mhurhangee/patent-ind-claim-en huggingface dataset:
A vehicle self-protection method, wherein the method comprises: obtaining ambient environment information of a vehicle and historical information of the vehicle; determining a risk level based on at least the ambient environment information of the vehicle and the historical information of the vehicle; and performing a corresponding operation based on the risk level, wherein the risk level comprises: a low risk level, a medium risk level, and a high risk level; and the performing a corresponding operation comprises: if the risk level is low, sending a notification to a vehicle owner, if the risk level is medium, enabling autonomous driving to leave the current location when no response is received from vehicle owner within a specified time range, or leaving the current location under remote control of the vehicle owner, and if the risk level is high, leaving the current location through autonomous driving. obtaining ambient environment information of a vehicle and historical information of the vehicle; determining a risk level based on at least the ambient environment information of the vehicle and the historical information of the vehicle; and performing a corresponding operation based on the risk level, wherein the risk level comprises: a low risk level, a medium risk level, and a high risk level; and the performing a corresponding operation comprises: if the risk level is low, sending a notification to a vehicle owner, if the risk level is medium, enabling autonomous driving to leave the current location when no response is received from vehicle owner within a specified time range, or leaving the current location under remote control of the vehicle owner, and if the risk level is high, leaving the current location through autonomous driving.
An apparatus for forming a knot in a flexible element which has been threaded through an aperture of a medical device comprising: a loading element for receiving the medical device; a spooling element for threading the flexible member through the aperture of the medical device wherein the spooling element automatically engages the loading element; a looping element for looping the flexible member wherein the looping element automatically engages when the flexible member is threaded through the aperture of the medical device; a knot tightening element for tightening the looped flexible member to form the knot wherein the knot tightening element automatically engages after the looping element loops the flexible member; and a base wherein the loading element, spooling element and looping element are positioned on an upper surface of the base; characterized in that : the spooling element further comprises a spool spindle , a nip feed and a thread spool . a loading element for receiving the medical device; a spooling element for threading the flexible member through the aperture of the medical device wherein the spooling element automatically engages the loading element; a looping element for looping the flexible member wherein the looping element automatically engages when the flexible member is threaded through the aperture of the medical device; a knot tightening element for tightening the looped flexible member to form the knot wherein the knot tightening element automatically engages after the looping element loops the flexible member; and a base wherein the loading element, spooling element and looping element are positioned on an upper surface of the base; characterized in that : the spooling element further comprises a spool spindle , a nip feed and a thread spool .
Device for transmitting torque between a drive unit and a rotating component of a spinning machine, with - a gear component having teeth for receiving a torque from the drive unit and - two shafts (4a, b) for transmitting the torque to one rotating component each, in which case - the gear component has, on each of the two sides of the teeth , an axial extension (5a, b) having a conical pressing surface (6a, b) for transmitting the torque to one of the shafts (4a, b) and - each of the conical pressing surfaces (6a, b) is arranged in a receptacle (7a, b) of one of the shafts (4a, b) and thus forms a press-fit connection for transmitting torque between the gear component and the shaft (4a, b). - a gear component having teeth for receiving a torque from the drive unit and - two shafts (4a, b) for transmitting the torque to one rotating component each, in which case - the gear component has, on each of the two sides of the teeth , an axial extension (5a, b) having a conical pressing surface (6a, b) for transmitting the torque to one of the shafts (4a, b) and - each of the conical pressing surfaces (6a, b) is arranged in a receptacle (7a, b) of one of the shafts (4a, b) and thus forms a press-fit connection for transmitting torque between the gear component and the shaft (4a, b).
A luminaire comprising a light emitting device , the light emitting device comprising a light exit surface and at least one light source configured to, in operation, emit light, the light emitting device being configured to provide a light output at the light exit surface , the light output comprising at least one peak intensity in a first direction (A) and an intensity cut-off in at least one second direction (B), where the intensity in the at least one second direction is less than 10 % of the peak intensity in the first direction, characterized in that the light emitting device comprises a plurality of sparkling elements arranged in the optical path of at least a part of the light emitted by the at least one light source , wherein the plurality of sparkling elements is provided at, in or on the light exit surface , wherein the sparkling elements of the plurality of sparkling elements are any one or more of point like , linear or curved linear , and/or wherein the sparkling elements of the plurality of sparkling elements are specular facets, wherein at least two sparkling elements of the plurality of sparkling elements are configured and arranged to be visible when observed from a viewing position corresponding to the at least one second direction (B), wherein the plurality of sparkling elements covers less than 10 % of the area of the light exit surface from which light with the peak intensity is emitted in operation of the light emitting device . the light emitting device comprises a plurality of sparkling elements arranged in the optical path of at least a part of the light emitted by the at least one light source , wherein the plurality of sparkling elements is provided at, in or on the light exit surface , wherein the sparkling elements of the plurality of sparkling elements are any one or more of point like , linear or curved linear , and/or wherein the sparkling elements of the plurality of sparkling elements are specular facets, wherein at least two sparkling elements of the plurality of sparkling elements are configured and arranged to be visible when observed from a viewing position corresponding to the at least one second direction (B), wherein the plurality of sparkling elements covers less than 10 % of the area of the light exit surface from which light with the peak intensity is emitted in operation of the light emitting device .
A method for processing thermal image data in a sensor device , the method comprising: processing , with a processor (108; 130; 502) of the sensor device, a first image of a scene using a neural network trained to detect one or more objects of interest in the scene, wherein detecting the one or more objects of interest includes identifying respective surface characteristics of the one or more objects of interest detected in the scene; overlaying , with the processor of the sensor device, the first image of the scene with a second image of the scene, the second image capturing thermal distribution across the scene, to identify one or more regions of interest in the second image of the scene corresponding to the one or more objects of interest detected in the first image of the scene; converting , with the processor of the sensor device, values of pixels in the one or more regions of interest identified in the second image of the scene to temperature values, including converting values of pixels that belong to respective regions of interest, among the one or more regions of interest in the second image of the scene, using respective conversion functions that reflect respective emissivity values of the one or more objects of interest detected in the first image scene, the emissivity values determined by the identified respective surface characteristics of the one or more objects of interest detected in the first image of the scene; and analyzing , with the processor of the sensor device, the temperature values to monitor thermal conditions of the one or more objects of interest in the scene. processing , with a processor (108; 130; 502) of the sensor device, a first image of a scene using a neural network trained to detect one or more objects of interest in the scene, wherein detecting the one or more objects of interest includes identifying respective surface characteristics of the one or more objects of interest detected in the scene; overlaying , with the processor of the sensor device, the first image of the scene with a second image of the scene, the second image capturing thermal distribution across the scene, to identify one or more regions of interest in the second image of the scene corresponding to the one or more objects of interest detected in the first image of the scene; converting , with the processor of the sensor device, values of pixels in the one or more regions of interest identified in the second image of the scene to temperature values, including converting values of pixels that belong to respective regions of interest, among the one or more regions of interest in the second image of the scene, using respective conversion functions that reflect respective emissivity values of the one or more objects of interest detected in the first image scene, the emissivity values determined by the identified respective surface characteristics of the one or more objects of interest detected in the first image of the scene; and analyzing , with the processor of the sensor device, the temperature values to monitor thermal conditions of the one or more objects of interest in the scene.
An apparatus , comprising: means for determining a slot structure for uplink communication from at least a first slot structure and a second slot structure, wherein the first slot structure comprises fewer symbols per slot than the second slot structure; means for determining an uplink control channel module structure and format to use for transmitting uplink control information via an uplink control channel, wherein the uplink control channel module structure is determined from a plurality of uplink control channel module structures corresponding to different numbers of symbols, wherein the uplink control channel module format is determined from a plurality of uplink control channel module formats corresponding to different numbers of symbols for reference signals within the determined uplink control channel module structure; and means for transmitting uplink control information via the uplink control channel according to the determined uplink control channel module structure and format. means for determining a slot structure for uplink communication from at least a first slot structure and a second slot structure, wherein the first slot structure comprises fewer symbols per slot than the second slot structure; means for determining an uplink control channel module structure and format to use for transmitting uplink control information via an uplink control channel, wherein the uplink control channel module structure is determined from a plurality of uplink control channel module structures corresponding to different numbers of symbols, wherein the uplink control channel module format is determined from a plurality of uplink control channel module formats corresponding to different numbers of symbols for reference signals within the determined uplink control channel module structure; and means for transmitting uplink control information via the uplink control channel according to the determined uplink control channel module structure and format.
Alignment tool for a cutting arrangement comprising a cutting apparatus with a cutting edge for treatment of a rotor blade of a wind turbine, in which the alignment tool comprises at least one fixation means for fixing the alignment tool to the rotor blade and at least one guiding structure to guide the cutting edge of the cutting tool, wherein the fixation means comprises a clamp arrangement attachable to a trailing edge of the rotor blade or wherein the fixation means comprises at least two suction cups , adhesive elements, and/or adhesive portions attachable to two opposing surfaces of the rotor blade , wherein at least two ends of the guiding structure are connected by at least one rope, chain, hook-and-loop fastener and/or tension belt to the clamp arrangement or to one of the suction cups , adhesive elements, and/or adhesive portions each.
A system for drying an electrode, the system comprising: an oven which applies hot air and radiant heat to an electrode sheet ; and a controller which receives information on drying standby time when a supply of the electrode sheet into the oven is stopped, and determines and controls an amount of heat supplied into the oven according to a length of the drying standby time, wherein the controller controls to supply an amount of heat reduced than a general supply amount of heat (Qt) to the oven during an initial drying time right after the supply of the electrode sheet after the drying standby time. an oven which applies hot air and radiant heat to an electrode sheet ; and a controller which receives information on drying standby time when a supply of the electrode sheet into the oven is stopped, and determines and controls an amount of heat supplied into the oven according to a length of the drying standby time, wherein the controller controls to supply an amount of heat reduced than a general supply amount of heat (Qt) to the oven during an initial drying time right after the supply of the electrode sheet after the drying standby time.
A back and body hair cutting device , characterized in that the device comprises: a hair cutting part that has a multi-directional motorized blade that is shaped to define a multi-directional cutting profile , with the multi-directional cutting profile having a plurality of segments (17A-17D), with each segment defining a respective direction of hair-cutting travel, of a plurality of directions of hair-cutting skin travel, that is perpendicular to the segment and along which the hair cutting part is advanceable over a skin surface to cut hair at the segment, with two or more segments being oriented non-parallel relative to one another, such that the motorized blade is configured to cut hair when advanced over the skin surface in each of the plurality of directions of hair-cutting skin travel; an elongate handle part sized to permit a user to remotely manipulate the hair cutting part into contact with all areas of a back of the user; in which: one or both of the elongate handle part and the hair cutting part are structured for omni-directional pivoting, during cutting, of the hair cutting part relative to the elongate handle part ; and the multi-directional motorized blade is configured to cut hair while being advanced in any direction of skin travel within a 360 degree range of direction of skin travel. characterized in that the device comprises: a hair cutting part that has a multi-directional motorized blade that is shaped to define a multi-directional cutting profile , with the multi-directional cutting profile having a plurality of segments (17A-17D), with each segment defining a respective direction of hair-cutting travel, of a plurality of directions of hair-cutting skin travel, that is perpendicular to the segment and along which the hair cutting part is advanceable over a skin surface to cut hair at the segment, with two or more segments being oriented non-parallel relative to one another, such that the motorized blade is configured to cut hair when advanced over the skin surface in each of the plurality of directions of hair-cutting skin travel; an elongate handle part sized to permit a user to remotely manipulate the hair cutting part into contact with all areas of a back of the user; in which: one or both of the elongate handle part and the hair cutting part are structured for omni-directional pivoting, during cutting, of the hair cutting part relative to the elongate handle part ; and the multi-directional motorized blade is configured to cut hair while being advanced in any direction of skin travel within a 360 degree range of direction of skin travel.
A blood purification system comprising: a blood purification apparatus capable of giving blood purification treatment to a patient; a managing apparatus capable of communicating with the blood purification apparatus in such a manner as to transmit and receive information on the blood purification treatment to and from the blood purification apparatus, the managing apparatus including a storage device capable of storing the information on the blood purification treatment in a time course with the progress of the treatment and accumulating the information as a history for each treatment session; and a display provided to the blood purification apparatus or to the managing apparatus and being capable of displaying the information on the blood purification treatment, wherein the history includes particular incidents having occurred unsteadily in the blood purification treatment, characterized in that the blood purification system includes an extracting device capable of searching the histories accumulated in the storage device and extracting a desired one of the particular incidents; a calculating device capable of calculating a time when the particular incident extracted by the extracting device occurs a predetermined or more number of times as a frequent-occurrence time slot; and a display control device capable of displaying the frequent-occurrence time slot calculated by the calculating device on the display during a current session of blood purification treatment. a blood purification apparatus capable of giving blood purification treatment to a patient; a managing apparatus capable of communicating with the blood purification apparatus in such a manner as to transmit and receive information on the blood purification treatment to and from the blood purification apparatus, the managing apparatus including a storage device capable of storing the information on the blood purification treatment in a time course with the progress of the treatment and accumulating the information as a history for each treatment session; and a display provided to the blood purification apparatus or to the managing apparatus and being capable of displaying the information on the blood purification treatment, wherein the history includes particular incidents having occurred unsteadily in the blood purification treatment, characterized in that the blood purification system includes an extracting device capable of searching the histories accumulated in the storage device and extracting a desired one of the particular incidents; a calculating device capable of calculating a time when the particular incident extracted by the extracting device occurs a predetermined or more number of times as a frequent-occurrence time slot; and a display control device capable of displaying the frequent-occurrence time slot calculated by the calculating device on the display during a current session of blood purification treatment.
An optical reception device , the reception device being able to receive a signal from a phased antenna array , the phased antenna array including N elementary antennas , N being an integer greater than 1, the reception device including: - a light source adapted to generate an optical carrier at a reference frequency and M phased optical beams relative to a replica of the optical carrier and which are frequency-shifted relative to the reference frequency, M being an integer greater than 1, - a collection circuit for the signals from the N elementary antennas , the collection circuit including N paths each connected to a respective elementary antenna , each path including a modulator able to modulate at least one of the phase and the amplitude of an incident signal according to a modulation, - a beam-forming network connecting M+1 first ports to N second ports , each second port being connected to a respective path of the N paths , M first ports of the M+1 first ports being connected respectively to one of the M optical beams and the first port not connected to one of the M optical beams being a control port , the control port being connected to the other ports so that a maximum optical intensity on the control port corresponds to phased signals on the N second ports , - a photodiode connected to the control port and able to measure the optical intensity of the signal of the control port at the reference frequency, and - a controller adapted to control the modulation of each modulator as a function of the optical intensity measured by the photodiode . - a light source adapted to generate an optical carrier at a reference frequency and M phased optical beams relative to a replica of the optical carrier and which are frequency-shifted relative to the reference frequency, M being an integer greater than 1, - a collection circuit for the signals from the N elementary antennas , the collection circuit including N paths each connected to a respective elementary antenna , each path including a modulator able to modulate at least one of the phase and the amplitude of an incident signal according to a modulation, - a beam-forming network connecting M+1 first ports to N second ports , each second port being connected to a respective path of the N paths , M first ports of the M+1 first ports being connected respectively to one of the M optical beams and the first port not connected to one of the M optical beams being a control port , the control port being connected to the other ports so that a maximum optical intensity on the control port corresponds to phased signals on the N second ports , - a photodiode connected to the control port and able to measure the optical intensity of the signal of the control port at the reference frequency, and - a controller adapted to control the modulation of each modulator as a function of the optical intensity measured by the photodiode .