mhurhangee/ep-ind-claims huggingface dataset:
A reference signal signal-to-noise ratio RS SNR reporting method performed by a terminal, comprising: sending a user capability message to a serving base station, wherein the user capability message carries capability information of measuring, recording, and reporting an RS SNR by the terminal; receiving, by the terminal, a measurement result reporting instruction message sent by the serving base station based on the user capability message; and reporting, to the serving base station by the terminal, a RS SNR obtained by means of measurement; wherein the RS SNR is a ratio of an average linear power value of reference signals RSs that are sent by a target base station and that are received on resource elements REs carrying the RSs to a sum of an average linear power value of signals that are sent by at least one non-target base station and that are received on orthogonal frequency division multiplexing OFDM symbols carrying the RSs; wherein the RS SNR is obtained by means of measurement in the following manner: receiving a measurement instruction message sent by the serving base station, wherein the measurement instruction message carries information instructing the terminal to measure an RS SNR of a transmission link between the terminal and the target base station; and measuring the RS SNR of the transmission link between the terminal and the target base station according to the measurement instruction message. sending a user capability message to a serving base station, wherein the user capability message carries capability information of measuring, recording, and reporting an RS SNR by the terminal; receiving, by the terminal, a measurement result reporting instruction message sent by the serving base station based on the user capability message; and reporting, to the serving base station by the terminal, a RS SNR obtained by means of measurement; wherein the RS SNR is a ratio of an average linear power value of reference signals RSs that are sent by a target base station and that are received on resource elements REs carrying the RSs to a sum of an average linear power value of signals that are sent by at least one non-target base station and that are received on orthogonal frequency division multiplexing OFDM symbols carrying the RSs; wherein the RS SNR is obtained by means of measurement in the following manner: receiving a measurement instruction message sent by the serving base station, wherein the measurement instruction message carries information instructing the terminal to measure an RS SNR of a transmission link between the terminal and the target base station; and measuring the RS SNR of the transmission link between the terminal and the target base station according to the measurement instruction message. receiving a measurement instruction message sent by the serving base station, wherein the measurement instruction message carries information instructing the terminal to measure an RS SNR of a transmission link between the terminal and the target base station; and measuring the RS SNR of the transmission link between the terminal and the target base station according to the measurement instruction message.
An Al casting alloy that contains the following alloy constituents Si: > 3.8 to 5.8 wt% Mg: 0.1 to 0.6 wt% Cr: 0.05 to 1.3 wt% Fe: < 0.18 wt% Mn: < 0.06 wt% Ti: < 0.2 wt% Cu: ≤ 0.03 wt% Sr: 0.010 to 0.030 wt% Zr <0.006 wt% Zn <0.006 wt% impurities: <0.1 wt% and is made up to 100 wt% with Al. Si: > 3.8 to 5.8 wt% Mg: 0.1 to 0.6 wt% Cr: 0.05 to 1.3 wt% Fe: < 0.18 wt% Mn: < 0.06 wt% Ti: < 0.2 wt% Cu: ≤ 0.03 wt% Sr: 0.010 to 0.030 wt% Zr <0.006 wt% Zn <0.006 wt% impurities: <0.1 wt% and is made up to 100 wt% with Al.
A syringe assembly, comprising: a barrel comprising a proximal end and a distal end; a plunger; and a locking mechanism comprising a first partial ring disposed within the barrel, the first partial ring comprising a cam surface disposed on an inner surface of the first partial ring and an outer surface of the first partial ring comprising a circular arcuate surface, the outer surface of the first partial ring configured to mate with an inner surface of the barrel, wherein the cam surface of the first partial ring is operably connected to the plunger and configured to restrict or allow longitudinal movement of the plunger based on the rotational position of the plunger, and wherein the syringe assembly is configured to transition between an unlocked configuration that allows longitudinal movement of the plunger and a locked configuration that prevents longitudinal movement when the plunger is at any position along a continuous portion of a length of the barrel. a barrel comprising a proximal end and a distal end; a plunger; and a locking mechanism comprising a first partial ring disposed within the barrel, the first partial ring comprising a cam surface disposed on an inner surface of the first partial ring and an outer surface of the first partial ring comprising a circular arcuate surface, the outer surface of the first partial ring configured to mate with an inner surface of the barrel, wherein the cam surface of the first partial ring is operably connected to the plunger and configured to restrict or allow longitudinal movement of the plunger based on the rotational position of the plunger, and wherein the syringe assembly is configured to transition between an unlocked configuration that allows longitudinal movement of the plunger and a locked configuration that prevents longitudinal movement when the plunger is at any position along a continuous portion of a length of the barrel.
A method of destroying PFAS in a PFAS-containing aqueous mixture, comprising: subjecting the PFAS-containing aqueous mixture to a separation procedure and separating the PFAS-containing aqueous mixture into: a PFAS-enriched fraction and a PFAS-depleted fraction; heating at least a portion of the PFAS-depleted fraction, or another PFAS-depleted fraction to a temperature of at least 300 °C to form a heated PFAS-depleted fraction; prior to a supercritical destruction phase, combining the heated PFAS-depleted fraction with the PFAS-enriched fraction to form a hot PFAS-containing aqueous mixture; and reacting the hot PFAS-containing aqueous mixture with an oxidant under supercritical conditions in a SCWO reactor. subjecting the PFAS-containing aqueous mixture to a separation procedure and separating the PFAS-containing aqueous mixture into: a PFAS-enriched fraction and a PFAS-depleted fraction; heating at least a portion of the PFAS-depleted fraction, or another PFAS-depleted fraction to a temperature of at least 300 °C to form a heated PFAS-depleted fraction; prior to a supercritical destruction phase, combining the heated PFAS-depleted fraction with the PFAS-enriched fraction to form a hot PFAS-containing aqueous mixture; and reacting the hot PFAS-containing aqueous mixture with an oxidant under supercritical conditions in a SCWO reactor.
A method of manufacturing an aluminum clad heat sink, the method comprising: preparing a composite powder by ball-milling (i) aluminum or aluminum-alloy powder and (ii) carbon nanotubes; preparing a multilayer billet comprising the composite powder; and directly extruding the multilayer billet using an extrusion die to produce a heat sink, wherein the multilayer billet comprises a can-shaped first billet serving as a second shell layer; a second billet disposed inside the first billet and serving as a first shell layer; and a third billet disposed inside the second billet and serving as a core layer; wherein the first billet is made of aluminum, and the second billet and the third billet comprise the composite powder, and wherein the second billet comprises the carbon nanotubes in an amount of 0.09 to 10 parts by volume with respect to 100 parts by volume of the aluminum or aluminum-alloy powder, and the third billet comprises the carbon nanotubes 0.08 part by volume with respect to 100 parts by volume of the aluminum or aluminum-alloy powder. preparing a composite powder by ball-milling (i) aluminum or aluminum-alloy powder and (ii) carbon nanotubes; preparing a multilayer billet comprising the composite powder; and directly extruding the multilayer billet using an extrusion die to produce a heat sink, wherein the multilayer billet comprises a can-shaped first billet serving as a second shell layer; a second billet disposed inside the first billet and serving as a first shell layer; and a third billet disposed inside the second billet and serving as a core layer; wherein the first billet is made of aluminum, and the second billet and the third billet comprise the composite powder, and wherein the second billet comprises the carbon nanotubes in an amount of 0.09 to 10 parts by volume with respect to 100 parts by volume of the aluminum or aluminum-alloy powder, and the third billet comprises the carbon nanotubes 0.08 part by volume with respect to 100 parts by volume of the aluminum or aluminum-alloy powder.
An open cathode fuel cell stack assembly comprising: a plurality of fuel cells in an open cathode fuel cell stack, the stack defining two opposing parallel end faces and including open air flow faces providing an air inlet face and an air outlet face of the stack; an end plate at each opposing end face of the stack, each end plate defining a compression surface adjacent to and in compressive relationship with a respective one of the two opposing parallel end faces; and a coupling mechanism attached to the end plates to thereby maintain the fuel cells in the stack under compression, the coupling mechanism comprising two C-shaped clips configured to leave exposed the full surface area of the open air flow faces to promote uniform and laminar air flow and air distribution over cathode electrodes of the open cathode fuel cell stack; wherein at least one of the end plates comprises a preformed element defining the compression surface, the preformed element being configured with a predetermined curvature such that the compression surface is a convex surface when the preformed element is not under load whereas, under the application of the load to maintain the fuel cells under compression, flexure of the preformed element between elements of the coupling mechanism causes the compression surface to become a substantially planar surface. a plurality of fuel cells in an open cathode fuel cell stack, the stack defining two opposing parallel end faces and including open air flow faces providing an air inlet face and an air outlet face of the stack; an end plate at each opposing end face of the stack, each end plate defining a compression surface adjacent to and in compressive relationship with a respective one of the two opposing parallel end faces; and a coupling mechanism attached to the end plates to thereby maintain the fuel cells in the stack under compression, the coupling mechanism comprising two C-shaped clips configured to leave exposed the full surface area of the open air flow faces to promote uniform and laminar air flow and air distribution over cathode electrodes of the open cathode fuel cell stack; wherein at least one of the end plates comprises a preformed element defining the compression surface, the preformed element being configured with a predetermined curvature such that the compression surface is a convex surface when the preformed element is not under load whereas, under the application of the load to maintain the fuel cells under compression, flexure of the preformed element between elements of the coupling mechanism causes the compression surface to become a substantially planar surface.
A wellbore linear actuator with hydraulic feed through comprising; - a double acting cylinder with a cylinder bore, wherein the double acting cylinder comprises - a cylinder head, - a cylinder cap opposite said cylinder head, - a piston head, and - a piston rod, wherein said piston head separates said cylinder bore into a first chamber and a second chamber, and said piston rod extends out of said second chamber through said cylinder cap, characterized in that said double acting cylinder has a first end at the cylinder head and a second end at the external end of the piston rod, wherein said double acting cylinder further comprises; - a feed fluid passage between said first and second ends (10a, 10b), wherein said feed fluid passage comprises; - a first fluid line through said piston head and said piston rod, - said first chamber, and - a second fluid line through said cylinder head. - a double acting cylinder with a cylinder bore, wherein the double acting cylinder comprises - a cylinder head, - a cylinder cap opposite said cylinder head, - a piston head, and - a piston rod, wherein said piston head separates said cylinder bore into a first chamber and a second chamber, and said piston rod extends out of said second chamber through said cylinder cap, characterized in that said double acting cylinder has a first end at the cylinder head and a second end at the external end of the piston rod, wherein said double acting cylinder further comprises; - a feed fluid passage between said first and second ends (10a, 10b), wherein said feed fluid passage comprises; - a first fluid line through said piston head and said piston rod, - said first chamber, and - a second fluid line through said cylinder head.
A method for scheduling wireless communications by a user equipment, UE, the method comprising: receiving a time-domain configuration comprising a plurality of offset values of time-domain resources relative to reception of physical downlink control channel, PDCCH, each of the plurality of offset values indicating a scheduling offset indicative of a number of slots offset from the reception of PDCCH, the UE being configured with a scheduling adaptation configuration, the scheduling adaptation configuration comprising a plurality of sets of minimum offset values relative to reception of the PDCCH, the plurality of sets of minimum offset values corresponding to a group of carriers, wherein each of the plurality of sets comprises a corresponding minimum offset value for each carrier in a group of carriers comprising a plurality of carriers; receiving in the PDCCH an indication of a first set of minimum offset values of the plurality of sets of minimum offset values; for each carrier of the group of carriers, determining which at least one offset value of the plurality of offset values is greater than or equal to the minimum offset value of the corresponding carrier in the first set; and for each carrier of the group of carriers, one or more of transmitting over a physical uplink shared channel, PUSCH, or monitoring a physical downlink shared channel, PDSCH, utilizing time-domain resources corresponding to the at least one offset value greater than or equal to the minimum offset value of the corresponding carrier in the first set. receiving a time-domain configuration comprising a plurality of offset values of time-domain resources relative to reception of physical downlink control channel, PDCCH, each of the plurality of offset values indicating a scheduling offset indicative of a number of slots offset from the reception of PDCCH, the UE being configured with a scheduling adaptation configuration, the scheduling adaptation configuration comprising a plurality of sets of minimum offset values relative to reception of the PDCCH, the plurality of sets of minimum offset values corresponding to a group of carriers, wherein each of the plurality of sets comprises a corresponding minimum offset value for each carrier in a group of carriers comprising a plurality of carriers; receiving in the PDCCH an indication of a first set of minimum offset values of the plurality of sets of minimum offset values; for each carrier of the group of carriers, determining which at least one offset value of the plurality of offset values is greater than or equal to the minimum offset value of the corresponding carrier in the first set; and for each carrier of the group of carriers, one or more of transmitting over a physical uplink shared channel, PUSCH, or monitoring a physical downlink shared channel, PDSCH, utilizing time-domain resources corresponding to the at least one offset value greater than or equal to the minimum offset value of the corresponding carrier in the first set.
A system for performing an assay on a sample characterised by comprising a housing and one or more hydrophilic loading threads which wick fluid by capillary action, each thread defining a sample inlet zone at a proximal end for loading a fluid sample and which is not disposed within the housing, a testing zone at a distal end comprising a detection reagent which reacts with a predetermined analyte within the fluid sample to produce a detectable effect; and an intermediate zone located between the inlet zone and the testing zone, wherein the testing zone is physically separated from the inlet zone by the intermediate zone and after loading, the fluid sample is transported through the thread from the inlet zone to intermediate zone 22 and then to testing zone by wicking action, wherein the housing is made of plastic or any other inert material that does not interfere with the assay procedure.
An illumination device (20; 30), comprising: a plurality of light emitters, a plurality of switches (14a - 14e; 34a - 34e) and a control circuit (12; 32) controllingly coupled to the plurality of switches, the illumination device characterized in that: a first number of light emitters of the plurality of light emitters are electrically coupled in series to an input power that has at least a first operational parameter; when deactivated, the plurality of switches (14a -14e; 34a - 34e) electrically couple a respective number of the light emitters to the input power in addition to the first number of the light emitters; and the control circuit (12; 32) senses at least the first operational parameter of the input power and activates and deactivates the switches in response to the sensed first operational parameter of the input power to maintain a current applied to the plurality of light emitters proximate to a target value. a plurality of light emitters, a plurality of switches (14a - 14e; 34a - 34e) and a control circuit (12; 32) controllingly coupled to the plurality of switches, the illumination device characterized in that: a first number of light emitters of the plurality of light emitters are electrically coupled in series to an input power that has at least a first operational parameter; when deactivated, the plurality of switches (14a -14e; 34a - 34e) electrically couple a respective number of the light emitters to the input power in addition to the first number of the light emitters; and the control circuit (12; 32) senses at least the first operational parameter of the input power and activates and deactivates the switches in response to the sensed first operational parameter of the input power to maintain a current applied to the plurality of light emitters proximate to a target value. a first number of light emitters of the plurality of light emitters are electrically coupled in series to an input power that has at least a first operational parameter; when deactivated, the plurality of switches (14a -14e; 34a - 34e) electrically couple a respective number of the light emitters to the input power in addition to the first number of the light emitters; and the control circuit (12; 32) senses at least the first operational parameter of the input power and activates and deactivates the switches in response to the sensed first operational parameter of the input power to maintain a current applied to the plurality of light emitters proximate to a target value.
An inset glenoid implant comprising a body portion having (i) a smooth concave lateral articulating surface adapted to be engaged by a humeral component, (ii) a medial surface adapted for positioning within a cavity reamed in the glenoid and adapted for securing within said glenoid cavity, (iii) a peripheral edge in the shape of a circle having a diameter circumferentially surrounding the body portion, and (iv) a central cylindrical peg extending coaxially from the center of the medial surface, wherein the body portion is cylindrical; characterized by the medial surface being flat.
Method for controlling the positioning of a scanning region (15, 55, 56) of a medical imaging system for subsequent recording of a region of interest of an examination object, wherein - depth image data of the examination object is captured, - 2D image data of at least one 2D image of the examination object is captured, and wherein - the 2D image data and the depth image data of the examination object are registered to each other at least in some regions, - the 2D image is displayed and, by using the 2D image at least one limit position (37, 38) of the scanning region is defined by an operator of the system and - a limit contour line (14, 16) extending through the limit position (37,38) is determined on the basis of the depth image data of the examination object and the limit position (37, 38) in the 2D image of the examination object, said limit contour line being displayed superimposed on the 2D image of the examination object. - depth image data of the examination object is captured, - 2D image data of at least one 2D image of the examination object is captured, - the 2D image data and the depth image data of the examination object are registered to each other at least in some regions, - the 2D image is displayed and, by using the 2D image at least one limit position (37, 38) of the scanning region is defined by an operator of the system and - a limit contour line (14, 16) extending through the limit position (37,38) is determined on the basis of the depth image data of the examination object and the limit position (37, 38) in the 2D image of the examination object, said limit contour line being displayed superimposed on the 2D image of the examination object.
Method of notification, to a terminal on a downstream link (2; 2 2) of a network element (20; 30), of a transmission defect affecting a coded audio signal on an upstream link (1; 2 1) of said network element, characterized in that it comprises: - a step of emission by the network element (20; 30), on said downstream link, of an audio coded notification signal containing at least one specific notification pattern inserted in place of a missing or altered frame, destined for the terminal; said specific pattern being intended to inform said terminal of a transmission defect and said specific pattern being configured to trigger an error correction mechanism implemented by the terminal to correct said transmission defect. - a step of emission by the network element (20; 30), on said downstream link, of an audio coded notification signal containing at least one specific notification pattern inserted in place of a missing or altered frame, destined for the terminal; said specific pattern being intended to inform said terminal of a transmission defect and said specific pattern being configured to trigger an error correction mechanism implemented by the terminal to correct said transmission defect.