mhurhangee/patent-ind-claim-en huggingface dataset:
A yarn texturizing apparatus for texturizing a plurality of yarns , wherein the yarn texturizing apparatus has a yarn path extending between a yarn inlet port and a yarn outlet port, comprising: a tack assembly configured to receive at least one bundle of yarns , wherein each bundle of yarns comprises at least two yarns of the plurality of yarns , wherein the tack assembly is configured to impart at least a first and a second twist onto each bundle of yarns , and wherein the tack assembly is further configured to place a first tack point onto each bundle of yarns at a point corresponding to a twist reversal between the first and second twists ; a nip roller located downstream of the tack assembly along the yarn path , wherein the nip roller is configured to pull the at least one bundle of yarns through the tack assembly at a selectively adjustable speed; a jet box assembly positioned downstream of the nip roller relative to the yarn path , wherein the jet box assembly is configured to place a plurality of additional tack points onto each bundle of yarns as the at least one bundle of yarns passes through the jet box assembly , wherein the plurality of additional tack points are placed intermittently along the twists of each bundle of yarns ; and a pull roller assembly positioned downstream of the jet box assembly along the yarn path , wherein the pull roller assembly is configured to pull the at least one bundle of yarns through the jet box assembly at a selectively adjustable speed. a tack assembly configured to receive at least one bundle of yarns , wherein each bundle of yarns comprises at least two yarns of the plurality of yarns , wherein the tack assembly is configured to impart at least a first and a second twist onto each bundle of yarns , and wherein the tack assembly is further configured to place a first tack point onto each bundle of yarns at a point corresponding to a twist reversal between the first and second twists ; a nip roller located downstream of the tack assembly along the yarn path , wherein the nip roller is configured to pull the at least one bundle of yarns through the tack assembly at a selectively adjustable speed; a jet box assembly positioned downstream of the nip roller relative to the yarn path , wherein the jet box assembly is configured to place a plurality of additional tack points onto each bundle of yarns as the at least one bundle of yarns passes through the jet box assembly , wherein the plurality of additional tack points are placed intermittently along the twists of each bundle of yarns ; and a pull roller assembly positioned downstream of the jet box assembly along the yarn path , wherein the pull roller assembly is configured to pull the at least one bundle of yarns through the jet box assembly at a selectively adjustable speed.
A process for producing a recess in the base region of a wall construction in the drywall technique, wherein for the wall construction on a stud frame , using board-shaped construction elements , a paneling is attached on both sides of the stud frame, and wherein at least one side of the stud frame is provided with a double-layer paneling, the outer paneling layer of which is recessed in order to produce the recess in the base region, introducing a compensating insulant into the intermediate space between the paneling of the stud frame at least over the vertical height of the recess in the base region in order to compensate the weakening of the base region resulting from the recessed paneling characterized in that rock wool is used as compensating insulant .
An electrosurgical device, comprising: a. power cable comprising: i. a primary lead that connects to a first pole of an AC power source and ii. a first auxiliary lead and a second auxiliary lead; wherein the primary lead connects to a monopolar electrode of the electrosurgical device, and the first auxiliary lead and the second auxiliary lead connect to a first electric terminal and a second electrical terminal, respectively, wherein the first auxiliary lead and the second auxiliary lead connect to an electronic element of the electrosurgical device, wherein the power cable includes a dual core, wherein a core is a group of one or more leads, the dual core having the primary lead on a first side within a first core and the first auxiliary lead and the second auxiliary lead on a second side together within a second core with a web being located between the two cores. a. power cable comprising: i. a primary lead that connects to a first pole of an AC power source and ii. a first auxiliary lead and a second auxiliary lead; wherein the primary lead connects to a monopolar electrode of the electrosurgical device, and the first auxiliary lead and the second auxiliary lead connect to a first electric terminal and a second electrical terminal, respectively, wherein the first auxiliary lead and the second auxiliary lead connect to an electronic element of the electrosurgical device, wherein the power cable includes a dual core, wherein a core is a group of one or more leads, the dual core having the primary lead on a first side within a first core and the first auxiliary lead and the second auxiliary lead on a second side together within a second core with a web being located between the two cores. i. a primary lead that connects to a first pole of an AC power source and ii. a first auxiliary lead and a second auxiliary lead; wherein the primary lead connects to a monopolar electrode of the electrosurgical device, and the first auxiliary lead and the second auxiliary lead connect to a first electric terminal and a second electrical terminal, respectively, wherein the first auxiliary lead and the second auxiliary lead connect to an electronic element of the electrosurgical device, wherein the power cable includes a dual core, wherein a core is a group of one or more leads, the dual core having the primary lead on a first side within a first core and the first auxiliary lead and the second auxiliary lead on a second side together within a second core with a web being located between the two cores.
A network apparatus , the network apparatus comprising: a communication circuitry configured to communicate with a server storing environment condition information corresponding to at least one user and at least one device installed in a preset service space; and a processor configured to: receive, based on a determination that a user moves from a first service space into a second service space, environment condition information corresponding to the user from the server , control an operation state of a first device installed in the second service space based on the received environment condition information, wherein the received environment condition information comprises information on an operation state of a second device installed in the first service space, and wherein a function of the first device is same as or similar to a function of the second device, wherein the function of the first device and the function of the second device are compared to determine the first device having the similar function to the second device based on at least one of product names, model names, and function information. a communication circuitry configured to communicate with a server storing environment condition information corresponding to at least one user and at least one device installed in a preset service space; and a processor configured to: receive, based on a determination that a user moves from a first service space into a second service space, environment condition information corresponding to the user from the server , control an operation state of a first device installed in the second service space based on the received environment condition information, wherein the received environment condition information comprises information on an operation state of a second device installed in the first service space, and wherein a function of the first device is same as or similar to a function of the second device, wherein the function of the first device and the function of the second device are compared to determine the first device having the similar function to the second device based on at least one of product names, model names, and function information. receive, based on a determination that a user moves from a first service space into a second service space, environment condition information corresponding to the user from the server , control an operation state of a first device installed in the second service space based on the received environment condition information, wherein the received environment condition information comprises information on an operation state of a second device installed in the first service space, and wherein a function of the first device is same as or similar to a function of the second device, wherein the function of the first device and the function of the second device are compared to determine the first device having the similar function to the second device based on at least one of product names, model names, and function information.
A method for receiving data by a user equipment, UE, comprising: receiving control information in a downlink control channel , the control information indicating at least a time-frequency resource partition in a downlink data channel at which the data is located, and including a cyclic redundancy check, CRC, masked with a group identification, ID, known to the UE and at least one other UE; using the group ID to unmask the CRC ; obtaining an indication of at least the time-frequency resource partition from the control information ; and receiving the data in the downlink data channel at the time-frequency resource partition in accordance with the indication ; characterized by : determining by virtue of the use of the group ID that the UE is a target UE that is to be assisted with receipt of the data; and using D2D communication to receive information from another UE that also received the data using the group ID, wherein the information is at least one of: the data, a re-encoded version of the data, and other information obtained when the data was decoded by the another UE. receiving control information in a downlink control channel , the control information indicating at least a time-frequency resource partition in a downlink data channel at which the data is located, and including a cyclic redundancy check, CRC, masked with a group identification, ID, known to the UE and at least one other UE; using the group ID to unmask the CRC ; obtaining an indication of at least the time-frequency resource partition from the control information ; and receiving the data in the downlink data channel at the time-frequency resource partition in accordance with the indication ; characterized by : determining by virtue of the use of the group ID that the UE is a target UE that is to be assisted with receipt of the data; and using D2D communication to receive information from another UE that also received the data using the group ID, wherein the information is at least one of: the data, a re-encoded version of the data, and other information obtained when the data was decoded by the another UE. determining by virtue of the use of the group ID that the UE is a target UE that is to be assisted with receipt of the data; and using D2D communication to receive information from another UE that also received the data using the group ID, wherein the information is at least one of: the data, a re-encoded version of the data, and other information obtained when the data was decoded by the another UE.
Method for operating a drive apparatus for a motor vehicle, wherein the drive apparatus has an internal combustion engine , an output shaft and a clutch connected between the internal combustion engine and the output shaft, and wherein in a coasting mode an idling speed control of the internal combustion engine to an idling speed is carried out and the clutch is opened, and in an overrun mode the clutch is closed, characterised in that when there is a shift from the coasting mode to the overrun mode when the idling speed control of the internal combustion engine to the idling speed is simultaneously carried out, the clutch is closed such that the internal combustion engine is tow-started, wherein a clutch torque transmitted by means of the clutch between the internal combustion engine and the output shaft or a clutch variable influencing the clutch torque is used as a manipulated variable to control the internal combustion engine speed to the speed of the output shaft.
A method for controlling an elevator system , comprising: obtaining images of the inside of an elevator car ; detecting passengers in the images; creating graphic passenger models of the detected passengers from the images ; and characterized by : determining the number of passengers who may additionally board the elevator car using the passenger models ; wherein determining the number of passengers who may additionally board the elevator car comprises: placing the passenger models in an image area (A) representing elevator car space so that the passenger models do not overlap; adding standard models representing a standard-sized passenger in the image area (A) until there is no more space for an additional standard model ; and setting the number of standard models included in the image area (A) as the number of passengers who may additionally board the elevator car . obtaining images of the inside of an elevator car ; detecting passengers in the images; creating graphic passenger models of the detected passengers from the images ; and characterized by : determining the number of passengers who may additionally board the elevator car using the passenger models ; wherein determining the number of passengers who may additionally board the elevator car comprises: determining the number of passengers who may additionally board the elevator car using the passenger models ; wherein determining the number of passengers who may additionally board the elevator car comprises: placing the passenger models in an image area (A) representing elevator car space so that the passenger models do not overlap; adding standard models representing a standard-sized passenger in the image area (A) until there is no more space for an additional standard model ; and setting the number of standard models included in the image area (A) as the number of passengers who may additionally board the elevator car .
An electronic device (X1; X2; X3; X4; X5) comprising: a touch panel configured to detect an input position; a first housing including a base disposed opposite the touch panel and a frame body positioned on the base so as to surround the touch panel in plan view; an operation unit positioned on a front surface of the touch panel so as to cover the touch panel in plan view; a vibrating body provided on a portion of a back surface of the operation unit ; a flexible portion (8; 80) provided over a whole circumference of the frame body and located between the operation unit and the frame body , supporting the operation unit ; and characterised by a gap (L1) provided between the touch panel and the flexible portion (8; 80), being a portion of the operation unit that is not supported by the touch panel and the flexible portion , wherein the vibrating body is arranged in the gap (L1) so as not to overlap with the touch panel in plan view. a touch panel configured to detect an input position; a first housing including a base disposed opposite the touch panel and a frame body positioned on the base so as to surround the touch panel in plan view; an operation unit positioned on a front surface of the touch panel so as to cover the touch panel in plan view; a vibrating body provided on a portion of a back surface of the operation unit ; a flexible portion (8; 80) provided over a whole circumference of the frame body and located between the operation unit and the frame body , supporting the operation unit ; and characterised by a gap (L1) provided between the touch panel and the flexible portion (8; 80), being a portion of the operation unit that is not supported by the touch panel and the flexible portion , wherein the vibrating body is arranged in the gap (L1) so as not to overlap with the touch panel in plan view.
A method of acquiring a marine seismic survey, comprising: towing a plurality of streamers (110; 110-a-1, 110-a-2, 110-a-3, 110-a-4, 110-a-5, 110-a-6, 110-a-7, 110-a-8) behind an acquisition vessel , the plurality of streamers defining a swath of streamers (120, 120-d-1, 120-d-2); towing a first independent source by a first independent source vessel (125; 125-a, 125-b-1, 125-b-2, 125-b-3; 125-c-1, 125-c-2, 125-c-3; 125-d-1, 125-d-2; 125-e; 125-f-1, 125-f-2; 125-g) above one or more of the plurality of towed streamers, wherein the first independent source vessel moves back and forth between a left side of a source navigation region (205; 205-a , 205-b, 205-c) and a right side of the source navigation region (205; 205-a , 205-b, 205-c) so as to traverse at least a portion of the swath while advancing in a same general direction as the acquisition vessel and towing one or more additional independent sources by one or more respective additional independent source vessels (125-a, 125-b-1, 125-b-2, 125-b-3; 125-c-1, 125-c-2, 125-c-3; 125-d-1, 125-d-2; 125-e; 125-f-1, 125-f-2; 125-g) above the one or more of the plurality of towed streamers. towing a plurality of streamers (110; 110-a-1, 110-a-2, 110-a-3, 110-a-4, 110-a-5, 110-a-6, 110-a-7, 110-a-8) behind an acquisition vessel , the plurality of streamers defining a swath of streamers (120, 120-d-1, 120-d-2); towing a first independent source by a first independent source vessel (125; 125-a, 125-b-1, 125-b-2, 125-b-3; 125-c-1, 125-c-2, 125-c-3; 125-d-1, 125-d-2; 125-e; 125-f-1, 125-f-2; 125-g) above one or more of the plurality of towed streamers, wherein the first independent source vessel moves back and forth between a left side of a source navigation region (205; 205-a , 205-b, 205-c) and a right side of the source navigation region (205; 205-a , 205-b, 205-c) so as to traverse at least a portion of the swath while advancing in a same general direction as the acquisition vessel and towing one or more additional independent sources by one or more respective additional independent source vessels (125-a, 125-b-1, 125-b-2, 125-b-3; 125-c-1, 125-c-2, 125-c-3; 125-d-1, 125-d-2; 125-e; 125-f-1, 125-f-2; 125-g) above the one or more of the plurality of towed streamers.
A modified terminal deoxynucleotidyl transferase (TdT) comprising an amino acid sequence at least 90% identical to SEQ ID NOS. 1, 3, 5, 7, or 9 with a mutation in: a tryptophan at position 460 in SEQ ID NO. 1, position 332 in SEQ ID NO. 3, position 319 in SEQ ID NO 5, position 310 in SEQ ID NO 7, or position 450 in SEQ ID NO 9; a threonine at position 461 in SEQ ID NO. 1, position 333 in SEQ ID NO. 3, position 320 in SEQ ID NO 5, position 311 in SEQ ID NO 7, or position 451 in SEQ ID NO 9; a glycine at position 462 in SEQ ID NO. 1, position 334 in SEQ ID NO. 3, position 321 in SEQ ID NO 5, position 312 in SEQ ID NO 7, or position 452 in SEQ ID NO 9; a serine at position 463 in SEQ ID NO. 1, position 335 in SEQ ID NO. 3, position in 322 SEQ ID NO 5, position 313 in SEQ ID NO 7, or position 453 in SEQ ID NO 9; or an arginine at position 464 in SEQ ID NO. 1, position 336 in SEQ ID NO. 3, position 323 in SEQ ID NO 5, position 314 in SEQ ID NO 7, or position 454 in SEQ ID NO 9. a tryptophan at position 460 in SEQ ID NO. 1, position 332 in SEQ ID NO. 3, position 319 in SEQ ID NO 5, position 310 in SEQ ID NO 7, or position 450 in SEQ ID NO 9; a threonine at position 461 in SEQ ID NO. 1, position 333 in SEQ ID NO. 3, position 320 in SEQ ID NO 5, position 311 in SEQ ID NO 7, or position 451 in SEQ ID NO 9; a glycine at position 462 in SEQ ID NO. 1, position 334 in SEQ ID NO. 3, position 321 in SEQ ID NO 5, position 312 in SEQ ID NO 7, or position 452 in SEQ ID NO 9; a serine at position 463 in SEQ ID NO. 1, position 335 in SEQ ID NO. 3, position in 322 SEQ ID NO 5, position 313 in SEQ ID NO 7, or position 453 in SEQ ID NO 9; or an arginine at position 464 in SEQ ID NO. 1, position 336 in SEQ ID NO. 3, position 323 in SEQ ID NO 5, position 314 in SEQ ID NO 7, or position 454 in SEQ ID NO 9.
Ammunition cartridge for rifles and firearms, comprising a rigid casing including a tubular sleeve and a base closing an end of the casing, a projectile mounted at another end of the casing, a propellant charge contained inside the casing, and an ignition device , the ignition device comprising an ignition charge arranged to ignite the propellant charge at a point of ignition distal from the base and proximal the projectile , characterized in that the casing is made of at least two parts including the base and the tubular sleeve that are assembled together, wherein the cartridge further comprises a projectile booster charge positioned in a cavity in a trailing end of the projectile, the point of ignition of the projectile booster charge being positioned adjacent the ignition device such that the projectile booster charge is ignited simultaneously or before the propellant charge is ignited. characterized in that the casing is made of at least two parts including the base and the tubular sleeve that are assembled together, wherein the cartridge further comprises a projectile booster charge positioned in a cavity in a trailing end of the projectile, the point of ignition of the projectile booster charge being positioned adjacent the ignition device such that the projectile booster charge is ignited simultaneously or before the propellant charge is ignited.
A mobile wireless communication device comprising: a processor ; a memory coupled to the processor , the memory storing location based satellite positioning system operating mode information which is based on one or more impairments to satellite signal reception at one or more locations; a satellite positioning system, SPS, receiver coupled to the processor , the SPS receiver configured to determine a position of the mobile wireless communication device, the processor configured to control an operating mode of the SPS receiver based on the satellite positioning system operating mode information stored in the memory and based on the determined location of the mobile wireless communication device. a processor ; a memory coupled to the processor , the memory storing location based satellite positioning system operating mode information which is based on one or more impairments to satellite signal reception at one or more locations; a satellite positioning system, SPS, receiver coupled to the processor , the SPS receiver configured to determine a position of the mobile wireless communication device, the processor configured to control an operating mode of the SPS receiver based on the satellite positioning system operating mode information stored in the memory and based on the determined location of the mobile wireless communication device.
Device for applying adhesive to cores for a log comprising moving means configured to cause at least one core to advance along a feed direction (A) and at least one dispensing means configured for dispensing an amount of adhesive on said core , wherein said dispensing means is movable along an application direction (B) substantially orthogonal to said feed direction (A) and is configured to selectively dispense said amount of adhesive along at least one portion of said core during movement along said application direction (B), characterized in that it comprises adjustment means of the position of said dispensing means along said feed direction (A), the position of said dispensing means along said feed direction (A) being adjustable according to the diameter of said core .