mhurhangee/patent-ind-claim-en huggingface dataset:
A battery pressure measuring sensor , comprising: a substrate ; a plurality of variable resistor units provided at a plurality of locations in consideration of a swelling characteristic of a battery on the substrate and configured to change a resistance value within a corresponding resistance range according to a pressure applied to each unit; and a plurality of sensing lines configured to be connected to the plurality of variable resistor units , respectively, characterized in that on the substrate , the plurality of variable resistor units are configured to be provided at a first location where a preset risk when swelling occurs in the battery is set to be relatively low and at a second location where the preset risk is set to be relatively high, the resistance range of the resistance value according to the pressure of the variable resistor unit provided at the first location is a first resistance range, and the resistance range of the resistance value according to the pressure of the variable resistor unit provided at the second location is a second resistance range, wherein a lower limit of the first resistance range is set to be equal to or greater than an upper limit of the second resistance range. a substrate ; a plurality of variable resistor units provided at a plurality of locations in consideration of a swelling characteristic of a battery on the substrate and configured to change a resistance value within a corresponding resistance range according to a pressure applied to each unit; and a plurality of sensing lines configured to be connected to the plurality of variable resistor units , respectively, characterized in that on the substrate , the plurality of variable resistor units are configured to be provided at a first location where a preset risk when swelling occurs in the battery is set to be relatively low and at a second location where the preset risk is set to be relatively high, the resistance range of the resistance value according to the pressure of the variable resistor unit provided at the first location is a first resistance range, and the resistance range of the resistance value according to the pressure of the variable resistor unit provided at the second location is a second resistance range, wherein a lower limit of the first resistance range is set to be equal to or greater than an upper limit of the second resistance range.
A computer-implemented method of calculating a most likely map based on batch data, comprising gathering a corpus of sensor measurements indexed by a location of a sensor throughout an environment to be mapped ; determining, after gathering the corpus of sensor measurements, a most likely occupancy level of each voxel of a plurality of voxels of the environment in accordance with the corpus of sensor measurements and a stochastic sensor model ; characterised in that determining the most likely occupancy level of each voxel is based on a function of a first number of times a measurement ray has bounced back from the voxel to the sensor and a second number of times the measurement ray has been intercepted by the voxel, such that the intercepted measurement ray has not bounced back from the voxel to the sensor; and calculating the most likely map based on the determined most likely occupancy level . gathering a corpus of sensor measurements indexed by a location of a sensor throughout an environment to be mapped ; determining, after gathering the corpus of sensor measurements, a most likely occupancy level of each voxel of a plurality of voxels of the environment in accordance with the corpus of sensor measurements and a stochastic sensor model ; characterised in that determining the most likely occupancy level of each voxel is based on a function of a first number of times a measurement ray has bounced back from the voxel to the sensor and a second number of times the measurement ray has been intercepted by the voxel, such that the intercepted measurement ray has not bounced back from the voxel to the sensor; and calculating the most likely map based on the determined most likely occupancy level .
A nozzle for a filter cleaning system, the nozzle comprising: i) a stub portion having an inlet opening and an outlet opening; and, ii) a splitter portion positioned downstream of the stub portion ; wherein the splitter portion has deflector surfaces arranged to direct the airflow exiting the stub portion outlet in three or more separate airstreams (A B C) each of which airstreams are directed inclined axially outwardly from the axial direction of the airflow exiting the stub portion outlet; characterised in that , the deflector surfaces directing each airstream are substantially planar surfaces and the deflector surfaces for each airstream (A B C) define an airstream channel; wherein each airstream channel is of substantially the same shape and configuration as the other separate airstream channels of the nozzle; substantially all the airflow exiting the stub portion being deflected by the splitter portion , into one of the three or more separate airstreams. i) a stub portion having an inlet opening and an outlet opening; and, ii) a splitter portion positioned downstream of the stub portion ; wherein the splitter portion has deflector surfaces arranged to direct the airflow exiting the stub portion outlet in three or more separate airstreams (A B C) each of which airstreams are directed inclined axially outwardly from the axial direction of the airflow exiting the stub portion outlet;
A bartending workstation , comprising a bearing structure , above which a work surface is defined, at least one opening being defined at said work surface inside which opening there is at least one ice-holder tray ; at least one bottle-holder tray adjacent to said work surface being defined, said at least one bottle-holder tray being supported by said same bearing structure , and comprising a raised plane , said raised plane being supported by a rising portion included in, that is being part of, said bearing structure , at least said bearing structure being constituted by at least one single piece of a sheet or of a plate of a folded self-supporting flexible material, characterized in that: - said bearing structure with said rising portion and said raised plane are made up of two single pieces, first and second , each of a sheet or plate of a folded self-supporting material, joined one to another; - said work surface , with said at least one opening , consists of a third single piece of a sheet or plate of a folded self-supporting material; - said bottle-holder tray consists of a fourth single piece of a sheet or plate of a folded self-supporting material. and comprising a raised plane , said raised plane being supported by a rising portion included in, that is being part of, said bearing structure , at least said bearing structure being constituted by at least one single piece of a sheet or of a plate of a folded self-supporting flexible material, characterized in that: - said bearing structure with said rising portion and said raised plane are made up of two single pieces, first and second , each of a sheet or plate of a folded self-supporting material, joined one to another; - said work surface , with said at least one opening , consists of a third single piece of a sheet or plate of a folded self-supporting material; - said bottle-holder tray consists of a fourth single piece of a sheet or plate of a folded self-supporting material. - said bearing structure with said rising portion and said raised plane are made up of two single pieces, first and second , each of a sheet or plate of a folded self-supporting material, joined one to another; - said work surface , with said at least one opening , consists of a third single piece of a sheet or plate of a folded self-supporting material; - said bottle-holder tray consists of a fourth single piece of a sheet or plate of a folded self-supporting material.
An apparatus to ablate vascular tissue, the apparatus comprising, a pump ; a nozzle for immersion in a liquid, the nozzle being coupled to the pump; circuitry coupled to the pump and the nozzle to cause a jet with a plurality of shedding pulses to be released from the nozzle into the liquid, the apparatus further comprising: a processor comprising instructions to treat the vascular tissue with the nozzle , the processor coupled to a linkage to move the nozzle in response to the instructions, characterized in that the processor comprises instructions to remove the tissue with a tissue removal profile, RP, with the nozzle positioned at a distance no more than a threshold transition distance for selective tissue removal from the profile. a pump ; a nozzle for immersion in a liquid, the nozzle being coupled to the pump; circuitry coupled to the pump and the nozzle to cause a jet with a plurality of shedding pulses to be released from the nozzle into the liquid, the apparatus further comprising: a processor comprising instructions to treat the vascular tissue with the nozzle , the processor coupled to a linkage to move the nozzle in response to the instructions, characterized in that the processor comprises instructions to remove the tissue with a tissue removal profile, RP, with the nozzle positioned at a distance no more than a threshold transition distance for selective tissue removal from the profile. a processor comprising instructions to treat the vascular tissue with the nozzle , the processor coupled to a linkage to move the nozzle in response to the instructions, characterized in that the processor comprises instructions to remove the tissue with a tissue removal profile, RP, with the nozzle positioned at a distance no more than a threshold transition distance for selective tissue removal from the profile.
A method, comprising: receiving an Internet Protocol, IP, particular packet of a stream of IP packets by a particular router in a network; responsive to fast path processing by the particular router data plane ascertaining a segment routing policy, encapsulating the IP packet in a segment routing particular packet including a segment routing header, and punting the segment routing particular packet with a timestamp of a current time to a slow path processing unit that performs slow path processing, with fast path processing being hardware-based packet processing, and with slow path processing being processor-based processing according to programmed instructions; and OAM processing of the segment routing particular packet by the slow path processing unit. receiving an Internet Protocol, IP, particular packet of a stream of IP packets by a particular router in a network; responsive to fast path processing by the particular router data plane ascertaining a segment routing policy, encapsulating the IP packet in a segment routing particular packet including a segment routing header, and punting the segment routing particular packet with a timestamp of a current time to a slow path processing unit that performs slow path processing, with fast path processing being hardware-based packet processing, and with slow path processing being processor-based processing according to programmed instructions; and OAM processing of the segment routing particular packet by the slow path processing unit.
A method of converting α-ketoisovalerate to isobutyraldehyde comprising: a. providing a polypeptide wherein said polypeptide comprises: (i) at least 80% identity to SEQ ID NO: 52 or 61, or an active fragment thereof; and (ii) α-ketoisovalerate decarboxylase activity, a specificity ratio for α-ketoisovalerate to pyruvate greater than 1, and thiamine diphosphate cofactor activation constant (K c ) of 20 μM or less; and b. contacting said polypeptide with α-ketoisovalerate under conditions wherein isobutyraldehyde is produced. a. providing a polypeptide wherein said polypeptide comprises: (i) at least 80% identity to SEQ ID NO: 52 or 61, or an active fragment thereof; and (ii) α-ketoisovalerate decarboxylase activity, a specificity ratio for α-ketoisovalerate to pyruvate greater than 1, and thiamine diphosphate cofactor activation constant (K c ) of 20 μM or less; and (i) at least 80% identity to SEQ ID NO: 52 or 61, or an active fragment thereof; and (ii) α-ketoisovalerate decarboxylase activity, a specificity ratio for α-ketoisovalerate to pyruvate greater than 1, and thiamine diphosphate cofactor activation constant (K c ) of 20 μM or less; and b. contacting said polypeptide with α-ketoisovalerate under conditions wherein isobutyraldehyde is produced.
A device (101; 352; 442, 452, 462, 472, 482) for optimising software image layers (141-149) of plural software image layer stacks (131-133) stored in a common software image repository , each software image layer stack (131; 132; 133) comprising a plurality of software image layers (141-144; 145-146; 147-149), wherein a software image layer can individually be pushed into and pulled from said common software image repository and can be reused across several of said software image layer stacks (131-133), and each software image layer (141; 142; 143; 144; 145; 146, 147; 148; 149) comprising one or more software items (151-152; 153; 154-155; 156; 157-158; 159-160; 161-162; 163-164; 165-166), wherein a software item is either an individual software file or a subset of software files, said device comprising: - a content analysing module configured to analyse the content of said software image layers (141-149) and identify overlap in software items (151-166) between said software image layers (141-149); - a layer optimization module configured to repackage the software items (151-166) of said software image layers (141-149) into optimized software image layers (171-186) wherein said optimized software image layers (171-186) associated with said software image layer stacks (131-133) comprise a number of optimized software image layers (171, 177, 181; 172, 182; 173, 183; and 174, 179, 185) that have the exact same constitution of software items; and - a storage management module adapted to store said optimized software image layers (L1-L10) only once in an image layer store of said common software image repository . - a content analysing module configured to analyse the content of said software image layers (141-149) and identify overlap in software items (151-166) between said software image layers (141-149); - a layer optimization module configured to repackage the software items (151-166) of said software image layers (141-149) into optimized software image layers (171-186) wherein said optimized software image layers (171-186) associated with said software image layer stacks (131-133) comprise a number of optimized software image layers (171, 177, 181; 172, 182; 173, 183; and 174, 179, 185) that have the exact same constitution of software items; and - a storage management module adapted to store said optimized software image layers (L1-L10) only once in an image layer store of said common software image repository .
An organic field-effect transistor comprising: a first layer which consists of an organic semiconductor compound; and characterised in that it further comprises a second layer which is adjacent to the first layer and consists of a liquid crystal compound, wherein an organic semiconductor monocrystal in the first layer has a size of equal to or greater than 100 μm × 100 μm. a first layer which consists of an organic semiconductor compound; and characterised in that it further comprises a second layer which is adjacent to the first layer and consists of a liquid crystal compound, wherein an organic semiconductor monocrystal in the first layer has a size of equal to or greater than 100 μm × 100 μm.
A device, comprising: a plurality of low-noise amplifiers, LNAs, (LNA1, LNA2, LNA3, LNA4); and an LNA matching device configured to receive a wireless signal and comprising an output switchably configured to couple to a selected low-noise amplifier, LNA, of the plurality of LNAs (LNA1, LNA2, LNA3, LNA4) for conveying the wireless signal from the LNA matching device to the selected LNA; the LNA matching device configured to receive one or more control signals (Z k+1 ) to provide an LNA matching device setting for a selected band of a plurality of frequency bands, the LNA matching device comprising a first variable capacitor (C1) having a first terminal switchably coupled to a first node (H) and a second terminal coupled to a second node (E), the LNA matching device further comprising a second variable capacitor (C2) having a first terminal coupled to a third node (D) and a second terminal coupled to the second node (E), wherein an inductor is coupled between the first node (H) and the third node (D); a module configured to measure a noise figure of the wireless signal and to convey the one or more control signals (Z k+1 ) based on the noise figure to the LNA matching device for tuning the LNA matching device to minimise the noise figure for the selected band of the plurality of frequency bands. a plurality of low-noise amplifiers, LNAs, (LNA1, LNA2, LNA3, LNA4); and an LNA matching device configured to receive a wireless signal and comprising an output switchably configured to couple to a selected low-noise amplifier, LNA, of the plurality of LNAs (LNA1, LNA2, LNA3, LNA4) for conveying the wireless signal from the LNA matching device to the selected LNA; the LNA matching device configured to receive one or more control signals (Z k+1 ) to provide an LNA matching device setting for a selected band of a plurality of frequency bands, the LNA matching device comprising a first variable capacitor (C1) having a first terminal switchably coupled to a first node (H) and a second terminal coupled to a second node (E), the LNA matching device further comprising a second variable capacitor (C2) having a first terminal coupled to a third node (D) and a second terminal coupled to the second node (E), wherein an inductor is coupled between the first node (H) and the third node (D); a module configured to measure a noise figure of the wireless signal and to convey the one or more control signals (Z k+1 ) based on the noise figure to the LNA matching device for tuning the LNA matching device to minimise the noise figure for the selected band of the plurality of frequency bands.
Sensor arrangement for detecting in a contactless manner a movement of a body that is movably mounted within a first housing , having a transducer that is non-rotatably connected to the body and moves simultaneously with the body , and a measuring apparatus that is fixedly arranged and comprises a measuring element (16.2), wherein the transducer in dependence upon the movement of the body influences at least one physical variable that is detected by the measuring element (16.2), wherein the measuring apparatus is connected to the first housing by way of a connecting adapter that comprises on a side that is facing the first housing a circumferential receiving contour (18.3), characterized in that a silicone bead is introduced into the receiving contour (18.3) and pressed in between the receiving contour (18.3) and the first housing , wherein the silicone bead that is pressed in fixes and seals the connecting adapter on the first housing .
A method for producing an alcoholic beverage based on tequila and vodka, characterized in that it comprises the following steps: - purifying the primary alcohol compounds of vodka and tequila by removing the subcompounds of said compounds that are not desired in the final product; - mixing the alcohol compounds of vodka and tequila purified according to the previous step with their corresponding aromatic components of hop and citruses , and macerating the obtained mixtures at room temperature; - distilling the macerated mixtures of vodka and tequila obtained in the previous step; - mixing the distillates of vodka and tequila with one another, thereby obtaining the final beverage product. - purifying the primary alcohol compounds of vodka and tequila by removing the subcompounds of said compounds that are not desired in the final product; - mixing the alcohol compounds of vodka and tequila purified according to the previous step with their corresponding aromatic components of hop and citruses , and macerating the obtained mixtures at room temperature; - distilling the macerated mixtures of vodka and tequila obtained in the previous step; - mixing the distillates of vodka and tequila with one another, thereby obtaining the final beverage product.
A system for supporting, laying/advancing and directing ducts for the construction of duct lines/pipelines, comprising support and transport elements and a fixed logistics yard for construction and welding of pipes , including a stock of pipes and a facility for welding, inspection and finishing of the pipes to form the duct line/pipeline, characterized in that the support and transport elements are arranged along a ductline/pipeline path , and in that the support and transport elements comprise rollers driven by respective drive motors which in a synchronized manner move the piping along the predefined duct line/pipeline path , the support and transport elements providing a permanent support to the duct line/pipeline.
An ammoxidation catalyst for propylene in which metal oxide represented by Chemical Formula 1 is supported on a silica carrier, wherein the catalyst has D50 particle diameter of 30 to 300 μ m, and D10 particle diameter, D50 particle diameter and D90 particle diameter satisfying the relationship of the following Formula 1: D90 − D10 / D50 < 2.0 , wherein D10, D50 and D90 are measured by a laser diffraction method, [Chemical Formula 1] Mo 12 Bi a Fe b A c B d C e O x in the Chemical Formula 1, A is one or more elements of Ni, Mn, Co, Zn, Mg, Ca, and Ba, B is one or more elements of Li, Na, K, Rb, and Cs, C is one or more elements of Cr, W, B, Al, Ca, and V, a to e, and x are respectively fractions of each atom or atomic group, wherein a is 0.1 to 5, b is 0.1 to 5, c is 0.01 to 10, d is 0.01 to 2, e is 0 to 10, and x is 24 to 48. wherein the catalyst has D50 particle diameter of 30 to 300 μ m, and D10 particle diameter, D50 particle diameter and D90 particle diameter satisfying the relationship of the following Formula 1: D90 − D10 / D50 < 2.0 , wherein D10, D50 and D90 are measured by a laser diffraction method, [Chemical Formula 1] Mo 12 Bi a Fe b A c B d C e O x in the Chemical Formula 1, A is one or more elements of Ni, Mn, Co, Zn, Mg, Ca, and Ba, B is one or more elements of Li, Na, K, Rb, and Cs, C is one or more elements of Cr, W, B, Al, Ca, and V, a to e, and x are respectively fractions of each atom or atomic group, wherein a is 0.1 to 5, b is 0.1 to 5, c is 0.01 to 10, d is 0.01 to 2, e is 0 to 10, and x is 24 to 48.
A method for generating a movement signal of an object , in particular a body part of a human or animal, wherein the movement signal provides quantitative information on a movement of the object , the method comprising the following steps: a) Acquiring a navigation signal from the object, wherein the navigation signal is an electromagnetic signal, which is modulated by movements of the object; b) Extracting a reference signal from the navigation signal; c) Determining a parameter having a known time-dependency from the reference signal ; d) Correcting the navigation signal based on the parameter or the time-average of said parameter in order to reduce a signal drift in the navigation signal ; e) Extracting the movement signal from the navigation signal . a) Acquiring a navigation signal from the object, wherein the navigation signal is an electromagnetic signal, which is modulated by movements of the object; b) Extracting a reference signal from the navigation signal; c) Determining a parameter having a known time-dependency from the reference signal ; d) Correcting the navigation signal based on the parameter or the time-average of said parameter in order to reduce a signal drift in the navigation signal ; e) Extracting the movement signal from the navigation signal .