mhurhangee/ep-ind-claims huggingface dataset:
A partition wall unit comprising: a main wall body configured into a quadrilateral structure, having a first connecting plate with a thickness half as that of said main wall body extended from its front end linearly along two adjacent sides and being joined to a second connecting plate with a thickness half as that of said main wall body extended from its front end linearly along the other two adjacent sides, the first and second connecting plates (111, 112) being disposed in an offset configuration so that the main wall body defines in its side edges two L-shaped connecting steps, namely a first step extending along two adjacent side edges and a second step extending along the remaining two side edges; several horizontal ducts and several vertical ducts communicative with one another provided in said main wall body; two layers of metallic net intercalated in said main wall body and disposed in a plane parallel to the major faces thereof with said horizontal ducts and said vertical ducts positioned in between; and a plurality of supporting frames disposed longitudinally and transversely inside said main wall body in a plane parallel to the major surfaces thereof at the outer side of said two metallic net layers. a main wall body configured into a quadrilateral structure, having a first connecting plate with a thickness half as that of said main wall body extended from its front end linearly along two adjacent sides and being joined to a second connecting plate with a thickness half as that of said main wall body extended from its front end linearly along the other two adjacent sides, the first and second connecting plates (111, 112) being disposed in an offset configuration so that the main wall body defines in its side edges two L-shaped connecting steps, namely a first step extending along two adjacent side edges and a second step extending along the remaining two side edges; several horizontal ducts and several vertical ducts communicative with one another provided in said main wall body; two layers of metallic net intercalated in said main wall body and disposed in a plane parallel to the major faces thereof with said horizontal ducts and said vertical ducts positioned in between; and a plurality of supporting frames disposed longitudinally and transversely inside said main wall body in a plane parallel to the major surfaces thereof at the outer side of said two metallic net layers.
A computer-implemented process for encoding files to be stored in a distributed peer-to-peer network, comprising the process actions of: inputting a file of a given file size; if the file size is smaller than a range of file sizes for a smallest erasure resilient coding, ERC, number of fragments of two, not using erasure resilient coding (906, 908) for the file, wherein an ERC number of fragments corresponds to the number of fragments used for ERC coding of the file; and if the file size of the input file corresponds to an erasure resilient coding file size range, encoding the file using erasure resilient coding and an optimal number of fragments corresponding to a file size range of the input file (906, 910), wherein for each of multiple different file sizes, a corresponding optimal number of fragments for the respective file size is predetermined based on an overall network bandwidth needed to store the file on a required number of peers in the distributed network, wherein different file size ranges correspond to different erasure resilient coding numbers of fragments, and wherein each number of fragments is the optimal number of fragments for a corresponding range of file sizes. inputting a file of a given file size; if the file size is smaller than a range of file sizes for a smallest erasure resilient coding, ERC, number of fragments of two, not using erasure resilient coding (906, 908) for the file, wherein an ERC number of fragments corresponds to the number of fragments used for ERC coding of the file; and if the file size of the input file corresponds to an erasure resilient coding file size range, encoding the file using erasure resilient coding and an optimal number of fragments corresponding to a file size range of the input file (906, 910), wherein for each of multiple different file sizes, a corresponding optimal number of fragments for the respective file size is predetermined based on an overall network bandwidth needed to store the file on a required number of peers in the distributed network, wherein different file size ranges correspond to different erasure resilient coding numbers of fragments, and wherein each number of fragments is the optimal number of fragments for a corresponding range of file sizes.
A device for extracting volatile compounds from a sample, comprising: a) a sample vessel for receiving the sample with a supply line and with a discharge line, the sample vessel being sealed in a gas-tight manner; b) a gas supply, which is connected to the supply line; c) a trap element which is fluidically connected to the discharge line and which comprises at least one absorber material, wherein the trap element is connected to the discharge line via a connection that can be established and released manually or automatically without tools by means of a quick-release fastener, and the trap element has a gas outlet so that when the trap element is connected to the discharge line, a gas from the gas supply can flow through it, characterised in that the trap element is designed as a syringe, the absorber material being arranged in a cylinder of the syringe. a) a sample vessel for receiving the sample with a supply line and with a discharge line, the sample vessel being sealed in a gas-tight manner; b) a gas supply, which is connected to the supply line; c) a trap element which is fluidically connected to the discharge line and which comprises at least one absorber material, the trap element is connected to the discharge line via a connection that can be established and released manually or automatically without tools by means of a quick-release fastener, and the trap element has a gas outlet so that when the trap element is connected to the discharge line, a gas from the gas supply can flow through it, characterised in that the trap element is designed as a syringe, the absorber material being arranged in a cylinder of the syringe.
Process for removing oxygen-containing organic compounds (oxygenates) from mixtures of different hydrocarbon compounds, characterized in that a liquid phase containing hydrocarbons and oxygenates is added to a first column, wherein in this first column a light fraction is separated by distillation as head product, and a heavier C4+ fraction is removed from the bottom of the column, and in that the light fraction and a gaseous mixture of hydrocarbons and oxygenates are added to a second column, wherein a distillative separation into a light and a heavy hydrocarbon fraction takes place, wherein an additional solvent is fed into the upper part of the column, which dissolves the oxygenates and discharges them in the bottom product of the column, so that an oxygenate-free hydrocarbon product leaves the head of the column and a mixture of oxygenates, solvents and residual hydrocarbons is drawn off from the bottom of the column.
A system for the non-invasive measurement of tone, state of tension, biomechanical or viscoelastic properties of soft biological tissues comprising a testing-end movable along a Y-axis and supported resiliently within a housing by a spring (134a, 134b), an actuator arranged to apply a force to the testing-end, and an impulse signal generating circuit to supply an impulse signal to the actuator so the biological tissues are subjected by the testing-end to a mechanical impulse, and a sensor (2, 21) to sense movement of the testing-end, wherein the system comprises a signal generating circuit to supply a control signal to the actuator so the biological tissues are subjected by the testing-end to a load, the system including means to adjust the signal provided by the signal generating circuit in accordance with the component of weight acting through the testing-end onto the biological tissues so that the load to which the biological tissues are subjected has a pre-set value; wherein the system comprises an accelerometer (2; 22) to provide a compensating signal (8.5) representing the Y-axis component of the gravitational field; characterised in that the spring consists of leaf springs, and in that the signal adjustment means is a summing unit, to which are provided the control signals from the signal generating circuit and the compensating signal (8.5) representing the Y-axis component of gravitational field; wherein the summing unit is arranged to sum the control signal from the signal generating circuit, and to subtract the compensating signal (8.5) representing the Y-axis component of gravitational field; and wherein the summing unit is also provided with the impulse signal from the impulse generating circuit, the impulse signal being added by the summing unit; the output from the summing unit being provided to the actuator, so the mechanical impulse is delivered and released quickly under constant pre-compression.
A vacuum clamping device for clamping workpieces, in particular for clamping flat substrates, having a vacuum clamping plate, which comprises, distributed over its surface, a plurality of suction openings, which are formed in a suction surface of said vacuum clamping plate, or which are associated with a plurality, of suction grooves, which are formed in a suction surface of said vacuum clamping plate, whereby the vacuum clamping plate comprises two or more separate, individually switchable vacuum zones (11,12), each vacuum zone (11, 12) comprising respective suction openings and/or suction grooves having suction openings, whereby the vacuum clamping device comprises two or more independent vacuum circuits, whereby each vacuum zone (11, 12) is associated to one of the vacuum circuits or is part of one of the vacuum circuits, and whereby each vacuum circuit is provided for generating an independent vacuum, whereby the vacuum clamping plate is circular shaped, and characterized in that the vacuum zones (11, 12) comprise circular outer boundaries, which have no common centre.
A hoisting member (114, 200, 300, 400, 500, 600, 700, 800, 900, 1000, 1100, 1200, 1300) for moving an elevator car in an elevator system, wherein the hoisting member comprises: a strength component (204, 304, 404, 504, 604, 704, 804, 904, 1004, 1104, 1204, 1304) comprising a plurality of carbon nanotube structures located within a core (202, 302, 402, 502, 602, 702, 802, 902, 1002, 1102, 1202, 1302) of the hoisting member; and a matrix material (206, 306, 406, 506, 606, 706, 806, 906, 1006, 1106, 1206, 1306) comprising a first polymer material that surrounds the plurality of carbon nanotube structures and binds the plurality of carbon nanotube structures together, characterized in that power and data are transmitted to and from the elevator car via a select one or more of at least a portion of the plurality of carbon nanotube structures and a data communications member. a strength component (204, 304, 404, 504, 604, 704, 804, 904, 1004, 1104, 1204, 1304) comprising a plurality of carbon nanotube structures located within a core (202, 302, 402, 502, 602, 702, 802, 902, 1002, 1102, 1202, 1302) of the hoisting member; and a matrix material (206, 306, 406, 506, 606, 706, 806, 906, 1006, 1106, 1206, 1306) comprising a first polymer material that surrounds the plurality of carbon nanotube structures and binds the plurality of carbon nanotube structures together, characterized in that power and data are transmitted to and from the elevator car via a select one or more of at least a portion of the plurality of carbon nanotube structures and a data communications member.
A water recirculation system comprising a plurality of reservoirs supplied from a water source; a washing unit to receive water from the reservoirs; and switching means for selecting from which of the reservoirs the washing unit receives water, wherein the system comprises a pump connected to return water from the washing unit to the reservoirs; characterised in that a supplementary tank is located between the washing unit and the pump, the system having means to distribute water from a first reservoir of the plurality of reservoirs to the supplementary tank.
Method for actuating a hydraulic system of a transmission with an adjustable hydraulic pump and a system pressure valve which can be pilot-controlled, is arranged on a delivery side of the hydraulic pump, and by means of which a system pressure of a primary pressure circuit can be set in a manner which is dependent on the delivery volumetric flow of the adjustable hydraulic pump and the pilot control means, characterized in that, in order to determine a pump characteristic curve of the hydraulic pump, the hydraulic system is first of all transferred into a defined operating state range, in which the delivery volumetric flow (Vp) which is led via the system pressure valve and which prevails at the system pressure valve from the hydraulic pump is greater or less than a hydraulic fluid volumetric flow which flows out of the hydraulic system and is set in a defined manner, and the system pressure valve is pilot-controlled accordingly in order to set a defined pressure level of the system pressure, the delivery volumetric flow (Vp) being reduced or increased in each case in a manner which proceeds from the said operating state of the hydraulic system, and the system pressure being monitored in the process, and the delivery volumetric flow (Vp) which corresponds to the hydraulic fluid volumetric flow of the hydraulic system being determined at the time, at which there is a deviation of the respectively currently present system pressure from the defined system pressure which is greater than or equal to a first threshold or less than or equal to a second threshold.
Power factor correction device for an AC grid system having a transformer, the secondary side of which is connected up in a star point circuit and which has one secondary-side connection (S1-S3) per phase, wherein each of the secondary-side connections (S1-S3) of the transformer and the star point of the star circuit have a respective module series circuit connected between them having at least two series-connected switching modules that each have at least four switches and a capacitor, wherein the transformer is a high-leakage-reactance transformer, characterized in that the module series circuits each have, in addition to the switching modules, a series resonant circuit, connected in series with the switching modules, the resonant frequency of which is three times the system frequency or an integer multiple of these three times.
An aerosol-generating system comprising: an aerosol-generating device comprising a heater element; and an aerosol-generating article configured to engage with the aerosol-generating device and comprising: a medicament source; a volatile delivery enhancing compound source; and at least one frangible barrier sealing the medicament source and the volatile delivery enhancing compound source; wherein the heater element is an elongate heater element comprising a proximal end attached to the aerosol-generating device and a free distal end for insertion into the aerosol-generating article, and wherein the elongate heater element forms a piercing element and is arranged so that the elongate heater element pierces the at least one frangible barrier when a user engages the aerosol-generating article with the aerosol-generating device. an aerosol-generating device comprising a heater element; and an aerosol-generating article configured to engage with the aerosol-generating device and comprising: a medicament source; a volatile delivery enhancing compound source; and at least one frangible barrier sealing the medicament source and the volatile delivery enhancing compound source; a medicament source; a volatile delivery enhancing compound source; and at least one frangible barrier sealing the medicament source and the volatile delivery enhancing compound source; wherein the heater element is an elongate heater element comprising a proximal end attached to the aerosol-generating device and a free distal end for insertion into the aerosol-generating article, and wherein the elongate heater element forms a piercing element and is arranged so that the elongate heater element pierces the at least one frangible barrier when a user engages the aerosol-generating article with the aerosol-generating device.
Cooling device for an electrical power component, comprising a cooling circuit operated with a liquid coolant, having a heat exchanger, which is connected in the cooling circuit and to which the power component is coupled in a thermally conductive manner, and having a cooler for cooling the coolant, which cooler, viewed in the flow direction of the coolant, is connected behind the heat exchanger in the cooling circuit, having an elongated distributor pipe, which, viewed in the flow direction of the liquid coolant, is connected behind the cooler and in front of the heat exchanger by means of cooling liquid channels (104, 106) in the cooling circuit, the cross-section of which is greater than the flow cross-section of the cooling liquid channel and which is mounted parallel to the gravity vector having a pump, which is connected in the cooling circuit for maintaining the circulation of the coolant, characterized by temperature sensors for detecting the temperature of the heat exchanger and for detecting the temperature of the ambient air, a heater for heating the coolant, which is located in the distributor pipe, wherein a control unit analyses the signals from the temperature sensors and activates the heater, if the power component is not in operation and if the heat exchanger assumes a lower temperature than the ambient air, so that without using the pump the heated coolant is circulated in the cooling circuit and heats the heat exchanger.
A method for antenna selection in a wireless communication network, the network comprising a base station and a transceiver (111, 112, 113), wherein the transceiver has a set of antennas, and wherein the transceiver is configured to transmit in a bandwidth (810; 910) a frequency-hopped sounding reference signal SRS from a subset of the set of antennas at a time, comprising at the base station: determining a type of a training transmission based on the number of subbands in the bandwidth (810; 910) and the number of subsets of transmit antennas to be trained in the set of antennas; and transmitting an instruction including the type to the transceiver (111, 112, 113), wherein if the number of subbands is an integer multiple of the number of subsets in the set of antennas, the type is a transmitting substantially alternately, wherein transmitting substantially alternately means, that the SRSs are transmitted from each subset of transmit antennas to be trained in the set of antennas alternately, but wherein periodically the order of the subsets for the transmission is altered, and wherein the transceiver (111, 112, 113) has knowledge about types of the training transmission and is configured to select the training transmission based on the instruction. determining a type of a training transmission based on the number of subbands in the bandwidth (810; 910) and the number of subsets of transmit antennas to be trained in the set of antennas; and transmitting an instruction including the type to the transceiver (111, 112, 113), wherein if the number of subbands is an integer multiple of the number of subsets in the set of antennas, the type is a transmitting substantially alternately, wherein transmitting substantially alternately means, that the SRSs are transmitted from each subset of transmit antennas to be trained in the set of antennas alternately, but wherein periodically the order of the subsets for the transmission is altered, and wherein the transceiver (111, 112, 113) has knowledge about types of the training transmission and is configured to select the training transmission based on the instruction.
A method for controlling retransmission by a User Equipment, UE, in a communication system, comprising the steps of: receiving, on a Physical HARQ Indicator CHannel, PHICH, negative acknowledgement, NACK, for one or more transport blocks among a plurality of transport blocks transmitted by the UE, from the Node B; determining a precoding matrix and a number of one or more layers for retransmission; and retransmitting the one or more transport blocks using the determined precoding matrix and the determined number of layer, characterized in that the precoding matrix is predefined and the number of layer is equal to a number of one or more layers corresponding to the NACKed one or more transport blocks, if the UE does not receive a Physical Downlink Control CHannel, PDCCH, intended for the UE, and a number of the NACKed one or more transport blocks is not equal to a number of the plurality of transport blocks. receiving, on a Physical HARQ Indicator CHannel, PHICH, negative acknowledgement, NACK, for one or more transport blocks among a plurality of transport blocks transmitted by the UE, from the Node B; determining a precoding matrix and a number of one or more layers for retransmission; and retransmitting the one or more transport blocks using the determined precoding matrix and the determined number of layer, characterized in that the precoding matrix is predefined and the number of layer is equal to a number of one or more layers corresponding to the NACKed one or more transport blocks, if the UE does not receive a Physical Downlink Control CHannel, PDCCH, intended for the UE, and a number of the NACKed one or more transport blocks is not equal to a number of the plurality of transport blocks.