mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method, the method comprising: receiving (732, 604), by a ledger proxy, a first plurality of transaction requests, each of the first plurality of transaction requests comprising content information of a corresponding transaction and authentication information of the corresponding transaction; storing (734, 608), by the ledger proxy, each of a second plurality of transaction requests among the first plurality of transaction requests in a respective request stream of a plurality of request streams, a number of the second plurality of transaction requests being no larger than a number of the first plurality of transaction requests; transmitting (736, 610), by the ledger proxy and to a ledger server, a storage request for a transaction request stored in a request stream of the plurality of request streams, the storage request comprising i) storage information of the transaction request in the request stream, the storage information comprising a location of the transaction request in the request stream, and ii) authentication information of a transaction corresponding to the transaction request; receiving (738, 630), by the ledger proxy and from the ledger server, index information corresponding to the storage request for the transaction request, the index information indicating a location of the storage information stored by the ledger server; and transmitting (740, 632), by the ledger proxy and to a client device, a response for the transaction request, the response comprising the index information corresponding to the transaction request. receiving (732, 604), by a ledger proxy, a first plurality of transaction requests, each of the first plurality of transaction requests comprising content information of a corresponding transaction and authentication information of the corresponding transaction; storing (734, 608), by the ledger proxy, each of a second plurality of transaction requests among the first plurality of transaction requests in a respective request stream of a plurality of request streams, a number of the second plurality of transaction requests being no larger than a number of the first plurality of transaction requests; transmitting (736, 610), by the ledger proxy and to a ledger server, a storage request for a transaction request stored in a request stream of the plurality of request streams, the storage request comprising i) storage information of the transaction request in the request stream, the storage information comprising a location of the transaction request in the request stream, and ii) authentication information of a transaction corresponding to the transaction request; receiving (738, 630), by the ledger proxy and from the ledger server, index information corresponding to the storage request for the transaction request, the index information indicating a location of the storage information stored by the ledger server; and transmitting (740, 632), by the ledger proxy and to a client device, a response for the transaction request, the response comprising the index information corresponding to the transaction request.
Geothermal probe comprising at least one probe tube, an inner tube cavity of the probe tube being filled with a two-phase heat transfer fluid, and a wall of the probe tube surrounding the inner tube cavity comprising at least one circumferentially closed diffusion barrier layer consisting of metal and at least one jacket layer consisting of plastics material sheathing the diffusion barrier layer on the outside, characterised in that the diffusion barrier layer and the jacket layer are glued to one another, preferably directly, and in that the probe tube has a surface tension on the inner surface thereof delimiting the inner tube cavity for wetting the inner surface with heat transfer fluid, which surface tension is equal to or greater than the surface tension of the heat transfer fluid in the liquid state.
Device for the measurement of carbon dioxide in a working gas for a blood oxygenator comprising: - a tubular body inside which a working gas is conveyed; - at least one emitter of an optical signal arranged at said tubular body; - at least one receiver of said optical signal arranged at said tubular body on the opposite side of said emitter; - heating means (10, 11) arranged at at least one of said emitter and said receiver; characterized by the fact that it comprises at least one temperature sensor (13, 14) positioned in the proximity of said heating means (10, 11), at least one control unit operatively connected to said emitter, to said receiver, to said heating means (10, 11) and to said sensor (13, 14), said control unit comprising correction means which are configured to correct the value of the optical signal detected by said receiver depending on the temperature measured by said temperature sensor (13, 14). - a tubular body inside which a working gas is conveyed; - at least one emitter of an optical signal arranged at said tubular body; - at least one receiver of said optical signal arranged at said tubular body on the opposite side of said emitter; - heating means (10, 11) arranged at at least one of said emitter and said receiver;
Composite material comprising (a) melt blown fiber, wherein (i) said melt blown fiber comprise at least 85 wt.-% of a propylene copolymer having a comonomer content of 0.5 to 7.0 wt.-%, the comonomer is ethylene and/or at least one C 4 to C 20 α-olefin, (ii) optionally said melt blown fibers and/or said propylene copolymer has/have a melt flow rate MFR 2 (230 °C) measured according to ISO 1133 of at least 200 g/10min, and (b) at least one fibrous substrate material, wherein the composite material comprises 1 to 30 wt.-% of the melt blown fiber and 70 to 99 wt.-% of the fibrous substrate material, based on the total weight of the composite material. (a) melt blown fiber, wherein (i) said melt blown fiber comprise at least 85 wt.-% of a propylene copolymer having a comonomer content of 0.5 to 7.0 wt.-%, the comonomer is ethylene and/or at least one C 4 to C 20 α-olefin, (ii) optionally said melt blown fibers and/or said propylene copolymer has/have a melt flow rate MFR 2 (230 °C) measured according to ISO 1133 of at least 200 g/10min, and (i) said melt blown fiber comprise at least 85 wt.-% of a propylene copolymer having a comonomer content of 0.5 to 7.0 wt.-%, the comonomer is ethylene and/or at least one C 4 to C 20 α-olefin, (ii) optionally said melt blown fibers and/or said propylene copolymer has/have a melt flow rate MFR 2 (230 °C) measured according to ISO 1133 of at least 200 g/10min, and (b) at least one fibrous substrate material, wherein the composite material comprises 1 to 30 wt.-% of the melt blown fiber and 70 to 99 wt.-% of the fibrous substrate material, based on the total weight of the composite material.
A device for obtaining a tissue sample, comprising: a proximal actuator; a distal assembly having first and second opposing jaws, wherein the first jaw includes lateral, straight edges having teeth, the lateral edges connected by a curved distal edge not including teeth; and an elongate member connecting the proximal actuator to the distal assembly, wherein actuation of the proximal actuator causes the first and second jaws to pivot relative to one another; wherein one of the first jaw and the second jaw includes a spike that points towards the other of the first jaw and second jaw, and wherein a concave inner surface of the other of the first jaw and the second jaw defines a fenestration hole aligned opposite the spike when the first and second jaws are in a closed position. a proximal actuator; a distal assembly having first and second opposing jaws, wherein the first jaw includes lateral, straight edges having teeth, the lateral edges connected by a curved distal edge not including teeth; and an elongate member connecting the proximal actuator to the distal assembly, wherein actuation of the proximal actuator causes the first and second jaws to pivot relative to one another; wherein one of the first jaw and the second jaw includes a spike that points towards the other of the first jaw and second jaw, and wherein a concave inner surface of the other of the first jaw and the second jaw defines a fenestration hole aligned opposite the spike when the first and second jaws are in a closed position.
A system for optimizing gradient measurements in ranging operations, comprising: a drilling assembly comprising a drill string and a second portion, wherein the drill string has a first diameter and the second portion has a second diameter that is greater than the first diameter; a sensor pair disposed within the second portion and proximate to an outer radial surface of the second portion; and a processor in communication with the drilling assembly, wherein the processor is arranged to determine at least one electromagnetic field gradient measurement based, at least in part, on outputs of the sensor pair, wherein the second portion comprises a sensor extension housing, wherein the sensor extension housing comprises a first blade and a second blade, and wherein a first sensor of the sensor pair is disposed within the first blade and a second sensor of the sensor pair is disposed within the second blade. a drilling assembly comprising a drill string and a second portion, wherein the drill string has a first diameter and the second portion has a second diameter that is greater than the first diameter; a sensor pair disposed within the second portion and proximate to an outer radial surface of the second portion; and a processor in communication with the drilling assembly, wherein the processor is arranged to determine at least one electromagnetic field gradient measurement based, at least in part, on outputs of the sensor pair,
A process for the preparation of 1-chloro-2,2-difluoroethane, comprising a catalytic gas phase fluorination of 1,1,2-trichloroethane or a catalytic gas phase fluorination of 1,2-dichloroethene, wherein the catalyst used is prepared by co-depositing FeCl 3 and MgCl 2 on chromia-alumina and wherein the catalyst used has been fluorinated by treating the catalyst with a fluorine containing activation agent at temperatures not exceeding 400 °C.
Cutter system for an electric shaver and/or trimmer, comprising a pair of comb-like cutting elements (4, 5) each with at least one row of cutting teeth and movable relative to each other, wherein one of said cutting elements has thickened and/or rounded tooth tips overhanging the tooth tips of the other cutting element, characterized in that said overhanging tooth tips are provided with a two-step rounding including a spherical or drop-shaped or pearl-shaped thickening and a bent or curved portion connecting said thickening to a main tooth portion and bent or curved away from the skin contact surface of said main tooth portion, wherein a concave depression is formed in the transitional section between said thickening and said bent or curved portion on the skin contact side of the teeth.
An article, comprising a film comprising alternating polymeric layers configured to selectively reflect and transmit visible light at a design angle of incidence, the selective reflection comprising a red reflection band, a green reflection band, and a blue reflection band, wherein the reflection bands have bandwidths of about 50 nm or less.
A printed wiring board comprising: an insulating resinous substrate having an aperture unit; a first terminal unit and a second terminal unit consisting of a conductor and formed on top of the resinous substrate; and a fuse unit that electrically couples the first terminal unit and the second terminal unit to each other; wherein at least a part of the fuse unit is disposed over the aperture unit, and characterized in that, in addition, at least a part of the fuse unit is covered by a porous inorganic covering material having insulating properties. an insulating resinous substrate having an aperture unit; a first terminal unit and a second terminal unit consisting of a conductor and formed on top of the resinous substrate; and a fuse unit that electrically couples the first terminal unit and the second terminal unit to each other; at least a part of the fuse unit is disposed over the aperture unit, and
(i) A compound chosen from a potassium channel opener, a potassium channel agonist and an adenosine receptor agonist; and (ii) a local anaesthetic; for use in arresting and/or protecting an organ, tissue or cell in a subject wherein said use comprises administration of an effective amount of (i) and (ii) mixed with the blood of the subject or subjects having a similar blood type for a time and under conditions sufficient for the organ, tissue or cell to be arrested and/or protected. (ii) a local anaesthetic;
A hub assembly for a wind turbine, said hub assembly comprising: at least one hub extension, said hub extension connected to and extending radially from a center of said hub assembly; at least one rotor blade, said rotor blade having a blade root and a blade tip, said blade root coupled to said hub extension; and at least one rotatable hub airfoil section mounted at least partially over said hub extension so as to provide improved aerodynamic properties to said hub extension; wherein said rotatable hub airfoil section is configured to rotate about a common pitch axis with said rotor blade; characterized in that: at least one pitch bearing is positioned at an interface between a rotor blade and a hub extension, and said rotatable hub airfoil section comprises a flange, wherein the flange is mounted between the pitch bearing and the rotor blade using mechanical fasteners. at least one hub extension, said hub extension connected to and extending radially from a center of said hub assembly; at least one rotor blade, said rotor blade having a blade root and a blade tip, said blade root coupled to said hub extension; and at least one rotatable hub airfoil section mounted at least partially over said hub extension so as to provide improved aerodynamic properties to said hub extension; wherein said rotatable hub airfoil section is configured to rotate about a common pitch axis with said rotor blade; characterized in that: at least one pitch bearing is positioned at an interface between a rotor blade and a hub extension, and said rotatable hub airfoil section comprises a flange, wherein the flange is mounted between the pitch bearing and the rotor blade using mechanical fasteners. at least one pitch bearing is positioned at an interface between a rotor blade and a hub extension, and said rotatable hub airfoil section comprises a flange, wherein the flange is mounted between the pitch bearing and the rotor blade using mechanical fasteners.
A power supply system with self-excited drive function coupled to a power receiving apparatus through a positive power wire (Lp+) and a negative power wire (Lp-), characterized in that the power supply system comprising: a power supply apparatus configured to output a DC power source between the positive power wire (Lp+) and the negative power wire (Lp-), a logic disconnection circuit coupled between the positive power wire (Lp+) and the negative power wire (Lp-), a self-boosting circuit coupled between the positive power wire (Lp+) and the negative power wire (Lp-), and configured to convert a voltage between the positive power wire (Lp+) and the negative power wire (Lp-) into an auxiliary voltage (Va), and a receiving end of the self-boosting circuit coupled to an output end of the logic disconnection circuit, a protection circuit coupled between the positive power wire (Lp+) and the negative power wire (Lp-), and coupled to the self-boosting circuit to receive the auxiliary voltage (Va), and a current sensing unit coupled to the positive power wire (Lp+) or the negative power wire (Lp-), and configured to output a current sensing signal (Is) according to a current flowing through the positive power wire (Lp+) or the negative power wire (Lp-), wherein the protection circuit makes a short circuit or an open circuit between the positive power wire (Lp+) and the negative power wire (Lp-) according to the current sensing signal (Is), and the logic disconnection circuit disables or enables the self-boosting circuit according to the voltage between the positive power wire (Lp+) and the negative power wire (Lp-). a power supply apparatus configured to output a DC power source between the positive power wire (Lp+) and the negative power wire (Lp-), a logic disconnection circuit coupled between the positive power wire (Lp+) and the negative power wire (Lp-), a self-boosting circuit coupled between the positive power wire (Lp+) and the negative power wire (Lp-), and configured to convert a voltage between the positive power wire (Lp+) and the negative power wire (Lp-) into an auxiliary voltage (Va), and a receiving end of the self-boosting circuit coupled to an output end of the logic disconnection circuit, a protection circuit coupled between the positive power wire (Lp+) and the negative power wire (Lp-), and coupled to the self-boosting circuit to receive the auxiliary voltage (Va), and a current sensing unit coupled to the positive power wire (Lp+) or the negative power wire (Lp-), and configured to output a current sensing signal (Is) according to a current flowing through the positive power wire (Lp+) or the negative power wire (Lp-), wherein the protection circuit makes a short circuit or an open circuit between the positive power wire (Lp+) and the negative power wire (Lp-) according to the current sensing signal (Is), and the logic disconnection circuit disables or enables the self-boosting circuit according to the voltage between the positive power wire (Lp+) and the negative power wire (Lp-).
A system for wirelessly charging a device, having a built-in coil, via a medium, the system having: at least one relay (300; 400) configured to inductively transfer power for charging the device; and a transmitter configured to inductively transmit to the at least one relay (300; 400) said power for charging the device, wherein the transmitter and the at least one relay (300; 400) are separated by the medium and wherein the at least one relay (300; 400) and the transmitter face each other; wherein the transmitter further comprises a transmitter coil and a transmitter capacitor constituting a transmitter resonance circuit, wherein the at least one relay (300; 400) further comprises a relay coil and a relay capacitor constituting a relay resonance circuit; wherein joint resonance frequencies - JRF - of both resonance circuits have a main resonance frequency - MRF; wherein the transmitter is configured to operate at an operational frequency - OPF - selected from a range of OPFs that is at least 4KHz above the MRF or at least 4KHz below the MRF so that the range of OPFs is different from the MRF; and wherein the at least one relay (300; 400) comprises a second relay coil (320; 321, 322, 32N) connected in series to the relay coil, wherein one side of the second relay coil faces the device and the other side is covered by a relay ferrite layer, and wherein the second relay coil is larger than the built-in coil. at least one relay (300; 400) configured to inductively transfer power for charging the device; and a transmitter configured to inductively transmit to the at least one relay (300; 400) said power for charging the device, wherein the transmitter and the at least one relay (300; 400) are separated by the medium and wherein the at least one relay (300; 400) and the transmitter face each other; wherein the transmitter further comprises a transmitter coil and a transmitter capacitor constituting a transmitter resonance circuit, wherein the at least one relay (300; 400) further comprises a relay coil and a relay capacitor constituting a relay resonance circuit; wherein joint resonance frequencies - JRF - of both resonance circuits have a main resonance frequency - MRF; wherein the transmitter is configured to operate at an operational frequency - OPF - selected from a range of OPFs that is at least 4KHz above the MRF or at least 4KHz below the MRF so that the range of OPFs is different from the MRF; and wherein the at least one relay (300; 400) comprises a second relay coil (320; 321, 322, 32N) connected in series to the relay coil, wherein one side of the second relay coil faces the device and the other side is covered by a relay ferrite layer, and wherein the second relay coil is larger than the built-in coil.
A composition comprising copper and zinc chelates for use in the treatment or prevention of bacterial infections of epithelial cells in an animal and conditions related to bacterial infections of epithelial cells in an animal wherein said copper and zinc chelates are micronized and suspended in a liquid comprising less than 5 % (w/v) water, such that: - the total amount of copper and zinc chelate in said formulation ranges from 5 to 50 percent by weight; and - less than 5% (w/v) of said copper and zinc chelates are dissolved in said liquid. - the total amount of copper and zinc chelate in said formulation ranges from 5 to 50 percent by weight; and - less than 5% (w/v) of said copper and zinc chelates are dissolved in said liquid.
A method of transmitting pilot tones in a multi-sector cell including at least a first sector and a second sector, the second sector being located adjacent said first sector, the method comprising: transmitting, using a first tone, in said first sector during a first symbol time a first pilot signal having a first pre-selected transmission power; and transmitting, using said first tone, in said second sector during a second symbol time, which overlaps said first symbol time, a second pilot signal having a second pre-selected transmission power which is different from said first pre-selected transmission power. transmitting, using a first tone, in said first sector during a first symbol time a first pilot signal having a first pre-selected transmission power; and transmitting, using said first tone, in said second sector during a second symbol time, which overlaps said first symbol time, a second pilot signal having a second pre-selected transmission power which is different from said first pre-selected transmission power.