mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method for monitoring time - dependent subsurface changes between a data set and another data set , which comprises: selecting the data set according to a subsurface location and time; and selecting the another data set according to the subsurface location and another time; extracting a first window of data from each data set, each first window corresponding to a region above a known or suspected area of change in the data set; extracting a second window of data from each data set, each second window corresponding to a region below the known or suspected area of change in the data set; forming a first auto-correlation of each first window and a second autocorrelation of each second window; computing a shaping filter for each data set, which transforms the first auto-correlation of each first window to the second auto-correlation of each respective second window; computing a transfer function that transforms the shaping filter of the data set to the shaping filter of the another data set; and rendering an image of at least one of the shaping filters for each data set and the transfer function in spatially coincident alignment. selecting the data set according to a subsurface location and time; and selecting the another data set according to the subsurface location and another time; extracting a first window of data from each data set, each first window corresponding to a region above a known or suspected area of change in the data set; extracting a second window of data from each data set, each second window corresponding to a region below the known or suspected area of change in the data set; forming a first auto-correlation of each first window and a second autocorrelation of each second window; computing a shaping filter for each data set, which transforms the first auto-correlation of each first window to the second auto-correlation of each respective second window; computing a transfer function that transforms the shaping filter of the data set to the shaping filter of the another data set; and rendering an image of at least one of the shaping filters for each data set and the transfer function in spatially coincident alignment.
Ballast for operating machinery, comprising at least one portion removably couplable to at least one hooking seat of said operating machinery, at least one fixed part provided with said couplable portion , at least one movable part , at least one actuator for moving said movable part away/closer from/to said fixed part along at least one movement direction (X) of said movable part with respect to said fixed part , and at least one linear guide for said at least one movable part which has longitudinal axis (Z) substantially parallel to the movement direction (X) of said at least one movable part, said guide comprising at least one first sleeve constrained to said fixed part, said ballast further comprising sliding means to slide said movable part along at least part of the outer surface of said at least one first sleeve , characterized in that said sliding means comprise at least one second sleeve sliding along the outer surface of said at least one first sleeve , said at least one movable part being combined or integral with said at least one second sleeve next to at least one portion of the outer surface of said at least one second sleeve .
A method of priming a tubing set and a dialyzer of a dialysis system, comprising the steps of: connecting an arterial line of the tubing set to a venous line of the tubing set to form a continuous loop in the tubing set; operating a blood pump of the dialysis system in a first operating mode to move saline from a saline source into a venous drip chamber of the tubing set before moving the saline through a blood-side of the dialyzer in a first direction to remove air from the tubing set and the blood-side of the dialyzer; operating the blood pump in a second operating mode to move saline through the blood-side of the dialyzer in a second direction opposite to the first direction before moving the saline through the venous drip chamber of the tubing set and out of the tubing set; and periodically actuating one or more valves of the dialysis system with an electronic controller to open and close lines of the tubing set to create a pulsing effect of saline in the lines to loosen air bubbles in the dialyzer; wherein the saline is moved out of the tubing set through a union joint that attaches the venous line of the tubing set to the arterial line of the tubing set. connecting an arterial line of the tubing set to a venous line of the tubing set to form a continuous loop in the tubing set; operating a blood pump of the dialysis system in a first operating mode to move saline from a saline source into a venous drip chamber of the tubing set before moving the saline through a blood-side of the dialyzer in a first direction to remove air from the tubing set and the blood-side of the dialyzer; operating the blood pump in a second operating mode to move saline through the blood-side of the dialyzer in a second direction opposite to the first direction before moving the saline through the venous drip chamber of the tubing set and out of the tubing set; and periodically actuating one or more valves of the dialysis system with an electronic controller to open and close lines of the tubing set to create a pulsing effect of saline in the lines to loosen air bubbles in the dialyzer; wherein the saline is moved out of the tubing set through a union joint that attaches the venous line of the tubing set to the arterial line of the tubing set.
A composite panel , comprising: a first layer made from an electrically non-conductive material; a resistance heater printed onto the first layer ; a capacitive sensor applied onto the first layer , the capacitive sensor being operably coupled with the resistance heater ; a heater control module applied onto the first layer , configured to vary a voltage to the resistance heater at least partially in response to the input sensed by the capacitive sensor ; and a second layer adjacent the resistance heater , the capacitive sensor and the heater control module , the resistance heater , the capacitive sensor and the heater control module being positioned between the first layer and the second layer , and the second layer being made from an electrically non-conductive material; wherein the resistance heater is configured to generate heat at least partially in response to input sensed by the capacitive sensor , wherein the first layer , the resistance heater , the capacitive sensor , the heater control module and the second layer are flexible, and wherein the first layer , resistance heater , capacitive sensor , and second layer together form a sandwich panel, the sandwich panel having a non-planar shape. a first layer made from an electrically non-conductive material; a resistance heater printed onto the first layer ; a capacitive sensor applied onto the first layer , the capacitive sensor being operably coupled with the resistance heater ; a heater control module applied onto the first layer , configured to vary a voltage to the resistance heater at least partially in response to the input sensed by the capacitive sensor ; and a second layer adjacent the resistance heater , the capacitive sensor and the heater control module , the resistance heater , the capacitive sensor and the heater control module being positioned between the first layer and the second layer , and the second layer being made from an electrically non-conductive material; wherein the resistance heater is configured to generate heat at least partially in response to input sensed by the capacitive sensor , wherein the first layer , the resistance heater , the capacitive sensor , the heater control module and the second layer are flexible, and wherein the first layer , resistance heater , capacitive sensor , and second layer together form a sandwich panel, the sandwich panel having a non-planar shape.
A liquid epoxy resin sealing material comprising (A) a liquid epoxy resin, (B) an amine curing agent, (C) an inorganic filler, and (D) an antioxidant represented by the following formula, wherein 0.5 to 10 parts by mass of (D) the antioxidant agent is contained based on a total of 100 parts by mass of (A) the epoxy resin, and (B) the amine curing agent, wherein the epoxy resin is liquid at room temperature.
A tab foil layer structure for a wing foil bearing, comprising: a first tab foil layer comprising a first thin material with a two-dimensional array of a first plurality of cantilever tabs having variable height cantilever tabs , each cantilever tab defined by a boundary of material separated from the thin material and having (i) an integral edge integral with the first thin material, (ii) a free edge substantially opposite the integral edge, (iii) a first free-state bend at or near the integral edge and (iv) a second free-state bend located between the first free-state bend and the free edge in a direction opposite from the first free-state bend, wherein the heights ) of the cantilever tabs change as a function of location within the two-dimensional array.
Stator assembly for a wind turbine generator, the stator assembly comprising a number of stator segments forming a stator structure , the stator assembly further including a transverse structure arranged extending along a diameter of the stator structure , the transverse structure comprising a perimetric plate connected to the stator structure and at least partially arranged between at least two of the stator segments , wherein the transverse structure is stronger than the stator segments, characterized in that the perimetric plate defines two opposite hollow inner regions separated by a cylindrical element fitted therebetween for receiving a bearing assembly for the rotor of the wind turbine generator and provided with a flange for attachment to the transverse structure .
A photonic integrated circuit, PIC, comprising: a silicon-on-insulator, SOI, substrate comprising a silicon handle, a buried oxide layer disposed on top of the silicon handle, a silicon device layer disposed on top of the buried oxide layer, and a cladding layer disposed on top of the silicon device layer; an array of waveguides formed at least partially within the silicon device layer, wherein the array of waveguides is connected between an input free propagation region, FPR, and output FPR formed at least partially within the silicon device layer, the input and output FPRs and the array of waveguides together forming an arrayed waveguide grating, AWG, the waveguides varying in optical path length incrementally across the array to thereby cause wavelength dispersion; one or more pairs of forward and backward heaters disposed at least partially within at least one of the cladding layer or the silicon device layer and laterally overlapping with the array of waveguides, each heater configured to impart an incremental heat-induced phase shift between the waveguides, the phase shift imparted by the forward heater being of an opposite sign than the phase shift imparted by the backward heater; and one or more back-etched regions formed within the silicon handle underneath respective one or more pairs of forward and backward heaters. a silicon-on-insulator, SOI, substrate comprising a silicon handle, a buried oxide layer disposed on top of the silicon handle, a silicon device layer disposed on top of the buried oxide layer, and a cladding layer disposed on top of the silicon device layer; an array of waveguides formed at least partially within the silicon device layer, wherein the array of waveguides is connected between an input free propagation region, FPR, and output FPR formed at least partially within the silicon device layer, the input and output FPRs and the array of waveguides together forming an arrayed waveguide grating, AWG, the waveguides varying in optical path length incrementally across the array to thereby cause wavelength dispersion; one or more pairs of forward and backward heaters disposed at least partially within at least one of the cladding layer or the silicon device layer and laterally overlapping with the array of waveguides, each heater configured to impart an incremental heat-induced phase shift between the waveguides, the phase shift imparted by the forward heater being of an opposite sign than the phase shift imparted by the backward heater; and one or more back-etched regions formed within the silicon handle underneath respective one or more pairs of forward and backward heaters.
A resin container manufacturing method comprising: forming a first pattern (S1) at a first position in a preform to be formed to a resin container , the preform having: a body portion ; and a neck portion , forming a second pattern (S2) at a second position in the preform based on the first position of the first pattern ; wherein the forming the first pattern (S1) forms the first pattern at one of: the neck portion ; or a portion of the body portion in a vicinity of the neck portion , characterized in that the resin container manufacturing method further comprises: blowing air (S3) into the preform on which the first pattern and the second pattern are formed to form the resin container , wherein said one of the neck portion or the portion of the body portion is in a vicinity of an opening of the preform , and the blowing (S3) blows the air into the preform through the opening; and forming a third pattern (S4) at a third position in the resin container based on the first position of the first pattern . forming a first pattern (S1) at a first position in a preform to be formed to a resin container , the preform having: a body portion ; and a neck portion , a body portion ; and a neck portion , forming a second pattern (S2) at a second position in the preform based on the first position of the first pattern ; wherein the forming the first pattern (S1) forms the first pattern at one of: the neck portion ; or a portion of the body portion in a vicinity of the neck portion , characterized in that the neck portion ; or a portion of the body portion in a vicinity of the neck portion , characterized in that the resin container manufacturing method further comprises: blowing air (S3) into the preform on which the first pattern and the second pattern are formed to form the resin container , wherein said one of the neck portion or the portion of the body portion is in a vicinity of an opening of the preform , and the blowing (S3) blows the air into the preform through the opening; and forming a third pattern (S4) at a third position in the resin container based on the first position of the first pattern . blowing air (S3) into the preform on which the first pattern and the second pattern are formed to form the resin container , wherein said one of the neck portion or the portion of the body portion is in a vicinity of an opening of the preform , and the blowing (S3) blows the air into the preform through the opening; and forming a third pattern (S4) at a third position in the resin container based on the first position of the first pattern .
A method for characterizing a heterologous target sequence in the genome of a plant, the method comprising: (a) shearing the genomic DNA into fragments to create a library; (b) ligating the library fragments to adapter sequences having barcodes; (c) enriching the fragment library for a target sequence of interest; (d) pooling the enriched fragment library into sample pools; (e) sequencing sample pools comprising the enriched fragment library to obtain reads; (f) filtering and aligning the reads to the genomic sequence of a control plant and to the target sequence of interest; (g) selecting reads that align to the target sequence of interest; (h) determining junction sequences from the selected reads; and (i) using the junction sequences to characterize the integrity of the target sequence of interest in the genome of the sample plant. (a) shearing the genomic DNA into fragments to create a library; (b) ligating the library fragments to adapter sequences having barcodes; (c) enriching the fragment library for a target sequence of interest; (d) pooling the enriched fragment library into sample pools; (e) sequencing sample pools comprising the enriched fragment library to obtain reads; (f) filtering and aligning the reads to the genomic sequence of a control plant and to the target sequence of interest; (g) selecting reads that align to the target sequence of interest; (h) determining junction sequences from the selected reads; and (i) using the junction sequences to characterize the integrity of the target sequence of interest in the genome of the sample plant.
Extractor hood for extracting cooking fumes above a hob , having - a housing , and - at least one height-adjustable suspension mount , which can be attached to a ceiling by means of suspension cables and on which the housing is suspended, and at least one adjustment motor that drives at least one winding and unwinding device of the extractor hood for the suspension cables , wherein the adjustment motor is mounted on a motor suspension mount of the extractor hood , characterised in that the motor suspension mount has a torque detection device , wherein the torque detection device detects a torque generated by the adjustment motor and is connected to a control device of the adjustment motor , wherein the control device is configured to stop the adjustment motor if the detected torque is outside of a predetermined target range, wherein the adjustment motor is rotatably mounted about an axis of rotation via the motor suspension mount , wherein the torque detection device comprises a load cell , via which the adjustment motor is rotationally supported, such that the load cell detects a torque acting with respect to the axis of rotation. - a housing , and - at least one height-adjustable suspension mount , which can be attached to a ceiling by means of suspension cables and on which the housing is suspended, and at least one adjustment motor that drives at least one winding and unwinding device of the extractor hood for the suspension cables , wherein the adjustment motor is mounted on a motor suspension mount of the extractor hood ,
Compounds selected from the group No. Name "A3" 3-[4-(1-hydroxy-1-methyl-ethyl)-phenyl]-2H-isoquinolin-1-one "A5" 6-fluoro-3-[4-(1-hydroxy-1-methyl-ethyl)-phenyl]-2H-isoquinolin-1-one "A6" 7-fluoro-3-[4-(1-hydroxy-1-methyl-ethyl)-phenyl]-2H-isoquinolin-1-one "A7" 3-[4-(1-hydroxy-1-methyl-ethyl)-phenyl]-7-methyl-2H-isoquinolin-1-one "A8" 3-(4-hydroxymethyl-phenyl)-2H-isoquinolin-1-one "A16" 7-fluoro-3-{4-[1-(2-hydroxy-ethoxy)-1-methyl-ethyl]-phenyl}-2H-isoquinolin-1-one "A20" 3-[4-(1-amino-1-methyl-ethyl)phenyl]-7-fluoro-2H-isoquinolin-1-one "A23" 3-[4-(1-hydroxy-1-methyl-ethyl)phenyl]-2H-2,6-naphthyridin-1-one "A24" 3-[4-(1-hydroxy-1-methyl-ethyl)phenyl]-2H-2,7-naphthyridin-1-one "A25" 7-chloro-3-[4-(1-hydroxy-1-methyl-ethyl)phenyl]-2H-isoquinolin-1-one "A26" 3-[4-(1-hydroxy-1-methyl-ethyl)phenyl]-5-methoxy-2H-isoquinolin-1-one "A27" 8-fluoro-3-[4-(1 -hydroxy-1-methyl-ethyl)phenyl]-2H-isoquinolin-1-one "A28" 5-fluoro-3-[4-(1-hydroxy-1-methyl-ethyl)phenyl]-2H-isoquinolin-1-one "A33" 5,7-difluoro-3-[4-(1-hydroxy-1-methyl-ethyl)-phenyl]-2H-isoquinolin-1-one and pharmaceutically acceptable solvates, salts, tautomers and stereoisomers thereof, including mixtures thereof in all ratios.
An Optical barrier device for detecting objects in a monitoring area, having at least one transmitter and at least one receiver at opposite edges of the monitoring area, light beams emitted by the transmitter being guided to the receiver when the monitoring area is free, and having an evaluation unit which is designed to generate an object detection signal as a function of received signals from the receiver , the transmitter emitting light beams in the form of pulse sequences with at least two light pulses (P1, P2) separated by a pulse pause, and the evaluation unit being designed to detect a pulse sequence in that the distance between the falling edges of the light pulses (P1, P2) and/or the distance between the rising edges of the light pulses (P1, P2) is detected as a measure of the pulse interval between light pulses (P1, P2), P2) is detected, characterised in that a selection of the evaluation of the spacing of the falling edges of the light pulses (P1, P2) and/or the spacing of the rising edges of the light pulses (P1, P2) takes place depending on the signal strengths of the light pulses (P1, P2).
Flat steel product having a thickness of a maximum of 2.5 mm and an elongation at break A80 which is at least 4% and a tensile strength Rm which is from 900 to 1500 MPa and which in addition to iron and inevitable impurities comprises (in % by weight) C: 0.02 - 0.5%, Mn: 5 - 12.0%, Si: 0.05 - 1.0%, Al: up to 3.0%, Cr: 0.1 - 4.0%, Cu: up to 2.0%, Ni: up to 2.0%, N: up to 0.05%, P: up to 0.05%, S: up to 0.01% and optionally one or more elements from the group "V, Nb, Ti", wherein the sum of the contents of these elements is at a maximum equal to 0.5%, wherein the structure of the steel consists of 30 to 100% of hardening structure (martensite, tempered martensite or bainite), whilst the remainder of the structure is austenitic. C: 0.02 - 0.5%, Mn: 5 - 12.0%, Si: 0.05 - 1.0%, Al: up to 3.0%, Cr: 0.1 - 4.0%, Cu: up to 2.0%, Ni: up to 2.0%, N: up to 0.05%, P: up to 0.05%, S: up to 0.01% and optionally one or more elements from the group "V, Nb, Ti", wherein the sum of the contents of these elements is at a maximum equal to 0.5%, wherein the structure of the steel consists of 30 to 100% of hardening structure (martensite, tempered martensite or bainite), whilst the remainder of the structure is austenitic.