mhurhangee/patent-ind-claim-en huggingface dataset:
A printer-verifier for printing and verifying a printed indicium, the printer-verifier comprising: an imaging module for capturing an image of the printed indicium on print media; a memory communicatively coupled to the imaging module and configured to store a print quality verification program; and a processor communicatively coupled to the memory and configured by the print quality verification program to: evaluate a print quality of the printed indicium; determine if the print quality meets a print quality standard; reject the printed indicium on the print media as rejected printed media when the print quality does not meet the print quality standard; determine a current location of the printer-verifier ; and output location-specific feedback about the rejected printed media, the location-specific feedback is outputted in a language that is determined based on the current location of the printer-verifier . an imaging module for capturing an image of the printed indicium on print media; a memory communicatively coupled to the imaging module and configured to store a print quality verification program; and a processor communicatively coupled to the memory and configured by the print quality verification program to: evaluate a print quality of the printed indicium; determine if the print quality meets a print quality standard; reject the printed indicium on the print media as rejected printed media when the print quality does not meet the print quality standard; determine a current location of the printer-verifier ; and output location-specific feedback about the rejected printed media, the location-specific feedback is outputted in a language that is determined based on the current location of the printer-verifier . evaluate a print quality of the printed indicium; determine if the print quality meets a print quality standard; reject the printed indicium on the print media as rejected printed media when the print quality does not meet the print quality standard; determine a current location of the printer-verifier ; and output location-specific feedback about the rejected printed media, the location-specific feedback is outputted in a language that is determined based on the current location of the printer-verifier .
A method for on-demand file repair comprising: sending (101; 201), by a traffic source, all data packets of a data file to a traffic sink, wherein the data packets are not coded; sending (102; 202), by the traffic source, an indication to the traffic sink, wherein the indication indicates that all the data packets of a data file have been sent; and receiving (105; 205), by the traffic source, a request from the traffic sink for retransmission of missing packets from the all data packets, the request comprising information related to the missing packets; after receiving the request, applying, by the traffic source, fountain coding to only the missing packets to generate fountain coded packets; and sending (106; 206), by the traffic source, the fountain coded packets to the traffic sink. sending (101; 201), by a traffic source, all data packets of a data file to a traffic sink, wherein the data packets are not coded; sending (102; 202), by the traffic source, an indication to the traffic sink, wherein the indication indicates that all the data packets of a data file have been sent; and receiving (105; 205), by the traffic source, a request from the traffic sink for retransmission of missing packets from the all data packets, the request comprising information related to the missing packets; after receiving the request, applying, by the traffic source, fountain coding to only the missing packets to generate fountain coded packets; and sending (106; 206), by the traffic source, the fountain coded packets to the traffic sink.
Electronic circuit for providing protection for an energy supply for a receiving device, comprising: - a supply path for connecting the receiving device to a voltage source, wherein the supply path (ANT_SUP-ANT_OUT) has at least one first switching component (M1) in series with a second switching component (M2), and also a measuring resistor (R2), - a functional assembly for providing protection against an overcurrent in the supply path, - a functional assembly for detecting a connected receiving device and for outputting a signal for indicating a connected receiving device, - a functional assembly for providing protection against a polarity reversal for the voltage of the supply path and for outputting a signal for indicating a polarity reversal for the supply path, and - a functional assembly for detecting an earth short for the supply path and for outputting a signal for indicating an earth short, - a processor for evaluating and processing signals, wherein the signal for indicating a connected receiving device and/or the signal for indicating a polarity reversal for the supply path and/or the signal for indicating an earth short are supplied to the processor for evaluating and processing. - a supply path for connecting the receiving device to a voltage source, wherein the supply path (ANT_SUP-ANT_OUT) has at least one first switching component (M1) in series with a second switching component (M2), and also a measuring resistor (R2), - a functional assembly for providing protection against an overcurrent in the supply path, - a functional assembly for detecting a connected receiving device and for outputting a signal for indicating a connected receiving device, - a functional assembly for providing protection against a polarity reversal for the voltage of the supply path and for outputting a signal for indicating a polarity reversal for the supply path, and - a functional assembly for detecting an earth short for the supply path and for outputting a signal for indicating an earth short, - a processor for evaluating and processing signals, wherein the signal for indicating a connected receiving device and/or the signal for indicating a polarity reversal for the supply path and/or the signal for indicating an earth short are supplied to the processor for evaluating and processing.
An apparatus for inhibiting an electromagnetic relay from being frozen, the apparatus comprising: a first input portion (T1) that receives relay position information which allows identification of a location region of an electromagnetic relay ; a calculation unit that generates a control signal for controlling the electromagnetic relay ; and an output portion (T4) that outputs the control signal to the electromagnetic relay , wherein the calculation unit : determines whether the location region of the electromagnetic relay , identified by the relay position information, is a freeze region in which the electromagnetic relay is likely to be frozen; and performs a freeze inhibiting process for preventing the electromagnetic relay from being frozen or defrosting the electromagnetic relay , when the location region of the electromagnetic relay is the freeze region. a first input portion (T1) that receives relay position information which allows identification of a location region of an electromagnetic relay ; a calculation unit that generates a control signal for controlling the electromagnetic relay ; and an output portion (T4) that outputs the control signal to the electromagnetic relay , wherein the calculation unit : determines whether the location region of the electromagnetic relay , identified by the relay position information, is a freeze region in which the electromagnetic relay is likely to be frozen; and performs a freeze inhibiting process for preventing the electromagnetic relay from being frozen or defrosting the electromagnetic relay , when the location region of the electromagnetic relay is the freeze region. determines whether the location region of the electromagnetic relay , identified by the relay position information, is a freeze region in which the electromagnetic relay is likely to be frozen; and performs a freeze inhibiting process for preventing the electromagnetic relay from being frozen or defrosting the electromagnetic relay , when the location region of the electromagnetic relay is the freeze region.
Method for acquiring a dental object of a patient with an object volume, in particular at least a part of a skull , an upper jaw and/or a lower jaw , characterized in that a plurality of segment volume ranges are defined in the object volume, wherein the segment volume ranges overlap at most partially, and preferred directions of the segment volume ranges are not parallel to one another, wherein image data of the segment volume ranges is recorded by means of an MRI machine within a measuring volume of the MRI machine , wherein, computer-assisted, a two-dimensional composite image is generated from the image data of the individual segment volume ranges by projecting the image data onto a target plane , wherein the target plane is disposed parallel to a defined midsagittal plane of the skull or corresponds to the midsagittal plane , wherein a first segment volume range at least partially comprises the midsagittal plane of the skull.
A kit-of-parts for preparation of a curable coating composition, comprising three separate containers C1, C2, and C3, wherein a) the container C1 contains an isocyanate-reactive component (A) comprising a polyaspartic acid ester compound; b) the container C2 contains a polyisocyanate (B); c) the container C3 contains a solvent (S1); and wherein container C2 and/or container C3, preferably container C3, optionally contains a solvent (S2); and wherein container C1 and/or container C3, preferably container C3, optionally contains an additive (AD); characterized in that solvent (S1) is selected from monoalcohols and alkoxymonoalcohols, preferably alkoxymonoalcohols; and solvent (S2) is a ketone; and additive (AD) is selected from UV absorbers and hindered amine light stabilizers. a) the container C1 contains an isocyanate-reactive component (A) comprising a polyaspartic acid ester compound; b) the container C2 contains a polyisocyanate (B); c) the container C3 contains a solvent (S1); and wherein container C2 and/or container C3, preferably container C3, optionally contains a solvent (S2); and wherein container C1 and/or container C3, preferably container C3, optionally contains an additive (AD); characterized in that solvent (S1) is selected from monoalcohols and alkoxymonoalcohols, preferably alkoxymonoalcohols; and solvent (S2) is a ketone; and additive (AD) is selected from UV absorbers and hindered amine light stabilizers.
A portable wireless charging module for a vehicle comprising: a housing comprising a wireless charger unit and a charging surface for placing a device to be charged; an electrical connection plug fixedly connected to the housing on a side of the housing opposite the charging surface; wherein the plug is extending in a direction away from the charging surface; and wherein the charging module is configured such that the charging surface is horizontally aligned when in use, the charging module further comprising a holding element configured to hold an electronic device in place on the charging surface, wherein the holding element is a flexible element having a first portion protruding in a direction from the charging surface and a second portion , protruding from the first portion in parallel with and located at a distance from the charging surface for clamping an electronic device to the charging surface, wherein the charging module is characterized in that the flexibility of the holding element acts to provide a downwards force on the device when placed between the charging surface and the holding element , thereby clamping the device to the charging surface, and in that the holding element is provided with a high friction material of a lower side of the second portion which is in contact with the device when the device is clamped by the holding element . a housing comprising a wireless charger unit and a charging surface for placing a device to be charged; an electrical connection plug fixedly connected to the housing on a side of the housing opposite the charging surface; wherein the plug is extending in a direction away from the charging surface; and wherein the charging module is configured such that the charging surface is horizontally aligned when in use, the charging module further comprising a holding element configured to hold an electronic device in place on the charging surface, wherein the holding element is a flexible element having a first portion protruding in a direction from the charging surface and a second portion , protruding from the first portion in parallel with and located at a distance from the charging surface for clamping an electronic device to the charging surface, wherein the charging module is characterized in that the flexibility of the holding element acts to provide a downwards force on the device when placed between the charging surface and the holding element , thereby clamping the device to the charging surface, and in that the holding element is provided with a high friction material of a lower side of the second portion which is in contact with the device when the device is clamped by the holding element .
Apparatus for characterizing an electrocardiogram, comprising: a probe which is configured to receive a first unipolar signal from a first location of a heart and a second unipolar signal from a second location of the heart ; and a processor which is configured to: generate a bipolar signal from the first and second unipolar signals , analyze the bipolar signal to delineate a time period during which the first and second locations generate a bipolar complex , and analyze the first unipolar signal within the time period to determine an activation time of the first location . a probe which is configured to receive a first unipolar signal from a first location of a heart and a second unipolar signal from a second location of the heart ; and a processor which is configured to: generate a bipolar signal from the first and second unipolar signals , analyze the bipolar signal to delineate a time period during which the first and second locations generate a bipolar complex , and analyze the first unipolar signal within the time period to determine an activation time of the first location . generate a bipolar signal from the first and second unipolar signals , analyze the bipolar signal to delineate a time period during which the first and second locations generate a bipolar complex , and analyze the first unipolar signal within the time period to determine an activation time of the first location .
Operating facility for a household appliance, in particular for a gas cooker, with: an operating element , a shaft , and an operating panel with an opening for the shaft , wherein the operating element is embodied such that it can be coupled to the shaft in a torsion-proof manner and, in the coupled state, is suitable for moving the shaft that reaches through the opening in the operating panel , and wherein the operating facility further has a diffusor element , which is embodied for fitting onto the shaft and receiving light (L) from below the operating panel , wherein the operating facility has a light distribution element which is coupled to the diffusor element such that it is able to communicate light, and is embodied to convey light to a display region of the operating element above the operating panel , wherein the diffusor element comprises a sleeve-shaped section for surrounding the shaft and a plate section for collecting the light (L), and the diffusor element and the light distribution element are arranged in a torsion-proof manner in relation to one another, and wherein the operating facility comprises at least one lighting means for illuminating the diffusor element . an operating element , a shaft , and an operating panel with an opening for the shaft , wherein the operating element is embodied such that it can be coupled to the shaft in a torsion-proof manner and, in the coupled state, is suitable for moving the shaft that reaches through the opening in the operating panel , and wherein the operating facility further has a diffusor element , which is embodied for fitting onto the shaft and receiving light (L) from below the operating panel , wherein the operating facility has a light distribution element which is coupled to the diffusor element such that it is able to communicate light, and is embodied to convey light to a display region of the operating element above the operating panel , wherein the diffusor element comprises a sleeve-shaped section for surrounding the shaft and a plate section for collecting the light (L), and the diffusor element and the light distribution element are arranged in a torsion-proof manner in relation to one another, and wherein the operating facility comprises at least one lighting means for illuminating the diffusor element .
A recyclable polyethylene film of at least 80% polyethylene material and max. 20% compatible polyolefin material, wherein the polyethylene film is less than 40 μm thick and has a central layer of linear low-density polyethylene (LLDPE) and/or metallocene linear low-density polyethylene (mLLDPE) and two outer layers made of high-density polyethylene (HDPE) bonded to the central layer and surrounding the central layer , wherein the HDPE content of the polyethylene film constitutes at least 60 vol%, preferably at least 70 vol%, most especially preferably at least 80 vol%, and wherein the polyethylene film is stretched in at least one direction, characterized in that the two outer layers together are at least three times as thick as the central layer , preferably at least four times as thick.
A method of determining abnormality of a heart of a fetus, the method comprising: detecting a chest and a spine of the fetus in an ultrasound image of a fetal heart; receiving a user's input for inputting information regarding left and right directions of the chest of the fetus in the ultrasound image; detecting a position of the heart in the ultrasound image; and determining abnormality of the heart of the fetus based on the information about the left and right directions input by the user's input and information about the detected position of the heart. detecting a chest and a spine of the fetus in an ultrasound image of a fetal heart; receiving a user's input for inputting information regarding left and right directions of the chest of the fetus in the ultrasound image; detecting a position of the heart in the ultrasound image; and determining abnormality of the heart of the fetus based on the information about the left and right directions input by the user's input and information about the detected position of the heart.
Fuel manifold designed to communicate with at least one fuel tank of an aircraft, said manifold defining an enclosure designed to be filled with fuel and to present an internal pressure P1 greater than the internal pressure P2 of the fuel tank, wherein the enclosure comprises at least one ceiling and at least one side wall provided with overflow holes designed to communicate with the fuel tank, characterised in that it comprises means of evacuation to the fuel tank of an air bubble trapped between the ceiling and the level of the overflow holes , said means of evacuation presenting: - in the form of at least one sloping panel connecting the side wall and the ceiling , and positioned such that the overflow holes are arranged flush with said sloping panel ; and/or - in the form of at least one pipe presenting at least one inlet arranged between the ceiling and the level of the overflow holes , and an outlet positioned outside of the manifold and designed to communicate with the adjacent fuel tank. - in the form of at least one sloping panel connecting the side wall and the ceiling , and positioned such that the overflow holes are arranged flush with said sloping panel ; and/or - in the form of at least one pipe presenting at least one inlet arranged between the ceiling and the level of the overflow holes , and an outlet positioned outside of the manifold and designed to communicate with the adjacent fuel tank.
A method of measuring indices in superabsorbents, by initially charging excess aqueous solution or dispersion, swelling the superabsorbent in the initially charged aqueous solution or dispersion while stirring, dissolving or dispersing at least one component A in the aqueous solution or dispersion and measuring the enrichment of the at least one component A in the aqueous solution or dispersion during the swelling of the superabsorbent, wherein the enrichment of component A in the aqueous solution or dispersion is used to measure the time-dependent swelling characteristics and these are used to calculate the swelling constant k or the characteristic swell time τ, the index is dependent on the permeability of the superabsorbent, and the index is ascertained by means of a correlation measured beforehand between swelling constant k and index or characteristic swell time τ and index.
A method for configuring a classifier to make it able to determine an operating regime of a system comprising a fuel cell, among a plurality of predetermined operating regimes of said system, the method being implemented by computer and comprising, one the one hand, at least once for each regime among said plurality of predetermined operating regimes, the following steps: (S30) acquiring a vector of values at N successive instants of a variable (x) whose value depends on an operating regime of the system, and the variable being a voltage (x) measured at terminals (A, B) of the fuel cell ; (S40, S50, S60) calculating a vector of instantaneous envelopes (ex(n)) and a vector of instantaneous frequencies (fx(n)) based on the vector of acquired values; (S70) for each of the vectors of acquired values, of instantaneous envelopes, and of instantaneous frequencies, calculating a vector of statistical descriptor values; the method comprising, on the other hand, the following step: (S100) configuring a first classifier such that it associates with each of the vectors of statistical descriptor values, calculated in step S70, the operating regime in which the system was when the vector of acquired values which made it possible to calculate the vector of statistical descriptors considered was acquired. the method being implemented by computer and comprising, one the one hand, at least once for each regime among said plurality of predetermined operating regimes, the following steps: (S30) acquiring a vector of values at N successive instants of a variable (x) whose value depends on an operating regime of the system, and the variable being a voltage (x) measured at terminals (A, B) of the fuel cell ; (S40, S50, S60) calculating a vector of instantaneous envelopes (ex(n)) and a vector of instantaneous frequencies (fx(n)) based on the vector of acquired values; (S70) for each of the vectors of acquired values, of instantaneous envelopes, and of instantaneous frequencies, calculating a vector of statistical descriptor values; (S30) acquiring a vector of values at N successive instants of a variable (x) whose value depends on an operating regime of the system, and the variable being a voltage (x) measured at terminals (A, B) of the fuel cell ; (S40, S50, S60) calculating a vector of instantaneous envelopes (ex(n)) and a vector of instantaneous frequencies (fx(n)) based on the vector of acquired values; (S70) for each of the vectors of acquired values, of instantaneous envelopes, and of instantaneous frequencies, calculating a vector of statistical descriptor values; the method comprising, on the other hand, the following step: (S100) configuring a first classifier such that it associates with each of the vectors of statistical descriptor values, calculated in step S70, the operating regime in which the system was when the vector of acquired values which made it possible to calculate the vector of statistical descriptors considered was acquired.