mhurhangee/ep-ind-claims huggingface dataset:
A method for performing, by a first device, channel coding of data to be transmitted to a second device, the method comprising: attaching a transport block, TB, cyclic redundancy check, CRC, code to a TB having a size to produce a TB CRC-attached TB; segmenting the TB CRC-attached TB into multiple code blocks, CBs; attaching a CB CRC code to each of the multiple CBs; and encoding the CB CRC-attached CBs by a turbo-encoder, and the method characterized in that: the size of the TB is one of a plurality of predetermined transport block sizes, and the plurality of predetermined transport block sizes are predetermined such that the multiple CBs are of the same size and such that the same size of the multiple CBs is equal to one of a plurality of predefined block sizes of an internal interleaver of the turbo-encoder' minus 'the size of the CB CRC code'. attaching a transport block, TB, cyclic redundancy check, CRC, code to a TB having a size to produce a TB CRC-attached TB; segmenting the TB CRC-attached TB into multiple code blocks, CBs; attaching a CB CRC code to each of the multiple CBs; and encoding the CB CRC-attached CBs by a turbo-encoder, and the method characterized in that: the size of the TB is one of a plurality of predetermined transport block sizes, and the plurality of predetermined transport block sizes are predetermined such that the multiple CBs are of the same size and such that the same size of the multiple CBs is equal to one of a plurality of predefined block sizes of an internal interleaver of the turbo-encoder' minus 'the size of the CB CRC code'. the size of the TB is one of a plurality of predetermined transport block sizes, and the plurality of predetermined transport block sizes are predetermined such that the multiple CBs are of the same size and such that the same size of the multiple CBs is equal to one of a plurality of predefined block sizes of an internal interleaver of the turbo-encoder' minus 'the size of the CB CRC code'.
A method for transmitting acknowledgement, ACK, information from a base station in an Orthogonal Frequency Division Multiplexing, OFDM, system, the method comprising: spreading the ACK information separately from other control information by applying a sequence from a set of mutually orthogonal sequences; mapping the spread ACK information to subcarriers in a pattern for increasing diversity gain of the ACK information; encoding the other control information except the ACK information according to a channel encoding scheme without spreading; and multiplexing the spread ACK information mapped to the subcarriers with the encoded other control information to transmit the multiplexed information. spreading the ACK information separately from other control information by applying a sequence from a set of mutually orthogonal sequences; mapping the spread ACK information to subcarriers in a pattern for increasing diversity gain of the ACK information; encoding the other control information except the ACK information according to a channel encoding scheme without spreading; and multiplexing the spread ACK information mapped to the subcarriers with the encoded other control information to transmit the multiplexed information.
Dry instant sauce base material, in particular powdered and/or granulated, containing 16% of animal and/or vegetable protein and/or protein hydroxide and containing 28% of animal and/or vegetable fat, containing 0. 2% of crude fibre, and 5-50% of gel-forming component, the sauce base material being mixed with a predetermined proportion of water in the range of room temperature forms a hydrocolloidal dispersion, which can be added to a pet food with solid components in the form of a sauce.
An electrostatic transducer (1, 2, 3, 4, 5, 6, 7, 8) comprising: an insulator sheet; at least one electrode sheet, laminated on the insulator sheet, constituting one target region (10a, 10b) as a detection region or a driving region, formed of an elastomer containing conductive fillers, and including at least one terminal part (12b, 12c, 12d, 12e, 12f); and at least one bypass conductor, having an electrical resistivity smaller than an electrical resistivity of the electrode sheet, disposed in contact with the electrode sheet along a surface of a portion of the electrode sheet, and electrically connected to the electrode sheet in an area in contact with the electrode sheet, characterized in that the bypass conductor has meshes and is formed in a sheet shape, the electrode sheet is formed in an elongated shape, and an orientation direction of the meshes of the bypass conductor is inclined with respect to the longitudinal direction of the electrode sheet. an insulator sheet; at least one electrode sheet, laminated on the insulator sheet, constituting one target region (10a, 10b) as a detection region or a driving region, formed of an elastomer containing conductive fillers, and including at least one terminal part (12b, 12c, 12d, 12e, 12f); and at least one bypass conductor, having an electrical resistivity smaller than an electrical resistivity of the electrode sheet, disposed in contact with the electrode sheet along a surface of a portion of the electrode sheet, and electrically connected to the electrode sheet in an area in contact with the electrode sheet, characterized in that the bypass conductor has meshes and is formed in a sheet shape, the electrode sheet is formed in an elongated shape, and an orientation direction of the meshes of the bypass conductor is inclined with respect to the longitudinal direction of the electrode sheet.
A heat source system in which a plurality of heat source devices are connected, the plurality of heat source devices having a refrigeration cycle in which a compressor, a heat source heat exchanger, an expansion valve, and a heat medium heat exchanger are connected, the heat source device comprising a heat exchange chamber that houses at least the heat source heat exchanger, wherein the heat medium heat exchanger is connected to a heat medium pipe, wherein each of the plurality of heat source devices further comprises a mechanical chamber that houses at least the compressor and the heat medium heat exchanger, wherein one end of the heat medium pipe is located inside the mechanical chamber, and the other end of the heat medium pipe is located inside the mechanical chamber, wherein each end of the heat medium pipe has a connecting section located inside the mechanical chamber; characterized in that the connecting section of a heat medium pipe in one heat source device and the adjacent connecting sections of a heat medium pipe in an adjacent heat source device are connected to each other with a flexible joint having flexibility interposed therebetween. the heat source device comprising a heat exchange chamber that houses at least the heat source heat exchanger, wherein the heat medium heat exchanger is connected to a heat medium pipe, wherein each of the plurality of heat source devices further comprises a mechanical chamber that houses at least the compressor and the heat medium heat exchanger, wherein one end of the heat medium pipe is located inside the mechanical chamber, and the other end of the heat medium pipe is located inside the mechanical chamber, wherein each end of the heat medium pipe has a connecting section located inside the mechanical chamber; characterized in that the connecting section of a heat medium pipe in one heat source device and the adjacent connecting sections of a heat medium pipe in an adjacent heat source device are connected to each other with a flexible joint having flexibility interposed therebetween.
A method of providing multi-link operation channel access in a multi-link network, the method comprising: initiating a first backoff countdown and a second backoff countdown associated with a first link and a second link of the multi-link network, respectively; in response to the first backoff countdown reaching zero, determining whether the second backoff countdown is less than or equal to an aggregation threshold; and in response to determining that the second backoff countdown is less than or equal to the aggregation threshold, transmitting a first frame and a second frame on the first and second links. initiating a first backoff countdown and a second backoff countdown associated with a first link and a second link of the multi-link network, respectively; in response to the first backoff countdown reaching zero, determining whether the second backoff countdown is less than or equal to an aggregation threshold; and in response to determining that the second backoff countdown is less than or equal to the aggregation threshold, determining whether the second backoff countdown is less than or equal to an aggregation threshold; and in response to determining that the second backoff countdown is less than or equal to the aggregation threshold,
A process for rejuvenating a hydrotreating catalyst comprising a group VIB hydrogenation metal and/or a group VIII hydrogenation metal, which comprises the steps of: - a) regenerating the catalyst by contacting said catalyst with an oxygen containing gas at a temperature from 300°C to 550°C, - b) impregnating the regenerated catalyst with an impregnation solution which consists of a mixture of water and a combination of MoO 3 and H 3 PO 4, excluding any other compounds, - c) aging the impregnated catalyst for at least 2 hours at room temperature and - d) drying the aged catalyst, wherein the impregnation of the catalyst with said impregnation solution in step b) leads to the rejuvenation of said catalyst. - a) regenerating the catalyst by contacting said catalyst with an oxygen containing gas at a temperature from 300°C to 550°C, - b) impregnating the regenerated catalyst with an impregnation solution which consists of a mixture of water and a combination of MoO 3 and H 3 PO 4, excluding any other compounds, - c) aging the impregnated catalyst for at least 2 hours at room temperature and - d) drying the aged catalyst,
A method for the display of information about the state of components (8, 11, 12, 13) of a means of locomotion comprising: - Determination of information about states of components (8, 11, 12, 13) of the means of locomotion, - Display of a three-dimensional means of locomotion model (10', 10") of the means of locomotion, - Display of details (15, 16, 17, 18, 19, 21) of the information arranged outside the means of locomotion model (10', 10"), - Reception of a user gesture for rotating the display of the means of locomotion model (10', 10") and - Rotation of the means of locomotion model (10', 10") and the details (15, 16, 17, 18, 19, 21) about an identical angular range, wherein the user gesture comprises a swipe gesture. - Determination of information about states of components (8, 11, 12, 13) of the means of locomotion, - Display of a three-dimensional means of locomotion model (10', 10") of the means of locomotion, - Display of details (15, 16, 17, 18, 19, 21) of the information arranged outside the means of locomotion model (10', 10"), - Reception of a user gesture for rotating the display of the means of locomotion model (10', 10") and - Rotation of the means of locomotion model (10', 10") and the details (15, 16, 17, 18, 19, 21) about an identical angular range, wherein the user gesture comprises a swipe gesture.
A visible light communication, VLC, device (102, 235) for use in lighting and data transmission, the VLC device being characterized by: a processor configured to determine a data duty cycle for the data transmission and a filler luminance value based on a received brightness level of a luminary; and a transmitter configured to alternate the data transmission and the filler luminance value for said luminary which is in communication with the VLC device, based on the determined data duty cycle, wherein the filler luminance value indicates whether the luminary is on or off, and wherein the filler luminance value is 0 or 1. a processor configured to determine a data duty cycle for the data transmission and a filler luminance value based on a received brightness level of a luminary; and a transmitter configured to alternate the data transmission and the filler luminance value for said luminary which is in communication with the VLC device, based on the determined data duty cycle, wherein the filler luminance value indicates whether the luminary is on or off, and wherein the filler luminance value is 0 or 1.
Control unit (12, 102) for controlling a charging process of a rechargeable storage module for electrical energy of a domestic appliance; comprising - a detection device which is configured to detect the current capacity and/or the current charge state of the storage module before and/or after the charging process and/or during the charging process; and - a switch-off device which is configured to end a charging process of the storage module when a target charge state or a target capacity on the storage module has been reached; characterised in that the initial target charge state is less than 100% and/or the initial target capacity is below the initial maximum capacity of the storage module and in that the control unit (12, 102) is configured to increase the target charge state of the storage module with increasing capacity losses of the storage module until 100% has been reached and/or to maintain the target capacity of the storage module with increasing capacity losses of the storage module until the current maximum capacity has been reached. - a detection device which is configured to detect the current capacity and/or the current charge state of the storage module before and/or after the charging process and/or during the charging process; and - a switch-off device which is configured to end a charging process of the storage module when a target charge state or a target capacity on the storage module has been reached;
A device for detecting electrical differential currents, in particular of mixed currents of smoothed direct current and alternating currents, comprising at least two conductors for load currents to be monitored and comprising an oscillatory circuit designed as a square wave generator, which has a current converter and at least two secondary windings (N13, N14), wherein the conductors are led through the current converter, characterised in that the secondary windings (N13, N14) of the current converter are electrically connected in series with at least one ohmic resistance, in that the oscillatory circuit has two operational amplifiers (U1, U2), which are electrically connected to respective secondary windings (N13, N14), and in that the outputs of the operational amplifiers (U1, U2) are electrically connected with the inputs of a differential amplifier circuit.
Adhesive valve comprising: - at least one flexible label which has an upper surface and a lower surface, wherein at least the lower surface is provided with adhesive and at least one incision connects the two surfaces; wherein at least one portion of the lower surface is provided with adhesive; - at least one flexible membrane which has an upper surface and a lower surface and which adheres to the at least one portion provided with adhesive of the lower surface of the flexible label; wherein the lower surface of the flexible membrane is substantially non-adhesive, wherein, in plan view, a portion of the flexible membrane is arranged under the incision of the flexible label, wherein the flexible label, in plan view, has at least one flap which extends beyond the flexible membrane in order to adhere to a sheet so as to retain on the latter said flexible membrane; wherein the lower surface of the flexible label comprises at least one non-adherent portion which, in plan view, is adjacent to the flexible membrane or at least partially superimposed on the latter; wherein the incision, in plan view, crosses said at least one non-adherent portion and is not spaced from the latter; characterised in that the non-adherent portion comprises at least a part thereof which, in plan view, extends towards an edge of the flexible membrane, tapering towards the latter and widening away from it so as to define a divergent channel for gas which is directed towards the incision and penetrates between the flexible membrane and the non-adherent portion. - at least one flexible label which has an upper surface and a lower surface, wherein at least the lower surface is provided with adhesive and at least one incision connects the two surfaces; wherein at least one portion of the lower surface is provided with adhesive; - at least one flexible membrane which has an upper surface and a lower surface and which adheres to the at least one portion provided with adhesive of the lower surface of the flexible label; wherein the lower surface of the flexible membrane is substantially non-adhesive, wherein, in plan view, a portion of the flexible membrane is arranged under the incision of the flexible label, wherein the flexible label, in plan view, has at least one flap which extends beyond the flexible membrane in order to adhere to a sheet so as to retain on the latter said flexible membrane; wherein the lower surface of the flexible label comprises at least one non-adherent portion which, in plan view, is adjacent to the flexible membrane or at least partially superimposed on the latter; wherein the incision, in plan view, crosses said at least one non-adherent portion and is not spaced from the latter; characterised in that the non-adherent portion comprises at least a part thereof which, in plan view, extends towards an edge of the flexible membrane, tapering towards the latter and widening away from it so as to define a divergent channel for gas which is directed towards the incision and penetrates between the flexible membrane and the non-adherent portion.
A support structure for forming a shelf or a rack or a seat, or the like, said support structure comprising: - a U-shaped support profile with a middle wall and two side walls substantially perpendicular to the middle wall, the middle wall having a plurality of first apertures for attaching the support profile to a wall, the two side walls being located at a first distance from one another, and at least one of the side walls, in particular, at least the side wall, having a plurality of pairs of second apertures for attaching support arms; - at least two support arms, each support arm having dimensions such that the support arm is mountable between the two side walls of the support profile in a direction perpendicular to the longitudinal direction of the support profile, each support arm having a flat surface on which a planar object can be placed, characterised in that each support arm has a pair of projections that fit into a pair of second apertures in a side wall of the support profile. - a U-shaped support profile with a middle wall and two side walls substantially perpendicular to the middle wall, the middle wall having a plurality of first apertures for attaching the support profile to a wall, the two side walls being located at a first distance from one another, and at least one of the side walls, in particular, at least the side wall, having a plurality of pairs of second apertures for attaching support arms; - at least two support arms, each support arm having dimensions such that the support arm is mountable between the two side walls of the support profile in a direction perpendicular to the longitudinal direction of the support profile, each support arm having a flat surface on which a planar object can be placed,
Apparatus for heating plastic parisons, with a transport device which transports the plastic parisons along a predetermined transport path, and with at least one heating device, wherein the heating device has at least one first radiation source which emits thermal radiation as well as at least one reflector device which reflects at least a proportion of the thermal radiation emitted by the radiation source in the direction of the plastic parisons, wherein the reflector device is attached to the radiation source and has a support and a reflection component which bears against the support on at least one region and is suitable for reflection of the radiation, characterized in that the surface of the reflection component facing the radiation source follows a parabolically curved path at least in sections, and the radiation source is disposed in a focal point of the reflector device, or the reflection component has an asymmetrical cross-section in a plane perpendicular to a longitudinal direction of the radiation source.
Gear set mechanism for the drive train of a rail vehicle, the gear set mechanism having an input shaft, an intermediate shaft and an output shaft, it being possible for the input shaft to be drive-connected to a drive motor, the gear set mechanism having at least two optionally selectable transmission stages with different transmission ratios for the same driving direction and a selecting device for selecting the transmission stages, the two transmission stages being configured as a first spur gear pair with a first spur gear and a third spur gear and as a second spur gear pair with a second spur gear and a fourth spur gear, the first and the second spur gear (11, 12) being arranged in each case fixedly on the input shaft so as to rotate with it, and the third and the fourth spur gear (13, 14) being arranged in each case such that they can be rotated about an intermediate shaft axis, and the third and the fourth spur gear (13, 14) being mounted in a housing of the gear set mechanism such that they can be rotated on in each case one bearing stub (21, 22) which is fixed on the housing.
Arrangement for addressing seat-mounted electrical equipment (10, 11), wherein - each piece of equipment (10, 11) is non-varyingly logically linked to a transceiver device having a unique identifier and a plurality of transceiver antennae with non-identically oriented antenna lobes, wherein the transceiver device is configured to transmit a signal comprising its unique identifier via each of the transceiver antennae individually and to receive any signal of a neighboring transceiver device attributing it to the actually receiving transceiver antennae in order to determine pattern information pairs, and - a central instance is configured to collect the pattern information pairs from the transceiver devices and to compare the pattern information pairs with a stored pattern of the equipment to identify each transceiver devices' position in the stored pattern; wherein the pattern information pair comprises the unique identifier of the neighboring transceiver device having transmitted the signal, the unique identifier of the transceiver device having received said signal and a unique identification over which transceiver antenna said signal was received. - each piece of equipment (10, 11) is non-varyingly logically linked to a transceiver device having a unique identifier and a plurality of transceiver antennae with non-identically oriented antenna lobes, wherein the transceiver device is configured to transmit a signal comprising its unique identifier via each of the transceiver antennae individually and to receive any signal of a neighboring transceiver device attributing it to the actually receiving transceiver antennae in order to determine pattern information pairs, and - a central instance is configured to collect the pattern information pairs from the transceiver devices and to compare the pattern information pairs with a stored pattern of the equipment to identify each transceiver devices' position in the stored pattern;