mhurhangee/patent-ind-claim-en huggingface dataset:
A method for forming a shape of a sensor electrode (SE) for a capacitive sensor device out of an electrode (E) having an initial shape, wherein the method comprises the steps of: a) subdividing the electrode (E) into a predetermined number of interconnected electrode segments (ES) along a predetermined axis, wherein each electrode segment has a predetermined electrode surface area, b) positioning an object (F) at a constant distance with respect to each electrode segment (ES) along the predetermined axis, determining for each electrode segment (ES) a respective sensor value when the object is located above one of the electrode segment (ES), c) determining minimum and maximum sensor values, d) adjusting the predetermined electrode surface area of the electrode segment (ES) associated with the maximum value by decreasing a width or a length of the respective electrode segment (ES) and adjusting the predetermined electrode surface area of the electrode segment (ES) associated with the minimum value by increasing a width or a length of the respective electrode segment (ES), wherein steps b) to d) are repeated until a desired sensor value response with respect to the object moving along the predetermined axis at the constant distance is reached. a) subdividing the electrode (E) into a predetermined number of interconnected electrode segments (ES) along a predetermined axis, wherein each electrode segment has a predetermined electrode surface area, b) positioning an object (F) at a constant distance with respect to each electrode segment (ES) along the predetermined axis, determining for each electrode segment (ES) a respective sensor value when the object is located above one of the electrode segment (ES), c) determining minimum and maximum sensor values, d) adjusting the predetermined electrode surface area of the electrode segment (ES) associated with the maximum value by decreasing a width or a length of the respective electrode segment (ES) and adjusting the predetermined electrode surface area of the electrode segment (ES) associated with the minimum value by increasing a width or a length of the respective electrode segment (ES),
A machine for processing a liquid food substance, such as milk or a milk-based substance, comprising: - a container delimiting a cavity for containing said liquid food substance, such as a container provided with a removable lid for covering the cavity; - an impeller for driving said liquid food substance in the container ; - a motor for driving the impeller ; - a motor chamber for containing the motor , and optionally further components such as a control unit and/or a thermal conditioner e.g. a heater and/or a cooler; and - a means for evacuating heat from the motor chamber, the heat evacuation means comprising one or more movable members that are driven by the motor and that are configured to circulate air in the motor chamber to evacuate heat therefrom, the motor chamber having at least one opening for an exchange of air driven by said one or more movable members between the chamber and a space outside such machine , the heat evacuation means being optionally configured to evacuate heat by the circulated air from the motor chamber out of such machine predominantly via one or more passages separate from the cavity , the heat evacuation means being for instance configured so that a ratio of the heat evacuated by said passages over the heat evacuated by the cavity is greater than 2.5, such as greater than 5, for example greater than 10, e.g. greater than 30, characterised in that the motor chamber has one or more air inlet openings for letting air into the chamber and one or more air outlet openings for letting air out of the chamber when said one or more movable members are driven by the motor , such openings being located either on a machine external bottom face or on a machine external side face (40"). - a container delimiting a cavity for containing said liquid food substance, such as a container provided with a removable lid for covering the cavity; - an impeller for driving said liquid food substance in the container ; - a motor for driving the impeller ; - a motor chamber for containing the motor , and optionally further components such as a control unit and/or a thermal conditioner e.g. a heater and/or a cooler; and - a means for evacuating heat from the motor chamber,
A method comprising: applying a plurality of pressures to a three-dimensional reservoir rock sample in a closed volume, the reservoir rock sample comprising a plurality of porous regions distributed along a longitudinal axis of the reservoir rock sample, wherein the plurality of porous regions have a respective plurality of wettabilities, each wettability representing a quality of each porous region to absorb water; at each pressure of the plurality of pressures, applying a nuclear magnetic resonance pulse sequence to the plurality of porous regions distributed along the longitudinal axis of the reservoir rock sample; constructing a nuclear magnetic resonance gas adsorption isotherm curve for the reservoir rock sample in response to the application of the plurality of pressures and the application of the nuclear magnetic resonance pulse sequence; determining the plurality of wettabilities for the plurality of porous regions based on the nuclear magnetic resonance gas adsorption isotherm curve, each wettability of the plurality of wettabilities including a value representing the quality of each porous region to absorb water; determining a spatial wettability distribution for the reservoir rock sample based on the plurality of wettabilities; and providing the spatial wettability distribution for the reservoir rock sample. applying a plurality of pressures to a three-dimensional reservoir rock sample in a closed volume, the reservoir rock sample comprising a plurality of porous regions distributed along a longitudinal axis of the reservoir rock sample, wherein the plurality of porous regions have a respective plurality of wettabilities, each wettability representing a quality of each porous region to absorb water; at each pressure of the plurality of pressures, applying a nuclear magnetic resonance pulse sequence to the plurality of porous regions distributed along the longitudinal axis of the reservoir rock sample; constructing a nuclear magnetic resonance gas adsorption isotherm curve for the reservoir rock sample in response to the application of the plurality of pressures and the application of the nuclear magnetic resonance pulse sequence; determining the plurality of wettabilities for the plurality of porous regions based on the nuclear magnetic resonance gas adsorption isotherm curve, each wettability of the plurality of wettabilities including a value representing the quality of each porous region to absorb water; determining a spatial wettability distribution for the reservoir rock sample based on the plurality of wettabilities; and providing the spatial wettability distribution for the reservoir rock sample.
Electrically driven clutch actuator for actuating the clutch of a transmission of a vehicle, comprising: a threaded spindle rotationally driven by an electric motor , and a spindle nut mounted on the threaded spindle and being axially displaceable by rotation of the threaded spindle from a clutch engaging position (C) into a clutch disengaging position (D) corresponding to engaging and disengaging of the clutch, respectively, against the restoring force of the clutch, a control unit for activating the electric motor to apply a driving force to the threaded spindle , wherein the control unit is configured to hold the spindle nut in the clutch disengaging position (D) with a first value of the driving force, characterized in that the spindle is supported by one or more roller bearings , and in that the control unit is configured to, when the spindle nut is held in the clutch disengaging position (D) with the first value of the driving force, reduce the driving force in response to a trigger condition sensed by the control unit to a second value, the second value of the driving force being above a threshold value at which the spindle nut moves toward the clutch engaging position (C). a threaded spindle rotationally driven by an electric motor , and a spindle nut mounted on the threaded spindle and being axially displaceable by rotation of the threaded spindle from a clutch engaging position (C) into a clutch disengaging position (D) corresponding to engaging and disengaging of the clutch, respectively, against the restoring force of the clutch, a control unit for activating the electric motor to apply a driving force to the threaded spindle , wherein the control unit is configured to hold the spindle nut in the clutch disengaging position (D) with a first value of the driving force, characterized in that the spindle is supported by one or more roller bearings , and in that the control unit is configured to, when the spindle nut is held in the clutch disengaging position (D) with the first value of the driving force, reduce the driving force in response to a trigger condition sensed by the control unit to a second value, the second value of the driving force being above a threshold value at which the spindle nut moves toward the clutch engaging position (C).
An assembly for a turbine engine, comprising: a combustor wall including a first layer vertically connected with a second layer ; a first portion of the first layer overlapping and vertically spaced from the second layer by a cavity ; and a second portion of the first layer substantially vertically inline with an adjacent portion of the second layer , and at least partially forming a quench aperture vertically through the combustor wall , wherein the second portion is vertically depressed relative to the first portion , characterised in that the second portion extends at least partially vertically into an aperture in the second layer . a combustor wall including a first layer vertically connected with a second layer ; a first portion of the first layer overlapping and vertically spaced from the second layer by a cavity ; and a second portion of the first layer substantially vertically inline with an adjacent portion of the second layer , and at least partially forming a quench aperture vertically through the combustor wall , wherein the second portion is vertically depressed relative to the first portion , characterised in that the second portion extends at least partially vertically into an aperture in the second layer .
Apparatus for stripping an essentially polymeric outer cladding on a central essentially circular core of an elongated object , such as a polymeric cladding, optionally including an insulation, extruded around a central conductor of a voltage cable, the central core having a centre line and an outer surface , the apparatus comprising - a frame having an object inlet end and a opposite outlet end , and as seen in a direction from the cable inlet end towards the outlet end, a cutting device configured for stripping the cladding from the core and a centering device configured for centering the elongated object , the cutting device comprising a table being rotatable around a central rotational axis (R) extending between the object inlet end and the outlet end and being provided with a central opening allowing the elongated object to pass through there and being provided with at least one cutting tool configured for stripping the cladding by cutting, the at least one, alternatively each, cutting tool of the cutting device being a milling tool, such as a cylindrical cutter or an end mill, - the centering device comprising at least one centering element being configured to engage the outer surface of the core by means of an engagement surface of said centering element and centering the centre line of the core and thereby the elongated object to coincide with the central rotational axis (R) of the cutting device . - a frame having an object inlet end and a opposite outlet end , and as seen in a direction from the cable inlet end towards the outlet end, a cutting device configured for stripping the cladding from the core and a centering device configured for centering the elongated object , the cutting device comprising a table being rotatable around a central rotational axis (R) extending between the object inlet end and the outlet end and being provided with a central opening allowing the elongated object to pass through there and being provided with at least one cutting tool configured for stripping the cladding by cutting, the at least one, alternatively each, cutting tool of the cutting device being a milling tool, such as a cylindrical cutter or an end mill, - the centering device comprising at least one centering element being configured to engage the outer surface of the core by means of an engagement surface of said centering element and centering the centre line of the core and thereby the elongated object to coincide with the central rotational axis (R) of the cutting device .
Computer-implemented method for triggering a request for access to a production facility for manufacturing a part of a locking system, by means of a user terminal , characterized in that the method comprises: reading of data (K1; K2; K3; K4) for identification by the terminal and of a user-specific passive or active transmitting device on which these data (K1; K2; K3; K4) are stored, generating a temporal validity period, generating a token (FS) by means of the user terminal , the token (FS) comprising identification information and temporal validity information based on the data (K1; K2; K3; K4), sending the token (FS) through the user terminal and to a computing device . reading of data (K1; K2; K3; K4) for identification by the terminal and of a user-specific passive or active transmitting device on which these data (K1; K2; K3; K4) are stored, generating a temporal validity period, generating a token (FS) by means of the user terminal , the token (FS) comprising identification information and temporal validity information based on the data (K1; K2; K3; K4), sending the token (FS) through the user terminal and to a computing device .
Method of soil conditioning which consists in applying a water-soluble or water-swelling polymer to the soil, characterized in that : - the polymer is prepared as a polymer-concentrated liquid, - the preparation obtained in this way is applied to the surface of a support rotating about its axis of revolution in order to form droplets which are spread on the soil, - wherein the polymer-concentrated liquid includes at least water and/or oil and/or a solvent and a polymer whose concentration represents between more than 15% and 75% of the preparation weight when it is in the form of a dispersion and between 20 and 75 % when it is in the form of an emulsion. - the polymer is prepared as a polymer-concentrated liquid, - the preparation obtained in this way is applied to the surface of a support rotating about its axis of revolution in order to form droplets which are spread on the soil, - wherein the polymer-concentrated liquid includes at least water and/or oil and/or a solvent and a polymer whose concentration represents between more than 15% and 75% of the preparation weight when it is in the form of a dispersion and between 20 and 75 % when it is in the form of an emulsion.
Heating, ventilation and/or air-conditioning device for a motor vehicle, comprising at least one first air circulation duct , at least one second air circulation duct , means for generating a flow of air (F1, F2) in the first air circulation duct and/or in the second air circulation duct , the device further comprising inlet means for a cleaning product opening into the first air circulation duct and/or into the second air circulation duct , characterized in that the first inlet means comprise a first cleaning product supply duct opening into the first air circulation duct and the second inlet means comprise a second cleaning product supply duct opening into the second air circulation duct , the first air circulation duct consisting, at least in part, of a first volute the second air circulation duct consisting, at least in part, of a second volute , the first and second air circulation ducts being separated from one another, at least in part, by a separating partition .
An exhaust gas purifying catalyst comprising a base material and a catalyst layer comprising alumina particles, ceria-zirconia composite oxide particles and a catalytically active component, the catalyst layer obtainable by a process comprising using alumina powder having an average particle size (D50) of 15 μm to 40 μm and ceria-zirconia composite oxide particle powder having a D50 of 1 μm to 10 μm, each determined by a laser diffraction and scattering-type particle size distribution measuring method, wherein the ratio of the D50s of said two types of particles is 2.0 or more and a catalytically active component to prepare a slurry, significantly increasing the viscosity of the slurry to 5 to 40 Pa · s (5,000 to 40,000 cp) followed by coating the resulting slurry on the base material, and quickly drying the coating by applying hot air having a temperature of 100 to 200 °C to the coating surface so that the hot air may pass through the voids, the catalyst layer further comprising voids, wherein; as a first characteristic, the voids satisfying a condition of the following (formula 1) occupy 50% or more by number of all the voids in the catalyst layer: L / 2 / πS 1 / 2 ≥ 2 wherein S represents a void cross-sectional area, and L represents a void cross-sectional circumference in the (formula 1); as a second characteristic, in the void cross-sectional area in the catalyst layer, an average void radius, determined assuming that a void shape is a perfect circle, is 10 μm to 20 μm.
A bend-open package , comprising: a package body configured to store content (C), the package body being at least partially a flat member including a bend portion that is bendable for being folded into two; and a sealant press-bonded to a surface of the flat member to cover an opening in the bend portion , the sealant being configured to rupture and open in accordance with bending of the bend portion , the sealant having a periphery embedded in and press-bonded to the surface of the flat member ; characterized by a protrusion located on the surface of the flat member along an edge included in the sealant periphery , the protrusion protruding outwardly from the surface of the flat member and having a height (E2) smaller than the thickness (E1) of the sealant and smaller than the height of the sealant , wherein the protrusion height (E2) is 0.5 or more times the thickness (E1) of the sealant , and the embedding depth is about 0.5 or more times of the thickness (E1) of the sealant . a package body configured to store content (C), the package body being at least partially a flat member including a bend portion that is bendable for being folded into two; and a sealant press-bonded to a surface of the flat member to cover an opening in the bend portion , the sealant being configured to rupture and open in accordance with bending of the bend portion , the sealant having a periphery embedded in and press-bonded to the surface of the flat member ; characterized by a protrusion located on the surface of the flat member along an edge included in the sealant periphery , the protrusion protruding outwardly from the surface of the flat member and having a height (E2) smaller than the thickness (E1) of the sealant and smaller than the height of the sealant , wherein the protrusion height (E2) is 0.5 or more times the thickness (E1) of the sealant , and the embedding depth is about 0.5 or more times of the thickness (E1) of the sealant .
A method for the equipping of an antenna structure , in particular an RFID antenna structure, with an electronic component , in particular with an RFID chip, wherein the method comprises: producing the antenna structure , prior to the application of the component , by printing the antenna structure on the carrier substrate by means of a sinterable material that is electrically conductive after its sintering, wherein the sinterable material is a sinterable ink which contains electrically conductive particles in order to form an electrical conductivity of the antenna structure , which is sintered by the subsequent heating; applying of an electronic component to the antenna structure (1; 1a, 1b) which is formed on a carrier substrate and which is made from the sinterable material that is electrically conductive after its sintering, so that a contact surface is formed between a contact region of the antenna structure and a corresponding electrical contact of the component ; heating the antenna structure in order to sinter the same, and, caused thereby, with simultaneous formation of an adhesive-free mechanical and electrical connection between the contact region of the antenna structure and the electrical contact of the component ; heating the sinterable material in the region of the contact surface to a temperature which is below the sintering temperature of the sinterable material for preliminary adhesive-free mechanical connection of the component with the antenna structure . producing the antenna structure , prior to the application of the component , by printing the antenna structure on the carrier substrate by means of a sinterable material that is electrically conductive after its sintering, wherein the sinterable material is a sinterable ink which contains electrically conductive particles in order to form an electrical conductivity of the antenna structure , which is sintered by the subsequent heating; applying of an electronic component to the antenna structure (1; 1a, 1b) which is formed on a carrier substrate and which is made from the sinterable material that is electrically conductive after its sintering, so that a contact surface is formed between a contact region of the antenna structure and a corresponding electrical contact of the component ; heating the antenna structure in order to sinter the same, and, caused thereby, with simultaneous formation of an adhesive-free mechanical and electrical connection between the contact region of the antenna structure and the electrical contact of the component ; heating the sinterable material in the region of the contact surface to a temperature which is below the sintering temperature of the sinterable material for preliminary adhesive-free mechanical connection of the component with the antenna structure .
An anti-human PD-1 monoclonal antibody, characterized in that the anti-human PD-1 monoclonal antibody comprises: a heavy chain complementarity determining region CDRH1, CDRH2, CDRH3, wherein the CDRH1 has the amino acid sequence as shown in SEQ ID NO: 1, the CDRH2 has the amino acid sequence as shown in SEQ ID NO: 2, and the CDRH3 has the amino acid sequence as shown in SEQ ID NO: 3, and a light chain complementarity determining region CDRL1, CDRL2, CDRL3, wherein the CDRL1 has the amino acid sequence as shown in SEQ ID NO: 4, the CDRL2 has the amino acid sequence as shown in SEQ ID NO: 5, and the CDRL3 has the amino acid sequence as shown in SEQ ID NO: 6; wherein the anti-human PD-1 monoclonal antibody comprises a heavy chain variable region having the amino acid sequence as shown in SEQ ID NO: 7, and a light chain variable region having the amino acid sequence as shown in SEQ ID NO: 9. a heavy chain complementarity determining region CDRH1, CDRH2, CDRH3, wherein the CDRH1 has the amino acid sequence as shown in SEQ ID NO: 1, the CDRH2 has the amino acid sequence as shown in SEQ ID NO: 2, and the CDRH3 has the amino acid sequence as shown in SEQ ID NO: 3, and a light chain complementarity determining region CDRL1, CDRL2, CDRL3, wherein the CDRL1 has the amino acid sequence as shown in SEQ ID NO: 4, the CDRL2 has the amino acid sequence as shown in SEQ ID NO: 5, and the CDRL3 has the amino acid sequence as shown in SEQ ID NO: 6;