mhurhangee/patent-ind-claim-en huggingface dataset:
A double-flow steam turbine comprising: a generator end ; a turbine end ; a double-flow tub diaphragm disposed axially between the generator end and the turbine end; a first stage including a plurality of first stage nozzles and a plurality of first stage buckets secured in respective blade dovetails, a steam path defined from an inlet region , through the turbine end , to a steam outlet; and a cooling path including cooling holes in the tub diaphragm configured to permit a diverted steam flow to pass into a region below the tub diaphragm for cooling of the blade dovetails first stage, wherein the cooling path is configured to allow the diverted steam flow to pass below the tub diaphragm and back into the steam path upstream the first stage buckets without the diverted steam flow bypassing the first stage buckets , characterized in that root radial seals are disposed adjacent the first stage nozzles at the root of each bucket in the cooling path and configured such that the diverted steam flow flows back into the steam path upstream the first stage buckets via the root radial seals for providing cooling to the first stage wheel and blade dovetails. a generator end ; a turbine end ; a double-flow tub diaphragm disposed axially between the generator end and the turbine end; a first stage including a plurality of first stage nozzles and a plurality of first stage buckets secured in respective blade dovetails, a steam path defined from an inlet region , through the turbine end , to a steam outlet; and a cooling path including cooling holes in the tub diaphragm configured to permit a diverted steam flow to pass into a region below the tub diaphragm for cooling of the blade dovetails first stage, wherein the cooling path is configured to allow the diverted steam flow to pass below the tub diaphragm and back into the steam path upstream the first stage buckets without the diverted steam flow bypassing the first stage buckets , characterized in that root radial seals are disposed adjacent the first stage nozzles at the root of each bucket in the cooling path and configured such that the diverted steam flow flows back into the steam path upstream the first stage buckets via the root radial seals for providing cooling to the first stage wheel and blade dovetails.
A bearer processing system, comprising a gateway user plane, GW-U , and a gateway control plane, GW-C , wherein the GW-U is configured to: receive a data packet and match the data packet with a rule, and send bearer processing indication information to the GW-C if a rule matching result of the data packet meets a trigger condition for bearer processing, wherein the bearer processing indication information is used to trigger the GW-C to perform bearer processing according to quality of service, QoS, information of a data service corresponding to the data packet; and the GW-C is configured to: receive the bearer processing indication information from the GW-U , determine, according to the bearer processing indication information, the QoS information of the data service corresponding to the data packet, and perform bearer processing according to the QoS information of the data service corresponding to the data packet; wherein the rule is a correspondence between the data service and the QoS information, and the rule is locally configured by the GW-U or obtained by the GW-U from the GW-C ; the trigger condition is that QoS information required for the data service is inconsistent with QoS information of a current bearer that is currently used for transmitting the data service; and that the GW-U matches the data packet with a rule comprises: finding, by the GW-U from the rule, the QoS information required for the data service corresponding to the data packet.
A toe board for a scaffold, wherein the toe board consists of a hollow profile made of plastic, and the hollow profile in cross section has a first longitudinal side and a second longitudinal side and two narrow side edges , characterized in that at least one of the longitudinal sides of the hollow profile is curved in cross section.
Motor vehicle lock assembly for a motor vehicle door coupled adjustably to a motor vehicle body , wherein a motor vehicle lock is provided which, in the mounted state, is arranged on the motor vehicle door or on the motor vehicle body , wherein the motor vehicle lock assembly , in particular the motor vehicle lock , has a push-open arrangement with a push-open drive which has a drive train for exerting a drive force on the motor vehicle door in the opening direction thereof, and therefore the motor vehicle door is adjustable in a motorized push-open operation from a closing door position, in particular a main-closing door position or a preliminary closing door position, into a push-open door position positioned further in the opening direction of the door and, as a result, an engagement gap can be produced between motor vehicle door and motor vehicle body , characterized in that the drive train of the push-open drive has a planetary gearing with the gearing elements of ring gear , sun gear and planet gear carrier , in that the push-open drive has a first drive motor , which is coupled or can be coupled to a first gearing element (A) of the gearing elements of ring gear , sun gear and planet gear carrier , and a second drive motor , which is coupled or can be coupled to a second gearing element (B) of the gearing elements of ring gear , sun gear and planet wheel carrier , in that the third gearing element (C) of the gearing elements of ring gear , sun gear and planet gear carrier forms the output of the planetary gearing for discharging a drive force for the push-open operation, in that , in a first operating mode of the push-open drive , the first drive motor drives the first gearing element (A) and the second drive motor brakes, in particular blocks, the second gearing element (B), and in that , in a second operating mode of the push-open drive , the second drive motor drives the second gearing element (B) and the first drive motor brakes, in particular blocks, the first gearing element (A).
A wearable device for continuous monitoring of health parameters of a user, the device comprising: at least one sweat sensor for measuring a sweat biomarker, a sweat collection inlet arranged in the device for collecting sweat when the device is worn by a user, a microfluidic channel for conveying collected sweat from the inlet to the sweat sensor, at least one vital-sign sensor arranged in the device for measuring a vital-sign or physiological sign of the user, a sweat volume sensor for measuring volume of the collected sweat, and a processing unit adapted for receiving and processing data provided by the sweat biomarker sensor, the vital-sign biosensor and the sweat volume sensor ; wherein the vital-sign sensor comprises at least a heart rate sensor; and wherein the sweat biomarker sensor is a sweat lactate sensor and wherein the processing unit is further adapted to calculate, preferably by means of machine learning algorithms, a blood lactate concentration based on data provided by: the sweat lactate sensor, the sweat volume sensor and heart rate sensor. at least one sweat sensor for measuring a sweat biomarker, a sweat collection inlet arranged in the device for collecting sweat when the device is worn by a user, a microfluidic channel for conveying collected sweat from the inlet to the sweat sensor, at least one vital-sign sensor arranged in the device for measuring a vital-sign or physiological sign of the user, a sweat volume sensor for measuring volume of the collected sweat, and a processing unit adapted for receiving and processing data provided by the sweat biomarker sensor, the vital-sign biosensor and the sweat volume sensor ; wherein the vital-sign sensor comprises at least a heart rate sensor; and wherein the sweat biomarker sensor is a sweat lactate sensor and wherein the processing unit is further adapted to calculate, preferably by means of machine learning algorithms, a blood lactate concentration based on data provided by: the sweat lactate sensor, the sweat volume sensor and heart rate sensor.
A driving apparatus for a vehicle , the driving apparatus comprising: an electric motor as a drive force source ; a speed reduction mechanism configured to reduce a speed of rotation transmitted from the electric motor and to output the rotation; a differential mechanism configured to distribute a drive force transmitted from the speed reduction mechanism , to a pair of drive shafts connected to respective right and left drive wheels of the vehicle ; and a differential limitation mechanism including a friction clutch , and configured to control an engaging torque of the friction clutch , for controlling a differential limiting torque by which a differential effect provided by the differential mechanism is to be limited; characterized in that : the electric motor and the differential limitation mechanism are disposed on respective opposite sides of the speed reduction mechanism , and are disposed on respective opposite sides of the differential mechanism . an electric motor as a drive force source ; a speed reduction mechanism configured to reduce a speed of rotation transmitted from the electric motor and to output the rotation; a differential mechanism configured to distribute a drive force transmitted from the speed reduction mechanism , to a pair of drive shafts connected to respective right and left drive wheels of the vehicle ; and a differential limitation mechanism including a friction clutch , and configured to control an engaging torque of the friction clutch , for controlling a differential limiting torque by which a differential effect provided by the differential mechanism is to be limited; characterized in that : the electric motor and the differential limitation mechanism are disposed on respective opposite sides of the speed reduction mechanism , and are disposed on respective opposite sides of the differential mechanism .
An antibody or a fragment thereof which binds a partial CAPRIN-1 polypeptide consisting of the amino acid sequence set forth in SEQ ID NO: 5.
A code reader device , comprising a camera having an image sensor for generating images of a detection zone , an auto focus unit for projecting a focused image of the detection zone onto the image sensor and for determining a distance relative to a code which has been read or an object which has been detected, a decoding unit for identifying the code in the focused image and reading out its encoded information, a calibrating unit for calibrating the code reader and a verification unit for judging the code quality according to predefined criteria, wherein the auto focus unit is adapted to bringing codes of different sizes and different distances relative to the image sensor into automatic focus and providing a distance value relative to the code which was read or the object which was detected, characterized in that the calibrating unit is adapted to providing norm-specific and distance-specific calibration parameters on the basis of said distance value and the code reader device comprises an illumination controller , which is adapted to adjusting a norm-specific and distance-specific illumination on the basis of the norm-specific and distance-specific calibration parameters by means of an illumination device and the verification unit is adapted to evaluate and verify the image of the code recorded under norm conditions with regard to verification parameter of a selected norm and to display the quality of the code. a camera having an image sensor for generating images of a detection zone , an auto focus unit for projecting a focused image of the detection zone onto the image sensor and for determining a distance relative to a code which has been read or an object which has been detected, a decoding unit for identifying the code in the focused image and reading out its encoded information, a calibrating unit for calibrating the code reader and a verification unit for judging the code quality according to predefined criteria, wherein the auto focus unit is adapted to bringing codes of different sizes and different distances relative to the image sensor into automatic focus and providing a distance value relative to the code which was read or the object which was detected, characterized in that the calibrating unit is adapted to providing norm-specific and distance-specific calibration parameters on the basis of said distance value and the code reader device comprises an illumination controller , which is adapted to adjusting a norm-specific and distance-specific illumination on the basis of the norm-specific and distance-specific calibration parameters by means of an illumination device and the verification unit is adapted to evaluate and verify the image of the code recorded under norm conditions with regard to verification parameter of a selected norm and to display the quality of the code.
A method of de-blocking an edge of a block of samples in a frame of sample data , the method comprising: decoding a first prediction mode for a first block of two adjacent blocks of sample data , each of the blocks of sample data including a primary colour channel and at least one secondary colour channel; decoding a second prediction mode for a second block of the two adjacent blocks of sample data ; determining a boundary strength value for a block of samples along an edge corresponding to a boundary between said first block of sample data and said second block of sample data if the first prediction mode and the second prediction mode are both intra-block copy, wherein the boundary strength value indicates application of a weak de-blocking filter if block vectors associated with the two adjacent blocks are different, and indicates no de-blocking filtering is applied if the block vectors are equal; and applying the weak de-blocking filter to the block of samples along said edge of the two blocks if the determined boundary strength value indicates that the weak de-blocking filter should be applied, the weak de-blocking filter having a filter strength that is less than the filter strength of a de-blocking filter that is applied to an edge determined to have two, adjacently located, intra prediction mode blocks , the method being characterized in that the block vectors have an integer pixel precision and reference a block of samples in the frame , and also in that the weak de-blocking filter is applied to the primary colour channel of the block of samples along said edge without also applying a de-blocking filter to the at least one secondary colour channel of the block of samples along said edge . decoding a first prediction mode for a first block of two adjacent blocks of sample data , each of the blocks of sample data including a primary colour channel and at least one secondary colour channel; decoding a second prediction mode for a second block of the two adjacent blocks of sample data ; determining a boundary strength value for a block of samples along an edge corresponding to a boundary between said first block of sample data and said second block of sample data if the first prediction mode and the second prediction mode are both intra-block copy, wherein the boundary strength value indicates application of a weak de-blocking filter if block vectors associated with the two adjacent blocks are different, and indicates no de-blocking filtering is applied if the block vectors are equal; and applying the weak de-blocking filter to the block of samples along said edge of the two blocks if the determined boundary strength value indicates that the weak de-blocking filter should be applied, the weak de-blocking filter having a filter strength that is less than the filter strength of a de-blocking filter that is applied to an edge determined to have two, adjacently located, intra prediction mode blocks ,
Awing assembly comprising a fixed section , a foldable section , and a hinge assembly for hinging the foldable section to the fixed section , the hinge assembly including a plurality of interleaved torque boxes that are hinged together.
Two-component mortar composition comprising a resin component (A), which contains at least one radically curable resin as a curable component, and a curing component (B), which contains a curing agent for the radically curable resin of the resin component (A), the resin component (A) and/or the curing component (B) containing at least one inorganic additive as a further constituent, characterized in that the inorganic additive comprises a transition alumina having an average particle size d50 of at least 7.0 μm and a pore diameter of 4 nm to 30 nm.
A Digital Locking system, comprising a mobile station , a mobile station app , a cloud server , and a self-powered lock configured to open and lock a door, wherein: - the mobile station app is installed in the mobile station and is configured to be updated and maintained by software updates from the cloud server , - the mobile station is configured to provide the operating power to the lock without a power cord, - the mobile station app is configured to communicate with the lock via a Near Field Communication (NFC) connection, and - the mobile station app is configured authenticate the user of the mobile station when the screen lock is unlocked and to remember the authentication of the user to the mobile station for a predefined time period that is longer than the time it takes for the mobile station screen lock to activate, - during the pre-defined time period the mobile station app is configured to submit a digital key of the user via the NFC connection to the lock, thereby opening the lock, - the mobile station app is configured to monitor NFC communication, and optionally control NFC communication, using a mobile station magnetometer, and detect a lock with a magnet and a NFC antenna using the mobile station magnetometer, - the mobile station app is configured to determine the location of the mobile station , and store the screen lock authentication at the stored location, and inside a pre-defined distance of the stored location permit multiple lock openings and closures from the same or multiple different locks without requesting the screen lock authentication. - the mobile station app is installed in the mobile station and is configured to be updated and maintained by software updates from the cloud server , - the mobile station is configured to provide the operating power to the lock without a power cord, - the mobile station app is configured to communicate with the lock via a Near Field Communication (NFC) connection, and - the mobile station app is configured authenticate the user of the mobile station when the screen lock is unlocked and to remember the authentication of the user to the mobile station for a predefined time period that is longer than the time it takes for the mobile station screen lock to activate, - during the pre-defined time period the mobile station app is configured to submit a digital key of the user via the NFC connection to the lock, thereby opening the lock, - the mobile station app is configured to monitor NFC communication, and optionally control NFC communication, using a mobile station magnetometer, and detect a lock with a magnet and a NFC antenna using the mobile station magnetometer, - the mobile station app is configured to determine the location of the mobile station , and store the screen lock authentication at the stored location, and inside a pre-defined distance of the stored location permit multiple lock openings and closures from the same or multiple different locks without requesting the screen lock authentication.
Use of at least one secondary structure in the form of fluid lines and a fluid distribution system , in the form of a helium tank , or in the form of an electronics box, in a spacecraft, at least in sections, as a primary structure for the transmission of an engine thrust .
A flexible substrate, comprising: a flexible base provided with a plurality of thin film transistors arranged in an array; a surface acoustic wave generating element and a surface acoustic wave detecting element positioned on the flexible base , wherein the surface acoustic wave generating element and the surface acoustic wave detecting element are configured to detect a bend of the flexible substrate, and a passivation layer on the flexible base and the plurality of thin film transistors , wherein the passivation layer has a first portion positioned in a region where the thin film transistors are positioned and a second portion positioned in a region between the adjacent thin film transistors , wherein the surface acoustic wave generating element and the surface acoustic wave detecting element are positioned on the second portion , wherein the surface acoustic wave generating element and the surface acoustic wave detecting element comprise: a piezoelectric layer ; and an interdigital electrode positioned on the piezoelectric layer , and wherein the piezoelectric layer is disposed on a side of a channel region of the thin film transistors away from the flexible base and electrically isolated from the channel region of the thin film transistors by the passivation layer . a flexible base provided with a plurality of thin film transistors arranged in an array; a surface acoustic wave generating element and a surface acoustic wave detecting element positioned on the flexible base , wherein the surface acoustic wave generating element and the surface acoustic wave detecting element are configured to detect a bend of the flexible substrate, and a passivation layer on the flexible base and the plurality of thin film transistors , wherein the passivation layer has a first portion positioned in a region where the thin film transistors are positioned and a second portion positioned in a region between the adjacent thin film transistors , wherein the surface acoustic wave generating element and the surface acoustic wave detecting element are positioned on the second portion , wherein the surface acoustic wave generating element and the surface acoustic wave detecting element comprise: a piezoelectric layer ; and an interdigital electrode positioned on the piezoelectric layer , and a piezoelectric layer ; and an interdigital electrode positioned on the piezoelectric layer , and wherein the piezoelectric layer is disposed on a side of a channel region of the thin film transistors away from the flexible base and electrically isolated from the channel region of the thin film transistors by the passivation layer .