mhurhangee/patent-ind-claim-en huggingface dataset:
An agricultural working machine comprising at least one optical sensor means , an image processing system , as well as a regulation and control device , wherein the at least one optical sensor means is configured to measure in anticipation an environment in the forefield of the working machine , wherein the image processing system is configured to detect the appearance of one or more obstacles in at least one obstacle region located in the environment in the forefield of the working machine by means of image analysis, characterized in that - the regulation and control device is configured to control working illumination comprising a plurality of light sources, and - the regulation and control device is configured to produce control signals which control an orientation of at least one of the light sources associated with the working machine which produces at least one bundled light beam consisting of visible light in order to orientate the at least one light beam onto the identified obstacle region . - the regulation and control device is configured to control working illumination comprising a plurality of light sources, and - the regulation and control device is configured to produce control signals which control an orientation of at least one of the light sources associated with the working machine which produces at least one bundled light beam consisting of visible light in order to orientate the at least one light beam onto the identified obstacle region .
Device for the purification of a gas mixture to produce a concentrated gas, in particular neon, starting from a mixture comprising neon, passing through a liquefied concentrated gas, the device comprising a cold box housing a cryogenic purification circuit comprising, in series, at least one unit for purification by cryogenic adsorption of the mixture at a temperature of between 65K and 100K and in particular 65K, then a unit for cooling the mixture to a temperature of between 25 and 65K comprising a heat exchanger, then a unit for cryogenic distillation of the mixture to produce said liquefied concentrated gas at the outlet of the cryogenic distillation unit , the unit for cooling the mixture to a temperature of between 25 and 65K being a system for cold production, not in stages, and comprising the at least one cryocooler which extracts thermal power from the mixture via the heat exchanger, the device comprising a pipe for recovery of the liquefied concentrated gas at the outlet of the cryogenic distillation unit , at least one other unit for cooling the mixture being located in the cold box and comprising another cooling exchanger , and the recovery pipe being put in heat exchange with the at least one other unit for cooling the mixture located in the cold box , said pipe for recovery of the liquefied concentrated gas being in heat exchange with the other exchanger for cooling the mixture located upstream of the cryocooler , characterized in that the at least one cryocooler comprises at least cryocooler of the Gifford McMahon type or a pulsed gas tube, and in that the at least one other cooling unit comprises a bath of liquid nitrogen, the bath of liquid nitrogen being in heat exchange with a pipeline which conveys the mixture upstream of the unit for purification by cryogenic adsorption.
An individual characteristics management device comprising: a data acquiring section acquiring driving data relating to a plurality of driving evaluation items that are set in advance, with diagnostic categories of the driving evaluation items divided into safety, compliance with laws/regulations, and driver state, with the diagnostic category that is safety divided into acceleration operations, braking operations, steering operations, and dangerous operations; a score calculating section configured to carry out calculating of a score or measurement of a number of times, for each of the driving evaluation items, based on the driving data acquired by the data acquiring section , wherein the dangerous operations are evaluated based on a number of times of detection of U-turns, a number of times of detection of failure to use turn signals, and a number of times an inter-vehicle distance to a preceding vehicle is less than or equal to a predetermined inter-vehicle distance; and an individual characteristics estimating section estimating a score for each of individual characteristics of a driver, based on the driving data acquired by the data acquiring section and the scores calculated by the score calculating section , wherein the individual characteristics include driving characteristics and a cognitive characteristic, the driving characteristics including the timing of judgment, correctness of operation, safe driving, emotional stability, danger sensitivity, and polite driving. a data acquiring section acquiring driving data relating to a plurality of driving evaluation items that are set in advance, with diagnostic categories of the driving evaluation items divided into safety, compliance with laws/regulations, and driver state, with the diagnostic category that is safety divided into acceleration operations, braking operations, steering operations, and dangerous operations; a score calculating section configured to carry out calculating of a score or measurement of a number of times, for each of the driving evaluation items, based on the driving data acquired by the data acquiring section , wherein the dangerous operations are evaluated based on a number of times of detection of U-turns, a number of times of detection of failure to use turn signals, and a number of times an inter-vehicle distance to a preceding vehicle is less than or equal to a predetermined inter-vehicle distance; and an individual characteristics estimating section estimating a score for each of individual characteristics of a driver, based on the driving data acquired by the data acquiring section and the scores calculated by the score calculating section , wherein the individual characteristics include driving characteristics and a cognitive characteristic, the driving characteristics including the timing of judgment, correctness of operation, safe driving, emotional stability, danger sensitivity, and polite driving.
A network node of a network with a plurality of frequency hopping channels, the network node configured to: transmit a beacon on a beacon channel different from the frequency hopping channels; receive a request from a node to join the network in response to the beacon; add the node to the network in response to the request; and communicate with the node on the plurality of frequency hopping channels, wherein the beacon channel has a different bandwidth from each of the frequency hopping channels. transmit a beacon on a beacon channel different from the frequency hopping channels; receive a request from a node to join the network in response to the beacon; add the node to the network in response to the request; and communicate with the node on the plurality of frequency hopping channels, wherein the beacon channel has a different bandwidth from each of the frequency hopping channels.
A radial-flux rotary electric machine having a first end at one axial extreme and a second end at another axial extreme, comprising: a fluid input for receiving coolant at the first end of the machine; a rotor comprising a radial impeller at the first end of the machine in fluid communication with the fluid input , and a plurality of permanent magnets with a helical fluid conduit thereunder in fluid communication with the impeller , whereby coolant entering the fluid input is radially diverted by the rotating radial impeller into the helical conduit ; a stator having a plurality of slots with a fill factor of between zero and unity to define axial fluid channels in the slots, the axial fluid channels being in fluid communication with the helical fluid conduit at the second end of the machine , whereby coolant is diverted by a collector to the axial fluid channels of the stator after traveling through the helical fluid conduit of the rotor ; a fluid output in fluid communication with the axial fluid channels of the stator . a fluid input for receiving coolant at the first end of the machine; a rotor comprising a radial impeller at the first end of the machine in fluid communication with the fluid input , and a plurality of permanent magnets with a helical fluid conduit thereunder in fluid communication with the impeller , whereby coolant entering the fluid input is radially diverted by the rotating radial impeller into the helical conduit ; a stator having a plurality of slots with a fill factor of between zero and unity to define axial fluid channels in the slots, the axial fluid channels being in fluid communication with the helical fluid conduit at the second end of the machine , whereby coolant is diverted by a collector to the axial fluid channels of the stator after traveling through the helical fluid conduit of the rotor ; a fluid output in fluid communication with the axial fluid channels of the stator .
An apparatus for particle characterisation , comprising: a sample cell for holding a sample that comprises dispersed particles; a light source configured to illuminate the sample with an illuminating beam (230, 330, 730-733, 830, 930); a plurality of light detectors (240-242, 340-342, 740), each light detector (240-242, 240-342, 340-342, 740) configured to receive scattered light along a respective detector path (250-252, 350-352, 750-755, 851, 852), the scattered light resulting from the interaction between the illuminating beam (230, 330, 730-733, 830, 930) and the particles in the sample in a scattering volume, wherein each respective detector path (250-252, 350-352, 750-755, 851, 852) is at substantially the same angle to the illuminating beam (230, 330, 730-733, 830, 930); wherein the angle between each detector path (250-252, 350-352, 750-755, 851, 852) and the illuminating beam (230, 330, 730-733, 830, 930) is equal to the angle of intersection of that detector path (250-252, 350-352, 750-755, 851, 852) and the illuminating beam (230, 330, 730-733, 830, 930) in the scattering volume, wherein the detector paths (250-252, 350-352, 851, 852) are arranged to respectively intersect with the illumination beam (230, 330, 730-733, 830, 930) at a plurality of locations along the illumination beam (230, 330, 730-733, 830, 930). a sample cell for holding a sample that comprises dispersed particles; a light source configured to illuminate the sample with an illuminating beam (230, 330, 730-733, 830, 930); a plurality of light detectors (240-242, 340-342, 740), each light detector (240-242, 240-342, 340-342, 740) configured to receive scattered light along a respective detector path (250-252, 350-352, 750-755, 851, 852), the scattered light resulting from the interaction between the illuminating beam (230, 330, 730-733, 830, 930) and the particles in the sample in a scattering volume, wherein each respective detector path (250-252, 350-352, 750-755, 851, 852) is at substantially the same angle to the illuminating beam (230, 330, 730-733, 830, 930); wherein the angle between each detector path (250-252, 350-352, 750-755, 851, 852) and the illuminating beam (230, 330, 730-733, 830, 930) is equal to the angle of intersection of that detector path (250-252, 350-352, 750-755, 851, 852) and the illuminating beam (230, 330, 730-733, 830, 930) in the scattering volume, wherein the detector paths (250-252, 350-352, 851, 852) are arranged to respectively intersect with the illumination beam (230, 330, 730-733, 830, 930) at a plurality of locations along the illumination beam (230, 330, 730-733, 830, 930).
An irrigated high density electrode catheter, comprising a catheter shaft (107; 134; 154; 389; 495; 702; 780) including a proximal end and a distal end, the catheter shaft defining a catheter shaft longitudinal axis, a flexible tip portion (110; 122; 156; 202; 228; 248; 282; 322; 362; 491) located adjacent to the distal end of the catheter shaft and comprising a plurality of microelectrodes , an irrigated coupler (324; 364; 462; 560; 720; 760; 802) disposed on the distal end of the catheter shaft and configured to discharge fluid over the flexible tip portion; a six degree of freedom sensor assembly; and a connective stem having a longitudinal axis and (326; 366; 458) comprising a top connective stem portion (332; 380; 464; 640) and a bottom connective stem portion (334; 378; 466; 610), wherein the top connective stem portion and the bottom connective stem portion are configured to be assembled and positioned on opposite sides of the longitudinal axis of the stem and wherein the connective stem portions house a proximal end portion of the flexible tip portion, wherein the connective stem is configured to be inserted into the distal end of the catheter shaft (107; 134; 154; 389; 495; 702; 780) and connects the proximal end portion of the flexible tip portion to the catheter shaft, wherein the connective stem (326; 366; 458) includes the six degree of freedom sensor assembly, and wherein the connective stem and the irrigated coupler are configured to accommodate coupling of the irrigated coupler to the connective stem after insertion of the connective stem into the distal end of the catheter shaft. a catheter shaft (107; 134; 154; 389; 495; 702; 780) including a proximal end and a distal end, the catheter shaft defining a catheter shaft longitudinal axis, a flexible tip portion (110; 122; 156; 202; 228; 248; 282; 322; 362; 491) located adjacent to the distal end of the catheter shaft and comprising a plurality of microelectrodes , an irrigated coupler (324; 364; 462; 560; 720; 760; 802) disposed on the distal end of the catheter shaft and configured to discharge fluid over the flexible tip portion; a six degree of freedom sensor assembly; and a connective stem having a longitudinal axis and (326; 366; 458) comprising a top connective stem portion (332; 380; 464; 640) and a bottom connective stem portion (334; 378; 466; 610), wherein the top connective stem portion and the bottom connective stem portion are configured to be assembled and positioned on opposite sides of the longitudinal axis of the stem and wherein the connective stem portions house a proximal end portion of the flexible tip portion, wherein the connective stem is configured to be inserted into the distal end of the catheter shaft (107; 134; 154; 389; 495; 702; 780) and connects the proximal end portion of the flexible tip portion to the catheter shaft, wherein the connective stem (326; 366; 458) includes the six degree of freedom sensor assembly, and wherein the connective stem and the irrigated coupler are configured to accommodate coupling of the irrigated coupler to the connective stem after insertion of the connective stem into the distal end of the catheter shaft.
Machine for washing, thermal disinfection and/or sterilization of objects, comprising at least one treatment chamber configured to house at least one object-carrying container , the machine comprising at least one movement apparatus to move the object-carrying container provided with at least a first and a second attachment element which can be selectively activated, alternately one to the other, in order to be attached to the object-carrying container and configured to make said apparatus assume at least a first active position of insertion of the object-carrying container inside the chamber and at least a second active position of extraction of the object-carrying container from the chamber , said attachment elements cooperating with a corresponding drive unit , configured to automatically alternate the active and inactive position, so that, when one of said attachment elements is driven in the active position, the other attachment element automatically moves into the inactive position, and vice versa, the machine being characterized in that said attachment elements cooperate with a shaft housed in the movement apparatus and provided with at least a first cam configured to activate/deactivate said first attachment element and with at least a second cam configured to deactivate/activate said second attachment element , or vice versa, said shaft being made to rotate in one direction or the other by means of a corresponding actuator , wherein the apparatus further comprises at least a mobile support housing said shaft and comprising a box-like body that develops in the direction of insertion and extraction of the object-carrying containers to/from the treatment chamber , and wherein each of the attachment elements is connected to a fixed rotation pin supported by the box-like body of the mobile support .
Palletization device comprising, first, a freely accessible multiaxial robot for gripping and moving the products to be palletized and, second, at least one station arranged and placed on the ground in a work zone of said robot , for receiving the pallets on which the products are deposited, in which device the at least one station is configured to receive and to position-reference a stack of pallets one above the other, allowing the receiving and the horizontal position-referencing of a plurality of pallets superposed one above the other, the robot being able to deposit the products in successive layers on the top of said stack of a plurality of pallets , characterized in that said station has guides, stops or, alternatively, vertical walls against which the pallets are position-referenced, defining a receiving zone of rectangular form when seen from above, the pallets in a stack being disposed in this receiving zone, the guides being used to define the position of the superposed pallets , the guides extending over a sufficient height and forming at least three stops against which the pallets bear and are referenced.
A method for generating a parity bit sequence to be transmitted over a plurality of frames in a transmission device of a communication system, comprising: generating a basic masking pattern according to a basic puncturing pattern; masking a parity bit sequence by using the basic masking pattern; outputting, as a basic parity bit sequence, non-punctured parity bits that are remaining after masking the parity bit sequence by using the basic masking pattern; generating a first secondary masking pattern according to a secondary puncturing pattern; generating a first additional masking pattern based on the basic masking pattern and the first secondary masking pattern; masking the parity bit sequence by using the first additional masking pattern; outputting, as a first additional parity bit sequence, non-punctured parity bits that are remaining after masking the parity bit sequence by using the first additional masking pattern; and transmitting, from the transmission device, the basic parity bit sequence and the first additional parity bit sequence to a reception device, wherein the first additional parity bit sequence is transmitted in a frame preceding a frame in which the basic parity bit sequence is transmitted, wherein the first additional masking pattern is generated by performing a logical sum operation with respect to the basic masking pattern and the first secondary masking pattern. generating a basic masking pattern according to a basic puncturing pattern; masking a parity bit sequence by using the basic masking pattern; outputting, as a basic parity bit sequence, non-punctured parity bits that are remaining after masking the parity bit sequence by using the basic masking pattern; generating a first secondary masking pattern according to a secondary puncturing pattern; generating a first additional masking pattern based on the basic masking pattern and the first secondary masking pattern; masking the parity bit sequence by using the first additional masking pattern; outputting, as a first additional parity bit sequence, non-punctured parity bits that are remaining after masking the parity bit sequence by using the first additional masking pattern; and transmitting, from the transmission device, the basic parity bit sequence and the first additional parity bit sequence to a reception device, wherein the first additional parity bit sequence is transmitted in a frame preceding a frame in which the basic parity bit sequence is transmitted,
A system of an agricultural vehicle and a connected implement , wherein each of the vehicle and implement has a plurality of electric drives each of which is electrically connected to a common connection of the system and is electrically connectable to a direct current supply of the system, wherein each electric drive has an associated Y capacitor between a direct current supply connection and the common connection, the system further comprising an electronic controller coupled with a data store holding a threshold value, wherein the controller is coupled to receive capacitance values for each of the electric drives and is arranged to: - sum the received capacitance values, and - to compare the magnitude of the sum with the stored threshold value ; characterised in that the controller is further arranged to:, - where the threshold value is exceeded, to automatically perform a predetermined sequence of selectively electrically disconnecting individual electric drives from the direct current supply until the magnitude of the sum of the received capacitance values is less than or equal to the threshold value; and wherein the data store holds a priority list identifying the plurality of electric drives of the system in sequence, and the predetermined sequence of electrical disconnection performed by the electronic controller comprises firstly disconnecting all currently inactive electric drives and subsequently, if the magnitude of the sum of the received capacitance values is still greater than the threshold value, sequentially disconnecting the remaining electric drives in the sequence defined in the priority list until the magnitude of the sum of the received capacitance values is less than or equal to the threshold value. - sum the received capacitance values, and - to compare the magnitude of the sum with the stored threshold value ; characterised in that the controller is further arranged to:, - where the threshold value is exceeded, to automatically perform a predetermined sequence of selectively electrically disconnecting individual electric drives from the direct current supply until the magnitude of the sum of the received capacitance values is less than or equal to the threshold value; and