mhurhangee/patent-ind-claim-en huggingface dataset:
A projection instruction device with a transport conveyor , which projection instruction device generates a projection image to be projected on a parcel (P) based on an image including the parcel (P) and parcel identification information specifying the parcel (P) in the image, the device comprising: a processor ; and a memory , characterized in that , by cooperating with the memory , the processor determines a specific area (A-E) in which the parcel (P) is to be picked up based on the parcel identification information specifying the parcel (P), among a plurality of partitioned areas (A-E) each of which is included in a projection area, the partitioned areas (A-E) being defined by specific lengths of the transport conveyor in a transport direction (X), from which transport conveyor the parcel (P) is to be picked up, and in a case where the parcel (P) is present in the specific area (A-E), the processor instructs to project the projection image, and in a case where the parcel (P) is in another partitioned area (A-E) than the specific area (A-E), the processor instructs - not to project the projection image to the parcel (P) or - to project a projection image changed as compared to the projection image projected in a case where the parcel (P) is present in the specific area (A-E). a processor ; and a memory , characterized in that , by cooperating with the memory , the processor determines a specific area (A-E) in which the parcel (P) is to be picked up based on the parcel identification information specifying the parcel (P), among a plurality of partitioned areas (A-E) each of which is included in a projection area, the partitioned areas (A-E) being defined by specific lengths of the transport conveyor in a transport direction (X), from which transport conveyor the parcel (P) is to be picked up, and in a case where the parcel (P) is present in the specific area (A-E), the processor instructs to project the projection image, and in a case where the parcel (P) is in another partitioned area (A-E) than the specific area (A-E), the processor instructs - not to project the projection image to the parcel (P) or - to project a projection image changed as compared to the projection image projected in a case where the parcel (P) is present in the specific area (A-E). - not to project the projection image to the parcel (P) or - to project a projection image changed as compared to the projection image projected in a case where the parcel (P) is present in the specific area (A-E).
An inter-layer video decoding method comprising: decoding a first layer image; determining to perform an illumination compensation for a second layer current block; determining a reference location of the first layer image corresponding to a location of the second layer current block; determining values of neighboring samples adjacent to a reference block determined based on the reference location by using sample values of the first layer image; determining an illumination compensation parameter of the second layer current block based on the values of the neighboring samples adjacent to the reference block and values of neighboring samples adjacent to the second layer current block; and performing the illumination compensation to the second layer current block by using the determined illumination compensation parameter, CHARACTERIZED BY wherein it is determined to perform the illumination compensation for the second layer current block, when the neighboring samples adjacent to the second layer current block are reconstructed, and wherein the values of the neighboring samples adjacent to the reference block are determined by using sample values of a boundary of the first layer image, when the neighboring samples adjacent to the reference block are located outside the boundary of the first layer image. decoding a first layer image; determining to perform an illumination compensation for a second layer current block; determining a reference location of the first layer image corresponding to a location of the second layer current block; determining values of neighboring samples adjacent to a reference block determined based on the reference location by using sample values of the first layer image; determining an illumination compensation parameter of the second layer current block based on the values of the neighboring samples adjacent to the reference block and values of neighboring samples adjacent to the second layer current block; and performing the illumination compensation to the second layer current block by using the determined illumination compensation parameter, CHARACTERIZED BY wherein it is determined to perform the illumination compensation for the second layer current block, when the neighboring samples adjacent to the second layer current block are reconstructed, and wherein the values of the neighboring samples adjacent to the reference block are determined by using sample values of a boundary of the first layer image, when the neighboring samples adjacent to the reference block are located outside the boundary of the first layer image.
A machine tool including; a cover body for separating at least a machining area (M) from an outside; and an operation panel , the cover body having an opening for allowing the machining area (M) to communicate with the outside and being configured to include a door for opening and closing the opening, characterized in that the cover body does not include a window for allowing the machining area (M) to be visually checked from the outside, the door comprises an outer member and an inner member which are arranged in parallel with a predetermined distance between them, the machine tool further includes: a transparent member disposed in a space between the inner member and the outer member ; a casing disposed in the space between the inner member and the outer member , the casing closing an opening formed in the inner member from the outer member side and having an opening on the inner member side, wherein the transparent member is between the opening of the inner member and the opening of the casing ; a camera disposed within the casing for capturing an image of the machining area (M) through the transparent member , and the opening of the inner member ; and a display disposed on an outer surface of the outer member for displaying the image captured by the camera , the camera disposed within the casing comprises: a camera body ; a support supporting the camera body in a manner such that the camera body is able to turn laterally and vertically; and a turning mechanism configured to be manually operated from the outside to cause the camera body to turn laterally and vertically, and the machine tool further includes an operating device provided on the operation panel for manually operating the turning mechanism . a transparent member disposed in a space between the inner member and the outer member ; a casing disposed in the space between the inner member and the outer member , the casing closing an opening formed in the inner member from the outer member side and having an opening on the inner member side, wherein the transparent member is between the opening of the inner member and the opening of the casing ; a camera disposed within the casing for capturing an image of the machining area (M) through the transparent member , and the opening of the inner member ; and a display disposed on an outer surface of the outer member for displaying the image captured by the camera , a camera body ; a support supporting the camera body in a manner such that the camera body is able to turn laterally and vertically; and a turning mechanism configured to be manually operated from the outside to cause the camera body to turn laterally and vertically, and
Compensation device for correcting an irregularity in an infrared detector in a seeker head of a guided missile, comprising: a radiation body , which has a planar shape and is configured as a curved shell having a circular periphery; and a heating device , thermally conductively coupled to the radiation body , for setting a predetermined compensation temperature of the radiation body , comprising a carrier film and an electrical resistance heating wire which extends in a heating wire pattern (M22) on the carrier film ; the radiation body lying in a planar manner on a contact surface of the heating device . a radiation body , which has a planar shape and is configured as a curved shell having a circular periphery; and a heating device , thermally conductively coupled to the radiation body , for setting a predetermined compensation temperature of the radiation body , comprising a carrier film and an electrical resistance heating wire which extends in a heating wire pattern (M22) on the carrier film ; the radiation body lying in a planar manner on a contact surface of the heating device .
A cleaning system for cleaning of a surface of a device of a vehicle, the system comprising: at least one nozzle arranged to apply an air jet onto the device surface; a compressed air supply fluidly connected with the at least one nozzle and configured to provide compressed air to the at least one nozzle, wherein the compressed air supply is configured to, when the pressure in the compressed air supply is below a threshold pressure, receive air from bellows of the air suspension system, an air tank of the air suspension system, or a compressor of the air suspension system, or a combination thereof,; and, an interface valve configured to receive the exhaust air from the air suspension system and to provide the exhaust air to the compressed air supply , characterised in that the interface valve is responsive to a control signal to open or close a fluid connection between the compressed air supply of the cleaning system and at least one of the bellows of the air suspension system, the air tank of the air suspension system, or the compressor of the air suspension system. at least one nozzle arranged to apply an air jet onto the device surface; a compressed air supply fluidly connected with the at least one nozzle and configured to provide compressed air to the at least one nozzle, wherein the compressed air supply is configured to, when the pressure in the compressed air supply is below a threshold pressure, receive air from bellows of the air suspension system, an air tank of the air suspension system, or a compressor of the air suspension system, or a combination thereof,; and, an interface valve configured to receive the exhaust air from the air suspension system and to provide the exhaust air to the compressed air supply , characterised in that the interface valve is responsive to a control signal to open or close a fluid connection between the compressed air supply of the cleaning system and at least one of the bellows of the air suspension system, the air tank of the air suspension system, or the compressor of the air suspension system.
Method for controlling an electromagnetically controllable inlet valve that is integrated in a high-pressure fuel pump, in which for closing the inlet valve a solenoid is energized as a function of the piston stroke of a pump piston of the high-pressure fuel pump, characterized in that, when undershooting a predefined temperature threshold, when cold-starting and/or when exceeding a predefined fuel viscosity, a power loss which is used for heating the fuel is introduced by way of the current feed to the solenoid, so that the risk of a separation of paraffin, and thus the risk of a sieve disposed upstream of the inlet valve being clogged, is reduced.
An agricultural vehicle , in particular a forage harvester, with two crawler drives disposed on either side of the vehicle which respectively cooperate with the vehicle on opposite ends of a front axle of the vehicle , the crawler drives respectively comprising: - at least two main wheels which are opposite each other, - at least one auxiliary wheel disposed between the main wheels , as well as - at least one crawler belt encompassing the main wheels , wherein the auxiliary wheel cooperates with a lower section of the crawler belt in a manner such that lifting of the crawler belt from a respective surface in the region between the main wheels is at least substantially preventable, wherein the crawler drives are respectively articulated on the front axle at an articulation position thereon so that the crawler drives are respectively pivotable relative to the vehicle about a pivot axis which is parallel to the front axle , characterized by at least one limiting means , by means of which a pivot angle range can be delimited or is delimited, within which a crawler drive associated with the limiting means is pivotable about the pivot axis relative to the rest of the vehicle , wherein the limiting means comprises at least one damping element by means of which a force of impact which arises at the moment of impact on mutually cooperating components of the limiting means can be damped. - at least two main wheels which are opposite each other, - at least one auxiliary wheel disposed between the main wheels , as well as - at least one crawler belt encompassing the main wheels ,
An aircraft lift fan rotor lock mechanism , comprising: a ring structure having a first surface, the ring structure including one or more detents defined in the first surface of the ring structure; for each detent, a stationary magnet coupled fixedly to the ring structure at a location adjacent to the detent; and a rotating magnet assembly (302, 304; 400) comprising a magnet of opposite magnetic polarity to at least one of the stationary magnets and a mechanical stop structure of a size and shape to fit into a corresponding detent and engage mechanically with a surface defining at least one extent of said corresponding detent when the rotating magnet assembly is in a locked position, wherein the rotating magnet assembly is attached to a rotating element of an aircraft lift fan and the ring structure is attached fixedly to a non-rotating element of the aircraft lift fan. a ring structure having a first surface, the ring structure including one or more detents defined in the first surface of the ring structure; for each detent, a stationary magnet coupled fixedly to the ring structure at a location adjacent to the detent; and a rotating magnet assembly (302, 304; 400) comprising a magnet of opposite magnetic polarity to at least one of the stationary magnets and a mechanical stop structure of a size and shape to fit into a corresponding detent and engage mechanically with a surface defining at least one extent of said corresponding detent when the rotating magnet assembly is in a locked position, wherein the rotating magnet assembly is attached to a rotating element of an aircraft lift fan and the ring structure is attached fixedly to a non-rotating element of the aircraft lift fan.
A method for producing a material diffusion barrier comprising a coating on an elastomeric substrate, comprising: (A) exposing the elastomeric substrate to a cationic solution to produce a cationic layer on the elastomeric substrate, wherein the cationic solution comprises cationic materials comprising a polymer, a salt, or any combinations thereof; and (B) exposing the cationic layer to an anionic solution to produce an anionic layer on the cationic layer, wherein the anionic solution comprises an anionic polymer, a colloidal particle, a second salt, or any combinations thereof; and wherein the coating comprises a bilayer comprising the cationic layer and the anionic layer. (A) exposing the elastomeric substrate to a cationic solution to produce a cationic layer on the elastomeric substrate, wherein the cationic solution comprises cationic materials comprising a polymer, a salt, or any combinations thereof; and (B) exposing the cationic layer to an anionic solution to produce an anionic layer on the cationic layer, wherein the anionic solution comprises an anionic polymer, a colloidal particle, a second salt, or any combinations thereof; and wherein the coating comprises a bilayer comprising the cationic layer and the anionic layer.
A method of scheduling transmissions from a communication device of a group of communication devices involved in common communication sharing a medium and where transmission scheduling is distributed among the group members, the method comprising the steps of: ▪ predicting an arrival time of a next packet for transmission in a transmit buffer when or after a current packet arrives; ▪ planning a future transmission time of the next packet based on the predicted arrival time of the next packet; ▪ booking transmission resources for the planned future transmission time of the next packet; ▪ notify other communication devices of the group of communication devices of the planned future transmission time; ▪ determining whether the next packet has arrived before the planned future transmission time of the next packet; ▪ transmitting the next packet in response to determining that the next packet has arrived before the planned future transmission time of the next packet; ▪ unbooking the transmission resources for the planned future transmission time of the next packet in response to determining that the next packet has not arrived before the planned future transmission time of the next packet; and ▪ notifying other communication devices that the unbooked transmission resources are available for use by the other communication devices. ▪ predicting an arrival time of a next packet for transmission in a transmit buffer when or after a current packet arrives; ▪ planning a future transmission time of the next packet based on the predicted arrival time of the next packet; ▪ booking transmission resources for the planned future transmission time of the next packet; ▪ notify other communication devices of the group of communication devices of the planned future transmission time; ▪ determining whether the next packet has arrived before the planned future transmission time of the next packet; ▪ transmitting the next packet in response to determining that the next packet has arrived before the planned future transmission time of the next packet; ▪ unbooking the transmission resources for the planned future transmission time of the next packet in response to determining that the next packet has not arrived before the planned future transmission time of the next packet; and ▪ notifying other communication devices that the unbooked transmission resources are available for use by the other communication devices.
Mepivacaine for use in preventing the formation of edemas induced by an aqueous composition comprising at least one hyaluronic acid, said composition comprising the said mepivacaine.
A method for autonomous machine navigation comprising: determining a current pose of an autonomous machine based on non-vision-based pose data captured by one or more non-vision-based sensors of the autonomous machine, wherein the pose represents one or both of a position and an orientation of the autonomous machine in a work region defined by one or more boundaries; determining pose data based on a return signal received in response to a wireless signal transmitted by a ground penetrating radar that captures images of a surface or subsurface object , the surface or subsurface object comprising at least one of: a geophysical object or marker for which a unique signature is developed by the machine using vision processing; and an underground marker having an artificial feature discernable by the ground penetrating radar, the underground marker placed in the work region by a user in response to instructions given to the user after training of the autonomous machine; and updating the current pose based on the pose data to correct or localize the current pose and to provide an updated pose of the autonomous machine in the work region for navigating the autonomous machine in the work region. determining a current pose of an autonomous machine based on non-vision-based pose data captured by one or more non-vision-based sensors of the autonomous machine, wherein the pose represents one or both of a position and an orientation of the autonomous machine in a work region defined by one or more boundaries; determining pose data based on a return signal received in response to a wireless signal transmitted by a ground penetrating radar that captures images of a surface or subsurface object , the surface or subsurface object comprising at least one of: a geophysical object or marker for which a unique signature is developed by the machine using vision processing; and an underground marker having an artificial feature discernable by the ground penetrating radar, the underground marker placed in the work region by a user in response to instructions given to the user after training of the autonomous machine; and updating the current pose based on the pose data to correct or localize the current pose and to provide an updated pose of the autonomous machine in the work region for navigating the autonomous machine in the work region. a geophysical object or marker for which a unique signature is developed by the machine using vision processing; and an underground marker having an artificial feature discernable by the ground penetrating radar, the underground marker placed in the work region by a user in response to instructions given to the user after training of the autonomous machine; and updating the current pose based on the pose data to correct or localize the current pose and to provide an updated pose of the autonomous machine in the work region for navigating the autonomous machine in the work region.
A fastening device , comprising - a base part and a fastening assembly , which can be fitted to each other along a fitting direction (X1), and - at least one latching element which is arranged on the base part or the fastening assembly , wherein the base part and the fastening assembly in a fitted position are positively connected to each other via the at least one latching element , and with a blocking part which in the fitted position of the base part and the fastening assembly can be connected to the base part , wherein the blocking part includes a fixing element which is configured to cooperate with the at least one latching element in order to block the positive connection between the base part and the fastening assembly , characterized in that the base part and/or the fastening assembly includes a first magnetic element and the blocking part includes a second magnetic element , which cooperate with each other in a magnetically attracting manner when the base part and the blocking part are connected to each other. - a base part and a fastening assembly , which can be fitted to each other along a fitting direction (X1), and - at least one latching element which is arranged on the base part or the fastening assembly , wherein the base part and the fastening assembly in a fitted position are positively connected to each other via the at least one latching element ,