mhurhangee/ep-ind-claims huggingface dataset:
A connection management method, comprising: accessing, by user equipment, UE, a network by using a first base station, wherein the UE is in a radio resource connection, RRC, inactive state; accessing, by the UE, a network by using a second base station, wherein the second base station does not support the RRC inactive state; and sending, by the UE, a first request message to a first core network entity by using the second base station, so that the first core network entity releases a connection to the first base station based on the first request message; or sending, by the UE, a first request message to a first core network entity by using the second base station, so that the first core network entity sends a second request message to a second core network entity, and the second core network entity releases a connection to the first base station based on the second request message, wherein the first core network entity is a core network entity of the network accessed by the second base station, and the second core network entity is a core network entity of the network accessed by the first base station, wherein before the sending, by the UE, a first request message to a first core network entity by using the second base station, the method is characterised by: receiving, by the UE, a broadcast message sent by the second base station; and determining, by the UE based on the broadcast message, that the second base station does not support the RRC inactive state. accessing, by user equipment, UE, a network by using a first base station, wherein the UE is in a radio resource connection, RRC, inactive state; accessing, by the UE, a network by using a second base station, wherein the second base station does not support the RRC inactive state; and sending, by the UE, a first request message to a first core network entity by using the second base station, so that the first core network entity releases a connection to the first base station based on the first request message; or sending, by the UE, a first request message to a first core network entity by using the second base station, so that the first core network entity sends a second request message to a second core network entity, and the second core network entity releases a connection to the first base station based on the second request message, wherein the first core network entity is a core network entity of the network accessed by the second base station, and the second core network entity is a core network entity of the network accessed by the first base station, wherein before the sending, by the UE, a first request message to a first core network entity by using the second base station, the method is characterised by: receiving, by the UE, a broadcast message sent by the second base station; and determining, by the UE based on the broadcast message, that the second base station does not support the RRC inactive state. receiving, by the UE, a broadcast message sent by the second base station; and determining, by the UE based on the broadcast message, that the second base station does not support the RRC inactive state.
A protector for protecting a structure from impact, the protector having a pair of opposed jaws (12, 14) connected to a plate, the pair of opposed jaws forming a mouth that is arranged to allow the protector to be fitted to said structure, the protector including a bumper that is spaced from ends of the jaws (12, 14) and spaced from the structure over at least part of its extent, the bumper is arranged to extend over the front of the plate at a spaced location therefrom, the bumper extending from side regions of the protector, the plate is being connected to the bumper by linear webs that are angled offset from the perpendicular to the plane of the plate and which extend outwardly each to a respective side from the plate to the bumper and in which side, the sides of the bumper are spaced from the ends of the plate and the sides of the bumper extend inwardly around the ends of the plate characterised in that at least one of the jaws (12, 14) includes a hinge provided on one of the side regions of the protector and spaced from an end of said jaw that forms a front of the mouth, and about said hinge the end of said jaw (12, 14) can move towards or away from the other jaw (12, 14) and whereby the bumper is connected to said jaw (12, 14) in the region of the hinge.
An acoustic structure comprising a septum having an acoustic opening which defines an open area that varies in response to changes in the velocity of noise-containing media passing through said acoustic opening, said acoustic structure comprising: a septum comprising a fixed portion and one or more movable flapper portions (26, 28) wherein said fixed portion and said flapper portion(s) (26, 28) comprise surfaces that define the acoustic opening through said septum, said acoustic opening having an open area which varies due to movement of said movable flapper portion(s) (26, 28) which bend automatically in response to changes in the velocity of said noise-containing media passing through said acoustic opening, characterized in that said movable flapper portion (26, 28) is hinged to said fixed portion by way of a fold line (48,50) in said septum that defines the transition between said fixed portion of said septum and said flapper portion (26, 28). a septum comprising a fixed portion and one or more movable flapper portions (26, 28) wherein said fixed portion and said flapper portion(s) (26, 28) comprise surfaces that define the acoustic opening through said septum, said acoustic opening having an open area which varies due to movement of said movable flapper portion(s) (26, 28) which bend automatically in response to changes in the velocity of said noise-containing media passing through said acoustic opening, characterized in that said movable flapper portion (26, 28) is hinged to said fixed portion by way of a fold line (48,50) in said septum that defines the transition between said fixed portion of said septum and said flapper portion (26, 28).
Process for coating an iron or steel article with a Zn-Fe intermetallic layer, comprising the steps of: - providing a sealable furnace, comprising a process chamber equipped with heating means, means for introducing and extracting gasses, and access ports for the article to be coated; - taking the article to be coated into the process chamber; - contacting the article at a temperature of 200 to 650 °C with a reducing gas in the process chamber, thereby removing surface oxidation; - extracting gasses from the process chamber to a residual pressure of less than 1000 Pa; - contacting the article at a temperature of 225 to 650 °C with metallic Zn vapor in the process chamber, thereby coating the article with a Zn-Fe intermetallic layer; - retrieving the coated article from the process chamber; characterized in that, in the step of contacting the article with metallic Zn vapor, the temperature of the article is equal to or higher than the dew point of the Zn vapor. - providing a sealable furnace, comprising a process chamber equipped with heating means, means for introducing and extracting gasses, and access ports for the article to be coated; - taking the article to be coated into the process chamber; - contacting the article at a temperature of 200 to 650 °C with a reducing gas in the process chamber, thereby removing surface oxidation; - extracting gasses from the process chamber to a residual pressure of less than 1000 Pa; - contacting the article at a temperature of 225 to 650 °C with metallic Zn vapor in the process chamber, thereby coating the article with a Zn-Fe intermetallic layer; - retrieving the coated article from the process chamber; characterized in that, in the step of contacting the article with metallic Zn vapor, the temperature of the article is equal to or higher than the dew point of the Zn vapor.
A computing cartridge, comprising: a first electronic device; a liquid-cooled cold plate; a first thermal couple between the first electronic device and the cold plate; a hot plug capable blind mate inlet fluid connector to facilitate supply of a liquid coolant to a plurality of fluid channels contained within the cold plate; and a hot plug capable blind mate outlet fluid connector to facilitate return of the liquid coolant from the cold plate wherein the liquid coolant returns upon passage through the plurality of fluid channels; and characterized in that: the inlet fluid connector is located at the first corner of the cold plate and the outlet fluid connector is located at a second, diagonally opposite corner of the cold plate, where the computing cartridge is a top-loading computing cartridge. a first electronic device; a liquid-cooled cold plate; a first thermal couple between the first electronic device and the cold plate; a hot plug capable blind mate inlet fluid connector to facilitate supply of a liquid coolant to a plurality of fluid channels contained within the cold plate; and a hot plug capable blind mate outlet fluid connector to facilitate return of the liquid coolant from the cold plate wherein the liquid coolant returns upon passage through the plurality of fluid channels; and characterized in that: the inlet fluid connector is located at the first corner of the cold plate and the outlet fluid connector is located at a second, diagonally opposite corner of the cold plate, where the computing cartridge is a top-loading computing cartridge. the inlet fluid connector is located at the first corner of the cold plate and the outlet fluid connector is located at a second, diagonally opposite corner of the cold plate, where the computing cartridge is a top-loading computing cartridge.
A vascular access system, comprising: a first conduit; a second conduit; and an expandable stent configured to be deployed to couple to the first conduit and to the second conduit, such that there is a continuous lumen from the first conduit to the second conduit; characterized in that, in an expanded configuration, a first portion of the expandable stent is disposed within the first conduit so that an outer surface of the first portion is in contact with an inner luminal surface of the first conduit and a second portion of the expandable stent is disposed within the second conduit so that an outer surface of the second portion is in contact with an inner luminal surface of the second conduit. a first conduit; a second conduit; and an expandable stent configured to be deployed to couple to the first conduit and to the second conduit, such that there is a continuous lumen from the first conduit to the second conduit;
A surgical microscope, comprising a front-lens attachment, which is provided in front of an objective of the surgical microscope, characterized in that a turret attachment for the rotatable arrangement of at least two lens elements (33, 34) is arranged on said front-lens attachment, that the turret attachment comprises a retaining element that can rotate around an axis of rotation, on which the at least two lens elements (33, 34) are disposed, that the axis of rotation of the turret attachment has an inclined course relative to an optical axis of the surgical microscope, that the retaining element is provided as a lens uptake, that the at least two lens elements (33, 34) are each disposed on a lens holder (43, 44), that the at least two lens elements (33, 34) are disposed on lens uptake via the respective lens holders (43, 44) and that the respective lens holders (33, 34) have a curve-shaped course or an angular course, or a bent course, at least in regions, for positioning the respective lens elements (33, 34) coaxially to the optical axis of the surgical microscope.
A method for producing wood chips, in particular from recycled wood, having - a material feed in at least one first supporting structure (3, 4a) which is tailored to the material feed, - a first sorting for the material to be crushed in at least one second supporting structure (3, 6a) which is tailored to the first sorting, - a material crushing in at least one third supporting structure (3, 8a) which is tailored to the material crushing, - a second sorting for the crushed material in at least one fourth supporting structure (3, 10a) which is tailored to the second sorting, and wherein the first, second, third and fourth supporting structure (3, 4a, 6a, 8a, 10a) are arranged in a mobile or semi-mobile manner and are either connected directly to one another or by material-carrying lines (20, 22, 24, 26), wherein the fed material is conveyed from the material feed by a first material-carrying line to the first sorting, sorted and fed by a second material-carrying line from the first sorting to the material crushing and crushed there into chips and fed from there by a third material-carrying line to the second sorting for the crushed material, where the crushed material is sorted. - a material feed in at least one first supporting structure (3, 4a) which is tailored to the material feed, - a first sorting for the material to be crushed in at least one second supporting structure (3, 6a) which is tailored to the first sorting, - a material crushing in at least one third supporting structure (3, 8a) which is tailored to the material crushing, - a second sorting for the crushed material in at least one fourth supporting structure (3, 10a) which is tailored to the second sorting, and wherein the first, second, third and fourth supporting structure (3, 4a, 6a, 8a, 10a) are arranged in a mobile or semi-mobile manner and are either connected directly to one another or by material-carrying lines (20, 22, 24, 26), wherein the fed material is conveyed from the material feed by a first material-carrying line to the first sorting, sorted and fed by a second material-carrying line from the first sorting to the material crushing and crushed there into chips and fed from there by a third material-carrying line to the second sorting for the crushed material, where the crushed material is sorted.
An apparatus for recording electrical signals and/or for applying energy to a target site within a patient comprising: a shaft having distal and proximal end portions (22, 18) and a longitudinal axis therebetween; an ablation segment at the distal end portion of the shaft defining first and second opposing ends and having one or more electrodes disposed therebetween; a connector extending through the shaft for electrically coupling the one or more electrodes to a source of electrical energy; a force element coupled to the shaft and disposed to apply an axially directed force to the ablation segment between the first and second opposing ends; and characterised in that the force element comprises a manipulator member and a curved support arm extending from a tip of the shaft to the ablation segment; the ablation segment being a continuous linear member that does not collapse or fold onto itself and which is rotatable about a pivot point provided by the support arm between a delivery position substantially parallel to the tip of the shaft and sized for delivery through a percutaneous penetration in the patient, and a contact position substantially perpendicular to the tip, the tip including a longitudinal opening for receiving the ablation segment as it rotates into the delivery position, wherein, in the contact position, the ablation segment forms a substantially continuous surface transverse to the longitudinal axis of the shaft for contacting tissue at the contact site. a shaft having distal and proximal end portions (22, 18) and a longitudinal axis therebetween; an ablation segment at the distal end portion of the shaft defining first and second opposing ends and having one or more electrodes disposed therebetween; a connector extending through the shaft for electrically coupling the one or more electrodes to a source of electrical energy; a force element coupled to the shaft and disposed to apply an axially directed force to the ablation segment between the first and second opposing ends; and characterised in that the force element comprises a manipulator member and a curved support arm extending from a tip of the shaft to the ablation segment; the ablation segment being a continuous linear member that does not collapse or fold onto itself and which is rotatable about a pivot point provided by the support arm between a delivery position substantially parallel to the tip of the shaft and sized for delivery through a percutaneous penetration in the patient, and a contact position substantially perpendicular to the tip, the tip including a longitudinal opening for receiving the ablation segment as it rotates into the delivery position, wherein, in the contact position, the ablation segment forms a substantially continuous surface transverse to the longitudinal axis of the shaft for contacting tissue at the contact site.
A shielding apparatus comprising: a frame (104, 204, 304) configured for installation to a substrate generally about one or more components on the substrate; and a pickup member (108, 208, 308) configured to allow the frame (104, 204, 304) and the pickup member (108, 208, 308) to be picked up by the pickup member (108, 208, 308) and placed on the substrate; the pickup member (108, 208, 308) being releasably attached to the frame (104, 204, 304) so that the pickup member (108, 208, 308) is detachable and completely separable from the frame (104, 204, 304) after the frame (104, 204, 304) is installed on the substrate so that the frame (104, 204, 304) remains installed on the substrate without the pickup member (108, 208, 308); wherein the pickup member (108, 208, 308) and the frame (104, 204, 304) are integrally formed substantially simultaneously from a single piece of material. a frame (104, 204, 304) configured for installation to a substrate generally about one or more components on the substrate; and a pickup member (108, 208, 308) configured to allow the frame (104, 204, 304) and the pickup member (108, 208, 308) to be picked up by the pickup member (108, 208, 308) and placed on the substrate; the pickup member (108, 208, 308) being releasably attached to the frame (104, 204, 304) so that the pickup member (108, 208, 308) is detachable and completely separable from the frame (104, 204, 304) after the frame (104, 204, 304) is installed on the substrate so that the frame (104, 204, 304) remains installed on the substrate without the pickup member (108, 208, 308); wherein the pickup member (108, 208, 308) and the frame (104, 204, 304) are integrally formed substantially simultaneously from a single piece of material.
A measurement configuration method, characterized by comprising the following steps: sending (203, 301), by a first network node, information of a measurement object to a second network node, wherein the measurement object is a frequency point, the information of the measurement object is used for the second network node to generate part of measurement configuration information, the first network node is a master node, and the second network node is a secondary node; receiving, by the first network node, the part of measurement configuration information from the second network node, and sending, by the first network node, the part of measurement configuration information to a multi-Radio Frequency, RF, chain terminal through an RF chain of the terminal for connection between the first network node and the multi-RF chain terminal; and receiving (209, 306), by the first network node, a measurement result obtained at the measurement object based on the part of measurement configuration information from the multi- RF chain terminal, wherein the part of measurement configuration information comprises a measurement gap and a correspondence between a measurement gap and a measurement object; and wherein, receiving, by the first network node, the measurement result obtained at the measurement object from the multi-RF chain terminal comprises: receiving, by the first network node, the measurement result through an RF chain for connection between the first network node and the multi-RF chain terminal. sending (203, 301), by a first network node, information of a measurement object to a second network node, wherein the measurement object is a frequency point, the information of the measurement object is used for the second network node to generate part of measurement configuration information, the first network node is a master node, and the second network node is a secondary node; receiving, by the first network node, the part of measurement configuration information from the second network node, and sending, by the first network node, the part of measurement configuration information to a multi-Radio Frequency, RF, chain terminal through an RF chain of the terminal for connection between the first network node and the multi-RF chain terminal; and receiving (209, 306), by the first network node, a measurement result obtained at the measurement object based on the part of measurement configuration information from the multi- RF chain terminal, wherein the part of measurement configuration information comprises a measurement gap and a correspondence between a measurement gap and a measurement object; and wherein, receiving, by the first network node, the measurement result obtained at the measurement object from the multi-RF chain terminal comprises: receiving, by the first network node, the measurement result through an RF chain for connection between the first network node and the multi-RF chain terminal.