mhurhangee/patent-ind-claim-en huggingface dataset:
A secondary-stream data transmission method for use in a conference, wherein an electronic device is communicatively connected to a peripheral device , and a virtual display apparatus and a virtual UAC device are virtualized on the electronic device, wherein the virtual UAC device is configured to establish an audio data channel between the electronic device and the peripheral device, to obtain audio data; and image data is obtained from an output interface of a graphics card of the electronic device, and when transmitting the image data to the virtual display apparatus, the image data, or the image data and the audio data are transmitted to the peripheral device, and are transmitted to the outside by the peripheral device, that is, transmitted to other devices in addition to the electronic device, the virtual display apparatus, and the virtual UAC device, wherein a graphics card filter driver, added on an initial graphics card driving program, intercepts various requests and data of the graphics card, and a virtual display application delivers a display command request by using the graphics card filter driver, and obtains display data. and image data is obtained from an output interface of a graphics card of the electronic device, and when transmitting the image data to the virtual display apparatus, the image data, or the image data and the audio data are transmitted to the peripheral device, and are transmitted to the outside by the peripheral device, that is, transmitted to other devices in addition to the electronic device, the virtual display apparatus, and the virtual UAC device, wherein a graphics card filter driver, added on an initial graphics card driving program, intercepts various requests and data of the graphics card, and a virtual display application delivers a display command request by using the graphics card filter driver, and obtains display data.
A vehicle surface scanning system for assessing damages affecting the surface of a vehicle (V), comprising: a scanning booth constructed in the form of a tunnel-like structure adapted for movement and having an interior chamber sized to cover the vehicle, said booth being assembled having a plurality of deflection screen panels deployed along opposite sides and across the top of the chamber for use in conducting non-planar deflectometry; locomotion means operatively connected to said scanning booth for providing controlled incremental movement of the booth longitudinally over the vehicle; and a plurality of scanner modules mounted in fixed positions around the chamber at opposite ends of said scanning booth and operatively directed inwardly of the chamber for conducting a combined hybrid methodology of active stereo 3D reconstruction and deflectometry in conjunction with the deflection screen panels to acquire incremental data measurements along the surfaces of the vehicle as the booth is moved over the vehicle. a scanning booth constructed in the form of a tunnel-like structure adapted for movement and having an interior chamber sized to cover the vehicle, said booth being assembled having a plurality of deflection screen panels deployed along opposite sides and across the top of the chamber for use in conducting non-planar deflectometry; locomotion means operatively connected to said scanning booth for providing controlled incremental movement of the booth longitudinally over the vehicle; and a plurality of scanner modules mounted in fixed positions around the chamber at opposite ends of said scanning booth and operatively directed inwardly of the chamber for conducting a combined hybrid methodology of active stereo 3D reconstruction and deflectometry in conjunction with the deflection screen panels to acquire incremental data measurements along the surfaces of the vehicle as the booth is moved over the vehicle.
A method for moving a vehicle towards a component of a distant , wherein the vehicle has a navigation module which comprises a camera and evaluation electronics , and an identification element is attached to the object in a predetermined position such that it is detected by the camera in a remote range (D max ) of the vehicle from the object , and the evaluation electronics calculates a reversing line (40 i , 40 ii , 40 iii , 40a) of the vehicle from the perspective position of the camera to the identification element , characterized in that a close range (D min ) is defined in the direction of the object , which is delimited by a close-range radius (R min ), and in that the reversing line (40 i , 40 ii , 40 iii , 40a) is calculated up to a virtual prepositioning point (Svi, S Vii , S Viii ) lying on the close-range radius (R min ), at which a transition is made from closed-loop control to open-loop control and the vehicle is reversed in the direction of the component without making any control movements.
A method comprising: positioning an optical sensor in optical communication with a fluid sample under analysis, the optical sensor comprising: a first optical emitter ; a second optical emitter ; a first optical pathway ; an optical detector ; and an optical window optically coupling the optical sensor and the fluid sample ; emitting light at a first wavelength by the first optical emitter through the first optical pathway and the optical window into the fluid sample to excite fluorescent emissions in the fluid sample ; detecting the fluorescent emissions emitted by the fluid sample through the first optical pathway by the optical detector ; emitting light at a second wavelength different than the first wavelength by the second optical emitter through the first optical pathway and the optical window into the fluid sample (230 under analysis, wherein the light emitted by the second optical emitter is scattered off the fluid sample ; and detecting the light scattered by the fluid sample through the first optical pathway by the optical detector , wherein the method is characterized in that the second optical emitter is positioned in the first optical pathway . a first optical emitter ; a second optical emitter ; a first optical pathway ; an optical detector ; and an optical window optically coupling the optical sensor and the fluid sample ; emitting light at a first wavelength by the first optical emitter through the first optical pathway and the optical window into the fluid sample to excite fluorescent emissions in the fluid sample ; detecting the fluorescent emissions emitted by the fluid sample through the first optical pathway by the optical detector ; emitting light at a second wavelength different than the first wavelength by the second optical emitter through the first optical pathway and the optical window into the fluid sample (230 under analysis, wherein the light emitted by the second optical emitter is scattered off the fluid sample ; and detecting the light scattered by the fluid sample through the first optical pathway by the optical detector , wherein the method is characterized in that the second optical emitter is positioned in the first optical pathway .
A method of calculating the suitability of an object from a videogame for 3D printing, the method comprising the steps of: obtaining (s1010) data representative of the object as found at a point in time within the video game; calculating (s1020) a plurality of different scores indicative of the fitness of the object as represented by the obtained data for generating a 3D print of the object, wherein the plurality of different scores are respectively responsive to one or more selected from the list consisting of: i. the arrangement of the object as found at the point in time within the video game; ii. the dependency of one or more elements of the object upon another element; iii. a property of any connective structure used to connect elements of the 3D printed object together; iv. the quality of the obtained data; and v. the method used to generate print data used for the 3D printed version of the object; calculating a combined score from the plurality of different scores for the object as found at a point in time within the video game; and associating (s1030) the combined score with the data representative of the object as found at the point in time within the video game; and in which an indication of the combined score is displayed together with a visual representation of the object as found at a point in time within the video game. obtaining (s1010) data representative of the object as found at a point in time within the video game; calculating (s1020) a plurality of different scores indicative of the fitness of the object as represented by the obtained data for generating a 3D print of the object, wherein the plurality of different scores are respectively responsive to one or more selected from the list consisting of: i. the arrangement of the object as found at the point in time within the video game; ii. the dependency of one or more elements of the object upon another element; iii. a property of any connective structure used to connect elements of the 3D printed object together; iv. the quality of the obtained data; and v. the method used to generate print data used for the 3D printed version of the object; i. the arrangement of the object as found at the point in time within the video game; ii. the dependency of one or more elements of the object upon another element; iii. a property of any connective structure used to connect elements of the 3D printed object together; iv. the quality of the obtained data; and v. the method used to generate print data used for the 3D printed version of the object; calculating a combined score from the plurality of different scores for the object as found at a point in time within the video game; and associating (s1030) the combined score with the data representative of the object as found at the point in time within the video game; and in which an indication of the combined score is displayed together with a visual representation of the object as found at a point in time within the video game.
A light protection device comprising a forward-facing optically transmissive window and a darkening filter mounted in the forward-facing optically transmissive window , wherein the light protection device is one of a vision-protective headgear , a welding shield , a pane of a vehicle windscreen, or a pane of a glazing of a building, wherein the darkening filter comprises a pattern of switchable shutters that are each capable of being switched between at least a dark state and a light state, and a shutter control system that is connected to each shutter of the pattern of shutters so as to be able to control the switching of each of the shutters , wherein the pattern of shutters is a predetermined non-uniform pattern, wherein the darkening filter further comprises at least one image acquisition device , wherein the shutter control system is receivably connected to the image acquisition device and wherein the shutter control system is configured to receive light intensity mapping information from the at least one image acquisition device , wherein the darkening filter further comprises at least one eye position monitoring device , wherein the shutter control system is receivably connected to the eye position monitoring device and wherein the shutter control system is configured to receive eye position information from the at least one eye position monitoring device , and is configured to use the received light intensity mapping information and eye position information in combination to choose states to which the shutters are switched. a pattern of switchable shutters that are each capable of being switched between at least a dark state and a light state, and a shutter control system that is connected to each shutter of the pattern of shutters so as to be able to control the switching of each of the shutters , wherein
An electrical penetrator assembly for conducting electrical power to an electrical appliance that is shielded from the external environment with an external pressure (PO) by a housing with an internal pressure (PI), the penetrator assembly comprising: a penetrator housing , at least one conductor (2; 22), an insulator body (8; 20; 30) surrounding the conductor, wherein the insulator body is tubular and comprises a side face which extends axially from a first end face to a second end face , wherein the conductor passes through the insulator body from an axially facing opening in the first end face of the insulator body to a laterally facing opening (14; 23; 33) in the side face of the insulator body, wherein the insulator body is provided with seal systems (S1, S2) sealing between the insulator body and the penetrator housing , characterized in that the laterally facing opening is located in a section of the insulator body delimited by the seal systems (S1; S2) towards the penetrator housing on each side of the lateral facing opening , and in that an open passage through the insulator body connects the first end face of the insulator body with the second end face of the insulator body, the open passage being arranged to lead the internal pressure (PI) to the second end face . a penetrator housing , at least one conductor (2; 22), an insulator body (8; 20; 30) surrounding the conductor, wherein the insulator body is tubular and comprises a side face which extends axially from a first end face to a second end face , wherein the conductor passes through the insulator body from an axially facing opening in the first end face of the insulator body to a laterally facing opening (14; 23; 33) in the side face of the insulator body, wherein the insulator body is provided with seal systems (S1, S2) sealing between the insulator body and the penetrator housing , characterized in that the laterally facing opening is located in a section of the insulator body delimited by the seal systems (S1; S2) towards the penetrator housing on each side of the lateral facing opening , and in that an open passage through the insulator body connects the first end face of the insulator body with the second end face of the insulator body, the open passage being arranged to lead the internal pressure (PI) to the second end face .
A network function, NF, management method, comprising: receiving an NF discovery request from a first NF component, wherein the NF discovery request comprises a second NF identifier and an expected network slice identifier, and the second NF identifier indicates a second NF type; obtaining component information of at least one second NF component based on the second NF identifier and the expected network slice identifier, wherein the at least one second NF component supports the second NF type and is located in a network slice indicated by expected network slice identifier, and the component information of at least one second NF component respectively comprises a discovery policy of the second NF component, a second NF component identifier and at least one network slice identifier of the second NF component indicating a network slice in which the second NF component is located; determining, based on the discovery policy in the component information, whether the first NF component can access the second NF component; and sending to the first NF component, the second NF component identifier of the at least one second NF component which can be accessed by the first NF component. receiving an NF discovery request from a first NF component, wherein the NF discovery request comprises a second NF identifier and an expected network slice identifier, and the second NF identifier indicates a second NF type; obtaining component information of at least one second NF component based on the second NF identifier and the expected network slice identifier, wherein the at least one second NF component supports the second NF type and is located in a network slice indicated by expected network slice identifier, and the component information of at least one second NF component respectively comprises a discovery policy of the second NF component, a second NF component identifier and at least one network slice identifier of the second NF component indicating a network slice in which the second NF component is located; determining, based on the discovery policy in the component information, whether the first NF component can access the second NF component; and sending to the first NF component, the second NF component identifier of the at least one second NF component which can be accessed by the first NF component.
Method for protecting wood, comprising coating wood with a coating composition, wherein the coating composition is an aqueous coating composition comprising at least one anionically stabilized latex polymer, at least one polyfunctional amine, and at least one volatile base, and having a pH in the range of from 9.5 to 11, wherein the wood has a moisture content of at least 15 wt.%; wherein the amount of anionically stabilized latex polymer in the coating is at least 10 wt% and at most 50 wt%; wherein the polyfunctional amine has a weight averaged molecular weight in the range of from 250 to 20,000 g/mol, the weight averaged molecular weight determined by light scattering; wherein the amount of polyfunctional amine in the coating composition is in the range of from 0.1 to 5 wt% calculated on the total coating composition.
A 3D color printing mechanism, comprising: a sliding track ; a slider arranged on the sliding track and capable of moving between two ends of the sliding track ; a painting nozzle arranged on the slider , the painting nozzle comprising at least one ink jet head ; and a modeling nozzle connected to the slider , the modeling nozzle comprising a material squeezer head , the material squeezer head arranged non-collinearly with the ink jet head at a direction parallel to the sliding track , characterized in that said painting nozzle is arranged on one side of the sliding track and the modeling nozzle is arranged on another side of the sliding track . a sliding track ; a slider arranged on the sliding track and capable of moving between two ends of the sliding track ; a painting nozzle arranged on the slider , the painting nozzle comprising at least one ink jet head ; and a modeling nozzle connected to the slider , the modeling nozzle comprising a material squeezer head , the material squeezer head arranged non-collinearly with the ink jet head at a direction parallel to the sliding track , characterized in that said painting nozzle is arranged on one side of the sliding track and the modeling nozzle is arranged on another side of the sliding track .
A driving assembly comprising a driving member , the driving member comprising a body drilled with an axial bore in which a piston is translationally movably mounted, the anterior end of which is able to come out of the body , - the bore opening into a larger diameter housing which includes, at the intersection thereof with the bore , a frustroconical surface open towards its posterior part and tilted relative to the longitudinal axis (xx') of the bore by an angle (α) between 30° and 65°, - a sealing ring provided with a frustroconical anterior face being sleeved on the piston so that this frustroconical face bears against the frustroconical surface of the housing , - the piston having a head at its posterior end, - a compression spring being disposed between this head and the posterior face of the sealing ring , the driving assembly being characterised in that it includes a cylindrical housing in which the body is attached and which is in communication with a pressurised driving fluid supply duct , the depth (e) of this housing being such that, when the piston head is in contact with the bottom of the housing , the spring is in a compressed state. - the bore opening into a larger diameter housing which includes, at the intersection thereof with the bore , a frustroconical surface open towards its posterior part and tilted relative to the longitudinal axis (xx') of the bore by an angle (α) between 30° and 65°, - a sealing ring provided with a frustroconical anterior face being sleeved on the piston so that this frustroconical face bears against the frustroconical surface of the housing , - the piston having a head at its posterior end, - a compression spring being disposed between this head and the posterior face of the sealing ring , the driving assembly being characterised in that it includes a cylindrical housing in which the body is attached and which is in communication with a pressurised driving fluid supply duct , the depth (e) of this housing being such that, when the piston head is in contact with the bottom of the housing , the spring is in a compressed state.
A data processing device for detecting interference in frequency modulated continuous wave radar signals received by a radar receiver of a radar system , wherein the data processing device is configured to: apply a high pass filter to a receiver signal of a receiver channel of the radar receiver during an acquisition time (T acq ) corresponding to a transmitted chirp to remove those parts of the receiver signal corresponding to a reflected chirp having a power at the radar receiver greater than the noise power of the radar receiver of the radar system, and the data processing device is further configured to; calculate the receiver signal power from the high pass filtered receiver signal ; and compare 2. receiver signal power with a threshold power to determine whether the receiver signal corresponds to an interfered received chirp including interference or a non-interfered received chirp not including interference, for each of a plurality of transmitted chirps of the radar system, characterized in that the threshold power is a threshold noise power based on an estimate of the thermal noise of the radar receiver. apply a high pass filter to a receiver signal of a receiver channel of the radar receiver during an acquisition time (T acq ) corresponding to a transmitted chirp to remove those parts of the receiver signal corresponding to a reflected chirp having a power at the radar receiver greater than the noise power of the radar receiver of the radar system, and the data processing device is further configured to; calculate the receiver signal power from the high pass filtered receiver signal ; and compare 2. receiver signal power with a threshold power to determine whether the receiver signal corresponds to an interfered received chirp including interference or a non-interfered received chirp not including interference, for each of a plurality of transmitted chirps of the radar system, characterized in that the threshold power is a threshold noise power based on an estimate of the thermal noise of the radar receiver.