mhurhangee/patent-ind-claim-en huggingface dataset:
A method for transmitting and receiving a signal by a user equipment , UE, including a plurality of radio frequency, RF, modules and a plurality of antenna modules in a wireless communication system, the method comprising: transmitting, to a base station , BS, of a serving cell, channel quality indicator, CQI, information for scheduling during a measurement interval for measuring quality of one or more neighboring cells; performing communication with the BS using a first antenna module among the plural antenna modules; measuring the quality of the one or more neighboring cells using a second antenna module among the plural antenna modules during the measurement interval; and reporting, to the BS , a result of the measurement, wherein transmitting of the CQI information comprises: receiving, from the BS , configuration information about two CQI processes including a first CQI process and a second CQI process; and measuring channel quality for each of the two CQI processes, wherein the first CQI process is configured to measure channel quality when all the plural antenna modules are used to communicate with the serving cell and the second CQI process is configured to measure channel quality when partial antenna modules among the plural antenna modules are used to communicate with the serving cell. transmitting, to a base station , BS, of a serving cell, channel quality indicator, CQI, information for scheduling during a measurement interval for measuring quality of one or more neighboring cells; performing communication with the BS using a first antenna module among the plural antenna modules; measuring the quality of the one or more neighboring cells using a second antenna module among the plural antenna modules during the measurement interval; and reporting, to the BS , a result of the measurement, wherein transmitting of the CQI information comprises: receiving, from the BS , configuration information about two CQI processes including a first CQI process and a second CQI process; and measuring channel quality for each of the two CQI processes, wherein the first CQI process is configured to measure channel quality when all the plural antenna modules are used to communicate with the serving cell and the second CQI process is configured to measure channel quality when partial antenna modules among the plural antenna modules are used to communicate with the serving cell. receiving, from the BS , configuration information about two CQI processes including a first CQI process and a second CQI process; and measuring channel quality for each of the two CQI processes, wherein the first CQI process is configured to measure channel quality when all the plural antenna modules are used to communicate with the serving cell and the second CQI process is configured to measure channel quality when partial antenna modules among the plural antenna modules are used to communicate with the serving cell.
A lighting apparatus comprising: a printed circuit board ; a plurality of light sources disposed on the printed circuit board ; a reflecting unit disposed on the printed circuit board ; and a resin layer disposed on the reflecting unit to cover the light sources , wherein the reflecting unit comprises a reflective film on a first surface of the printed circuit board , wherein the reflective film comprises a plurality of holes, wherein each light source of the plurality of light sources is disposed in a respective hole of the reflective film , characterized in that the reflecting unit further comprises a transparent reflective film spaced apart from the reflective film , and a spacing member disposed between the reflective film and the transparent reflective film , and the transparent reflective film comprises a plurality of holes aligned with the holes of the reflective film , and each light source is also disposed in a respective hole of the transparent reflective film and protrudes outward through the respective hole, and the spacing member comprises a plurality of unit spacing members and a plurality of first air areas (A1). a printed circuit board ; a plurality of light sources disposed on the printed circuit board ; a reflecting unit disposed on the printed circuit board ; and a resin layer disposed on the reflecting unit to cover the light sources , wherein the reflecting unit comprises a reflective film on a first surface of the printed circuit board , wherein the reflective film comprises a plurality of holes, wherein each light source of the plurality of light sources is disposed in a respective hole of the reflective film , characterized in that the reflecting unit further comprises a transparent reflective film spaced apart from the reflective film , and a spacing member disposed between the reflective film and the transparent reflective film , and the transparent reflective film comprises a plurality of holes aligned with the holes of the reflective film , and each light source is also disposed in a respective hole of the transparent reflective film and protrudes outward through the respective hole, and the spacing member comprises a plurality of unit spacing members and a plurality of first air areas (A1).
A catheter for fluid delivery into a tissue outside of an interior wall of a target vessel of a human body comprising: a catheter body having a central axis extending in a longitudinal direction and also having a fluid injection lumen; at least two needle guiding elements adapted to expand outwardly toward the interior wall of the target vessel; at least two injector tubes, each injector tube having an injector tube lumen with a lumen diameter, each injector tube further connected to a distal sharpened needle configured to penetrate the vessel wall, each injector tube lumen being in fluid communication with the fluid injection lumen of the catheter body, each injector tube adapted to be advanced outwardly, guided by one needle guiding element, each distal sharpened needle having a distal opening for fluid delivery into the tissue outside of the interior wall of the target vessel, wherein each injector tube is advanced coaxially through one needle guiding element: each injector tube having a wire located inside the injector tube lumen, the wire extending into a distal portion of the injector tube, the wire having a diameter of at least half of the lumen diameter of the injector tube lumen, wherein the combination of residual cross-sectional areas of the injector tube lumens of the at least two injector tubes with inserted wires together are less than the total cross-sectional area of the fluid injection lumen of the catheter body to equalize the flow rate between the at least two injector tubes. a catheter body having a central axis extending in a longitudinal direction and also having a fluid injection lumen; at least two needle guiding elements adapted to expand outwardly toward the interior wall of the target vessel; at least two injector tubes, each injector tube having an injector tube lumen with a lumen diameter, each injector tube further connected to a distal sharpened needle configured to penetrate the vessel wall, each injector tube lumen being in fluid communication with the fluid injection lumen of the catheter body, each injector tube adapted to be advanced outwardly, guided by one needle guiding element, each distal sharpened needle having a distal opening for fluid delivery into the tissue outside of the interior wall of the target vessel, wherein each injector tube is advanced coaxially through one needle guiding element: each injector tube having a wire located inside the injector tube lumen, the wire extending into a distal portion of the injector tube, the wire having a diameter of at least half of the lumen diameter of the injector tube lumen, wherein the combination of residual cross-sectional areas of the injector tube lumens of the at least two injector tubes with inserted wires together are less than the total cross-sectional area of the fluid injection lumen of the catheter body to equalize the flow rate between the at least two injector tubes.
A tank for an aircraft turbojet, and in particular an oil tank for an aircraft turbojet, the tank comprising: - a cavity capable of containing a liquid; - an envelope delimiting the cavity ; and - a device (4.1, 4.2, 4.3, 14.n, 20, 30) for measuring the volume of liquid contained in said cavity ; characterised in that the measuring device (4.1, 4.2, 4.3, 14.n, 20, 30) comprises at least three liquid detection point sensors, said at least three point sensors being disposed on the envelope so as to describe a polygon (T, Tn); the measuring device (4.1, 4.2, 4.3, 14.n, 20, 30) is configured to estimate the total volume of liquid contained in the cavity by triangulation from the measurements of the at least three point sensors; and in that the at least three point sensors define a plane (P) whose intersection with the envelope defines a section (S) of the tank , the measuring device (4.1, 4.2, 4.3, 14.n, 20, 30) being configured to calculate the proportion of said section (S) and/or the proportion of the area of said polygon that is occupied by the liquid to estimate the total volume of liquid. - a cavity capable of containing a liquid; - an envelope delimiting the cavity ; and - a device (4.1, 4.2, 4.3, 14.n, 20, 30) for measuring the volume of liquid contained in said cavity ;
A processor package comprising: a first core ; a local cache in the first core; and an inter-node messaging controller , INMC, in the first core, wherein the INMC is configured to: receive an inter-node message from a sender thread executing on the first core, wherein the message is directed to a receiver thread executing on a second core; in response to receiving the inter-node message, store a payload from the inter-node message in a local message queue in the local cache of the first core; after storing the payload from the inter-node message in the local message queue, use a remote atomic operation, RAO, to reserve a location at a tail of a shared message queue in a local cache of the second core , wherein the shared message queue is monitored by the receiver thread; and after reserving the location at the tail of the shared message queue, use an inter-node-put operation to write the payload directly to the local cache of the second core. a first core ; a local cache in the first core; and an inter-node messaging controller , INMC, in the first core, wherein the INMC is configured to: receive an inter-node message from a sender thread executing on the first core, wherein the message is directed to a receiver thread executing on a second core; in response to receiving the inter-node message, store a payload from the inter-node message in a local message queue in the local cache of the first core; after storing the payload from the inter-node message in the local message queue, use a remote atomic operation, RAO, to reserve a location at a tail of a shared message queue in a local cache of the second core , wherein the shared message queue is monitored by the receiver thread; and after reserving the location at the tail of the shared message queue, use an inter-node-put operation to write the payload directly to the local cache of the second core. receive an inter-node message from a sender thread executing on the first core, wherein the message is directed to a receiver thread executing on a second core; in response to receiving the inter-node message, store a payload from the inter-node message in a local message queue in the local cache of the first core; after storing the payload from the inter-node message in the local message queue, use a remote atomic operation, RAO, to reserve a location at a tail of a shared message queue in a local cache of the second core , wherein the shared message queue is monitored by the receiver thread; and after reserving the location at the tail of the shared message queue, use an inter-node-put operation to write the payload directly to the local cache of the second core.
A diesel fuel injection system in a motor vehicle provided with a diesel engine ; the system comprising: - a common rail ; - a filter arranged along a duct which delivers diesel fuel to said common rail ; - a heater ; - control means configured so as to activate/deactivate said heater in response to signals that are received and on the basis of algorithms implemented in said control means ; said control means being configured so as to activate said heater in response to an activation signal indicating an event leading to the opening of a driver side door of said vehicle ; characterised in that said heater is housed in said filter , and said control means is configured so as to deactivate said heater when the outside temperature is above a given threshold. - a common rail ; - a filter arranged along a duct which delivers diesel fuel to said common rail ; - a heater ; - control means configured so as to activate/deactivate said heater in response to signals that are received and on the basis of algorithms implemented in said control means ;
A method for logging in a user on a service provider , the method comprising: - transferring a first financial value from the user to a token provider for a temporary login token ; - performing a login attempt on the service provider , wherein the login attempt requires user specific login data and the temporary login token ; - transferring a second financial value to the user and invalidating the temporary login token if the login on the service provider was successful within a predefined number of login attempts, wherein the second financial value has substantially the same value as the first financial value . - transferring a first financial value from the user to a token provider for a temporary login token ; - performing a login attempt on the service provider , wherein the login attempt requires user specific login data and the temporary login token ; - transferring a second financial value to the user and invalidating the temporary login token if the login on the service provider was successful within a predefined number of login attempts, wherein the second financial value has substantially the same value as the first financial value .
Rubber patch for attaching an electronic member to the surface of a tyre , comprising a base and a retaining wall connected to said base and defining an internal volume able to accommodate said electronic member, the retaining wall comprising an opening designed for the insertion and extraction of said electronic member into and from the internal volume , characterized in that said rubber patch is based on a non-halogenated butyl rubber, in that the non-halogenated butyl rubber is the only elastomer in the compound of which the patch is made and in that the exterior surface of said base of said rubber patch has a convex toric shape of which the smallest radius of curvature in the main directions of the toric surface is comprised between 0.2 and 0.6 metres.
Electric machine consisting of a machine part equipped with coils and a machine part movable in rotation or translation, wherein at least one rolling element is provided between the machine part equipped with coils and the movable machine part , which rolling element at least temporarily conducts a magnetic flux that returns via the rolling element to the machine part equipped with coils and generates a torque of the rolling element around the current rolling point of the rolling element on the machine part equipped with coils , wherein the electric machine comprises form-fitting modifications of the rolling surface of the rolling element , wherein the electromagnetically generated torque of the rolling elements is transmitted in a form-fitting manner into the machine part movable in rotation or translation, characterized in that the cross-section of the rolling element is a curve of constant width .
A microneedle array comprising a first line composed of a plurality of first microneedles that are inclined with respect to a support face ; and a second line composed of a plurality of second microneedles that are inclined with respect to the support face , wherein the first line and the second line extend radially, and wherein directions in which both the plurality of the first microneedles and the plurality of the second microneedles point are unified into one of a clockwise direction and a counterclockwise direction, and wherein tips of the plurality of the first microneedles point in a first direction (Da) and tips of the plurality of the second microneedles point in a second direction (Db) different from the first direction (Da), and wherein the first microneedle in contact with skin is stuck into the skin while rotationally moving in the first direction (Da) along a surface of the skin, and the second microneedle in contact with the skin is stuck into the skin while rotationally moving in the second direction (Db) along the surface of the skin. a second line composed of a plurality of second microneedles that are inclined with respect to the support face , wherein the first line and the second line extend radially, and wherein directions in which both the plurality of the first microneedles and the plurality of the second microneedles point are unified into one of a clockwise direction and a counterclockwise direction, and wherein
A support system for a horological component , in particular for a horological component comprising a surface generated by revolution and/or an axis (A9), the support system comprising: - a positioning device , in particular a centering device, for the horological component in relation to an axis (A) of the system, and - a holding device for the horological component , the positioning device and holding device being independent and/or distinct, wherein the positioning device comprises positioning elements , in particular rollers , which can be displaced in a first direction , in particular a first radial direction in relation to the axis (A) of the support system and/or the positioning device comprises positioning elements , in particular rollers , which can be each displaced in a different direction or in its own direction. - a positioning device , in particular a centering device, for the horological component in relation to an axis (A) of the system, and - a holding device for the horological component , the positioning device and holding device being independent and/or distinct, wherein the positioning device comprises positioning elements , in particular rollers , which can be displaced in a first direction , in particular a first radial direction in relation to the axis (A) of the support system and/or the positioning device comprises positioning elements , in particular rollers , which can be each displaced in a different direction or in its own direction.
A stand placed on a placement surface and configured to support a device body of an electronic device , the stand comprising: a base including a lower surface that faces the placement surface ; a suction member that is elastic, faces the lower surface of the base , includes a suction surface that adheres to the placement surface by negative pressure generated in a gap between the placement surface and the suction surface , and includes a ventilation hole that is in fluid communication with the gap ; and a slide valve that is located between the base and the suction member and slides between an opened position and a closed position along the lower surface of the base , the opened position being a position at which the ventilation hole is opened to let air into the gap , the closed position being a position at which the ventilation hole is closed to interrupt air into the gap , and when the slide valve in the closed position, the suction member generates the negative pressure in the gap by elastically deforming in a direction away from the placement surface when the stand is under an external force acting in the direction away from the placement surface . a base including a lower surface that faces the placement surface ; a suction member that is elastic, faces the lower surface of the base , includes a suction surface that adheres to the placement surface by negative pressure generated in a gap between the placement surface and the suction surface , and includes a ventilation hole that is in fluid communication with the gap ; and a slide valve that is located between the base and the suction member and slides between an opened position and a closed position along the lower surface of the base , the opened position being a position at which the ventilation hole is opened to let air into the gap , the closed position being a position at which the ventilation hole is closed to interrupt air into the gap , and when the slide valve in the closed position, the suction member generates the negative pressure in the gap by elastically deforming in a direction away from the placement surface when the stand is under an external force acting in the direction away from the placement surface .
A process for preparing a functionalized olefin multiblock interpolymer, said process comprising: A) grafting onto the backbone of an olefin multiblock interpolymer at least one compound comprising at least one "amine-reactive" group to form a grafted olefin multiblock interpolymer; B) reacting a compound selected from a primary-secondary diamine and an alkanolamine with the grafted olefin multiblock interpolymer; and wherein step B) takes place subsequent to step A), without the isolation of the grafted olefin multiblock interpolymer, and wherein both steps A) and B) take place in a melt reaction. A) grafting onto the backbone of an olefin multiblock interpolymer at least one compound comprising at least one "amine-reactive" group to form a grafted olefin multiblock interpolymer; B) reacting a compound selected from a primary-secondary diamine and an alkanolamine with the grafted olefin multiblock interpolymer; and wherein step B) takes place subsequent to step A), without the isolation of the grafted olefin multiblock interpolymer, and wherein both steps A) and B) take place in a melt reaction.