mhurhangee/patent-ind-claim-en huggingface dataset:
Device for controlling the longitudinal guidance of a vehicle that is designed for at least partly automated driving, comprising at least one pedal for a driver to control the longitudinal guidance, wherein the at least one pedal can be blocked within predefined position limits on the basis of a variable that represents the level of automation of the journey of the vehicle and on the basis of a first condition, and wherein the blocking of the pedal can be suspended on the basis of the variable that represents the level of automation of the journey of the vehicle and on the basis of at least one second condition, characterized in that the device is configured to respond to a transition from manual driving to automated driving by producing a first haptic effect in the form of a vibration on the pedal and to respond to a transition from automated driving to manual driving by producing a second haptic effect on the pedal , the second haptic effect being distinguishable from the first haptic effect. and wherein the blocking of the pedal can be suspended on the basis of the variable that represents the level of automation of the journey of the vehicle and on the basis of at least one second condition, characterized in that the device is configured to respond to a transition from manual driving to automated driving by producing a first haptic effect in the form of a vibration on the pedal and to respond to a transition from automated driving to manual driving by producing a second haptic effect on the pedal , the second haptic effect being distinguishable from the first haptic effect.
A processor (102; 600; 700; 870, 880) comprising: a plurality of cores (104 0 -104 N ; 610 a -610 n ; 710 0 -710 n ; 874a, 884a) grouped into a plurality of clusters , wherein the clusters are formed based on a corresponding operating voltage of each core (104 0 -104 N ; 610 a -610 n ; 710 0 -710 n ; 874a, 884a) at each of a plurality of frequencies, such that the cores in each cluster have a similar voltage-frequency, V-F, characteristics, wherein each cluster comprises a unique set of cores (104 0 -104 N ; 610 a -610 n ; 710 0 -710 n ; 874a, 884a) and at least one cluster includes at least two of the cores (104 0 -104 N ; 610 a -610 n ; 710 0 -710 n ; 874a, 884a); further comprising a power control unit, PCU (110; 655; 756; 840, 850; 913, 915), comprising frequency/voltage control logic (116; 757; 842, 852), responsive to a frequency change request from a first core (104 0 -104 N ; 610 a -610 n ; 710 0 -710 n ; 874a, 884a) of a first cluster of cores , to determine an operating voltage for the first core (104 0 -104 N ; 610 a -610 n ; 710 0 -710 n ; 874a, 884a) from a first cluster V-F table associated with the first cluster , wherein the V-F table for each cluster uniquely specifies a corresponding operating voltage at each of a plurality of frequencies of operation of the cores (104 0 -104 N ; 610 a -610 n ; 710 0 -710 n ; 874a, 884a) of the respective cluster , and wherein the V-F table for each cluster is constructed based on maximum voltages at predetermined frequencies of the V-F characteristics of the cores within the respective cluster. a plurality of cores (104 0 -104 N ; 610 a -610 n ; 710 0 -710 n ; 874a, 884a) grouped into a plurality of clusters , wherein the clusters are formed based on a corresponding operating voltage of each core (104 0 -104 N ; 610 a -610 n ; 710 0 -710 n ; 874a, 884a) at each of a plurality of frequencies, such that the cores in each cluster have a similar voltage-frequency, V-F, characteristics, wherein each cluster comprises a unique set of cores (104 0 -104 N ; 610 a -610 n ; 710 0 -710 n ; 874a, 884a) and at least one cluster includes at least two of the cores (104 0 -104 N ; 610 a -610 n ; 710 0 -710 n ; 874a, 884a); further comprising a power control unit, PCU (110; 655; 756; 840, 850; 913, 915), comprising frequency/voltage control logic (116; 757; 842, 852), responsive to a frequency change request from a first core (104 0 -104 N ; 610 a -610 n ; 710 0 -710 n ; 874a, 884a) of a first cluster of cores , to determine an operating voltage for the first core (104 0 -104 N ; 610 a -610 n ; 710 0 -710 n ; 874a, 884a) from a first cluster V-F table associated with the first cluster , wherein the V-F table for each cluster uniquely specifies a corresponding operating voltage at each of a plurality of frequencies of operation of the cores (104 0 -104 N ; 610 a -610 n ; 710 0 -710 n ; 874a, 884a) of the respective cluster , and wherein the V-F table for each cluster is constructed based on maximum voltages at predetermined frequencies of the V-F characteristics of the cores within the respective cluster.
A method for producing cheese, the method comprising treating a milk raw material containing a milk protein with the following ingredient (A) or (B): (A) one or more kinds of ingredients selected from reduced glutathione, cysteine, γ-glutamylcysteine, sulfurous acid, ascorbic acid, erythorbic acid, and a salt thereof; (B) a transglutaminase and a calcium salt, wherein the milk raw material containing a milk protein has been heat-treated at a temperature of 120°C to 150°C for 0.5 to 15 seconds. (A) one or more kinds of ingredients selected from reduced glutathione, cysteine, γ-glutamylcysteine, sulfurous acid, ascorbic acid, erythorbic acid, and a salt thereof; (B) a transglutaminase and a calcium salt,
A caster comprising a running wheel , a fork and an assembly journal , wherein the fork is pivotable relative to the assembly journal and a braking device is arranged in the fork which can be displaced into the braking position via a tappet actuated by a trip cam , wherein furthermore a direction lock can be set without a braking action on the running wheel , and two tappets are provided which are movable independently of each other, wherein only the direction lock without braking action can be set via one of the tappets , characterized in that in the normal operating position of caster , the tappets are arranged next to one another transverse to a vertical direction and extend next to one another in the vertical direction, the trip cam has two cam surfaces which are each assigned to one of the tappets and the cam surfaces are designed differently from one another.
Metal powder adapted for surface coating by thermal spraying or weld cladding metal parts, consisting of 5-9% Cr; 2-3% Si; 0.2-2% B; 16-55% Ni; 0-1.5% C, 0-2% P; the balance being Fe.
A compound selected from Formula I: or stereoisomers, tautomers, or pharmaceutically acceptable salts thereof, wherein: X 1 is N; X 2 is CR 2 or N; X 3 is CR 3 or N; R 2 and R 3 are independently selected from H, F, Cl, CN, -NH 2 , -NHCH 3 , -N(CH 3 ) 2 ,-OH, -OCH 3 , -OCH 2 CH 3 , -OCH 2 CH 2 OH, and C 1 -C 3 alkyl; R 4 is -CH 2 OH; R 5 is C 3 -C 12 carbocyclyl; R 6 is: where the wavy line indicates the site of attachment; and Y 1 and Y 2 are each CH. X 1 is N; X 2 is CR 2 or N; X 3 is CR 3 or N; R 2 and R 3 are independently selected from H, F, Cl, CN, -NH 2 , -NHCH 3 , -N(CH 3 ) 2 ,-OH, -OCH 3 , -OCH 2 CH 3 , -OCH 2 CH 2 OH, and C 1 -C 3 alkyl; R 4 is -CH 2 OH; R 5 is C 3 -C 12 carbocyclyl; R 6 is: where the wavy line indicates the site of attachment; and Y 1 and Y 2 are each CH.
A traction beam for a rail train, wherein the traction beam comprises an intermediate body and two end bodies which are arranged at two ends of the intermediate body , a pin sleeve hole for mounting a central pin sleeve is defined in the intermediate body , a pull rod hole for connecting a traction pull rod is defined in each end body ; wherein each end body comprises a main body portion , wherein a cross-sectional area of the main body portion is decreased along a length direction of the traction beam ; one end, having a relatively large cross-sectional area, of the main body portion is connected with the intermediate body ; a curved surface portion is provided on a side surface of the intermediate body ; the side surface of the intermediate body is in a smooth transition with a side surface of the main body portion by means of the curved surface portion of the intermediate body , characterised in that part of the side surface on one side of the main body portion is recessed inward to form a notch groove , the notch groove reaches to an end surface of an end, away from the intermediate body , of the main body portion and to a top surface and a bottom surface of the main body portion , and a side wall (c1) and an end wall (c2) of the notch groove are in a smooth transition.
A compound of the formula: for use in a method for treating essential tremor in a subject in need thereof comprising administering to the subject the compound.
A lithotripsy device, in particular an intracorporeal lithotripsy device, having at least one ultrasonic unit (10a; 10b), which has at least one sonotrode (12a; 12b), at least one ultrasonic generator , which is designed to provide ultrasonic waves, and at least one ultrasonic horn (16a; 16b; 16h), which is designed for focusing and at least indirectly transmitting the ultrasonic waves from the ultrasonic generator to the sonotrode (12a; 112b), and having at least one projectile unit (18a-h), which comprises at least one projectile (20a; 20b; 20c;e;g) mounted for linear movement, which is designed to at least indirectly act on the sonotrode (12a; 12b) in at least one operating state, and which, in the operating state, is at least indirectly stimulated to move by the ultrasonic generator by means of ultrasonic waves provided, characterized in that the projectile (20a; 20b; 20c; 20e; 20g) is movably mounted in the area of the ultrasonic horn (16a; 16b; 16h), wherein the projectile (20a; 20b; 20c; 20e; 20g) is arranged coaxially surrounding the ultrasonic horn (16a; 16b; 16h) or within a volume enclosed by the ultrasonic horn (16a; 16b; 16h).
A method for dehydrating a mixed vapor containing ethanol and at least 3% by weight water, comprising: contacting the mixed vapor with starch pearls having an average nominal diameter of about 0.2 to about 3 mm at a temperature in the range of about 90°C to 120°C under conditions effective to dehydrate the mixed vapor to produce an ethanol vapor constituted at least 99% by weight ethanol, wherein the starch pearls have a substantially gelatinized core and a surface populated with crystalline starch granules; and condensing the ethanol vapor to produce a liquid product constituted at least 99% by weight ethanol. contacting the mixed vapor with starch pearls having an average nominal diameter of about 0.2 to about 3 mm at a temperature in the range of about 90°C to 120°C under conditions effective to dehydrate the mixed vapor to produce an ethanol vapor constituted at least 99% by weight ethanol, wherein the starch pearls have a substantially gelatinized core and a surface populated with crystalline starch granules; and condensing the ethanol vapor to produce a liquid product constituted at least 99% by weight ethanol.
An ultrasound imaging system comprising: a probe configured to transmit ultrasound toward a subject for generating an image of biological tissue of the subject, wherein the biological tissue includes at least one of hepatic tissue, renal tissue, or a combination thereof, and a processor configured to receive the image and to output, using at least one neural network, a confidence metric that indicates a probability of the image visualizing the biological tissue in accordance with a target image view, wherein the neural network is trained to produce the confidence metric such that it exceeds a threshold value if the input image corresponds to a sagittal liver and right kidney view suitable for computing a hepatic-renal echo-intensity ratio, wherein the processor is further configured, if the confidence metric exceeds the threshold value, to select and store the image; and wherein the processor is further configured, if the confidence metric exceeds the threshold value, to: segment the image to identify regions associated with at least two different types of biological tissue; determine locations of first and second regions of interest (ROIs) in the image by identifying first and second plurality of pixels, respectively, each associated with one of two different types of biological tissue; and compute the ratio of echo-intensity values of the first and second ROIs. a probe configured to transmit ultrasound toward a subject for generating an image of biological tissue of the subject, wherein the biological tissue includes at least one of hepatic tissue, renal tissue, or a combination thereof, and a processor configured to receive the image and to output, using at least one neural network, a confidence metric that indicates a probability of the image visualizing the biological tissue in accordance with a target image view, wherein the neural network is trained to produce the confidence metric such that it exceeds a threshold value if the input image corresponds to a sagittal liver and right kidney view suitable for computing a hepatic-renal echo-intensity ratio, wherein the processor is further configured, if the confidence metric exceeds the threshold value, to select and store the image; and wherein the processor is further configured, if the confidence metric exceeds the threshold value, to: segment the image to identify regions associated with at least two different types of biological tissue; determine locations of first and second regions of interest (ROIs) in the image by identifying first and second plurality of pixels, respectively, each associated with one of two different types of biological tissue; and compute the ratio of echo-intensity values of the first and second ROIs. segment the image to identify regions associated with at least two different types of biological tissue; determine locations of first and second regions of interest (ROIs) in the image by identifying first and second plurality of pixels, respectively, each associated with one of two different types of biological tissue; and compute the ratio of echo-intensity values of the first and second ROIs.
A blast cleaning system comprising: a nozzle configured to deliver a pressurized blast cleaning medium, wherein the blast cleaning medium includes a pressurized fluid and water ice particles as the primary blast cleaning component; an input hopper inside a housing having a hatch accessible from above the housing and configured to accept supplied water ice in bulk form through the hatch in the housing from an outside source that is external to the blast cleaning system; a particle sizing module coupled to the hopper and having two opposed crushing teeth assemblies configured to crush the supplied water ice to produce the water ice particles for the pressurized blast cleaning medium; a pressure feeder module configured to mix the water ice particles with the pressurized fluid to form the pressurized blast cleaning medium wherein the pressure feeder module is configured to move the water ice particles from the particle sizing module at atmospheric pressure to a mixing channel that includes the pressurized fluid, wherein the pressure feeder module , particle sizing module and input hopper are all within the housing; a single hose coupling the mixing channel to the nozzle , wherein the mixing channel includes an inlet configured to receive the pressurized fluid and an outlet configured to deliver the pressurized blast cleaning medium to the single hose , wherein the nozzle receives the pressurized fluid only from the single hose . a nozzle configured to deliver a pressurized blast cleaning medium, wherein the blast cleaning medium includes a pressurized fluid and water ice particles as the primary blast cleaning component; an input hopper inside a housing having a hatch accessible from above the housing and configured to accept supplied water ice in bulk form through the hatch in the housing from an outside source that is external to the blast cleaning system; a particle sizing module coupled to the hopper and having two opposed crushing teeth assemblies configured to crush the supplied water ice to produce the water ice particles for the pressurized blast cleaning medium; a pressure feeder module configured to mix the water ice particles with the pressurized fluid to form the pressurized blast cleaning medium wherein the pressure feeder module is configured to move the water ice particles from the particle sizing module at atmospheric pressure to a mixing channel that includes the pressurized fluid, wherein the pressure feeder module , particle sizing module and input hopper are all within the housing; a single hose coupling the mixing channel to the nozzle , wherein the mixing channel includes an inlet configured to receive the pressurized fluid and an outlet configured to deliver the pressurized blast cleaning medium to the single hose , wherein the nozzle receives the pressurized fluid only from the single hose .
A method comprising: performing an operation using a system, comprising a downhole system for deployment in a borehole in a geological environment, wherein the operation comprises a nuclear magnetic resonance, NMR, measurement operation that measures the nuclear magnetic resonance signals of an in situ sample in the geological environment, wherein the operation depends on traversal of a regression tree stored in memory of the downhole system ; transmitting, utilizing a downhole telemetry technique, a request to a surface system to construct a zoom-out regression-tree or a request to construct a zoom-in regression-tree, wherein the request to construct the zoom-out regression-tree is transmitted responsive to not reaching a decision leaf of the regression-tree, and wherein the request to construct the zoom-in regression-tree is transmitted responsive to reaching a decision leaf of the regression-tree ; responsive to the transmitted request, receiving utilizing the downhole telemetry technique, the constructed zoom-out regression-tree or the constructed zoom-in regression tree from the surface system, wherein the constructed zoom-out regression-tree or the constructed zoom-in regression tree comprises at least one new decision leaf that improves performance of the operation of the system ; storing the constructed zoom-out regression-tree or the constructed zoom-in regression tree in the memory of the downhole system; and performing the nuclear magnetic resonance measurement operation utilizing at least one of the at least one new decision leaf. performing an operation using a system, comprising a downhole system for deployment in a borehole in a geological environment, wherein the operation comprises a nuclear magnetic resonance, NMR, measurement operation that measures the nuclear magnetic resonance signals of an in situ sample in the geological environment, wherein the operation depends on traversal of a regression tree stored in memory of the downhole system ; transmitting, utilizing a downhole telemetry technique, a request to a surface system to construct a zoom-out regression-tree or a request to construct a zoom-in regression-tree, wherein the request to construct the zoom-out regression-tree is transmitted responsive to not reaching a decision leaf of the regression-tree, and wherein the request to construct the zoom-in regression-tree is transmitted responsive to reaching a decision leaf of the regression-tree ; responsive to the transmitted request, receiving utilizing the downhole telemetry technique, the constructed zoom-out regression-tree or the constructed zoom-in regression tree from the surface system, wherein the constructed zoom-out regression-tree or the constructed zoom-in regression tree comprises at least one new decision leaf that improves performance of the operation of the system ; storing the constructed zoom-out regression-tree or the constructed zoom-in regression tree in the memory of the downhole system; and performing the nuclear magnetic resonance measurement operation utilizing at least one of the at least one new decision leaf.
A composition comprising an agonist of retinoic acid receptor-beta (RARβ) for use in treating or preventing type II diabetes in a subject, wherein the agonist of RARβ is AC261066 or AC55649.
Method for determining a reference position as a basis for correcting an absolute position of a vehicle , as located by means of a global navigation satellite system called GNSS, comprising: - capturing an output signal from a motion recording sensor of the vehicle , - identifying whether the output signal has a characteristic profile representing a signal pattern dependent on unevennesses of the road, - capturing the absolute position of the vehicle by means of the GNSS if the output signal has the characteristic profile , - storing the characteristic profile of the output signal together with the absolute position as a reference position , and - correcting an already stored reference position , at which the characteristic profile has already been captured, on the basis of the absolute position by means of a learning method or by forming a mean value if the stored reference position is in a region around the absolute position . - capturing an output signal from a motion recording sensor of the vehicle , - identifying whether the output signal has a characteristic profile representing a signal pattern dependent on unevennesses of the road, - capturing the absolute position of the vehicle by means of the GNSS if the output signal has the characteristic profile , - storing the characteristic profile of the output signal together with the absolute position as a reference position , and - correcting an already stored reference position , at which the characteristic profile has already been captured, on the basis of the absolute position by means of a learning method or by forming a mean value if the stored reference position is in a region around the absolute position .
An acquisition-distribution-layer (ADL), comprising: a hydroentangled composite comprising (a) a first outer layer comprising a first spunbond layer including a first plurality of continuous synthetic fibers, (b) a second outer layer including a second plurality of synthetic fibers, and (c) at least one core layer including cellulose fibers comprising natural cellulose fibers, synthetic cellulose fibers, or a combination thereof, wherein the at least one core layer is located directly or indirectly between the first outer layer and the second outer layer, and the first plurality of synthetic fibers, the second plurality of synthetic fibers, and the cellulose fibers are physically entangled together; the hydroentangled composite further comprises a three-dimensional topography defined by a first outermost surface of the hydroentangled composite; wherein the three-dimensional topography includes a plurality raised portions and a plurality of recessed portions; wherein the hydroentagled composite has from 0.1 to 0.8 apertures per mm 2 . a hydroentangled composite comprising (a) a first outer layer comprising a first spunbond layer including a first plurality of continuous synthetic fibers, (b) a second outer layer including a second plurality of synthetic fibers, and (c) at least one core layer including cellulose fibers comprising natural cellulose fibers, synthetic cellulose fibers, or a combination thereof, wherein the at least one core layer is located directly or indirectly between the first outer layer and the second outer layer, and the first plurality of synthetic fibers, the second plurality of synthetic fibers, and the cellulose fibers are physically entangled together; the hydroentangled composite further comprises a three-dimensional topography defined by a first outermost surface of the hydroentangled composite; wherein the three-dimensional topography includes a plurality raised portions and a plurality of recessed portions; wherein the hydroentagled composite has from 0.1 to 0.8 apertures per mm 2 .