mhurhangee/patent-ind-claim-en huggingface dataset:
A blood vessel pressure difference correction method, wherein a blood vessel involved in the method comprises a first blood vessel and a second blood vessel , the first blood vessel and the second blood vessel intersect and are connected, and a distal demarcation point of the first blood vessel and the second blood vessel is a carina , and the method comprises: Obtaining, by using images of an image imaging probe, a plurality of blood vessel cross sections between a first end point and a second end point along a direction of a centerline of the first blood vessel; characterized by taking a proximal demarcation point of the first blood vessel and the second blood vessel as the second end point, and taking the carina as the first end point; forming, by the blood vessel cross sections, contour lines on a first blood vessel wall and a second blood vessel wall; enclosing, by the contour lines formed on the first blood vessel wall by the blood vessel cross sections, a plurality of first blood vessel convex surfaces; enclosing, by the contour lines formed on the second blood vessel wall by the blood vessel cross sections, a plurality of second blood vessel convex surfaces; intersecting, by the first blood vessel convex surfaces and the second blood vessel convex surfaces, to form a plurality of intersection lines ; fitting the plurality of intersection lines into an intersection plane; calculating an area of a cutting plane according to the intersection plane, wherein the cutting plane is a second blood vessel cross section perpendicular to a centerline of the second blood vessel cross the carina; and correcting a blood vessel pressure difference by using the area of the cutting plane. Obtaining, by using images of an image imaging probe, a plurality of blood vessel cross sections between a first end point and a second end point along a direction of a centerline of the first blood vessel; characterized by taking a proximal demarcation point of the first blood vessel and the second blood vessel as the second end point, and taking the carina as the first end point; forming, by the blood vessel cross sections, contour lines on a first blood vessel wall and a second blood vessel wall; enclosing, by the contour lines formed on the first blood vessel wall by the blood vessel cross sections, a plurality of first blood vessel convex surfaces; enclosing, by the contour lines formed on the second blood vessel wall by the blood vessel cross sections, a plurality of second blood vessel convex surfaces; intersecting, by the first blood vessel convex surfaces and the second blood vessel convex surfaces, to form a plurality of intersection lines ; fitting the plurality of intersection lines into an intersection plane; calculating an area of a cutting plane according to the intersection plane, wherein the cutting plane is a second blood vessel cross section perpendicular to a centerline of the second blood vessel cross the carina; and correcting a blood vessel pressure difference by using the area of the cutting plane.
An injector assembly disposed in a combustion stage fluidly coupled to receive a cross-flow of combustion gases from a combustor outlet, the injector assembly comprising: a reactant-guiding structure having an inlet side and an outlet side , the reactant-guiding structure defining a curvilinear flow path to route a flow of reactants from a first flow direction at the inlet side to a second flow direction at the outlet side toward the cross-flow of combustion gases; characterized by a cross-flow guiding structure having an inlet side and an outlet side , the cross-flow guiding structure defining a generally axially-extending flow path to route through the injector assembly a portion of the cross-flow of combustion gases received at the inlet side of the cross-flow guiding structure toward the outlet side of the cross-flow guiding structure . a reactant-guiding structure having an inlet side and an outlet side , the reactant-guiding structure defining a curvilinear flow path to route a flow of reactants from a first flow direction at the inlet side to a second flow direction at the outlet side toward the cross-flow of combustion gases; characterized by a cross-flow guiding structure having an inlet side and an outlet side , the cross-flow guiding structure defining a generally axially-extending flow path to route through the injector assembly a portion of the cross-flow of combustion gases received at the inlet side of the cross-flow guiding structure toward the outlet side of the cross-flow guiding structure .
A method comprising: receiving an input indicating a search criteria; determining , by a processor, at least one search result position related to the search criteria; determining a relationship between the at least one search result position and a multi-level map; causing , based on the relationship, a level of the map to be displayed as a currently displayed level and the at least one search result position to be displayed as a search result position indicator representing an icon, wherein the displayed search result position indicator is presented in a different manner based on whether the search result position is on the current level of the map that is displayed or is on another level of the map, wherein the different manner is dependent upon the distance between the search result position and the current level; enabling interaction with the at least one search result position indicator; and wherein interaction with the at least one search result position indicator located on a different level from the currently displayed level further comprises causing to change the currently displayed level to the different level of the search result position. receiving an input indicating a search criteria; determining , by a processor, at least one search result position related to the search criteria; determining a relationship between the at least one search result position and a multi-level map; causing , based on the relationship, a level of the map to be displayed as a currently displayed level and the at least one search result position to be displayed as a search result position indicator representing an icon, wherein the displayed search result position indicator is presented in a different manner based on whether the search result position is on the current level of the map that is displayed or is on another level of the map, wherein the different manner is dependent upon the distance between the search result position and the current level; enabling interaction with the at least one search result position indicator; and wherein interaction with the at least one search result position indicator located on a different level from the currently displayed level further comprises causing to change the currently displayed level to the different level of the search result position.
A liquid ejection head comprising a base plate and at least two device chips in which ejection ports for ejecting a liquid are formed, the device chips being disposed on the base plate , wherein at least one first reference mark is provided on the base plate , a second reference mark is provided on each of the device chips , and the second reference marks and the first reference mark are disposed on an array axis along which the device chips are arrayed, characterized in that at least one space is formed between adjacent ones of the device chips , and the first reference mark is present in the space. wherein at least one first reference mark is provided on the base plate , a second reference mark is provided on each of the device chips , and the second reference marks and the first reference mark are disposed on an array axis along which the device chips are arrayed, characterized in that at least one space is formed between adjacent ones of the device chips , and the first reference mark is present in the space.
Spike for anchoring in a spike hole of a tread of a pneumatic vehicle tyre, having a spike body composed of rubber, a base part , which is situated at least partially within the spike body and which is composed of a bottom flange and a pin holder , in which pin holder there is anchored a spike pin which projects with an end portion beyond the spike body and, when the spike is inserted in the tread, beyond the tread surface, wherein the end portion is surrounded by a rubber layer , and the bottom flange is encased with a rubber layer , wherein the bottom flange and the pin holder are each parts with an oval or approximately oval form in plan view, wherein the oval of the pin holder is rotationally offset through 90° in relation to the oval of the bottom flange , and wherein the bottom flange , in plan view, has a centre width (b F ) and the pin holder , in plan view, has a length (l P ) and a width (bp), characterized in that the spike body is of circular-cylindrical design and has a diameter (D) which corresponds to the centre width (b F ) of the bottom flange or which deviates from said width (b F ) by up to 1.0 mm, wherein the base part has a height (h 1 ) of 40% to 60% of the spike height (H), and wherein the ratio between the length (l P ) and the width (bp) of the pin holder of the base part is 1.10 to 1.18.
A network analytics control module comprising processing circuitry configured to: receive three dimensional location information and corresponding signal quality information for a particular asset in an air-to-ground, ATG, network , wherein the three dimensional location information includes information indicative of a specific beam for which the corresponding signal quality information applies, the specific beam being one of a plurality of formable or steerable beams of the ATG network in which the particular asset is located along with bearing and elevation angle from a known fixed location; the processing circuitry being further configured to: make a service quality inference for the particular asset based at least in part on the received information; and provide an instruction for a network control activity based on the service quality inference. receive three dimensional location information and corresponding signal quality information for a particular asset in an air-to-ground, ATG, network , wherein the three dimensional location information includes information indicative of a specific beam for which the corresponding signal quality information applies, the specific beam being one of a plurality of formable or steerable beams of the ATG network in which the particular asset is located along with bearing and elevation angle from a known fixed location; the processing circuitry being further configured to: make a service quality inference for the particular asset based at least in part on the received information; and provide an instruction for a network control activity based on the service quality inference. make a service quality inference for the particular asset based at least in part on the received information; and provide an instruction for a network control activity based on the service quality inference.
An apparatus for adjusting knife edge offset in a cutter toolhead, comprising: a cutter toolhead frame ; a knife moveably coupled to the cutter toolhead; an actuated arm moveably attached to the cutter toolhead frame ; a computer controller that controls movements of the knife and the actuated arm ; an abrasive sharpener moveably attached to the actuated arm and adapted to contact the knife ; and a sensor adapted to determine a distance between the cutter toolhead frame and the actuated arm ; wherein the computer controller adjusts the movement of the knife and the actuated arm as a function of the distance determined by the sensor . a cutter toolhead frame ; a knife moveably coupled to the cutter toolhead; an actuated arm moveably attached to the cutter toolhead frame ; a computer controller that controls movements of the knife and the actuated arm ; an abrasive sharpener moveably attached to the actuated arm and adapted to contact the knife ; and a sensor adapted to determine a distance between the cutter toolhead frame and the actuated arm ; wherein the computer controller adjusts the movement of the knife and the actuated arm as a function of the distance determined by the sensor .
A method responsive to a handover decision regarding handover of a mobile device from a source node to a target node in a wireless network , the method characterized by : generating, in the target node , a handover preparation status report based on the target node perception of the mobile device status stored in a memory of the target node during handover preparation; transmitting, from the target node , the handover preparation status report to the source node ; adding the received handover preparation status report at the source node to a Radio Resource Control ,RRC, reconfiguration message and transmitting said RRC reconfiguration message to the mobile device ; setting the mobile device status in the mobile device according to the received handover preparation status report and maintaining the status for a duration of the handover until sending a RRC reconfiguration complete message; generating, in the mobile device , a handover execution status report based on the status stored in a memory of the mobile device ; adding the generated handover execution status report to the RRC reconfiguration complete message and transmitting said RRC reconfiguration complete message during handover execution to the target node ; and setting the status in the target node according to the received handover execution status report. generating, in the target node , a handover preparation status report based on the target node perception of the mobile device status stored in a memory of the target node during handover preparation; transmitting, from the target node , the handover preparation status report to the source node ; adding the received handover preparation status report at the source node to a Radio Resource Control ,RRC, reconfiguration message and transmitting said RRC reconfiguration message to the mobile device ; setting the mobile device status in the mobile device according to the received handover preparation status report and maintaining the status for a duration of the handover until sending a RRC reconfiguration complete message; generating, in the mobile device , a handover execution status report based on the status stored in a memory of the mobile device ; adding the generated handover execution status report to the RRC reconfiguration complete message and transmitting said RRC reconfiguration complete message during handover execution to the target node ; and setting the status in the target node according to the received handover execution status report.
An electrical connection device formed by assembling a support that is to be fastened on an electrically conductive structure together with an electrically conductive terminal lug that is to be electrically connected to an electric cable , wherein: - the support includes a first face that is to be in contact with said structure , with annular guide and locking channels projecting from a second face opposite from the first face , the channels extending in annular manner and defining a housing (201-1) between them; - the terminal lug comprising an annular base for placing in the housing (201-1) and a tubular shank fastened coaxially to the base , the base including a first face from which the tubular shank extends and a second face opposite from the first face and for being brought to bear against the second face of the support when the base is present in the housing (201-1) ; - the terminal lug further comprising a locking ring having annular ramps (216-3) extending from the outer periphery of the ring, the annular ramps (216-3) co-operating with the annular guide and locking channels of the support , said device being characterized in that the locking ring having the tubular shank passing through its center and movable in rotation relative to the tubular shank . - the support includes a first face that is to be in contact with said structure , with annular guide and locking channels projecting from a second face opposite from the first face , the channels extending in annular manner and defining a housing (201-1) between them; - the terminal lug comprising an annular base for placing in the housing (201-1) and a tubular shank fastened coaxially to the base , the base including a first face from which the tubular shank extends and a second face opposite from the first face and for being brought to bear against the second face of the support when the base is present in the housing (201-1) ; - the terminal lug further comprising a locking ring having annular ramps (216-3) extending from the outer periphery of the ring, the annular ramps (216-3) co-operating with the annular guide and locking channels of the support ,
A power headroom information transmission method executed by a terminal in a wireless communication system supporting beamforming, the method comprising: transmitting to a base station a first power headroom information; receiving, from the base station, configuration information including index information of a beam for beam measurement; measuring a beam, based on the configuration information; determining transmission of a second power headroom information when the index information of the measured beam is different from the index information of the beam contained in the configuration information; and transmitting, to the base station, the second power headroom information in case that the transmission of the second power headroom information is determined. transmitting to a base station a first power headroom information; receiving, from the base station, configuration information including index information of a beam for beam measurement; measuring a beam, based on the configuration information; determining transmission of a second power headroom information when the index information of the measured beam is different from the index information of the beam contained in the configuration information; and transmitting, to the base station, the second power headroom information in case that the transmission of the second power headroom information is determined.
A method for the keeping constant of a pH of a medical liquid when draining from a container in which CO 2 and at least one further gas or gas mixture flow into the container during the draining of the medical liquid, characterized in that a change in the filling level (L1) of the liquid is measured and the amount of CO 2 which is added into the container is determined on the basis of the measurement.
Rail vehicle comprising: - a wastewater container ; - a suction-extraction line , which is connected to the wastewater container and is led from the wastewater container to a suction-extraction connection for extraction of the wastewater by suction; - a shut-off valve , which is incorporated in the suction-extraction line and, in an open state, opens the suction-extraction line and, in a closed state, closes the suction-extraction line ; - a compressed-air line , which is connected to the suction-extraction line via a compressed-air connection and is configured to introduce compressed air into the suction-extraction line via the compressed-air connection with the shut-off valve in the closed state, wherein the compressed-air connection is positioned between the shut-off valve and the wastewater container . - a wastewater container ; - a suction-extraction line , which is connected to the wastewater container and is led from the wastewater container to a suction-extraction connection for extraction of the wastewater by suction; - a shut-off valve , which is incorporated in the suction-extraction line and, in an open state, opens the suction-extraction line and, in a closed state, closes the suction-extraction line ; - a compressed-air line , which is connected to the suction-extraction line via a compressed-air connection and is configured to introduce compressed air into the suction-extraction line via the compressed-air connection with the shut-off valve in the closed state, wherein the compressed-air connection is positioned between the shut-off valve and the wastewater container .
Method for producing a hardened steel component with a coating of zinc or a zinc alloy, wherein a blank is stamped from a sheet coated with the zinc or zinc alloy, the stamped blank is heated to a temperature ≥Ac 3 and kept at this temperature for a predefined time where appropriate, in order to allow austenite formation, after which the heated blank is moved into a forming tool, formed in said forming tool and cooled in said forming tool at a speed that lies above the critical hardening speed, and thereby hardened, wherein the steel material is adjusted in a conversion-delayed manner, such that with a forming temperature which lies within the range of 600°C to 800°C, in particular 730°C to 782°C, and is below the peritectic temperature of the iron/zinc graph, quench-hardening takes place through conversion of the austenite into martensite, wherein a steel material having the following analysis is used (all figures in % by mass): Carbon (C) 0.08-0.6 Manganese (Mn) 0.8-3.0 Aluminium (Al) 0.01-0.07 Silicon (Si) 0.01-0.5 Chromium (Cr) 0.02-0.6 Titanium (Ti) 0.01-0.05 Nitrogen (N) 0.003-0.1 Boron (B) 0.0005-0.06 Phosphor (P) <0.01 Sulphur (S) <0.01 Molybdenum (Mo) < 1 Residual iron and smelting-related impurities.