mhurhangee/patent-ind-claim-en huggingface dataset:
A method for controlling an electrical converter for driving an electrical machine , the method comprising: estimating a stator flux vector ( ψ s ) depending on at least one measurement in the electrical converter ; determining an optimized pulse pattern (OPP) for the electrical converter depending on a reference angular stator frequency ( ω s * ); determining a reference stator angle ( θ s ∗ ) of the stator flux vector ( ψ s ) depending on the reference angular stator frequency ( ω s ∗ ); determining a reference stator flux vector ( ψ s ∗ ) depending on the optimized pulse pattern (OPP) and the reference stator angle ( θ s ∗ ); determining a difference between the reference stator flux vector ( ψ s ∗ ) and the estimated stator flux vector ( ψ s ); modifying switching instants of the optimized pulse pattern (OPP), such that the difference is minimized; and applying at least a part of the modified optimized pulse pattern (OPP) to the electrical converter . estimating a stator flux vector ( ψ s ) depending on at least one measurement in the electrical converter ; determining an optimized pulse pattern (OPP) for the electrical converter depending on a reference angular stator frequency ( ω s * ); determining a reference stator angle ( θ s ∗ ) of the stator flux vector ( ψ s ) depending on the reference angular stator frequency ( ω s ∗ ); determining a reference stator flux vector ( ψ s ∗ ) depending on the optimized pulse pattern (OPP) and the reference stator angle ( θ s ∗ ); determining a difference between the reference stator flux vector ( ψ s ∗ ) and the estimated stator flux vector ( ψ s ); modifying switching instants of the optimized pulse pattern (OPP), such that the difference is minimized; and applying at least a part of the modified optimized pulse pattern (OPP) to the electrical converter .
A sole element, insertable into a shoe, comprising a flexible top layer to receive a foot in a cushion , an inlay body having different bending properties in different sub-areas, which inlay body extends parallel to a top layer surface and which inlay body is connected to the top layer surface, the inlay body being formed as a one-piece body extending over a first sub-area and over a second sub-area , which first sub-area of the inlay body having high bending stiffness is disposed in a plane adjacent to the second sub-area of the inlay body having low bending stiffness, wherein the second sub-area is disposed in a manner at least partially enclosing the first sub-area , wherein the first sub-area is disposed in the area of the metatarsus and/or in the heel area, characterised in that the inlay body has an arcuate shape in the first sub-area, wherein the inlay body has an arcuate shape with bending stiffness increasing from an arc end to a vertex in the first sub-area. a flexible top layer to receive a foot in a cushion , an inlay body having different bending properties in different sub-areas, which inlay body extends parallel to a top layer surface and which inlay body is connected to the top layer surface, the inlay body being formed as a one-piece body extending over a first sub-area and over a second sub-area , which first sub-area of the inlay body having high bending stiffness is disposed in a plane adjacent to the second sub-area of the inlay body having low bending stiffness, wherein the second sub-area is disposed in a manner at least partially enclosing the first sub-area , wherein the first sub-area is disposed in the area of the metatarsus and/or in the heel area, characterised in that the inlay body has an arcuate shape in the first sub-area, wherein the inlay body has an arcuate shape with bending stiffness increasing from an arc end to a vertex in the first sub-area.
A method for aligning an input interface of a touchscreen with an overlay for the touchscreen, the method comprising: receiving a touch input on the touchscreen, wherein the touch input identifies a first position on the touchscreen corresponding to an alignment mark (220, A, B) of the overlay; receiving a second touch input on the touchscreen that identifies a second position on the touchscreen corresponding to a second alignment mark (220, A, B) of the overlay; determining, based on the received touch input, a region of the touchscreen in which to render the input interface; and rendering the input interface in the determined region of the touchscreen; characterised in that the method comprises: rendering the input interface in a first scheme when a short edge of the input interface is oriented horizontally on the touchscreen; and rendering the input interface in a second scheme when a short edge of the input interface is oriented vertically on the touchscreen; wherein the input elements of the input interface are arranged differently in the first and second schemes. receiving a touch input on the touchscreen, wherein the touch input identifies a first position on the touchscreen corresponding to an alignment mark (220, A, B) of the overlay; receiving a second touch input on the touchscreen that identifies a second position on the touchscreen corresponding to a second alignment mark (220, A, B) of the overlay; determining, based on the received touch input, a region of the touchscreen in which to render the input interface; and rendering the input interface in the determined region of the touchscreen; characterised in that the method comprises: rendering the input interface in a first scheme when a short edge of the input interface is oriented horizontally on the touchscreen; and rendering the input interface in a second scheme when a short edge of the input interface is oriented vertically on the touchscreen; wherein the input elements of the input interface are arranged differently in the first and second schemes. rendering the input interface in a first scheme when a short edge of the input interface is oriented horizontally on the touchscreen; and rendering the input interface in a second scheme when a short edge of the input interface is oriented vertically on the touchscreen; wherein the input elements of the input interface are arranged differently in the first and second schemes.
A bipolar separator plate with channels for a fuel cell , the bipolar separator plate being formed of two elementary plates superimposed on one another, each elementary plate comprising a fixing face facing the other elementary plate and a flow face facing away from the other elementary plate and defining at least one channel for the flow of a reactive gas; characterized in that the bipolar separator plate further comprises: - an adhesive placed between the two elementary plates to join the two elementary plates ; and - a metal insert interposed between the two elementary plates and protruding from an edge of the bipolar separator plate , a portion of the adhesive being in contact with the metal insert . - an adhesive placed between the two elementary plates to join the two elementary plates ; and - a metal insert interposed between the two elementary plates and protruding from an edge of the bipolar separator plate , a portion of the adhesive being in contact with the metal insert .
A method of making a vacuum insulated glass, VIG, unit , the method comprising: providing first and second glass substrates in substantially parallel, spaced apart relation to one another, a gap being defined between the first and second substrates ; disposing a material proximate to the first and/ or second glass substrates , the material comprising at least a frit material and a coefficient of thermal expansion, CTE, material; and applying energy to the material so as to melt the material at a melting temperature, wherein the CTE material comprises elements that are perfectly, partially and/or substantially spherical in form, wherein the elements have an average diameter or major distance of between 70 and 90 microns, and wherein the frit material is formed from a base composition including: Ingredient Normalized Mole % vanadium oxide ∼45-50%, barium oxide ∼20-23%, and zinc oxide ∼19-22%. providing first and second glass substrates in substantially parallel, spaced apart relation to one another, a gap being defined between the first and second substrates ; disposing a material proximate to the first and/ or second glass substrates , the material comprising at least a frit material and a coefficient of thermal expansion, CTE, material; and applying energy to the material so as to melt the material at a melting temperature, wherein the CTE material comprises elements that are perfectly, partially and/or substantially spherical in form, wherein the elements have an average diameter or major distance of between 70 and 90 microns, and wherein the frit material is formed from a base composition including: Ingredient Normalized Mole % vanadium oxide ∼45-50%, barium oxide ∼20-23%, and zinc oxide ∼19-22%.
A method for measuring a magnetic resonance spectrum (M) of a sample , the method comprising - providing the sample to be measured in proximity to a sensor array , the sensor array comprising a plurality of magnetic resonance sensors distributed along a predefined coordinate (X) of the sensor array ; - applying a magnetic field gradient over the sample , wherein the magnetic field (B) varies over different regions (S) of the sample as a function of a respective position of each sample region (S) along the coordinate (X); and - recording, in the presence of the magnetic field gradient, sensor signals (Lu) of the magnetic resonance sensors as a function of the coordinate (X) to determine the magnetic resonance spectrum (M), the sensor signals acquired with the magnetic resonance sensors being dependent on nearby magnetic resonance of the sample and corresponding to respective parts of the magnetic resonance spectrum dependent on the coordinate (X). - providing the sample to be measured in proximity to a sensor array , the sensor array comprising a plurality of magnetic resonance sensors distributed along a predefined coordinate (X) of the sensor array ; - applying a magnetic field gradient over the sample , wherein the magnetic field (B) varies over different regions (S) of the sample as a function of a respective position of each sample region (S) along the coordinate (X); and - recording, in the presence of the magnetic field gradient, sensor signals (Lu) of the magnetic resonance sensors as a function of the coordinate (X) to determine the magnetic resonance spectrum (M), the sensor signals acquired with the magnetic resonance sensors being dependent on nearby magnetic resonance of the sample and corresponding to respective parts of the magnetic resonance spectrum dependent on the coordinate (X).
An optoelectronic sensor for determining the distance of an object in a monitoring area , the sensor comprising a light transmitter for transmitting transmitted light , a light receiver for generating a received signal from remitted light that is remitted at the object , and a control and evaluation unit configured to modulate the transmitted light with at least a first frequency and a second frequency, to determine a phase offset between the transmitted light and the remitted light for the first frequency and the second frequency and, from this, to determine a light time of flight and, from the received signal, a first amplitude and a second amplitude for the first and the second frequencies, characterized in that the control and evaluation unit is further configured to detect an edge hit by means of an evaluation of the first amplitude and the second amplitude in the event of a difference in the amplitudes that is larger than due to noise, and to localize an object in the monitoring area on the basis of a detected edge hit, an edge hit meaning that the transmitted light is incident with a respective partial cross section on object surfaces at different distances.
A method of fabricating an image generator for use in a display, the method comprising: fabricating a plurality of discrete ILED array chips, each discrete ILED array chip having more than one individually addressable light emitting region and comprising a monolithic array of a plurality of ILED emitters configured to produce light having the same wavelength, different discrete ILED array chips of the plurality of discrete ILED array chips configured to produce light of different wavelengths; positioning the plurality of discrete ILED array chips on a carrier substrate to form a pixel of the display by ILED emitters from adjacent chips of the plurality of discrete ILED array chips, the ILED emitters from the plurality of discrete ILED array chips configured to collectively produce light of different wavelengths for the pixel; and bonding a first surface of the plurality of discrete ILED array chips that form the pixel to a driver backplane such that electrical contacts of the plurality of discrete ILED array chips are in electrical communication with the driver backplane, wherein the driver backplane comprises electronics for driving the plurality of discrete ILED array chips.
A housing assembly for an apparatus for generating a virtual image (VI), the housing assembly comprising a lower housing and an upper housing , wherein the lower housing comprises support structures for installation of an image generator or an optical unit of the apparatus for generating a virtual image (VI), and wherein the upper housing comprises a support surface configured to carry a cover glass, characterized in that the upper housing is fastened to the lower housing by at least one flat metal spring clip , which is mounted on the housing assembly at respective fastening points of the lower housing and the upper housing .
A control and/or display case for a household appliance comprising at least one mounting comprising a reference frame , the case being characterized in that that: - in a first state, the mounting comprises at least one member referred to as "detachable" , the detachable member comprising at least one base connected, at a first location, to the reference frame by at least one bridge of material forming a frangible lug, and in that - in a second state, the detachable member is positioned at a second location, provided within the reference frame of the mounting, that is distinct from the first location. - in a first state, the mounting comprises at least one member referred to as "detachable" , the detachable member comprising at least one base connected, at a first location, to the reference frame by at least one bridge of material forming a frangible lug, and in that - in a second state, the detachable member is positioned at a second location, provided within the reference frame of the mounting, that is distinct from the first location.
Liquid cooled cable arrangement for high-power fast charging of electric vehicles, comprising a charging connector and a liquid cooled charging cable , whereby the liquid cooled charging cable comprises a plurality of conductors for supplying charging current and at least two fluid channels for supply and return liquid coolant, the charging connector comprises a plurality of bus bars and a plurality of contacts , each one conductor is electrically and thermally connected to one bus bar and via the bus bar to one contact , and the charging connector comprises a second part consisting of a thermally conductive and electrically insulating material comprising two semi-circular-like openings, into which the bus bars are inserted and to which the fluid channels are thermally connected such that heat generated in the contacts during charging can be removed by the liquid coolant, and the bus bars comprise bus bar fluid channels to which the fluid channels are thermally connected such that heat generated in the contacts during charging can be removed by the liquid coolant. a charging connector and a liquid cooled charging cable , whereby the liquid cooled charging cable comprises a plurality of conductors for supplying charging current and at least two fluid channels for supply and return liquid coolant, the charging connector comprises a plurality of bus bars and a plurality of contacts , each one conductor is electrically and thermally connected to one bus bar and via the bus bar to one contact , and the charging connector comprises a second part consisting of a thermally conductive and electrically insulating material comprising two semi-circular-like openings, into which the bus bars are inserted and to which the fluid channels are thermally connected such that heat generated in the contacts during charging can be removed by the liquid coolant, and the bus bars comprise bus bar fluid channels to which the fluid channels are thermally connected such that heat generated in the contacts during charging can be removed by the liquid coolant.
A one step hair color and relaxer system comprising: an alkalizing agent in the range between about 0.1 to about 8 weight % based upon the total concentration of the hair color and relaxer system; at least one hair dye; and an oxidizing agent in the range between about 1 to about 2 weight % based upon the total concentration of the hair color and relaxer system; wherein said pH of the hair color and relaxer system is in the range between about 9 to about 14, wherein said alkalizing agent is at least one selected from the group consisting of: lithium hydroxide, sodium hydroxide, potassium hydroxide, metal hydroxide blends wherein said hair dye is at least one selected from the group consisting of: oxidative dyes and direct dyes. an alkalizing agent in the range between about 0.1 to about 8 weight % based upon the total concentration of the hair color and relaxer system; at least one hair dye; and an oxidizing agent in the range between about 1 to about 2 weight % based upon the total concentration of the hair color and relaxer system; wherein said pH of the hair color and relaxer system is in the range between about 9 to about 14, wherein said alkalizing agent is at least one selected from the group consisting of: lithium hydroxide, sodium hydroxide, potassium hydroxide, metal hydroxide blends wherein said hair dye is at least one selected from the group consisting of: oxidative dyes and direct dyes.
A method comprising: receiving , by a network exposure function, NEF, a request from an application function, AF, wherein the request includes information identifying a user equipment, UE, group which includes member UEs; and sending , by the NEF to a unified data management, UDM, a message including the information identifying the UE group; and obtaining , by the NEF from the UDM , an internal group ID, wherein the internal group ID is mapped to the information identifying the UE group, wherein the UDM is selected by the NEF . receiving , by a network exposure function, NEF, a request from an application function, AF, wherein the request includes information identifying a user equipment, UE, group which includes member UEs; and sending , by the NEF to a unified data management, UDM, a message including the information identifying the UE group; and obtaining , by the NEF from the UDM , an internal group ID, wherein the internal group ID is mapped to the information identifying the UE group, wherein the UDM is selected by the NEF .
An aqueous ionomer dispersion comprising an ionomer composition and water, wherein the ionomer composition comprises: a) at least 20 wt.%, based on the total weight percent of the ionomer composition, of an ionomer, wherein the ionomer is an ethylene acid copolymer that is at least partially neutralized, wherein the ethylene acid copolymer is the polymerized reaction product of: from 70 to 85 wt.% of ethylene; and from 15 to 30 wt.% of a monocarboxylic acid, based on the total weight of monomers present in the ethylene acid copolymer; wherein at least 70 mole % of total acid units of the ethylene acid copolymer are neutralized, with from 15 mole % to 50 mole % of total acid units of the ethylene acid copolymer being neutralized with a zinc cation and at least 40 mole % of total acid units of the ethylene acid copolymer being neutralized with a monovalent cation; and b) up to 80 wt.%, based on the total weight percent of the ionomer composition, of a polyolefin. a) at least 20 wt.%, based on the total weight percent of the ionomer composition, of an ionomer, wherein the ionomer is an ethylene acid copolymer that is at least partially neutralized, wherein the ethylene acid copolymer is the polymerized reaction product of: from 70 to 85 wt.% of ethylene; and from 15 to 30 wt.% of a monocarboxylic acid, based on the total weight of monomers present in the ethylene acid copolymer; wherein at least 70 mole % of total acid units of the ethylene acid copolymer are neutralized, with from 15 mole % to 50 mole % of total acid units of the ethylene acid copolymer being neutralized with a zinc cation and at least 40 mole % of total acid units of the ethylene acid copolymer being neutralized with a monovalent cation; and from 70 to 85 wt.% of ethylene; and from 15 to 30 wt.% of a monocarboxylic acid, based on the total weight of monomers present in the ethylene acid copolymer; wherein at least 70 mole % of total acid units of the ethylene acid copolymer are neutralized, with from 15 mole % to 50 mole % of total acid units of the ethylene acid copolymer being neutralized with a zinc cation and at least 40 mole % of total acid units of the ethylene acid copolymer being neutralized with a monovalent cation; and b) up to 80 wt.%, based on the total weight percent of the ionomer composition, of a polyolefin.