mhurhangee/patent-ind-claim-en huggingface dataset:
Yarn feeder for feeding a yarn to a textile machine, with a housing having a holder , with a storage body from which the yarn is drawn off by the textile machine, with a braking device for adjusting a yarn tension of the yarn , which braking device is arranged downstream of the storage body in the yarn path, wherein the braking device has a brake body and an adjusting device for the brake body, wherein the brake body can be pressed by the adjusting device against a clamping surface at the take-off end of the storage body , wherein the adjusting device is arranged on the holder which extends along the storage body , wherein the adjusting device comprises at least one adjustment element and at least one outlet element, wherein the adjustment element is designed to be axially movable relative to the holder to press the brake body against the clamping surface , and wherein the outlet element is provided with an inlet opening aligned with the brake body for guiding the yarn coming from the brake body in the direction of the textile machine, characterised in that a cover element is provided at the take-off end of the storage body , wherein the cover element is provided with a guide surface for guiding a threading needle coming from the outlet element to the brake body , wherein the guide surface has an elevation, the tip of which or the highest region of which is arranged asymmetrically in the region of the edge of the projection of the inlet opening onto the cover element and is located at a position opposite an exit direction (R) of the threading needle. with a storage body from which the yarn is drawn off by the textile machine, with a braking device for adjusting a yarn tension of the yarn , which braking device is arranged downstream of the storage body in the yarn path, wherein the braking device has a brake body and an adjusting device for the brake body, wherein the brake body can be pressed by the adjusting device against a clamping surface at the take-off end of the storage body , wherein the adjusting device is arranged on the holder which extends along the storage body , wherein the adjusting device comprises at least one adjustment element and at least one outlet element, wherein the adjustment element is designed to be axially movable relative to the holder to press the brake body against the clamping surface , and wherein the outlet element is provided with an inlet opening aligned with the brake body for guiding the yarn coming from the brake body in the direction of the textile machine, characterised in that a cover element is provided at the take-off end of the storage body , wherein the cover element is provided with a guide surface for guiding a threading needle coming from the outlet element to the brake body , wherein the guide surface has an elevation, the tip of which or the highest region of which is arranged asymmetrically in the region of the edge of the projection of the inlet opening onto the cover element and is located at a position opposite an exit direction (R) of the threading needle.
A meat processing apparatus comprising an automated analysis stage comprising: a radiation-shielded chamber , a tomography scanner with a scanner table and a scanner controller, and arranged to perform analysis of meat parts placed in carriers on the scanner table, a digital data processor linked with the scanner for processing scan data and providing outputs, a port for entry and exit of meat parts placed in carriers into and out of the chamber for analysis by the scanner, a handling system for automated movement of the carriers between the port and the scanner , and a controller for the handling system; wherein the port comprises an interlock chamber , having an inner door and an outer door and a controller to ensure that while the scanner is operating only one door can open; and wherein the handling system further comprises a first gripper for picking a carrier from a first location and placing it onto the scanner table, and a second gripper for picking a carrier from the scanner table and placing it at a second location a radiation-shielded chamber , a tomography scanner with a scanner table and a scanner controller, and arranged to perform analysis of meat parts placed in carriers on the scanner table, a digital data processor linked with the scanner for processing scan data and providing outputs, a port for entry and exit of meat parts placed in carriers into and out of the chamber for analysis by the scanner, a handling system for automated movement of the carriers between the port and the scanner , and a controller for the handling system; wherein the port comprises an interlock chamber , having an inner door and an outer door and a controller to ensure that while the scanner is operating only one door can open; and wherein the handling system further comprises a first gripper for picking a carrier from a first location and placing it onto the scanner table, and a second gripper for picking a carrier from the scanner table and placing it at a second location
An APP specific BACE inhibitor (ASBI), wherein said APP specific BACE inhibitor is a galangin prodrug that is processed to galangin when administered to a mammal, wherein said galangin prodrug is characterized by the formula: wherein: R 1 and R 3 are each H, or R2 is H, and wherein at least one of R 1 , R 2 , and R 3 is not H; and wherein said prodrug partially or completely inhibits BACE processing of APP when administered to a mammal.
A scanning system configured to scan an area of interest , wherein the scanning system comprises: - a first scanner configured to deflect a light signal , wherein the light signal that is deflected by the first scanner is output as an initially-deflected light signal ; and - a second scanner configured to receive the initially-deflected light signal and deflect the initially-deflected light signal , wherein the initially-deflected signal that is deflected by the second scanner is output as a subsequently-deflected light signal ; - a deflection mirror disposed between the first and second scanners , wherein the deflection mirror comprises an aperture through which the initially-deflected light signal passes ; wherein the second scanner comprises a mirror configured to be actuated with respect to two different axes, wherein the first scanner is configured to deflect the light signal at a first scan angle (α), and wherein the second scanner is configured to deflect the initially-deflected light signal at a second scan angle (γ) that differs from the first scan angle (α), and wherein the aperture is sized and shaped to accommodate the scan angle (α). - a first scanner configured to deflect a light signal , wherein the light signal that is deflected by the first scanner is output as an initially-deflected light signal ; and - a second scanner configured to receive the initially-deflected light signal and deflect the initially-deflected light signal , wherein the initially-deflected signal that is deflected by the second scanner is output as a subsequently-deflected light signal ; - a deflection mirror disposed between the first and second scanners , wherein the deflection mirror comprises an aperture through which the initially-deflected light signal passes ; wherein the second scanner comprises a mirror configured to be actuated with respect to two different axes, wherein the first scanner is configured to deflect the light signal at a first scan angle (α), and wherein the second scanner is configured to deflect the initially-deflected light signal at a second scan angle (γ) that differs from the first scan angle (α), and wherein the aperture is sized and shaped to accommodate the scan angle (α).
A method for detecting the number of puffs of an electronic cigarette, comprising: step , sampling to obtain a real-time temperature of a heating unit of the electronic cigarette, and determining a temperature difference between a target temperature and the real-time temperature; step , integrating the temperature difference in time to obtain an integral value I that is real-time; characterised in that the method further comprises step , calculating a first limit H that is real-time according to the integral value I; and step , judging whether the real-time integral value I is beyond the first limit value H, if yes, determining that one puff of smoking happens. step , sampling to obtain a real-time temperature of a heating unit of the electronic cigarette, and determining a temperature difference between a target temperature and the real-time temperature; step , integrating the temperature difference in time to obtain an integral value I that is real-time; characterised in that the method further comprises step , calculating a first limit H that is real-time according to the integral value I; and step , judging whether the real-time integral value I is beyond the first limit value H, if yes, determining that one puff of smoking happens.
A method comprising: a) discovering a first plurality of communication links from a first device to a second device, wherein the first device comprises a first Session Management Module, in the following also referred to as SMM, and wherein the second device comprises a second SMM; b) determining the bandwidth capacity for each of the communication links; c) selecting a second plurality of communication links based on the determined bandwidth capacity for each of the first plurality of communication links, wherein each of the second plurality of communication links are included in the first plurality of communication links; and d) communicating different portions and/or different types of data of an encoded video stream from the first device to the second device on each of the selected second plurality of communication links, wherein each of the communication links have a different communication characteristic. a) discovering a first plurality of communication links from a first device to a second device, wherein the first device comprises a first Session Management Module, in the following also referred to as SMM, and wherein the second device comprises a second SMM; b) determining the bandwidth capacity for each of the communication links; c) selecting a second plurality of communication links based on the determined bandwidth capacity for each of the first plurality of communication links, wherein each of the second plurality of communication links are included in the first plurality of communication links; and d) communicating different portions and/or different types of data of an encoded video stream from the first device to the second device on each of the selected second plurality of communication links, wherein each of the communication links have a different communication characteristic.
Method for measuring height in a vehicle by determining the distance between the vehicle chassis and the vehicle axis or parts connected thereto, wherein a first device with a first transmitter and first receiver , on the one hand, and a second device with a second transmitter and second receiver , on the other, interact, wherein the first transmitter generates an electromagnetic field, the second receiver detects the electromagnetic field, the second device with the second transmitter generates and transmits, from the detected field, a signal which correlates with the distance from the first transmitter to the second receiver , and the first device with the first receiver receives the signal, characterized in that the second device with the second transmitter transmits a signal only if a change in the electromagnetic field has been detected by the second receiver .
A vulcanizate prepared by a method comprising: a. introducing a diene-based elastomer, a filler, and a mercapto-functional siloxane to form a masterbatch, where the mercapto-functional siloxane is selected from poly(dimethylsiloxane-co-mercaptopropylmethylsiloxane) and dimethoxy mercapto propyl terminated siloxanes, where the diene-based elastomer is selected from the group consisting of natural rubber, synthetic polyisoprene, polybutadiene, polyisobutylene- co- isoprene, neoprene, poly(ethylene- co -propylene), poly(styrene- co -butadiene), poly(styrene- co -isoprene), poly(styrene- co -isoprene- co -butadiene), poly(isoprene- co -butadiene), poly(ethylene- co -propylene- co -diene), and mixtures thereof; and b. introducing a curative to the masterbatch to form a vulcanizable composition. a. introducing a diene-based elastomer, a filler, and a mercapto-functional siloxane to form a masterbatch, where the mercapto-functional siloxane is selected from poly(dimethylsiloxane-co-mercaptopropylmethylsiloxane) and dimethoxy mercapto propyl terminated siloxanes, where the diene-based elastomer is selected from the group consisting of natural rubber, synthetic polyisoprene, polybutadiene, polyisobutylene- co- isoprene, neoprene, poly(ethylene- co -propylene), poly(styrene- co -butadiene), poly(styrene- co -isoprene), poly(styrene- co -isoprene- co -butadiene), poly(isoprene- co -butadiene), poly(ethylene- co -propylene- co -diene), and mixtures thereof; and where the mercapto-functional siloxane is selected from poly(dimethylsiloxane-co-mercaptopropylmethylsiloxane) and dimethoxy mercapto propyl terminated siloxanes, where the diene-based elastomer is selected from the group consisting of natural rubber, synthetic polyisoprene, polybutadiene, polyisobutylene- co- isoprene, neoprene, poly(ethylene- co -propylene), poly(styrene- co -butadiene), poly(styrene- co -isoprene), poly(styrene- co -isoprene- co -butadiene), poly(isoprene- co -butadiene), poly(ethylene- co -propylene- co -diene), and mixtures thereof; and b. introducing a curative to the masterbatch to form a vulcanizable composition.
A method for adaptive pilot power transmission to maintain a constant reselection range for home evolved NodeBs , HeNBs, in a cell of a macro evolved NodeB, eNodeB, the method comprising: • using, by a HeNB , an offset factor and a HeNB pilot power to establish a reselection area around the HeNB , wherein the offset factor is an indication of the reselection ranges around the HeNB (step 902); • establishing, by the HeNB , a subscription with one or more user equipments, UE, that are within the reselection area (step 904); • receiving, by the HeNB , from each of the one or more UEs information about a separation distance between the UE and the eNodeB (step 906); • determining, by the HeNB , a HeNB pilot power that maintains the constant reselection range for the HeNB within the cell based on the received information about the separation distance (step 908). • using, by a HeNB , an offset factor and a HeNB pilot power to establish a reselection area around the HeNB , wherein the offset factor is an indication of the reselection ranges around the HeNB (step 902); • establishing, by the HeNB , a subscription with one or more user equipments, UE, that are within the reselection area (step 904); • receiving, by the HeNB , from each of the one or more UEs information about a separation distance between the UE and the eNodeB (step 906); • determining, by the HeNB , a HeNB pilot power that maintains the constant reselection range for the HeNB within the cell based on the received information about the separation distance (step 908).
An audio communication system for communication between vehicle occupants in a vehicle, comprising: an image capturing device configured to monitor a first vehicle occupant , a processor configured to receive an image of the first vehicle occupant from the image capturing device and determine whether the first vehicle occupant is attracting attention from a second vehicle occupant , wherein the processor is configured for eye-tracking of the first vehicle occupant , a first microphone associated to the first vehicle occupant configured to receive an audio input from the first vehicle occupant in response to the determination of the first vehicle occupant attracting the second vehicle occupant's attention, and a first speaker associated to the second vehicle occupant configured to activate an audio augmentation of the received audio input in the first speaker and output the augmented audio input. an image capturing device configured to monitor a first vehicle occupant , a processor configured to receive an image of the first vehicle occupant from the image capturing device and determine whether the first vehicle occupant is attracting attention from a second vehicle occupant , wherein the processor is configured for eye-tracking of the first vehicle occupant , a first microphone associated to the first vehicle occupant configured to receive an audio input from the first vehicle occupant in response to the determination of the first vehicle occupant attracting the second vehicle occupant's attention, and a first speaker associated to the second vehicle occupant configured to activate an audio augmentation of the received audio input in the first speaker and output the augmented audio input.
A high water oral care composition comprising an orally acceptable carrier, zinc phosphate, stannous fluoride, a salicylamide, and an organic buffer system, wherein the salicylamide is a non-halogenated salicylamide and has the formula: wherein R 1 and R 2 are independently selected from H, and C 1-10 alkyl; and wherein the composition comprises water at a weight percentage of at least 10%. wherein R 1 and R 2 are independently selected from H, and C 1-10 alkyl; and wherein the composition comprises water at a weight percentage of at least 10%.
Device for displaying a fluid level having a device housing that comprises a viewing window that provides a view of a transparent display body , which can be partially filled via at least one connection piece , which comprises a cavity , with the fluid, the cavity thereof being penetrated by a fixing element that comprises a fluid guide passage and serves to fix the device housing to a third component such as a fluid storage tank, characterised in that the connection piece has a support structure , at least consisting of individual ribs , which connect plate-shaped wall portions of the connection piece together, and in that the support structure surrounds the cavity .
An attachment for a forestry vehicle for felling and/or bucking and/or manipulating tree trunks, wherein the said attachment comprises at least two nozzles and a head attachable to a movable arm of a forestry vehicle , wherein each nozzle is provided with means fixing the nozzle to the head , and each nozzle is provided with a protective housing, wherein the attachment further comprises at least one main tank for holding a liquid, a tubing connecting the main tank with the said nozzles , and a means for propelling the liquid from the tank to the nozzles and out of the nozzles , wherein the head has means for gripping a tree trunk and moving the tree trunk along its longitudinal axis, wherein the nozzles are configured to cover the whole surface of the tree trunk by a liquid sprayed through the nozzles , characterized in that the head contains diameter sensors to measure the diameter of the tree trunk and the attachment is configured to adapt the number of active nozzles in response to the signal from the diameter sensors. wherein each nozzle is provided with means fixing the nozzle to the head , and each nozzle is provided with a protective housing, wherein the attachment further comprises at least one main tank for holding a liquid, a tubing connecting the main tank with the said nozzles , and a means for propelling the liquid from the tank to the nozzles and out of the nozzles , wherein the head has means for gripping a tree trunk and moving the tree trunk along its longitudinal axis, wherein the nozzles are configured to cover the whole surface of the tree trunk by a liquid sprayed through the nozzles , characterized in that the head contains diameter sensors to measure the diameter of the tree trunk and the attachment is configured to adapt the number of active nozzles in response to the signal from the diameter sensors.
A droplet discharging device , comprising: a discharging head configured to discharge a droplet toward a medium (M); a head driving circuit configured to drive the discharging head ; a heat dissipation unit configured to dissipate heat generated in the head driving circuit ; a carriage configured to move in a state of supporting the discharging head , the head driving circuit , and the heat dissipation unit ; and a plurality of airflow generating units disposed vertically above a movement region (A1) of the carriage and capable of generating an airflow toward the heat dissipation unit supported by the carriage , wherein the movement region (A1) includes a droplet discharging region (A2) in which a droplet is discharged onto the medium (M), and a maintenance region (A3) for performing maintenance of the discharging head , and among the plurality of the airflow generating units , when the airflow generating unit capable of generating an airflow toward the heat dissipation unit supported by the carriage positioned in the droplet discharging region (A2) is a first airflow generating unit , and when the airflow generating unit capable of generating an airflow toward the heat dissipation unit supported by the carriage positioned in the maintenance region (A3) is a second airflow generating unit , in a case where the carriage is positioned in the maintenance region (A3), while airflow generation from the first airflow generating unit is limited, airflow generation from the second airflow generating unit is allowed. a discharging head configured to discharge a droplet toward a medium (M); a head driving circuit configured to drive the discharging head ; a heat dissipation unit configured to dissipate heat generated in the head driving circuit ; a carriage configured to move in a state of supporting the discharging head , the head driving circuit , and the heat dissipation unit ; and a plurality of airflow generating units disposed vertically above a movement region (A1) of the carriage and capable of generating an airflow toward the heat dissipation unit supported by the carriage , wherein the movement region (A1) includes a droplet discharging region (A2) in which a droplet is discharged onto the medium (M), and a maintenance region (A3) for performing maintenance of the discharging head , and among the plurality of the airflow generating units , when the airflow generating unit capable of generating an airflow toward the heat dissipation unit supported by the carriage positioned in the droplet discharging region (A2) is a first airflow generating unit , and when the airflow generating unit capable of generating an airflow toward the heat dissipation unit supported by the carriage positioned in the maintenance region (A3) is a second airflow generating unit , in a case where the carriage is positioned in the maintenance region (A3), while airflow generation from the first airflow generating unit is limited, airflow generation from the second airflow generating unit is allowed.