails being interconnected by a plurality of closely spaced curved or chevron rungs which define between them similarly shaped apertures , wherein the tie is adapted such that, in use, a free end of the tie strip can readily pass through one of said apertures in a forward direction and form a closed loop, but when pulled in the reverse direction, the rungs engage to form a co-operative latch and thereby prevent withdrawal, and wherein the side arms are generally inclined towards a rear end of the strip in all three dimensions, laterally, longitudinally and vertically to create a double rake angle of each rung that points both backwards and upwards; characterised in that the interconnecting rungs have both longitudinal and vertical rakes of approximately 20° to 30° when the tie strip is in a relaxed unthreaded state.
A negative electrode plate, comprising a negative electrode current collector and a negative membrane disposed on the negative electrode current collector, wherein, the negative membrane comprises: a first coating layer, located on an outermost layer of the negative membrane and comprising a first negative active material, the first negative active material comprising a silicon-based material and a carbon material; and a second coating layer, disposed between the first coating layer and the negative electrode current collector and comprising a second negative active material, the second negative active material comprising a silicon-based material and a carbon material; in the first coating layer, a mass percentage of the silicon-based material is 0.5% to 5%; and, in the second coating layer, a mass percentage of the silicon-based material is 10% to 40%. wherein, the negative membrane comprises: a first coating layer, located on an outermost layer of the negative membrane and comprising a first negative active material, the first negative active material comprising a silicon-based material and a carbon material; and a second coating layer, disposed between the first coating layer and the negative electrode current collector and comprising a second negative active material, the second negative active material comprising a silicon-based material and a carbon material; in the first coating layer, a mass percentage of the silicon-based material is 0.5% to 5%; and, in the second coating layer, a mass percentage of the silicon-based material is 10% to 40%. a first coating layer, located on an outermost layer of the negative membrane and comprising a first negative active material, the first negative active material comprising a silicon-based material and a carbon material; and a second coating layer, disposed between the first coating layer and the negative electrode current collector and comprising a second negative active material, the second negative active material comprising a silicon-based material and a carbon material; in the first coating layer, a mass percentage of the silicon-based material is 0.5% to 5%; and, in the second coating layer, a mass percentage of the silicon-based material is 10% to 40%.
A system, comprising: a mounting assembly configured to be mounted directly on a condenser ; a first compressor configured to compress a refrigerant, the first compressor mounted directly on the mounting assembly and comprising a compressor inlet and a compressor outlet , wherein the first compressor is an electric compressor; characterised in that : a valve is also mounted directly on the mounting assembly , the valve comprising: a first valve inlet fluidly coupled to the compressor outlet of the first compressor ; a second valve inlet configured to be fluidly coupled to a compressor outlet of a second compressor ; and a valve outlet to be fluidly connected to a condenser inlet of the condenser . a mounting assembly configured to be mounted directly on a condenser ; a first compressor configured to compress a refrigerant, the first compressor mounted directly on the mounting assembly and comprising a compressor inlet and a compressor outlet , wherein the first compressor is an electric compressor; characterised in that : a valve is also mounted directly on the mounting assembly , the valve comprising: a first valve inlet fluidly coupled to the compressor outlet of the first compressor ; a second valve inlet configured to be fluidly coupled to a compressor outlet of a second compressor ; and a valve outlet to be fluidly connected to a condenser inlet of the condenser . a first valve inlet fluidly coupled to the compressor outlet of the first compressor ; a second valve inlet configured to be fluidly coupled to a compressor outlet of a second compressor ; and a valve outlet to be fluidly connected to a condenser inlet of the condenser .