mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method of evaluating an earth formation intersected by a borehole using signals produced at a plurality of borehole depths by an ultrasonic transducer in the borehole, the signals produced by the transducer including ringdown signals from the ultrasonic transducer and echo signals from a wall of the borehole from a plurality of azimuthal orientations, the method characterised by comprising: using peak amplitude values and arrival time values from the signals to construct a background modulation template representing background noise and corresponding to at least one depth by generating a curve representing the background modulation template by mapping each peak amplitude value with respect to a corresponding arrival time value at the at least one depth; estimating, for each respective depth of the plurality of borehole depths, an azimuthally varying interference pattern resulting from a ringdown signal for each respective depth, the azimuthally varying interference pattern for each respective depth being estimated by mapping the background modulation template to arrival time values corresponding to the respective depth; and subtracting, for each respective depth, the estimated varying interference pattern from the peak amplitude values corresponding to the respective depth to generate adjusted peak amplitudes; and generating a two-dimensional image of the earth formation using the adjusted peak amplitudes. using peak amplitude values and arrival time values from the signals to construct a background modulation template representing background noise and corresponding to at least one depth by generating a curve representing the background modulation template by mapping each peak amplitude value with respect to a corresponding arrival time value at the at least one depth; estimating, for each respective depth of the plurality of borehole depths, an azimuthally varying interference pattern resulting from a ringdown signal for each respective depth, the azimuthally varying interference pattern for each respective depth being estimated by mapping the background modulation template to arrival time values corresponding to the respective depth; and subtracting, for each respective depth, the estimated varying interference pattern from the peak amplitude values corresponding to the respective depth to generate adjusted peak amplitudes; and generating a two-dimensional image of the earth formation using the adjusted peak amplitudes.
An apparatus for cooking food with superheated steam comprising an outer casing , which comprises inside it a cooking chamber , adapted to contain one or more foods; a steam generating device associated with said casing , adapted to vaporize a liquid, said steam generating device comprising at least one heating element and at least one thermally conductive element , said at least one heating element being adapted to heat said inserted liquid, in use, inside said steam generating device , said heating element also being adapted to heat said thermally conductive element so as to store a predetermined amount of energy to be used to generate steam in said thermally conductive element , said at least one heating element comprising an electric resistance, each said electric resistance having a substantially flat spiral shape; a superheating device of said steam associated to said steam generating device , said superheating device being configured to heat said steam up to an operating temperature (T) higher than the boiling temperature of said liquid and to allow said superheated steam to come out towards said cooking chamber ; characterized in that said steam generating device comprises a body comprising a plurality of electrical resistances , arranged alternating with respective said thermally conductive elements . a steam generating device associated with said casing , adapted to vaporize a liquid, said steam generating device comprising at least one heating element and at least one thermally conductive element , said at least one heating element being adapted to heat said inserted liquid, in use, inside said steam generating device , said heating element also being adapted to heat said thermally conductive element so as to store a predetermined amount of energy to be used to generate steam in said thermally conductive element , said at least one heating element comprising an electric resistance, each said electric resistance having a substantially flat spiral shape; a superheating device of said steam associated to said steam generating device , said superheating device being configured to heat said steam up to an operating temperature (T) higher than the boiling temperature of said liquid and to allow said superheated steam to come out towards said cooking chamber ; characterized in that said steam generating device comprises a body comprising a plurality of electrical resistances , arranged alternating with respective said thermally conductive elements .
A genome-editing complex for modifying a target polynucleotide comprising a recombinant β helical protein, wherein the recombinant β helical protein is linked to one or more molecules of a genome-editing system or to a plasmid that encodes one or more molecules of a genome-editing system, and the molecular weight of the recombinant β helical protein is in the range of from 30 kDa to 100 kDa, wherein the one or more molecules of the genome editing system is an RNA-guided endonuclease and/or a guide RNA (gRNA).
Sensor element for measuring a temperature, comprising - at least one carrier layer , the carrier layer having a top side and an underside , - at least one functional layer , the functional layer being arranged on the top side of the carrier layer and comprising a material which has a temperature-dependent electrical resistance, - at least one feedthrough , the feedthrough comprising a metallic material and the feedthrough penetrating completely through the carrier layer , - a protective layer , the protective layer being arranged on a top side of the sensor element and on at least one side face of the sensor element , and wherein the protective layer covers the top side of the sensor element completely, wherein the sensor element is configured to be integrated as a discrete component directly into an electrical system, and wherein the sensor element is configured for direct integration into a MEMS structure and/or into a SESUB structure. - at least one carrier layer , the carrier layer having a top side and an underside , - at least one functional layer , the functional layer being arranged on the top side of the carrier layer and comprising a material which has a temperature-dependent electrical resistance, - at least one feedthrough , the feedthrough comprising a metallic material and the feedthrough penetrating completely through the carrier layer , - a protective layer , the protective layer being arranged on a top side of the sensor element and on at least one side face of the sensor element , and wherein the protective layer covers the top side of the sensor element completely,
A method for manufacturing packaging, the container of which is made from a sheet of flat cardboard that is pre-cut and pre-grooved, each container being made in three dimensions with a bottom and side walls by folding, the inside of the volume of the container then being coated with a plasticized film by thermoforming, the method including: - automated loading of the sheets at a predetermined rate into at least one thermoforming mold cavity; - thermoforming the film in the containers at a rate synchronized to the loading rate; - preforming said sheets prior to loading into each thermoforming cavity; characterized in that the automated loading includes: - picking up at least one pre-cut and pre-grooved flat sheet using means for recovering the sheets from at least one stack of said sheets, and immobilizing the sheets on said recovery means; - transferring each sheet using transfer means to means for supplying at least one thermoforming mold cavity, and immobilizing and preforming the sheets in said supply means. - automated loading of the sheets at a predetermined rate into at least one thermoforming mold cavity; - thermoforming the film in the containers at a rate synchronized to the loading rate; - preforming said sheets prior to loading into each thermoforming cavity; characterized in that the automated loading includes: - picking up at least one pre-cut and pre-grooved flat sheet using means for recovering the sheets from at least one stack of said sheets, and immobilizing the sheets on said recovery means; - transferring each sheet using transfer means to means for supplying at least one thermoforming mold cavity, and immobilizing and preforming the sheets in said supply means. - picking up at least one pre-cut and pre-grooved flat sheet using means for recovering the sheets from at least one stack of said sheets, and immobilizing the sheets on said recovery means; - transferring each sheet using transfer means to means for supplying at least one thermoforming mold cavity, and immobilizing and preforming the sheets in said supply means.
A gravure printing method, comprising: using an aqueous ink having a Zahn cup #3 viscosity at 20°C of 11.0 seconds or more and 20.0 seconds or less, and having an evaporation rate of 30 mass% or less in a drying test, the drying test involving drying 1 g of the ink at a temperature of 40°C and an air flow of 1,400 L/min for 30 minutes; and transferring 1 ml/m 2 or more and 7 ml/m 2 or less of the ink onto a printing medium. using an aqueous ink having a Zahn cup #3 viscosity at 20°C of 11.0 seconds or more and 20.0 seconds or less, and having an evaporation rate of 30 mass% or less in a drying test, the drying test involving drying 1 g of the ink at a temperature of 40°C and an air flow of 1,400 L/min for 30 minutes; and transferring 1 ml/m 2 or more and 7 ml/m 2 or less of the ink onto a printing medium.
Method for predicting cellular radiosensitivity of a cell sample to ionizing radiation, said cell sample having been obtained from cells sampled from a patient in a non-irradiated or slightly irradiated zone, in which method: (i) said sampled cells are amplified, said amplified cells forming "the cellular sample"; (ii) on said cellular sample, the mean number of nuclear foci obtained with the pH2AX marker is determined at the observation time t (this mean number being called N pH2AX (t)), said observation time t being the time t=0 min (called t0, non-irradiated state) and the observation time t4 after irradiation with an absorbed dose D comprised between 1,7 Gy and 2,3 Gy; (iii) the total dose not to be exceeded (TDNTBE) is determined, expressed in Gray (Gy), using at least the parameter N pH2AX (t4), according to the formula: TDNTBE = 60 / N pH 2 ⁢ AX t 4 if N pH 2 ⁢ AX t 0 ≤ 3 , or according to the formula: TDNTBE = 60 / N p H 2 ⁢ AX t 4 + N pH 2 ⁢ AX t 0 if N pH 2 ⁢ AX t 0 > 3 ; and in which method t4 is a fixed value that represents the time for which the DNA break level reaches its residual value. (i) said sampled cells are amplified, said amplified cells forming "the cellular sample"; (ii) on said cellular sample, the mean number of nuclear foci obtained with the pH2AX marker is determined at the observation time t (this mean number being called N pH2AX (t)), said observation time t being the time t=0 min (called t0, non-irradiated state) and the observation time t4 after irradiation with an absorbed dose D comprised between 1,7 Gy and 2,3 Gy; (iii) the total dose not to be exceeded (TDNTBE) is determined, expressed in Gray (Gy), using at least the parameter N pH2AX (t4), according to the formula: TDNTBE = 60 / N pH 2 ⁢ AX t 4 if N pH 2 ⁢ AX t 0 ≤ 3 , or according to the formula: TDNTBE = 60 / N p H 2 ⁢ AX t 4 + N pH 2 ⁢ AX t 0 if N pH 2 ⁢ AX t 0 > 3 ; and in which method t4 is a fixed value that represents the time for which the DNA break level reaches its residual value.
An information transmission method, comprising: receiving (S210), by a first network device, first information from a terminal device, wherein the first information comprises information indicating that a radio link failure occurs between the terminal device and a first cell, or the first information comprises information indicating that beam failure recovery occurs between the terminal device and the first cell; wherein the first information further comprises information about a resource, and the information about the resource comprises information about a beam, information about an uplink carrier, and information about a bandwidth part; wherein the information about the uplink carrier comprises an identifier of the uplink carrier and/or measurement information of the uplink carrier, the identifier of the uplink carrier comprises frequency information of the uplink carrier, and the uplink carrier comprises a normal uplink carrier and/or a supplementary uplink carrier; and wherein the information transmission method further comprises: performing (S220), by the first network device, mobility robustness optimization based on the first information. receiving (S210), by a first network device, first information from a terminal device, wherein the first information comprises information indicating that a radio link failure occurs between the terminal device and a first cell, or the first information comprises information indicating that beam failure recovery occurs between the terminal device and the first cell; wherein the first information further comprises information about a resource, and the information about the resource comprises information about a beam, information about an uplink carrier, and information about a bandwidth part; wherein the information about the uplink carrier comprises an identifier of the uplink carrier and/or measurement information of the uplink carrier, the identifier of the uplink carrier comprises frequency information of the uplink carrier, and the uplink carrier comprises a normal uplink carrier and/or a supplementary uplink carrier; and wherein the information transmission method further comprises: performing (S220), by the first network device, mobility robustness optimization based on the first information.
Method for identifying substances which prime plant cells for a stress response comprising the steps of: - inoculating plant cells in a suitable culture medium and culturing them in said medium; - adding one or more candidate substances to the culture medium thereby treating the plant cells with said candidate substance; and - measuring the oxygen transfer rate in the cells treated with the candidate substance and in control cells not treated with the candidate substance, wherein an increase in the oxygen transfer rate in the cells treated with the candidate substance compared to the control cells indicates that the candidate substance primes the plant cells for a stress response. - inoculating plant cells in a suitable culture medium and culturing them in said medium; - adding one or more candidate substances to the culture medium thereby treating the plant cells with said candidate substance; and - measuring the oxygen transfer rate in the cells treated with the candidate substance and in control cells not treated with the candidate substance,
Method for the manufacture of a coated steel sheet comprising the following step: A. the provision of a pre-coated steel sheet coating with a first coating comprising iron and nickel, B. the thermal treatment of such pre-coated steel sheet at a temperature between 600 and 1000°C, C. the coating of the steel sheet obtained in step B) with a second coating based on zinc. A. the provision of a pre-coated steel sheet coating with a first coating comprising iron and nickel, B. the thermal treatment of such pre-coated steel sheet at a temperature between 600 and 1000°C, C. the coating of the steel sheet obtained in step B) with a second coating based on zinc.
A grass cutting head , comprising: a spool configured for winding a grass cutting line ; a head housing configured to accommodate at least part of the spool; the grass cutting head characterized by comprising: a first guiding structure configured to guide the grass cutting line through an inside of the grass cutting head when threading the grass cutting line without removing the grass cutting head; and a second guiding structure , formed on the spool or connected to the spool, the second guiding structure being configured to guide the grass cutting line to move and be wound around the spool when a relative rotation occurs between the spool and the head housing. a spool configured for winding a grass cutting line ; a head housing configured to accommodate at least part of the spool; the grass cutting head characterized by comprising: a first guiding structure configured to guide the grass cutting line through an inside of the grass cutting head when threading the grass cutting line without removing the grass cutting head; and a second guiding structure , formed on the spool or connected to the spool, the second guiding structure being configured to guide the grass cutting line to move and be wound around the spool when a relative rotation occurs between the spool and the head housing. a first guiding structure configured to guide the grass cutting line through an inside of the grass cutting head when threading the grass cutting line without removing the grass cutting head; and a second guiding structure , formed on the spool or connected to the spool, the second guiding structure being configured to guide the grass cutting line to move and be wound around the spool when a relative rotation occurs between the spool and the head housing.
A valve assembly for connecting a heat exchanger of a hot water discharging device to a district heating system, comprising a primary-side valve controlling a flow of heat transfer fluid through a primary-side of the heat exchanger , and a pressure-controlled secondary-side valve acting on a flow of service water through a secondary-side of the heat exchanger , the primary-side valve being operable by the secondary-side valve , wherein the secondary-side valve has a valve seat arranged on a diaphragm and a stationary valve element , characterized in that , when no service water is being drawn off on the secondary-side , the secondary-side valve is not closed, but has a small rest opening, the diaphragm being in a rest position, and that the position of the valve element is adjustable relative to the rest position of the diaphragm so that the secondary-side valve has an adjustable rest opening .
Electronic module for a motor vehicle , according to which said electronic module comprises an electronic housing designed to be disposed on the motor vehicle and comprising a fixing screw and at least one threaded secondary insert suitable for cooperating with the fixing screw so as to ensure a pre-mounting of said fixing screw in said electronic housing , said secondary insert being designed to be disposed facing a threaded primary insert of a fixing reference allowing the electronic module to be fixed to the motor vehicle when the fixing screw is screwed into the secondary insert and the primary insert , the electronic housing comprising: - a top cap comprising said at least one secondary insert and a protruding part in which is incorporated said at least one secondary insert ; and characterized in that the electronic housing comprises - a bottom cap . - a top cap comprising said at least one secondary insert and a protruding part in which is incorporated said at least one secondary insert ; and characterized in that the electronic housing comprises - a bottom cap .
Arrangement of a set of two protective sheaths connecting the bodyshell of a vehicle to an opening leaf of said vehicle articulated to said bodyshell by means of at least two hinges arranges some distance apart on the bodyshell , with each one of the sheaths including a flexible central part respectively connecting the first and second ends of each one of the sheaths ; with the ends of the sheaths fixed to the bodyshell being adjacent to one another, aligned on the axis of pivoting (YY') of the panel on the bodyshell , passing through the two hinges , and centred between the hinges ; with the two sheaths being identical and arranged symmetrically in relation to the vertical median plane of the vehicle , characterised in that the central part of the sheaths is formed from a stack of flat windings with a generally rectangular section, adjacent and integral with one another; with each winding being offset from its adjacent winding according to the small dimension thereof.
A copolymer comprising: a (meth)acrylic monomer unit A having an anionic group, a (meth)acrylic monomer unit B having a cationic group, and a (meth)acrylic monomer unit C other than the (meth)acrylic monomer unit A and the (meth)acrylic monomer unit B, wherein the (meth)acrylic monomer unit C comprises a siloxane skeleton, and a content of the (meth)acrylic monomer unit C is 30 to 99.8 mol% based on a total 100 mol% of the unit A, the unit B, and the unit C. a (meth)acrylic monomer unit A having an anionic group, a (meth)acrylic monomer unit B having a cationic group, and a (meth)acrylic monomer unit C other than the (meth)acrylic monomer unit A and the (meth)acrylic monomer unit B, wherein the (meth)acrylic monomer unit C comprises a siloxane skeleton, and a content of the (meth)acrylic monomer unit C is 30 to 99.8 mol% based on a total 100 mol% of the unit A, the unit B, and the unit C.
A method for producing a rotor for an electric machine, in particular a three-phase motor, the rotor being formed by a metal core, at least a first and a second short-circuit ring and lamellar conductors which connect the short-circuit rings, the method being performed with a casting machine and a casting mold , the metal core being disposed in the casting mold and a metal being fixed to the casting mold at the metal core, the metal being melted and introduced into the casting mold, the metal being copper, aluminum, silver or an alloy of these metals, characterized in that , the rotor is disposed vertically with its rotational axis with respect to a horizontal plane, the first short-circuit ring being disposed lower than the second short-circuit ring, the metal being introduced into the casting mold at a first gate of the casting mold at the first short-circuit ring and at a second gate of the casting mold at the second short-circuit ring , a first flow front of the metal of the first gate meeting a second flow front of the metal of the second gate inside the casting mold in the second short-circuit ring.
A split loading funnel for guiding a gob (G) of molten glass from an inlet of the funnel to an outlet of the funnel , the split loading funnel being characterized by : two or more individual funnel segments coupled together, each of the individual funnel segments including an upper portion and a lower portion, the upper portions of the individual funnel segments together providing the inlet of the funnel, and the lower portions of the individual funnel segments together providing the outlet of the funnel, and wherein each of the lower portions of the individual funnel segments has a concave interior guide surface , the concave interior guide surfaces being positioned relative to one another and cooperating to define a guide passage extending along a longitudinal axis (L) and terminating at the outlet of the funnel.