mhurhangee/patent-ind-claim-en huggingface dataset:
A method of performing measurement by a user equipment, UE, in a wireless communication system supporting time division duplex, TDD, the method comprising: receiving (i) first information regarding slots, in which to measure a received signal strength indicator, RSSI, from among a plurality of slots included in a measurement window and (ii) second information regarding a set of orthogonal frequency division multiplexing, OFDM, symbol locations in which to measure the RSSI, and the method characterized in that : the second information comprises information indicating one of a plurality of predefined formats, wherein each of the plurality of predefined formats represents a different set of OFDM symbol locations, within a slot, in which to measure the RSSI, and the method further comprises: measuring the RSSI in the set of OFDM symbol locations represented by the predefined format indicated by the second information, for each slot in the slots indicated by the first information. receiving (i) first information regarding slots, in which to measure a received signal strength indicator, RSSI, from among a plurality of slots included in a measurement window and (ii) second information regarding a set of orthogonal frequency division multiplexing, OFDM, symbol locations in which to measure the RSSI, and the method characterized in that : the second information comprises information indicating one of a plurality of predefined formats, wherein each of the plurality of predefined formats represents a different set of OFDM symbol locations, within a slot, in which to measure the RSSI, and the method further comprises: measuring the RSSI in the set of OFDM symbol locations represented by the predefined format indicated by the second information, for each slot in the slots indicated by the first information.
A method for estimating a position of a vehicle relative to one or more fixed or mobile radio transceivers , the method comprising; obtaining (S1) vehicle motion data related to a trajectory (T) of the vehicle ; obtaining (S2) propagation delay data associated with radio transmission between a vehicle transceiver comprised in the vehicle and the one or more radio transceivers ; identifying (S3) one or more multipath components , MPC, in the propagation delay data , where each MPC relates to a radio transmission propagation path (D, I) between a fixed radio transceiver and the vehicle transceiver , and where at least one MPC relates to an indirect radio transmission propagation path (I) between a fixed radio transceiver and the vehicle transceiver ; determining (S4) an MPC track for each identified MPC based on the vehicle motion data and on the propagation delay data , where an MPC track represents an evolution of the respective MPC over time; and estimating (S5) the position of the vehicle relative to the one or more radio transceivers based on the MPC tracks, characterised in that the identifying comprises detecting (S31) propagation paths, grouping detected paths within a defined distance and based on respective propagation path delay, and identifying each group of propagation paths as a single MPC having a respective MPC delay value. obtaining (S1) vehicle motion data related to a trajectory (T) of the vehicle ; obtaining (S2) propagation delay data associated with radio transmission between a vehicle transceiver comprised in the vehicle and the one or more radio transceivers ; identifying (S3) one or more multipath components , MPC, in the propagation delay data , where each MPC relates to a radio transmission propagation path (D, I) between a fixed radio transceiver and the vehicle transceiver , and where at least one MPC relates to an indirect radio transmission propagation path (I) between a fixed radio transceiver and the vehicle transceiver ; determining (S4) an MPC track for each identified MPC based on the vehicle motion data and on the propagation delay data , where an MPC track represents an evolution of the respective MPC over time; and estimating (S5) the position of the vehicle relative to the one or more radio transceivers based on the MPC tracks, characterised in that the identifying comprises detecting (S31) propagation paths, grouping detected paths within a defined distance and based on respective propagation path delay, and identifying each group of propagation paths as a single MPC having a respective MPC delay value.
A cleaning unit for a printing device configured to perform a viscous fluid printing process on a printing target using a screen mask (M), the cleaning unit comprising: a cleaning head configured to move a cleaning member for cleaning the screen mask (M) between a cleaning position where the cleaning member is configured to be brought into contact with the screen mask (M) and a standby position, and is configured to clean the screen mask (M) at the cleaning position; a cleaning member holder configured to support a first shaft and a second shaft , which are configured to wind the cleaning member in a bridged state, the cleaning member holder having an opening section allowing the cleaning head to pass therethrough; a base section configured to detachably fix the cleaning member holder at a fixing position; and a cleaning driving section having a connecting section configured to connect and disconnect to and from the first shaft in the cleaning member holder , the cleaning driving section driving the first shaft to wind the cleaning member , thereby cleaning screen mask (M) characterized by: a holder moving section configured to move the cleaning member holder between the fixing position of the base section and a replacing position where the cleaning member holder is detached from the base section and is unloaded to an outside. a cleaning head configured to move a cleaning member for cleaning the screen mask (M) between a cleaning position where the cleaning member is configured to be brought into contact with the screen mask (M) and a standby position, and is configured to clean the screen mask (M) at the cleaning position; a cleaning member holder configured to support a first shaft and a second shaft , which are configured to wind the cleaning member in a bridged state, the cleaning member holder having an opening section allowing the cleaning head to pass therethrough; a base section configured to detachably fix the cleaning member holder at a fixing position; and a cleaning driving section having a connecting section configured to connect and disconnect to and from the first shaft in the cleaning member holder , the cleaning driving section driving the first shaft to wind the cleaning member , thereby cleaning screen mask (M) characterized by: a holder moving section configured to move the cleaning member holder between the fixing position of the base section and a replacing position where the cleaning member holder is detached from the base section and is unloaded to an outside.
Device for collecting vegetables such as melons including a chassis , a collection unit , and securing means capable of linking said chassis to an agricultural vehicle , said collection unit including means for guiding the vegetables, means for transferring the vegetables onto a conveyor and at least one conveyor , characterised in that said chassis comprises means for supporting said collection unit , including a bearing structure on which said collection unit rests, said structure including upper and lower arms connected by at least one jack allowing for damping and adjustment according to the load of said collection unit, allowing said supporting means to place said collection unit in a cantilevered fashion so as to limit the force exerted on the ground by said collection unit .
Lighting module for a motor vehicle headlamp, said module comprising: - at least one first light source able to emit light radiation; - at least one processing device able to generate a light flux from said light radiation; and - an imaging optical system able to project an exit beam from said light flux; the lighting module comprising means for controlling an angular aperture of said exit beam, said angular aperture being chosen from a first aperture and a second aperture , said first aperture corresponding to a wider angle than said second aperture, so that, for a given intensity of the light radiation of the first light source, the exit beam corresponding to the second aperture has a higher light intensity than the exit beam corresponding to the first aperture, the lighting module furthermore comprising means for modifying over time a light intensity of at least one portion of the exit beam, independently of the angular aperture of said exit beam, and wherein the at least one processing device comprises a matrix array of micro-mirrors that are orientable independently of one another, said matrix array of micro-mirrors being able to generate a light flux in the direction of the imaging optical system. - at least one first light source able to emit light radiation; - at least one processing device able to generate a light flux from said light radiation; and - an imaging optical system able to project an exit beam from said light flux;
Device for descaling a workpiece , preferably a hot-rolled product, comprising at least one head element at which a plurality of jet nozzles is mounted, wherein a liquid in the form of water can be delivered from the jet nozzles to the workpiece at an angle (α) of incidence obliquely with respect to an orthogonal to a surface of the workpiece , and a roller path on which the workpiece is movable in a movement direction (X) relative to the head element , characterised in that means in the form of at least one container for receiving or transporting away scale (Z) which has been removed from a surface of the workpiece by the liquid delivered from the jet nozzles are arranged below the roller path and a base region of the container is provided with drainage openings. at least one head element at which a plurality of jet nozzles is mounted, wherein a liquid in the form of water can be delivered from the jet nozzles to the workpiece at an angle (α) of incidence obliquely with respect to an orthogonal to a surface of the workpiece , and a roller path on which the workpiece is movable in a movement direction (X) relative to the head element , characterised in that means in the form of at least one container for receiving or transporting away scale (Z) which has been removed from a surface of the workpiece by the liquid delivered from the jet nozzles are arranged below the roller path and a base region of the container is provided with drainage openings.
Measuring unit for a portable gas analysis device, in particular for highly volatile compounds, wherein the measuring unit comprises a separation column having a detector and a casing enclosing the separation column on the inside and outside, wherein the casing consists of a heat-conductive, in particular metallic material and has a thermal stabilization unit , which comprises a temperature sensor and a heating element on the casing , characterized in that the separation column is embodied as a multi-capillary unit made of capillaries arranged in parallel in bent form, and the casing is embodied as enclosing the multi-capillary unit and is provided with a common connector block (2, 2', 2'', 2*) also of heat-conductive material, in which connections of the capillaries and of supply/exhaust lines for the capillaries are combined.
A capacitive microelectromechanical system (MEMS) with electrostatic actuator comprising: - a stack comprising a substrate , a line for transmitting radio frequencies in a longitudinal direction (d Long ), a dielectric layer , a passivation layer located between the substrate and the dielectric layer , comprising a housing , inside which the radiofrequency transmission line is disposed, the upper surface of the stack being flat; - a common electrode connected to ground and disposed on the surface of the stack on the dielectric layer, and outside the surface located substantially above the transmission line ; - a metal membrane and two pillars (2a; 2b), the two pillars being disposed on the common electrode and supporting the metal membrane , the height of the pillars (2a; 2b) being between 100 nm and 500 nm. - a stack comprising a substrate , a line for transmitting radio frequencies in a longitudinal direction (d Long ), a dielectric layer , a passivation layer located between the substrate and the dielectric layer , comprising a housing , inside which the radiofrequency transmission line is disposed, the upper surface of the stack being flat; - a common electrode connected to ground and disposed on the surface of the stack on the dielectric layer, and outside the surface located substantially above the transmission line ; - a metal membrane and two pillars (2a; 2b), the two pillars being disposed on the common electrode and supporting the metal membrane , the height of the pillars (2a; 2b) being between 100 nm and 500 nm.
A metering pump , comprising: a pump housing having an axial bore and a slot parallel to an axis of the axial bore; a drive nut having a bore with internal threads and having an opening, the drive nut disposed in the axial bore of the pump housing ; an anti-rotation guide pin at least partially disposed in the opening of the drive nut and extending into the slot of the pump housing ; a lead screw having a threaded outer surface in engagement with the threaded bore of the drive nut ; and a pusher element secured to the drive nut and having a convex surface ; and a plunger having an end in contact with the convex surface of the pusher element, wherein a rotation of the lead screw imparts an axial translation to the drive nut , pusher element and plunger . a pump housing having an axial bore and a slot parallel to an axis of the axial bore; a drive nut having a bore with internal threads and having an opening, the drive nut disposed in the axial bore of the pump housing ; an anti-rotation guide pin at least partially disposed in the opening of the drive nut and extending into the slot of the pump housing ; a lead screw having a threaded outer surface in engagement with the threaded bore of the drive nut ; and a pusher element secured to the drive nut and having a convex surface ; and a plunger having an end in contact with the convex surface of the pusher element, wherein a rotation of the lead screw imparts an axial translation to the drive nut , pusher element and plunger .
A method to configure a parameter used to operate a cell belonging to a network of cells, using a radio environment map, composed of following operations: i. before a configuration of any cell, performing following steps,: a. splitting a geographic area over which said network of cells is deployed into a set of Level 1-Radio Blocks, b. pre-allocating, to each Level 1-Radio Block, a pool of values containing a subset of values that can be assigned to said parameter, c. splitting the geographic area over which said network of cells is deployed into a set of Level 2-Radio Blocks. ii. for each new cell deployed, performing the following steps: a. computing, at each Level 2-Radio Block, an estimated Received Signal Strength of said cell, and storing the result in a radio environment map, b. identifying, using the radio environment map, the Level 1-Radio Block associated with said cell, based on a number of Level 2-Radio Blocks over which the estimated Received Signal Strength of said cell is beyond a pre-defined threshold, c. selecting a value, from the pool of values pre-allocated to the Level 1-Radio Block identified in step ii.b, and removing this value from the pool. i. before a configuration of any cell, performing following steps,: a. splitting a geographic area over which said network of cells is deployed into a set of Level 1-Radio Blocks, b. pre-allocating, to each Level 1-Radio Block, a pool of values containing a subset of values that can be assigned to said parameter, c. splitting the geographic area over which said network of cells is deployed into a set of Level 2-Radio Blocks. a. splitting a geographic area over which said network of cells is deployed into a set of Level 1-Radio Blocks, b. pre-allocating, to each Level 1-Radio Block, a pool of values containing a subset of values that can be assigned to said parameter, c. splitting the geographic area over which said network of cells is deployed into a set of Level 2-Radio Blocks. ii. for each new cell deployed, performing the following steps: a. computing, at each Level 2-Radio Block, an estimated Received Signal Strength of said cell, and storing the result in a radio environment map, b. identifying, using the radio environment map, the Level 1-Radio Block associated with said cell, based on a number of Level 2-Radio Blocks over which the estimated Received Signal Strength of said cell is beyond a pre-defined threshold, c. selecting a value, from the pool of values pre-allocated to the Level 1-Radio Block identified in step ii.b, and removing this value from the pool. a. computing, at each Level 2-Radio Block, an estimated Received Signal Strength of said cell, and storing the result in a radio environment map, b. identifying, using the radio environment map, the Level 1-Radio Block associated with said cell, based on a number of Level 2-Radio Blocks over which the estimated Received Signal Strength of said cell is beyond a pre-defined threshold, c. selecting a value, from the pool of values pre-allocated to the Level 1-Radio Block identified in step ii.b, and removing this value from the pool.
An upper-body garment with a torso region having a first sleeve opening , and a second sleeve opening , the upper-body garment comprising: a plurality of panels extending across a back aspect of the torso region and around a first side and a second opposite side of the torso region inferior to the first sleeve opening and the second sleeve opening respectively, each of the plurality of panels including a first terminal end and a second terminal end ; and at least a first front panel extending across a first reference line that passes through the first terminal end of at least one of the plurality of panels and is parallel to a front midline of the upper-body garment ; the upper-body garment being characterized in that , the plurality of panels include an upper panel having a bottom edge , and a lower panel having a top edge , and wherein the bottom edge of the upper panel overlaps the top edge of the lower panel to form a vent opening between the bottom edge and the top edge . a plurality of panels extending across a back aspect of the torso region and around a first side and a second opposite side of the torso region inferior to the first sleeve opening and the second sleeve opening respectively, each of the plurality of panels including a first terminal end and a second terminal end ; and at least a first front panel extending across a first reference line that passes through the first terminal end of at least one of the plurality of panels and is parallel to a front midline of the upper-body garment ; the upper-body garment being characterized in that , the plurality of panels include an upper panel having a bottom edge , and a lower panel having a top edge , and wherein the bottom edge of the upper panel overlaps the top edge of the lower panel to form a vent opening between the bottom edge and the top edge .
Device for the pneumatic conveyance of powdered material, in particular powder coating material, with a cylindrical conveying chamber , which alternately can be connected with a reservoir by a sealable inlet and with a delivery line by a sealable outlet , wherein the conveying chamber comprises a bordering wall formed by a gas-permeable filter element and can be applied with negative pressure by means of the filter element to draw gas from the conveying chamber and to fill the conveying chamber , with its outlet closed through the inlet opened , with material from the reservoir , and which can be applied by a pressurized gas, in order to push the material drawn into the conveying chamber , with the inlet closed through the outlet opened, into the delivery line , wherein the filter element is designed as a hollow cylinder and surrounds at least a portion of the conveying chamber , wherein the inlet and the outlet are arranged on opposite face ends of the conveying chamber , wherein the filter element is surrounded by a housing , which is separated from the filter element by a cylindrical annular space , wherein a first connection for the application of the cylindrical annular space with a negative pressure U and a second connection for the application of the cylindrical annular space with compressed air P are arranged, characterized in that the first connection is arranged near the outlet-side face end of the filter element and the second connection is arranged near the inlet-side face end of the filter element .
A multilayered wound care product comprising: (a) an upper liquid-absorbing layer; (b) an intermediate occlusive layer impermeable to fluid and gases; and (c) an active agent-releasing bottom layer; wherein the occlusive layer and the active agent-releasing layer are sheet-like layers with common pores or perforations that enable the passage of wound exudate through the common pores or perforations of the said two layers to reach the liquid-absorbing layer, wherein the active agent-releasing layer comprises an active agent being a therapeutic gas, wherein the wound care product further comprises a gas-permeable layer oriented towards the wound area. (a) an upper liquid-absorbing layer; (b) an intermediate occlusive layer impermeable to fluid and gases; and (c) an active agent-releasing bottom layer; wherein the occlusive layer and the active agent-releasing layer are sheet-like layers with common pores or perforations that enable the passage of wound exudate through the common pores or perforations of the said two layers to reach the liquid-absorbing layer, wherein the active agent-releasing layer comprises an active agent being a therapeutic gas, wherein the wound care product further comprises a gas-permeable layer oriented towards the wound area.
A service processing method, comprising: determining , by a control device, that a site receives a first service, wherein the first service is transmitted from a first line board included in an original routing path of the first service, and the original routing path of the first service includes the first line board connected to a first local dimension, wherein the first local dimension is a first wavelength selective switch located on an add/drop side; determining , by the control device, that a mapping wavelength of the first service is blocked on the original routing path of the first service, when a wavelength occupied by the first local dimension comprises the mapping wavelength of the first service; and routing , by the control device, the first service to a second line board connected to a second local dimension, wherein the second local dimension is a second wavelength selective switch located on the add/drop side, and wherein the mapping wavelength of the first service is available in the second local dimension. determining , by a control device, that a site receives a first service, wherein the first service is transmitted from a first line board included in an original routing path of the first service, and the original routing path of the first service includes the first line board connected to a first local dimension, wherein the first local dimension is a first wavelength selective switch located on an add/drop side; determining , by the control device, that a mapping wavelength of the first service is blocked on the original routing path of the first service, when a wavelength occupied by the first local dimension comprises the mapping wavelength of the first service; and routing , by the control device, the first service to a second line board connected to a second local dimension, wherein the second local dimension is a second wavelength selective switch located on the add/drop side, and wherein the mapping wavelength of the first service is available in the second local dimension.