mhurhangee/patent-ind-claim-en huggingface dataset:
Electric power equipment , comprising: a work unit for performing prescribed work; a work motor for driving the work unit ; a travel unit for enabling the electric power equipment to travel on a ground surface; a travel motor for driving the travel unit ; a battery for supplying electric power to the work motor and the travel motor ; an operation input unit for accepting a commanded rotational speed of the travel motor from a user; a control unit for controlling electric power supplied to the work motor and the travel motor ; and a battery condition detecting unit (38; 39) for detecting a voltage or a remaining charge of the battery ; characterized in that the control unit is configured to lower a rotational speed of the travel motor when the voltage or the remaining charge of the battery is below a prescribed level, and the commanded rotational speed is higher than a prescribed rotational speed determination value, thus reducing the travel speed of the electric power equipment when the battery is low, reducing the load of the work motor owing to the reduction in the amount of work, and reducing the electric power required to drive the work motor so that the battery continues to drive the work motor even though the battery is low. a work unit for performing prescribed work; a work motor for driving the work unit ; a travel unit for enabling the electric power equipment to travel on a ground surface; a travel motor for driving the travel unit ; a battery for supplying electric power to the work motor and the travel motor ; an operation input unit for accepting a commanded rotational speed of the travel motor from a user; a control unit for controlling electric power supplied to the work motor and the travel motor ; and a battery condition detecting unit (38; 39) for detecting a voltage or a remaining charge of the battery ; characterized in that the control unit is configured to lower a rotational speed of the travel motor when the voltage or the remaining charge of the battery is below a prescribed level, and the commanded rotational speed is higher than a prescribed rotational speed determination value, thus reducing the travel speed of the electric power equipment when the battery is low, reducing the load of the work motor owing to the reduction in the amount of work, and reducing the electric power required to drive the work motor so that the battery continues to drive the work motor even though the battery is low.
An information processing apparatus for decoding a packet that is encrypted in accordance with Transport Layer Security (TLS) protocols and in which a padding portion has a variable length, the information processing apparatus comprising: acquisition means for acquiring an encrypted packet on a unit data basis; decoding means for decoding the encrypted packet on the unit data basis; output means for outputting decoded data obtained through the decoding performed by the decoding means to an external device in accordance with an order in which the decoding is performed by the decoding means; and control means for restricting output to be performed by the output means in a case where a padding pattern is detected from the decoded data obtained through the decoding performed by the decoding means, wherein the control means is configured to keep restricting the output to be performed by the output means until a pattern different from the padding pattern is detected from the decoded data obtained through the decoding performed by the decoding means. acquisition means for acquiring an encrypted packet on a unit data basis; decoding means for decoding the encrypted packet on the unit data basis; output means for outputting decoded data obtained through the decoding performed by the decoding means to an external device in accordance with an order in which the decoding is performed by the decoding means; and control means for restricting output to be performed by the output means in a case where a padding pattern is detected from the decoded data obtained through the decoding performed by the decoding means, wherein the control means is configured to keep restricting the output to be performed by the output means until a pattern different from the padding pattern is detected from the decoded data obtained through the decoding performed by the decoding means.
Electric machine comprising a rotor which is mounted on a rotor shaft and which has a rotor laminated core , a stator with stator winding heads which are arranged on opposite end faces of the stator , and a housing (26, 26.1, 26.2) with a reservoir for a cooling liquid, wherein the rotor laminated core comprises multiple laminations which are stacked in a stacking direction (L), wherein the laminations each have at least one aperture which connects the end faces (S) of the respective lamination to one another, and wherein the apertures of laminations offset in the stacking direction (L) are arranged offset with respect to one another in a circumferential direction (U) of the laminations , such that - at least one first helical cooling channel (9.1) is formed which runs through the rotor laminated core and which connects an inner region of the rotor laminated core to a first end face (16.1) of the rotor laminated core , - at least one second helical cooling channel (9.2) is formed which runs through the rotor laminated core and which connects the inner region of the rotor laminated core to a second end face (16.2), situated opposite the first end face (16.1), of the rotor laminated core , wherein the first cooling channel (9.1) and the second cooling channel (9.2) - are oriented oppositely with respect to one another, and - are connected via at least one passage within the rotor laminated core to a feed line , which conducts the cooling liquid, within the rotor shaft . - at least one first helical cooling channel (9.1) is formed which runs through the rotor laminated core and which connects an inner region of the rotor laminated core to a first end face (16.1) of the rotor laminated core , - at least one second helical cooling channel (9.2) is formed which runs through the rotor laminated core and which connects the inner region of the rotor laminated core to a second end face (16.2), situated opposite the first end face (16.1), of the rotor laminated core , wherein the first cooling channel (9.1) and the second cooling channel (9.2) - are oriented oppositely with respect to one another, and - are connected via at least one passage within the rotor laminated core to a feed line , which conducts the cooling liquid, within the rotor shaft .
A boundary layer ingestion engine comprising: a fan section configured to extend into a boundary layer of a full annulus of an aft end of a fuselage of an aircraft , the fan section comprising a first fan stage and a second fan stage ; a differential planetary gear system operable to transform rotation of an input shaft into counter rotation of a first shaft coupled to the first fan stage and a second shaft coupled to the second fan stage ; and a motor operable to drive rotation of the input shaft . a fan section configured to extend into a boundary layer of a full annulus of an aft end of a fuselage of an aircraft , the fan section comprising a first fan stage and a second fan stage ; a differential planetary gear system operable to transform rotation of an input shaft into counter rotation of a first shaft coupled to the first fan stage and a second shaft coupled to the second fan stage ; and a motor operable to drive rotation of the input shaft .
A communication apparatus comprising: a receiver configured to receive configuration information from a base station apparatus ; and control circuitry configured to add, based on the configuration information indicating a carrier indicator field value, CIF value, assigned to an added component carrier and a component carrier identification index, CC ID index, of the added component carrier, the CIF value and the CC ID index of the added component carrier to a one-to-one correspondence relationship between one or more CIF values and one or more CC ID indexes, wherein the CIF value assigned to the added component carrier is a previously unconfigured CIF and the one-to-one correspondence relationship prior to the addition is maintained. a receiver configured to receive configuration information from a base station apparatus ; and control circuitry configured to add, based on the configuration information indicating a carrier indicator field value, CIF value, assigned to an added component carrier and a component carrier identification index, CC ID index, of the added component carrier, the CIF value and the CC ID index of the added component carrier to a one-to-one correspondence relationship between one or more CIF values and one or more CC ID indexes, wherein the CIF value assigned to the added component carrier is a previously unconfigured CIF and the one-to-one correspondence relationship prior to the addition is maintained.
A laundry treatment apparatus including: an upper treatment device that includes a drying drum for receiving a target laundry to be dried, an upper driver to rotate the drying drum , a circulation passage unit through which air flows into or out of the drying drum , a heat exchanger to dehumidify and/or heat the air, and a steam generator for supplying steam to the drying drum ; and a lower treatment device that includes a tub to store wash water therein, a washing drum provided in the tub for washing and/or drying target laundry, a tub heater provided in the tub to heat the wash water, and a lower driver to rotate the washing drum ; wherein the laundry treatment apparatus is configured to: - perform, by the lower treatment device , a washing course including at least one of a water supply step, a washing step, a rinsing step, and a dehydration step; and - perform, by the upper treatment device , a drying course including at least one of a hot air supply step, a fan operation step, and a dryness sensing step; and wherein the lower treatment device is configured to perform the washing course including changing a configuration of at least one of an operation of the tub heater , an execution time of the washing course, and an operation of the lower driver , according to a progress state of the drying course. an upper treatment device that includes a drying drum for receiving a target laundry to be dried, an upper driver to rotate the drying drum , a circulation passage unit through which air flows into or out of the drying drum , a heat exchanger to dehumidify and/or heat the air, and a steam generator for supplying steam to the drying drum ; and a lower treatment device that includes a tub to store wash water therein, a washing drum provided in the tub for washing and/or drying target laundry, a tub heater provided in the tub to heat the wash water, and a lower driver to rotate the washing drum ; wherein the laundry treatment apparatus is configured to: - perform, by the lower treatment device , a washing course including at least one of a water supply step, a washing step, a rinsing step, and a dehydration step; and - perform, by the upper treatment device , a drying course including at least one of a hot air supply step, a fan operation step, and a dryness sensing step; and - perform, by the lower treatment device , a washing course including at least one of a water supply step, a washing step, a rinsing step, and a dehydration step; and - perform, by the upper treatment device , a drying course including at least one of a hot air supply step, a fan operation step, and a dryness sensing step; and wherein the lower treatment device is configured to perform the washing course including changing a configuration of at least one of an operation of the tub heater , an execution time of the washing course, and an operation of the lower driver , according to a progress state of the drying course.
A transgenic tomato plant comprising resistance to a plurality of plant virus species, wherein the resistance is provided by at least two different modes of action selected from the group consisting of (a) the expression of a nucleic acid construct that produces dsRNA interfering with expression of a virus coat protein gene, a virus movement protein gene or a virus replication gene, (b) the expression of a nucleic acid construct that produces miRNA interfering with expression of a virus coat protein gene, a virus movement protein gene or a virus replication gene, and (c) expression of a tospovirus genome segment terminal sequence that inhibits virion assembly, wherein at least one mode of action is (b), the resistance comprises resistance against a begomovirus, tospovirus or potexvirus, and the plant comprises a sequence selected from the group consisting of SEQ ID NOs:156, 158, 162, 164, 363-371, 373 and 375.
Method for operating a switchboard of an electric switchboard plant, the switchboard comprising a plurality of electric components, particularly power switches, disconnecting/grounding switches or the like, and wherein sensors for measuring operating parameters are provided, particularly for measuring currents, voltages, temperatures, time periods or the like, wherein, before operating the switchboard , a simulation model of the thermal behavior of the switchboard is determined , characterized in that depending on the simulation model a transfer function is determined before operating the switchboard , which function puts at least two operating parameters of the switchboard in relation to each other, that, during the operation of the switchboard , the switchboard is monitored by means of the transfer function, wherein a value for one of the operating parameters is predetermined, and wherein for one or more other operating parameters a future-oriented value is determined by the transfer function, that calculating the transfer function is performed in real time, that the transfer function is calculated with a value of the predetermined operating parameters occurring during operation of the switchboard , and that, depending on the value of one or more other operating parameters which have been determined by means of the transfer function, the switchboard is affected in such a way that damage will be avoided.
Method for operating a fuel cell system for a motor vehicle, the fuel cell system having at least two fuel cell stacks , and the method comprising at least four different operating modes: - a first operating mode in which, when all the fuel cell stacks are inactive, at least one cooling medium circuit , comprising at least one fuel cell stack , of the fuel cell system is preheated via a cooling medium preheated by means of an electric heater , with all the cooling medium circuits of the active cooling medium circuits being bypassed via bypass lines , and the at least one preheated fuel cell stack is put into operation for preheating at least one further cooling medium circuit , comprising at least one fuel cell stack , of the fuel cell system in a next step, - a second operating mode in which all cooling medium circuits are operated and at least one fuel cell stack is inactive, the cooler circuits being actively operated for all actively operated fuel cell stacks and, in addition, the bypassing of at least one cooler circuit via the bypass line of the at least one inactive fuel cell stack being at least reduced, - a third operating mode in which, during operation of all cooling medium circuits , at least two fuel cell stacks and the cooler circuits of all fuel cell stacks are actively operated, and - a fourth operating mode in which, in the event of inactivity of at least one fuel cell stack , the associated cooler circuit is bypassed via the bypass line , and all cooling medium circuits of the fuel cell system being active, so that the inactive fuel cell stacks are kept warm via the active fuel cell stacks . - a first operating mode in which, when all the fuel cell stacks are inactive, at least one cooling medium circuit , comprising at least one fuel cell stack , of the fuel cell system is preheated via a cooling medium preheated by means of an electric heater , with all the cooling medium circuits of the active cooling medium circuits being bypassed via bypass lines , and the at least one preheated fuel cell stack is put into operation for preheating at least one further cooling medium circuit , comprising at least one fuel cell stack , of the fuel cell system in a next step, - a second operating mode in which all cooling medium circuits are operated and at least one fuel cell stack is inactive, the cooler circuits being actively operated for all actively operated fuel cell stacks and, in addition, the bypassing of at least one cooler circuit via the bypass line of the at least one inactive fuel cell stack being at least reduced, - a third operating mode in which, during operation of all cooling medium circuits , at least two fuel cell stacks and the cooler circuits of all fuel cell stacks are actively operated, and - a fourth operating mode in which, in the event of inactivity of at least one fuel cell stack , the associated cooler circuit is bypassed via the bypass line , and all cooling medium circuits of the fuel cell system being active, so that the inactive fuel cell stacks are kept warm via the active fuel cell stacks .
Thermal infrared sensor array in the wafer-level package with at least one infrared-sensitive pixel produced using silicon micromachining, with a heat-insulating pit in a silicon substrate , which is surrounded by a silicon edge as a heatsink , and a thin membrane over the pit , which is connected to the silicon edge by means of thin beams , and a thermopile structure, wherein the pit extends through the silicon substrate up to the membrane , and wherein slots are located between the membrane , the beams and the silicon edge , characterized in that a plurality of infrared-sensitive individual pixels are arranged in linear or array form and are embodied in a CMOS stack on a dielectric layer , forming the membrane with respectively thin perpendicular or nearly perpendicular walls to the adjacent individual pixel , which are arranged between at least one cap-type cover wafer having a cavity , which cover wafer covers the plurality of infrared-sensitive individual pixels , and a base wafer , wherein the cover wafer , the silicon substrate and the base wafer are connected to one another in a vacuum-tight manner enclosing a gas vacuum. in the wafer-level package with at least one infrared-sensitive pixel produced using silicon micromachining, with a heat-insulating pit in a silicon substrate , which is surrounded by a silicon edge as a heatsink , and a thin membrane over the pit , which is connected to the silicon edge by means of thin beams , and a thermopile structure, wherein the pit extends through the silicon substrate up to the membrane , and wherein slots are located between the membrane , the beams and the silicon edge , characterized in that a plurality of infrared-sensitive individual pixels are arranged in linear or array form and are embodied in a CMOS stack on a dielectric layer , forming the membrane with respectively thin perpendicular or nearly perpendicular walls to the adjacent individual pixel , which are arranged between at least one cap-type cover wafer having a cavity , which cover wafer covers the plurality of infrared-sensitive individual pixels , and a base wafer , wherein the cover wafer , the silicon substrate and the base wafer are connected to one another in a vacuum-tight manner enclosing a gas vacuum.
Wet scrubber for use in underground mining and tunnelling as part of dust control, with a scrubber housing with an associated fan and a damping nozzle and a filter package having a demister as well as a downstream drop catcher and water tank with valve-controlled fresh water supply for circulating water , characterised in that the demister has a support frame and therein support grilles arranged at a distance in the mine air direction , between which steel mesh or steel braid or steel wool or stretch metal layers are inserted as a filter material , representing a compact filter package , whereby the support grilles and thus also the filter material and the filter package are designed to form a wave-shaped curved or tilted overall package .
A device for modulating a nerve within a body of a patient, the device comprising: - a handheld device comprising an enclosure, wherein the enclosure comprises an interface element configured for contact with an outer skin surface of a patient; - a source of energy housed within the enclosure, wherein the source of energy is configured to generate an electrical field comprising bursts of pulses with a frequency of from about 5 bursts per second to about 100 bursts per second; - an electrode housed within the enclosure; - a conductive medium housed within the enclosure and electrically coupling the electrode with the interface element, wherein the conductive medium is in contact with the interface element that is adapted to make physical contact with the patient's skin, and wherein the source of energy is configured to apply an electrical impulse from the electrode through the conductive medium, through the interface element and transcutaneously through an outer skin surface of the patient to a nerve at a target region below the outer skin surface, wherein the electrical impulse is sufficient to modulate the nerve within the target region and insufficient to substantially modulate a nerve in a vicinity of the outer skin surface. - a handheld device comprising an enclosure, wherein the enclosure comprises an interface element configured for contact with an outer skin surface of a patient; - a source of energy housed within the enclosure, wherein the source of energy is configured to generate an electrical field comprising bursts of pulses with a frequency of from about 5 bursts per second to about 100 bursts per second; - an electrode housed within the enclosure; - a conductive medium housed within the enclosure and electrically coupling the electrode with the interface element, wherein the conductive medium is in contact with the interface element that is adapted to make physical contact with the patient's skin, and wherein the source of energy is configured to apply an electrical impulse from the electrode through the conductive medium, through the interface element and transcutaneously through an outer skin surface of the patient to a nerve at a target region below the outer skin surface, wherein the electrical impulse is sufficient to modulate the nerve within the target region and insufficient to substantially modulate a nerve in a vicinity of the outer skin surface.