mhurhangee/patent-ind-claim-en huggingface dataset:
A combustor comprising: an annular combustor chamber formed between an inner liner and an outer liner spaced apart from the inner liner ; and an annular fuel manifold having fuel nozzles distributed circumferentially on the fuel manifold ; the fuel manifold and fuel nozzles being positioned entirely inside the combustion chamber; wherein the fuel manifold is connected to and supported by at least one of the liners of the combustor ; the inner liner and outer liner each have an upstream radial portion receiving at least a portion of the fuel manifold ; the combustor further comprising: radial pins connected to a support portion of the annular combustor chamber defined at a junction of the liners at the upstream radial portions and connected to the fuel manifold . an annular combustor chamber formed between an inner liner and an outer liner spaced apart from the inner liner ; and an annular fuel manifold having fuel nozzles distributed circumferentially on the fuel manifold ; the fuel manifold and fuel nozzles being positioned entirely inside the combustion chamber; wherein the fuel manifold is connected to and supported by at least one of the liners of the combustor ; the inner liner and outer liner each have an upstream radial portion receiving at least a portion of the fuel manifold ; the combustor further comprising: radial pins connected to a support portion of the annular combustor chamber defined at a junction of the liners at the upstream radial portions and connected to the fuel manifold .
A monoclonal antibody or a fragment consisting of a functional fragment thereof, specifically binding to a region of Aggrus consisting of the amino acid sequence represented by SEQ ID NO: 3 (RIEDL), and having a dissociation constant (K D ) for Aggrus of ≤ 3 × 10 -10 M, as measured by BIACORE wherein said functional fragment is selected from the group consisting of Fab, Fab', F(ab') 2 , a single chain antibody (scFv), and a disulfide-stabilized V fragment (dsFv), said monoclonal antibody and said functional fragment thereof inhibiting the interaction between Aggrus and CLEC-2.
A display panel, comprising: a display panel body ; and an encapsulation layer disposed on the display panel body , wherein the encapsulation layer has a gradually increasing thickness in a direction from a central position of the display panel to an edge position of the display panel, wherein the display panel body comprises a base substrate and one or more pixel units disposed on the base substrate , the display panel being characterized by further comprising: a pixel-defining layer being configured to define a light emitting element of the one or more pixel units and that has a gradually increasing thickness in the direction from the central position of the display panel to the edge position of the display panel. a display panel body ; and an encapsulation layer disposed on the display panel body , wherein the encapsulation layer has a gradually increasing thickness in a direction from a central position of the display panel to an edge position of the display panel, wherein the display panel body comprises a base substrate and one or more pixel units disposed on the base substrate , the display panel being characterized by further comprising: a pixel-defining layer being configured to define a light emitting element of the one or more pixel units and that has a gradually increasing thickness in the direction from the central position of the display panel to the edge position of the display panel.
Method for facilitating the steering of a hybrid rotorcraft , said hybrid rotorcraft including a lift rotor provided with a plurality of first blades having a first variable pitch at least for contributing to the lift of the hybrid rotorcraft , the hybrid rotorcraft having a propulsion system comprising at least one propulsion rotor provided with a plurality of second blades having a second variable pitch at least for contributing to the propulsion of the hybrid rotorcraft , said hybrid rotorcraft having a powerplant provided with at least one engine that operates at at least one speed for rotating said lift rotor and each propulsion rotor of said at least one propulsion rotor , said at least one speed being associated with at least one limit for at least one monitoring parameter (T4, NG, TQ) of the powerplant, characterised in that that said method comprises the steps of: - for at least one said speed, known as the monitored speed, determining, by means of an on-board computer , a first power margin of the powerplant available for the lift rotor and at least a second power margin of the powerplant available for said at least one propulsion rotor, - displaying, in a single indicator , a line separating a first side and a second side of the indicator , - displaying, in said single indicator , a first index pointing to said line to illustrate a current operating point of the lift rotor and displaying, in said single indicator , a second index pointing to said line to illustrate a current operating point of said at least one propulsion rotor , and - for each monitored speed, displaying, on command from said on-board computer , a first symbol separated from the first index by a first distance (D1) illustrating the first power margin (MRGPROT) at this monitored speed, and displaying, on command from said on-board computer , a second symbol which includes at least one pointer separated from the second index by a second distance (D2) illustrating at least a second power margin (MRGPHEL) at this monitored speed. - for at least one said speed, known as the monitored speed, determining, by means of an on-board computer , a first power margin of the powerplant available for the lift rotor and at least a second power margin of the powerplant available for said at least one propulsion rotor, - displaying, in a single indicator , a line separating a first side and a second side of the indicator , - displaying, in said single indicator , a first index pointing to said line to illustrate a current operating point of the lift rotor and displaying, in said single indicator , a second index pointing to said line to illustrate a current operating point of said at least one propulsion rotor , and - for each monitored speed, displaying, on command from said on-board computer , a first symbol separated from the first index by a first distance (D1) illustrating the first power margin (MRGPROT) at this monitored speed, and displaying, on command from said on-board computer , a second symbol which includes at least one pointer separated from the second index by a second distance (D2) illustrating at least a second power margin (MRGPHEL) at this monitored speed.
A discoverer Wireless Transmit/Receive Unit, WTRU, , comprising a processor , a memory , communication circuitry , and computer-executable instructions stored in the memory which, when executed by the processor, cause the discoverer WTRU to: send, via a sidelink communication logical channel, a discovery announcement using a logical channel identity of the sidelink communication logical channel, the discovery announcement further comprising one or more criteria for one or more services sought by the discoverer WTRU , wherein the sidelink communication logical channel is a separate logical channel, specific to the transmission of discovery announcements; configure the communications circuitry to monitor the sidelink communication logical channel for responses to the discovery announcement; receive, from a discoveree WTRU, a discovery response, the discovery response pertaining to the discovery announcement and using a logical channel identity of a sidelink communication logical channel, the discovery response further comprising one or more criteria for one or more services provided by the discoveree WTRU. send, via a sidelink communication logical channel, a discovery announcement using a logical channel identity of the sidelink communication logical channel, the discovery announcement further comprising one or more criteria for one or more services sought by the discoverer WTRU , wherein the sidelink communication logical channel is a separate logical channel, specific to the transmission of discovery announcements; configure the communications circuitry to monitor the sidelink communication logical channel for responses to the discovery announcement; receive, from a discoveree WTRU, a discovery response, the discovery response pertaining to the discovery announcement and using a logical channel identity of a sidelink communication logical channel, the discovery response further comprising one or more criteria for one or more services provided by the discoveree WTRU.
A method of providing notifications in a communication network of a plurality of Internet of Things, IoT, devices , comprising: detecting , at a supervisor device in the communication network, a notification directed to a wireless mobile device in the communication network; determining, by the supervisor device, a location of a user of the wireless mobile device, wherein the supervisor device determines the location of the user as a location of a first IoT device based on the first IoT device being currently operated or as a location of a second IoT device of the plurality of IoT devices based on the second IoT device having been previously operated within a threshold time period; and sending , by the supervisor device, at least one instruction to at least a first IoT device of the plurality of IoT devices to reduce an operating volume or suspend operation of the first IoT device, wherein the supervisor device sends the at least one instruction to the first IoT device based on the first IoT device being within a threshold distance of the location of the user of the wireless mobile device. detecting , at a supervisor device in the communication network, a notification directed to a wireless mobile device in the communication network; determining, by the supervisor device, a location of a user of the wireless mobile device, wherein the supervisor device determines the location of the user as a location of a first IoT device based on the first IoT device being currently operated or as a location of a second IoT device of the plurality of IoT devices based on the second IoT device having been previously operated within a threshold time period; and sending , by the supervisor device, at least one instruction to at least a first IoT device of the plurality of IoT devices to reduce an operating volume or suspend operation of the first IoT device, wherein the supervisor device sends the at least one instruction to the first IoT device based on the first IoT device being within a threshold distance of the location of the user of the wireless mobile device.
Levelling device for road vehicles , in particular trailers, wherein the road vehicle has a chassis , a longitudinal axis and a suspended axle assembly with vehicle wheels on both sides with an independent wheel suspension, wherein the levelling device is provided and designed for orienting the chassis in a desired angular position in space and wherein the levelling device has a levelling controller , a levelling sensor system which accommodates the angular position of the chassis and is connected to the levelling controller , and a driven lifting apparatus , which can be controlled by the levelling controller , for vertical movement of the chassis during levelling, wherein the lifting apparatus has a plurality of wheel lifting means which can be individually controlled by the levelling controller and are each designed to lift and lower a vehicle wheel individually relative to the chassis , wherein the levelling device has a plurality of chassis supports which can be controlled by the levelling controller , locked and also lifted and lowered, wherein the levelling controller is programmable and has one or more processors along with I/O interfaces and data memories, wherein the levelling of the individually controllable wheel lifting means and also of the chassis supports can be carried out, characterized in that the levelling device and the levelling controller are configured for the chassis to be controlled by the levelling controller during levelling in such a way that the chassis is lowered by means of the lifting apparatus and the levelling sensor system starting from a preferably front-supported starting position to an intermediate position and is thereby oriented with a desired solid angle in a first main direction , wherein the chassis is then moved to a levelling position and is thereby oriented with a desired solid angle in a second main direction too and wherein the chassis supports are designed as passive supports, which are controlled during levelling in such a way that they are lowered to the ground before or during levelling and, when the lifting apparatus is lowered for levelling purposes, are in a force-neutral state and are raised or retracted while maintaining contact with the ground and also are locked in the oriented levelling position .
A method for recording, editing and reproduction of a user session on a computer, the method comprising: - initiating recording of user interactions with the computer; - generating a recording of the user interactions, wherein the recording includes mouse events and display events; - writing the recording into a script; - assigning unique IDs to software elements; - capturing an initial state of the software; - capturing events representing the user interactions with the computer; - sending the recording to a server ; - providing an interface to edit the recording stored on the server, wherein the editing includes changes to objects, elements, text or images stored in the recording; - in response to a user request to play back the recording (a) opening a browser window; and (b) playing back the edited recording; and - on the server, generating PDF files from the generated recording frame by frame using PhantomJS and CasperJS, wherein when all PDFs are completed, the server packs them into an archive; wherein the events are saved using JavaScript Object Notation, JSON, format. - initiating recording of user interactions with the computer; - generating a recording of the user interactions, wherein the recording includes mouse events and display events; - writing the recording into a script; - assigning unique IDs to software elements; - capturing an initial state of the software; - capturing events representing the user interactions with the computer; - sending the recording to a server ; - providing an interface to edit the recording stored on the server, wherein the editing includes changes to objects, elements, text or images stored in the recording; - in response to a user request to play back the recording (a) opening a browser window; and (b) playing back the edited recording; and (a) opening a browser window; and (b) playing back the edited recording; and - on the server, generating PDF files from the generated recording frame by frame using PhantomJS and CasperJS,
A system for continuously monitoring a workcell during operation of industrial machinery , the system comprising: a safety system comprising at least one sensor (102 1-3 ) and supporting software and/or hardware for acquiring image data associated with the workcell , the acquired image data comprising a plurality of voxels; a monitoring system for detecting a parameter value associated with the safety system; and a controller configured to: determine a status of the safety system based at least in part on the detected parameter value; and cause an alert to be issued if the status of the safety system does not satisfy a target objective, characterised in that the controller is further configured to: classify the voxels into moving voxels corresponding to moving elements in the workcell and static voxels corresponding to static elements in the workcell; compare static voxels acquired during operation of the industrial machinery against static voxels acquired prior to operating the industrial machinery and, based thereon, determine a position shift associated with each of the static voxels; and cause the alert to be issued upon determining that more than a predetermined number of the static voxels have changed in value. a safety system comprising at least one sensor (102 1-3 ) and supporting software and/or hardware for acquiring image data associated with the workcell , the acquired image data comprising a plurality of voxels; a monitoring system for detecting a parameter value associated with the safety system; and a controller configured to: determine a status of the safety system based at least in part on the detected parameter value; and cause an alert to be issued if the status of the safety system does not satisfy a target objective, determine a status of the safety system based at least in part on the detected parameter value; and cause an alert to be issued if the status of the safety system does not satisfy a target objective, characterised in that the controller is further configured to: classify the voxels into moving voxels corresponding to moving elements in the workcell and static voxels corresponding to static elements in the workcell; compare static voxels acquired during operation of the industrial machinery against static voxels acquired prior to operating the industrial machinery and, based thereon, determine a position shift associated with each of the static voxels; and cause the alert to be issued upon determining that more than a predetermined number of the static voxels have changed in value. classify the voxels into moving voxels corresponding to moving elements in the workcell and static voxels corresponding to static elements in the workcell; compare static voxels acquired during operation of the industrial machinery against static voxels acquired prior to operating the industrial machinery and, based thereon, determine a position shift associated with each of the static voxels; and cause the alert to be issued upon determining that more than a predetermined number of the static voxels have changed in value.
A method for generating random numbers including: mixing a bright quantum state in a first mode with a vacuum input , in a two mode transformation for mixing the first mode and an orthogonal second mode; after mixing, detecting the intensity in the first mode and the second mode ; determining the number of particles in the first mode and the second mode based on the detected intensity; generating random numbers based on the difference between the number of particles in the first mode and the second mode; and simultaneously to generating random numbers, certifying the numbers as random, based on the total number of particles in the first mode and the second mode, wherein certifying confirms that the process by which the random numbers are generated is quantum in origin and so the numbers are random. mixing a bright quantum state in a first mode with a vacuum input , in a two mode transformation for mixing the first mode and an orthogonal second mode; after mixing, detecting the intensity in the first mode and the second mode ; determining the number of particles in the first mode and the second mode based on the detected intensity; generating random numbers based on the difference between the number of particles in the first mode and the second mode; and simultaneously to generating random numbers, certifying the numbers as random, based on the total number of particles in the first mode and the second mode, wherein certifying confirms that the process by which the random numbers are generated is quantum in origin and so the numbers are random.
A base station antenna comprising: a first wiper phase shifter (120-1), and a second wiper phase shifter (120-2) that is beside the first wiper phase shifter (120-1); first and second wiper supports (140-1, 140-2) on the first and second wiper phase shifters (120-1, 120-2), respectively, the first wiper support (140-1) comprising a portion that is beside and interlocked with a portion of the second wiper support (140-2); a third wiper phase shifter (120-5), and a fourth wiper phase shifter (120-6) that is beside the third wiper phase shifter (120-5); and third and fourth wiper supports (140-5, 140-6) on the third and fourth wiper phase shifters (120-5, 120-6), respectively, characterized in that the third wiper support (140-5) is beside and non-interlocking with the fourth wiper support (140-6), , and in that the first and second wiper supports (140-1, 140-2) overlap the third and fourth wiper supports (140-5, 140-6), respectively. a first wiper phase shifter (120-1), and a second wiper phase shifter (120-2) that is beside the first wiper phase shifter (120-1); first and second wiper supports (140-1, 140-2) on the first and second wiper phase shifters (120-1, 120-2), respectively, the first wiper support (140-1) comprising a portion that is beside and interlocked with a portion of the second wiper support (140-2); a third wiper phase shifter (120-5), and a fourth wiper phase shifter (120-6) that is beside the third wiper phase shifter (120-5); and third and fourth wiper supports (140-5, 140-6) on the third and fourth wiper phase shifters (120-5, 120-6), respectively, characterized in that the third wiper support (140-5) is beside and non-interlocking with the fourth wiper support (140-6), , and in that the first and second wiper supports (140-1, 140-2) overlap the third and fourth wiper supports (140-5, 140-6), respectively.
A composition for therapeutic use in treating, reducing and/or preventing neuroinflammation in a subject in need thereof, said composition comprising therapeutically effective amounts of (i) vitamin A and/or functional equivalents, (ii) vitamin D and/or functional equivalents, and (iii) DHA and EPA.
An onboard charging device for an unmanned aerial vehicle, comprising: a platform configured to be mounted on top of a vehicle and comprising a bottom plate ; and a charging module disposed on the platform and configured to charge the unmanned aerial vehicle ; wherein the bottom plate comprises a locking mechanism configured to lock the unmanned aerial vehicle in a fixed position while charging; characterized in that , the platform further comprises side plates pivoted to edges of the bottom plate , the bottom plate is a tetragon, and the side plates are four side plates pivoted to the four edges of the bottom plate respectively, wherein the platform has an unfolded state and a storage state, the four side plates enclosing a closed annular structure in the storage state; and wherein positioning sensors are arranged around the charging module on the platform and configured to guide the unmanned aerial vehicle to land, and the positioning sensors are arranged on the bottom plate and positioned in the center of the bottom plate . a platform configured to be mounted on top of a vehicle and comprising a bottom plate ; and a charging module disposed on the platform and configured to charge the unmanned aerial vehicle ; wherein the bottom plate comprises a locking mechanism configured to lock the unmanned aerial vehicle in a fixed position while charging; characterized in that , the platform further comprises side plates pivoted to edges of the bottom plate , the bottom plate is a tetragon, and the side plates are four side plates pivoted to the four edges of the bottom plate respectively, wherein the platform has an unfolded state and a storage state, the four side plates enclosing a closed annular structure in the storage state; and wherein positioning sensors are arranged around the charging module on the platform and configured to guide the unmanned aerial vehicle to land, and the positioning sensors are arranged on the bottom plate and positioned in the center of the bottom plate .