mhurhangee/ep-ind-claims huggingface dataset:
An ECG signal acquisition system comprising: an analogue readout unit configured to receive an analogue ECG signal and to extract, from that received analogue ECG signal, an analogue measured ECG signal and an analogue electrode-tissue impedance signal; an ADC unit configured to provide a digital version of the analogue measured ECG signal and the analogue electrode-tissue impedance signal; a reference signal processing unit configured to convert the electrode-tissue impedance signal into a new reference signal; wherein the reference signal processing unit is configured to perform a polarity calculation based on the correlation between the measured ECG signal and the electrode-tissue impedance signal; and wherein the reference signal processing unit generates a new reference signal that is the same as the electrode-tissue impedance signal if the polarity information has a first value indicating that the electrode-tissue impedance signal has the same polarity as the measured ECG signal, or generates a new reference signal that has a polarity opposite to the polarity of the electrode-tissue impedance signal if the polarity information has a second value indicating that the electrode-tissue impedance signal has an opposite polarity than the measured ECG signal; a digital filter unit configured to calculate a digital motion artifact estimate based on the digital version of the measured ECG signal and the new reference signal provided by the reference signal processing unit. an analogue readout unit configured to receive an analogue ECG signal and to extract, from that received analogue ECG signal, an analogue measured ECG signal and an analogue electrode-tissue impedance signal; an ADC unit configured to provide a digital version of the analogue measured ECG signal and the analogue electrode-tissue impedance signal; a reference signal processing unit configured to convert the electrode-tissue impedance signal into a new reference signal; wherein the reference signal processing unit is configured to perform a polarity calculation based on the correlation between the measured ECG signal and the electrode-tissue impedance signal; and wherein the reference signal processing unit generates a new reference signal that is the same as the electrode-tissue impedance signal if the polarity information has a first value indicating that the electrode-tissue impedance signal has the same polarity as the measured ECG signal, or generates a new reference signal that has a polarity opposite to the polarity of the electrode-tissue impedance signal if the polarity information has a second value indicating that the electrode-tissue impedance signal has an opposite polarity than the measured ECG signal; a digital filter unit configured to calculate a digital motion artifact estimate based on the digital version of the measured ECG signal and the new reference signal provided by the reference signal processing unit.
A method for controlling an elevator, the method comprising: receiving, by a computing device comprising a processor, a request for at least one service associated with an elevator system from a user device; controlling an elevator car to travel to a specific floor in accordance with the request; and controlling a door of the elevator car to be closed upon arriving at the specific floor, characterized by transmitting an indicator to the user device that the elevator car has arrived at the specific floor; receiving an access request from the user device; and controlling the elevator car door to open upon receiving, by the computing device, the access request from the user device. receiving, by a computing device comprising a processor, a request for at least one service associated with an elevator system from a user device; controlling an elevator car to travel to a specific floor in accordance with the request; and controlling a door of the elevator car to be closed upon arriving at the specific floor, characterized by transmitting an indicator to the user device that the elevator car has arrived at the specific floor; receiving an access request from the user device; and controlling the elevator car door to open upon receiving, by the computing device, the access request from the user device.
An article comprising a composition, wherein the composition comprises, by weight percent: 13.7% to 14.3% chromium (Cr); 9.0% to 10.0% cobalt (Co); 3.5% to 3.9% aluminum (Al); 3.4% to 3.8% titanium (Ti); 4.0% to 4.4% tungsten; 1.4% to 1.7% molybdenum (Mo); 1.55% to 1.75% niobium (Nb); 0.08% to 0.12% carbon; 0.005% to 0.040% zirconium (Zr); 0.010% to 0.014% boron; balance nickel (Ni) and incidental impurities, and wherein the composition is free of tantalum (Ta) or includes tantalum (Ta) as a trace element in an amount of less than 0.01%, by weight, of the composition and the composition includes a microstructure devoid of Eta phase or with minimized amount of Eta phase. 13.7% to 14.3% chromium (Cr); 9.0% to 10.0% cobalt (Co); 3.5% to 3.9% aluminum (Al); 3.4% to 3.8% titanium (Ti); 4.0% to 4.4% tungsten; 1.4% to 1.7% molybdenum (Mo); 1.55% to 1.75% niobium (Nb); 0.08% to 0.12% carbon; 0.005% to 0.040% zirconium (Zr); 0.010% to 0.014% boron;
Method for determining the likelihood of a user being at or beyond a predetermined rate of visual field progression, comprising the following steps - a placing step comprising placing a continuous-wear sensor on an eye of a user; - a measuring step comprising measuring ocular biomechanical properties through the continuous-wear sensor located on the eye, with said measurement comprising repeated data capture at regular time intervals; - a recording step comprising recording the user's ocular biomechanical properties in the form of at least one OBP time series plot in a recorder; - a processing step wherein one or more OBP parameters are extracted from the at least one recorded OBP time series plot; - a calculation step wherein the one or more extracted OBP parameters are combined with additional user metadata so as to calculate a VFP rate; - a determining step wherein one determines whether the VFP rate is at or beyond a predetermined threshold or the probability that the said VFP rate is comprised within a specific range, and - wherein the method provides an output capable of discriminating between users experiencing fast versus slow progression. - a placing step comprising placing a continuous-wear sensor on an eye of a user; - a measuring step comprising measuring ocular biomechanical properties through the continuous-wear sensor located on the eye, with said measurement comprising repeated data capture at regular time intervals; - a recording step comprising recording the user's ocular biomechanical properties in the form of at least one OBP time series plot in a recorder; - a processing step wherein one or more OBP parameters are extracted from the at least one recorded OBP time series plot; - a calculation step wherein the one or more extracted OBP parameters are combined with additional user metadata so as to calculate a VFP rate; - a determining step wherein one determines whether the VFP rate is at or beyond a predetermined threshold or the probability that the said VFP rate is comprised within a specific range, and - wherein the method provides an output capable of discriminating between users experiencing fast versus slow progression.
An apparatus, comprising: an I/O interface; and a management engine coupled with the I/O interface and configured to retrieve a user key by applying a user key decryption algorithm to an encrypted user key received from a user application of the apparatus, create a management engine key by applying a management engine key creation algorithm to the user key, encrypt the management engine key by applying a management engine key encryption algorithm to the management engine key, send the encrypted management engine key to a remote server, retrieve a server key by applying a server key decryption algorithm to an encrypted server key received from the remote server; perform a hash combination of the user key, the management engine key, and the server key to create a super key, perform an authentication of the super key, and send a management engine certification to the user application in response to the super key being successfully authenticated. an I/O interface; and a management engine coupled with the I/O interface and configured to retrieve a user key by applying a user key decryption algorithm to an encrypted user key received from a user application of the apparatus, create a management engine key by applying a management engine key creation algorithm to the user key, encrypt the management engine key by applying a management engine key encryption algorithm to the management engine key, send the encrypted management engine key to a remote server, retrieve a server key by applying a server key decryption algorithm to an encrypted server key received from the remote server; perform a hash combination of the user key, the management engine key, and the server key to create a super key, perform an authentication of the super key, and send a management engine certification to the user application in response to the super key being successfully authenticated.
A composite fin plug (10, 40) mounting for a fin including: • a fin plug of plastics material, having a top surface and a bottom surface surrounding at least one fin cavity in the fin plug for receiving a base element of the fin, the at least one fin cavity extending inwardly from at least one opening in the top surface; • at least one of a recess or an aperture in the top surface; characterised in that said at least one recess or aperture in the top surface is filled with a foam material (40, 42), wherein the foam material (40, 42) in the top surface is adapted to form, in use, a surface for bonding with an overlying glass layer of a water craft when the composite fin plug (10, 40) mounting is installed in the water craft. • a fin plug of plastics material, having a top surface and a bottom surface surrounding at least one fin cavity in the fin plug for receiving a base element of the fin, the at least one fin cavity extending inwardly from at least one opening in the top surface; • at least one of a recess or an aperture in the top surface;
Method for improving the control of an asynchronous motor with a stator and a rotor having magnetic anisotropy, wherein a rotational speed or a slip frequency of the asynchronous motor is controlled by means of a model, in particular by a field-oriented control model to which time-dependent voltage measurement values and/or current measurement values, which are dependent on the magnetic fields occurring in the asynchronous motor, are fed, and wherein the model takes into account at least one variable machine parameter, characterized in that the fluctuations in an anisotropy evaluator, which are generated by the magnetic anisotropy of the rotor in the current measurement values and/or voltage measurement values, are evaluated and on the basis thereof a current slip frequency and/or rotational speed of the rotor are/is determined, wherein by comparing the current slip frequency or rotational speed acquired in the anisotropy evaluator with a corresponding estimated value of the rotational speed or slip frequency acquired from the model deviations in the machine parameter of the model from a value which is desired in terms of control technology are detected and the machine parameter in the model is changed until essential correspondence between the slip frequency or rotational speed which is estimated on the basis of the model and the current slip frequency or rotational speed which is determined by the anisotropy evaluator is achieved.
A diesel engine with an exhaust gas treatment device comprising a DOC disposed in an exhaust passage and a DPF disposed downstream of the DOC, wherein a DPF regeneration control device is configured to control the execution of forced regeneration that removes PM deposited on the DPF by increasing a temperature of the DPF, the DPF regeneration control device comprising: a deposition condition determination unit for determining whether a deposition condition that a SOF deposition amount on the DOC exceeds a predetermined deposition amount is satisfied, the SOF being soluble organic fraction; a valve throttle unit configured for limiting the valve opening of at least one of an intake throttle valve or an exhaust throttle valve at the start of the forced regeneration so as to rise the temperature of the DOC; a determination unit configured to determine whether an injection start condition corresponding to a remaining SOF deposition amount on the DOC is satisfied after the forced regeneration starts and after an upstream temperature of the DOC reaches a predetermined temperature; and an injection execution unit configured to start late-post injection of fuel to the DOC when the injection start condition is satisfied, wherein the injection start condition comprises a first injection start condition that a time from when the upstream temperature of the DOC reaches a first temperature to when the late-post injection starts is equal to or longer than a delay time set according to the remaining SOF deposition amount on the DOC. a deposition condition determination unit for determining whether a deposition condition that a SOF deposition amount on the DOC exceeds a predetermined deposition amount is satisfied, the SOF being soluble organic fraction; a valve throttle unit configured for limiting the valve opening of at least one of an intake throttle valve or an exhaust throttle valve at the start of the forced regeneration so as to rise the temperature of the DOC; a determination unit configured to determine whether an injection start condition corresponding to a remaining SOF deposition amount on the DOC is satisfied after the forced regeneration starts and after an upstream temperature of the DOC reaches a predetermined temperature; and an injection execution unit configured to start late-post injection of fuel to the DOC when the injection start condition is satisfied, wherein the injection start condition comprises a first injection start condition that a time from when the upstream temperature of the DOC reaches a first temperature to when the late-post injection starts is equal to or longer than a delay time set according to the remaining SOF deposition amount on the DOC.
Human milk oligosaccharides (HMOs) for use in: - the prophylaxis or treatment of antibiotic-associated diarrhoea, and/or - the prophylaxis or treatment of primary or recurrent Clostridium difficile infection, in a human patient undergoing or having undergone antibiotic therapy, wherein at least 2 g of HMOs is administered to the human daily, wherein the HMOs is a mixture consisting of 2'-fucosyllactose (2'-FL) and lacto-N-neotetraose (LNnT), and wherein the HMOs contain about 1.5:1 to about 5:1 of 2'-FL:LNnT by weight. - the prophylaxis or treatment of antibiotic-associated diarrhoea, and/or - the prophylaxis or treatment of primary or recurrent Clostridium difficile infection, in a human patient undergoing or having undergone antibiotic therapy, wherein at least 2 g of HMOs is administered to the human daily, wherein the HMOs is a mixture consisting of 2'-fucosyllactose (2'-FL) and lacto-N-neotetraose (LNnT), and wherein the HMOs contain about 1.5:1 to about 5:1 of 2'-FL:LNnT by weight.
An image forming apparatus, comprising: a body; a case forming an external appearance of the body; a card reader disposed inside the case; a supporting member protruding from an inner surface of the case so as to support a lower portion of the card reader; and a pressing member pressing the card reader placed on the supporting member toward the inner surface of the case such that the card reader comes into contact with the inner surface of the case. a body; a case forming an external appearance of the body; a card reader disposed inside the case; a supporting member protruding from an inner surface of the case so as to support a lower portion of the card reader; and a pressing member pressing the card reader placed on the supporting member toward the inner surface of the case such that the card reader comes into contact with the inner surface of the case.
A charging method of a robot cleaner moved by a user to a location close to a charging apparatus for manual charging, the method comprising: sensing a connected state between charging terminals of the charging apparatus and connecting terminals of the robot cleaner; determining (S13; S14) whether the robot cleaner at the location close to the charging apparatus is positioned in a predetermined range from the charging apparatus by detecting a short distance signal transmitted from the charging apparatus when the charging terminals and the connecting terminals are separated from each other; and determining whether the robot cleaner is positioned to face a front of the charging apparatus by using a front sensor that is installed on a front of the robot cleaner and made up of a distance sensor when it is determined that the robot cleaner at the location close to the charging apparatus is positioned in the predetermined range from the charging apparatus; and automatically moving and docking the robot cleaner with the charging apparatus so as to be charged with electricity supplied by the charging apparatus when it is determined that the robot cleaner is positioned to face the front of the charging apparatus. sensing a connected state between charging terminals of the charging apparatus and connecting terminals of the robot cleaner; determining (S13; S14) whether the robot cleaner at the location close to the charging apparatus is positioned in a predetermined range from the charging apparatus by detecting a short distance signal transmitted from the charging apparatus when the charging terminals and the connecting terminals are separated from each other; and determining whether the robot cleaner is positioned to face a front of the charging apparatus by using a front sensor that is installed on a front of the robot cleaner and made up of a distance sensor when it is determined that the robot cleaner at the location close to the charging apparatus is positioned in the predetermined range from the charging apparatus; and automatically moving and docking the robot cleaner with the charging apparatus so as to be charged with electricity supplied by the charging apparatus when it is determined that the robot cleaner is positioned to face the front of the charging apparatus.
A fired heat exchanger, having an outer shell and an inner shell, a water tank being formed between the outer shell and the inner shell forming a side wall of a combustion chamber, whereby the combustion chamber is enclosed at the bottom with a bonnet having a burner hole, the heat exchanger having an inlet pipe at the bottom and an outlet pipe at the top part, the heat exchanger being provided with tubes for combustion gas flow through a flue duct to a stack, whereby the tubes for combustion gas flow are arranged in the water tank radially around the combustion chamber side wall and are connected to the flue duct using a circular tube sheet of the water tank, the tubes for combustion gas flow are connected to the combustion chamber through first holes made in the upper part of the combustion chamber side wall, characterised in that the heat exchanger has a water distributor with second holes for supplying water to the water tank located under the bonnet of the combustion chamber and located on the inner shell.
A fluid ejection device, comprising: a fluid slot; a fluid ejection chamber communicated with the fluid slot; a drop ejecting element within the fluid ejection chamber; a fluid circulation channel communicated at one end with the fluid slot and communicated at another end with the fluid ejection chamber; a fluid circulating element within the fluid circulation channel; and a channel wall separating the fluid ejection chamber and the fluid circulation channel, wherein the fluid circulation channel includes a channel loop, wherein a width of the channel wall is based on a width of the channel loop and a width of the fluid ejection chamber, characterized in that the fluid ejection device includes a plurality of fluid ejection chambers and corresponding drop ejecting elements, and a plurality of fluid circulation channels and corresponding fluid circulating elements, wherein each fluid circulation channel communicates with a single fluid ejection chamber, wherein a pitch of adjacent fluid circulating elements is substantially equal to a pitch of adjacent drop ejecting elements, and wherein a spacing between a drop ejecting element and an associated fluid circulating element is approximately one-half of the pitch of adjacent drop ejecting elements. a fluid slot; a fluid ejection chamber communicated with the fluid slot; a drop ejecting element within the fluid ejection chamber; a fluid circulation channel communicated at one end with the fluid slot and communicated at another end with the fluid ejection chamber; a fluid circulating element within the fluid circulation channel; and a channel wall separating the fluid ejection chamber and the fluid circulation channel, wherein the fluid circulation channel includes a channel loop, wherein a width of the channel wall is based on a width of the channel loop and a width of the fluid ejection chamber, characterized in that the fluid ejection device includes a plurality of fluid ejection chambers and corresponding drop ejecting elements, and a plurality of fluid circulation channels and corresponding fluid circulating elements, wherein each fluid circulation channel communicates with a single fluid ejection chamber, wherein a pitch of adjacent fluid circulating elements is substantially equal to a pitch of adjacent drop ejecting elements, and wherein a spacing between a drop ejecting element and an associated fluid circulating element is approximately one-half of the pitch of adjacent drop ejecting elements.
Aqueous coating materials, containing a) organic binding agents in an amount in the range of 4.0 to less than or equal to 30 wt. % (solids content), wherein the organic binding agent a) is present in the aqueous coating material in the form of an aqueous dispersion on the basis of vinyl acetate/ethylene copolymers, copolymers on the basis of aromatic vinyl compounds and acrylates and/or copolymers on the basis of pure acrylates, and/or wherein the organic binding agent a) and water glass and/or silica sol are present in the aqueous coating material in the form of a hybrid binding agent, b) water glass and/or silica sol in an amount of less than 1.5 wt. % (solids content), and c) 15 to 70 wt. % of at least one pigment and/or at least one filler material, wherein the aqueous coating materials have a pH in the range of 8.5 to 12 or are adjusted to a pH in the range of 8.5 to 12. a) organic binding agents in an amount in the range of 4.0 to less than or equal to 30 wt. % (solids content), wherein the organic binding agent a) is present in the aqueous coating material in the form of an aqueous dispersion on the basis of vinyl acetate/ethylene copolymers, copolymers on the basis of aromatic vinyl compounds and acrylates and/or copolymers on the basis of pure acrylates, and/or wherein the organic binding agent a) and water glass and/or silica sol are present in the aqueous coating material in the form of a hybrid binding agent, in an amount in the range of 4.0 to less than or equal to 30 wt. % (solids content), wherein the organic binding agent a) is present in the aqueous coating material in the form of an aqueous dispersion on the basis of vinyl acetate/ethylene copolymers, copolymers on the basis of aromatic vinyl compounds and acrylates and/or copolymers on the basis of pure acrylates, and/or wherein the organic binding agent a) and water glass and/or silica sol are present in the aqueous coating material in the form of a hybrid binding agent, b) water glass and/or silica sol in an amount of less than 1.5 wt. % (solids content), and c) 15 to 70 wt. % of at least one pigment and/or at least one filler material, wherein the aqueous coating materials have a pH in the range of 8.5 to 12 or are adjusted to a pH in the range of 8.5 to 12.