mhurhangee/ep-ind-claims huggingface dataset:
A security element (104, 204, 300, 400, 500, 600, 700, 800, 900) for manufacturing a value document (100, 200, 320, 420, 520), comprising a window region (106, 206) with an upper side and a lower side, each of which defining a principal face (HF F) of the security element, and with a specific thickness (d F) which extends in the direction of the principal face normal; and at least one embedding region (108, 110, 208, 210) which is arranged laterally at the window region (106, 206) and is suitable for embedding into a value document substrate (102, 202) and which has a multiplicity of holes, wherein the embedding region (108, 110, 208, 210) has a specific thickness (d E) which extends in the direction of the principal face normal and which is smaller than the specific thickness (d F) of the window region (106, 206), characterized in that the holes are provided for anchoring the embedding region (108, 110, 208, 210) in the value document substrate (102, 202) and the thickness of the window region is specified in such a manner that the thickness of the window region corresponds to the thickness of the value document substrate (102, 202) into which the security element is to be embedded, wherein the specific thickness (d F) of the window region (106, 206) is in a range from 70 μm to 100 μm.
Method of adjusting at least one sensor of installed building service sensors of a building service system, wherein the system further comprises at least one installed building service supply device, wherein the at least one installed building service supply device comprises one or more of luminaires, wherein said installed building service sensors comprise any one or more of presence detection sensors and movement sensors, said at least one sensor being an active sensor arranged to output a sensing signal and sense a response or reflection signal, the method comprising the step of: automatically adjusting a sensor coverage area of said at least one sensor by adjusting the amplitude of the sensing signal, the adjusting of the sensor coverage area of each of said at least one sensor being based on information on a position of the installed sensor relative to at least one other sensor of the installed building service sensors; using information on the position of said at least one sensor to assign to each of said at least one sensor at least one of the at least one installed building service supply device. automatically adjusting a sensor coverage area of said at least one sensor by adjusting the amplitude of the sensing signal, the adjusting of the sensor coverage area of each of said at least one sensor being based on information on a position of the installed sensor relative to at least one other sensor of the installed building service sensors; using information on the position of said at least one sensor to assign to each of said at least one sensor at least one of the at least one installed building service supply device.
A method for training a speech separation model, executable by a computer device, the method comprising: obtaining a first audio signal and a second audio signal, wherein the first audio signal comprises a target audio signal component and a labeled audio signal component, and the second audio signal comprising a noise audio signal; obtaining an encoding model, an extraction model, and an initial estimation model, wherein an output of the encoding model is inputted to the extraction model, both the output of the encoding model and an output of the extraction model are inputted to the estimation model, and the encoding model and the extraction model jointly perform speech separation; performing unsupervised training on the encoding model, the extraction model, and the estimation model according to the second audio signal |to adjust model parameters of the extraction model and the estimation model; performing supervised training on the encoding model and the extraction model according to the first audio signal and the labeled audio signal component comprised in the first audio signal to adjust a model parameter of the encoding model; and performing the unsupervised training and the supervised training in combination, until a training stop condition is met. obtaining a first audio signal and a second audio signal, wherein the first audio signal comprises a target audio signal component and a labeled audio signal component, and the second audio signal comprising a noise audio signal; obtaining an encoding model, an extraction model, and an initial estimation model, wherein an output of the encoding model is inputted to the extraction model, both the output of the encoding model and an output of the extraction model are inputted to the estimation model, and the encoding model and the extraction model jointly perform speech separation; performing unsupervised training on the encoding model, the extraction model, and the estimation model according to the second audio signal |to adjust model parameters of the extraction model and the estimation model; performing supervised training on the encoding model and the extraction model according to the first audio signal and the labeled audio signal component comprised in the first audio signal to adjust a model parameter of the encoding model; and performing the unsupervised training and the supervised training in combination, until a training stop condition is met.
A steam characteristics automatic measuring device comprising: a piping connected with a cooler for cooling steam sampled from steam to be introduced into a power-generation turbine, the piping introducing into the device a mixture of a condensate obtained by cooling the steam with the cooler and non-condensable gas separated from the steam by the cooling; a silica monitor for measuring a concentration of silica included in the condensate; an electrical conductivity meter for automatically measuring an electrical conductivity of the condensate; a pH meter for automatically measuring a pH value of the condensate; characterized in that the steam characteristics automatic measuring device further comprises: an automatic non-condensable gas flowmeter for measuring an amount of non-condensable gas included in the steam; and a data processing transmitter for automatically transmitting data measured by each of the silica monitor, the electrical conductivity meter and the pH meter, and for automatically transmitting data measured by the automatic non-condensable gas flowmeter. a piping connected with a cooler for cooling steam sampled from steam to be introduced into a power-generation turbine, the piping introducing into the device a mixture of a condensate obtained by cooling the steam with the cooler and non-condensable gas separated from the steam by the cooling; a silica monitor for measuring a concentration of silica included in the condensate; an electrical conductivity meter for automatically measuring an electrical conductivity of the condensate; a pH meter for automatically measuring a pH value of the condensate; characterized in that the steam characteristics automatic measuring device further comprises: an automatic non-condensable gas flowmeter for measuring an amount of non-condensable gas included in the steam; and a data processing transmitter for automatically transmitting data measured by each of the silica monitor, the electrical conductivity meter and the pH meter, and for automatically transmitting data measured by the automatic non-condensable gas flowmeter. an automatic non-condensable gas flowmeter for measuring an amount of non-condensable gas included in the steam; and a data processing transmitter for automatically transmitting data measured by each of the silica monitor, the electrical conductivity meter and the pH meter, and for automatically transmitting data measured by the automatic non-condensable gas flowmeter.
A method, comprising: transmitting a first subset of a- plurality of data packets using a WiFi interface of a first device as part of a communication having a first range, transmitting a second subset of the plurality of data packets using a second WiFi interface of the first device having a second range shorter than the first range, wherein each data packet of the second subset has a signal strength following a predetermined pattern on a per packet basis; and receiving an indication, via the WiFi interface, of whether the predetermined pattern has been identified by a second device. transmitting a first subset of a- plurality of data packets using a WiFi interface of a first device as part of a communication having a first range, transmitting a second subset of the plurality of data packets using a second WiFi interface of the first device having a second range shorter than the first range, wherein each data packet of the second subset has a signal strength following a predetermined pattern on a per packet basis; and receiving an indication, via the WiFi interface, of whether the predetermined pattern has been identified by a second device.
A sound reducer, comprising - a housing having a casing which extends longitudinally along a housing axis and is rotationally symmetrical about the housing axis, and two end walls which are orientated transversely to the housing axis and have a convex base curvature which is rotationally symmetrical with respect to the housing axis, and - a main tube passing through the housing parallel offset to the housing axis with windows formed as tube wall openings, wherein the main pipe is fixed in a sealing manner in passages passing through the end walls, the end walls merging in the region of the passages into outwardly pointing pipe sockets which project from the respective end wall in one piece and in the same material, and the respective annular transition region between the end wall and the pipe socket being concavely curved in deviation from the convex basic curvature, characterised in that the pipe sockets point exclusively outwards and the radius of the concave curvature is at least 1/15 of the radius of the convex curvature of the base curvature. - a housing having a casing which extends longitudinally along a housing axis and is rotationally symmetrical about the housing axis, and two end walls which are orientated transversely to the housing axis and have a convex base curvature which is rotationally symmetrical with respect to the housing axis, and - a main tube passing through the housing parallel offset to the housing axis with windows formed as tube wall openings, wherein the main pipe is fixed in a sealing manner in passages passing through the end walls, the end walls merging in the region of the passages into outwardly pointing pipe sockets which project from the respective end wall in one piece and in the same material, and the respective annular transition region between the end wall and the pipe socket being concavely curved in deviation from the convex basic curvature, characterised in that the pipe sockets point exclusively outwards and the radius of the concave curvature is at least 1/15 of the radius of the convex curvature of the base curvature.
An electrochromic device comprising: (a) a first electrode; (b) a second electrode; (c) an electrochromic material; and (d) a gel polymer electrolyte containing an ionic liquid and not including organic solvents. (a) a first electrode; (b) a second electrode; (c) an electrochromic material; and (d) a gel polymer electrolyte containing an ionic liquid and not including organic solvents.
A switching mode power supply SMPS including at least two transformers (130,162), the SMPS comprising: a rectifier configured to rectify an alternating current AC voltage; a first switching unit configured to switch the voltage rectified by the rectifier; a first transformer configured to convert the rectified voltage into a first output voltage of the SMPS according to a switching operation of the first switching unit; a first switching control unit including a startup voltage terminal and a power voltage terminal, the first switching control unit configured to control the first switching unit; a power blocking unit configured to block power supply to the startup voltage terminal and the power voltage terminal of the first switching control unit when the SMPS is in the power saving mode; and a supplemental output voltage unit configured to output a second output voltage of the SMPS using a second transformer to convert the rectified voltage into the second output voltage of the SMPS when the SMPS is in the power saving mode, wherein, the power voltage terminal receives power to operate the first switching control unit, and the startup voltage terminal receives startup current in order to start the first switching control unit when the power voltage of the first switching control unit is below the threshold voltage. a rectifier configured to rectify an alternating current AC voltage; a first switching unit configured to switch the voltage rectified by the rectifier; a first transformer configured to convert the rectified voltage into a first output voltage of the SMPS according to a switching operation of the first switching unit; a first switching control unit including a startup voltage terminal and a power voltage terminal, the first switching control unit configured to control the first switching unit; a power blocking unit configured to block power supply to the startup voltage terminal and the power voltage terminal of the first switching control unit when the SMPS is in the power saving mode; and a supplemental output voltage unit configured to output a second output voltage of the SMPS using a second transformer to convert the rectified voltage into the second output voltage of the SMPS when the SMPS is in the power saving mode, wherein, the power voltage terminal receives power to operate the first switching control unit, and the startup voltage terminal receives startup current in order to start the first switching control unit when the power voltage of the first switching control unit is below the threshold voltage.
An apparatus of determining a failure in a thermostat for controlling the flow of a coolant into a radiator in response to an actual water temperature of the coolant for an engine in a vehicle, the apparatus comprising: a water temperature detector that detects the actual water temperature; a water temperature estimator that calculates an estimated water temperature (WT C) of the coolant; and a failure determining unit that compares the actual water temperature detected by the water temperature detector with the estimated water temperature (WT C) calculated by the water temperature estimator under cold start of the engine and determines whether the thermostat is valve-open failure, characterised in that in an engine nonoperating mode including at least automatic stop of the engine, the water temperature estimator applies a behavior of the actual water temperature to an estimated water temperature (WT C) calculated immediately before automatic stop of the engine to calculate an estimated water temperature (WT C) in the engine nonoperating mode based on a temperature gradient of the actual water temperature assuming that a temperature gradient of the estimated water temperature (WT C) in the engine nonoperating mode varies identically to the temperature gradient of the actual water temperature. a water temperature detector that detects the actual water temperature; a water temperature estimator that calculates an estimated water temperature (WT C) of the coolant; and a failure determining unit that compares the actual water temperature detected by the water temperature detector with the estimated water temperature (WT C) calculated by the water temperature estimator under cold start of the engine and determines whether the thermostat is valve-open failure, characterised in that in an engine nonoperating mode including at least automatic stop of the engine, the water temperature estimator applies a behavior of the actual water temperature to an estimated water temperature (WT C) calculated immediately before automatic stop of the engine to calculate an estimated water temperature (WT C) in the engine nonoperating mode based on a temperature gradient of the actual water temperature assuming that a temperature gradient of the estimated water temperature (WT C) in the engine nonoperating mode varies identically to the temperature gradient of the actual water temperature.
A composition comprising genetically unmodified stem cells for use in a method of treating an inflammatory disease in a subject in need thereof, the method comprising administering to the subject the composition, wherein said genetically unmodified stem cells express angiopoietin-1 in an amount of at least 0.1 μg/10 6 cells.
A dental polymerizable composition comprising: a first component containing a (meth)acrylate free of an acid group, a (meth)acrylate having a carboxyl group, a basic filler, and an organic peroxide; and a second component containing a (meth)acrylate free of an acid group, a vanadium compound, and a thiourea derivative, wherein a content of the (meth)acrylate having the carboxyl group in the dental polymerizable composition is 0.1 to 0.9% by mass, wherein the basic filler is one or more selected from barium glass powder, strontium glass powder, lanthanum glass powder, barium boroaluminosilicate glass powder, strontium boroaluminosilicate glass powder, lanthanum aluminosilicate glass powder, strontium fluoroaluminosilicate glass powder, barium fluoroaluminosilicate glass powder, and lanthanum fluoroaluminosilicate glass powder, and wherein the thiourea derivative is one or more selected from ethylene thiourea, N-methylthiourea, N-ethylthiourea, N-propylthiourea, N-butylthiourea, N-lauryl thiourea, N-phenylthiourea, N-cyclohexylthiourea, N,N-dimethyl thiourea, N,N-diethylthiourea, N,N-dipropylthiourea, N,N-dibutylthiourea, N,N-dilauryl thiourea, N,N-diphenylthiourea, N,N-dicyclohexylthiourea, trimethylthiourea, tetramethyl thiourea, N-acetylthiourea, N-benzoyl thiourea, 1-allyl-3-(2-hydroxyethyl)-2-thiourea, 1-(2-tetrahydrofurfuryl)-2-thiourea, N-tert-butyl-N'-isopropylthiourea, and 2-pyridylthiourea. a first component containing a (meth)acrylate free of an acid group, a (meth)acrylate having a carboxyl group, a basic filler, and an organic peroxide; and a second component containing a (meth)acrylate free of an acid group, a vanadium compound, and a thiourea derivative, wherein a content of the (meth)acrylate having the carboxyl group in the dental polymerizable composition is 0.1 to 0.9% by mass, wherein the basic filler is one or more selected from barium glass powder, strontium glass powder, lanthanum glass powder, barium boroaluminosilicate glass powder, strontium boroaluminosilicate glass powder, lanthanum aluminosilicate glass powder, strontium fluoroaluminosilicate glass powder, barium fluoroaluminosilicate glass powder, and lanthanum fluoroaluminosilicate glass powder, and wherein the thiourea derivative is one or more selected from ethylene thiourea, N-methylthiourea, N-ethylthiourea, N-propylthiourea, N-butylthiourea, N-lauryl thiourea, N-phenylthiourea, N-cyclohexylthiourea, N,N-dimethyl thiourea, N,N-diethylthiourea, N,N-dipropylthiourea, N,N-dibutylthiourea, N,N-dilauryl thiourea, N,N-diphenylthiourea, N,N-dicyclohexylthiourea, trimethylthiourea, tetramethyl thiourea, N-acetylthiourea, N-benzoyl thiourea, 1-allyl-3-(2-hydroxyethyl)-2-thiourea, 1-(2-tetrahydrofurfuryl)-2-thiourea, N-tert-butyl-N'-isopropylthiourea, and 2-pyridylthiourea.
A medical check valve for use in a medical device to provide one-way fluid flow between a first fluid location and a second fluid location, said check valve comprising: a flexible diaphragm comprising a top surface, a bottom surface, and a side wall between the top surface and the bottom surface; characterised in that a first support member extends from the bottom surface of the flexible diaphragm and a second support member extends from the bottom surface of the flexible diaphragm, the first support member and second support member positioned to define a line of symmetry that bisects the bottom surface without passing through the first support member or the second support member; wherein the flexible diaphragm has a first position in which the top surface is generally planar and is configured to seal against a fluid opening and a second position in which the top surface of the diaphragm is curved around the line of symmetry and is configured to be displaced from the fluid opening. a flexible diaphragm comprising a top surface, a bottom surface, and a side wall between the top surface and the bottom surface; characterised in that a first support member extends from the bottom surface of the flexible diaphragm and a second support member extends from the bottom surface of the flexible diaphragm, the first support member and second support member positioned to define a line of symmetry that bisects the bottom surface without passing through the first support member or the second support member; wherein the flexible diaphragm has a first position in which the top surface is generally planar and is configured to seal against a fluid opening and a second position in which the top surface of the diaphragm is curved around the line of symmetry and is configured to be displaced from the fluid opening.
A wheel-well closure system for a motor vehicle, having a wheel-arch delimiting a wheel-well and a wheel system mounted in the wheel-well, the system comprising:- a support structure (20; 120) connected to the wheel-arch; and- a cover connected to the support structure (20; 120) and covering the wheel-well;wherein the cover is made of a flexible material and is secured to the wheel arch;wherein the wheel system comprises a wheel, a continuous annular part secured to the wheel facing the cover and rotating with the wheel about a horizontal axis; and characterized in that the support structure (20; 120) comprises an arm (22; 122) extending radially in front of the wheel system and against the cover, a steering movement of the wheel about a vertical axis causing the continuous annular part of the wheel system to push the support structure (20; 120) and stretch the cover outside the wheel-well.
A discontinuous atmospheric pressure interface system comprising: an ionizing source for converting molecules into gas phase ions in a region at about atmospheric pressure; and a trapping device in a region at reduced pressure; wherein a discontinuous atmospheric pressure interface adapted to transfer the ions from the region at about atmospheric pressure to said region at a reduced pressure; wherein the interface comprises a valve for controlling entry of the ions into the trapping device such that the ions are transferred into the trapping device in a discontinuous mode; characterized in that no intermediate vacuum stages are present between said region at atmospheric pressure and said region at reduced pressure.