mhurhangee/patent-ind-claim-en huggingface dataset:
A modular system for the locomotion of sliding panels for buildings facades comprising: i. At least a pre-ring that characterizes the structure of the perimeter ring of the system; ii. At least a ring that characterizes the structure of the sliding profile of the panel; iii. At least a panel inserted in the structure of the sliding profile; iv. Roller tracks on which the sliding profiles of the panels are seated and move; vi. Vertical pull profiles on the sliding profiles; vii. Sealing and insulating profiles on the perimeter ring, sliding profiles and panels; and viii. Accessories assembled on the profiles which comprise closing systems, bearings and seals; the perimeter ring and the roller tracks being retracted in the soil, the access to said perimeter ring and roller tracks being insulated by means of "clip in and out" type covers comprising finishing caps or water drainage grilles to the surface of the perimeter ring of the system, the finishing caps ensuring insulation of technical cavities comprising at least one of a thermal insulating material, an acoustic insulating material , a thermal sleeve for producing cold and/or heat, a LED lighting and signage strips , safety sensors, switches or hidden safety closing systems. i. At least a pre-ring that characterizes the structure of the perimeter ring of the system; ii. At least a ring that characterizes the structure of the sliding profile of the panel; iii. At least a panel inserted in the structure of the sliding profile; iv. Roller tracks on which the sliding profiles of the panels are seated and move; vi. Vertical pull profiles on the sliding profiles; vii. Sealing and insulating profiles on the perimeter ring, sliding profiles and panels; and viii. Accessories assembled on the profiles which comprise closing systems, bearings and seals;
A dipole antenna assembly for decoupling 1H/X-core resonances, wherein at least two dipole antennas are connected to one another mechanically, but not electrically, characterized in that the dipole antennas intersect at an intersection point and form dipole antenna arms starting from the intersection point, wherein the dipole antenna arms are arranged in a half-space and that surface coils are attached to the dipole antenna arms, which surface coils are tuned to the resonance frequency of a X-core.
A method for forwarding a Multiprotocol Label Switching, MPLS, data packet, comprising: receiving , by a first SR router in a segment routing, SR, network, the MPLS data packet; encapsulating , by the first SR router, the MPLS data packet into an IP tunnel when determining that a next-hop router does not support an SR characteristic, and sending an encapsulated MPLS data packet to the next-hop router to enable the encapsulated MPLS data packet to be forwarded, based on an IP routing table, to a second SR router, characterized in that the encapsulating , by the first SR router, the MPLS data packet into an IP tunnel specifically comprises: filling in, by the first SR router, a source address of the IP tunnel with an IP address of the first SR router, and filling in a destination address of the IP tunnel with an IP address of the second SR router. receiving , by a first SR router in a segment routing, SR, network, the MPLS data packet; encapsulating , by the first SR router, the MPLS data packet into an IP tunnel when determining that a next-hop router does not support an SR characteristic, and sending an encapsulated MPLS data packet to the next-hop router to enable the encapsulated MPLS data packet to be forwarded, based on an IP routing table, to a second SR router, characterized in that the encapsulating , by the first SR router, the MPLS data packet into an IP tunnel specifically comprises: filling in, by the first SR router, a source address of the IP tunnel with an IP address of the first SR router, and filling in a destination address of the IP tunnel with an IP address of the second SR router.
A method of performing a circuit-breaking and closing operation in a three-phase system having a first phase (L1), a second phase (L2) lagging the first phase (L1) by 120°, and a third phase (L3) lagging the first phase (L1) by 240°, wherein the method comprises: a) opening only one of the first phase (L1), the second phase (L2) and the third phase (L3) to achieve contact separation in a time range of less than one full cycle of the phase current divided by six to 1 millisecond before a zero crossing of a current of the corresponding phase (L1-L3), b) opening the remaining phases (L1-L3) of the first phase (L1), the second phase (L2) and the third phase (L3) after step a), and c) closing the first phase (L1), the second phase (L2) and the third phase (L3) simultaneously or essentially simultaneously at a phase to ground voltage of the phase of the first phase (L1), the second phase (L2) and the third phase (L3) which is lagging the phase (L1-L3) that was opened in step a) by 120° to achieve contact touch in a time range from 60° before a peak of said phase to 90° after the peak . a) opening only one of the first phase (L1), the second phase (L2) and the third phase (L3) to achieve contact separation in a time range of less than one full cycle of the phase current divided by six to 1 millisecond before a zero crossing of a current of the corresponding phase (L1-L3), b) opening the remaining phases (L1-L3) of the first phase (L1), the second phase (L2) and the third phase (L3) after step a), and c) closing the first phase (L1), the second phase (L2) and the third phase (L3) simultaneously or essentially simultaneously at a phase to ground voltage of the phase of the first phase (L1), the second phase (L2) and the third phase (L3) which is lagging the phase (L1-L3) that was opened in step a) by 120° to achieve contact touch in a time range from 60° before a peak of said phase to 90° after the peak .
Tank , especially a high security tank, preferably for accumulation and storage of a cryogenic medium, comprising a container with an opening and comprising a cover for closing the opening, characterized by a flexible unipartite cladding which bears against an inside and an outside of the container and which is folded over at the opening , wherein the cladding is stocking-liked, wherein the closed end of the cladding bears against the inside or outside of the container .
An operating table comprising a raising and lowering mechanism for raising and lowering a subframe in relation to a chassis of a base's frame of the operating table by means of swivel axles of a lever mechanism engaged with said mechanism , for positioning rolling elements with respect to the base's frame , the subframe having the rolling elements, the operating table , being portable on said rolling elements , said operating table having an upward directed raising column connected to a base , as well as a horizontal patient support attached to a top part of said raising column , the base comprising said frame's chassis to which are connected downward directed support legs , said rolling elements of the mechanism being in connection with the operating table's base and which rolling elements are, on the one hand, arrangeable to be below a plane of a bottom edge of the chassis of the base's frame of the operating table to bear against a floor or the like as the operating table is transferred and, on the other hand, being arrangeable above the plane of the base's bottom edge for setting the operating table to rest upon the base's chassis and the support legs or upon the support legs, characterized in that the raising and lowering mechanism of the rolling elements includes two frame members (1; 1a, 1; 1b) of the sub-frame each of which members (1; 1a, 1; 1b) is in engagement with its own swivel axle (3; 3a; 3; 3b) of the lever mechanism and which frame members (1; 1a, 1; 1b) of the sub-frame are coupled to the chassis of the base's frame of the operating table in a vertically linearly movable manner, and each of sub-frame's frame member (1; 1a, 1; 1b) having two of said rolling elements (5; 5', 5; 5") by way of a rigid link, and each of said sub-frame's frame members (1;1a, 1; 1b) is in engagement with its own swivel axle (3; 3a; 3; 3b) of the lever mechanism in such a way that the frame member (1; 1a; 1; 1b) of the sub-frame is displaceable linearly in vertical direction with respect to the chassis of the base's frame of the operating table with a rotary motion of the swivel axle (3; 3a; 3; 3b) in contact with said frame member (1; 1a or 1; 1b) of the sub-frame around its longitudinal axis (L), whereby said swivel axles (3; 3a and 3; 3b) of the lever mechanism are coupled at both ends thereof to the chassis of the base's frame of the operating table in a manner rotatable around the longitudinal axes thereof and the swivel axle (3; 3a; 3; 3b) of the lever mechanism is connected to a pushing element equipped with a piston by means of the lever mechanism , which is adapted to convert a linear movement of the piston into a motion that rotates the swivel axle (3; 3a; 3; 3b) around its longitudinal axis (L).
An oil filter assembly for an axle assembly , the oil filter assembly comprising: a filter housing for releasably mounting in an axle assembly housing , the filter housing defining an internal volume for containing oil to be filtered; and a mounting arrangement for releasably securing the filter assembly to an axle assembly housing , wherein the filter housing comprises an inlet on an upper portion thereof and an outlet on a lower portion thereof to define a flow path therethrough and a filter element for filtering particulate contaminants from oil within the filter housing , the filter element is located downstream of the inlet for filtering oil along the flow path, characterised in that : the filter housing comprises a baffle element in the form of a plate separating the internal volume of the housing into a lower chamber and an upper chamber , and in that the plate at least partly defines an aperture to allow oil to flow from the upper chamber into the lower chamber , and in that the baffle element is configured to restrict backflow of oil from the lower chamber into the upper chamber , and in that the filter element is either provided on the filter housing to define the housing outlet , or is arranged to substantially cover the filter housing outlet . a filter housing for releasably mounting in an axle assembly housing , the filter housing defining an internal volume for containing oil to be filtered; and a mounting arrangement for releasably securing the filter assembly to an axle assembly housing , wherein the filter housing comprises an inlet on an upper portion thereof and an outlet on a lower portion thereof to define a flow path therethrough and a filter element for filtering particulate contaminants from oil within the filter housing , the filter element is located downstream of the inlet for filtering oil along the flow path, characterised in that : the filter housing comprises a baffle element in the form of a plate separating the internal volume of the housing into a lower chamber and an upper chamber , and in that the plate at least partly defines an aperture to allow oil to flow from the upper chamber into the lower chamber , and in that the baffle element is configured to restrict backflow of oil from the lower chamber into the upper chamber , and in that the filter element is either provided on the filter housing to define the housing outlet , or is arranged to substantially cover the filter housing outlet . the filter housing comprises a baffle element in the form of a plate separating the internal volume of the housing into a lower chamber and an upper chamber , and in that the plate at least partly defines an aperture to allow oil to flow from the upper chamber into the lower chamber , and in that the baffle element is configured to restrict backflow of oil from the lower chamber into the upper chamber , and in that the filter element is either provided on the filter housing to define the housing outlet , or is arranged to substantially cover the filter housing outlet .
A method of providing a prognosis to an individual suffering from a tumor comprising the steps of: a) determining the level of eIF2AK4 in a sample from an individual, and b) comparing the level of eIF2AK4 in said sample to a reference level A of eIF2AK4 determined in samples of patients suffering from the same tumor or to a reference level B of eIF2AK4 determined in samples of healthy individuals, wherein a decreased level of eIF2AK4 in the sample of said individual compared to the reference level A and/or B indicates a good prognosis, wherein the tumor is a lymphoma or a hepatocellular carcinoma. a) determining the level of eIF2AK4 in a sample from an individual, and b) comparing the level of eIF2AK4 in said sample to a reference level A of eIF2AK4 determined in samples of patients suffering from the same tumor or to a reference level B of eIF2AK4 determined in samples of healthy individuals, wherein a decreased level of eIF2AK4 in the sample of said individual compared to the reference level A and/or B indicates a good prognosis,
Arrangement within a road structure for creating access to a sewage system located below the road structure, comprising a frame with a seat guiding an upper closure at a level of a road surface and a frame body extending from the upper closure into a roadway , said frame body having an interior space surrounded by a wall , said interior space being provided at its lower closure directed away from the upper closure with an access to a part of the roadway located below the lower closure, characterised in that the frame body is supported with its lower closure on a rim of an opening leading into the sewage system and has a narrowing formation of its wall from the upper closure towards the lower closure, and in that the frame is additionally supported on a backfill for directly introducing forces from the wall , said backfill consisting of at least two layers of backfilling material located on top of each other, the lower layer of which is coarser in consistency than the upper layer such that forces from the wall can be transferred directly into the backfill on which the wall is positioned after installation in the roadway.
A livestock housing installation comprising a livestock area and a waste storage area located below the livestock area and divided therefrom by a floor having a plurality of spaced-apart through-holes therein such that livestock waste falls through the through-holes for delivery to the waste storage area below, the livestock housing installation further comprising an anaerobic digester , having an air-tight waste inlet and a gas outlet , located in the waste storage area , the anaerobic digester further having a waste receiving upper surface located beneath the floor , the waste receiving upper surface comprises a plurality of waste collection channels and a delivery channel is in fluid communication with the air-tight waste inlet , and the waste collection channels are in fluid communication with the delivery channel , characterised in that the waste receiving upper surface is equipped with a waste manoeuvring system adapted to move waste falling thereon to the waste inlet , and in that a plurality of substantially parallel waste collection channels are located side-by-side beneath the floor for reception of waste falling through the floor , each waste collection channel having an outlet end which discharges into the delivery channel which extends substantially perpendicularly to the waste collection channels , said delivery channel having an outlet communicating with the waste inlet of the anaerobic digester , a collection screw conveyor mounted in each waste collection channel for delivering waste material to the outlet end, and a delivery conveyor mounted in the delivery channel for delivering waste material to the waste inlet of the anaerobic digester .
A prosthetic heart valve configured to be crimped to a radially collapsed configuration on a delivery catheter and expanded inside a patient by an inflatable balloon, the prosthetic valve comprising: an annular frame made of a nickel-cobalt-chromium alloy and comprising an inflow end and an outflow end and being radially compressible and expandable between a radially compressed and a radially expanded configuration; a leaflet structure positioned within the frame and secured thereto; an outer sealing member (18; 200; 300; 500) mounted outside of the frame and adapted to seal against surrounding tissue when the prosthetic heart valve is implanted within a native heart valve annulus of a patient, the sealing member (18; 200; 300; 500) comprising a plush fabric. an annular frame made of a nickel-cobalt-chromium alloy and comprising an inflow end and an outflow end and being radially compressible and expandable between a radially compressed and a radially expanded configuration; a leaflet structure positioned within the frame and secured thereto; an outer sealing member (18; 200; 300; 500) mounted outside of the frame and adapted to seal against surrounding tissue when the prosthetic heart valve is implanted within a native heart valve annulus of a patient, the sealing member (18; 200; 300; 500) comprising a plush fabric.
An epicardial pacing lead device comprising: a first pacing lead comprising a first shaft having one or more electrodes (214aa-214ad) disposed thereon; and a second pacing lead comprising a second shaft having one or more electrodes (214ba-214bd) disposed thereon, wherein at least some of the electrodes (214aa-214ad, 214ba-214bd) are insulated so as to substantially inhibit emanation of electrical fields therefrom in a particular direction corresponding to the location at which the electrodes are insulated, wherein the first shaft and/or the second shaft have one or more lumens there through, and wherein the first pacing lead and the second pacing lead are interconnected by an elongate flexible spacing member that is slidably disposed in lumens of one or both of the first pacing lead and the second pacing lead . a first pacing lead comprising a first shaft having one or more electrodes (214aa-214ad) disposed thereon; and a second pacing lead comprising a second shaft having one or more electrodes (214ba-214bd) disposed thereon, wherein at least some of the electrodes (214aa-214ad, 214ba-214bd) are insulated so as to substantially inhibit emanation of electrical fields therefrom in a particular direction corresponding to the location at which the electrodes are insulated, wherein the first shaft and/or the second shaft have one or more lumens there through, and wherein the first pacing lead and the second pacing lead are interconnected by an elongate flexible spacing member that is slidably disposed in lumens of one or both of the first pacing lead and the second pacing lead . wherein the first shaft and/or the second shaft have one or more lumens there through, and wherein the first pacing lead and the second pacing lead are interconnected by an elongate flexible spacing member that is slidably disposed in lumens of one or both of the first pacing lead and the second pacing lead .
A method, in at least an Interworking Function, IWF, node of a wireless communication network serving a wireless device , of providing an external identifier for the wireless device to an M2M service provider external to the wireless communication network , wherein a data session for the wireless device is established and said establishing is initiated by the wireless device , wherein a Home Subscriber Server, HSS, of the wireless communication network maintains a binding between the external identifier and an internal identifier for the wireless device , the external identifier being for use by external service providers for the wireless device and the internal identifier being for use by the wireless communication network for the wireless device , and wherein an authentication server node, AAA, in the wireless communication network stores the internal identifier and an IP address associated with the wireless device , wherein the method comprises: receiving at the IWF node , from the M2M service provider, a request for the external identifier, said request including the IP address of the wireless device ; sending a first query from the IWF node to the AAA, in response to the request, the first query comprising the IP address of the wireless device ; receiving , at the IWF node from the AAA, the internal identifier for the wireless device in response to the first query; sending a second query from the IWF node to the HSS node , the second query comprising the internal identifier; receiving , at the IWF node from the HSS node , the external identifier for the wireless device ; and sending , by the IWF node , the external identifier to the M2M service provider, in response to the request. receiving at the IWF node , from the M2M service provider, a request for the external identifier, said request including the IP address of the wireless device ; sending a first query from the IWF node to the AAA, in response to the request, the first query comprising the IP address of the wireless device ; receiving , at the IWF node from the AAA, the internal identifier for the wireless device in response to the first query; sending a second query from the IWF node to the HSS node , the second query comprising the internal identifier; receiving , at the IWF node from the HSS node , the external identifier for the wireless device ; and sending , by the IWF node , the external identifier to the M2M service provider, in response to the request.
A method of irradiating an electromagnetic pulse comprising: searching a target having electronic equipment; generating target detection data of the target specifying a position and a velocity of the target ; setting a light-condensing point to a position, which is a neighborhood of the position of the target in atmosphere based on of the target detection data; driving at least one laser device based on the target detection data to turn an optical axis of the laser device to the at least one light-condensing point ; and irradiating at least one laser beam from the laser device to have an electric field strength more than a breakdown electric field strength in the atmosphere, when the at least one laser beam is condensed on the at least one light-condensing point , such that plasma is generated in the at least one light-condensing point and such that an electromagnetic pulse generated from the plasma is irradiated from the light-condensing point to the electronic equipment. searching a target having electronic equipment; generating target detection data of the target specifying a position and a velocity of the target ; setting a light-condensing point to a position, which is a neighborhood of the position of the target in atmosphere based on of the target detection data; driving at least one laser device based on the target detection data to turn an optical axis of the laser device to the at least one light-condensing point ; and irradiating at least one laser beam from the laser device to have an electric field strength more than a breakdown electric field strength in the atmosphere, when the at least one laser beam is condensed on the at least one light-condensing point , such that plasma is generated in the at least one light-condensing point and such that an electromagnetic pulse generated from the plasma is irradiated from the light-condensing point to the electronic equipment.