mhurhangee/ep-ind-claims huggingface dataset:
Laundry device having a drying function, comprising an air circuit, a control unit and a detection unit, wherein the detection unit has: - a humidity sensor which is designed to determine the relative air humidity of the process air, and - an air pressure sensor, - a temperature sensor, wherein the detection unit is positioned in the air circuit of the laundry device, and is configured to measure the temperature, the air pressure and the relative humidity during a drying process and to transmit them to the control unit, wherein the control unit is designed to determine from the transmitted measured values a water load in the air circuit of the laundry device, wherein the control unit analyses the course of the water load during the drying process and from this determines a shutdown value which triggers the end of the drying process, wherein the control unit determines the maximum of the water load in the air circuit during drying and based on the maximum adjusts the shutdown value of the laundry device. - a humidity sensor which is designed to determine the relative air humidity of the process air, and - an air pressure sensor, - a temperature sensor,
A polyol oxidase, which is derived from Penicillium sp. KU-1, deposited under Accession Number: NITE BP-1156, a microorganism belonging to the genus Penicillium, and is specified by the properties listed in the following (a) to (e): (a) it specifically recognizes the structure of a polyol in which the OH groups at positions 2 and 3 are in the L-erythro configuration and reacts therewith, and it cannot recognize the structure of a polyol in which the OH group at position 4 is in the L-ribo configuration and does not react therewith; (b) it has an activity to oxidize a sugar alcohol selected from D-arabitol, erythritol, D-mannitol, and D-sorbitol, which are listed in descending order of activity, to produce a corresponding aldose selected from D-lyxose, L-erythrose, D-mannose, and L-gulose, (c) it is stable at a pH of 6.0 or higher and has an optimum reaction pH of from 7.0 to 9.0; (d) it has an operating temperature of 50°C or lower and an optimum reaction temperature of 40°C; and (e) it has a molecular weight of about 113 kDa. (a) it specifically recognizes the structure of a polyol in which the OH groups at positions 2 and 3 are in the L-erythro configuration and reacts therewith, and it cannot recognize the structure of a polyol in which the OH group at position 4 is in the L-ribo configuration and does not react therewith; (b) it has an activity to oxidize a sugar alcohol selected from D-arabitol, erythritol, D-mannitol, and D-sorbitol, which are listed in descending order of activity, to produce a corresponding aldose selected from D-lyxose, L-erythrose, D-mannose, and L-gulose, (c) it is stable at a pH of 6.0 or higher and has an optimum reaction pH of from 7.0 to 9.0; (d) it has an operating temperature of 50°C or lower and an optimum reaction temperature of 40°C; and (e) it has a molecular weight of about 113 kDa.
A method for detecting the presence of an enzyme in a test sample, wherein said method comprises the steps of: (a) contacting said test sample with at least one capture agent under conditions appropriate for binding of glycosylated enzyme in said test sample to said capture agent, wherein if said glycosylated enzyme is present in said test sample a bound enzyme is formed, wherein said capture agent comprises a fusion protein comprising at least one M6PR binding domain; (b) separating said bound enzyme from said test sample; and (c) detecting intrinsic enzymatic activity of said bound enzyme, wherein the presence of intrinsic enzymatic activity is indicative of the presence of enzyme in said test sample.
A method of determining distances to features in a scene, the method comprising: a. illuminating the scene with at least one light pulse; b. shuttering a camera ON for an exposure period at a given predetermined ON time of the exposure period relative to a time at which each of the at least one light pulse is transmitted to image light reflected by features in the scene on pixels of the camera; c. determining an amount of reflected light that a pixel in the camera registers for a feature imaged on the pixel during the exposure period; d. repeating a-c for each of a plurality of N different exposure periods distinguished one from the other by at least one, or any combination of two or more of, a different ON time, a different OFF time, and a different exposure period sensitivity profile; the method being further characterized by e. determining a probability density function that is a function of the distance of the feature imaged on the pixel based on the amounts of light registered by the pixel for each of the N exposure periods responsive to a probabilistic model that provides an amount of light that the pixel is expected to register as a function of distance of the feature from the camera for each of the N exposure periods; and f. determining a value for a distance to the feature that maximizes the probability density function for the determined amounts of light registered by the pixel for each of the N exposure periods, wherein said value is assumed to be the distance to the feature imaged on the pixel. a. illuminating the scene with at least one light pulse; b. shuttering a camera ON for an exposure period at a given predetermined ON time of the exposure period relative to a time at which each of the at least one light pulse is transmitted to image light reflected by features in the scene on pixels of the camera; c. determining an amount of reflected light that a pixel in the camera registers for a feature imaged on the pixel during the exposure period; d. repeating a-c for each of a plurality of N different exposure periods distinguished one from the other by at least one, or any combination of two or more of, a different ON time, a different OFF time, and a different exposure period sensitivity profile; e. determining a probability density function that is a function of the distance of the feature imaged on the pixel based on the amounts of light registered by the pixel for each of the N exposure periods responsive to a probabilistic model that provides an amount of light that the pixel is expected to register as a function of distance of the feature from the camera for each of the N exposure periods; and f. determining a value for a distance to the feature that maximizes the probability density function for the determined amounts of light registered by the pixel for each of the N exposure periods, wherein said value is assumed to be the distance to the feature imaged on the pixel.
A communication device for use in a OFDM communications system that uses multiple tones distributed over a predetermined bandwidth to communicate data, the device comprising: a mapping circuit that receives data symbols and maps the symbols to prescribed time instants in a predetermined time interval to generate a discrete signal including mapped symbols, each mapped symbol corresponding to a discrete point in time; and an interpolation circuit that receives the discrete signal and generates a continuous signal by applying an interpolation function to the discrete signal, the interpolation function operating on the discrete signal such that a frequency response of the continuous signal includes sinusoids having non-zero values at a first set of tones, the first set of tones being a subset of said multiple tones, the non-zero value at each of said first set of tones being a function of a plurality of mapped symbols corresponding to different discrete points in time, the frequency response of the continuous signal also including zero values at a second set of tones, the second set of tones being different from said first set of tones and being another subset of said multiple tones. a mapping circuit that receives data symbols and maps the symbols to prescribed time instants in a predetermined time interval to generate a discrete signal including mapped symbols, each mapped symbol corresponding to a discrete point in time; and an interpolation circuit that receives the discrete signal and generates a continuous signal by applying an interpolation function to the discrete signal, the interpolation function operating on the discrete signal such that a frequency response of the continuous signal includes sinusoids having non-zero values at a first set of tones, the first set of tones being a subset of said multiple tones, the non-zero value at each of said first set of tones being a function of a plurality of mapped symbols corresponding to different discrete points in time, the frequency response of the continuous signal also including zero values at a second set of tones, the second set of tones being different from said first set of tones and being another subset of said multiple tones.
A method for the automatic modular integration of sensor devices (16, 17, 18) in a central controller of a network having at least one first server which comprises at least one first communication module and the central controller for at least a part of the network, with at least the following steps: a.) determining the sensor devices actually associated with the at least one first server by the at least one first communication module, b.) comparing the determined actual sensor devices (16a, 16b) with a quantity of detectable sensor devices defined in a detecting order and determining matching sensor devices, with the detecting order being an instruction to the communication module containing a task to be executed by the communication module and the information necessary for this purpose, and with the detecting order defining explicitly and in advance which sensor devices are to be detected on this server, c.) sending of data assigned to the matching sensor devices from the first communication module to the central controller, d.) automatic retrieving of predefined control modules stored in a library, and integrating them in the central controller based on the transmitted data, wherein the predefined control modules are each associated with the data of the matching sensor devices, with the method also comprising the following step for triggering the integrated sensor devices: e.) retrieving of at least one defined detecting module stored and provided in a library and automatic integrating of the same in the at least one first server, wherein - for the purpose of data interchange - the integrated defined detecting module is connected by communication technology with the first communication module and with at least one of the sensor devices assigned to the server. a.) determining the sensor devices actually associated with the at least one first server by the at least one first communication module, b.) comparing the determined actual sensor devices (16a, 16b) with a quantity of detectable sensor devices defined in a detecting order and determining matching sensor devices, with the detecting order being an instruction to the communication module containing a task to be executed by the communication module and the information necessary for this purpose, and with the detecting order defining explicitly and in advance which sensor devices are to be detected on this server, c.) sending of data assigned to the matching sensor devices from the first communication module to the central controller, d.) automatic retrieving of predefined control modules stored in a library, and integrating them in the central controller based on the transmitted data, e.) retrieving of at least one defined detecting module stored and provided in a library and automatic integrating of the same in the at least one first server, wherein - for the purpose of data interchange - the integrated defined detecting module is connected by communication technology with the first communication module and with at least one of the sensor devices assigned to the server.
A method of manufacturing a moulded article comprising: a) providing a moulding material comprising a fibrous reinforcement material, a first resin material and a second resin material, the first resin material being at least partially cured; followed by b) providing the moulding material in relation to a mould to form a moulding; and c) in-mould processing the moulding to form the moulded article by heating to a cure temperature and maintaining the moulding at a dwell temperature in a dwell stage, characterised in that the dwell temperature is higher than the dwell temperature required for manufacturing the moulded article from a moulding comprising the same first and second resin material in which the first resin material is uncured, the dwell stage is shorter than the dwell stage required for manufacturing the moulded article from a moulding comprising the same first and second resin material in which the first resin material is uncured, and the energy input for processing the moulding to form the moulded article is less than the energy input required for manufacturing the moulded article from a moulding comprising the same first and second resin material in which the first resin material is uncured. a) providing a moulding material comprising a fibrous reinforcement material, a first resin material and a second resin material, the first resin material being at least partially cured; followed by b) providing the moulding material in relation to a mould to form a moulding; and c) in-mould processing the moulding to form the moulded article by heating to a cure temperature and maintaining the moulding at a dwell temperature in a dwell stage,
An authentication apparatus comprising: an imaging unit that captures a face image of a user; an authenticating unit that authenticates the user using the face image of the user captured by the imaging unit; a display unit that displays failure information if authentication of the user by the authenticating unit is unsuccessful; a departure detecting unit that detects a departure of the user; and a stopping unit that causes the display unit to stop displaying the failure information if the departure detecting unit detects the departure of the user. an imaging unit that captures a face image of a user; an authenticating unit that authenticates the user using the face image of the user captured by the imaging unit; a display unit that displays failure information if authentication of the user by the authenticating unit is unsuccessful; a departure detecting unit that detects a departure of the user; and a stopping unit that causes the display unit to stop displaying the failure information if the departure detecting unit detects the departure of the user.
A method of handover, the method being performed by a network node and comprising: determining a first handover candidate list for a first user equipment, UE, wherein the first UE is connected to a first cell and is associated with a first network slice; and in response to a determination that the first handover candidate list indicates no valid candidate target cells for handover of the first UE: determining a second handover candidate list for a second UE, wherein the second UE is connected to the first cell; and causing the second UE to handover to a second cell indicated in the second handover candidate list. determining a first handover candidate list for a first user equipment, UE, wherein the first UE is connected to a first cell and is associated with a first network slice; and in response to a determination that the first handover candidate list indicates no valid candidate target cells for handover of the first UE: determining a second handover candidate list for a second UE, wherein the second UE is connected to the first cell; and causing the second UE to handover to a second cell indicated in the second handover candidate list. determining a second handover candidate list for a second UE, wherein the second UE is connected to the first cell; and causing the second UE to handover to a second cell indicated in the second handover candidate list.
Single frequency network comprising: a plurality of transmitters (Tx1-Tx3) in a transmission area for simultaneously transmitting a transmission signal carrying the same transmission data using the same frequency channel for reception by one or more receivers (Rx) located in said transmission area, said transmitters comprising a multiplexing unit for multiplexing said transmission data and pilot data into a multiplexed signal and a modulation unit for modulating the multiplexed signal into said transmission signal, and characterized by a pilot determination unit for determining said pilot data, said pilot determination unit being adapted for determining, for each transmitter located farther away than a predetermined distance from other transmitters in said transmission area, a different pilot sequence of pilot data for multiplexing with the transmission data. a plurality of transmitters (Tx1-Tx3) in a transmission area for simultaneously transmitting a transmission signal carrying the same transmission data using the same frequency channel for reception by one or more receivers (Rx) located in said transmission area, said transmitters comprising a multiplexing unit for multiplexing said transmission data and pilot data into a multiplexed signal and a modulation unit for modulating the multiplexed signal into said transmission signal, and characterized by a pilot determination unit for determining said pilot data, said pilot determination unit being adapted for determining, for each transmitter located farther away than a predetermined distance from other transmitters in said transmission area, a different pilot sequence of pilot data for multiplexing with the transmission data.
A mesh panel for a fence having, with reference to the position of use, two side borders, an upper border and a lower border, the mesh panel consisting of a trellis of first vertical wires integral with second horizontal wires, the first vertical wires having one or more undulations so as to form one or more horizontal folds in the shape of an area projecting over the height of the mesh panel, only the vertical wires located at the side ends of the mesh panel, called vertical edge wires, being straight and extending without interruption between the upper border and the lower border, the first vertical wires located between said vertical edge wires having one or more undulations, characterised in that the vertical edge wires have a diameter greater than the diameter of the first vertical wires disposed between the vertical edge wires, and in that said at least one horizontal fold comprises a horizontal wire located at the bottom of the fold and having a diameter greater than or equal to the diameter of the second horizontal wires.
Process for the manufacture of an alkylfluoroacrylate, comprising the following steps: A. an alkylfluoroacetate with an ester of oxalic acid is reacted in the presence of a base and a suitable solvent in a crossed Claisen condensation resulting in a Claisen salt, B. the Claisen salt obtained in step A is optionally filtered off and washed with a suitable solvent, C. the Claisen salt obtained in step A or B is reacted with paraformaldehyde and D. the alkylfluoroacrylate obtained in step C is isolated using a suitable solvent, wherein the solvent in at least step C and optionally in one of steps A, B or D comprises an alkane which is liquid under the reaction conditions of the steps in which the alkane is applied, and wherein the alkane is pentane or hexane. A. an alkylfluoroacetate with an ester of oxalic acid is reacted in the presence of a base and a suitable solvent in a crossed Claisen condensation resulting in a Claisen salt, B. the Claisen salt obtained in step A is optionally filtered off and washed with a suitable solvent, C. the Claisen salt obtained in step A or B is reacted with paraformaldehyde and D. the alkylfluoroacrylate obtained in step C is isolated using a suitable solvent,
Exhaust flap device for an internal combustion engine having a flow housing delimiting a flow channel, a flap body, a shaft on which the flap body is fastened, at least one radial bearing (26, 28) via which the shaft 16) is radially supported in at least one bearing seat (22, 24) of the flow housing, a sealing arrangement comprising a ceramic disc and a bushing mounted on the shaft, characterized in that an axial bearing is mounted in a bore and is made from a sintered metal powder of a high-chromium iron alloy and comprises an austenitic and ferritic composite structure with carbide alloy components and homogenously distributed solid lubricant phases and is axially loaded against the ceramic disc which surrounds the shaft in a manner rotating freely, wherein the axial bearing comprises a spherical recess facing the ceramic disc, on which a correspondingly shaped spherical bulge of the ceramic disc abuts, wherein the ceramic disc is loaded towards the axial bearing by means of a spring element. a flap body, a shaft on which the flap body is fastened, at least one radial bearing (26, 28) via which the shaft 16) is radially supported in at least one bearing seat (22, 24) of the flow housing, a sealing arrangement comprising a ceramic disc and a bushing mounted on the shaft, characterized in that an axial bearing is mounted in a bore and is made from a sintered metal powder of a high-chromium iron alloy and comprises an austenitic and ferritic composite structure with carbide alloy components and homogenously distributed solid lubricant phases and is axially loaded against the ceramic disc which surrounds the shaft in a manner rotating freely, wherein the axial bearing comprises a spherical recess facing the ceramic disc, on which a correspondingly shaped spherical bulge of the ceramic disc abuts, wherein the ceramic disc is loaded towards the axial bearing by means of a spring element.
Medical, in particular dental, handpiece in which a light guide and at least two media lines (3, 4) extend forwards and emerge in the front region of the handpiece at two outlet openings (3a, 4a) separate from each other, wherein the media lines (3, 4) are oriented in such a way that the dispensed media meet each other at a defined distance (e) in front of the outlet openings (3a, 4a) in order to generate a spray, wherein the light guide and the media lines (3, 4) extend as far as a common outlet surface, wherein the light guide has, in its front end region, at least two longitudinal grooves into which the media lines (3, 4), formed by hollow lines (3b, 4b), are radially insertable.