mhurhangee/patent-ind-claim-en huggingface dataset:
A steel wire rod consisting of: C: 0.95 to 1.10 mass%, Si: 0.10 to 0.70 mass%, Mn: 0.20 to 1.20 mass%, Cr: 0.90 to 1.60 mass%, Mo: 0 to 0.25 mass%, B: 0 to 25 ppm, P: 0 to 0.020 mass%, S: 0 to 0.020 mass%, O: 0 to 0.0010 mass%, N: 0 to 0.030 mass%, Al: 0.010 to 0.100 mass%, and a balance: Fe and impurities, wherein a surface area is an area between a surface and a line 0.1 times a half of an equivalent circle diameter of the steel wire rod apart from the surface in a cross-section perpendicular to a longitudinal direction, and has a microstructure consisting of pearlite, pro-eutectoid cementite, and a balance, wherein in the surface area, a Vickers hardness is HV 300 to 420, an area ratio of the pearlite is 80% or more, an area ratio of the pro-eutectoid cementite is 2.0% or less, and the balance is one or more selected from the group consisting of ferrite, spheroidal cementite, and bainite, wherein an inner area is an area enclosed by the line 0.1 times the half of the equivalent circle diameter of the steel wire rod apart from the surface and including a center in the cross-section perpendicular to the longitudinal direction, and has a microstructure consisting of pearlite, pro-eutectoid cementite, and a balance, wherein in the inner area, an area ratio of the pearlite is 90% or more, an area ratio of the pro-eutectoid cementite is 5.0% or less, the balance is one or more selected from the group consisting of ferrite, spheroidal cementite, and bainite, and an area ratio of pearlite blocks existing in the pearlite and having an equivalent circle diameter of more than 40 μm is 0.62% or less, and wherein a center portion is an area enclosed by a line 0.5 times the half of the equivalent circle diameter of the steel wire rod apart from the center and including the center in the cross-section perpendicular to the longitudinal direction, and a difference between a Vickers hardness of the center portion and a Vickers hardness of the surface area is HV 20.0 or less. C: 0.95 to 1.10 mass%, Si: 0.10 to 0.70 mass%, Mn: 0.20 to 1.20 mass%, Cr: 0.90 to 1.60 mass%, Mo: 0 to 0.25 mass%, B: 0 to 25 ppm, P: 0 to 0.020 mass%, S: 0 to 0.020 mass%, O: 0 to 0.0010 mass%, N: 0 to 0.030 mass%, Al: 0.010 to 0.100 mass%, and a balance: Fe and impurities, wherein a surface area is an area between a surface and a line 0.1 times a half of an equivalent circle diameter of the steel wire rod apart from the surface in a cross-section perpendicular to a longitudinal direction, and has a microstructure consisting of pearlite, pro-eutectoid cementite, and a balance,
Mobile air conditioner containing: a compressor , a first heat exchanger , a throttle valve , a second heat exchanger , a third heat exchanger , a storage medium , a water level controller , a Fan , a drain , a drain pump , a water supply , a drain hose , a first sensor , a second sensor , a stopcock , a Control and a vessel , the vessel containing the second heat exchanger positioned just above the vessel bottom, the drain pump being mounted below the second heat exchanger . , wherein above the second heat exchanger the third heat exchanger is positioned at the top of the vessel , wherein in the vessel further the water level controller is positioned above the third heat exchanger , the first sensor is mounted next to the water level controller in the vessel , the vessel being filled with the storage medium , the drain being mounted on the vessel bottom, the vessel is connected via a line to the water supply and to the stopcock , the drain hose being attached to the top of the vessel and connected to the drain pump , the regulation/control connected to the compressor , the water level controller , the fan , the drain pump and the first and second sensors , with the fan upstream and the second sensor is mounted behind the first heat exchanger , the second heat exchanger being arranged in a refrigeration circuit after the compressor , the throttle valve being arranged behind the second heat exchanger , the Unite lines from the first and third heat exchanger (2.5), and the refrigeration circuit to the compressor is closed.
An expression vector comprising a nucleic acid i) encoding a Minion polypeptide comprising an amino acid sequence selected from any of SEQ ID NO: 1, 3, 5, 7, 9, 11, 13, 15, or a polypeptide having about 85%, 90%, 91%, 92%, 93%, 94%, 95%, 96%, 97%, 98% or 99% identity thereto and further comprising a second nucleic acid ii) encoding a Myomaker polypeptide comprising an amino acid sequence selected from any of SEQ ID NO: 16, 18, 20, 22, 24, 26, 28, or 30 or a polypeptide having about 85%, 90%, 91%, 92%, 93%, 94%, 95%, 96%, 97%, 98% or 99% sequence identity thereto.
A method for operating a positive displacement pump, the method comprising: (a) detecting a position of at least one of the positive displacement pump and a rotor of a motor operatively coupled to the positive displacement pump ; (b) accessing a ripple map, characterized in that the ripple map is a leakage ripple map; and the method further comprises: (c) determining, based at least in part on the position and the ripple map, a stabilized command profile; (d) operating an active component according to the stabilized command profile, wherein the stabilized command profile corresponds to one of a stabilized command velocity profile and a stabilized command torque profile, and wherein the active component is at least one of the rotor and the positive displacement pump . (a) detecting a position of at least one of the positive displacement pump and a rotor of a motor operatively coupled to the positive displacement pump ; (b) accessing a ripple map, characterized in that the ripple map is a leakage ripple map; and the method further comprises: (c) determining, based at least in part on the position and the ripple map, a stabilized command profile; (d) operating an active component according to the stabilized command profile, wherein the stabilized command profile corresponds to one of a stabilized command velocity profile and a stabilized command torque profile, and wherein the active component is at least one of the rotor and the positive displacement pump .
A crosslinkable composition comprising a) at least one polyol having free -OH groups, b) at least one polyisocyanate crosslinker having free -NCO groups, c) at least one catalyst for catalysing the reaction between -OH groups of said polyol a) and -NCO groups of said crosslinker b), d) at least one tertiary acid of formula RR'R"CCOOH (I), wherein each R, R' and R" group, independently, is an alkyl, alkenyl, aryl or aralkyl group containing at least one carbon atom, with the proviso that two or three of the R, R' and R" groups can be linked to form a ring structure and wherein the R, R' and/or R" groups can be substituted, and wherein the total number of carbon atoms in the R, R' and R" groups is the range of from 3 to 40, and e) optionally, at least one complexing agent containing at least one -SH group. a) at least one polyol having free -OH groups, b) at least one polyisocyanate crosslinker having free -NCO groups, c) at least one catalyst for catalysing the reaction between -OH groups of said polyol a) and -NCO groups of said crosslinker b), d) at least one tertiary acid of formula RR'R"CCOOH (I), wherein each R, R' and R" group, independently, is an alkyl, alkenyl, aryl or aralkyl group containing at least one carbon atom, with the proviso that two or three of the R, R' and R" groups can be linked to form a ring structure and wherein the R, R' and/or R" groups can be substituted, and wherein the total number of carbon atoms in the R, R' and R" groups is the range of from 3 to 40, and e) optionally, at least one complexing agent containing at least one -SH group.
A microphone module, comprising: a housing , formed with a cavity and an acoustic receiving hole which are connected with each other; a circuit board connected to the housing to seal a bottom of the cavity ; an adhesive member made of an adhesive material and provided in the cavity ; and a signal converter provided in the cavity and configured to convert an acoustic signal into an electrical signal, characterized in that :the adhesive member comprises a first adhesive member attached to an inner wall of the housing , wherein the first adhesive member covers the inner wall of the housing , wherein the first adhesive member extends from the inner wall of the housing to the acoustic receiving hole and is attached to a side wall of the acoustic receiving hole . a housing , formed with a cavity and an acoustic receiving hole which are connected with each other; a circuit board connected to the housing to seal a bottom of the cavity ; an adhesive member made of an adhesive material and provided in the cavity ; and a signal converter provided in the cavity and configured to convert an acoustic signal into an electrical signal, characterized in that :the adhesive member comprises a first adhesive member attached to an inner wall of the housing , wherein the first adhesive member covers the inner wall of the housing , wherein the first adhesive member extends from the inner wall of the housing to the acoustic receiving hole and is attached to a side wall of the acoustic receiving hole .
A method for scheduling tasks to processor cores of a parallel computing system comprising the steps of: (a) processing a source code which comprises at least one lambda function having a function body called by a task and having a capture list specifying the data structures accessed in the function body of said lambda function and deriving data location information of the data structures accessed in the function body called by this task; (b) executing the task calling said function body on a processor core which is associated to a memory unit of the parallel computing system which is determined on the basis of the derived data location information, wherein the capture list of the lambda function indicates external data structures declared outside the lambda function and visible inside the lambda function, and which are used by the function body of said lambda function. (a) processing a source code which comprises at least one lambda function having a function body called by a task and having a capture list specifying the data structures accessed in the function body of said lambda function and deriving data location information of the data structures accessed in the function body called by this task; (b) executing the task calling said function body on a processor core which is associated to a memory unit of the parallel computing system which is determined on the basis of the derived data location information,
An anti-corrosion inhibitor solution for water-bearing conduits and installation systems, comprising an aqueous solution with sodium silicate, sodium polyphosphate and trisodium phosphate, wherein trisodium phosphate to sodium polyphosphate is present in a mass ratio of 1.5 to 6.0, and wherein sodium silicate to the sum of trisodium phosphate and sodium polyphosphate is present in a mass ratio of more than 2.0, wherein the solution contains sodium polyphosphate with an average chain length of 4 to 20, and wherein the solution contains a sodium silicate with a molar ratio of SiO 2 to Na 2 O of maximally 5.
Method for testing a shuttle valve in a pneumatic system , preferably an electronically controllable pneumatic brake system , wherein the shuttle valve has a first shuttle valve connection (2.1), a second shuttle valve connection (2.2) and a third shuttle valve connection (2.3), wherein the higher of the pressures (p1, p2) applied to the first shuttle valve connection (2.1) and second shuttle valve connection (2.2) is controlled at the third shuttle valve connection (2.3), wherein the method comprises the steps of: a) controlling a first pressure (p1) at the first shuttle valve connection (2.1); b) determining a value (G1, G1T) indicative of the first pressure (p1) at the first shuttle valve connection (2.1); and c) comparing the value (G1, G1T) indicative of the first pressure with a first predetermined comparison value (GV1, GS1) provided for this purpose, and in the case of a deviation which is greater than a first tolerance (T1): determining and/or outputting an error (E) of the shuttle valve , and d) controlling a second pressure (p2) at the second shuttle valve connection (2.1); e) determining a value (G2, G2T) indicative of the second pressure (p2) at the second shuttle valve connection (2.2); and f) comparing the value (G2, G2T) indicative of the second pressure with a second predetermined comparison value (GV2, GS2) provided for this purpose, and in the case of a deviation which is greater than a second tolerance (T2): determining and/or outputting an error (E) of the shuttle valve . a) controlling a first pressure (p1) at the first shuttle valve connection (2.1); b) determining a value (G1, G1T) indicative of the first pressure (p1) at the first shuttle valve connection (2.1); and c) comparing the value (G1, G1T) indicative of the first pressure with a first predetermined comparison value (GV1, GS1) provided for this purpose, and in the case of a deviation which is greater than a first tolerance (T1): determining and/or outputting an error (E) of the shuttle valve , and d) controlling a second pressure (p2) at the second shuttle valve connection (2.1); e) determining a value (G2, G2T) indicative of the second pressure (p2) at the second shuttle valve connection (2.2); and f) comparing the value (G2, G2T) indicative of the second pressure with a second predetermined comparison value (GV2, GS2) provided for this purpose, and in the case of a deviation which is greater than a second tolerance (T2): determining and/or outputting an error (E) of the shuttle valve .
A computer- implemented method for generating a three-dimensional, 3D, point cloud of a scene, the method comprising: obtaining (S102) digital images depicting the scene, wherein each digital image is composed of pixels ; segmenting (S104) each of the digital images into digital image segments ; determining (S108) a depth vector and a normal vector per each of the digital image segments by applying multi-view stereo, MVS, processing to a subset of the pixels per each digital image segment ; forming (S110) a map of depth vectors and normal vectors per each pixel in the digital images by estimating a 3d plane per digital image segment, based on the determined depth and normal vectors per each of the digital image segments ; and generating (S112) the 3D point cloud of the scene as a combination of all the maps of depth vectors and normal vectors per each pixel in the digital images , wherein the subset of the pixels are uniformly sampled pixels per digital image and wherein the pixels included in the subsets of pixels are defined by sample locations in the digital images , and wherein the method further comprises verifying (S106) that each digital image segment comprises at least one sample location wherein, when at least one digital image segment fails to comprise at least one sample location , the segmentation of at least the digital image for which the digital image segment fails to comprise at least one sample location is repeated with increased size of the digital image segments . obtaining (S102) digital images depicting the scene, wherein each digital image is composed of pixels ; segmenting (S104) each of the digital images into digital image segments ; determining (S108) a depth vector and a normal vector per each of the digital image segments by applying multi-view stereo, MVS, processing to a subset of the pixels per each digital image segment ; forming (S110) a map of depth vectors and normal vectors per each pixel in the digital images by estimating a 3d plane per digital image segment, based on the determined depth and normal vectors per each of the digital image segments ; and generating (S112) the 3D point cloud of the scene as a combination of all the maps of depth vectors and normal vectors per each pixel in the digital images ,
A wiping device for a device for packaging and applying a fluid or pasty product, the wiping device comprising first and second independent parts, the first part having a hardness greater than or equal to a hardness of the second part, the first part comprising a male portion formed by a first skirt , the second part comprising a deformable wiping lip and a female portion formed by a second skirt and arranged so as to receive, by snap-fitting, the first skirt of the first part, characterized in that the wiping device further comprises locking means for locking the snap-fitting of the first skirt in the second skirt, the wiping device being characterized in that the second part comprises a third clamping boss formed on an outer wall of the second skirt.
A transportable wafer carrier device comprising: a wafer chuck comprising an enclosed vacuum reservoir and a top surface configured to support a wafer ; wherein said top surface comprises one or more through-openings extending from the top surface to the vacuum reservoir and wherein the wafer is held onto the top surface via vacuum from said vacuum reservoir drawn through said through-openings; wherein the top surface comprises three-dimensional support structures dimensioned to support the wafer, and the transportable wafer carrier device being characterized in that the three-dimensional support structures comprise also structures configured for complementing bumps or bond pads formed on the wafer surface being in contact with the top surface . a wafer chuck comprising an enclosed vacuum reservoir and a top surface configured to support a wafer ; wherein said top surface comprises one or more through-openings extending from the top surface to the vacuum reservoir and wherein the wafer is held onto the top surface via vacuum from said vacuum reservoir drawn through said through-openings; wherein the top surface comprises three-dimensional support structures dimensioned to support the wafer, and the transportable wafer carrier device being characterized in that the three-dimensional support structures comprise also structures configured for complementing bumps or bond pads formed on the wafer surface being in contact with the top surface .
A tire management method comprising: detecting, with a temperature detector , a temperature at predetermined intervals inside a tire air chamber of a pneumatic tire on a vehicle; calculating, with a converter , based on the temperature detected at predetermined intervals inside the tire air chamber, a value which is equal to a first multiplication value that is the product of load applied to the tire and tire speed or a second multiplication value that is the product of the square of load applied to the tire and tire speed, using a formula which relates detected temperature to a first multiplication value that is the product of load applied to the tire and tire speed or to a second multiplication value that is the product of the square of load applied to the tire and tire speed; and calculating, with an accumulator , an accumulation value by accumulating the first multiplication value or the second multiplication value for a predetermined period. detecting, with a temperature detector , a temperature at predetermined intervals inside a tire air chamber of a pneumatic tire on a vehicle; calculating, with a converter , based on the temperature detected at predetermined intervals inside the tire air chamber, a value which is equal to a first multiplication value that is the product of load applied to the tire and tire speed or a second multiplication value that is the product of the square of load applied to the tire and tire speed, using a formula which relates detected temperature to a first multiplication value that is the product of load applied to the tire and tire speed or to a second multiplication value that is the product of the square of load applied to the tire and tire speed; and calculating, with an accumulator , an accumulation value by accumulating the first multiplication value or the second multiplication value for a predetermined period.
Device for generating a carrier signal (p(t)) from an incident pulse signal (s(t)), said incident pulse signal comprising periodic pulses characterised by a pulse width (LI) and a repetition period (PRI), the device comprising: - a delay line comprising K delay modules (114 k ) arranged in series with one another, each delay module being capable of delaying an input pulse signal, applied at the input of said delay module, in order to deliver an output pulse signal, at the output of said delay module, corresponding to the input pulse signal delayed by a pulse width, the input pulse signal applied at the input of the first delay module (114 1 ) corresponding to the incident pulse signal and the number K of delay modules being equal to the whole of the repetition period divided by the pulse width, decreased by one unit; - a summer capable of summing the incident pulse signal and the K output pulse signals of the K delay modules of the delay line in order to obtain the carrier signal (p(t)). - a delay line comprising K delay modules (114 k ) arranged in series with one another, each delay module being capable of delaying an input pulse signal, applied at the input of said delay module, in order to deliver an output pulse signal, at the output of said delay module, corresponding to the input pulse signal delayed by a pulse width, the input pulse signal applied at the input of the first delay module (114 1 ) corresponding to the incident pulse signal and the number K of delay modules being equal to the whole of the repetition period divided by the pulse width, decreased by one unit; - a summer capable of summing the incident pulse signal and the K output pulse signals of the K delay modules of the delay line in order to obtain the carrier signal (p(t)).
Sensor device for mounting on an object through which a medium flows, in particular on a pipeline, comprising at least one transducer device having at least one flexible transducer element , which has at least one electrically conductive conductor element and, in order to cover the object in part, can be transferred into an operating position in which it is at least partially arranged around a longitudinal axis of the object and lies tightly against a surface of the object, characterized in that the transducer device has a restoring device having an energy store and at least one transfer element arranged on the transducer element , the restoring device being intended for setting and/or resetting the transducer element into the operating position when there are changes in the diameter of the object in the mounted state of the sensor device .