mhurhangee/patent-ind-claim-en huggingface dataset:
A tire comprising: a tread portion being provided with a shoulder main groove extending continuously in a tire circumferential direction on a side of a tread edge (Te) and a crown main groove extending continuously in the tire circumferential direction and arranged inwardly in a tire axial direction of the shoulder main groove to form a middle land portion between the shoulder main groove and the crown main groove ; the middle land portion divided into a plurality of middle blocks by a plurality of middle lateral grooves connecting the shoulder main groove with the crown main groove ; at least one of the plurality of middle blocks being provided with a recess extending inwardly in the tire axial direction from the shoulder main groove and terminated within the at least one of the middle blocks so as to form a first portion located on a first side in the tire circumferential direction of the recess and a second portion located on a second side in the tire circumferential direction of the recess , wherein at a side of the shoulder main groove , the second portion has a circumferential edge smaller than that of the first portion ; characterized in the second portion comprising a ground contacting surface provided with at least one dimple , the at least one dimple located on a side of the shoulder main groove with respect to the center in the tire axial direction of the middle land portion . a tread portion being provided with a shoulder main groove extending continuously in a tire circumferential direction on a side of a tread edge (Te) and a crown main groove extending continuously in the tire circumferential direction and arranged inwardly in a tire axial direction of the shoulder main groove to form a middle land portion between the shoulder main groove and the crown main groove ; the middle land portion divided into a plurality of middle blocks by a plurality of middle lateral grooves connecting the shoulder main groove with the crown main groove ; at least one of the plurality of middle blocks being provided with a recess extending inwardly in the tire axial direction from the shoulder main groove and terminated within the at least one of the middle blocks so as to form a first portion located on a first side in the tire circumferential direction of the recess and a second portion located on a second side in the tire circumferential direction of the recess , wherein at a side of the shoulder main groove , the second portion has a circumferential edge smaller than that of the first portion ; characterized in the second portion comprising a ground contacting surface provided with at least one dimple , the at least one dimple located on a side of the shoulder main groove with respect to the center in the tire axial direction of the middle land portion .
An apparatus for directing a flow of liquid resin , the apparatus comprising: a tool ; a tool surface on the tool; a channel recessed into the tool surface ; a plate removably positionable on the tool surface covering over the channel , the plate having a plurality of perforations through the plate ; at least one of a fluid impervious sheet , a second tool and a vacuum bag on the tool surface and over the plate ; a supply of liquid resin communicating with the tool surface ; and, a supply of a pressure differential communicating with the tool surface ; the apparatus further comprising: a preform on the tool surface , the preform covering over the plate , the plurality of perforations through the plate being configured to prevent fibers of the preform from distorting with each perforation being dimensioned to enable the fibers of the preform to bridge across each perforation without bending into the perforation . a tool ; a tool surface on the tool; a channel recessed into the tool surface ; a plate removably positionable on the tool surface covering over the channel , the plate having a plurality of perforations through the plate ; at least one of a fluid impervious sheet , a second tool and a vacuum bag on the tool surface and over the plate ; a supply of liquid resin communicating with the tool surface ; and, a supply of a pressure differential communicating with the tool surface ; the apparatus further comprising: a preform on the tool surface , the preform covering over the plate , the plurality of perforations through the plate being configured to prevent fibers of the preform from distorting with each perforation being dimensioned to enable the fibers of the preform to bridge across each perforation without bending into the perforation .
Channel inspection and/or channel cleaning (KIR-)head, (100; 200; 300; 400; 500), for a channel inspection and/or channel cleaning apparatus, i.e. for a KIR-apparatus , comprising: a first operating medium inlet , by means of which an operating medium (F) can be introduced into the KIR-head (100; 200; 300; 400; 500); a first outlet nozzle device (110; 210) and a second outlet nozzle device (120; 320; 420); wherein the first outlet nozzle device (110; 210) has at least one first outlet nozzle (111; 211) for ejecting the operating medium (F) and wherein the second outlet nozzle device (120; 320; 420) has at least one second outlet nozzle (121; 321; 421) for ejecting the operating medium (F); a first operating medium line system , by means of which the operating medium inlet can be or is fluidically connected to the first and the second outlet nozzle device (110, 120; 210, 120; 210, 320; 210, 420); a valve element which is movably arranged in the first operating medium line system ; a first valve seat (115; 215) which can be closed by the valve element in order to close off a supply of operating medium from the operating medium inlet to the first outlet nozzle device (110; 210); and a second valve seat which can be closed by the valve element in order to close off a supply of operating medium from the operating medium inlet to the second outlet nozzle device (120; 320; 420); characterised in that the valve element can be introduced selectively at least into the first valve seat (115; 215) or the second valve seat using the force of gravity by moving the KIR-head (100; 200; 300; 400). a first operating medium inlet , by means of which an operating medium (F) can be introduced into the KIR-head (100; 200; 300; 400; 500); a first outlet nozzle device (110; 210) and a second outlet nozzle device (120; 320; 420); wherein the first outlet nozzle device (110; 210) has at least one first outlet nozzle (111; 211) for ejecting the operating medium (F) and wherein the second outlet nozzle device (120; 320; 420) has at least one second outlet nozzle (121; 321; 421) for ejecting the operating medium (F); a first operating medium line system , by means of which the operating medium inlet can be or is fluidically connected to the first and the second outlet nozzle device (110, 120; 210, 120; 210, 320; 210, 420); a valve element which is movably arranged in the first operating medium line system ; a first valve seat (115; 215) which can be closed by the valve element in order to close off a supply of operating medium from the operating medium inlet to the first outlet nozzle device (110; 210); and a second valve seat which can be closed by the valve element in order to close off a supply of operating medium from the operating medium inlet to the second outlet nozzle device (120; 320; 420); characterised in that the valve element can be introduced selectively at least into the first valve seat (115; 215) or the second valve seat using the force of gravity by moving the KIR-head (100; 200; 300; 400).
A method of operating a user equipment, UE, for device-to-device, D2D, communications, the method comprising: transmitting a quality of service, QoS, flow establishment request, the flow establishment request indicating that the QoS flow is to be transmitted over a sidelink; characterised by : responsive to determining that the required QoS may not be fulfilled, receiving a message indicating that the requested sidelink QoS flow will not be established and generating , by the UE, a QoS flow identifier, QFI, corresponding to the requested QoS flow.
A method for signal sensitivity matching, the method comprising: generating a first input signal from a first sensor in a sensor array and a second input signal from a second sensor in the sensor array, wherein the first input signal and the second input signal are respectively representable, at least at one frequency, by a first input vector and a second input vector, each of the first input vector and the second input vector having a phase component and a magnitude component; processing the first input signal and the second input signal, the processing including using the magnitude component of the first input vector and the second input vector to obtain respectively a first output vector corresponding to the first input vector and a second output vector corresponding to the second input vector, each of the first output vector and the second output vector having a magnitude that is substantially equal to a mathematical mean of the magnitudes of two or more input vectors, the two or more input vectors including (a) the first input vector, (b) the second input vector, and (c) zero or more other input vectors generated from zero or more other input signals generated from zero or more other input signal sensors in the sensor array; and generating an output signal having a magnitude that is a function of the first output vector and the second output vector. generating a first input signal from a first sensor in a sensor array and a second input signal from a second sensor in the sensor array, wherein the first input signal and the second input signal are respectively representable, at least at one frequency, by a first input vector and a second input vector, each of the first input vector and the second input vector having a phase component and a magnitude component; processing the first input signal and the second input signal, the processing including using the magnitude component of the first input vector and the second input vector to obtain respectively a first output vector corresponding to the first input vector and a second output vector corresponding to the second input vector, each of the first output vector and the second output vector having a magnitude that is substantially equal to a mathematical mean of the magnitudes of two or more input vectors, the two or more input vectors including (a) the first input vector, (b) the second input vector, and (c) zero or more other input vectors generated from zero or more other input signals generated from zero or more other input signal sensors in the sensor array; and generating an output signal having a magnitude that is a function of the first output vector and the second output vector.
An ion source comprising: one or more nebulisers and one or more targets ; wherein said one or more nebulisers are arranged and adapted to nebulise one or more eluents emitted by one or more liquid chromatography separation devices over a period of time; wherein said one or more eluents have a liquid flow rate selected from the group consisting of: (i) 1-10 μL/min; (ii) 10-50 μL/min; (iii) 50-100 μL/min; (iv) 100-200 μL/min; (v) 200-300 μL/min; (vi) 300-400 μL/min; (vii) 400-500 μL/min; (viii) 500-600 μL/min; (ix) 600-700 μL/min; (x) 700-800 μL/min; (xi) 800-900 μL/min; (xii) 900-1000 μL/min; (xiii) 1000-1500 μL/min; (xiv) 1500-2000 μL/min; (xv) 2000-2500 μL/min; and (xvi) > 2500 μL/min; wherein one or more nebulisers are arranged and adapted to emit, in use, a stream predominantly of droplets which are caused to impact upon said one or more targets to ionise said droplets to form a plurality of ions; and wherein said ion source is characterised in that : said one or more targets are arranged < 10 mm from the exit of said one or more nebulisers ; and said one or more targets comprise either: (i) one or more rods; or (ii) one or more pins having a taper cone. one or more nebulisers and one or more targets ; wherein said one or more nebulisers are arranged and adapted to nebulise one or more eluents emitted by one or more liquid chromatography separation devices over a period of time; wherein said one or more eluents have a liquid flow rate selected from the group consisting of: (i) 1-10 μL/min; (ii) 10-50 μL/min; (iii) 50-100 μL/min; (iv) 100-200 μL/min; (v) 200-300 μL/min; (vi) 300-400 μL/min; (vii) 400-500 μL/min; (viii) 500-600 μL/min; (ix) 600-700 μL/min; (x) 700-800 μL/min; (xi) 800-900 μL/min; (xii) 900-1000 μL/min; (xiii) 1000-1500 μL/min; (xiv) 1500-2000 μL/min; (xv) 2000-2500 μL/min; and (xvi) > 2500 μL/min; wherein one or more nebulisers are arranged and adapted to emit, in use, a stream predominantly of droplets which are caused to impact upon said one or more targets to ionise said droplets to form a plurality of ions; and wherein said ion source is characterised in that : said one or more targets are arranged < 10 mm from the exit of said one or more nebulisers ; and said one or more targets comprise either: (i) one or more rods; or (ii) one or more pins having a taper cone. said one or more targets are arranged < 10 mm from the exit of said one or more nebulisers ; and said one or more targets comprise either: (i) one or more rods; or (ii) one or more pins having a taper cone.
Method for detecting objects from a sequence of images from a vehicle camera, comprising the steps of: a) recording a sequence of images using the vehicle camera, b) ascertaining corresponding features in two consecutive images, c) calculating homographies for neighbouring corresponding features for the determination of a plurality of planes and for assignment to in each case one plane in space, d) determining the plurality of planes in space by assigning neighbouring corresponding features to a plane in space, wherein the possible spatial planes specified are: a rear wall plane extending normally to the vehicle longitudinal direction, a side wall plane extending normally to the lateral direction, and a bottom plane extending normally to the vertical direction, e) segmenting the corresponding features on the basis of the calculated homographies, and f) detecting objects taking into account the planes determined in step d) and the features segmented according to step e). a) recording a sequence of images using the vehicle camera, b) ascertaining corresponding features in two consecutive images, c) calculating homographies for neighbouring corresponding features for the determination of a plurality of planes and for assignment to in each case one plane in space, d) determining the plurality of planes in space by assigning neighbouring corresponding features to a plane in space, wherein the possible spatial planes specified are: a rear wall plane extending normally to the vehicle longitudinal direction, a side wall plane extending normally to the lateral direction, and a bottom plane extending normally to the vertical direction, e) segmenting the corresponding features on the basis of the calculated homographies, and f) detecting objects taking into account the planes determined in step d) and the features segmented according to step e).
A multilayer film comprising: a barrier layer, and an adhesive layer comprising a maleic anhydride (MAH)-grafted polyolefin; wherein the barrier layer has a melting point higher than the adhesive layer; wherein the melting point of the barrier layer is higher than 165°C; and wherein the thickness of the adhesive layer is in the range of 2 to 45 μm, the thickness of the barrier layer is in the range of 2 to 30 μm and/or the total thickness of the multilayer film is in the range of 5 to 80 μm. a barrier layer, and an adhesive layer comprising a maleic anhydride (MAH)-grafted polyolefin; wherein the barrier layer has a melting point higher than the adhesive layer; wherein the melting point of the barrier layer is higher than 165°C; and wherein the thickness of the adhesive layer is in the range of 2 to 45 μm, the thickness of the barrier layer is in the range of 2 to 30 μm and/or the total thickness of the multilayer film is in the range of 5 to 80 μm.
A medical ultrasound imaging system comprising: an interface in communication with an ultrasound imaging component and configured to receive a first image representative of blood vessels of a brain of a patient while the ultrasound imaging component is positioned at a first imaging position with respect to the patient; characterized in that the system further comprises a processing component in communication with the interface and configured to apply a convolutional network , CNN, to the first image to produce a motion control configuration for repositioning the ultrasound imaging component from the first imaging position to a second imaging position associated with a transcranial examination, the CNN trained based on at least a known blood vessel topography. an interface in communication with an ultrasound imaging component and configured to receive a first image representative of blood vessels of a brain of a patient while the ultrasound imaging component is positioned at a first imaging position with respect to the patient; characterized in that the system further comprises a processing component in communication with the interface and configured to apply a convolutional network , CNN, to the first image to produce a motion control configuration for repositioning the ultrasound imaging component from the first imaging position to a second imaging position associated with a transcranial examination, the CNN trained based on at least a known blood vessel topography.
Method for reprocessing an endoscope in a reprocessing apparatus, comprising the steps: - Connecting an interior space of the endoscope to a leakage tester of the reprocessing apparatus , - Applying a fluid with a predetermined pressure to the interior space , and - Conducting a reprocessing process using rinsing fluid, wherein the pressure in the interior space of the endoscope is monitored during the reprocessing process, characterized in that the endoscope to be reprocessed is recognized as defective if the pressure curve deviates from a predeterminable or predetermined pressure curve, wherein the predeterminable or predetermined pressure curve is determined as a function of process parameters of the reprocessing process. - Connecting an interior space of the endoscope to a leakage tester of the reprocessing apparatus , - Applying a fluid with a predetermined pressure to the interior space , and - Conducting a reprocessing process using rinsing fluid, wherein the pressure in the interior space of the endoscope is monitored during the reprocessing process, characterized in that the endoscope to be reprocessed is recognized as defective if the pressure curve deviates from a predeterminable or predetermined pressure curve, wherein the predeterminable or predetermined pressure curve is determined as a function of process parameters of the reprocessing process.
A method for interfacing in a memory subsystem, comprising: receiving a memory access command from a memory controller at a memory device having multiple memory arrays , wherein the memory access command includes an exchange of data over a system data bus between the memory device and the memory controller; and characterized by transferring data over the system data bus during all transfer periods of a burst length associated with the memory access command, including transferring a transfer bandwidth amount of data over the system data bus, wherein the transfer bandwidth is only a subset of an available bandwidth of an internal data bus of the memory device, wherein the available bandwidth includes data from all memory arrays in a group of arrays, and the transfer bandwidth includes data from only a subset of memory arrays in the group. receiving a memory access command from a memory controller at a memory device having multiple memory arrays , wherein the memory access command includes an exchange of data over a system data bus between the memory device and the memory controller; and characterized by transferring data over the system data bus during all transfer periods of a burst length associated with the memory access command, including transferring a transfer bandwidth amount of data over the system data bus, wherein the transfer bandwidth is only a subset of an available bandwidth of an internal data bus of the memory device, wherein the available bandwidth includes data from all memory arrays in a group of arrays, and the transfer bandwidth includes data from only a subset of memory arrays in the group.
A coated substrate comprising Formula X, Formula Xb, or a combination of Formula X and Xb: or a salt thereof, wherein Z, Z 1 , and Z 2 are each an organic or inorganic substrate; J 2 is -C 1-20 -alkyl-R 4 ; R 4 is m is 1-1000 (e.g., 1-100, e.g., 1-50, e.g., 1-10); and n is 1-1000 (e.g., 1-100, e.g., 1-50, e.g., 1-10). Z, Z 1 , and Z 2 are each an organic or inorganic substrate; J 2 is -C 1-20 -alkyl-R 4 ; R 4 is m is 1-1000 (e.g., 1-100, e.g., 1-50, e.g., 1-10); and n is 1-1000 (e.g., 1-100, e.g., 1-50, e.g., 1-10).
A method comprising: receiving, by a decoding device, encoded audio information and metadata associated with an audio signal, the metadata including one or more decoding-control parameters and one or more first parameter values specifying dynamic range compression (DRC) according to a first profile associated with a first reference reproduction level, and one or more second parameter values specifying DRC according to a second profile associated with a second reference reproduction level higher than the first reference reproduction level and within a range of reference reproduction levels; specifying, for the decoding device, a reference reproduction level; applying, by the decoding device, a decoding process to the encoded audio information to obtain subband signals representing spectral content of the audio signal; modifying, by a degree controlled by the decoding device, the subband signals using the one or more second DRC parameter values specifying DRC according to the second profile to obtain modified subband signals representing spectral content of the audio signal with a reduced dynamic range, in response to specifying the reference reproduction level, for the decoding device, to the second reference reproduction level; and applying, by the decoding device, a synthesis filter bank to the modified subband signals to obtain a time-domain audio signal. receiving, by a decoding device, encoded audio information and metadata associated with an audio signal, the metadata including one or more decoding-control parameters and one or more first parameter values specifying dynamic range compression (DRC) according to a first profile associated with a first reference reproduction level, and one or more second parameter values specifying DRC according to a second profile associated with a second reference reproduction level higher than the first reference reproduction level and within a range of reference reproduction levels; specifying, for the decoding device, a reference reproduction level; applying, by the decoding device, a decoding process to the encoded audio information to obtain subband signals representing spectral content of the audio signal; modifying, by a degree controlled by the decoding device, the subband signals using the one or more second DRC parameter values specifying DRC according to the second profile to obtain modified subband signals representing spectral content of the audio signal with a reduced dynamic range, in response to specifying the reference reproduction level, for the decoding device, to the second reference reproduction level; and applying, by the decoding device, a synthesis filter bank to the modified subband signals to obtain a time-domain audio signal.