mhurhangee/patent-ind-claim-en huggingface dataset:
A system for firearm monitoring and remote support, the system comprising: a connection point configured to receive signals from a plurality of firearms within a deployment location, the signals including sensor information recorded using sensors of the firearms; and a server device configured to run application software configured to receive the signals from the connection point and process the signals to generate a graphical user interface representing positions and orientations of the firearms within the deployment location, the graphical user interface further representing cones of fire for each of the firearms, wherein: the application software configured to automatically update the graphical user interface based on the signals indicating changes in the positions and orientations of one or more of the firearms, the updated graphical user interface represents the cones of fire for at least two of the firearms as coalescing, and the coalesced cones of fire are used to detect a threat within the deployment locatior, and the updated graphical user interface visually represents the detected threat, wherein a cone of fire of a firearm represents an expected area of potential fire for the firearm. a connection point configured to receive signals from a plurality of firearms within a deployment location, the signals including sensor information recorded using sensors of the firearms; and a server device configured to run application software configured to receive the signals from the connection point and process the signals to generate a graphical user interface representing positions and orientations of the firearms within the deployment location, the graphical user interface further representing cones of fire for each of the firearms, wherein: the application software configured to automatically update the graphical user interface based on the signals indicating changes in the positions and orientations of one or more of the firearms, the updated graphical user interface represents the cones of fire for at least two of the firearms as coalescing, and the coalesced cones of fire are used to detect a threat within the deployment locatior, and the updated graphical user interface visually represents the detected threat, wherein a cone of fire of a firearm represents an expected area of potential fire for the firearm. the application software configured to automatically update the graphical user interface based on the signals indicating changes in the positions and orientations of one or more of the firearms, the updated graphical user interface represents the cones of fire for at least two of the firearms as coalescing, and the coalesced cones of fire are used to detect a threat within the deployment locatior, and the updated graphical user interface visually represents the detected threat, wherein a cone of fire of a firearm represents an expected area of potential fire for the firearm.
A method for dynamically combining cells, comprising: obtaining (S401) a quantity of user equipments UEs in a high-speed movement state in a target cell, wherein the target cell is capable of being combined with a neighboring cell of the target cell, the target cell and the neighboring cell are cells distributed along a high-speed movement path, and the UEs in the high-speed movement state are UEs that are in a connected mode and whose movement speeds are greater than a preset threshold; determining (S402) a movement direction of the UEs in the high-speed movement state when the quantity of the UEs in the high-speed movement state in the target cell is greater than the first preset quantity; combining (S403), according to the movement direction, the target cell with a neighboring cell that the UEs in the high-speed movement state are about to enter; and sending data to the UEs in the high-speed movement state by using the combined cell. obtaining (S401) a quantity of user equipments UEs in a high-speed movement state in a target cell, wherein the target cell is capable of being combined with a neighboring cell of the target cell, the target cell and the neighboring cell are cells distributed along a high-speed movement path, and the UEs in the high-speed movement state are UEs that are in a connected mode and whose movement speeds are greater than a preset threshold; determining (S402) a movement direction of the UEs in the high-speed movement state when the quantity of the UEs in the high-speed movement state in the target cell is greater than the first preset quantity; combining (S403), according to the movement direction, the target cell with a neighboring cell that the UEs in the high-speed movement state are about to enter; and sending data to the UEs in the high-speed movement state by using the combined cell.
An apparatus for controlling and regulating the filling level of a liquid in a tank (2;62) comprising: - an upper closure (20;64) of the tank (2;62); - detection means of the liquid level inside the tank (2;62); - a vertical vessel (3;33;35) associated with the tank (2;62), having an upper closure (6;26) and an open bottom in free communication with the interior of the tank (2;62) at a height below the level of the liquid inside the tank, a lower portion of the vessel being filled of liquid, an upper portion of the vessel being free of liquid; characterized in that it further comprises - external regulating means (4;26) of the pressure acting on the liquid contained in the lower portion of the vessel (3;33;35) for increasing/decreasing the liquid-free portion of the vessel and for consequently transfer part of the liquid from/to the vessel to/from the tank (2;62) through the open bottom of the vessel so compensating the changes in the liquid level inside the tank (2;62) as detected by the detection means . - an upper closure (20;64) of the tank (2;62); - detection means of the liquid level inside the tank (2;62); - a vertical vessel (3;33;35) associated with the tank (2;62), having an upper closure (6;26) and an open bottom in free communication with the interior of the tank (2;62) at a height below the level of the liquid inside the tank, a lower portion of the vessel being filled of liquid, an upper portion of the vessel being free of liquid; characterized in that it further comprises - external regulating means (4;26) of the pressure acting on the liquid contained in the lower portion of the vessel (3;33;35) for increasing/decreasing the liquid-free portion of the vessel and for consequently transfer part of the liquid from/to the vessel to/from the tank (2;62) through the open bottom of the vessel so compensating the changes in the liquid level inside the tank (2;62) as detected by the detection means .
Method for manufacturing two or more thin-walled structures , whereby the ratio of the horizontal length to the horizontal thickness of each of said thin-walled structures is larger than 10, whereby these thin-walled structures are built together and in layers by applying successive powder layers extending substantially horizontally and by moving an energy beam over each of these powder layers according to a predetermined pattern so as to make said powder melt entirely or partly and subsequently make it solidify or sinter, such that successive layers of said thin-walled structures are formed which extend according to a horizontal cross section of these structures, whereby said thin-walled structures are connected to each other over at least a part of their surface, without building a support structure round the thin walled-structures, such that these thin-walled structures form a rigid unit , whereby after said unit has been built in layers with said thin-walled structures , at least the thin-walled structures are annealed in order to at least partly eliminate any stresses present, and whereby said thin-walled structures are separated from each other, characterized in that said thin-walled structures are oriented in relation to each other such that any stresses being built up in the thin-walled structures during their manufacture will at least partly neutralize each other.
A method for wireless communications, comprising: receiving a message during a first symbol period according to a first timing configuration , wherein the message comprises one of a data message or a scheduling request, SR ; decoding the message during a decoding time period that is shorter than the first symbol period; and transmitting a response to the received message based at least in part on the decoding, the response transmitted during a second symbol period according to a second timing configuration , wherein the second timing configuration is staggered relative to the first timing configuration according to a predetermined offset that is half the length of the first symbol period, and wherein the response comprises one of a hybrid automatic repeat request, HARQ, feedback message or an uplink, UL, grant . receiving a message during a first symbol period according to a first timing configuration , wherein the message comprises one of a data message or a scheduling request, SR ; decoding the message during a decoding time period that is shorter than the first symbol period; and transmitting a response to the received message based at least in part on the decoding, the response transmitted during a second symbol period according to a second timing configuration , wherein the second timing configuration is staggered relative to the first timing configuration according to a predetermined offset that is half the length of the first symbol period, and wherein the response comprises one of a hybrid automatic repeat request, HARQ, feedback message or an uplink, UL, grant .
A method for wireless communication at a base station, comprising: receiving , from a first user equipment, UE, a discovery reference signal, DRS, initiation request; determining a discovery reference signal, DRS, interval for transmission of a DRS over a shared radio frequency spectrum band based on the DRS initiation request; determining a set of synchronization signal, SS, blocks for transmission of the DRS based at least in part on a set of transmission beams, wherein each SS block of the set of SS blocks indicates a random access configuration; transmitting , to the first user equipment, UE, over the shared radio frequency spectrum band, the set of SS blocks during the DRS interval using one or more transmission beams of the set of transmission beams; and receiving , from the first user equipment, UE, a random access message during the DRS interval based at least in part on the random access configuration for at least one SS block of the set of SS blocks. receiving , from a first user equipment, UE, a discovery reference signal, DRS, initiation request; determining a discovery reference signal, DRS, interval for transmission of a DRS over a shared radio frequency spectrum band based on the DRS initiation request; determining a set of synchronization signal, SS, blocks for transmission of the DRS based at least in part on a set of transmission beams, wherein each SS block of the set of SS blocks indicates a random access configuration; transmitting , to the first user equipment, UE, over the shared radio frequency spectrum band, the set of SS blocks during the DRS interval using one or more transmission beams of the set of transmission beams; and receiving , from the first user equipment, UE, a random access message during the DRS interval based at least in part on the random access configuration for at least one SS block of the set of SS blocks.
Mechanical motion transmission device for heat engine comprising : - a connecting rod comprising a connecting rod end intended to cooperate with a crank pin of a crankshaft and a connecting rod small end having an internal bore , - a piston having an axle hole , and - a piston pin inserted in said pin hole of said piston and in said internal bore of the small end to provide a rotary connection between said connecting rod and the said piston , characterized in that the axis of piston is covered by a surface coating (14 a) with low coefficient of friction and the shaft hole of said piston or an attached part interposed between said piston pin and the said shaft hole is covered by a covering surface (14 b) with low friction coefficient. - a connecting rod comprising a connecting rod end intended to cooperate with a crank pin of a crankshaft and a connecting rod small end having an internal bore , - a piston having an axle hole , and - a piston pin inserted in said pin hole of said piston and in said internal bore of the small end to provide a rotary connection between said connecting rod and the said piston , characterized in that the axis of piston is covered by a surface coating (14 a) with low coefficient of friction and the shaft hole of said piston or an attached part interposed between said piston pin and the said shaft hole is covered by a covering surface (14 b) with low friction coefficient.
An isolated antisense oligonucleotide (AON) capable of inducing an ex on-skipping in a dystrophin pre-mRNA, for use in the treatment of Duchenne muscular dystrophy in combination with a viral vector encoding a Duchenne muscular dystrophy therapeutic product, wherein said treatment comprises administering said oligonucleotide before administering said viral vector.
Compound according to formula (I) wherein • X and Y, either are both-CH 2 -, or one of X and Y is -CH 2 - and the other one is-O-; and • R 1 is a methyl group or an ethyl group; and • A is either carbon or oxygen; and • one of Z 1 and Z 2 represents a hydroxyl group and the other one is a hydrogen atom; and • R 2 and R 3 , independently of each other, represent a hydrogen atom, a methyl group, an ethyl group, or a CF 3 group, or R 2 and R 3 , together with the carbon they are bound to form a cyclopropyl group; and • wherein the dotted/ solid lines ( ------ ) represent either a single carbon-carbon bond or a double carbon-carbon bond, with the proviso that, if two of said bonds are double bonds, these bonds are conjugated; and • R 4 and R 5 , independently of each other, represent a hydrogen atom, a methyl group or an ethyl group. • X and Y, either are both-CH 2 -, or one of X and Y is -CH 2 - and the other one is-O-; and • R 1 is a methyl group or an ethyl group; and • A is either carbon or oxygen; and • one of Z 1 and Z 2 represents a hydroxyl group and the other one is a hydrogen atom; and • R 2 and R 3 , independently of each other, represent a hydrogen atom, a methyl group, an ethyl group, or a CF 3 group, or R 2 and R 3 , together with the carbon they are bound to form a cyclopropyl group; and • wherein the dotted/ solid lines ( ------ ) represent either a single carbon-carbon bond or a double carbon-carbon bond, with the proviso that, if two of said bonds are double bonds, these bonds are conjugated; and • R 4 and R 5 , independently of each other, represent a hydrogen atom, a methyl group or an ethyl group.
A method of adjusting positioning of a scene when displayed on a screen of a head mounted display (HMD), comprising: detecting an initial orientation of the HMD in three-dimensional space, the initial orientation of the HMD being a comfort viewing position of a user; rendering an object in the scene, the rendering causing the object to be displayed at a location in the scene as displayed on the screen of the HMD; detecting a directed orientation of the HMD in the three-dimensional space, the directed orientation being detected after the HMD is moved from the initial orientation by the user wearing the HMD in response to a prompt directing the user to observe the object in the scene; determining an offset in three-dimensional space between the initial orientation and the directed orientation; and saving the offset to a profile of the user, the offset being applied to adjust positioning of a subsequent scene when rendered for the user, such that certain objects in the subsequent scene are rendered on the screen to enable viewing of said certain objects proximate to the comfort viewing position of the user. detecting an initial orientation of the HMD in three-dimensional space, the initial orientation of the HMD being a comfort viewing position of a user; rendering an object in the scene, the rendering causing the object to be displayed at a location in the scene as displayed on the screen of the HMD; detecting a directed orientation of the HMD in the three-dimensional space, the directed orientation being detected after the HMD is moved from the initial orientation by the user wearing the HMD in response to a prompt directing the user to observe the object in the scene; determining an offset in three-dimensional space between the initial orientation and the directed orientation; and saving the offset to a profile of the user, the offset being applied to adjust positioning of a subsequent scene when rendered for the user, such that certain objects in the subsequent scene are rendered on the screen to enable viewing of said certain objects proximate to the comfort viewing position of the user.
A system comprising an integrated circuit device , preferably a microcontroller, coupled with a liquid crystal display, LCD, , wherein the LCD comprises common electrodes and segment electrodes , wherein a group of segment electrodes forms a seven segment display (210; 245) and comprises at least one associated common electrode , the integrated circuit device comprising: - a touch controller (130, 380, 390; 130, 380, 350-370) comprising at least one input, - a LCD controller comprising a plurality of outputs, - an external interface comprising a plurality of external pins and being configured to connect with the common electrodes and the segment electrodes of the LCD , - a multiplexer (150; 210; 320, 330, 340) operable in a first mode to connect through said external pins said common electrodes and the segment electrodes of the LCD with said plurality of outputs of the LCD controller and in a second mode to connect through at least one of said external pins at least one segment electrode with said touch controller (130, 380, 390; 130, 380, 350-370), and wherein the touch controller (130, 380, 390; 130, 380, 350-370) is configured to use the at least one segment electrode as a touch sensor, - characterised in that the touch controller is a capacitive voltage divider, CVD, controller , - an analog-to-digital converter, ADC, is coupled with the CVD controller and with said at least one external pin, and - a digital-to-analog converter, DAC , is coupled with the CVD controller , wherein the DAC is connected with at least some of the common electrodes in the second mode forming parasitic capacitances with the touch sensor, wherein the at least some of the common electrodes operate as guard electrodes. - a touch controller (130, 380, 390; 130, 380, 350-370) comprising at least one input, - a LCD controller comprising a plurality of outputs, - an external interface comprising a plurality of external pins and being configured to connect with the common electrodes and the segment electrodes of the LCD , - a multiplexer (150; 210; 320, 330, 340) operable in a first mode to connect through said external pins said common electrodes and the segment electrodes of the LCD with said plurality of outputs of the LCD controller and in a second mode to connect through at least one of said external pins at least one segment electrode with said touch controller (130, 380, 390; 130, 380, 350-370), and wherein the touch controller (130, 380, 390; 130, 380, 350-370) is configured to use the at least one segment electrode as a touch sensor, - characterised in that the touch controller is a capacitive voltage divider, CVD, controller , - an analog-to-digital converter, ADC, is coupled with the CVD controller and with said at least one external pin, and - a digital-to-analog converter, DAC , is coupled with the CVD controller , wherein the DAC is connected with at least some of the common electrodes in the second mode forming parasitic capacitances with the touch sensor, wherein the at least some of the common electrodes operate as guard electrodes.
A crosslinkable polyvinyl acetal porous powder, comprising crosslinkable polyvinyl acetal containing a monomer unit having a crosslinkable functional group bonded thereto through at least one bond selected from the group consisting of an ester bond, an ether bond and an urethane bond, and having a content of the crosslinkable functional group of 0.3 to 20 mol% with respect to the total of -CH 2 -CH-units in the main chain of polyvinyl acetal, wherein the crosslinkable polyvinyl acetal porous powder is formed of aggregated particles (secondary particles) in which primary particles agglomerate, and the crosslinkable polyvinyl acetal porous powder has an average particle size of the secondary particles of 30 to 10000 μm determined by a measurement using a laser diffraction method and a bulk density of 0.12 to 0.50 g/mL determined based on JIS K6721.
Connector , designed for a connection to a printed circuit board, the connector extending along a longitudinal axis (X) and comprising: - an electrically conducting body , - at least one contact accommodated, at least in part, within the body with interposition of an electrical insulator between them, - a housing defining an accommodation configured for receiving all or part of the body , the housing comprising at least one cavity , - an electrically conducting cover composed of at least one piece, inserted in the electrically conducting body , in such a manner that at least one of its main faces covers the front of the electrical insulator , in the rear part of accommodation of the latter inside of the electrically conducting body which is lacking a wall, characterized in that the cover comprises portions protruding above the body and which are arranged in the cavity of the housing , so as to form at least two blocking points, in both directions of the longitudinal direction (X), for blocking the conducting cover in the housing . - an electrically conducting body , - at least one contact accommodated, at least in part, within the body with interposition of an electrical insulator between them, - a housing defining an accommodation configured for receiving all or part of the body , the housing comprising at least one cavity , - an electrically conducting cover composed of at least one piece, inserted in the electrically conducting body , in such a manner that at least one of its main faces covers the front of the electrical insulator , in the rear part of accommodation of the latter inside of the electrically conducting body which is lacking a wall, characterized in that the cover comprises portions protruding above the body and which are arranged in the cavity of the housing , so as to form at least two blocking points, in both directions of the longitudinal direction (X), for blocking the conducting cover in the housing .
A hydraulic circuit for a hybrid drivetrain for changing the drive operating modes of a hybrid-powered motor vehicle with a first fluid flow source 12 having a first reversible pump actuator , a second fluid flow source having a second reversible pump actuator , at least four actuating devices which can be fluidly controlled in an active manner, for changing the drive operating modes, wherein a first shuttle valve is arranged between the first pump actuator and the second pump actuator , and the first actuating device and the second actuating device are fluidly connected to the first shuttle valve, so that the first actuating device and the second actuating device each can be fluidly controlled via the first pump actuator and/or the second pump actuator , wherein the first actuating device and/or the second actuating device each have a switching valve connected upstream, and the third actuating device can be fluidly controlled at least via the first pump actuator and the fourth actuating device can be fluidly controlled at least via the second pump actuator .