mhurhangee/ep-ind-claims huggingface dataset:
A wireless telecommunications system comprising network infrastructure equipment and a terminal device (506, 508) operable to communicate over a radio interface (510, 512) that supports a downlink channel for conveying a message from the network infrastructure equipment to the terminal device, wherein the network infrastructure equipment is operable to selectively transmit the message with a number of repetitions to enhance the likelihood the terminal device will successfully decode the message, wherein the message is transmitted on radio resources selected by the network infrastructure equipment from a plurality of candidates for radio resources that define a search space for the terminal device to search for the message; wherein the plurality of candidates comprise candidates associated with a number, N, of different repetition levels for the transmission of a message, wherein the different repetition levels correspond with different numbers of repetitions for the transmission of a message; wherein the candidates that define the search space are arranged within a search space grid of radio resources extending in frequency and time, wherein the extension in frequency is sufficient to span a range of frequencies over which the message may be transmitted and the extension in time is sufficient to span a transmission of a message at a highest repetition level associated with the highest number of repetitions; wherein the terminal device comprises a number, M, of message buffers, each message buffer having a size sufficient to store data associated with one message, and wherein the arrangement of candidates defining the search space within the search space grid for the terminal device is selected in dependence on the number of message buffers M for the terminal device and the number of repetition levels N.
A method for allocating identifiers, in which a master battery management system, BMS, allocates identifiers to N, N being an integer of 2 or above, number of slave BMSs through a communication network, each slave BMS handling two or more battery cells, the method comprising: (a) by each slave BMS, upon receipt of an identifier allocation initiating signal transmitted by the master BMS through the communication network, the identifier allocation initiating signal notifying that the process for allocating identifiers to the slaves BMSs is initiated, measuring voltages of the two or more battery cells included in the battery modules handled by the slave BMS; selecting, for each of the two or more battery cells included in the battery modules handled the slave BMS, one lowest bit or two lowest bits from digital voltage measurement values of each battery cell obtained by converting the measured voltages of the battery cells into digital voltage measurement values by means of Analog to Digital conversion; generating an initial identifier by combining the selected one lowest bit or two lowest bits; and transmitting the initial identifier to the master BMS; and (b) by the master BMS, allocating identifiers again according to the initial identifier received from each slave BMS and then transmitting the identifiers to slave BMSs. (a) by each slave BMS, upon receipt of an identifier allocation initiating signal transmitted by the master BMS through the communication network, the identifier allocation initiating signal notifying that the process for allocating identifiers to the slaves BMSs is initiated, measuring voltages of the two or more battery cells included in the battery modules handled by the slave BMS; selecting, for each of the two or more battery cells included in the battery modules handled the slave BMS, one lowest bit or two lowest bits from digital voltage measurement values of each battery cell obtained by converting the measured voltages of the battery cells into digital voltage measurement values by means of Analog to Digital conversion; generating an initial identifier by combining the selected one lowest bit or two lowest bits; and transmitting the initial identifier to the master BMS; and (b) by the master BMS, allocating identifiers again according to the initial identifier received from each slave BMS and then transmitting the identifiers to slave BMSs.
Flat-shaped composite material for manufacturing a package, comprising: - a polymer outer layer, - a polymer inner layer, - a fibrous support layer, which is arranged between the polymer outer layer and the polymer inner layer, - wherein the flat-shaped composite material has a plurality of fold lines, which are arranged and designed such that a closed package can be manufactured by folding the flat-shaped composite material along the fold lines and by connecting seam surfaces of the flat-shaped composite material, - a sleeve surface, wherein the sleeve surface comprises a front surface, a first side surface, a second side surface, a first rear surface and a second rear surface, - base surfaces, wherein the base surfaces comprise triangular base surfaces and quadrangular base surfaces (5"), and - gable surfaces, wherein the gable surfaces comprise triangular gable surfaces and quadrangular gable surfaces (6"), - wherein the base surfaces and the gable surfaces are arranged on opposite sides of the sleeve surface, characterised by at least one quadrangular gable surface (6") with two small gable surface angles (α G1), which are smaller than 90°, with two large gable surface angles (α G2), which are greater than 90°, and with an angle sum, which is greater than 360°, wherein at least one side of the quadrangular gable surface (6") is curved outwards. - a polymer outer layer, - a polymer inner layer, - a fibrous support layer, which is arranged between the polymer outer layer and the polymer inner layer, - wherein the flat-shaped composite material has a plurality of fold lines, which are arranged and designed such that a closed package can be manufactured by folding the flat-shaped composite material along the fold lines and by connecting seam surfaces of the flat-shaped composite material, - a sleeve surface, wherein the sleeve surface comprises a front surface, a first side surface, a second side surface, a first rear surface and a second rear surface, - base surfaces, wherein the base surfaces comprise triangular base surfaces and quadrangular base surfaces (5"), and - gable surfaces, wherein the gable surfaces comprise triangular gable surfaces and quadrangular gable surfaces (6"), - wherein the base surfaces and the gable surfaces are arranged on opposite sides of the sleeve surface,
A differential current monitoring device for monitoring differential currents in power supply systems (4, 10, 14) comprising a direct-voltage network and an alternating-voltage network each having active conductors, and the direct-voltage network being connected to the alternating-voltage network via an inverter; the differential current monitoring device comprising a first measuring current transformer and a measuring circuit, which are both suitable for determining the differential current in the active conductors (16, 17) of the alternating-voltage network, and comprising a computing unit for evaluating the differential current and for generating a switch-off signal, a device for arc detection having a second measuring current transformer and a measuring circuit, which are both suitable for determining the individual conductor current in the active conductor of the direct-voltage network for the purpose of arc detection, and a computing unit for evaluating the individual conductor current being combined with the computing unit for evaluating the differential current in a shared computing unit, the differential current monitoring device comprising a housing for receiving the components for monitoring differential currents and the second measuring current transformer being disposed as an external current transformer in a spatially separate manner from the housing.
A secondary lithium battery, comprising: a housing having a volume of less than or equal to 10 ml, the housing comprising therein a cathode comprising a current collector coated with a cathode composition comprising active material, the active material comprising LiFePO4, the active material comprising particles or particulates having a specific area of greater than 10m2/g, the coated current collector having a thickness of between 15 μm and 120 μm; an anode; and a separator between the anode and the cathode; wherein the battery has a charge acceptance rate of 10 percent capacity in 15 seconds or less. a housing having a volume of less than or equal to 10 ml, the housing comprising therein a cathode comprising a current collector coated with a cathode composition comprising active material, the active material comprising LiFePO4, the active material comprising particles or particulates having a specific area of greater than 10m2/g, the coated current collector having a thickness of between 15 μm and 120 μm; an anode; and a separator between the anode and the cathode; wherein the battery has a charge acceptance rate of 10 percent capacity in 15 seconds or less. an anode; and a separator between the anode and the cathode; wherein the battery has a charge acceptance rate of 10 percent capacity in 15 seconds or less.
Process for producing an electrolytic capacitor, comprising at least a) applying a dispersion A) which contains at least particles B) of an electrically conductive polymer and a dispersion medium D) to a porous body comprising at least a porous electrode body composed of an electrode material and a dielectric which covers the surface of this electrode material b) and at least partially removing the dispersion medium D) in order to form a solid electrolyte which entirely or partly covers the dielectric surface, characterized in that the pH of the dispersion A) measured at 25°C is greater than or equal to 1.8 and less than or equal to 3.9. a) applying a dispersion A) which contains at least particles B) of an electrically conductive polymer and a dispersion medium D) to a porous body comprising at least a porous electrode body composed of an electrode material and a dielectric which covers the surface of this electrode material b) and at least partially removing the dispersion medium D) in order to form a solid electrolyte which entirely or partly covers the dielectric surface,
Child's high chair having a base part and a seating unit that is held on the base part, wherein the seating unit is rotatable and lockable about a vertical axis relative to the base part, wherein the seating unit is mounted swivelably and lockably forwards and backwards in its inclination about a horizontal transverse axis on two lateral support arms, characterized in that a gas-pressure spring, the length of which is adjustable with a two-handed safety operating system, for supporting and height adjustment of the seating unit is provided between the base part and the seating unit.
An integrated electronic-microfluidic device, comprising - a semiconductor substrate on a first support; - an electronic circuit (102, 104) on a first semiconductor-substrate side of the semiconductor substrate; - a signal interface structure to an external device, the signal interface structure being arranged on the first semiconductor-substrate side and configured to receive electrical signals from the electronic circuit, said signal interface structure comprises at least one T-shaped internal-contact element (148, 150), with a substrate section (112, 114) corresponding to the vertical T-bar that is arranged on the semiconductor substrate and is connected to the electronic circuit, and with a side-face section (152, 154) corresponding to the horizontal T-bar that is arranged on an inclined side face of the substrate and forms an electrically isolated lead connecting to external-contact elements (156, 158) on an outer face of the first support, the external-contact elements being configured to establish an electrical contact to an external device; - a microfluidic structure (126, 364, 366, 372, 382) formed in the semiconductor substrate, the microfluidic structure being configured to confine a fluid and to allow a flow of the fluid to and from the microfluidic structure only on a second semiconductor-substrate side that is opposite to the first semiconductor-substrate side and faces away form the first support; and - a second support on the second semiconductor-substrate side, the second support having an opening that allows a flow of the fluid to and from the microfluidic structure. - a semiconductor substrate on a first support; - an electronic circuit (102, 104) on a first semiconductor-substrate side of the semiconductor substrate; - a signal interface structure to an external device, the signal interface structure being arranged on the first semiconductor-substrate side and configured to receive electrical signals from the electronic circuit, said signal interface structure comprises at least one T-shaped internal-contact element (148, 150), with a substrate section (112, 114) corresponding to the vertical T-bar that is arranged on the semiconductor substrate and is connected to the electronic circuit, and with a side-face section (152, 154) corresponding to the horizontal T-bar that is arranged on an inclined side face of the substrate and forms an electrically isolated lead connecting to external-contact elements (156, 158) on an outer face of the first support, the external-contact elements being configured to establish an electrical contact to an external device; - a microfluidic structure (126, 364, 366, 372, 382) formed in the semiconductor substrate, the microfluidic structure being configured to confine a fluid and to allow a flow of the fluid to and from the microfluidic structure only on a second semiconductor-substrate side that is opposite to the first semiconductor-substrate side and faces away form the first support; and - a second support on the second semiconductor-substrate side, the second support having an opening that allows a flow of the fluid to and from the microfluidic structure.
A capping device for an ink jet print head, comprising: a base, the base configured to receive an ink jet print head comprising nozzles; a cap assembly attached to the base and configured for sliding movement with respect to the base to provide a closed position of the cap assembly when the print head is not printing and an open position to allow for the ejection of ink from the nozzles when the print head is printing, the cap assembly comprising: a cover support, and a cover attached to the cover support in a generally planar relationship thereto, characterized in that the cover is adapted to provide additional movement with respect to the cover support in a direction different from the sliding direction, and wherein the cover comprises a rigid mating surface configured to engage a surface of the print head adjacent the nozzles. a base, the base configured to receive an ink jet print head comprising nozzles; a cap assembly attached to the base and configured for sliding movement with respect to the base to provide a closed position of the cap assembly when the print head is not printing and an open position to allow for the ejection of ink from the nozzles when the print head is printing, the cap assembly comprising: a cover support, and a cover attached to the cover support in a generally planar relationship a cover support, and a cover attached to the cover support in a generally planar relationship thereto, characterized in that the cover is adapted to provide additional movement with respect to the cover support in a direction different from the sliding direction, and wherein the cover comprises a rigid mating surface configured to engage a surface of the print head adjacent the nozzles.
A composition comprising - at least one silane-functional polymer P1; and - at least one silane-functional polymer P2 having end groups of the formula where R 1a and R 1b are each independently a hydrogen atom or a monovalent hydrocarbyl radical having 1 to 12 carbon atoms, or together are an alkylene radical having 2 to 6 carbon atoms, R 2 is a hydrogen atom or a monovalent hydrocarbyl radical which has 1 to 12 carbon atoms and optionally contains ether groups, ester groups, nitrile groups, amino groups or silane groups, R 3 is a linear or branched alkylene or cycloalkylene radical having 1 to 20 carbon atoms, optionally having aromatic components, and optionally having one or more heteroatoms, especially nitrogen atoms, R 4 is an alkyl radical having 1 to 8 carbon atoms, R 5 is an alkyl radical which has 1 to 10 carbon atoms and optionally contains ether groups, and x is 0, 1 or 2, where the weight ratio between the silane-functional polymer P1 and the silane-functional P2 is in the range from 99:1 to 10:90, and where the silane-functional polymer P1 does not have any end groups of the formula. - at least one silane-functional polymer P1; and - at least one silane-functional polymer P2 having end groups of the formula where R 1a and R 1b are each independently a hydrogen atom or a monovalent hydrocarbyl radical having 1 to 12 carbon atoms, or together are an alkylene radical having 2 to 6 carbon atoms, R 2 is a hydrogen atom or a monovalent hydrocarbyl radical which has 1 to 12 carbon atoms and optionally contains ether groups, ester groups, nitrile groups, amino groups or silane groups, R 3 is a linear or branched alkylene or cycloalkylene radical having 1 to 20 carbon atoms, optionally having aromatic components, and optionally having one or more heteroatoms, especially nitrogen atoms, R 4 is an alkyl radical having 1 to 8 carbon atoms, R 5 is an alkyl radical which has 1 to 10 carbon atoms and optionally contains ether groups, and x is 0, 1 or 2, R 1a and R 1b are each independently a hydrogen atom or a monovalent hydrocarbyl radical having 1 to 12 carbon atoms, or together are an alkylene radical having 2 to 6 carbon atoms, R 2 is a hydrogen atom or a monovalent hydrocarbyl radical which has 1 to 12 carbon atoms and optionally contains ether groups, ester groups, nitrile groups, amino groups or silane groups, R 3 is a linear or branched alkylene or cycloalkylene radical having 1 to 20 carbon atoms, optionally having aromatic components, and optionally having one or more heteroatoms, especially nitrogen atoms, R 4 is an alkyl radical having 1 to 8 carbon atoms, R 5 is an alkyl radical which has 1 to 10 carbon atoms and optionally contains ether groups, and x is 0, 1 or 2,
An anion-conducting polymeric membrane comprising a terpolymer of styrene, vinylbenzyl-R s and vinylbenzyl-R x, wherein R s is a positively charged cyclic amine group, wherein R x is at least one constituent selected from the group consisting of Cl and OH; wherein the total weight of the vinylbenzyl-R s groups is between 15% and 90% of the total weight of the membrane; and wherein the total weight of the vinylbenzyl-R x groups is between 1% and 25% of the total weight of the membrane.
Latent heat accumulator comprising a storage tank filled with a phase change material up to a residual volume of a gaseous medium, and comprising a device for triggering crystallisation in the phase change material, the device comprising, in order to trigger crystallisation in the phase change material: means for conveying a gaseous medium, means (8, 10) for enriching the gaseous medium with crystallisation germs, a line system for feeding the gaseous medium, comprising a feed line extending into the interior of the storage tank, characterised in that the end of the feed line is below the boundary layer that forms between the gaseous medium located in the storage tank and the phase change material, and also in that the device for triggering crystallisation in the phase change material comprises: means for controlling the flow in the line system that are designed such that gaseous medium enriched with crystallisation germs is prevented from being drawn through the line system into the storage tank when the volume of the phase change material decreases, and means for degassing and ventilating the storage tank that are designed such that gaseous medium located in the tank is conducted out of the storage tank when the volume of the phase change material increases, and a gaseous medium not enriched with crystallisation germs is fed into the storage tank when the volume of the phase change material decreases. means for conveying a gaseous medium, means (8, 10) for enriching the gaseous medium with crystallisation germs, a line system for feeding the gaseous medium, comprising a feed line extending into the interior of the storage tank, characterised in that the end of the feed line is below the boundary layer that forms between the gaseous medium located in the storage tank and the phase change material, and also in that the device for triggering crystallisation in the phase change material comprises: means for controlling the flow in the line system that are designed such that gaseous medium enriched with crystallisation germs is prevented from being drawn through the line system into the storage tank when the volume of the phase change material decreases, and means for degassing and ventilating the storage tank that are designed such that gaseous medium located in the tank is conducted out of the storage tank when the volume of the phase change material increases, and a gaseous medium not enriched with crystallisation germs is fed into the storage tank when the volume of the phase change material decreases. means for controlling the flow in the line system that are designed such that gaseous medium enriched with crystallisation germs is prevented from being drawn through the line system into the storage tank when the volume of the phase change material decreases, and means for degassing and ventilating the storage tank that are designed such that gaseous medium located in the tank is conducted out of the storage tank when the volume of the phase change material increases, and a gaseous medium not enriched with crystallisation germs is fed into the storage tank when the volume of the phase change material decreases.
A tyre comprising a sidewall portion provided with a mark indicating portion having one or more marks, which are letters and symbols indicating the manufacturer name, brand name, size, and the like of the tyre, wherein the mark indicating portion comprises a reference surface (x) provided on a surface of the sidewall portion and the one or more marks formed on the reference surface (x), a surface of each mark is inclined in a tyre circumferential direction with respect to the reference surface (x), each mark is provided with a concave portion in which a surface thereof is lower than the reference surface (x) and a convex portion in which a surface thereof is higher than the reference surface (x), and the concave portion is arranged on one side in the tyre circumferential direction and the convex portion arranged on the other side in the tyre circumferential direction, characterized in that a maximum depth portion of the concave portion is formed at the position of an end portion at one side in the tyre circumferential direction of the mark, and a maximum height portion of the convex portion is formed at the position of an end portion at the other side of the mark in the tyre circumferential direction.