mhurhangee/ep-ind-claims huggingface dataset:
A method of efficiently creating a photomap of a survey area, the method comprising: moving image capture devices, located on one (110/120) or more (110,120) vehicles, relative to the survey area, locations of the image capturing devices relative to one another being known; capturing, during vehicle movement, images at two or more resolutions, the resolutions comprising at least a lower resolution and a higher resolution, using two or more (210A, 220A) image capturing devices, the images being captured along survey paths (560, 568) which are substantially parallel to a direction of vehicle motion; arranging that timing of image captures for each resolution is such that images for each resolution overlap sequentially in a direction parallel to the direction of vehicle motion, and characterised by: the percentage of overlap being greatest for a lowest of the lower resolution images compared with the percentage(s) of overlap for the higher resolution images; identifying common points in a plurality of a highest of the higher resolution images and in a plurality of the lower resolution images, estimating, via bundle adjustment, interior and exterior orientations for each image captured at the highest resolution, using said identified common ground points, and merging, using the estimated interior and exterior orientations, the images captured at the highest resolution to create the photomap. moving image capture devices, located on one (110/120) or more (110,120) vehicles, relative to the survey area, locations of the image capturing devices relative to one another being known; capturing, during vehicle movement, images at two or more resolutions, the resolutions comprising at least a lower resolution and a higher resolution, using two or more (210A, 220A) image capturing devices, the images being captured along survey paths (560, 568) which are substantially parallel to a direction of vehicle motion; arranging that timing of image captures for each resolution is such that images for each resolution overlap sequentially in a direction parallel to the direction of vehicle motion, and characterised by: the percentage of overlap being greatest for a lowest of the lower resolution images compared with the percentage(s) of overlap for the higher resolution images; identifying common points in a plurality of a highest of the higher resolution images and in a plurality of the lower resolution images, estimating, via bundle adjustment, interior and exterior orientations for each image captured at the highest resolution, using said identified common ground points, and merging, using the estimated interior and exterior orientations, the images captured at the highest resolution to create the photomap.
A macrocell base station to form a macrocell, the macrocell base station comprising: a storage device to store information of a plurality of virtual areas (VA-A, VA-B, VA-C), obtained by dividing the macrocell based on a distance (a, b, x) from the macrocell base station, and information of a small cell (SC1, SC2) associated with each of the plurality of virtual areas; and a control apparatus to perform a process of specifying a virtual area (VA-C) of the plurality of virtual areas in which a terminal is located, the specifying using a distance between the macrocell base station and the terminal, and a process of generating cell search information for one said small cell that is to be transmitted to the terminal, the generating using information of a small cell associated with the specified virtual area. a storage device to store information of a plurality of virtual areas (VA-A, VA-B, VA-C), obtained by dividing the macrocell based on a distance (a, b, x) from the macrocell base station, and information of a small cell (SC1, SC2) associated with each of the plurality of virtual areas; and a control apparatus to perform a process of specifying a virtual area (VA-C) of the plurality of virtual areas in which a terminal is located, the specifying using a distance between the macrocell base station and the terminal, and a process of generating cell search information for one said small cell that is to be transmitted to the terminal, the generating using information of a small cell associated with the specified virtual area.
A filtering element which is made of a plant fiber selected among hemp, kenaf, jute and agave, characterized in that it comprises additives with compaction and agglomeration functions, in a percentage up to 50% by weight with respect to the percentage of said plant fiber, and in that said plant fiber is used in its original form and not converted into paper and/or fabric.
A compressor assembly for an intake system, comprising: a monolithic housing; a first resonator section formed in the monolithic housing, the first resonator section defining two or more volumes configured to attenuate noise associated with fluid flowing through the monolithic housing; a compressor section formed in the monolithic housing, the compressor section including a compressor configured to compress the fluid flowing through the monolithic housing; and a second resonator section formed in the monolithic housing, the second resonator section defining two or more volumes configured to attenuate noise associated with the fluid flowing through the monolithic housing; characterized in that: each of the first resonator section and the second resonator section includes: a conduit portion defining an inlet, an outlet, and a plurality of apertures (58, 60); and a plurality of chambers (64, 66) in communication with the conduit portion through the plurality of apertures (58, 60). a monolithic housing; a first resonator section formed in the monolithic housing, the first resonator section defining two or more volumes configured to attenuate noise associated with fluid flowing through the monolithic housing; a compressor section formed in the monolithic housing, the compressor section including a compressor configured to compress the fluid flowing through the monolithic housing; and a second resonator section formed in the monolithic housing, the second resonator section defining two or more volumes configured to attenuate noise associated with the fluid flowing through the monolithic housing; each of the first resonator section and the second resonator section includes: a conduit portion defining an inlet, an outlet, and a plurality of apertures (58, 60); and a plurality of chambers (64, 66) in communication with the conduit portion through the plurality of apertures (58, 60). a conduit portion defining an inlet, an outlet, and a plurality of apertures (58, 60); and a plurality of chambers (64, 66) in communication with the conduit portion through the plurality of apertures (58, 60).
A composition comprising per serving between 50 - 300 kcal; between 10 g and 35g proteinaceous matter comprising 50 - 95 wt% whey protein and at least 13 wt% leucine, based on proteinaceous matter; and at least 2.5 microgram vitamin D, for use in: a. the treatment or prevention of muscle mass decrease, or b. stimulation of muscle mass increase, or c. stimulating muscle mass preservation in obese or overweight adults of at least 40 years of age which suffer from a disease or condition selected from the group consisting of sarcopenia, obesity, sarcopenic obesity, pre-diabetes type 2, diabetes type 2, pre-frailty or frailty, and participate in a weight loss program comprising a hypo-caloric diet in combination with an exercise regimen, wherein said hypo-caloric diet involves a daily energy uptake of less than the daily energy expenditure of said adults and wherein said exercise regimen involves resistance exercise. a. the treatment or prevention of muscle mass decrease, or b. stimulation of muscle mass increase, or c. stimulating muscle mass preservation
Gripping tool for coil-like and/or disc-like gripping objects, in particular SMD reels, wherein the automatically handleable and operable gripping tool comprises a frame with a connection, in particular a robot connection, and a gripper with a controllable adjusting device, which is designed for lateral guidance as well as for central gripping and support of a gripping object, characterized in that the gripper has a support arm (11, 12) with an end-side controllable gripping means which is designed for central gripping and support, and optionally for rotatable mounting, of a gripping object at its central recess, wherein the controllable gripping means having an adjusting rod (19, 20) which extends along the support arm (11, 12) with a lateral projection (17, 18) at the end.
Tumble dryer having at least one receiving area for laundry and at least two electrodes for measuring the conductance of the laundry, wherein at least one of the electrodes is at least partly adjacent to this receiving area, characterised in that means are further provided in the tumble dryer to dissipate heat from at least one part of at least one of the electrodes, wherein the means for dissipating heat comprise air guidance means (32, 33, 211, 411) via which cooling air can be fed in and discharged, which are embodied to bring the electrodes to a temperature lying below the process temperature in the tumble dryer.
Aerating device for a ground, comprising: - a frame; - moving means arranged on the frame for the purpose of moving the aerating device in a direction of movement over a ground surface for working; - a drive; - a rotor shaft provided with a plurality of knives, wherein the rotor shaft is arranged bearing-mounted between the frame and the drive, wherein the rotor shaft is operatively coupled to the drive for the purpose of rotating the rotor shaft, wherein the knives are inserted successively into the ground surface, characterized in that, during uncoupling of the rotor shaft from the drive, the rotor shaft is moved in the axial direction of the rotor shaft away from the drive such that the rotor shaft lies clear at a distance from the drive. - a frame; - moving means arranged on the frame for the purpose of moving the aerating device in a direction of movement over a ground surface for working; - a drive; - a rotor shaft provided with a plurality of knives, wherein the rotor shaft is arranged bearing-mounted between the frame and the drive, wherein the rotor shaft is operatively coupled to the drive for the purpose of rotating the rotor shaft, wherein the knives are inserted successively into the ground surface,
A method for dividing a thin film device having a first layer which is a lower electrode layer, a second layer which is an active layer and a third layer which is an upper electrode layer, all the layers being continuous over the device, into separate cells which are electrically interconnected in series, the dividing of the cells and the electrical connection between adjacent cells all being carried out in a single pass of process head across the device, the process head comprising a first part positioned above the device and a second part positioned beneath the device, the first and second parts of the process head together performing the following steps in the single pass: a) making a first cut through the first, second and third layers; b) making a second cut through the second and third layers, the second cut being adjacent to the first cut; c) making a third cut through the third layer the third cut being adjacent to the second cut and on the opposite side of the second cut to the first cut; d) using a first ink jet print head (9, 9') on the first part of the process head to deposit a non-conducting material into the first cut; and e) using a second ink jet print head (11, 11') on the first part of the process head to apply conducting material to bridge the non-conducting material in the first cut and either fully or partially fill the second cut such that an electrical connection is made between the first layer and the third layer, wherein step (a) precedes step (d), step (d) precedes step (e) and step (b) precedes step (e), otherwise the steps may be carried out in any order in the single pass of the process head across the device and wherein at least one of the first, second or third cuts (6, 7, 8) is formed using a laser beam (3, 4, 5) directed from the second part of the process head towards said first, second and third layers from the underside of the device. a) making a first cut through the first, second and third layers; b) making a second cut through the second and third layers, the second cut being adjacent to the first cut; c) making a third cut through the third layer the third cut being adjacent to the second cut and on the opposite side of the second cut to the first cut; d) using a first ink jet print head (9, 9') on the first part of the process head to deposit a non-conducting material into the first cut; and e) using a second ink jet print head (11, 11') on the first part of the process head to apply conducting material to bridge the non-conducting material in the first cut and either fully or partially fill the second cut such that an electrical connection is made between the first layer and the third layer,
A fan control system comprising: a first sensor; a second sensor; a reversible flow fan; and a controller, wherein the first sensor is provided in a first room, and is configured to acquire a measured value of atmospheric pressure for the first room, the second sensor is provided in a second room adjacent to the first room, and is configured to acquire a measured value of atmospheric pressure for the second room, and wherein the reversible flow fan is placed at a boundary between the first and second rooms and is configured to output an reversible flow fan rotation signal regarding its rotational speed and rotational direction, and the controller is configured to receive the measured values from each of the first and second sensors and the reversible flow fan rotational signal from the reversible flow fan and, with reference to received measured values and the rotational speed and rotational direction of the reversible flow fan based on received reversible flow fan rotation signal, to control the rotational speed and rotational direction of the reversible flow fan in such a manner that the measured values of the first and second sensors are the same. a first sensor; a second sensor; a reversible flow fan; and a controller, wherein the first sensor is provided in a first room, and is configured to acquire a measured value of atmospheric pressure for the first room, the second sensor is provided in a second room adjacent to the first room, and is configured to acquire a measured value of atmospheric pressure for the second room, and wherein the reversible flow fan is placed at a boundary between the first and second rooms and is configured to output an reversible flow fan rotation signal regarding its rotational speed and rotational direction, and the controller is configured to receive the measured values from each of the first and second sensors and the reversible flow fan rotational signal from the reversible flow fan and, with reference to received measured values and the rotational speed and rotational direction of the reversible flow fan based on received reversible flow fan rotation signal, to control the rotational speed and rotational direction of the reversible flow fan in such a manner that the measured values of the first and second sensors are the same.
Acoustic radiating membrane for a music box or striking watch, characterized in that it is made with at least two areas of circularly asymmetrical shape formed in the material of the membrane or with at least two areas of circularly asymmetrical shape hollowed out of a part of the membrane or projecting from one part of the membrane to increase the number of natural frequencies of vibrations between 1 kHz and 4 kHz.
An apparatus for separating smaller particles from larger particles by means of cyclonic separation, wherein the apparatus comprises: - a feeding pipe having an upper end for receiving material to be separated and defining a first channel for transporting the material to a lower end of the feeding pipe, - a separation chamber having a curved wall, a first opening arranged at an upper end of the separation chamber, a second opening arranged at a lower end of the separation chamber, and the separation chamber surrounds the feeding pipe such that a second channel is formed between the feeding pipe and the curved wall, - an air inlet unit arranged for supplying air to the second opening of the separation chamber, and - an outlet unit arranged for receiving air and separated material from the first opening of the separation chamber and to discharge the air and separated material, characterized in that the curved wall is conically shaped and tapers from the second opening to the first opening, and the feeding pipe and the separation chamber are concentrically arranged. - a feeding pipe having an upper end for receiving material to be separated and defining a first channel for transporting the material to a lower end of the feeding pipe, - a separation chamber having a curved wall, a first opening arranged at an upper end of the separation chamber, a second opening arranged at a lower end of the separation chamber, and the separation chamber surrounds the feeding pipe such that a second channel is formed between the feeding pipe and the curved wall, - an air inlet unit arranged for supplying air to the second opening of the separation chamber, and - an outlet unit arranged for receiving air and separated material from the first opening of the separation chamber and to discharge the air and separated material, characterized in that the curved wall is conically shaped and tapers from the second opening to the first opening, and the feeding pipe and the separation chamber are concentrically arranged.
A vehicle system comprising: one or more systems (204, 206) sending and receiving position data and sensor data; an in-vehicle communication system to send and receive position data and sensor data in a Vehicle-to-Everything, V2X, system; an in-vehicle computing system including a processor and a storage device having non-volatile memory, the storage device for storing data and instructions executable by the processor to: extract driving intention data from one or more systems, wherein driving intention data comprises route data, driving behavior data and driving motion data; extract driving capability data from one or more systems; extract driving mode data from one or more systems; determine autonomous driving information from the extracted driving intention, driving capability and driving mode data, wherein the autonomous driving information includes a sequence of waypoints, a driving task, a vehicle trajectory, an autonomous driving level, and a driving mode; create a message frame that includes the autonomous driving information; and send the message frame to the Vehicle-to-Everything, V2X, system. one or more systems (204, 206) sending and receiving position data and sensor data; an in-vehicle communication system to send and receive position data and sensor data in a Vehicle-to-Everything, V2X, system; an in-vehicle computing system including a processor and a storage device having non-volatile memory, the storage device for storing data and instructions executable by the processor to: extract driving intention data from one or more systems, wherein driving intention data comprises route data, driving behavior data and driving motion data; extract driving capability data from one or more systems; extract driving mode data from one or more systems; determine autonomous driving information from the extracted driving intention, driving capability and driving mode data, wherein the autonomous driving information includes a sequence of waypoints, a driving task, a vehicle trajectory, an autonomous driving level, and a driving mode; create a message frame that includes the autonomous driving information; and send the message frame to the Vehicle-to-Everything, V2X, system. extract driving intention data from one or more systems, wherein driving intention data comprises route data, driving behavior data and driving motion data; extract driving capability data from one or more systems; extract driving mode data from one or more systems; determine autonomous driving information from the extracted driving intention, driving capability and driving mode data, wherein the autonomous driving information includes a sequence of waypoints, a driving task, a vehicle trajectory, an autonomous driving level, and a driving mode; create a message frame that includes the autonomous driving information; and send the message frame to the Vehicle-to-Everything, V2X, system.
A method of anodizing the interior surface of a heat transfer tube, wherein the heat transfer tube comprises aluminum, the method comprising: placing a plurality of contact electrodes (30a, 30b, 30c) in electrical communication with, and along, an exterior surface of the heat transfer tube, inserting a counter electrode into an interior space of the heat transfer tube, providing an electrolytic solution to the interior space of the heat transfer tube, passing an electric current between the plurality of contact electrodes (30a, 30b, 30c) and the counter electrode through the electrolytic solution, forming an oxidation layer along the interior surface of the heat transfer tube, stopping the passage of the electric current, removing the electrolytic solution, and applying a sealing solution to a surface of the oxidation layer to form a sealed oxidation layer along the interior surface of the heat transfer tube, characterized in that: the formed oxidation layer has an oxidation layer thickness that decreases along a length of the heat transfer tube from one end to an opposite end. placing a plurality of contact electrodes (30a, 30b, 30c) in electrical communication with, and along, an exterior surface of the heat transfer tube, inserting a counter electrode into an interior space of the heat transfer tube, providing an electrolytic solution to the interior space of the heat transfer tube, passing an electric current between the plurality of contact electrodes (30a, 30b, 30c) and the counter electrode through the electrolytic solution, forming an oxidation layer along the interior surface of the heat transfer tube, stopping the passage of the electric current, removing the electrolytic solution, and applying a sealing solution to a surface of the oxidation layer to form a sealed oxidation layer along the interior surface of the heat transfer tube, characterized in that: the formed oxidation layer has an oxidation layer thickness that decreases along a length of the heat transfer tube from one end to an opposite end.