mhurhangee/ep-ind-claims huggingface dataset:
A receiving device receiving multi-carrier modulated signals in which predetermined signals continuously arranged within a plurality of consecutive symbols along a symbol direction are arranged at a plurality of sub-carrier positions determined according to one among a plurality of location patterns which determine the sub-carrier positions in which the predetermined signals are arranged, wherein the sub-carrier positions in which the predetermined signals are arranged are non-periodic along a carrier direction and differ with each of the location patterns, and the receiving device comprises: an orthogonal transformer operable to separate and output the multi-carrier modulated signals into a plurality of sub-carriers by orthogonal transformation; a carrier frequency error corrector operable to apply corrections to carrier frequency discrepancies according to a wideband carrier frequency error; and a wideband carrier frequency error calculator; characterized in that said wideband carrier frequency error calculator is operable, for each of the location patterns, (i) to calculate a cumulative value by performing predetermined processing on signals output from the orthogonal transformer at the sub-carrier positions determined by the location pattern while simultaneously shifting the signals output by the orthogonal transformer by one sub-carrier unit along the carrier direction; and (ii) to calculate the wideband carrier frequency error according to carrier direction discrepancies calculated as maximum values within the cumulative value. an orthogonal transformer operable to separate and output the multi-carrier modulated signals into a plurality of sub-carriers by orthogonal transformation; a carrier frequency error corrector operable to apply corrections to carrier frequency discrepancies according to a wideband carrier frequency error; and a wideband carrier frequency error calculator; characterized in that said wideband carrier frequency error calculator is operable, for each of the location patterns, (i) to calculate a cumulative value by performing predetermined processing on signals output from the orthogonal transformer at the sub-carrier positions determined by the location pattern while simultaneously shifting the signals output by the orthogonal transformer by one sub-carrier unit along the carrier direction; and (ii) to calculate the wideband carrier frequency error according to carrier direction discrepancies calculated as maximum values within the cumulative value. (i) to calculate a cumulative value by performing predetermined processing on signals output from the orthogonal transformer at the sub-carrier positions determined by the location pattern while simultaneously shifting the signals output by the orthogonal transformer by one sub-carrier unit along the carrier direction; and (ii) to calculate the wideband carrier frequency error according to carrier direction discrepancies calculated as maximum values within the cumulative value.
A septum, comprising a body having a proximal end and a distal end, the proximal end having an opening and the distal end forming a barrier, the barrier being capable of being deformed from a relaxed position to a biased position, the barrier further comprising a slit having a closed configuration and an opened configuration, wherein the slit comprises the closed configuration when the barrier is in the relaxed position, and the slit comprises the opened configuration when the barrier is in the biased position, wherein the slit comprises a plurality of slits (56, 66, 67), characterized in that the barrier is configured to be elastically deformed from the relaxed position to the biased position by a septum actuator that advances against a proximal surface of the barrier, the slit having a maximum opening size that is less than an outer diameter of a distal end of the septum actuator such that the distal end of the septum actuator is prevented from passing through the barrier when the barrier is in the biased position.
A resin composition for laser welding comprising: relative to 100 mass parts of a thermoplastic polyester resin material that contains a polybutylene terephthalate homopolymer and at least one of a polybutylene terephthalate copolymer, a polyethylene terephthalate resin, and a polycarbonate resin, 0.0005 to 0.5 mass parts of nigrosine; and 0.01 to 2 mass parts of a colorant containing at least an anthraquinone dye C1 having a maximum absorption wavelength in a range of 590 to 635 nm, a perinone dye C2 having a maximum absorption wavelength in a range of 460 to 480 nm, and an anthraquinone dye C3 having a maximum absorption wavelength in a range of 435 to 455 nm, at C1: C2: C3 = 24 to 41: 24 to 39: 22 to 46 as the mass ratio relative to 100 mass parts for a total of C1, C2, and C3. relative to 100 mass parts of a thermoplastic polyester resin material that contains a polybutylene terephthalate homopolymer and at least one of a polybutylene terephthalate copolymer, a polyethylene terephthalate resin, and a polycarbonate resin, 0.0005 to 0.5 mass parts of nigrosine; and 0.01 to 2 mass parts of a colorant containing at least an anthraquinone dye C1 having a maximum absorption wavelength in a range of 590 to 635 nm, a perinone dye C2 having a maximum absorption wavelength in a range of 460 to 480 nm, and an anthraquinone dye C3 having a maximum absorption wavelength in a range of 435 to 455 nm, at C1: C2: C3 = 24 to 41: 24 to 39: 22 to 46 as the mass ratio relative to 100 mass parts for a total of C1, C2, and C3.
Process for preparing an alkyl hydroperoxide, comprising the placing of a liquid hydrocarbon in a reactor at a high temperature in contact with oxygen, characterized in that the surfaces of the reactor in contact with the medium containing the hydroperoxide comprise a protective coat made of a perfluoroalkoxy polymer.
An angle measuring method using a rotary encoder including a body section, a rotating shaft which is freely rotatable with respect to the body section, a code section attached to the rotating shaft, and a read section fixed to the body section which reads a code of the code section, wherein the rotating shaft of the rotary encoder is attached to the body section of the rotary encoder via a bearing, the angle measuring method comprising: regulating a displacement of the rotating shaft of the rotary encoder in a plane orthogonal to the rotating shaft of the rotary encoder within a fixed allowance range so as to tolerate eccentricity between a rotating shaft of an object to be measured and the rotating shaft of the rotary encoder, wherein the object to be measured is rotationally driven and the body section of the rotary encoder is attached to the rotating shaft (1 a) of the object to be measured; measuring a rotation angle of the body section of the rotary encoder based on a code read by the read section of the rotary encoder; detecting a changed inclination angle of the rotating shaft of the rotary encoder in the plane orthogonal to the rotating shaft of the rotary encoder, the changed inclination angle being an inclination angle changed from a time point when measurement of the rotation angle of the body section of the rotary encoder is started; and correcting the rotation angle measured using the rotary encoder based on the detected changed inclination angle of the rotating shaft of the rotary encoder. regulating a displacement of the rotating shaft of the rotary encoder in a plane orthogonal to the rotating shaft of the rotary encoder within a fixed allowance range so as to tolerate eccentricity between a rotating shaft of an object to be measured and the rotating shaft of the rotary encoder, wherein the object to be measured is rotationally driven and the body section of the rotary encoder is attached to the rotating shaft (1 a) of the object to be measured; measuring a rotation angle of the body section of the rotary encoder based on a code read by the read section of the rotary encoder; detecting a changed inclination angle of the rotating shaft of the rotary encoder in the plane orthogonal to the rotating shaft of the rotary encoder, the changed inclination angle being an inclination angle changed from a time point when measurement of the rotation angle of the body section of the rotary encoder is started; and correcting the rotation angle measured using the rotary encoder based on the detected changed inclination angle of the rotating shaft of the rotary encoder.
Screen device comprising a screen roller and a screen rollable onto and unrollable from this screen roller and attached on one of its sides to the screen roller, wherein the screen device comprises a frame with at least a protective casing and two lateral guides, characterized in that the lateral guides each comprise a first profile having a first rail for guiding the screen roller and each comprise two further profiles (8, 9) which, when the two further profiles are connected to said first profile, together form a second rail for guiding the lateral sides of the screen when the screen is rolled up and unrolled, wherein said first profile comprises a back wall and two side walls so that an elongate channel is formed which comprises said first rail and which is further provided so as to at least partially receive said two further profiles (8, 9).
An internal olefin sulfonate composition comprising an internal olefin sulfonate having 16 carbon atoms and/or an internal olefin sulfonate having 18 carbon atoms, wherein a total content of the component and the component contained in the internal olefin sulfonate is from 50 to 100% by mass, a content mass ratio of the component to the component, (A/B), is from 91/9 to 98/2, a content of the internal olefin sulfonate in which a sulfonate group is present at a C-2 position in the internal olefin sulfonate having 16 and 18 carbon atoms is 25% by mass or less, and wherein a mass ratio of a content of a hydroxy form in the internal olefin sulfonate of the component and the component to a content of an olefin form in the internal olefin sulfonate of the component and the component, (hydroxy form/olefin form), is from 75/25 to 100/0.
An armor piece (12, 42, 72, 112) comprising: a tested material (16, 46, 76, 116); a plurality of electrical contacts (18, 48, 78) distributed about and electrically connected to the tested material; characterized in that it further comprises a non-volatile memory device (36, 66, 98, 118, 132) attached to the tested material so that a major surface of the NVM device is perpendicular to a major surface of the tested material, wherein the NVM device is hardened against exposure to x-ray radiation; and wherein the NVM device is configured to provide at least one technique to reduce an effect of errors selected from the group consisting of data redundancy and error-correcting code. a tested material (16, 46, 76, 116); a plurality of electrical contacts (18, 48, 78) distributed about and electrically connected to the tested material; characterized in that it further comprises a non-volatile memory device (36, 66, 98, 118, 132) attached to the tested material so that a major surface of the NVM device is perpendicular to a major surface of the tested material, wherein the NVM device is hardened against exposure to x-ray radiation; and wherein the NVM device is configured to provide at least one technique to reduce an effect of errors selected from the group consisting of data redundancy and error-correcting code.
Method for securely starting device software, in particular an operating system, of an electronic device, in which a plurality of successive software modules (11, 12, 13, 14, 15) containing software code are executed by the device, comprising the steps of: a) executing the first software module which comprises trusted software code and forms a root of trust, b) loading the subsequent software module by way of the preceding software module, c) checking the software code of the subsequent software module and identifying security features on the basis of an identification scheme, d) assessing the identified security features on the basis of a security guideline, e) executing the subsequent software module if the assessment reveals a trustworthiness value which is above a predefined threshold value, and f) carrying out steps b) to e) for all further subsequent software modules (13, 14, 15), wherein security features are functions which are performed by the software code and are undesirable within the software module. a) executing the first software module which comprises trusted software code and forms a root of trust, b) loading the subsequent software module by way of the preceding software module, c) checking the software code of the subsequent software module and identifying security features on the basis of an identification scheme, d) assessing the identified security features on the basis of a security guideline, e) executing the subsequent software module if the assessment reveals a trustworthiness value which is above a predefined threshold value, and f) carrying out steps b) to e) for all further subsequent software modules (13, 14, 15),
A method for identifying prostate cancer in a patient comprising: (a) detecting the expression level of SPINK1 in a patient sample containing prostate cells or a prostatic secretion from the patient and comparing the detected SPINK1 expression level with normal expression of SPINK1; and (b) detecting the expression level of ERG and/or ETV1, if present, in the sample, wherein detecting overexpression of SPINK1 and detecting normal expression of ERG and/or ETV1 identifies prostate cancer in the patient. (a) detecting the expression level of SPINK1 in a patient sample containing prostate cells or a prostatic secretion from the patient and comparing the detected SPINK1 expression level with normal expression of SPINK1; and (b) detecting the expression level of ERG and/or ETV1, if present, in the sample,
An ice maker comprising: a compartment; an ice-making tray disposed in the compartment to receive and make ice; and a fan to make ambient air pass along the surface of the ice-making tray, characterised in that the fan is installed on a bottom surface of the ice-making tray. a compartment; an ice-making tray disposed in the compartment to receive and make ice; and a fan to make ambient air pass along the surface of the ice-making tray, characterised in that the fan is installed on a bottom surface of the ice-making tray.
A media processing device comprising: a first path (P1, P12) for conveying a first medium; a second path for conveying a second medium; a common path for conveying both the first medium and second medium from a junction between the first path (P1, P12) and the second path; an optical scanner means for optically scanning the first medium or the second medium passing through the common path; an inkjet head for printing on the first medium passing through the first path (P1, P12); a nozzle cap being configured to move to a capping position in which the nozzle cap covers a nozzle face of the inkjet head, and to an uncapped position in which the nozzle cap is separated from the nozzle face; a shutter being configured to move to a closed position in which the shutter closes an open part of the nozzle cap when being at the uncapped position, and to an open position in which the shutter is separated from the open part of the nozzle cap; and a path switching member for switching at the junction between a first position, in which the path switching member connects the first path (P1, P12) to the common path, and a second position, in which the path switching member connects the second path to the common path, wherein the path switching member is configured to switch from the first position to the second position in conjunction with the shutter moving from the closed position to the open position, and to switch from the second position to the first position in conjunction with the shutter moving from the open position to the closed position. a first path (P1, P12) for conveying a first medium; a second path for conveying a second medium; a common path for conveying both the first medium and second medium from a junction between the first path (P1, P12) and the second path; an optical scanner means for optically scanning the first medium or the second medium passing through the common path; an inkjet head for printing on the first medium passing through the first path (P1, P12); a nozzle cap being configured to move to a capping position in which the nozzle cap covers a nozzle face of the inkjet head, and to an uncapped position in which the nozzle cap is separated from the nozzle face; a shutter being configured to move to a closed position in which the shutter closes an open part of the nozzle cap when being at the uncapped position, and to an open position in which the shutter is separated from the open part of the nozzle cap; and a path switching member for switching at the junction between a first position, in which the path switching member connects the first path (P1, P12) to the common path, and a second position, in which the path switching member connects the second path to the common path, wherein the path switching member is configured to switch from the first position to the second position in conjunction with the shutter moving from the closed position to the open position, and to switch from the second position to the first position in conjunction with the shutter moving from the open position to the closed position.
A water dispensing apparatus, comprising: a housing; a mineral water container containing mineral water positioned within the housing; a water faucet configured to dispense hot mineral water, cold mineral water and mineral water at an elected temperature chosen by the user; a cold water tank for receiving water at room temperature from the mineral water container, wherein the cold water tank is connected to a cooling unit for cooling the water in the cold water tank; a hot water tank for receiving mineral water at room temperature from the mineral water container, wherein the hot water tank is connected to a heating unit for heating the mineral water in the hot water tank; a pump to dispense the mineral water from the mineral water container to the cold water tank and the hot water tank, said mineral water is then pushed to the water faucet; and wherein the cooling unit is positioned within the housing; an outlet valve positioned before the mineral water is received at the water faucet, wherein the outlet valve dispenses water to the water faucet; characterized by the following features: a control unit configured to send instructions to the outlet valve to dispense mineral water from the hot water tank or from the cold water tank in alternating bursts to mix hot water and cold water such that the mineral water dispensed from the water faucet is at an elected temperature chosen by the user; and an entering valve positioned between the pump and the hot water tank and the cold water tank, wherein the entering valve regulates water flowing from the pump to either the hot water tank or the cold water tank. a housing; a mineral water container containing mineral water positioned within the housing; a water faucet configured to dispense hot mineral water, cold mineral water and mineral water at an elected temperature chosen by the user; a cold water tank for receiving water at room temperature from the mineral water container, wherein the cold water tank is connected to a cooling unit for cooling the water in the cold water tank; a hot water tank for receiving mineral water at room temperature from the mineral water container, wherein the hot water tank is connected to a heating unit for heating the mineral water in the hot water tank; a pump to dispense the mineral water from the mineral water container to the cold water tank and the hot water tank, said mineral water is then pushed to the water faucet; and wherein the cooling unit is positioned within the housing; an outlet valve positioned before the mineral water is received at the water faucet, wherein the outlet valve dispenses water to the water faucet; a control unit configured to send instructions to the outlet valve to dispense mineral water from the hot water tank or from the cold water tank in alternating bursts to mix hot water and cold water such that the mineral water dispensed from the water faucet is at an elected temperature chosen by the user; and an entering valve positioned between the pump and the hot water tank and the cold water tank, wherein the entering valve regulates water flowing from the pump to either the hot water tank or the cold water tank.
A fluid treatment system comprising: a sonic energy generator that, in use, applies a sonic signal to at least a portion of a fluid in a vessel; an electromagnetic field, EMF, generator that, in use, conductively applies an EMF signal to at least the portion of the fluid; a controller that, in use, independently controls the sonic energy generator and the EMF generator; and a sensor upstream of vessel that, in use, detects at least one of microorganisms and contaminants; wherein the controller is configured to adjust one or more of the sonic signal and EMF signal frequencies, amplitudes, waveforms, phase-shifts, and decay rates in response to readings transmitted by the sensor so as to achieve a correlated signal set that can best impact microorganisms and/or contaminants at the levels detected by the sensor. a sonic energy generator that, in use, applies a sonic signal to at least a portion of a fluid in a vessel; an electromagnetic field, EMF, generator that, in use, conductively applies an EMF signal to at least the portion of the fluid; a controller that, in use, independently controls the sonic energy generator and the EMF generator; and a sensor upstream of vessel that, in use, detects at least one of microorganisms and contaminants; wherein the controller is configured to adjust one or more of the sonic signal and EMF signal frequencies, amplitudes, waveforms, phase-shifts, and decay rates in response to readings transmitted by the sensor so as to achieve a correlated signal set that can best impact microorganisms and/or contaminants at the levels detected by the sensor.