mhurhangee/patent-ind-claim-en huggingface dataset:
A human-machine interaction computer-implemented method of determining an intended target of an object in relation to a user interface, comprising: determining a three-dimensional location of the object at a plurality of time intervals; determining a metric associated with each of a plurality of items of the user interface, the metric indicative of the respective item being the intended target of the object, wherein the metric is determined based upon a model and the location of the object in three dimensions at the plurality of time intervals; and determining , using a Bayesian reasoning process, the intended target from the plurality of items of the user interface based on the metric associated with each of the plurality of items; characterised by : receiving one or more items of environmental information, wherein the environmental information comprises one or more of: information indicative of acceleration of a vehicle, information indicative of a state of the vehicle and image data indicative of surroundings of the vehicle; and wherein the model models movement of the object with respect to the plurality of items and unintentional perturbations of the object movement and the determination of the metric is based on the one or more items of environmental information, and/or wherein the model is selected based on the one or more items of environmental information. determining a three-dimensional location of the object at a plurality of time intervals; determining a metric associated with each of a plurality of items of the user interface, the metric indicative of the respective item being the intended target of the object, wherein the metric is determined based upon a model and the location of the object in three dimensions at the plurality of time intervals; and determining , using a Bayesian reasoning process, the intended target from the plurality of items of the user interface based on the metric associated with each of the plurality of items; receiving one or more items of environmental information, wherein the environmental information comprises one or more of: information indicative of acceleration of a vehicle, information indicative of a state of the vehicle and image data indicative of surroundings of the vehicle; and wherein the model models movement of the object with respect to the plurality of items and unintentional perturbations of the object movement and the determination of the metric is based on the one or more items of environmental information, and/or wherein the model is selected based on the one or more items of environmental information.
A method for processing information, comprising: receiving, by a first Device-to-Device, D2D, User Equipment, UE, bearer control information sent by a first base station (S310); and the first D2D UE switching from a first access node to a second access node to transmit communication data according to the bearer control information(S320); wherein the first access node is the first base station and the second access node is a D2D relay node, or the first access node is a D2D relay node and the second access node is the first base station; wherein the bearer control information comprises a bearer switch indicator or bearer switch judgment parameter information, wherein the bearer switch indicator being used to instruct the first D2D User Equipment, UE, to switch to the second access node for transmitting communication data, and the bearer switch judgment parameter information being used for the first D2D UE to determine whether the first D2D UE can switch to the second access node for transmitting communication data; characterized in that the bearer control information comprises a D2D relay node discovery trigger threshold value, and the D2D relay node discovery trigger threshold value being used to trigger the first D2D UE to start D2D relay node discovery and search for a D2D relay node allowing access for the first D2D UE. receiving, by a first Device-to-Device, D2D, User Equipment, UE, bearer control information sent by a first base station (S310); and the first D2D UE switching from a first access node to a second access node to transmit communication data according to the bearer control information(S320); wherein the first access node is the first base station and the second access node is a D2D relay node, or the first access node is a D2D relay node and the second access node is the first base station; wherein the bearer control information comprises a bearer switch indicator or bearer switch judgment parameter information, wherein the bearer switch indicator being used to instruct the first D2D User Equipment, UE, to switch to the second access node for transmitting communication data, and the bearer switch judgment parameter information being used for the first D2D UE to determine whether the first D2D UE can switch to the second access node for transmitting communication data; characterized in that the bearer control information comprises a D2D relay node discovery trigger threshold value, and the D2D relay node discovery trigger threshold value being used to trigger the first D2D UE to start D2D relay node discovery and search for a D2D relay node allowing access for the first D2D UE.
A method for video encoding, comprising: partitioning video pictures into a plurality of coding units, CUs, at least one of the CUs being further portioned into two prediction units, PUs, of geometric partitioning prediction mode; and constructing a first merge list comprising a plurality of candidates, each comprising one or more motion vectors; characterized in obtaining a plurality of uni-prediction merge candidates directly from the first merge list without creating a uni-prediction merge candidate list, wherein each uni-prediction merge candidate comprises one motion vector of a corresponding candidate in the first merge list; wherein each candidate in the first merge list comprises at least one of a List 0 motion vector and a List 1 motion vector, and each uni-prediction merge candidate is selected to comprise a single one of the List 0 and List 1 motion vectors of each candidate in the first merge list. partitioning video pictures into a plurality of coding units, CUs, at least one of the CUs being further portioned into two prediction units, PUs, of geometric partitioning prediction mode; and constructing a first merge list comprising a plurality of candidates, each comprising one or more motion vectors; characterized in obtaining a plurality of uni-prediction merge candidates directly from the first merge list without creating a uni-prediction merge candidate list, wherein each uni-prediction merge candidate comprises one motion vector of a corresponding candidate in the first merge list; wherein each candidate in the first merge list comprises at least one of a List 0 motion vector and a List 1 motion vector, and each uni-prediction merge candidate is selected to comprise a single one of the List 0 and List 1 motion vectors of each candidate in the first merge list.
A method of making an elongate wind turbine blade extending longitudinally between a root end and a tip end in a spanwise direction, the method comprising: a. providing an elongate blade shell mould tool extending longitudinally in a spanwise direction, the mould comprising a concave curvature in a chordwise direction, corresponding to the curvature of the aerodynamic profile of the blade to be formed in the mould; b. arranging an elongate spar structure in the mould tool , the spar structure comprising a stack of pultruded strips of reinforcing material, and the spar structure extending longitudinally in the spanwise direction; c. arranging core material adjacent to the spar structure ; d. providing resin-permeable material at an interface between the spar structure and the core material ; and e. administering resin into the mould during a resin infusion process, wherein the resin-permeable material restricts the flow of resin between the spar structure and the core material in the spanwise direction. a. providing an elongate blade shell mould tool extending longitudinally in a spanwise direction, the mould comprising a concave curvature in a chordwise direction, corresponding to the curvature of the aerodynamic profile of the blade to be formed in the mould; b. arranging an elongate spar structure in the mould tool , the spar structure comprising a stack of pultruded strips of reinforcing material, and the spar structure extending longitudinally in the spanwise direction; c. arranging core material adjacent to the spar structure ; d. providing resin-permeable material at an interface between the spar structure and the core material ; and e. administering resin into the mould during a resin infusion process, wherein the resin-permeable material restricts the flow of resin between the spar structure and the core material in the spanwise direction.
Carrier body for a grinding or a cutting tool , comprising a central coupling area for connecting the grinding or cutting tool to a rotary drive for rotating the grinding or cutting tool about an axis of rotation passing through the coupling area , a carrier structure adjacent thereto in the radial direction , wherein the carrier structure has recesses separate from the coupling area , and two substantially annular side surfaces which are spaced apart from each other in the axial direction across the carrier structure , and wherein at least some, preferably all, of the recesses are open only to one of the side surfaces of the carrier body , characterized in that the recesses are covered on the side surface , to which the recesses are open, by a common, preferably annular, cover .
An air conditioning device for a driving cabin , in particular of a railway vehicle, including: - a heat exchanger intended to exchange heat with the air circulating in the air conditioning device , - an air distribution box , extending in a longitudinal direction (X) between a front part and a rear part , and in a transverse direction between two side parts , the distribution box being intended to be fastened to a ceiling of the driving cabin , and comprising: • in its front part , a front inlet for air coming from the cabin , connected upstream from the heat exchanger , and • in each of its side parts , a respective side outlet for conditioned air, connected downstream from the heat exchanger characterized in that : - each side conditioned air outlet includes a second member directing the flow of air, able to give the stream of air blown by that side outlet a respective predefined second air blowing direction (B), - for each side outlet , the corresponding second predefined blowing direction (B) forms an angle comprised between 20 and 25°, for example 22°, with a transverse plane perpendicular to the longitudinal direction (X), the conditioned air flow preferably being oriented toward the front, and - for each side outlet , the corresponding second predefined blowing direction (B) forms an angle comprised between 40 and 50°, for example 45°, with a longitudinal plane perpendicular to the transverse direction (Y), the conditioned air flow being intended to be oriented toward a side wall of the cabin . - a heat exchanger intended to exchange heat with the air circulating in the air conditioning device , - an air distribution box , extending in a longitudinal direction (X) between a front part and a rear part , and in a transverse direction between two side parts , the distribution box being intended to be fastened to a ceiling of the driving cabin , and comprising: • in its front part , a front inlet for air coming from the cabin , connected upstream from the heat exchanger , and • in each of its side parts , a respective side outlet for conditioned air, connected downstream from the heat exchanger • in its front part , a front inlet for air coming from the cabin , connected upstream from the heat exchanger , and • in each of its side parts , a respective side outlet for conditioned air, connected downstream from the heat exchanger - each side conditioned air outlet includes a second member directing the flow of air, able to give the stream of air blown by that side outlet a respective predefined second air blowing direction (B), - for each side outlet , the corresponding second predefined blowing direction (B) forms an angle comprised between 20 and 25°, for example 22°, with a transverse plane perpendicular to the longitudinal direction (X), the conditioned air flow preferably being oriented toward the front, and - for each side outlet , the corresponding second predefined blowing direction (B) forms an angle comprised between 40 and 50°, for example 45°, with a longitudinal plane perpendicular to the transverse direction (Y), the conditioned air flow being intended to be oriented toward a side wall of the cabin .
A head-mounted display device configured to be worn by a user , the display device comprising: an at least partially see-through display , a front-facing camera operative to capture a first image of a real-world scene, a wireless-communications interface , and processing means operative to: select a calibration object from one or more real-world objects, or parts thereof, (130-135) which are visible in the first image, by identifying, using the wireless-communications interface, a communications device comprising a display among the one or more real-world objects, and selecting as the calibration object at least one of the display of the communications device and graphical content displayed thereon, and derive a calibration transformation, using the selected calibration object, for calculating a display position based on a real-world position, such that a virtual object which is displayed on the display at the display position is aligned with a corresponding real-world object located at the real-world position, as seen by the user, the display device characterized in that the processing means is further operative to receive a representation of the displayed graphical content from the communications device via the wireless-communications interface. an at least partially see-through display , a front-facing camera operative to capture a first image of a real-world scene, a wireless-communications interface , and processing means operative to: select a calibration object from one or more real-world objects, or parts thereof, (130-135) which are visible in the first image, by identifying, using the wireless-communications interface, a communications device comprising a display among the one or more real-world objects, and selecting as the calibration object at least one of the display of the communications device and graphical content displayed thereon, and derive a calibration transformation, using the selected calibration object, for calculating a display position based on a real-world position, such that a virtual object which is displayed on the display at the display position is aligned with a corresponding real-world object located at the real-world position, as seen by the user, select a calibration object from one or more real-world objects, or parts thereof, (130-135) which are visible in the first image, by identifying, using the wireless-communications interface, a communications device comprising a display among the one or more real-world objects, and selecting as the calibration object at least one of the display of the communications device and graphical content displayed thereon, and derive a calibration transformation, using the selected calibration object, for calculating a display position based on a real-world position, such that a virtual object which is displayed on the display at the display position is aligned with a corresponding real-world object located at the real-world position, as seen by the user,
Method for estimating an airspeed of an ego object , in particular a train, wherein rays are emitted by the ego object , wherein reflected rays are received by the ego object , wherein the received rays are reviewed in terms of whether the rays were reflected by a stationary or moving object, and wherein the rays which were reflected by stationary objects are used for the estimation of the airspeed, wherein at least one first spatial region relative to the ego object is specified, wherein received rays which were reflected from the first region are not used for the estimation of the airspeed or are used with lower weighting for the estimation of the airspeed, characterised in that at least a first further spatial region relative to the ego object and a second further spatial region relative to the ego object are specified, wherein in each case a number of reflected rays for the first further region and the second further region are ascertained, wherein the reflected rays of the first further region are not used for the estimation of the airspeed if the number of rays of the first further region lies above the number of the second further region by more than a comparison value.
A robot behavior generation method of reproducing behavior of a human body with a robot, comprising: a first step of generating a human body model by modeling a structure of the human body (S1); a second step of generating a robot model by modeling a structure of the robot (S2); a third step of associating the human body model generated in the first step and the robot model generated in the second step with each other (S3); a fourth step of acquiring normative motion data indicating movement of the human body model corresponding to behavior of the human body (S4); a fifth step of setting an evaluation standard for a reproduction error with respect to the normative motion data acquired in the fourth step, by sorting out motion feature indices included in first unknown motion data indicating movement of the human body model generated in the first step (S5) ; a sixth step of selecting a constraint condition necessary for the robot to move, the constraint condition being included in second unknown motion data indicating movement of the robot model generated in the second step (S6); a seventh step of calculating the first unknown motion data and the second unknown motion data the reproduction errors of which are minimum based on the evaluation standard set in the fifth step under the association obtained in the third step and the constraint condition selected in the sixth step (S7); and an eighth step of controlling the robot by using the second unknown motion data calculated in the seventh step (S8). a first step of generating a human body model by modeling a structure of the human body (S1); a second step of generating a robot model by modeling a structure of the robot (S2); a third step of associating the human body model generated in the first step and the robot model generated in the second step with each other (S3); a fourth step of acquiring normative motion data indicating movement of the human body model corresponding to behavior of the human body (S4); a fifth step of setting an evaluation standard for a reproduction error with respect to the normative motion data acquired in the fourth step, by sorting out motion feature indices included in first unknown motion data indicating movement of the human body model generated in the first step (S5) ; a sixth step of selecting a constraint condition necessary for the robot to move, the constraint condition being included in second unknown motion data indicating movement of the robot model generated in the second step (S6); a seventh step of calculating the first unknown motion data and the second unknown motion data the reproduction errors of which are minimum based on the evaluation standard set in the fifth step under the association obtained in the third step and the constraint condition selected in the sixth step (S7); and an eighth step of controlling the robot by using the second unknown motion data calculated in the seventh step (S8).
A gripper for grasping, moving, orienting and depositing a pallet , comprising attachment means for gripping the pallet along the longitudinal side members of said pallet , gripper being designed to be hinged on an automated manipulator moving along a support structure, thereby allowing the pallet to be moved, oriented and deposited in a loading position on the support structure or in an unloading position for example on the ground, characterized in that said the attachment means comprise: - a centering pin protruding from the lower face of the gripper , designed to engage in a centering hole formed on the upper face of a side member , and - two snap locks , located on either side of the centering pin and driven by means of an actuator and connecting means integrated into the gripper . - a centering pin protruding from the lower face of the gripper , designed to engage in a centering hole formed on the upper face of a side member , and - two snap locks , located on either side of the centering pin and driven by means of an actuator and connecting means integrated into the gripper .
A packaging and application device , having: - a container containing a product to be applied, the container comprising a first part and a second part , which are connected to one another by a hinge connection ; - an applicator , the said applicator being accommodated in an interior space (E) provided in the hinge connection , the interior space (E) being accessible only when the device is in the open position, characterized in that the interior space (E) has a volume with a cylindrical form. - a container containing a product to be applied, the container comprising a first part and a second part , which are connected to one another by a hinge connection ; - an applicator , the said applicator being accommodated in an interior space (E) provided in the hinge connection ,