mhurhangee/ep-ind-claims huggingface dataset:
A connector assembly for a vehicle, the connector assembly comprising: a plug assembly comprising a plurality of plugs wherein each of the plugs comprises an insertion portion; and a header assembly to which each of the plugs is to be inserted and coupled, the header assembly comprising: two header housings (121, 122) into which the plugs are to be inserted wherein the insertion portion of each of the plugs is to be inserted into a corresponding one of the header housings (121, 122), and the two header housings (121, 122) are configured as an integral body; a partition wall configured to separate the two header housings (121, 122); and a guider integrally formed with an outer surface of the two header housings (121, 122) and aligned with the partition wall to restrict a coupling position of each of the plugs and guide coupling of each of the plugs, characterized in that each of the plugs comprises a guide flange to be coupled to an outer side of the corresponding header housing when the insertion portion is inserted into the corresponding header housing; and the guider is provided such that the guide flange is to be in contact with the guider when each of the plugs is inserted into a corresponding header housing (121, 122). a plug assembly comprising a plurality of plugs wherein each of the plugs comprises an insertion portion; and a header assembly to which each of the plugs is to be inserted and coupled, the header assembly comprising: two header housings (121, 122) into which the plugs are to be inserted wherein the insertion portion of each of the plugs is to be inserted into a corresponding one of the header housings (121, 122), and the two header housings (121, 122) are configured as an integral body; a partition wall configured to separate the two header housings (121, 122); and a guider integrally formed with an outer surface of the two header housings (121, 122) and aligned with the partition wall to restrict a coupling position of each of the plugs and guide coupling of each of the plugs, characterized in that each of the plugs comprises a guide flange to be coupled to an outer side of the corresponding header housing when the insertion portion is inserted into the corresponding header housing; and the guider is provided such that the guide flange is to be in contact with the guider when each of the plugs is inserted into a corresponding header housing (121, 122).
A de-blocking device for a hydraulic pump, the de-blocking device comprising: a can having a longitudinal axis and a conduit extending longitudinally along the longitudinal axis, the conduit having a first terminal aperture; a bearing fixedly positioned in the conduit spaced from first terminal aperture; and a plunger axially movably positioned in the conduit between the bearing and the first terminal aperture, characterised by a biasing element positioned between the bearing and the plunger wherein the movement of the plunger toward the bearing compresses the biasing element. a can having a longitudinal axis and a conduit extending longitudinally along the longitudinal axis, the conduit having a first terminal aperture; a bearing fixedly positioned in the conduit spaced from first terminal aperture; and a plunger axially movably positioned in the conduit between the bearing and the first terminal aperture, characterised by a biasing element positioned between the bearing and the plunger wherein the movement of the plunger toward the bearing compresses the biasing element.
A method of depositing a material, comprising: positioning a biomedical device on a substrate support, the biomedical device having a plurality of wells formed therein, wherein the biomedical device comprises a substrate with a plurality of layers formed thereon, the plurality of layers including a first layer, a second layer, a third layer and a fourth layer, wherein the first layer and the third layer are dielectric layers, the second layer is a color filter layer and the fourth layer is a metal containing layer, wherein the biomedical device further comprises a silicon-containing layer disposed over the metal containing layer, wherein the plurality of wells extend through the silicon-containing layer and stop at the metal-containing layer; positioning a printing mask over the biomedical device, the printing mask having a plurality of mask openings, the plurality of mask openings corresponding to the plurality of wells; and depositing a biofunctionalizing material through the printing mask and into the wells, the biofunctionalizing material being guided by the plurality of mask openings, the biofunctionalizing material forming a layer over a bottom surface of the plurality of wells. positioning a biomedical device on a substrate support, the biomedical device having a plurality of wells formed therein, wherein the biomedical device comprises a substrate with a plurality of layers formed thereon, the plurality of layers including a first layer, a second layer, a third layer and a fourth layer, wherein the first layer and the third layer are dielectric layers, the second layer is a color filter layer and the fourth layer is a metal containing layer, wherein the biomedical device further comprises a silicon-containing layer disposed over the metal containing layer, wherein the plurality of wells extend through the silicon-containing layer and stop at the metal-containing layer; positioning a printing mask over the biomedical device, the printing mask having a plurality of mask openings, the plurality of mask openings corresponding to the plurality of wells; and depositing a biofunctionalizing material through the printing mask and into the wells, the biofunctionalizing material being guided by the plurality of mask openings, the biofunctionalizing material forming a layer over a bottom surface of the plurality of wells.
A method for manufacturing a lignin-based biomass epoxy resin, comprising: (a) mixing a lignin, an acid anhydride compound, and a solvent to react for forming a first intermediate product; (b) reacting the first intermediate product with a first polyol to form a second intermediate product; and, (c) reacting the second intermediate product with an epoxy compound to form the lignin-based biomass epoxy resin. (a) mixing a lignin, an acid anhydride compound, and a solvent to react for forming a first intermediate product; (b) reacting the first intermediate product with a first polyol to form a second intermediate product; and, (c) reacting the second intermediate product with an epoxy compound to form the lignin-based biomass epoxy resin.
A method for temporarily disabling a disruptive alert of an infusion pump system, comprising: receiving a request for an alert postponement period from an infusion pump system for a specified period of time; disabling disruptive alerts from the infusion pump system for the specified period of time; and re-enabling disruptive alerts after the specified period of time has passed. receiving a request for an alert postponement period from an infusion pump system for a specified period of time; disabling disruptive alerts from the infusion pump system for the specified period of time; and re-enabling disruptive alerts after the specified period of time has passed.
A genetically engineered attenuated equine influenza virus, the genome of which comprises a mutation in an equine influenza virus NS 1 gene resulting in a deletion of all amino acid residues of the NS1 protein except amino acid residues 1 to 126, so that the genetically engineered attenuated equine influenza virus has an impaired interferon antagonist phenotype.
A method, comprising: transmitting a value from an access node towards an apparatus, where the value is indicative of a size of a first portion of an uplink resource block, where the uplink resource block is shared among a plurality of apparatus, where the first portion is specified for transmission of a first type of signaling to the access node, where a second portion of the uplink resource block is specified for transmission of a second type of signaling to the access node, and receiving at least one transmission using at least one of the first portion and the second portion, wherein the first type of signaling comprises acknowledgement, ACK/NACK, signaling and the second type of signaling comprises channel quality indicator, CQI signaling, wherein the transmission is received on a physical uplink control channel, and wherein Δ PUCCH shift is a cyclic shift difference between two adjacent resources using a same orthogonal cover sequence and the size of the first portion is an integer multiple of Δ PUCCH shift. transmitting a value from an access node towards an apparatus, where the value is indicative of a size of a first portion of an uplink resource block, where the uplink resource block is shared among a plurality of apparatus, where the first portion is specified for transmission of a first type of signaling to the access node, where a second portion of the uplink resource block is specified for transmission of a second type of signaling to the access node, and receiving at least one transmission using at least one of the first portion and the second portion, wherein the first type of signaling comprises acknowledgement, ACK/NACK, signaling and the second type of signaling comprises channel quality indicator, CQI signaling, wherein the transmission is received on a physical uplink control channel, and wherein Δ PUCCH shift is a cyclic shift difference between two adjacent resources using a same orthogonal cover sequence and the size of the first portion is an integer multiple of Δ PUCCH shift. receiving at least one transmission using at least one of the first portion and the second portion, wherein the first type of signaling comprises acknowledgement, ACK/NACK, signaling and the second type of signaling comprises channel quality indicator, CQI signaling, wherein the transmission is received on a physical uplink control channel, and wherein Δ PUCCH shift is a cyclic shift difference between two adjacent resources using a same orthogonal cover sequence and the size of the first portion is an integer multiple of Δ PUCCH shift.
A fall protection harness comprising: one or more straps: an electrical sensing device coupled to the one or more straps; a computer processor coupled to the electrical sensing device; and a transmitter coupled to the computer processor; wherein the one or more straps comprise: an electrically non-conducting thread; and an electrically conducting thread; wherein the one or more straps are folded at a folded over portion of the one or more straps thereby forming a first surface of the one or more straps and a second opposing surface of the one or more straps, and wherein the electrically non-conducting thread and the electrically conducting thread are intertwined and couple the first surface of the one or more straps to the second opposing surface of the one or more straps at the folded over portion of the one or more straps; and wherein the electrical sensing device is operable to detect one or more of a disruption in current in the electrically conducting thread, a disruption in voltage in the electrically conducting thread, or a change in resistance in the electrically conducting thread, thereby indicating one or more of damage to the fall protection harness or a fall by a person wearing the fall protection harness. an electrical sensing device coupled to the one or more straps; a computer processor coupled to the electrical sensing device; and a transmitter coupled to the computer processor; wherein the one or more straps comprise: an electrically non-conducting thread; and an electrically conducting thread; an electrically non-conducting thread; and an electrically conducting thread; wherein the one or more straps are folded at a folded over portion of the one or more straps thereby forming a first surface of the one or more straps and a second opposing surface of the one or more straps, and wherein the electrically non-conducting thread and the electrically conducting thread are intertwined and couple the first surface of the one or more straps to the second opposing surface of the one or more straps at the folded over portion of the one or more straps; and wherein the electrical sensing device is operable to detect one or more of a disruption in current in the electrically conducting thread, a disruption in voltage in the electrically conducting thread, or a change in resistance in the electrically conducting thread, thereby indicating one or more of damage to the fall protection harness or a fall by a person wearing the fall protection harness.
An antenna system of a satellite, comprising: an antenna receiver; a plurality of antenna elements coupled to the antenna receiver via a plurality of flexible couplings, wherein deployed positions of the plurality of antenna elements are constrained by their position along a respective one of the flexible couplings, and are otherwise unconstrained in one or more spatial dimensions; a training processor configured to: receive one or more first signals from the antenna receiver associated with one or more training signals from a first transmitter (110, 170, 185), and associate each of the plurality of antenna elements with a first respective time of arrival based at least in part on the one or more training signals; and a beam weight processor configured to combine one or more second signals associated with a data signal from a second transmitter (110, 170, 185) received via the antenna receiver according to a plurality of coefficients determined based at least in part on the associations between the plurality of antenna elements and the first respective time of arrivals. an antenna receiver; a plurality of antenna elements coupled to the antenna receiver via a plurality of flexible couplings, wherein deployed positions of the plurality of antenna elements are constrained by their position along a respective one of the flexible couplings, and are otherwise unconstrained in one or more spatial dimensions; a training processor configured to: receive one or more first signals from the antenna receiver associated with one or more training signals from a first transmitter (110, 170, 185), and associate each of the plurality of antenna elements with a first respective time of arrival based at least in part on the one or more training signals; and a beam weight processor configured to combine one or more second signals associated with a data signal from a second transmitter (110, 170, 185) received via the antenna receiver according to a plurality of coefficients determined based at least in part on the associations between the plurality of antenna elements and the first respective time of arrivals. receive one or more first signals from the antenna receiver associated with one or more training signals from a first transmitter (110, 170, 185), and associate each of the plurality of antenna elements with a first respective time of arrival based at least in part on the one or more training signals; and a beam weight processor configured to combine one or more second signals associated with a data signal from a second transmitter (110, 170, 185) received via the antenna receiver according to a plurality of coefficients determined based at least in part on the associations between the plurality of antenna elements and the first respective time of arrivals.
A composite cathode active material for a lithium battery comprising: a lithium composite oxide; a coating layer comprising a metal oxide and a lithium fluoride, wherein the coating layer is disposed on at least a portion of a surface of the lithium composite oxide; and characterized in that a spinel phase is disposed between the lithium composite oxide and the coating layer. a lithium composite oxide; a coating layer comprising a metal oxide and a lithium fluoride, wherein the coating layer is disposed on at least a portion of a surface of the lithium composite oxide; and characterized in that a spinel phase is disposed between the lithium composite oxide and the coating layer.
Motor vehicle with a high-performance working device, with a power take-off, disposed in the drive train of the motor vehicle between the motor vehicle engine and gear box, in order to drive the working device which can be selectively connected and disconnected via a clutch, wherein the power take-off is formed as a fixed transmission between the motor vehicle engine and the gear box, wherein the drive wheel of the fixed transmission is rigidly integrated in the drive train, specifically it is directly coupled to the engine, and wherein the output wheel of the fixed transmission is connected to an output shaft via the clutch, characterised in that the working device, specifically a comminuting device for wood, is attached to the output shaft, and that the transmission of the power take-off is a single-stage transmission.
Method for isomerizing components of a hop substrate in a beer manufacturing method, which includes a manufacturing and a thermal treatment of a wort, having the steps: (a) mixing of the hop substrate with an isomerization substrate, thereby obtaining a mixture; wherein the hop substrate contains at least one isomerizable hop component, preferably at least one α acid and/or at least one β acid; wherein the isomerization substrate contains a lauter wort or consists thereof; wherein the isomerization substrate has an extract content in the range of 0.2 to 8 °P; and wherein the isomerization substrate has a pH value of at least 5.6, preferably at least 7.0; (b) setting a temperature of the mixture obtained in step (a) to a temperature within a temperature range, which includes the temperatures from 15 °C below to 2 °C, preferably from 15 °C below to 5 °C, below a maximum temperature (TMAX) attained by the wort during the thermal treatment of the same in the beer manufacturing method; (c) maintaining the temperature of the mixture obtained in step (b) within the range for a predetermined period of time (tI); wherein the period of time (tI) is longer by 20 to 50 minutes than a period of time (tK) of the thermal treatment of the wort in the beer manufacturing method; and (d) preferably, at least partly separating of solid components from the mixture obtained in step (c). (a) mixing of the hop substrate with an isomerization substrate, thereby obtaining a mixture; wherein the hop substrate contains at least one isomerizable hop component, preferably at least one α acid and/or at least one β acid; wherein the isomerization substrate contains a lauter wort or consists thereof; wherein the isomerization substrate has an extract content in the range of 0.2 to 8 °P; and wherein the isomerization substrate has a pH value of at least 5.6, preferably at least 7.0; wherein the hop substrate contains at least one isomerizable hop component, preferably at least one α acid and/or at least one β acid; wherein the isomerization substrate contains a lauter wort or consists thereof; wherein the isomerization substrate has an extract content in the range of 0.2 to 8 °P; and wherein the isomerization substrate has a pH value of at least 5.6, preferably at least 7.0; (b) setting a temperature of the mixture obtained in step (a) to a temperature within a temperature range, which includes the temperatures from 15 °C below to 2 °C, preferably from 15 °C below to 5 °C, below a maximum temperature (TMAX) attained by the wort during the thermal treatment of the same in the beer manufacturing method; (c) maintaining the temperature of the mixture obtained in step (b) within the range for a predetermined period of time (tI); wherein the period of time (tI) is longer by 20 to 50 minutes than a period of time (tK) of the thermal treatment of the wort in the beer manufacturing method; and (d) preferably, at least partly separating of solid components from the mixture obtained in step (c).
A transmitter driver comprising: a first voltage mode driver coupled to receive a first differential input signal from a first input port of the transmitter driver, and coupled to provide a first differential output signal at a first output port (Tx_m) of the transmitter driver; a second voltage mode driver coupled to receive a second differential input signal from a second input port (DOb) of the transmitter driver, and coupled to provide a second differential output signal at a second output port (Tx_p) of the transmitter driver; a secondary data path having first input and output ports connected in parallel with the first voltage mode driver, and having second input and output ports connected in parallel with the second voltage mode driver, the secondary data path receiving boost current from a current source; the transmitter driver being characterized by further comprising: a high frequency booster connected to the first and second input ports of the transmitter driver, and connected between the current source and the secondary data path, the high frequency booster providing a high frequency path for the boost current from the current source. a first voltage mode driver coupled to receive a first differential input signal from a first input port of the transmitter driver, and coupled to provide a first differential output signal at a first output port (Tx_m) of the transmitter driver; a second voltage mode driver coupled to receive a second differential input signal from a second input port (DOb) of the transmitter driver, and coupled to provide a second differential output signal at a second output port (Tx_p) of the transmitter driver; a secondary data path having first input and output ports connected in parallel with the first voltage mode driver, and having second input and output ports connected in parallel with the second voltage mode driver, the secondary data path receiving boost current from a current source; the transmitter driver being characterized by further comprising: a high frequency booster connected to the first and second input ports of the transmitter driver, and connected between the current source and the secondary data path, the high frequency booster providing a high frequency path for the boost current from the current source.