mhurhangee/ep-ind-claims huggingface dataset:
Ride height sensor for detecting a distance in chassis systems in the region between an axis and a body of a vehicle, comprising - a base station including an electric circuit arrangement which can be supplied with electric energy and which includes at least one control device as well as a magnetic field generating device; - a target station which can be placed in a manner locally spaced with respect to the base station and which includes an electric circuit arrangement electrically supplied from a supply device and having a control device, characterized in that the target station includes a magnetic field sensing device adapted for detecting the magnetic field strength of the magnetic field generated by the magnetic field generating device of the base station and further includes a transmitter device which is adapted for emitting radio signals for digital data transmission to the base station, wherein the base station includes a receiver device which is adapted for receiving the radio signals for digital data transmission and wherein the radio signals carry digital information on the detected magnetic field including the magnetic field strength, which allows to draw inferences about the distance between the magnetic field generating device of the base station and the magnetic field sensing device of the target station. - a base station including an electric circuit arrangement which can be supplied with electric energy and which includes at least one control device as well as a magnetic field generating device; - a target station which can be placed in a manner locally spaced with respect to the base station and which includes an electric circuit arrangement electrically supplied from a supply device and having a control device,
A method for power allocation for a user equipment, UE, the method comprising: identifying that the UE is configured to communicate with a plurality of carrier aggregation, CA, groups with at least a first cell group, CG1, and a second cell group, CG2, wherein CG1 comprises a first plurality of cells associated with a first eNodeB, and CG2 comprises a second plurality of cells associated with a second eNodeB; determining whether the UE is power-limited; determining whether a first uplink control information, UCI, to be transmitted in a sub frame i on a first uplink channel in a cell of the CG1 is acknowledgement information and a second UCI to be transmitted in the subframe i on a second uplink channel in a cell of the CG2 is information other than acknowledgement information; responsive to determining that the UE being power-limited, the first UCI is acknowledgement information, prioritizing the first uplink channel than the second uplink channel for power allocation; transmitting the first UCI on the first uplink channel in the cell of the CG1 and transmitting the second UCI on the second uplink channel in the cell of the CG2 at a reduced power based on the prioritizing result; wherein the first uplink channel is one of a physical uplink shared channel, PUSCH, and a physical uplink control channel, PUCCH, and the second uplink channel is one of the PUSCH and the PUCCH; wherein the first uplink channel is prioritized over the second uplink channel regardless of whether the first uplink channel is a PUSCH or a PUCCH. identifying that the UE is configured to communicate with a plurality of carrier aggregation, CA, groups with at least a first cell group, CG1, and a second cell group, CG2, wherein CG1 comprises a first plurality of cells associated with a first eNodeB, and CG2 comprises a second plurality of cells associated with a second eNodeB; determining whether the UE is power-limited; determining whether a first uplink control information, UCI, to be transmitted in a sub frame i on a first uplink channel in a cell of the CG1 is acknowledgement information and a second UCI to be transmitted in the subframe i on a second uplink channel in a cell of the CG2 is information other than acknowledgement information; responsive to determining that the UE being power-limited, the first UCI is acknowledgement information, prioritizing the first uplink channel than the second uplink channel for power allocation; transmitting the first UCI on the first uplink channel in the cell of the CG1 and transmitting the second UCI on the second uplink channel in the cell of the CG2 at a reduced power based on the prioritizing result; wherein the first uplink channel is one of a physical uplink shared channel, PUSCH, and a physical uplink control channel, PUCCH, and the second uplink channel is one of the PUSCH and the PUCCH; wherein the first uplink channel is prioritized over the second uplink channel regardless of whether the first uplink channel is a PUSCH or a PUCCH.
An electrical inspection method of a wafer comprising Fabry-Perot filter portions, the wafer being formed to be cut into individual Fabry-Perot filters, comprising: a step of preparing a wafer including a substrate layer and a plurality of pairs two-dimensionally arranged on the substrate layer, each of the plurality of pairs having a first mirror portion and a second mirror portion, a plurality of Fabry-Perot interference filter portions being formed in the wafer, each of the plurality of Fabry-Perot interference filter portions in which a gap is formed between the first mirror portion and the second mirror portion facing each other and a distance between the first mirror portion and the second mirror portion facing each other varies by an electrostatic force; and a step of inspecting electrical characteristics of each of the plurality of Fabry-Perot interference filter portions in a state of the wafer, wherein each of the plurality of Fabry-Perot interference filter portions is configured to be a respective Fabry-Perot interference filter after the wafer is cut. a step of preparing a wafer including a substrate layer and a plurality of pairs two-dimensionally arranged on the substrate layer, each of the plurality of pairs having a first mirror portion and a second mirror portion, a plurality of Fabry-Perot interference filter portions being formed in the wafer, each of the plurality of Fabry-Perot interference filter portions in which a gap is formed between the first mirror portion and the second mirror portion facing each other and a distance between the first mirror portion and the second mirror portion facing each other varies by an electrostatic force; and a step of inspecting electrical characteristics of each of the plurality of Fabry-Perot interference filter portions in a state of the wafer, wherein each of the plurality of Fabry-Perot interference filter portions is configured to be a respective Fabry-Perot interference filter after the wafer is cut.
A cell outage detection and compensation apparatus, wherein the apparatus comprises: a monitoring unit, configured to monitor working status information of multiple operators in a cell of a base station; a determining unit, configured to determine an outage cell of the base station and an outage operator in the outage cell according to the working status information monitored by the monitoring unit; and a compensating unit (330, 520), configured to perform, according to the outage cell and the outage operator determined by the determining unit, outage compensation specific to the outage operator for the outage cell; a sending unit, configured to send cell outage information to a network management system, wherein the cell outage information comprises an identifier of the outage cell and an identifier of each outage operator in the outage cell; and a receiving unit, configured to receive compensation instruction information from the network management system according to the cell outage information; and the compensating unit (330, 520) is specifically configured to perform the outage compensation specific to the outage operator for the outage cell according to the compensation instruction information received by the receiving unit. a monitoring unit, configured to monitor working status information of multiple operators in a cell of a base station; a determining unit, configured to determine an outage cell of the base station and an outage operator in the outage cell according to the working status information monitored by the monitoring unit; and a compensating unit (330, 520), configured to perform, according to the outage cell and the outage operator determined by the determining unit, outage compensation specific to the outage operator for the outage cell; a sending unit, configured to send cell outage information to a network management system, wherein the cell outage information comprises an identifier of the outage cell and an identifier of each outage operator in the outage cell; and a receiving unit, configured to receive compensation instruction information from the network management system according to the cell outage information; and the compensating unit (330, 520) is specifically configured to perform the outage compensation specific to the outage operator for the outage cell according to the compensation instruction information received by the receiving unit.
Use of at least two of serum 2-Cys-PRDXs selected from a group consisting of PRDX1, PRDX2, PRDX3, PRDX4 and PRDX5 as a serum biomarker to diagnose lupus nephritis and differentiate lupus nephritis from other chronic kidney diseases selected from the group consisting of IgA nephropathy (IgAN) and autosomal dominant polycystic kidney disease (ADPKD), wherein, when the at least two 2-Cys-PRDX biomarkers comprise a combination of PRDX1+PRDX4 lupus nephritis, IgA nephropathy (IgAN) and autosomal-dominant polycystic kidney disease (ADPKD) can be further differentiated.
A compressor equipped with a foreign matter remover comprising: a space that is formed on an intake passage of said compressor and includes an inflow port through which refrigerant flows in; a separation unit adapted to separate foreign matter from the refrigerant which flows in the space from the inflow port; a capturing member that is disposed at least below said space and adapted to capture the foreign matter having become separated; and an outflow port disposed at said space through which the refrigerant flows out from said space, characterized in that said capturing member is provided at least at a position where the foreign matter separating from the refrigerant flow precipitates down and is trapped by said capturing member and whereby said capturing member prevents clogging and prevents additional flow resistance to the refrigerant flow. a space that is formed on an intake passage of said compressor and includes an inflow port through which refrigerant flows in; a separation unit adapted to separate foreign matter from the refrigerant which flows in the space from the inflow port; a capturing member that is disposed at least below said space and adapted to capture the foreign matter having become separated; and an outflow port disposed at said space through which the refrigerant flows out from said space, characterized in that said capturing member is provided at least at a position where the foreign matter separating from the refrigerant flow precipitates down and is trapped by said capturing member and whereby said capturing member prevents clogging and prevents additional flow resistance to the refrigerant flow.
An earth moving equipment bucket corner comprising: a side upright portion attachable to a bucket sidewall, the side upright portion defining an upright outside GET contacting surface on the outside of the of the side upright portion and an upright inside GET contacting surface on the inside of the side upright portion; a floor portion, defining a horizontal plane, attachable to a bucket floor lip, the floor portion having an upper GET contacting surface and a lower GET contacting surface; an intermediate portion extending between and angled with respect to the side upright portion and the floor portion, characterized in that a boss, having a central horizontal longitudinal axis and configured to engage a GET, is provided on the upper GET contacting surface and the upper GET contacting surface is parallel with the lower GET contacting surface to within an angle φ of from about 0° to about 5°. a side upright portion attachable to a bucket sidewall, the side upright portion defining an upright outside GET contacting surface on the outside of the of the side upright portion and an upright inside GET contacting surface on the inside of the side upright portion; a floor portion, defining a horizontal plane, attachable to a bucket floor lip, the floor portion having an upper GET contacting surface and a lower GET contacting surface; an intermediate portion extending between and angled with respect to the side upright portion and the floor portion, characterized in that a boss, having a central horizontal longitudinal axis and configured to engage a GET, is provided on the upper GET contacting surface and the upper GET contacting surface is parallel with the lower GET contacting surface to within an angle φ of from about 0° to about 5°.
Method of producing a photonic device including at least one light source and at least one photodetector on a structure including a waveguide layer, this method comprising the following steps: a) growing successively on a substrate, a photodetection structure and a light source structure, the photodetection structure and the light source structure being made of a stack of layers, each stack including an active layer (111, 121) between two contact layers (110, 112; 112, 122), the layers of the light source structure being stacked on top of the layers of the photodetection structure and both structures sharing one of these layers, this shared layer being a contact layer of each structure, b) bonding the structure obtained by step a) to the said waveguide structure, the light source structure being in contact with the said waveguide structure by means of one of its contact layers, c) removing the substrate from the structure obtained by step b), d) etching the structure obtained by step c) to define the at least one photodetector, e) etching the structure obtained by step d) to define the at least one light source, so that the photodetector bottom contact layer, which is closer to the waveguide structure than the photodetector active layer, has the same structure as the light source upper contact layer which is further away from the waveguide structure than the light source active layer, the photodetector bottom contact layer and the light source upper contact layer being obtained from the said shared layer, f) forming electrodes (44, 43; 54, 53) on the least one photodetector and on the least one light source. a) growing successively on a substrate, a photodetection structure and a light source structure, the photodetection structure and the light source structure being made of a stack of layers, each stack including an active layer (111, 121) between two contact layers (110, 112; 112, 122), the layers of the light source structure being stacked on top of the layers of the photodetection structure and both structures sharing one of these layers, this shared layer being a contact layer of each structure, b) bonding the structure obtained by step a) to the said waveguide structure, the light source structure being in contact with the said waveguide structure by means of one of its contact layers, c) removing the substrate from the structure obtained by step b), d) etching the structure obtained by step c) to define the at least one photodetector, e) etching the structure obtained by step d) to define the at least one light source, so that the photodetector bottom contact layer, which is closer to the waveguide structure than the photodetector active layer, has the same structure as the light source upper contact layer which is further away from the waveguide structure than the light source active layer, the photodetector bottom contact layer and the light source upper contact layer being obtained from the said shared layer, f) forming electrodes (44, 43; 54, 53) on the least one photodetector and on the least one light source.
A method for classifying video traffic flows, implemented on a computing device and comprising: receiving coarse flow data from a network router, wherein said coarse flow data comprises summary statistics for data flows on said router; classifying said summary statistics to detect video flows from among said data flows; requesting fine flow data from said network router for each of said detected video flows, wherein said fine flow data comprises timestamp and packet size on a per packet basis; receiving said fine flow data from said network router; classifying each of said detected video flows per video service provider in accordance with said information, wherein the classifying of said detected video flows is based on joint similarity between packet size distributions and packet inter-arrival times; assigning to said detected video flows different priority levels according to the video service provider; and instructing said network router to prioritize said detected video flows vis-a-vis other data flows in accordance with said priority levels. receiving coarse flow data from a network router, wherein said coarse flow data comprises summary statistics for data flows on said router; classifying said summary statistics to detect video flows from among said data flows; requesting fine flow data from said network router for each of said detected video flows, wherein said fine flow data comprises timestamp and packet size on a per packet basis; receiving said fine flow data from said network router; classifying each of said detected video flows per video service provider in accordance with said information, wherein the classifying of said detected video flows is based on joint similarity between packet size distributions and packet inter-arrival times; assigning to said detected video flows different priority levels according to the video service provider; and instructing said network router to prioritize said detected video flows vis-a-vis other data flows in accordance with said priority levels.
A multiple-tube stormwater filter sock (5; 105) comprising: a downstream tube (10; 112) comprising a liquid permeable outer shell and absorbent media (14; 114) at least partially filling the outer shell of the downstream tube (10; 112); an upstream tube (20; 113) comprising a liquid permeable outer shell and absorbent media (24; 124) at least partially filling the outer shell of the upstream tube (20; 113); and characterized by the downstream and upstream tubes (10, 20; 112, 113) being arranged side-by-side and attached to each other and spaced apart by a separator web (30; 130) between the downstream and upstream tubes (10, 20; 112, 113) having a width W measured between the downstream and upstream tubes (10, 20; 112, 113), wherein the separator web (30; 130) is structured and arranged to allow side-by-side lateral bending of the downstream and upstream tubes (10, 20; 112, 113) during installation of the stormwater filter sock (5; 105). a downstream tube (10; 112) comprising a liquid permeable outer shell and absorbent media (14; 114) at least partially filling the outer shell of the downstream tube (10; 112); an upstream tube (20; 113) comprising a liquid permeable outer shell and absorbent media (24; 124) at least partially filling the outer shell of the upstream tube (20; 113); and characterized by the downstream and upstream tubes (10, 20; 112, 113) being arranged side-by-side and attached to each other and spaced apart by a separator web (30; 130) between the downstream and upstream tubes (10, 20; 112, 113) having a width W measured between the downstream and upstream tubes (10, 20; 112, 113), wherein the separator web (30; 130) is structured and arranged to allow side-by-side lateral bending of the downstream and upstream tubes (10, 20; 112, 113) during installation of the stormwater filter sock (5; 105).
A method of generating an elemental map in a surface analyzer which acquires an elemental map by scanning a surface of a specimen with a primary beam, separating electron signals emitted from the specimen with a spectrometer, and detecting the separated electron signals with a detector having a plurality of channels capable of detecting the electron signals having energies that differ from one another, the method of generating an elemental map comprising: acquiring a plurality of correction channel images by scanning a surface of a standard specimen having a uniform elemental concentration with the primary beam and generating a correction channel image for each of the channels; generating correction information for each pixel of each correction channel image among the plurality of correction channel images based on a brightness value of the pixel; acquiring a plurality of analysis channel images by scanning a surface of a specimen to be analyzed with the primary beam and generating an analysis channel image for each of the channels; correcting brightness values of pixels constituting an analysis channel image among the plurality of analysis channel images based on the correction information; and generating the elemental map of the specimen to be analyzed based on the plurality of analysis channel images having the pixels with corrected brightness values, wherein generating the correction information comprises using a coefficient as the correction information, wherein a value obtained by multiplying each of the brightness values of the pixels constituting the correction channel image by the coefficient becomes constant. acquiring a plurality of correction channel images by scanning a surface of a standard specimen having a uniform elemental concentration with the primary beam and generating a correction channel image for each of the channels; generating correction information for each pixel of each correction channel image among the plurality of correction channel images based on a brightness value of the pixel; acquiring a plurality of analysis channel images by scanning a surface of a specimen to be analyzed with the primary beam and generating an analysis channel image for each of the channels; correcting brightness values of pixels constituting an analysis channel image among the plurality of analysis channel images based on the correction information; and generating the elemental map of the specimen to be analyzed based on the plurality of analysis channel images having the pixels with corrected brightness values, wherein generating the correction information comprises using a coefficient as the correction information, wherein a value obtained by multiplying each of the brightness values of the pixels constituting the correction channel image by the coefficient becomes constant.