mhurhangee/ep-ind-claims huggingface dataset:
A method for estimating the maximum discharge power of a battery pack including n cells, wherein the method comprises: calculating a maximum discharge current of said battery pack based on voltage limits of said battery pack; characterised in the method further comprising calculating a maximum discharge current of said battery pack based on state-of-charge limits of said battery pack; calculating a maximum discharge current of said battery pack based on current limits of said battery pack; and calculating said maximum discharge power from a minimum value of discharge current chosen among said calculated maximum discharge current based on voltage limits, said calculated maximum discharge current based on state-of-charge limits, and said calculated maximum discharge current based on current limits. calculating a maximum discharge current of said battery pack based on voltage limits of said battery pack; characterised in the method further comprising calculating a maximum discharge current of said battery pack based on state-of-charge limits of said battery pack; calculating a maximum discharge current of said battery pack based on current limits of said battery pack; and calculating said maximum discharge power from a minimum value of discharge current chosen among said calculated maximum discharge current based on voltage limits, said calculated maximum discharge current based on state-of-charge limits, and said calculated maximum discharge current based on current limits.
A control device of a vehicle with at least one of a motor and an internal combustion engine as driving sources for a driving wheel, the control device comprising: a garage shift operation determination unit configured to determine whether a garage shift operation of changing a shift position from one of forward and reverse ranges to the other during a vehicle travel at a very slow speed is performed by a driver; characterized by: a sliding down determination unit configured to perform, if the garage shift operation determination unit determines that the garage shift operation is performed, a first sliding down determination process of determining whether the vehicle slides down, otherwise perform a second sliding down determination process of determining whether the vehicle slides down, the second sliding down determination process being different from the first sliding down determination process; and a control unit configured to drive the motor or the internal combustion engine to thereby increase driving force of the vehicle, upon the determination that the vehicle slides down. a garage shift operation determination unit configured to determine whether a garage shift operation of changing a shift position from one of forward and reverse ranges to the other during a vehicle travel at a very slow speed is performed by a driver; characterized by: a sliding down determination unit configured to perform, if the garage shift operation determination unit determines that the garage shift operation is performed, a first sliding down determination process of determining whether the vehicle slides down, otherwise perform a second sliding down determination process of determining whether the vehicle slides down, the second sliding down determination process being different from the first sliding down determination process; and a control unit configured to drive the motor or the internal combustion engine to thereby increase driving force of the vehicle, upon the determination that the vehicle slides down. a sliding down determination unit configured to perform, if the garage shift operation determination unit determines that the garage shift operation is performed, a first sliding down determination process of determining whether the vehicle slides down, otherwise perform a second sliding down determination process of determining whether the vehicle slides down, the second sliding down determination process being different from the first sliding down determination process; and a control unit configured to drive the motor or the internal combustion engine to thereby increase driving force of the vehicle, upon the determination that the vehicle slides down.
Apparatus, especially a delivery device, comprising: - a housing, - a retainer (4200, 4200') for holding a cartridge (4220, 4220'), - a cover part (4240, 4240') for accessing the retainer (4200, 4200'), the cover part (4240, 4240') being moveable relative to the housing between an open and a closed position, wherein an inner side wall (4244, 4244') of the cover part (4240, 4240') comprises a locking extension (4252, 4252') with a locking head (4254, 4254'), characterised in that - the apparatus further comprises cover part biasing means for exerting a biasing force onto the cover part (4240, 4240') in the closed position to bias the cover part (4240, 4240') inwardly and distally against the housing, the cover part biasing means comprising: a cover latch (4300, 4300') moveable relative to the cover part between a locked position and an unlocked position and arranged to interact with the locking head (4254, 4254') of the locking extension (4252, 4252') in the locked position; and a cover latch spring configured to bias the cover latch towards the locked position. - a housing, - a retainer (4200, 4200') for holding a cartridge (4220, 4220'), - a cover part (4240, 4240') for accessing the retainer (4200, 4200'), the cover part (4240, 4240') being moveable relative to the housing between an open and a closed position, - the apparatus further comprises cover part biasing means for exerting a biasing force onto the cover part (4240, 4240') in the closed position to bias the cover part (4240, 4240') inwardly and distally against the housing, the cover part biasing means comprising: a cover latch (4300, 4300') moveable relative to the cover part between a locked position and an unlocked position and arranged to interact with the locking head (4254, 4254') of the locking extension (4252, 4252') in the locked position; and a cover latch spring configured to bias the cover latch towards the locked position. a cover latch (4300, 4300') moveable relative to the cover part between a locked position and an unlocked position and arranged to interact with the locking head (4254, 4254') of the locking extension (4252, 4252') in the locked position; and a cover latch spring configured to bias the cover latch towards the locked position.
An anti-dandruff composition comprising an effective amount of an antidandruff active being a fumagillin derivative according to formula; and an excipient, wherein said composition comprises in the range from 0.001 wt.% to 20 wt.% of the fumagillin derivative, based on the total weight of the composition.
A binding reagent capable of specifically binding to the chemokine receptor CXCR1 for use in the treatment of sepsis and/or respiratory distress syndrome, wherein the binding reagent is immobilized on a solid support contained within an apheresis column, to which is applied peripheral blood from a patient thus removing CXCR1 expressing cells from the peripheral blood of the patient.
A channel retainer for use with a surgical device, wherein the channel retainer is positionable between a handle and an end effector of the surgical device, and wherein the channel retainer comprises: a proximal end; a distal end; a plastic body extending from the proximal end to the distal end; a first metal substrate positioned within the plastic body; and a second metal substrate positioned within the plastic body, characterised in that the first metal substrate comprises a lateral flange; and the second metal substrate comprises an opening, and wherein the lateral flange is positioned within the opening to operably connect the first metal substrate and the second metal substrate within the plastic body. a proximal end; a distal end; a plastic body extending from the proximal end to the distal end; a first metal substrate positioned within the plastic body; and a second metal substrate positioned within the plastic body, characterised in that the first metal substrate comprises a lateral flange; and the second metal substrate comprises an opening, and wherein the lateral flange is positioned within the opening to operably connect the first metal substrate and the second metal substrate within the plastic body.
A frame-based audio encoder (300, 400, 500, 600) comprising - K parallel transform units (303, 403); wherein each of the K parallel transform units (303, 403) is configured to transform a respective one of a current group of K frames of an audio signal into a respective one of K current sets of frequency coefficients; wherein K>1; wherein each of the K frames comprises a plurality of samples of the audio signal; - K parallel quantization and encoding units (508, 608); wherein each of the K parallel quantization and encoding units (508, 608) is configured to quantize and entropy encode the respective one of the K current sets of frequency coefficients, under consideration of a respective number of allocated bits; - a bit allocation unit (507, 607) configured to allocate the respective number of bits to each of the K parallel quantization and encoding units (508, 608) under consideration of a number of previously consumed bits; and - a bit reservoir tracking unit (509, 609) configured to update the number of previously consumed bits with a number of bits used by the K parallel quantization and encoding units (508, 608) for encoding the K sets of frequency coefficients of the audio signal for a group of K frames preceding the current group of K frames. - K parallel transform units (303, 403); wherein each of the K parallel transform units (303, 403) is configured to transform a respective one of a current group of K frames of an audio signal into a respective one of K current sets of frequency coefficients; wherein K>1; wherein each of the K frames comprises a plurality of samples of the audio signal; - K parallel quantization and encoding units (508, 608); wherein each of the K parallel quantization and encoding units (508, 608) is configured to quantize and entropy encode the respective one of the K current sets of frequency coefficients, under consideration of a respective number of allocated bits; - a bit allocation unit (507, 607) configured to allocate the respective number of bits to each of the K parallel quantization and encoding units (508, 608) under consideration of a number of previously consumed bits; and - a bit reservoir tracking unit (509, 609) configured to update the number of previously consumed bits with a number of bits used by the K parallel quantization and encoding units (508, 608) for encoding the K sets of frequency coefficients of the audio signal for a group of K frames preceding the current group of K frames.
A computer-implemented method, comprising: receiving (301, 605) a character-limited message sent to a user device; detecting (303, 610) that the character-limited message sent to the user device comprises suspicious content; generating (305, 615) a modified character-limited message by inserting one or more special characters into the character-limited message, wherein inserting the one or more special characters into the character-limited message comprises inserting one or more unprintable characters; causing (306A-B, 620) transmission of the modified character-limited message to the user device; receiving (307, 625) from the user device, a spam report that includes the modified character-limited message; identifying (308, 630) a presence of the one or more special characters included in the modified character-limited message; and adjusting (309, 635) one or more filters based on identifying the presence of the one or more special characters included in the modified character-limited message. receiving (301, 605) a character-limited message sent to a user device; detecting (303, 610) that the character-limited message sent to the user device comprises suspicious content; generating (305, 615) a modified character-limited message by inserting one or more special characters into the character-limited message, wherein inserting the one or more special characters into the character-limited message comprises inserting one or more unprintable characters; causing (306A-B, 620) transmission of the modified character-limited message to the user device; receiving (307, 625) from the user device, a spam report that includes the modified character-limited message; identifying (308, 630) a presence of the one or more special characters included in the modified character-limited message; and adjusting (309, 635) one or more filters based on identifying the presence of the one or more special characters included in the modified character-limited message.
A touch screen panel including a plurality of touch sensors (TS1,..., TS9), wherein each of the touch sensors (TS1,..., TS9) includes: a first touch electrode unit (Tx) extending in a first direction; and a second touch electrode unit (Rx) extending in a second direction, the first touch electrode unit (Tx) includes a plurality of first mesh pattern electrodes (Tx M) which are disposed being spaced apart from each other, wherein a space between the first mesh pattern electrodes (Tx_M) is generated, in a sensing area where the first touch electrode unit (Tx) and the second touch electrode unit (Rx) intersect each other, and the second touch electrode unit (Rx) includes a plurality of second mesh pattern electrodes (Rx_M) which are disposed between the plurality of first mesh pattern electrodes (Tx_M) being spaced apart from each other in the sensing area, wherein the second mesh pattern electrodes (Rx_M) and the first mesh patterns electrodes (Tx_M) extend in the first direction and are alternately disposed on different layers in the second direction, wherein the first touch electrode unit (Tx) further includes a plurality of first internal connection lines (Tx_L1) connecting the plurality of first mesh pattern electrodes (Tx_M), and the second touch electrode unit (Rx) further includes a plurality of second internal connection lines (Rx_L1) connecting the plurality of second mesh pattern electrodes (Rx_M). a first touch electrode unit (Tx) extending in a first direction; and a second touch electrode unit (Rx) extending in a second direction, the first touch electrode unit (Tx) includes a plurality of first mesh pattern electrodes (Tx M) which are disposed being spaced apart from each other, wherein a space between the first mesh pattern electrodes (Tx_M) is generated, in a sensing area where the first touch electrode unit (Tx) and the second touch electrode unit (Rx) intersect each other, and the second touch electrode unit (Rx) includes a plurality of second mesh pattern electrodes (Rx_M) which are disposed between the plurality of first mesh pattern electrodes (Tx_M) being spaced apart from each other in the sensing area, wherein the second mesh pattern electrodes (Rx_M) and the first mesh patterns electrodes (Tx_M) extend in the first direction and are alternately disposed on different layers in the second direction, wherein the first touch electrode unit (Tx) further includes a plurality of first internal connection lines (Tx_L1) connecting the plurality of first mesh pattern electrodes (Tx_M), and the second touch electrode unit (Rx) further includes a plurality of second internal connection lines (Rx_L1) connecting the plurality of second mesh pattern electrodes (Rx_M).
Method for coating a steel sheet with a coating of metal with the following steps: - application of a first thin coating of metal as pre-plating (flash coating), wherein the coating thickness of the coating of metal of the pre-plating is at most 200 mg/m 2, - melting-on of the coating of metal of the pre-plating by means of irradiation of the coating of metal with electromagnetic radiation or an electron beam, wherein the coating of metal of the pre-plating is melted on completely over its entire thickness and is thereby converted at least essentially completely into an alloy layer consisting of atoms of iron of the steel sheet and atoms of the metal of the coating of metal, - application of at least one further coating of metal on the alloy layer produced by the melting-on. - application of a first thin coating of metal as pre-plating (flash coating), wherein the coating thickness of the coating of metal of the pre-plating is at most 200 mg/m 2, - melting-on of the coating of metal of the pre-plating by means of irradiation of the coating of metal with electromagnetic radiation or an electron beam, wherein the coating of metal of the pre-plating is melted on completely over its entire thickness and is thereby converted at least essentially completely into an alloy layer consisting of atoms of iron of the steel sheet and atoms of the metal of the coating of metal, - application of at least one further coating of metal on the alloy layer produced by the melting-on.
Joint profile for separating portions of a floor covering made of a flooring material that is at least partially flow- or creep-resistant during processing and solidifies later, wherein the joint profile comprises: a first delimiting component (12.1) for delimiting the edge of a first floor-covering portion, a second delimiting component (12.2) for delimiting the edge of a second floor-covering portion adjoining the first floor-covering portion in a joint region, wherein the first and the second delimiting component (12.1, 12.2) are arranged opposite one another and are coupled to one another so as to be non-displaceable vertically relative to one another, wherein the joint profile further comprises a cover, which is fixedly connectable to, yet detachable from, the first and/or the second delimiting component (12.1, 12.2), the cross-sectional shape of which cover tapers incrementally downwards at least in portions, and which cover is designed to cover the top of the joint region in the assembled state. a first delimiting component (12.1) for delimiting the edge of a first floor-covering portion, a second delimiting component (12.2) for delimiting the edge of a second floor-covering portion adjoining the first floor-covering portion in a joint region, wherein the first and the second delimiting component (12.1, 12.2) are arranged opposite one another and are coupled to one another so as to be non-displaceable vertically relative to one another, wherein the joint profile further comprises a cover, which is fixedly connectable to, yet detachable from, the first and/or the second delimiting component (12.1, 12.2), the cross-sectional shape of which cover tapers incrementally downwards at least in portions, and which cover is designed to cover the top of the joint region in the assembled state.
Hand-held tool gear-mechanism closure having a basic body for closing a gear-mechanism housing opening of a gear-mechanism housing of a hand-held power tool, in particular of a hammer drill or combination hammer, wherein the hand-held tool gear-mechanism closure has an air duct through which an air mass can flow into and out of the gear-mechanism housing and the hand-held tool gear-mechanism closure has a pressure valve which is arranged in the air duct and via which a positive pressure that arises in the gear-mechanism housing is able to be reduced, characterized in that the pressure valve is arranged inside the hand-held tool gear-mechanism closure and is in the form of an elastic hose element, wherein the reduction in a positive pressure that arises in the gear-mechanism housing accompanies an elastic deformation of the hose element. wherein the hand-held tool gear-mechanism closure has an air duct through which an air mass can flow into and out of the gear-mechanism housing and the hand-held tool gear-mechanism closure has a pressure valve which is arranged in the air duct and via which a positive pressure that arises in the gear-mechanism housing is able to be reduced, characterized in that the pressure valve is arranged inside the hand-held tool gear-mechanism closure and is in the form of an elastic hose element, wherein the reduction in a positive pressure that arises in the gear-mechanism housing accompanies an elastic deformation of the hose element.
A hydrogen generator comprising: a housing; a flexible feed member comprising a flexible carrier and a hydrogen-containing reactant disposed on the carrier, wherein the hydrogen-containing reactant will react to release hydrogen gas when heated; a heating system comprising a heater; and a pinch roller system for feeding the flexible feed member to position the flexible feed member in proximity to the heater such that the heater is capable of heating the hydrogen-containing reactant to release hydrogen gas, a controller configured to control the pinch roller system, wherein the pinch roller system is controlled to stop movement of the feed member toward the heater when hydrogen generation is not needed and reverses direction of movement of the feed member a distance sufficient to quench the reaction and stop generation of hydrogen. a housing; a flexible feed member comprising a flexible carrier and a hydrogen-containing reactant disposed on the carrier, wherein the hydrogen-containing reactant will react to release hydrogen gas when heated; a heating system comprising a heater; and a pinch roller system for feeding the flexible feed member to position the flexible feed member in proximity to the heater such that the heater is capable of heating the hydrogen-containing reactant to release hydrogen gas, a controller configured to control the pinch roller system, wherein the pinch roller system is controlled to stop movement of the feed member toward the heater when hydrogen generation is not needed and reverses direction of movement of the feed member a distance sufficient to quench the reaction and stop generation of hydrogen.
A multi-standby portable terminal that can be coupled to a plurality of radio frequency communication networks, comprising: a plurality of communication modules (100, 200), wherein the respective communication modules of the plurality of communication modules are arranged for transmitting and receiving RF signals of respective different frequency bands to and from the plurality of respective RF communication networks (11, 12); and a controller for controlling the plurality of communication modules (100, 200) so as to be coupled to a selected RF communication network of the plurality of RF communication networks (11,12), via a communication module of said plurality of communication modules (100, 200) corresponding to the selected RF communication network, wherein the controller performing a control operation in which the communication module corresponding to the selected RF communication network radiates electromagnetic waves corresponding to a frequency band of the selected RF communication network, and a remainder of communication modules other than the communication module corresponding to the selected RF communication network, radiate electromagnetic waves of frequency bands that differ from those of respective corresponding RF communication networks. a plurality of communication modules (100, 200), wherein the respective communication modules of the plurality of communication modules are arranged for transmitting and receiving RF signals of respective different frequency bands to and from the plurality of respective RF communication networks (11, 12); and a controller for controlling the plurality of communication modules (100, 200) so as to be coupled to a selected RF communication network of the plurality of RF communication networks (11,12), via a communication module of said plurality of communication modules (100, 200) corresponding to the selected RF communication network, wherein the controller performing a control operation in which the communication module corresponding to the selected RF communication network radiates electromagnetic waves corresponding to a frequency band of the selected RF communication network, and a remainder of communication modules other than the communication module corresponding to the selected RF communication network, radiate electromagnetic waves of frequency bands that differ from those of respective corresponding RF communication networks.