mhurhangee/ep-ind-claims huggingface dataset:
A medical fluid injector connected to a supply tube through which medical fluid is supplied and a discharge tube through which the medical fluid is discharged, and configured to store and discharge the medical fluid, the medical fluid injector comprising: a housing body having a central axis extending in a longitudinal direction, the housing body including: a grip portion forming a portion of an outer peripheral surface of the housing body, a length of the grip portion in the longitudinal direction being greater than a width of the grip portion in a direction orthogonal to the longitudinal direction; and a pair of button protection arms located at one end of the housing body, the button protection arms being adjacent to the grip portion; and a reservoir module fixed within the housing body, the reservoir module including: a reservoir bag fluidically connected to the supply tube and the discharge tube and configured to store the medical fluid; and a push button partially positioned between the button protection arms and movable along the central axis, the push button being configured to push the reservoir bag to discharge the medical fluid in the reservoir bag. a housing body having a central axis extending in a longitudinal direction, the housing body including: a grip portion forming a portion of an outer peripheral surface of the housing body, a length of the grip portion in the longitudinal direction being greater than a width of the grip portion in a direction orthogonal to the longitudinal direction; and a pair of button protection arms located at one end of the housing body, the button protection arms being adjacent to the grip portion; and a grip portion forming a portion of an outer peripheral surface of the housing body, a length of the grip portion in the longitudinal direction being greater than a width of the grip portion in a direction orthogonal to the longitudinal direction; and a pair of button protection arms located at one end of the housing body, the button protection arms being adjacent to the grip portion; and a reservoir module fixed within the housing body, the reservoir module including: a reservoir bag fluidically connected to the supply tube and the discharge tube and configured to store the medical fluid; and a push button partially positioned between the button protection arms and movable along the central axis, the push button being configured to push the reservoir bag to discharge the medical fluid in the reservoir bag. a reservoir bag fluidically connected to the supply tube and the discharge tube and configured to store the medical fluid; and a push button partially positioned between the button protection arms and movable along the central axis, the push button being configured to push the reservoir bag to discharge the medical fluid in the reservoir bag.
A method of reactive-power regulation in an electrical network, in which electric power is generated by an electric generator preferably driven by the rotor of a wind energy plant and is appropriately modulated with the aid of a compensation device provided between the generator and the network for the compensation of reactive power, wherein the compensation device is an inverter which is regulated such that the electric power delivered to a consumer has a reactive-power component which is adapted with respect to its phase, amplitude and/or frequency to the consumer to compensate for the reactive power in the consumer, characterised in that the voltage at the feed-in point of the network is regulated with the inverter, wherein the voltage of the network is measured with the aid of a voltage transformer, the measurement signal of the voltage transformer is fed to an evaluation device, in that further a reference-value device is provided which predetermines the desired voltage characteristic and the output signal of the evaluation device is deducted by means of a subtracting device from the output signal of the reference-value device and the difference output signal, resulting therefrom, of the subtracting device is fed to the inverter, which then produces the required harmonics in order to compensate for the harmonic reactive power in the electrical network.
A method for receiving an Enhanced Physical Downlink Control Channel, EPDCCH, by a user equipment, UE, in a wireless communication system, the method comprising: receiving the EPDCCH by monitoring EPDCCH candidates including one or more Enhanced Control Channel Elements, ECCEs, in Physical Resource Block, PRB, pairs, wherein each of the one or more ECCEs includes Enhanced Resource Element Groups, EREGs, included in at least two PRB pairs among the PRB pairs, the method being characterized in that: each index of the EREGs in the ECCE is determined based on a first value and a number of the one or more ECCEs in each of the PRB pairs, and the first value is an integer rounding down a value obtained by dividing an index of the ECCE by a number of the PRB pairs. receiving the EPDCCH by monitoring EPDCCH candidates including one or more Enhanced Control Channel Elements, ECCEs, in Physical Resource Block, PRB, pairs, wherein each of the one or more ECCEs includes Enhanced Resource Element Groups, EREGs, included in at least two PRB pairs among the PRB pairs, the method being characterized in that: each index of the EREGs in the ECCE is determined based on a first value and a number of the one or more ECCEs in each of the PRB pairs, and the first value is an integer rounding down a value obtained by dividing an index of the ECCE by a number of the PRB pairs. each index of the EREGs in the ECCE is determined based on a first value and a number of the one or more ECCEs in each of the PRB pairs, and the first value is an integer rounding down a value obtained by dividing an index of the ECCE by a number of the PRB pairs.
Flow cytometry method for detecting neutrophil extracellular traps in a sample of a biofluid, wherein a dye selective for nucleic acid is supplied to the sample of the biofluid, wherein a multiplicity of optical, particlerelated measurement values is determined in the sample after staining within the absorption range of the dye, in each case as a tuple composed of a measurement value of a first optical feature and of a second optical feature, wherein measurement values of the first optical feature within a subregion of all measured values of the first optical feature and of the second optical feature within a subregion of all measured values of the second optical feature are selected, and wherein the number of selected measurement values is compared with a predetermined limit value in order to detect the neutrophil extracellular traps, wherein the first optical feature is a scattered-light intensity and the second optical feature is the light-intensity reduction, preferably the absorptance.
An overhead-camshaft internal combustion engine having a cylinder head assembly including a cylinder head block; the engine comprising: a camshaft mounted longitudinally with respect to the cylinder head assembly, the camshaft being rotatable about a camshaft axis and having a plurality of inlet and exhaust cams for actuating associated inlet and exhaust valves (116a; 116b) of the engine; at least one fuel pump comprising a unit pump assembly driven directly by a respective pump cam provided on the camshaft, the unit pump assembly being elongate to define a pump axis; and a plurality of rocker arms driven by the inlet and exhaust cams and arranged to actuate the inlet and exhaust valves (116a, 116b), wherein each rocker arm is pivotable about a rocker arm axis which is substantially parallel to the camshaft axis; characterised in that the cylinder head block defines a mounting surface and, the or each unit pump assembly is mounted in a sleeve fixed onto said mounting surface, and wherein the or each rocker arm is mounted on a rocker shaft mounted on the sleeve so that, the or each pump assembly is mounted between the rocker arm axis and the cylinder head block. a camshaft mounted longitudinally with respect to the cylinder head assembly, the camshaft being rotatable about a camshaft axis and having a plurality of inlet and exhaust cams for actuating associated inlet and exhaust valves (116a; 116b) of the engine; at least one fuel pump comprising a unit pump assembly driven directly by a respective pump cam provided on the camshaft, the unit pump assembly being elongate to define a pump axis; and a plurality of rocker arms driven by the inlet and exhaust cams and arranged to actuate the inlet and exhaust valves (116a, 116b), wherein each rocker arm is pivotable about a rocker arm axis which is substantially parallel to the camshaft axis; characterised in that the cylinder head block defines a mounting surface and, the or each unit pump assembly is mounted in a sleeve fixed onto said mounting surface, and wherein the or each rocker arm is mounted on a rocker shaft mounted on the sleeve so that, the or each pump assembly is mounted between the rocker arm axis and the cylinder head block.
A method of wireless communication performed by a network node in a wireless multi-hop network, the method comprising: determining a connection identifier associated with transmitting data to a decoder node in the wireless multi-hop network via multiple paths, wherein the connection identifier is associated with a single radio bearer between a user equipment, UE, and one of the network node or the decoder node; encoding a first portion of the data into at least a first set of packets and a second set of packets; transmitting the first set of packets with the connection identifier to the decoder node via a first path in the wireless multi-hop network; transmitting the second set of packets with the connection identifier to the decoder node via a second path in the wireless multi-hop network; receiving a response from the decoder node, wherein the response includes the connection identifier; and transmitting, to the decoder node and based at least in part on the response, one of: a third set of packets, encoded from the first portion of the data, with the connection identifier, or one or more sets of packets, encoded from a second portion of the data, with the connection identifier. determining a connection identifier associated with transmitting data to a decoder node in the wireless multi-hop network via multiple paths, wherein the connection identifier is associated with a single radio bearer between a user equipment, UE, and one of the network node or the decoder node; encoding a first portion of the data into at least a first set of packets and a second set of packets; transmitting the first set of packets with the connection identifier to the decoder node via a first path in the wireless multi-hop network; transmitting the second set of packets with the connection identifier to the decoder node via a second path in the wireless multi-hop network; receiving a response from the decoder node, wherein the response includes the connection identifier; and transmitting, to the decoder node and based at least in part on the response, one of: a third set of packets, encoded from the first portion of the data, with the connection identifier, or one or more sets of packets, encoded from a second portion of the data, with the connection identifier. a third set of packets, encoded from the first portion of the data, with the connection identifier, or one or more sets of packets, encoded from a second portion of the data, with the connection identifier.
Method for the determination of the degree of crosslinking of at least one resin layer made of a heat-curable formaldehyde resin provided on a supportive material, where the at least one pre-cured formaldehyde resin layer is present in a pre-cured state on the surface of a supportive sheet or takes the form of partial or complete impregnate of a paper sublayer, comprising the steps of: - recording of at least one NIR spectrum of the pre-cured formaldehyde resin layer provided on the at least one supportive material with use of at least one NIR detector in a wavelength range from 500 nm to 2500 nm, preferably from 700 nm to 2000 nm, with particular preference from 900 nm to 1700 nm; - determination of the degree of crosslinking of the at least one pre-cured formaldehyde resin layer via comparison, by means of multivariant data analysis, of the NIR spectrum determined for the at least one pre-cured formaldehyde resin layer with at least one NIR spectrum determined for at least one reference sample of the at least one formaldehyde resin layer with known degree of crosslinking, where the multivariant data analysis is carried out across the entire spectral range of the NIR spectrum determined; where the at least one NIR spectrum determined for the at least one reference sample with a pre-cured formaldehyde resin layer with known degree of crosslinking was determined in advance with use of the same NIR detector in a wavelength range from 500 nm to 2500 nm, preferably from 700 nm to 2000 nm, with particular preference from 900 nm to 1700 nm. - recording of at least one NIR spectrum of the pre-cured formaldehyde resin layer provided on the at least one supportive material with use of at least one NIR detector in a wavelength range from 500 nm to 2500 nm, preferably from 700 nm to 2000 nm, with particular preference from 900 nm to 1700 nm; - determination of the degree of crosslinking of the at least one pre-cured formaldehyde resin layer via comparison, by means of multivariant data analysis, of the NIR spectrum determined for the at least one pre-cured formaldehyde resin layer with at least one NIR spectrum determined for at least one reference sample of the at least one formaldehyde resin layer with known degree of crosslinking, where the multivariant data analysis is carried out across the entire spectral range of the NIR spectrum determined;
A helipad configured to transport an aircraft, comprising: an aircraft landing surface configured to receive an aircraft; an aircraft maintenance device configured to receive maintenance data from the aircraft; a transport mechanism configured to transport the aircraft from a landing area to a destination area; and characterized by: a securing device configured to selectively secure the aircraft to the helipad; and an aircraft fueling mechanism configured to provide the aircraft with an energy source. an aircraft landing surface configured to receive an aircraft; an aircraft maintenance device configured to receive maintenance data from the aircraft; a transport mechanism configured to transport the aircraft from a landing area to a destination area; and characterized by: a securing device configured to selectively secure the aircraft to the helipad; and an aircraft fueling mechanism configured to provide the aircraft with an energy source. a securing device configured to selectively secure the aircraft to the helipad; and an aircraft fueling mechanism configured to provide the aircraft with an energy source.
A composition comprising a compound MB(OR 7) x 4-x wherein: R 7 is a linear, branched, cyclic, acyclic, or aromatic hydrocarbyl group, optionally substituted, having from 2 to 20 carbon atoms; X is fluoride, bromide, or iodide; M is a cation of the alkali metals Na +, K +, Li + or a cation of the type R 2 R 3 R 4 R 5 N + or R 2 R 3 R 4 R 5 P + where R 2, R 3, R 4, and R 5 independently are hydrocarbyl groups of 1 to 20 carbon atoms; and x is 1 to 3.
A sealing device for preventing water penetration into a substrate to which a channel section is secured, the sealing device comprising: a peripheral barrier having: a first substantially flat surface configured to be engageable with a substrate; a second substantially flat surface opposite the first substantially flat surface, the second substantially flat surface configured to be engageable with a channel section; at least one lateral side extending between said first substantially flat surface and said second substantially flat surface; and a fluid inlet for injecting a fluid sealant; the peripheral barrier defining a region into which a fluid sealant may be injected via the fluid inlet; the sealing device configured to allow a fixing to pass through the region from the channel section to the substrate; characterised in that the first and second substantially flat surfaces (3, 1) are resilient, and the fluid inlet is on a lateral side of the peripheral barrier. a peripheral barrier having: a first substantially flat surface configured to be engageable with a substrate; a second substantially flat surface opposite the first substantially flat surface, the second substantially flat surface configured to be engageable with a channel section; a first substantially flat surface configured to be engageable with a substrate; a second substantially flat surface opposite the first substantially flat surface, the second substantially flat surface configured to be engageable with a channel section; at least one lateral side extending between said first substantially flat surface and said second substantially flat surface; and a fluid inlet for injecting a fluid sealant; the peripheral barrier defining a region into which a fluid sealant may be injected via the fluid inlet; the sealing device configured to allow a fixing to pass through the region from the channel section to the substrate; characterised in that the first and second substantially flat surfaces (3, 1) are resilient, and the fluid inlet is on a lateral side of the peripheral barrier.
Brake for attachment to a lift cage of a lift installation, the brake being suitable for braking on a guide rail, preferably in two opposite directions of travel, the brake comprising: a brake housing (12, 112), a brake shoe (15, 15a, 115, 115a) with a first sub-region (15b, 115b) and with a second sub-region (15c, 115c), a brake shoe holder (13, 13, 113) with a bearing axle (17, 117) for mounting the brake shoe, wherein the brake shoe (15, 15a, 115, 115a) rotatably and displaceably arranged in the brake shoe holder and the brake shoe (15, 15a 115, 115a) in the first sub-region (15b, 115b) is rotatable about the bearing axle (17, 117) and in the second sub-region (15c, 115c) is longitudinally displaceable transversely to this bearing axle (17, 117), and wherein the brake shoe holder (13, 13a, 113) is mounted in the brake housing (12, 112) to be displaceable between a readiness setting and an engaged setting. a brake housing (12, 112), a brake shoe (15, 15a, 115, 115a) with a first sub-region (15b, 115b) and with a second sub-region (15c, 115c), a brake shoe holder (13, 13, 113) with a bearing axle (17, 117) for mounting the brake shoe, wherein the brake shoe (15, 15a, 115, 115a) rotatably and displaceably arranged in the brake shoe holder and the brake shoe (15, 15a 115, 115a) in the first sub-region (15b, 115b) is rotatable about the bearing axle (17, 117) and in the second sub-region (15c, 115c) is longitudinally displaceable transversely to this bearing axle (17, 117), and wherein the brake shoe holder (13, 13a, 113) is mounted in the brake housing (12, 112) to be displaceable between a readiness setting and an engaged setting.
A semiconductor light emitting device, comprising: a semiconductor layer; a sealing member configured to cover a lower surface of the semiconductor layer and a side surface of the semiconductor layer; a fluorescer layer provided above the semiconductor layer and the sealing member; and an insulating film provided between the sealing member and the semiconductor layer and between the sealing member and the fluorescer layer, characterised in that the sealing member is configured to protrude to be higher than an upper surface of the semiconductor layer at a side of the semiconductor layer wherein a corner in a vertical cut of a protruding portion of the sealing member is rounded, and the fluorescer layer is above the protruding portion of the sealing member. a sealing member configured to cover a lower surface of the semiconductor layer and a side surface of the semiconductor layer; a fluorescer layer provided above the semiconductor layer and the sealing member; and an insulating film provided between the sealing member and the semiconductor layer and between the sealing member and the fluorescer layer, characterised in that the sealing member is configured to protrude to be higher than an upper surface of the semiconductor layer at a side of the semiconductor layer wherein a corner in a vertical cut of a protruding portion of the sealing member is rounded, and the fluorescer layer is above the protruding portion of the sealing member.
A method comprising: receiving a firmware update payload at a device (110, 114), the firmware update payload including firmware variables to repave firmware variables stored on the device (110, 114) using a transaction based fault tolerant write protocol "FTW"; exposing a secure non-volatile memory store on the device, comprising a primary region and a spare region (410, 910), each of the primary region and spare region including a working store configured to store FTW protocol transaction records and a variable store configured to store firmware variable records; copying firmware variable records from the primary region and writing the firmware variable records to the spare region using the FTW protocol; erasing content in the working store within the primary region; erasing firmware variable records in the primary region; copying firmware variable records from the firmware update payload received at the device (110, 114) and writing the copied firmware variable records into the primary region using the FTW protocol; and erasing firmware variable records in the spare region. receiving a firmware update payload at a device (110, 114), the firmware update payload including firmware variables to repave firmware variables stored on the device (110, 114) using a transaction based fault tolerant write protocol "FTW"; exposing a secure non-volatile memory store on the device, comprising a primary region and a spare region (410, 910), each of the primary region and spare region including a working store configured to store FTW protocol transaction records and a variable store configured to store firmware variable records; copying firmware variable records from the primary region and writing the firmware variable records to the spare region using the FTW protocol; erasing content in the working store within the primary region; erasing firmware variable records in the primary region; copying firmware variable records from the firmware update payload received at the device (110, 114) and writing the copied firmware variable records into the primary region using the FTW protocol; and erasing firmware variable records in the spare region.