mhurhangee/ep-ind-claims huggingface dataset:
A memory module (600, 600') operable with a server in a network, the memory module (600, 600') and the server forming a first node in a cluster of nodes in the network, the memory module (600, 600') comprising: persistent memory configured to provide data storage associated with the first node; non-persistent memory configured to buffer data to or from the persistent memory; a node control device operatively coupled to the persistent memory and the non- persistent memory; a first interface for interfacing with the server; and a second interface for interfacing with the network; wherein the node control device comprises control logic including physical memory access logic, cluster-wide address management logic, and network transfer logic; wherein the physical memory access logic is configured to control accesses by the server of the persistent memory via the first interface; wherein the cluster-wide address management logic is configured to translate between a local unified memory access, UMA, address space and a global UMA address space, the local UMA address space being accessible by applications running on the server, the global UMA address space being mapped to a physical UMA address space, the physical UMA address space being associated with data storages in the cluster of nodes; wherein the network transfer logic is configured to communicate with other nodes in the cluster of nodes command and data packets via the second interface; and wherein the non-persistent memory is configured to buffer data flow between the persistent memory and the second interface for interfacing with the network. persistent memory configured to provide data storage associated with the first node; non-persistent memory configured to buffer data to or from the persistent memory; a node control device operatively coupled to the persistent memory and the non- persistent memory; a first interface for interfacing with the server; and a second interface for interfacing with the network; wherein the node control device comprises control logic including physical memory access logic, cluster-wide address management logic, and network transfer logic; wherein the physical memory access logic is configured to control accesses by the server of the persistent memory via the first interface; wherein the cluster-wide address management logic is configured to translate between a local unified memory access, UMA, address space and a global UMA address space, the local UMA address space being accessible by applications running on the server, the global UMA address space being mapped to a physical UMA address space, the physical UMA address space being associated with data storages in the cluster of nodes; wherein the network transfer logic is configured to communicate with other nodes in the cluster of nodes command and data packets via the second interface; and wherein the non-persistent memory is configured to buffer data flow between the persistent memory and the second interface for interfacing with the network.
A seat belt device comprising: - a spindle for retracting a seat belt; - an electric actuator which generates power for rotating the spindle; and - a power transmission mechanism which transmits the power from the electric actuator to the spindle, wherein the power transmission mechanism comprises a gear assembly that decelerates the rotation of the motor and that comprises: - a first gear coupled to the electric actuator, - a final gear to connect with the spindle via a clutch, - an actuator-side gear to which the power from the electric actuator is transmitted, - a spindle-side gear which is provided on the spindle's side, characterized by an elastic piece which is mounted either on the actuator-side gear or on the spindle-side gear and which is capable of being brought into engagement with the other gear and includes a torque limiter in which when a torque difference which is larger than a predetermined value is generated between the actuator-side gear and the spindle-side gear, the elastic piece cancels the engagement with the other gear so as to move relative to the other gear so that the torque difference becomes equal to or less than a predetermined value. - a spindle for retracting a seat belt; - an electric actuator which generates power for rotating the spindle; and - a power transmission mechanism which transmits the power from the electric actuator to the spindle, wherein the power transmission mechanism comprises a gear assembly that decelerates the rotation of the motor and that comprises: - a first gear coupled to the electric actuator, - a final gear to connect with the spindle via a clutch, - an actuator-side gear to which the power from the electric actuator is transmitted, - a spindle-side gear which is provided on the spindle's side, - a first gear coupled to the electric actuator, - a final gear to connect with the spindle via a clutch, - an actuator-side gear to which the power from the electric actuator is transmitted, - a spindle-side gear which is provided on the spindle's side,
Current collector for a track vehicle for contacting an overhead wire of an overhead contact line, comprising a pantograph head with a variable width having at least one sliding strip and wherein an adjusting device (9, 14) is formed from at least one piston-cylinder-unit (10, 10a, 11, 11a), wherein the at least one sliding strip includes sliding strip run-on horns which are adjustable with respect to a sliding strip middle part of the at least one sliding strip in opposing directions, wherein the sliding strip run-on horns are adjustable by means of the adjusting devices (9, 14) for the run-on horns (6, 7), characterised in that the pantograph head has a bracket arrangement (4, 4a, 4b, 4c) comprising a bracket having run-on horns (6, 7) at its ends, wherein the run-on horns (6, 7) by means of the adjusting device (9, 14) are displaceable in opposing directions and transversely to the direction of travel, wherein the at least one piston-cylinder-unit (10, 10a, 11, 11a) is designed as double-acting and as a differential piston, or wherein the adjusting device (9, 14) is formed by an electromagnetic drive unit.
A radio receiver configured to use an impulse-radio UWB, the radio receiver comprising: a reception antenna configured to receive the impulse-radio UWB; a reception unit (3, 4) configured to amplify the impulse-radio UWB received, the reception unit (3, 4) configured to perform detection of an envelope of the impulse-radio UWB; a maximum-peak detection unit configured to detect a maximum value of the envelope; a minimum-peak detection unit configured to detect a minimum value of the envelope; a comparator configured to acquire signal data from the envelope, with an initial threshold value; a baseband unit configured to measure an error rate of the signal data; a Micro Processing Unit MPU configured to calculate a correction coefficient, based on the error rate the correction coefficient minimizing the error rate of the received signal; and an arithmetic unit (10, 11) configured to calculate a corrected threshold value, based on the maximum value, the minimum value, and the correction coefficient, the arithmetic unit (10, 11) configured to transmit the corrected threshold value to the comparator, wherein the comparator is configured to acquire the signal data from the envelope, based on the corrected threshold value transmitted from the arithmetic unit (10, 11). a reception antenna configured to receive the impulse-radio UWB; a reception unit (3, 4) configured to amplify the impulse-radio UWB received, the reception unit (3, 4) configured to perform detection of an envelope of the impulse-radio UWB; a maximum-peak detection unit configured to detect a maximum value of the envelope; a minimum-peak detection unit configured to detect a minimum value of the envelope; a comparator configured to acquire signal data from the envelope, with an initial threshold value; a baseband unit configured to measure an error rate of the signal data; a Micro Processing Unit MPU configured to calculate a correction coefficient, based on the error rate the correction coefficient minimizing the error rate of the received signal; and an arithmetic unit (10, 11) configured to calculate a corrected threshold value, based on the maximum value, the minimum value, and the correction coefficient, the arithmetic unit (10, 11) configured to transmit the corrected threshold value to the comparator, wherein the comparator is configured to acquire the signal data from the envelope, based on the corrected threshold value transmitted from the arithmetic unit (10, 11).
A wheel-guiding link of a vehicle chassis, comprising at least one rod-shaped portion, which is produced in the form of a hollow profile in a metallic material, and wherein wall portions of the link have a shaping that reduces buckling load, characterised in that the hollow profile is open and is reinforced by at least one plastics material profile part (3, 3a, 3b) supported on wall portions of said hollow profile.
A method of communicating in a wireless quasi-orthogonal frequency-division multiplexing communication system, comprising: assigning a plurality of terminals (110a, 110u) with traffic channels in a plurality of sets of traffic channels for a base station, wherein each set includes a plurality of traffic channels that are orthogonal to one another, wherein the traffic channels in each set are not orthogonal to the traffic channels in each of the remaining sets, and wherein each traffic channel is associated with one or more subcarriers to use for data transmission in each transmission interval; and receiving data transmissions sent by the plurality of terminals (110a, 110u) on the traffic channels assigned to the plurality of terminals (110a, 110u). assigning a plurality of terminals (110a, 110u) with traffic channels in a plurality of sets of traffic channels for a base station, wherein each set includes a plurality of traffic channels that are orthogonal to one another, wherein the traffic channels in each set are not orthogonal to the traffic channels in each of the remaining sets, and wherein each traffic channel is associated with one or more subcarriers to use for data transmission in each transmission interval; and receiving data transmissions sent by the plurality of terminals (110a, 110u) on the traffic channels assigned to the plurality of terminals (110a, 110u).
A nitride semiconductor light emitting device (10, 40, 60) comprising: a first clad layer including an n-type nitride semiconductor; an active layer formed on the first clad layer, and including an In-containing nitride semiconductor; a GaN layer formed on the active layer, and having a concentration of Mg not greater than 1×10 18 cm -3; a first Al x1 Ga 1-x1 N layer formed on the GaN layer, and having a first Al composition ratio x1 greater than 0 and not greater than 0.01, and a concentration of Mg not greater than 1×10 18 cm -3; a p-type second Al x2 Ga 1-x2 N layer formed on the first AlGaN layer, having a second Al composition ratio x2 higher than the first Al composition ratio x1 and containing a larger amount of Mg than the GaN layer and the first Al x1 Ga 1-x1 N layer; and a second clad layer formed on the second Al x2 Ga 1-x2 N layer, and including a p-type nitride semiconductor, characterized in that the first Al x 1Ga 1-x1 N layer has a smaller thickness than the GaN layer. a first clad layer including an n-type nitride semiconductor; an active layer formed on the first clad layer, and including an In-containing nitride semiconductor; a GaN layer formed on the active layer, and having a concentration of Mg not greater than 1×10 18 cm -3; a first Al x1 Ga 1-x1 N layer formed on the GaN layer, and having a first Al composition ratio x1 greater than 0 and not greater than 0.01, and a concentration of Mg not greater than 1×10 18 cm -3; a p-type second Al x2 Ga 1-x2 N layer formed on the first AlGaN layer, having a second Al composition ratio x2 higher than the first Al composition ratio x1 and containing a larger amount of Mg than the GaN layer and the first Al x1 Ga 1-x1 N layer; and a second clad layer formed on the second Al x2 Ga 1-x2 N layer, and including a p-type nitride semiconductor,
A fuel cell stack structure comprising: a stack entity including a plurality of solid electrolyte fuel cell units stacked together in a stacking direction; and at least one tie rod extending through the stack entity to fasten the solid electrolyte fuel cell units so that the solid electrolyte fuel cell units are pressed against each other in the stacking direction, the tie rod having an outer cylinder, an inner shaft fitting into the outer cylinder, and a fixing member that fastens the outer cylinder and the inner shaft together in an axial direction of the tie rod, characterized in that the fixing member of the tie rod includes a joining material disposed between the outer cylinder and the inner shaft and on opposing surfaces of both the outer cylinder and the inner shaft the joining material is configured and arranged to maintain a cured state at an operating temperature of the fuel cell, and wherein the opposing surfaces contacting the joining material are extended along the axial direction of the tie rod. a stack entity including a plurality of solid electrolyte fuel cell units stacked together in a stacking direction; and at least one tie rod extending through the stack entity to fasten the solid electrolyte fuel cell units so that the solid electrolyte fuel cell units are pressed against each other in the stacking direction, the tie rod having an outer cylinder, an inner shaft fitting into the outer cylinder, and a fixing member that fastens the outer cylinder and the inner shaft together in an axial direction of the tie rod, characterized in that the fixing member of the tie rod includes a joining material disposed between the outer cylinder and the inner shaft and on opposing surfaces of both the outer cylinder and the inner shaft the joining material is configured and arranged to maintain a cured state at an operating temperature of the fuel cell, and wherein the opposing surfaces contacting the joining material are extended along the axial direction of the tie rod.
A system comprising: a first solid-state lamp configured to generate a first illuminated output having a first color; a second solid-state lamp configured to generate a second illuminated output having a second color, wherein the second illuminated output is mixed with the first illuminated output to generate a third illuminated output having a third color; a transformer comprising a primary coil and a bias coil magnetically coupled; a first circuit powered by a voltage source, the first circuit comprising the primary coil and a first switch, wherein the first circuit is configured to supply power to the first solid-state lamp; a second circuit comprising the bias coil and a second switch, wherein the second circuit is configured to supply power to the second solid-state lamp; a control module configured to alter the third color including controlling (i) a state of the first switch to adjust a first current supplied to the first solid-state lamp, and (ii) a state of the second switch to adjust a second current supplied to the second solid-state lamp; and a bleeder circuit connected in parallel with the second switch and the second solid-state lamp, wherein the bleeder circuit comprises a third switch, and the control module is configured to control a state of the third switch to adjust the second current supplied to the second solid-state lamp. a first solid-state lamp configured to generate a first illuminated output having a first color; a second solid-state lamp configured to generate a second illuminated output having a second color, wherein the second illuminated output is mixed with the first illuminated output to generate a third illuminated output having a third color; a transformer comprising a primary coil and a bias coil magnetically coupled; a first circuit powered by a voltage source, the first circuit comprising the primary coil and a first switch, wherein the first circuit is configured to supply power to the first solid-state lamp; a second circuit comprising the bias coil and a second switch, wherein the second circuit is configured to supply power to the second solid-state lamp; a control module configured to alter the third color including controlling (i) a state of the first switch to adjust a first current supplied to the first solid-state lamp, and (ii) a state of the second switch to adjust a second current supplied to the second solid-state lamp; and a bleeder circuit connected in parallel with the second switch and the second solid-state lamp, wherein the bleeder circuit comprises a third switch, and the control module is configured to control a state of the third switch to adjust the second current supplied to the second solid-state lamp. the bleeder circuit comprises a third switch, and the control module is configured to control a state of the third switch to adjust the second current supplied to the second solid-state lamp.
A roller gate of the type which is used in gateways in industrial buildings such as freezing houses or the like, where the gate or door leaf is configured to opening when rolled up around a reel system operated by a driving mechanism, and where the gate or door leaf comprises layers of a flexible artificial web, said layers of said gate or door leaf at a first side of the gate or door leaf are tailored with transverse directed pockets and tailored with transverse pockets on an opposite side, the transverse pockets on the first side are shifted relative to the transverse pockets on the opposite side in the roll-up/down direction and longitudinal block-shaped members are inserted into said transverse pockets of said first and said opposite side of said gate or door leaf and the longitudinal block-shaped members inserted in said first side are provided with inwardly inclined side edges, as said first side of the gate or door leaf is facing inwards when rolled up around said reel system, characterised in that the transverse pockets have a substantially flush surface at the opposite side of the gate or door leaf.
A non-aqueous electrolyte solution, comprising a fluorosulfonylimide salt represented by the following formula: wherein X is F or a C 1-6 fluoroalkyl group, and at least one organic solvent selected from the group consisting of a carbonate solvent, an ester solvent, a ketone solvent and an alcohol solvent, wherein a concentration of the fluorosulfonylimide salt is 0.1 mol/L or more, and a turbidity measured by a light scattering measurement method using a Formazine standard solution at 25°C is 50 NTU/mol-LiFSI or less. wherein X is F or a C 1-6 fluoroalkyl group, and at least one organic solvent selected from the group consisting of a carbonate solvent, an ester solvent, a ketone solvent and an alcohol solvent, wherein a concentration of the fluorosulfonylimide salt is 0.1 mol/L or more, and a turbidity measured by a light scattering measurement method using a Formazine standard solution at 25°C is 50 NTU/mol-LiFSI or less.
An immunochromatographic test strip comprising the following configuration, a membrane consisting of a porous body equipped with at least a sample-supply portion containing hexadimethrine bromide, a spreading portion, and a detecting portion, wherein a conjugate of an anti-analyte antibody labeled with colloidal gold is retained in a dissoluble manner in a part of the spreading portion, and an antibody is immobilized in the detecting portion which is a part of the spreading portion on the downstream side relative to the conjugate-retaining part, a buffer solution component for suppressing aggregation of the conjugate due to hexadimethrine bromide, wherein the component is contained at least in a part of from the sample-supply portion to an upstream side of the conjugate-retaining part of the spreading portion so as to be able to contact with hexadimethrine bromide that is a blood-agglutinating agent provided through the sample-supply portion, and wherein the buffer solution component is selected from a group consisting of Bis-Tris, MES, and citric acid, and wherein Bis-Tris and MES are at pH lower than their pKa. a membrane consisting of a porous body equipped with at least a sample-supply portion containing hexadimethrine bromide, a spreading portion, and a detecting portion, wherein a conjugate of an anti-analyte antibody labeled with colloidal gold is retained in a dissoluble manner in a part of the spreading portion, and an antibody is immobilized in the detecting portion which is a part of the spreading portion on the downstream side relative to the conjugate-retaining part, a buffer solution component for suppressing aggregation of the conjugate due to hexadimethrine bromide, wherein the component is contained at least in a part of from the sample-supply portion to an upstream side of the conjugate-retaining part of the spreading portion so as to be able to contact with hexadimethrine bromide that is a blood-agglutinating agent provided through the sample-supply portion, and
A method of producing a surface enhanced Raman scattering (SERS) spectrum comprising: providing a first SERS active nanoparticle which, will absorb a photon at a first wavelength and emit a Raman shifted photon at a second wavelength, characterised in further comprising the steps of: providing a second SERS active nanoparticle which will absorb a photon at the second wavelength and emit a Raman shifted photon at a third wavelength; bringing the first and second SERS active nanoparticles proximate to one another, wherein the first SERS active nanoparticle and the second SERS active nanoparticle have different shapes; and illuminating the first SERS active nanoparticle at the first wavelength causing the first SERS active nanoparticle to emit a Raman shifted photon at the second wavelength which is absorbed by the second SERS active nanoparticle causing emission of a second Raman shifted photon at the third wavelength. providing a second SERS active nanoparticle which will absorb a photon at the second wavelength and emit a Raman shifted photon at a third wavelength; bringing the first and second SERS active nanoparticles proximate to one another, wherein the first SERS active nanoparticle and the second SERS active nanoparticle have different shapes; and illuminating the first SERS active nanoparticle at the first wavelength causing the first SERS active nanoparticle to emit a Raman shifted photon at the second wavelength which is absorbed by the second SERS active nanoparticle causing emission of a second Raman shifted photon at the third wavelength.
An oil or fat for tempering type chocolate, obtained by blending 0.3 to 15% of a randomly transesterified oil in cacao butter, cacao butter equivalent, or an oil or fat obtained by arbitrarily mixing cacao butter and cacao butter equivalent, wherein a raw material of the randomly transesterified oil is an oil or fat having a content of saturated fatty acids of 5 to 50% in constituent fatty acids thereof.