mhurhangee/patent-ind-claim-en huggingface dataset:
A multi-lens camera, comprising a camera body and a light supplementing device ; wherein, the camera body comprises a body shell assembly , a plurality of lenses , a lens regulator , and a transparent cover that is installed on the body shell assembly ; the lens regulator is installed within a space formed by the body shell assembly and the transparent cover ; the transparent cover comprises a flat portion and a curved portion surrounding the flat portion ; the lenses are located within a space covered by the curved portion ; the lens regulator comprises a fixing disc and at least two lens brackets ; each of the lens brackets comprises a first bracket configured for mounting a lens ; the first bracket is movably provided on the fixing disc , and is movable along the circumference of the fixing disc , each of the lenses is mounted to the fixing disc by means of a corresponding lens bracket ; wherein the multi-lens camera is provided with a plurality of camera units each comprising one of said plurality of lenses and an image sensor; wherein one of the first bracket and the fixing disc is provided with a first tooth slot , and the other is provided with a first meshing tooth ; the first bracket is connected to the fixing disc through an engagement between the first tooth slot and the first meshing tooth ; and wherein a circular edge of the fixing disc is partly or entirely provided with the first tooth slot ; the first bracket is provided with the first meshing tooth , and is movable along the circumference of the fixing disc ; and wherein the light supplementing device is provided around outside of the camera body to provide fill light.
A method of de-blocking an edge of a block of samples in a frame of sample data , the method comprising: decoding a first prediction mode for a first block of two adjacent blocks of sample data , each of the blocks of sample data including luma channel and at least one chroma channel; decoding a second prediction mode for a second block of the two adjacent blocks of sample data ; the method being characterised by determining a boundary strength value for a block of samples along an edge corresponding to a boundary between said first block of sample data and said second block of sample data if the first prediction mode and the second prediction mode are both intra-block copy mode, wherein the boundary strength value indicates application of a weak de-blocking filter if block vectors respectively associated with the first block and the second block are different, and the boundary strength value indicates no de-blocking filtering is applied if the block vectors are equal wherein each of the block vectors is defined at integer pixel precision for referencing a block of samples in the frame ; in a case where the determined boundary strength value indicates the application of the weak de-blocking filter, applying a de-blocking filter to the luma channel of the first and second blocks of samples along said edge without also applying a de-blocking filter to the at least one chroma channel of the first and second blocks of samples along said edge . decoding a first prediction mode for a first block of two adjacent blocks of sample data , each of the blocks of sample data including luma channel and at least one chroma channel; decoding a second prediction mode for a second block of the two adjacent blocks of sample data ; the method being characterised by determining a boundary strength value for a block of samples along an edge corresponding to a boundary between said first block of sample data and said second block of sample data if the first prediction mode and the second prediction mode are both intra-block copy mode, wherein the boundary strength value indicates application of a weak de-blocking filter if block vectors respectively associated with the first block and the second block are different, and the boundary strength value indicates no de-blocking filtering is applied if the block vectors are equal wherein each of the block vectors is defined at integer pixel precision for referencing a block of samples in the frame ; in a case where the determined boundary strength value indicates the application of the weak de-blocking filter, applying a de-blocking filter to the luma channel of the first and second blocks of samples along said edge without also applying a de-blocking filter to the at least one chroma channel of the first and second blocks of samples along said edge .
An antenna apparatus comprising: an antenna substrate having opposite first and second surfaces; at least one antenna element disposed at the first surface of the antenna substrate; at least one radio frequency integrated circuit, RFIC, chip (150_j) having a lower surface attached to the second surface of the antenna substrate and having an RF contact at the lower surface, the RF contact being coupled to the at least one antenna element through the antenna substrate, the RFIC chip having an RF signal conductor (151_s, 551_s) at an upper surface thereof and beamforming circuitry (130_i, 153) coupled between the RF contact and the RF signal conductor; and a transmission line section having a lower surface attached to the second surface of the antenna substrate, and having an upper surface at which a transmission line conductor (181_s) is disposed and electrically connected to the RF signal conductor of the RFIC chip through an upper surface interconnect . an antenna substrate having opposite first and second surfaces; at least one antenna element disposed at the first surface of the antenna substrate; at least one radio frequency integrated circuit, RFIC, chip (150_j) having a lower surface attached to the second surface of the antenna substrate and having an RF contact at the lower surface, the RF contact being coupled to the at least one antenna element through the antenna substrate, the RFIC chip having an RF signal conductor (151_s, 551_s) at an upper surface thereof and beamforming circuitry (130_i, 153) coupled between the RF contact and the RF signal conductor; and a transmission line section having a lower surface attached to the second surface of the antenna substrate, and having an upper surface at which a transmission line conductor (181_s) is disposed and electrically connected to the RF signal conductor of the RFIC chip through an upper surface interconnect .
An assembly for a gas turbine engine , the assembly comprising: a first platform ; an airfoil (30;130) extending from the first platform , the airfoil including: ; a suction side wall connecting a leading edge and a trailing edge a pressure side wall spaced apart from the suction side wall , the pressure side wall connecting the leading edge and the trailing edge ; a first fillet formed around a perimeter of the airfoil (30;130) where the airfoil (30; 130) extends from the first platform ; a plurality of pressure side biased cooling discharge openings along the trailing edge outside of the first fillet , each pressure side biased cooling discharge opening extending from the trailing edge along the pressure side wall ; and characterised by a first center cooling discharge opening (50; 150) extending along the trailing edge into the first fillet , the first center cooling discharge opening (50; 150) centrally located between the pressure side wall and the suction side wall ; and the pressure sidewall and the first platform forming an acute angle (A) at the trailing edge . a first platform ; an airfoil (30;130) extending from the first platform , the airfoil including: ; a suction side wall connecting a leading edge and a trailing edge a pressure side wall spaced apart from the suction side wall , the pressure side wall connecting the leading edge and the trailing edge ; a first fillet formed around a perimeter of the airfoil (30;130) where the airfoil (30; 130) extends from the first platform ; a plurality of pressure side biased cooling discharge openings along the trailing edge outside of the first fillet , each pressure side biased cooling discharge opening extending from the trailing edge along the pressure side wall ; and characterised by a first center cooling discharge opening (50; 150) extending along the trailing edge into the first fillet , the first center cooling discharge opening (50; 150) centrally located between the pressure side wall and the suction side wall ; and the pressure sidewall and the first platform forming an acute angle (A) at the trailing edge . ; a suction side wall connecting a leading edge and a trailing edge a pressure side wall spaced apart from the suction side wall , the pressure side wall connecting the leading edge and the trailing edge ; a first fillet formed around a perimeter of the airfoil (30;130) where the airfoil (30; 130) extends from the first platform ; a plurality of pressure side biased cooling discharge openings along the trailing edge outside of the first fillet , each pressure side biased cooling discharge opening extending from the trailing edge along the pressure side wall ; and characterised by a first center cooling discharge opening (50; 150) extending along the trailing edge into the first fillet , the first center cooling discharge opening (50; 150) centrally located between the pressure side wall and the suction side wall ; and the pressure sidewall and the first platform forming an acute angle (A) at the trailing edge .
An integrated circuit to drive a plurality of fluid actuators , the integrated circuit comprising: a plurality of delay circuits operably coupled in series and to a fire input to receive a fire signal in succession, each delay circuit to receive the fire signal and, after a delay, provide the fire signal via an output to a corresponding fluid actuator of the plurality of fluid actuators ; and a bias circuit operably coupled to each of the plurality of delay circuits (104, 20s4), the bias circuit to provide a bias signal , wherein the delay circuits are analog delay circuits characterised in that the bias signal is configured to adjust the delay for various print speed modes of a printhead system. a plurality of delay circuits operably coupled in series and to a fire input to receive a fire signal in succession, each delay circuit to receive the fire signal and, after a delay, provide the fire signal via an output to a corresponding fluid actuator of the plurality of fluid actuators ; and a bias circuit operably coupled to each of the plurality of delay circuits (104, 20s4), the bias circuit to provide a bias signal , wherein the delay circuits are analog delay circuits characterised in that the bias signal is configured to adjust the delay for various print speed modes of a printhead system.
An insulation material, particularly in the form of matting able to be used with or without lamination, for example between rafters, or in the form of stuffing wool or the form of cut staple fibers for blowing into molds or cavities, wherein the insulation material is implemented as a tubular composite structure comprising tubular continuous cellulose acetate filaments and/or tubular and cut continuous cellulose acetate filaments, characterized in that the outer filament diameter of the cellulose acetate filaments is in a range of between 50 to 150 μm, and preferably in a range of between 60 to 100 μm.
Heat pump, comprising: an evaporator with an evaporator inlet and an evaporator outlet ; a temperature raiser for raising a temperature of an evaporated operating liquid; a condenser for condensing an evaporated operating liquid with raised temperature; a temperature sensor means with a first temperature sensor for detecting a temperature with regard to the evaporator and with a second temperature sensor for detecting a temperature at the condenser ; a switching means wherein the switching means is configured to operate the heat pump in a first operating mode or a different second operating mode, wherein the first operating mode is a bypass mode and wherein the second operating mode is a normal mode, wherein the switching means is configured to connect, in the bypass mode, a return of a region to be cooled to a forward of a region to be heated and to connect a return of the region to be heated to a forward of the region to be cooled ; and a control means for controlling the switching means so that the switching means operates in the first operating mode or the second operating mode based on an output signal of the second temperature sensor and for controlling the temperature raiser based on an output signal of the first temperature sensor . an evaporator with an evaporator inlet and an evaporator outlet ; a temperature raiser for raising a temperature of an evaporated operating liquid; a condenser for condensing an evaporated operating liquid with raised temperature; a temperature sensor means with a first temperature sensor for detecting a temperature with regard to the evaporator and with a second temperature sensor for detecting a temperature at the condenser ; a switching means wherein the switching means is configured to operate the heat pump in a first operating mode or a different second operating mode, wherein the first operating mode is a bypass mode and wherein the second operating mode is a normal mode, wherein the switching means is configured to connect, in the bypass mode, a return of a region to be cooled to a forward of a region to be heated and to connect a return of the region to be heated to a forward of the region to be cooled ; and a control means for controlling the switching means so that the switching means operates in the first operating mode or the second operating mode based on an output signal of the second temperature sensor and for controlling the temperature raiser based on an output signal of the first temperature sensor .
A wing rail for connecting to a frog block with a rigid frog tip , wherein the wing rail is connectable by means of spacer elements to the frog block , wherein in the connected state, a wheel overrunning region (R) runs between the frog block and the wing rail in the region of the frog tip, wherein the wing rail has or consists of a section extending at least over the length of the wheel overrunning region (R), and wherein the section is produced from a forged block , characterized in that the section is produced with integrally fabricated spacer elements , and that the section can be connected to the frog block via the spacer elements and screw connections passing through the frog block .
A method comprising: commencing a video recording process by a camera of a client device, the video recording process producing a sequence of frames, each frame from the sequence of frames associated with a time stamp; while the video recording process is in progress, detecting a gesture directed at a camera view user interface (UI) displayed at the client device; in response to the detecting of the gesture, causing displaying of a new first frame from the sequence of frames in the camera view UI, based on duration of the gesture, a time stamp of the new first frame indicating time prior to a time when the gesture was detected; and in response to ending of the video recording process, generating a video file using frames captured during the video recording process, except for frames with time stamps indicating earlier time than the time stamp of the new first frame. commencing a video recording process by a camera of a client device, the video recording process producing a sequence of frames, each frame from the sequence of frames associated with a time stamp; while the video recording process is in progress, detecting a gesture directed at a camera view user interface (UI) displayed at the client device; in response to the detecting of the gesture, causing displaying of a new first frame from the sequence of frames in the camera view UI, based on duration of the gesture, a time stamp of the new first frame indicating time prior to a time when the gesture was detected; and in response to ending of the video recording process, generating a video file using frames captured during the video recording process, except for frames with time stamps indicating earlier time than the time stamp of the new first frame.
A computer implemented method for performing replication in a hierarchical cluster in a massively parallel processing, MPP, database system, the method comprising: determining a replication type of a first partition on a first node, wherein the first node is on a first leaf sub-cluster, LSC, on a meta sub-cluster, MSC, of the MPP cluster, wherein the first partition is a horizontal database table partition; determining a first takeover LSC for the first LSC, wherein the first takeover LSC takes over for the first LSC in the case of a failure or fault; determining a first takeover node for the first node, wherein the first takeover node takes over for the first node in the case of a failure or fault; and performing replication of the first partition in accordance with the replication type, the first takeover node, and the first takeover LSC; wherein the replication type is synchronous, asynchronous, or semi-synchronous; wherein in synchronous replication, replicas are placed on different nodes within the same selected LSC and replicas are close to partitions, in the same LSC, and changes are applied together; wherein in asynchronous replication, replicas are placed on nodes of a different LSC and replicas are on different LSCs in the same MSC, and changes are applied asynchronously; and wherein in semi-synchronous replication, some replicas are placed on nodes of the same selected LSC and some replicas are placed on nodes of another LSC, some replicas are in the same LSC, and some replicas are in different LSCs. determining a replication type of a first partition on a first node, wherein the first node is on a first leaf sub-cluster, LSC, on a meta sub-cluster, MSC, of the MPP cluster, wherein the first partition is a horizontal database table partition; determining a first takeover LSC for the first LSC, wherein the first takeover LSC takes over for the first LSC in the case of a failure or fault; determining a first takeover node for the first node, wherein the first takeover node takes over for the first node in the case of a failure or fault; and performing replication of the first partition in accordance with the replication type, the first takeover node, and the first takeover LSC; wherein the replication type is synchronous, asynchronous, or semi-synchronous; wherein in synchronous replication, replicas are placed on different nodes within the same selected LSC and replicas are close to partitions, in the same LSC, and changes are applied together; wherein in asynchronous replication, replicas are placed on nodes of a different LSC and replicas are on different LSCs in the same MSC, and changes are applied asynchronously; and wherein in semi-synchronous replication, some replicas are placed on nodes of the same selected LSC and some replicas are placed on nodes of another LSC, some replicas are in the same LSC, and some replicas are in different LSCs.
An image processing device comprising: an image generation unit configured to generate an avatar viewpoint image according to a viewpoint of an avatar in a virtual world corresponding to a user in real space as a first presentation image to be presented to the user; to determine a posture of the avatar defined by a head position of the avatar and a gaze direction of the avatar; to determine an actual posture of the user defined by a head position of the user and a gaze direction of the user based on a result of detecting motion of the user; to generate a second presentation image different from the avatar viewpoint image if a posture difference between the actual posture of the user and the posture of the avatar is equal to or greater than a first threshold, characterized in that the second presentation image is being generated if either a difference in azimuth angle or elevation angle between the gaze direction of the user and the gaze direction of the avatar is greater than or equal to the first threshold, or a difference in the head position between the user and the head position of the avatar is equal to or greater than the first threshold, wherein the second presentation image is an image to be presented to the user according to a viewpoint in the virtual world corresponding to the head position of the avatar and the gaze direction of the user. an image generation unit configured to generate an avatar viewpoint image according to a viewpoint of an avatar in a virtual world corresponding to a user in real space as a first presentation image to be presented to the user; to determine a posture of the avatar defined by a head position of the avatar and a gaze direction of the avatar; to determine an actual posture of the user defined by a head position of the user and a gaze direction of the user based on a result of detecting motion of the user; to generate a second presentation image different from the avatar viewpoint image if a posture difference between the actual posture of the user and the posture of the avatar is equal to or greater than a first threshold, characterized in that the second presentation image is being generated if either a difference in azimuth angle or elevation angle between the gaze direction of the user and the gaze direction of the avatar is greater than or equal to the first threshold, or a difference in the head position between the user and the head position of the avatar is equal to or greater than the first threshold, wherein the second presentation image is an image to be presented to the user according to a viewpoint in the virtual world corresponding to the head position of the avatar and the gaze direction of the user.
Actuating drive, having a drive element and an actuation element with an actuation connection point (AN), wherein the drive element is provided for driving the actuation element indirectly about an actuation axis (A), wherein the actuation element has a shaft portion which is arranged centrically to the actuation axis (A) and extends at least partially circumferentially in the tangential circumferential direction, wherein the actuating drive has, as a restoring spring, a wound flat spring for providing a restoring torque (M) acting on the actuation element , which flat spring acts tangentially on the shaft portion , and wherein the wound flat spring has a spring axis (FA) and a free spring end (E) which is tangentially fastened to the shaft portion , wherein - a free spring end (E) of the wound flat spring which is radially externally disposed with respect to the spring axis (FA) is fastened tangentially to the shaft portion , - the wound flat spring is mounted rotatably such that the spring axis (FA) thereof is radially spaced apart from the actuation axis (A) and aligned parallel to the actuation axis (A), and characterised in that - the actuation element is arranged such that it can be rotated about its actuation axis (A) within a predefined angle of rotation range (α, β) between a rest position (RS) and an operating position (BS). - a free spring end (E) of the wound flat spring which is radially externally disposed with respect to the spring axis (FA) is fastened tangentially to the shaft portion , - the wound flat spring is mounted rotatably such that the spring axis (FA) thereof is radially spaced apart from the actuation axis (A) and aligned parallel to the actuation axis (A), and characterised in that - the actuation element is arranged such that it can be rotated about its actuation axis (A) within a predefined angle of rotation range (α, β) between a rest position (RS) and an operating position (BS).