mhurhangee/ep-ind-claims huggingface dataset:
Method for optimizing a position of at least one air deflector guiding an airflow around a vehicle, particularly a truck or truck-trailer combination, during driving, wherein the position of the at least one air deflector is determined by an actuator which is controlled in response to a control signal, said method comprising the steps of: - Controlling the speed of the vehicle by means of a vehicle driving control system for providing a constant speed of the vehicle during the optimization; - Sensing the control signal indicating the air resistance of the vehicle, - Varying the position of the at least one air deflector until the control signal indicates a minimized air resistance of the vehicle. - Controlling the speed of the vehicle by means of a vehicle driving control system for providing a constant speed of the vehicle during the optimization; - Sensing the control signal indicating the air resistance of the vehicle, - Varying the position of the at least one air deflector until the control signal indicates a minimized air resistance of the vehicle.
An inspection device, comprising: an X-ray inspection system configured to perform X-ray inspection on an item of luggage to obtain a transmission image of said luggage; a memory (160, 161, 162, 163) configured to store the transmission image and having sample transmission images of firearms stored thereon; and a processor (160, 165) configured to: determine a plurality of candidate regions in the transmission image using a trained firearm detection neural network; and classify the plurality of candidate regions using the firearm detection neural network to determine whether there is a firearm included in the transmission image, characterized in that: the processor is further configured to fuse a Region Proposal Network, RPN, and a convolutional layer of a Convolutional Neural Network, CNN, to obtain an initial detection network, and train the initial detection network using the sample transmission images to obtain the trained firearm detection neural network. an X-ray inspection system configured to perform X-ray inspection on an item of luggage to obtain a transmission image of said luggage; a memory (160, 161, 162, 163) configured to store the transmission image and having sample transmission images of firearms stored thereon; and a processor (160, 165) configured to: determine a plurality of candidate regions in the transmission image using a trained firearm detection neural network; and classify the plurality of candidate regions using the firearm detection neural network to determine whether there is a firearm included in the transmission image, characterized in that: determine a plurality of candidate regions in the transmission image using a trained firearm detection neural network; and classify the plurality of candidate regions using the firearm detection neural network to determine whether there is a firearm included in the transmission image, characterized in that: the processor is further configured to fuse a Region Proposal Network, RPN, and a convolutional layer of a Convolutional Neural Network, CNN, to obtain an initial detection network, and train the initial detection network using the sample transmission images to obtain the trained firearm detection neural network.
Floating domestic effluent treatment plant, including at least one treatment unit comprising at least one first aerobic treatment tank integrated on a main floating platform so as to extend at least partially below the waterline of the platform, in order, under the effect of Archimedean buoyant force, to reduce the weight supported by the platform due to this aerobic treatment tank, the tank being provided with upstream connection means for supplying it with effluent to be treated and downstream connection means for discharging digested effluent, characterized in that the treatment unit includes at least one buffer storage tank for effluent to be treated, which is connected to the upstream connection means of the aerobic treatment tank and mounted on said main floating platform or a secondary floating platform so as to extend substantially below the waterline (7, 7A) of said platform, characterized in that this buffer storage tank is defined as having a variable volume and consists of a liner.
A camera system comprising: two camera units (10, 20) including respective optical filters (12, 22) and image sensors (11, 21) that acquire captured images (10A, 20A, 40) via the optical filters (12, 22), each of the optical filters (11, 21) having multiple filter regions (12a, 12b, 12c; 22a, 22b, 22c) including a color filter region, a clear filter region and a neutral density filter region, wherein the color filter region is disposed at an area corresponding to an upper region of the captured images, the clear filter region is disposed at an area corresponding to a central region of the captured images and the neutral density filter (12c; 22c) is disposed at an area corresponding to a lower region of the captured images (10A, 20A, 40); and wherein the captured images are divided into image regions (40a, 40b, 40c) corresponding, respectively, to the color filter region, the clear filter region and the neutral density filter region; and an image processor operably connected to the two camera units (10, 20), configured to perform parallax calculation in the image region corresponding to the clear filter region; perform object recognition based on color information in the image region corresponding to the color filter region; and perform rain drop detection in the image region corresponding to the neutral density filter. two camera units (10, 20) including respective optical filters (12, 22) and image sensors (11, 21) that acquire captured images (10A, 20A, 40) via the optical filters (12, 22), each of the optical filters (11, 21) having multiple filter regions (12a, 12b, 12c; 22a, 22b, 22c) including a color filter region, a clear filter region and a neutral density filter region, wherein the color filter region is disposed at an area corresponding to an upper region of the captured images, the clear filter region is disposed at an area corresponding to a central region of the captured images and the neutral density filter (12c; 22c) is disposed at an area corresponding to a lower region of the captured images (10A, 20A, 40); and wherein the captured images are divided into image regions (40a, 40b, 40c) corresponding, respectively, to the color filter region, the clear filter region and the neutral density filter region; and an image processor operably connected to the two camera units (10, 20), configured to perform parallax calculation in the image region corresponding to the clear filter region; perform object recognition based on color information in the image region corresponding to the color filter region; and perform rain drop detection in the image region corresponding to the neutral density filter.
A perfected animal manure drying facility that is suitable for drying farm animal excrement and/or manure, adapted for the drying treatment of a previously prepared mixture of fresh manure and previously dried manure, comprising an upper chamber and a lower chamber that are perceptibly longitudinal and placed one on top of the other, sifting means that are permeable to the passage of air therethrough and are positioned between the two chambers (1, 2), acting as a separation between the latter, and are arranged for the mixture of manure to be treated to be deposited thereupon, an upper cart that can move about the upper chamber and a lower cart that can move about the lower chamber, air supply means arranged to circulate air through the sifting means, mixing means for mixing fresh manure and previously dried manure, receiving means for receiving the mixture of manure to be treated and removal means for removing the mixture of treated manure; the upper cart being equipped with distribution means (11, 51) arranged to distribute the mixture to be treated over the sifting means, equipped with mixing and leveling means arranged to make the mixture of manure to be treated permeable to the passage of air when it is distributed over the sifting means; the lower cart being equipped with dragging means arranged to move the dumped mixture coming from the sifting means from the lower chamber to the removal means; characterised in that the upper cart being also equipped with displacement means arranged to dump the mixture from the sifting means down to the lower chamber.
Detachable electrostatic discharge device for a memory card, said memory card being intended to be inserted into a slot of a read terminal for said memory card, said discharge device being characterised in that it comprises: - a substantially flat portion, forming the base of said device; - a plurality of portions (102, 103) that are inclined relative to said flat portion; - means for inserting said electrostatic discharge device into said slot of said read terminal, said insertion means being in the form of a lip forming a 90° angle with said flat portion, said lip being perpendicular to the direction for inserting said device into said slot. - a substantially flat portion, forming the base of said device; - a plurality of portions (102, 103) that are inclined relative to said flat portion; - means for inserting said electrostatic discharge device into said slot of said read terminal, said insertion means being in the form of a lip forming a 90° angle with said flat portion, said lip being perpendicular to the direction for inserting said device into said slot.
A computer-implemented method for obtaining a decision model for picking for mushrooms from a bed, characterized by comprising the steps of: A. Repeatedly capturing images of picking operations of mushrooms from the same area of at least one bed before and after picking; B. Analysing the picking operation images by means of unsupervised learning, in particular machine learning by means of cluster analysis; C. Based on the analysis, obtaining a decision model for picking mushrooms from a bed. A. Repeatedly capturing images of picking operations of mushrooms from the same area of at least one bed before and after picking; B. Analysing the picking operation images by means of unsupervised learning, in particular machine learning by means of cluster analysis; C. Based on the analysis, obtaining a decision model for picking mushrooms from a bed.
A method of controlling the operation of a wind turbine comprising a rotor, a generator and at least one heat generating component (105, 130, 140), wherein the method comprises: - obtaining a temperature of the heat generating component (105, 130, 140) that generates heat due to electrical losses associated with the production of electrical power by the wind turbine; - determining the presence of a predetermined increase of the temperature of the heat generating component (105, 130, 140); and - upon determining the presence of the predetermined temperature increase, controlling the rotational speed of the generator so as to increase the rotational speed of the generator while not increasing the electrical power output of the generator or while increasing the electrical power output of the generator at a smaller proportion than the increase in rotational speed of the generator so as to reduce the level of electrical current in the generator. - obtaining a temperature of the heat generating component (105, 130, 140) that generates heat due to electrical losses associated with the production of electrical power by the wind turbine; - determining the presence of a predetermined increase of the temperature of the heat generating component (105, 130, 140); and - upon determining the presence of the predetermined temperature increase, controlling the rotational speed of the generator so as to increase the rotational speed of the generator while not increasing the electrical power output of the generator or while increasing the electrical power output of the generator at a smaller proportion than the increase in rotational speed of the generator so as to reduce the level of electrical current in the generator.
Wheel hub, in particular wheel hub for a commercial vehicle, comprising - a brake element contact surface against which a brake element, in particular a brake disc or a brake drum, rests in a mounted state, and - a form-fitting means which, in the assembled state, as seen in the direction of rotation, interacts positively with the brake element, and/or - a receiving region for a positive-locking means which, in the assembled state, as seen in the direction of rotation, interacts positively with the brake element, wherein a primary recess is provided for axially fixing the brake element, wherein the primary recess opens into the braking element contact surface. - a brake element contact surface against which a brake element, in particular a brake disc or a brake drum, rests in a mounted state, and - a form-fitting means which, in the assembled state, as seen in the direction of rotation, interacts positively with the brake element, and/or - a receiving region for a positive-locking means which, in the assembled state, as seen in the direction of rotation, interacts positively with the brake element,
Thermal trip device for an electrical current breaking apparatus housed in an insulating housing and comprising at least one single-pole phase assembly (2, 3, 4, 5) and one control mechanism, said single-pole phase assembly comprising a breaking chamber housing a fixed contact and a moving contact, the different moving contacts of the different assemblies being borne by a moving contact-holding shaft, these moving contacts being able to be brought into an open position manually or automatically via, for each subassembly, a thermal protection device suitable for actuating the control mechanism so as to open the contacts upon the occurrence of an overcurrent in the circuit to be protected, said thermal protection device comprising, on the one hand, a so-called active bimetal strip suitable for producing an overheating when an overcurrent occurs above a certain level above the rated current value, this overheating leading to a thermal tripping of the control mechanism of the apparatus so as to result in an opening of the contacts, and on the other hand, a so-called compensation bimetal strip, intended to compensate the variations that the changes of the ambient temperature determine in the temperature of the circuit, the compensation bimetal strip being mounted to rotate about a so-called first fixed axis belonging to a support of the so-called first apparatus, the two bimetal strips being secured to one another at one of their ends by means of an attachment device, this attachment device being deactivated upon the occurrence of an overcurrent, this deactivation resulting in the actuation by the compensation bimetal strip of the control mechanism, characterized in that the compensation bimetal strip is mounted in a fixed manner at least partly in a recess provided in an insulating electrical support-forming part, said support being arranged relative to the active bimetal strip in such a way that it forms a screen suitable for protecting the compensation bimetal strip from the thermal radiation generated by the active bimetal strip.
A method of transmitting feedback information from a user equipment to a network for fractional beamforming based on multiples antennas in a wireless communication system, the method comprising: receiving, by the UE, reference signals corresponding to antenna partitions included in the multiple antennas and information on the beamforming modes included in a candidate beamforming mode set from the network; selecting, by the UE, two or more beamforming modes among beamforming modes included in the candidate beamforming mode set and configuring the feedback information related to the selected two or more beamforming modes, based on the reference signals; and transmitting, by the UE, the feedback information to the network, wherein the feedback information includes a precoding matrix index corresponding to at least one of the antenna partitions and linking coefficient information for linking the antenna partitions, wherein the feedback information further includes channel quality information of one beamforming mode among the selected two or more beamforming modes and a difference value between the CQI and a CQI of an other beamforming mode among the selected two or more beamforming modes. receiving, by the UE, reference signals corresponding to antenna partitions included in the multiple antennas and information on the beamforming modes included in a candidate beamforming mode set from the network; selecting, by the UE, two or more beamforming modes among beamforming modes included in the candidate beamforming mode set and configuring the feedback information related to the selected two or more beamforming modes, based on the reference signals; and transmitting, by the UE, the feedback information to the network, wherein the feedback information includes a precoding matrix index corresponding to at least one of the antenna partitions and linking coefficient information for linking the antenna partitions, wherein the feedback information further includes channel quality information of one beamforming mode among the selected two or more beamforming modes and a difference value between the CQI and a CQI of an other beamforming mode among the selected two or more beamforming modes.
A composition for use in reducing cancer in a patient in need of treatment wherein the composition comprises natural killer cells wherein greater than about 50% of the NK cells have been genetically modified to express a polypeptide that confers resistance to a chemotherapy agent.
A cooling module for an electrical energy storage system for an electric drive vehicle; the cooling module comprises an exchanger plate, which has the shape of a parallelepiped and is hollow on the inside so as to have, on the inside, a circulation chamber which is designed to contain a cooling liquid; the exchanger plate has an inlet opening, which is obtained through a front wall of the exchanger plate and is designed to allow the cooling liquid to flow into the circulation chamber; the exchanger plate has an outlet opening that is obtained through a rear wall of the exchanger plate, which is parallel to and opposite the front wall, and is designed to allow the cooling liquid to flow out of the circulation chamber; the exchanger plate has a first side wall and a second side wall, which are parallel to and opposite one another and are perpendicular to the front wall of the exchanger plate and to the rear wall of the exchanger plate; and the cooling module comprises a plurality of interface elements, which are placed inside the circulation chamber of the exchanger plate, are shaped like a wave, are oriented parallel to the front wall and to the rear wall of the exchanger plate, and are arranged in rows, which are placed between the front wall of the exchanger plate and the rear wall of the exchanger plate with a distance other than zero between one row and the adjacent rows and are oriented parallel to the front wall and to the rear wall of the exchanger plate; the cooling module is characterized in that the number of interface elements making up each row progressively increases from the front wall of the exchanger plate towards a centre of the exchanger plate and progressively decreases from the centre of the exchanger plate towards the rear wall of the exchanger plate.
A method for an x-ray system, comprising: during an image-guided interventional procedure, prior to selecting a target, performing a first tomosynthesis scan of a compressed breast with a first collimation at a plurality of angular positions of an x-ray source of the x-ray system; reconstructing a first set of images from first tomosynthesis scan data; responsive to target selection from the first set of images, performing a second tomosynthesis scan of the compressed breast with a second collimation at the plurality of angular positions of the x-ray system; reconstructing a second set of images from the first tomosynthesis scan data; and when an interventional tool is in a pre-fire position, performing a pre-fire tomosynthesis scan of the compressed breast with the interventional tool in the pre-fire position with the second collimation; and reconstructing pre-fire images based on pre-fire scan data from the pre-fire tomosynthesis scan, wherein the first collimation is based on a greater volume of interest; and wherein the second collimation is based on a reduced volume of interest. during an image-guided interventional procedure, prior to selecting a target, performing a first tomosynthesis scan of a compressed breast with a first collimation at a plurality of angular positions of an x-ray source of the x-ray system; reconstructing a first set of images from first tomosynthesis scan data; responsive to target selection from the first set of images, performing a second tomosynthesis scan of the compressed breast with a second collimation at the plurality of angular positions of the x-ray system; reconstructing a second set of images from the first tomosynthesis scan data; and when an interventional tool is in a pre-fire position, performing a pre-fire tomosynthesis scan of the compressed breast with the interventional tool in the pre-fire position with the second collimation; and reconstructing pre-fire images based on pre-fire scan data from the pre-fire tomosynthesis scan, wherein the first collimation is based on a greater volume of interest; and wherein the second collimation is based on a reduced volume of interest.
Mounting platform for mounting at least one power unit in a submarine, comprising at least two mounting parts connected by means of a viscoelastic layer, characterized in that the mounting platform has a support structure with supports, wherein the supports are formed from intrinsically rigid profiled elements which are arranged at least in pairs and which are connected by a viscoelastic layer arranged between the profiled elements, and wherein the profiled elements constitute mounting parts and the support structure is a frame.
A shape memory alloy wire comprising: an alloy composition comprising CuAlMnNi and excluding grain refiner elements, said alloy composition including 20 at% - 28 at% Al, 2 at% - 4 at% Ni, 3 at% - 5 at% Mn with Cu as a remaining balance of the alloy composition; said alloy composition being disposed as an elongated wire of at least 1 meter in length, having a wire diameter of less than 150 microns; and at least 50 vol% of said alloy composition along said wire length having an oligocrystalline microstructure without thermal treatment of the wire. an alloy composition comprising CuAlMnNi and excluding grain refiner elements, said alloy composition including 20 at% - 28 at% Al, 2 at% - 4 at% Ni, 3 at% - 5 at% Mn with Cu as a remaining balance of the alloy composition; said alloy composition being disposed as an elongated wire of at least 1 meter in length, having a wire diameter of less than 150 microns; and at least 50 vol% of said alloy composition along said wire length having an oligocrystalline microstructure without thermal treatment of the wire.