mhurhangee/patent-ind-claim-en huggingface dataset:
A safety method for a pressurized water nuclear reactor in the event of at least partial meltdown of a core of the reactor with formation of a pool of corium , the reactor comprising at least, during an operating phase: • a primary circuit in which a water-based primary fluid is intended to circulate, the primary circuit being configured so that the primary fluid enters a vessel of the reactor and pass through the core contained in the vessel in order to extract heat produced by the core , • a secondary circuit, in which a water-based secondary fluid is intended to circulate, the secondary circuit being fluidly isolated from the primary circuit , and comprising at least one steam generator , the secondary circuit being configured to absorb heat from the primary circuit and at least partially transform it into steam in the steam generator , characterised in that the method comprises at least the following step in response to a detection of an event characteristic of an at least partial meltdown of the core of the reactor with formation of a pool of corium in a bottom of the vessel and with a formation of a liquid metal layer on the surface of the pool of corium : • rupture by explosion of the fluid isolation to place the secondary circuit in fluid communication with the primary circuit so that the secondary fluid takes the primary circuit to flow in the vessel on said liquid metal layer of the pool of corium . • a primary circuit in which a water-based primary fluid is intended to circulate, the primary circuit being configured so that the primary fluid enters a vessel of the reactor and pass through the core contained in the vessel in order to extract heat produced by the core , • a secondary circuit, in which a water-based secondary fluid is intended to circulate, the secondary circuit being fluidly isolated from the primary circuit , and comprising at least one steam generator , the secondary circuit being configured to absorb heat from the primary circuit and at least partially transform it into steam in the steam generator , • rupture by explosion of the fluid isolation to place the secondary circuit in fluid communication with the primary circuit so that the secondary fluid takes the primary circuit to flow in the vessel on said liquid metal layer of the pool of corium .
A method of paging user equipments, UEs, on a shared communication medium, comprising: obtaining a set of paging messages for transmission to a paging group that includes a set of UEs associated with different coverage levels; transmitting a common enhanced Physical Downlink Control Channel, ePDCCH, that starts a Paging Occurrence Window, POW, with a duration that is extended from a legacy POW used by one or more legacy UEs; transmitting , after the transmission of the common ePDCCH, a paging ePDCCH; and repetitively transmitting the set of paging messages over a plurality of PDSCH subframes in accordance with the paging ePDCCH. obtaining a set of paging messages for transmission to a paging group that includes a set of UEs associated with different coverage levels; transmitting a common enhanced Physical Downlink Control Channel, ePDCCH, that starts a Paging Occurrence Window, POW, with a duration that is extended from a legacy POW used by one or more legacy UEs; transmitting , after the transmission of the common ePDCCH, a paging ePDCCH; and repetitively transmitting the set of paging messages over a plurality of PDSCH subframes in accordance with the paging ePDCCH.
A system for performing a cardiac electrophysiology procedure, comprising: a catheter including at least one magnetic localization sensor ; an electrophysiology catheter including at least one magnetic localization sensor ; and one or more processors adapted for: generating a cardiac model using the catheter inserted within the patient's heart, wherein the cardiac model comprises magnetic localization data measured using the at least one magnetic localization sensor ; and localizing the electrophysiology catheter which is inserted into the patient's heart after the catheter has been removed from the patient's heart at an initial location within a coordinate system common to the cardiac model using the at least one magnetic localization sensor of the electrophysiology catheter for performing the electrophysiology procedure using the electrophysiology catheter . a catheter including at least one magnetic localization sensor ; an electrophysiology catheter including at least one magnetic localization sensor ; and one or more processors adapted for: generating a cardiac model using the catheter inserted within the patient's heart, wherein the cardiac model comprises magnetic localization data measured using the at least one magnetic localization sensor ; and localizing the electrophysiology catheter which is inserted into the patient's heart after the catheter has been removed from the patient's heart at an initial location within a coordinate system common to the cardiac model using the at least one magnetic localization sensor of the electrophysiology catheter for performing the electrophysiology procedure using the electrophysiology catheter . generating a cardiac model using the catheter inserted within the patient's heart, wherein the cardiac model comprises magnetic localization data measured using the at least one magnetic localization sensor ; and localizing the electrophysiology catheter which is inserted into the patient's heart after the catheter has been removed from the patient's heart at an initial location within a coordinate system common to the cardiac model using the at least one magnetic localization sensor of the electrophysiology catheter for performing the electrophysiology procedure using the electrophysiology catheter .
A method of removing white blood cells from a sample comprising enriched rare cells and white blood cells such method comprises (a) treating such a sample enriched by immunomagnetic methods and comprising enriched rare cells labelled with an immunomagnetic marker and white blood cells with a leukocyte marker that is conjugated to a hapten under conditions that label such white blood cells with such leukocyte marker conjugated to the hapten, wherein the leukocyte marker is an antibody or antibody fragment that binds to CD45; and (b) treating the composition of step (a) with a second medium that adheres to such labeled white blood cells, and separating the second medium and its adhered labeled white blood cells from the composition of step (a) wherein the enriched rare cells are selected from the group consisting of CTCs, CECs, CMMCs, and CMCs; and wherein the method of removing white blood cells from an enriched sample does not comprise immunomagnetic methods. (a) treating such a sample enriched by immunomagnetic methods and comprising enriched rare cells labelled with an immunomagnetic marker and white blood cells with a leukocyte marker that is conjugated to a hapten under conditions that label such white blood cells with such leukocyte marker conjugated to the hapten, wherein the leukocyte marker is an antibody or antibody fragment that binds to CD45; and (b) treating the composition of step (a) with a second medium that adheres to such labeled white blood cells, and separating the second medium and its adhered labeled white blood cells from the composition of step (a) wherein the enriched rare cells are selected from the group consisting of CTCs, CECs, CMMCs, and CMCs; and wherein the method of removing white blood cells from an enriched sample does not comprise immunomagnetic methods.
A transmission apparatus employing a MIMO, multi-input/multi-output, scheme of transmitting a plurality of data items for a same receiving apparatus using a plurality of antennas (106-1, 106-2) in parallel, the transmission apparatus comprising: an apportion section that apportions the plurality of data items to a plurality of groups; a multiplexing section that code division multiplexes the apportioned data for each of said groups; a transmission section that transmits, to the receiving apparatus, the plurality of code division multiplexed data items in the plurality of groups using an antenna (106-1, 106-2) corresponding to each of said groups; and wherein the plurality of data items comprises at least a specific data item and other data items and the specific data item is different from the other data items; wherein the apportion section generates a replica data item by replicating the specific data item, and apportions the plurality of data items to the plurality of groups such that the specific data item and the replica data item are apportioned to at least two groups of the plurality of groups; wherein the apportion section apportions the other data items substantially equally among the plurality of groups without generating a replica of the other data items; and wherein said multiplexing section code division multiplexes said apportioned specific data item and replica data item using spreading codes which differ from one apportioned group to another. an apportion section that apportions the plurality of data items to a plurality of groups; a multiplexing section that code division multiplexes the apportioned data for each of said groups; a transmission section that transmits, to the receiving apparatus, the plurality of code division multiplexed data items in the plurality of groups using an antenna (106-1, 106-2) corresponding to each of said groups; and wherein the plurality of data items comprises at least a specific data item and other data items and the specific data item is different from the other data items; wherein the apportion section generates a replica data item by replicating the specific data item, and apportions the plurality of data items to the plurality of groups such that the specific data item and the replica data item are apportioned to at least two groups of the plurality of groups; wherein the apportion section apportions the other data items substantially equally among the plurality of groups without generating a replica of the other data items; and wherein said multiplexing section code division multiplexes said apportioned specific data item and replica data item using spreading codes which differ from one apportioned group to another.
A method for wireless communication, comprising: identifying a first transmission time interval (TTI) for reception of a first set of transmissions and a second TTI for reception of a second set of transmissions, wherein the first TTI has a longer duration than the second TTI; receiving the first set of transmissions; receiving the second set of transmissions; performing a channel estimation for the first set of transmissions based at least in part on an estimated interference from the second set of transmissions for orthogonal frequency division multiplexing (OFDM) symbols of the first set of transmissions; and demodulating the first set of transmissions based at least in part on the channel estimation for the first set of transmissions, wherein the estimated interference is averaged over two or more resource blocks (RBs) of the first set of transmissions. identifying a first transmission time interval (TTI) for reception of a first set of transmissions and a second TTI for reception of a second set of transmissions, wherein the first TTI has a longer duration than the second TTI; receiving the first set of transmissions; receiving the second set of transmissions; performing a channel estimation for the first set of transmissions based at least in part on an estimated interference from the second set of transmissions for orthogonal frequency division multiplexing (OFDM) symbols of the first set of transmissions; and demodulating the first set of transmissions based at least in part on the channel estimation for the first set of transmissions, wherein the estimated interference is averaged over two or more resource blocks (RBs) of the first set of transmissions.
A supporting structure for controlled gravity displacement of carried material characterized in that it comprises at least two spiral supports having an upper surface and a lower surface, said spiral supports form coils and have a common axis (O), wherein the vertical distance between the adjoining threads of the spiral supports is in range from 0.5m to 2.0m, the supporting structure further includes a system of vents for gas inflow to the upper surface of each spiral support that end on the upper surface of the spiral support and/or above the upper surface of the spiral support in the distance of not more than 0.7 of the vertical distance between the adjoining threads of the spiral supports , wherein the supporting structure is adapted to the rotary mounting inside an envelope with the spiral support axis (O) oriented vertically with deviation not more than 8°. said spiral supports form coils and have a common axis (O), wherein the vertical distance between the adjoining threads of the spiral supports is in range from 0.5m to 2.0m, the supporting structure further includes a system of vents for gas inflow to the upper surface of each spiral support that end on the upper surface of the spiral support and/or above the upper surface of the spiral support in the distance of not more than 0.7 of the vertical distance between the adjoining threads of the spiral supports , wherein the supporting structure is adapted to the rotary mounting inside an envelope with the spiral support axis (O) oriented vertically with deviation not more than 8°.
A turbine engine comprising an axis of rotation (A) and an annular flange for attaching a first component to a second component , the first component being a turbopump body and the second component being a turbopump turbine gas inlet duct, the annular attachment flange comprising, seen in cross-section along a plane comprising, at the axis of rotation (A), an intermediate portion in the general shape of a "U" comprising a core extended by two wings , a first end connected to the first component and a second end connected to the second component , the first component being intended to be at a first temperature (T1) and the second component being intended to be at a second temperature (T2), the second temperature (T2) being higher than the first temperature (T1), the annular attachment flange being configured so that a maximum radial displacement per unit force of the second end is greater than or equal to 10 -9 mm/N and less than or equal to 10 -4 mm/N.
Wiper device, in particular windscreen wiper device, having a fluid-guiding unit which has at least one fastening element which is provided for fastening to a wiper arm , and having at least one channel element which is formed in one piece with the fastening element , characterized in that the fastening element and the channel element are at least partially formed from different materials.
A system for calculating trajectory and/or range data of object(s) external to an aircraft , the system comprising: a light projector /34) configured to be mounted at a projector location on the aircraft and to project pulses of spatially-patterned light from the light projector onto a scene external to the aircraft, thereby providing rapidly-changing illumination of a spatially-patterned portion of the scene; a camera configured to be mounted at a camera location on the aircraft and to receive a portion of the projected pulses of spatially-patterned light reflected by the scene, and further configured to focus the received portion onto a focal plane array comprising a plurality of light-sensitive pixels, the camera having a pulse-mode in which the camera forms a pulse image comprising pixel data generated by the plurality of light-sensitive pixels, the pixel data indicative of a rate of change of light intensity focused thereon exceeding a predetermined threshold; and an image processor configured to identify pixel coordinates corresponding to a subset of the plurality of light-sensitive pixels indicative of the rate change of light intensity focused thereon exceeding a predetermined threshold, the image processor further configured to calculate, based on the projector location of the light projector, the camera location of the camera and the identified pixel coordinates, trajectory and/or range data of object(s) in the scene from which the spatially-patterned light projected by the light projector is reflected. a light projector /34) configured to be mounted at a projector location on the aircraft and to project pulses of spatially-patterned light from the light projector onto a scene external to the aircraft, thereby providing rapidly-changing illumination of a spatially-patterned portion of the scene; a camera configured to be mounted at a camera location on the aircraft and to receive a portion of the projected pulses of spatially-patterned light reflected by the scene, and further configured to focus the received portion onto a focal plane array comprising a plurality of light-sensitive pixels, the camera having a pulse-mode in which the camera forms a pulse image comprising pixel data generated by the plurality of light-sensitive pixels, the pixel data indicative of a rate of change of light intensity focused thereon exceeding a predetermined threshold; and an image processor configured to identify pixel coordinates corresponding to a subset of the plurality of light-sensitive pixels indicative of the rate change of light intensity focused thereon exceeding a predetermined threshold, the image processor further configured to calculate, based on the projector location of the light projector, the camera location of the camera and the identified pixel coordinates, trajectory and/or range data of object(s) in the scene from which the spatially-patterned light projected by the light projector is reflected.
A system for treating tissue, comprising: a clip assembly including a capsule and a pair of clip arms , each of the clip arms extending from a proximal end to a distal end, proximal ends of the clip arms slidably received within a channel of the capsule to be moved between a tissue receiving configuration, in which distal ends of the clip arms are separated from one another, and a tissue clipping configuration, in which distal ends of the clip arms are moved toward one another; a catheter assembly including a bushing and a control member extending therethrough, the control member including a distal end configured to be connected to the clip arms to move the clip assembly between the tissue receiving configuration and the tissue clipping configuration; and a coupler releasably coupled to a proximal end of the capsule and configured to be coupled to the distal end of the catheter assembly, the coupler configured to be moved proximally by drawing the control member proximally relative thereto and configured to fracture when a proximal force exerted on the coupler via the control member exceeds a first predetermined threshold value to disengage the capsule and deploy the clip assembly. a clip assembly including a capsule and a pair of clip arms , each of the clip arms extending from a proximal end to a distal end, proximal ends of the clip arms slidably received within a channel of the capsule to be moved between a tissue receiving configuration, in which distal ends of the clip arms are separated from one another, and a tissue clipping configuration, in which distal ends of the clip arms are moved toward one another; a catheter assembly including a bushing and a control member extending therethrough, the control member including a distal end configured to be connected to the clip arms to move the clip assembly between the tissue receiving configuration and the tissue clipping configuration; and a coupler releasably coupled to a proximal end of the capsule and configured to be coupled to the distal end of the catheter assembly, the coupler configured to be moved proximally by drawing the control member proximally relative thereto and configured to fracture when a proximal force exerted on the coupler via the control member exceeds a first predetermined threshold value to disengage the capsule and deploy the clip assembly.
A method comprising: receiving , by a provider client device, a route for a provider of a service to travel to a destination; receiving, by the provider client device, a view of an environment as depicted from an image capture point at or near the destination of the route, wherein the view of the environment was previously captured by an imaging device at the image capture point, the view of the environment including a marker representing a meeting point selected by a user of the service as a point within the view where the user will be waiting for the provider; monitoring , by the provider client device, traversal of the route to the destination to determine a location of the provider client device; and responsive to determining that the provider client device is within a threshold distance of the image capture point based on the location of the provider client device, displaying , on the provider client device, the view of the environment including the marker representing the meeting point for the user. receiving , by a provider client device, a route for a provider of a service to travel to a destination; receiving, by the provider client device, a view of an environment as depicted from an image capture point at or near the destination of the route, wherein the view of the environment was previously captured by an imaging device at the image capture point, the view of the environment including a marker representing a meeting point selected by a user of the service as a point within the view where the user will be waiting for the provider; monitoring , by the provider client device, traversal of the route to the destination to determine a location of the provider client device; and responsive to determining that the provider client device is within a threshold distance of the image capture point based on the location of the provider client device, displaying , on the provider client device, the view of the environment including the marker representing the meeting point for the user.