mhurhangee/ep-ind-claims huggingface dataset:
Frame for construction element, the frame comprising a honeycomb structure that extends longitudinally along a longitudinal axis, said structure comprising cells of a polygonal cross-section having an axis that is orthogonal to the longitudinal axis as the normal, the structure comprising at least two rows of cells that are separated from one another by a central arm that extends in parallel with the longitudinal axis of said structure, the rows being bordered on the outside by a first longitudinal arm and a second longitudinal arm of the structure, the first arm and the second arm both extending in parallel with the longitudinal axis, the frame being charaterised in that it comprises one or more reinforcing elements that are fully integrated into the structure, each reinforcing element being shaped into a bar arranged inside the structure, the frame comprising a first bar that extends in the first arm, a second bar that extends in the second arm and a central bar that extends in the central arm, the different bars being integrated into the arms of the structure.
A method for mesh network performance optimization performed by a Cloud-Server, the method comprising: receiving data from a plurality of client steering daemons, CSDs, each operating on an 802.11 access point, AP; performing processing on the received data, wherein the processing includes performing machine learning on the received data to determine a pair of steering profiles for each CSD of the plurality of CSDs, wherein the pair of steering profiles include a steering decision profile, SDP, and a steering mechanism profile, SMP, wherein the SDP is a set of parameters used for computing the cost of keeping a station, STA, at an AP/interface, and wherein the SMP is a set of actions for steering the STA based on the SDP of the pair of steering profiles; generating a pool of steering profiles comprising a set of pairs of SDPs and SMPs based on the processing; and sending a subset of steering profiles of the generated pool of steering profiles to each of the plurality of CSDs to enable steering of a STA based on a single pair of steering profiles from the subset of steering profiles. receiving data from a plurality of client steering daemons, CSDs, each operating on an 802.11 access point, AP; performing processing on the received data, wherein the processing includes performing machine learning on the received data to determine a pair of steering profiles for each CSD of the plurality of CSDs, wherein the pair of steering profiles include a steering decision profile, SDP, and a steering mechanism profile, SMP, wherein the SDP is a set of parameters used for computing the cost of keeping a station, STA, at an AP/interface, and wherein the SMP is a set of actions for steering the STA based on the SDP of the pair of steering profiles; generating a pool of steering profiles comprising a set of pairs of SDPs and SMPs based on the processing; and sending a subset of steering profiles of the generated pool of steering profiles to each of the plurality of CSDs to enable steering of a STA based on a single pair of steering profiles from the subset of steering profiles.
A method for determining a focus position, with the steps: - recording at least one first image (310, 320), wherein image data of the at least one recorded first image (310, 320) depend on at least one first focus position when recording the at least one first image; - determining a second focus position based on an analysis of the at least one recorded first image (310, 320) by means of a trained model; and - recording at least one second image with the second focus position, wherein the at least one first image (310, 320) and the at least one second image contain information that is in a context with a training of the trained model, wherein at least one object of one or more objects, which are depicted in one or more of the at least one recorded first image, is depicted more sharply in the at least one recorded second image than in the at least one recorded first image, wherein the at least one object is in a context with a training of the trained model, characterized in that the trained model is adapted by feedback that changes the model, which continuously evaluates the image data, during the runtime of an experiment or a measurement. - recording at least one first image (310, 320), wherein image data of the at least one recorded first image (310, 320) depend on at least one first focus position when recording the at least one first image; - determining a second focus position based on an analysis of the at least one recorded first image (310, 320) by means of a trained model; and - recording at least one second image with the second focus position, wherein the at least one first image (310, 320) and the at least one second image contain information that is in a context with a training of the trained model, wherein at least one object of one or more objects, which are depicted in one or more of the at least one recorded first image, is depicted more sharply in the at least one recorded second image than in the at least one recorded first image, wherein the at least one object is in a context with a training of the trained model, characterized in that the trained model is adapted by feedback that changes the model, which continuously evaluates the image data, during the runtime of an experiment or a measurement.
A method for shaping, in particular for straightening, keratin-containing fibers, in particular human hair, in which (i) a pretreatment agent containing amino-functional silicone(s) having terminal hydroxy group(s) is applied to the keratin fibers and left there, (ii) the fibers are optionally dried, (iii) the fibers are treated in the moist or dried state with a shaping agent which, based on the weight of the shaping agent, contains from 0.05 to 20 wt.% of alkali metal hydroxide(s), (iv) the fibers are optionally straightened using a comb or a brush during the shaping treatment, (v) the fibers are shampooed using a shampoo which has a pH of from 2.5 to 6.5, rinsed and neutralized, (vi) the fibers are optionally subsequently additionally mechanically deformed under the action of heat. (i) a pretreatment agent containing amino-functional silicone(s) having terminal hydroxy group(s) is applied to the keratin fibers and left there, (ii) the fibers are optionally dried, (iii) the fibers are treated in the moist or dried state with a shaping agent which, based on the weight of the shaping agent, contains from 0.05 to 20 wt.% of alkali metal hydroxide(s), (iv) the fibers are optionally straightened using a comb or a brush during the shaping treatment, (v) the fibers are shampooed using a shampoo which has a pH of from 2.5 to 6.5, rinsed and neutralized, (vi) the fibers are optionally subsequently additionally mechanically deformed under the action of heat.
A computer implemented method operable to assign a reputation to a messaging entity associated with a received communication, comprising: receiving a communication from a first entity; deriving, by a communication analyzer, one or more attribute of the first entity based upon the received communication; analyzing the attributes associated with the first entity and based upon the received communication; retrieving, by a correlation module, known attribute information for a plurality of known entities from a system data store; correlating, by the correlation module, the attributes of the received communication to the known attribute information; defining, by the correlation module, a relationship between the first entity and one or more other entities selected from the plurality of known entities based upon the first entity and the one or more other entities sharing at least one common attribute or common patterns of attributes; identifying, by the correlation module, new attribute information and incorporating new attribute information into the system data store and communication analyzer; and attributing a portion of a first reputation associated with one of the first or the one or more other entities to a second reputation associated with the other of the first or the one or more other entities based upon the defined relationship and said at least one common attribute or common patterns of attributes. receiving a communication from a first entity; deriving, by a communication analyzer, one or more attribute of the first entity based upon the received communication; analyzing the attributes associated with the first entity and based upon the received communication; retrieving, by a correlation module, known attribute information for a plurality of known entities from a system data store; correlating, by the correlation module, the attributes of the received communication to the known attribute information; defining, by the correlation module, a relationship between the first entity and one or more other entities selected from the plurality of known entities based upon the first entity and the one or more other entities sharing at least one common attribute or common patterns of attributes; identifying, by the correlation module, new attribute information and incorporating new attribute information into the system data store and communication analyzer; and attributing a portion of a first reputation associated with one of the first or the one or more other entities to a second reputation associated with the other of the first or the one or more other entities based upon the defined relationship and said at least one common attribute or common patterns of attributes.
A gravity installed anchor comprising - a main anchor plate with one or more connection points for extending an anchor line from a front face of said anchor plate and with a rear face opposite to said front face, - an elongated shank connected at hinge to said anchor plate and arranged for extending near vertically and parallel with said anchor plate during gravity installation, - characterised by - said hinge being arranged for allowing rotating said anchor plate away from a vertical plane and said shank after gravity installation, - said shank extending downwards from said hinge. - a main anchor plate with one or more connection points for extending an anchor line from a front face of said anchor plate and with a rear face opposite to said front face, - an elongated shank connected at hinge to said anchor plate and arranged for extending near vertically and parallel with said anchor plate during gravity installation, - characterised by - said hinge being arranged for allowing rotating said anchor plate away from a vertical plane and said shank after gravity installation, - said shank extending downwards from said hinge.
Amusement ride attraction (1; 201), such as a fairground attraction or an amusement park attraction, comprising a main carrier (10; 210) rotatable about a first, substantially vertical, axis of rotation, a first drive for rotating the main carrier about the first axis of rotation, at least one passenger carrier (20; 220) that is rotatable around a second, substantially vertical axis of rotation, in which the passenger carrier is attached to the main carrier at a distance from the first axis of rotation, a second drive for rotation of the passenger carrier around the second axis of rotation, in which the passenger carrier is provided with one or more passenger carrier arms (22; 222) having a seat carrier with one or more seats, in which each seat carrier is rotatable about a third axis of rotation, characterized in that the third axis of rotation is at an angle α of substantially 30 to 70 degrees with respect to the second axis of rotation, wherein the seats in each seat carrier are at an angle of tilt β with respect to the third axis of rotation, wherein 0<β≤α.
An image forming apparatus, comprising: an inkjet head which includes a plurality of nozzles arranged along a first direction (X direction); a concentration unevenness information acquisition device which, when forming an image including a first concentration region, and a second concentration region separated from the first concentration region by a concentration boundary (306, 306A) and having a relatively lower concentration than the first concentration region has using the inkjet head, acquires concentration unevenness information on whether concentration unevenness is visible in a concentration boundary region in the second concentration region or not; characterized by comprising an adjustment device which, when the concentration unevenness information acquisition device acquires the concentration unevenness information representing that the concentration unevenness is visible, adjusts relative positions between the inkjet head and the image formed by the inkjet head to make a distance from a boundary position (310, 310A) of the inkjet head in the first direction corresponding to a position of the concentration boundary (306, 306A) in the first direction to a second concentration region end of the inkjet head in the first direction be less than a reciprocal of a spatial frequency (λ) of the concentration unevenness. an inkjet head which includes a plurality of nozzles arranged along a first direction (X direction); a concentration unevenness information acquisition device which, when forming an image including a first concentration region, and a second concentration region separated from the first concentration region by a concentration boundary (306, 306A) and having a relatively lower concentration than the first concentration region has using the inkjet head, acquires concentration unevenness information on whether concentration unevenness is visible in a concentration boundary region in the second concentration region or not; characterized by comprising an adjustment device which, when the concentration unevenness information acquisition device acquires the concentration unevenness information representing that the concentration unevenness is visible, adjusts relative positions between the inkjet head and the image formed by the inkjet head to make a distance from a boundary position (310, 310A) of the inkjet head in the first direction corresponding to a position of the concentration boundary (306, 306A) in the first direction to a second concentration region end of the inkjet head in the first direction be less than a reciprocal of a spatial frequency (λ) of the concentration unevenness.
A low-noise amplifier, also referred to as LNA, for receiving an input signal to generate a plurality of noise-cancelled signals, comprising a plurality of main amplifiers (210_1-210_N), wherein each of the main amplifiers (210_1-210_N) is selectively enabled to receive the input signal to generate an amplified signal; characterized by: a matching circuit, for providing input matching and further receiving the input signal; and a plurality of combiners (230_1-230_N), respectively coupled to the main amplifiers (210_1-210_N), wherein each of the combiners (230_1-230_N) is arranged to combine the corresponding amplified signal, if any, with an output of the matching circuit to generate the corresponding noise-cancelled signal, wherein the matching circuit comprises: a matching amplifier, for receiving the input signal; and a resistor, positioned on a feedback path of the matching amplifier, and a plurality of buffer amplifiers (226_1-226_N), for receiving an output of the matching amplifier to generate a plurality of outputs of the matching circuit to the combiners (230_1-230_N), respectively. a matching circuit, for providing input matching and further receiving the input signal; and a plurality of combiners (230_1-230_N), respectively coupled to the main amplifiers (210_1-210_N), wherein each of the combiners (230_1-230_N) is arranged to combine the corresponding amplified signal, if any, with an output of the matching circuit to generate the corresponding noise-cancelled signal, a matching amplifier, for receiving the input signal; and a resistor, positioned on a feedback path of the matching amplifier, and a plurality of buffer amplifiers (226_1-226_N), for receiving an output of the matching amplifier to generate a plurality of outputs of the matching circuit to the combiners (230_1-230_N), respectively.
An illumination device that is capable of having an optical accessory attached forward of a light emission section thereof, for changing color characteristics of light transmitted through the optical accessory, and is removably mounted on an image pickup apparatus, comprising: a light source configured to emit the light; a light receiving unit configured to receive the light; an acquisition unit configured to acquire information on transmission characteristics of the optical accessory attached forward of the light emission section; and a transmission unit configured to transmit the information on the transmission characteristics acquired by said acquisition unit to the image pickup apparatus on which the illumination device is mounted, characterized in that said acquisition unit is configured to acquire the information on the transmission characteristics based on the color characteristics of the light received by said light receiving unit after being emitted from said light source and transmitted through the optical accessory. a light source configured to emit the light; a light receiving unit configured to receive the light; an acquisition unit configured to acquire information on transmission characteristics of the optical accessory attached forward of the light emission section; and a transmission unit configured to transmit the information on the transmission characteristics acquired by said acquisition unit to the image pickup apparatus on which the illumination device is mounted, characterized in that said acquisition unit is configured to acquire the information on the transmission characteristics based on the color characteristics of the light received by said light receiving unit after being emitted from said light source and transmitted through the optical accessory.
An apparatus (510, 520, 900) comprising at least one processor, and at least one memory including a computer program code, wherein the at least one memory and the computer program code are configured, with the at least one processor, to cause the apparatus (510, 520, 900) to: determine that interference may occur in a wireless network the apparatus (510, 520, 900) is connected to, wherein determining that interference may occur in the wireless network the apparatus (510, 520, 900) is connected to comprises detecting a jammer; obtain a first link (502, 702) that is a first channel of a single or multiple frequency bands and is of a first type and the first type is an expected jammed link; obtain a second link (504, 704) that is a second channel of a single or multiple frequency bands and is of a second type and the second type is a non-jammed link; determine data to be transmitted to another apparatus connected to the wireless network; determine that a transmission occurs in the first link (502, 702); and transmit the data in the second link, wherein the transmission in the first link (502, 702) has a longer duration than transmitting the data in the second link (504, 704) and the transmission in the first link (502, 702) and transmitting the data in the second link (504, 704) overlap in time, wherein the transmission in the first link (502, 702) comprises transmitting the data in the first link using a modulation and coding scheme that has a lower data rate than a modulation and coding scheme of the second link (504, 704), and wherein transmitting the data in the second link (504, 704) is initiated when the transmission in the first link (502, 702) is ongoing. determine that interference may occur in a wireless network the apparatus (510, 520, 900) is connected to, wherein determining that interference may occur in the wireless network the apparatus (510, 520, 900) is connected to comprises detecting a jammer; obtain a first link (502, 702) that is a first channel of a single or multiple frequency bands and is of a first type and the first type is an expected jammed link; obtain a second link (504, 704) that is a second channel of a single or multiple frequency bands and is of a second type and the second type is a non-jammed link; determine data to be transmitted to another apparatus connected to the wireless network; determine that a transmission occurs in the first link (502, 702); and transmit the data in the second link, wherein the transmission in the first link (502, 702) has a longer duration than transmitting the data in the second link (504, 704) and the transmission in the first link (502, 702) and transmitting the data in the second link (504, 704) overlap in time, wherein the transmission in the first link (502, 702) comprises transmitting the data in the first link using a modulation and coding scheme that has a lower data rate than a modulation and coding scheme of the second link (504, 704), and wherein transmitting the data in the second link (504, 704) is initiated when the transmission in the first link (502, 702) is ongoing.
A method for controlling electric motors, the method comprising: - determining a planned reference speed of a plurality of electric motors of an industrial robot; characterized by - for each of the electric motors, determining a PWM switching frequency based on the planned reference speed of the electric motor; and - controlling each of the electric motors with an alternating current produced by PWM switching with the determined PWM switching frequency. - determining a planned reference speed of a plurality of electric motors of an industrial robot; characterized by - for each of the electric motors, determining a PWM switching frequency based on the planned reference speed of the electric motor; and - controlling each of the electric motors with an alternating current produced by PWM switching with the determined PWM switching frequency.