mhurhangee/patent-ind-claim-en huggingface dataset:
An electronic device , comprising: a communicator ; a storage configured to store a channel map including a channel name,, and a channel number corresponding to the channel name; and a processor configured to: obtain a first keyword from a first voice command received through the communicator, based on a channel name corresponding to the keyword being not identified in the channel map, store the keyword as a first keyword, obtain a second keyword from a second voice command received through the communicator, the second voice command being received within a predetermined time from a time when the first voice command is received, and based on a channel name corresponding to the second keyword being identified in the channel map, select a channel number corresponding to the identified channel name and add the first keyword to the channel map as a pseudo channel name for the selected channel number. a communicator ; a storage configured to store a channel map including a channel name,, and a channel number corresponding to the channel name; and a processor configured to: obtain a first keyword from a first voice command received through the communicator, based on a channel name corresponding to the keyword being not identified in the channel map, store the keyword as a first keyword, obtain a second keyword from a second voice command received through the communicator, the second voice command being received within a predetermined time from a time when the first voice command is received, and based on a channel name corresponding to the second keyword being identified in the channel map, select a channel number corresponding to the identified channel name and add the first keyword to the channel map as a pseudo channel name for the selected channel number. obtain a first keyword from a first voice command received through the communicator, based on a channel name corresponding to the keyword being not identified in the channel map, store the keyword as a first keyword, obtain a second keyword from a second voice command received through the communicator, the second voice command being received within a predetermined time from a time when the first voice command is received, and based on a channel name corresponding to the second keyword being identified in the channel map, select a channel number corresponding to the identified channel name and add the first keyword to the channel map as a pseudo channel name for the selected channel number.
Rubber composition based on one or more diene elastomer(s), on at least one reinforcing filler, on at least one coupling agent, on at least one chemical crosslinking system, wherein the reinforcing filler comprises silica in the form of essentially spherical nanoparticles having a sphericity index of greater than or equal to 0.80, the BET specific surface area of this silica ranging from 30 m 2 /g to 250 m 2 /g.
A braking device for vehicles, comprising a support element , a block of friction material supported by the support element , and electrically isolated electrical circuit that has at least one piezoceramic sensor and is interposed between the block of friction material and the support element , characterized in that it comprises a conditioner for conditioning the electrical signal of said at least one piezoceramic sensor comprising a passive analog stage for measurement and a processing digital stage for processing the output signal from said passive analog stage, said passive analog stage comprises a charge derivative electrical circuit and in that said processing digital stage is a stage for digitization and integration of the output signal from said passive analog stage, said passive analog stage for measurement is integrated in an electric cable connector of said electrical circuit for transferring said electrical signal or in said cable, said processing digital stage being remotely located from said passive analog stage, said conditioner comprises an analog stage and a digital stage, said analog stage comprising said passive analog stage and an active analog stage integrated in said cable or in said connector, said active analog stage comprising at least a buffer in a decoupling inverting configuration, said digital stage comprising said processing digital stage.
An amplifier arrangement comprising N amplifier stages (10 1 to 10 N ) coupled to an output impedance network comprising a cascade of quarter wavelength transmission lines, wherein the amplifier arrangement comprises a main amplifier (10 2 ) and a plurality of peaking amplifiers (10 1 , 10 3 to 10 N ) adapted to operate in a Doherty mode of operation, wherein the cascade of quarter wavelength transmission lines is coupled between an output of the main amplifier (10 2 ) of the N amplifier stages (10 1 to 10 N ) and an output node of the amplifier arrangement, characterised by the cascade comprises N-1 quarter wavelength transmission lines (11 1 to 11 N-1 ), and an output of one peaking amplifier (10 N ) of the N amplifier stages is coupled to the output node , and remaining peaking amplifiers (10 1 , 10 3 to 10 N-1 ) of the N amplifier stages are coupled to respective junctions (12 1 to 12 N-2 ) in the main cascade of quarter wavelength transmission lines (11 1 to 11 N-1 ); wherein the amplifier arrangement is further adapted such that at least two peaking amplifiers are collectively driven by time-delayed versions of the same signal ; and either; at least one of the said quarter wavelength transmission lines (11 1 to 11 N-1 ) has a length of a quarter wavelength (11 2 ) plus either a half wavelength transmission line (13 1 ) or plus multiples of half wavelength transmission lines , and at least one of the peaking amplifiers (10 1 , 10 3 to 10 N ) is coupled to a respective junction or output node of the cascade via a connecting half wavelength transmission line (13, 13 6 ) or via multiples of half wavelength transmission lines or; at least one of the said quarter wavelength transmission lines (11 1 to 11 N-1 ) has a length of a quarter wavelength (11 2 ) plus a half wavelength transmission line (13 1 ) or plus multiples of half wavelength transmission lines or; at least one of the peaking amplifiers (10 1 , 10 3 to 10 N ) is coupled to a respective junction or output node of the cascade via a connecting half wavelength transmission line (13, 13 2-5 , 13 7-25 ) or via multiples of half wavelength transmission lines . at least one of the said quarter wavelength transmission lines (11 1 to 11 N-1 ) has a length of a quarter wavelength (11 2 ) plus either a half wavelength transmission line (13 1 ) or plus multiples of half wavelength transmission lines , and at least one of the peaking amplifiers (10 1 , 10 3 to 10 N ) is coupled to a respective junction or output node of the cascade via a connecting half wavelength transmission line (13, 13 6 ) or via multiples of half wavelength transmission lines or; at least one of the said quarter wavelength transmission lines (11 1 to 11 N-1 ) has a length of a quarter wavelength (11 2 ) plus a half wavelength transmission line (13 1 ) or plus multiples of half wavelength transmission lines or; at least one of the peaking amplifiers (10 1 , 10 3 to 10 N ) is coupled to a respective junction or output node of the cascade via a connecting half wavelength transmission line (13, 13 2-5 , 13 7-25 ) or via multiples of half wavelength transmission lines .
A process for preparing an inorganic foam comprising the steps of mixing (i) at least one group of inorganic particles wherein the inorganic particles (i) are not identical to the inorganic binders (iiia) and/or (iiib); (ii) at least one amphiphilic compound; (iii) at least one inorganic binder mixture comprising (iiia) at least one calcium sulfoaluminate mixture, and optionally (iiib) at least one further inorganic binder selected from the group consisting of hydraulic binders, latent hydraulic binders, pozzolanic binders, and mixtures thereof; (iv) water; and optionally (v) at least one additive; and foaming the resulting foam formulation by chemical, physical or mechanical foaming; wherein step comprises the steps of dispersing the at least one group of inorganic particles, the at least one amphiphilic compound, and optionally the at least one additive in water to obtain an aqueous dispersion; and mixing the aqueous dispersion with the at least one inorganic binder mixture. mixing (i) at least one group of inorganic particles wherein the inorganic particles (i) are not identical to the inorganic binders (iiia) and/or (iiib); (ii) at least one amphiphilic compound; (iii) at least one inorganic binder mixture comprising (iiia) at least one calcium sulfoaluminate mixture, and optionally (iiib) at least one further inorganic binder selected from the group consisting of hydraulic binders, latent hydraulic binders, pozzolanic binders, and mixtures thereof; (iv) water; and optionally (v) at least one additive; and (i) at least one group of inorganic particles wherein the inorganic particles (i) are not identical to the inorganic binders (iiia) and/or (iiib); (ii) at least one amphiphilic compound; (iii) at least one inorganic binder mixture comprising (iiia) at least one calcium sulfoaluminate mixture, and optionally (iiib) at least one further inorganic binder selected from the group consisting of hydraulic binders, latent hydraulic binders, pozzolanic binders, and mixtures thereof; (iiia) at least one calcium sulfoaluminate mixture, and optionally (iiib) at least one further inorganic binder selected from the group consisting of hydraulic binders, latent hydraulic binders, pozzolanic binders, and mixtures thereof; (iv) water; and optionally (v) at least one additive; and foaming the resulting foam formulation by chemical, physical or mechanical foaming; wherein step comprises the steps of dispersing the at least one group of inorganic particles, the at least one amphiphilic compound, and optionally the at least one additive in water to obtain an aqueous dispersion; and mixing the aqueous dispersion with the at least one inorganic binder mixture. dispersing the at least one group of inorganic particles, the at least one amphiphilic compound, and optionally the at least one additive in water to obtain an aqueous dispersion; and mixing the aqueous dispersion with the at least one inorganic binder mixture.
A data carrier comprising a layer at least partially coated with a layer of material with optically variable properties, the layer of material with optically variable properties being transparent, wherein the carrier comprises an at least partially transparent laser-markable layer wherein markings capable of being made with a laser can be applied, such that the markings after being applied will be visible from both sides of the carrier, and wherein the laser-markable layer is located so that the laser-made marking after application thereof will partially obscure the visibility of the coating with optically variable properties from one side of the carrier, and from the other side of the carrier it will provide a contrasting background for the coating with optically variable properties , therefore providing the marking , seen from the laser-unmarked side of the carrier, with optically variable properties characterized in that at least part of the area coated with the material with optically variable properties is transparent, and between the coating with optically variable properties and the laser-markable layer is at least one transparent layer that is non-laser-markable. wherein the carrier comprises an at least partially transparent laser-markable layer wherein markings capable of being made with a laser can be applied, such that the markings after being applied will be visible from both sides of the carrier, and wherein the laser-markable layer is located so that the laser-made marking after application thereof will partially obscure the visibility of the coating with optically variable properties from one side of the carrier, and from the other side of the carrier it will provide a contrasting background for the coating with optically variable properties , therefore providing the marking , seen from the laser-unmarked side of the carrier, with optically variable properties characterized in that at least part of the area coated with the material with optically variable properties is transparent, and between the coating with optically variable properties and the laser-markable layer is at least one transparent layer that is non-laser-markable.
An antigen binding fragment of an anti-thymic stromal lymphopoietin (TSLP) antibody comprising a heavy chain having the sequence set forth in SEQ ID NO:28 and a light chain having the sequence set forth in SEQ ID NO:29.
A coated glazing comprising at least the following layers in sequence: a transparent glass substrate, a layer based on an oxide of a metal and/or a layer based on an oxide of a metalloid, and a further layer, wherein either said layer based on an oxide of a metal or said layer based on an oxide of a metalloid is adjacent said transparent glass substrate, wherein said layer that is adjacent said transparent glass substrate comprises a surface that, prior to a coating of said surface, has an arithmetical mean height of the surface value, Sa, of at least 4.0 nm when tested in accordance with ISO 25178-2:2012, and wherein the coated glazing exhibits an average haze value of at least 0.47% when tested in accordance with ASTM D1003 - 13. a transparent glass substrate, a layer based on an oxide of a metal and/or a layer based on an oxide of a metalloid, and a further layer, wherein either said layer based on an oxide of a metal or said layer based on an oxide of a metalloid is adjacent said transparent glass substrate, wherein said layer that is adjacent said transparent glass substrate comprises a surface that, prior to a coating of said surface, has an arithmetical mean height of the surface value, Sa, of at least 4.0 nm when tested in accordance with ISO 25178-2:2012, and wherein the coated glazing exhibits an average haze value of at least 0.47% when tested in accordance with ASTM D1003 - 13.
A floor lighting assembly comprising: a luminous composite sheet including a light guide film and a plurality of light sources , the light guide film having a top side , a bottom side opposite the top side , and an edge extending from the top side to the bottom side , the light sources arranged in a row at or proximate to the edge of the light guide film , the light sources configured to emit light into the light guide film through the edge ; and a light transmissive carpet disposed above the top side of the light guide film , the light transmissive carpet including a backing structure and a pile mounted to and extending from the backing structure , wherein the light guide film is configured to spread and redirect the light that is received therein through the edge for emitting the light through the top side of the light guide film such that some of the light is transmitted through the light transmissive carpet ; wherein the luminous composite sheet also includes a substrate on which the light sources are mounted, the substrate positioned adjacent to the edge of the light guide film , and a laminate coating that covers a top side of the substrate , the light sources and the top side of the light guide film , wherein a top surface of the laminate coating is planar and the light transmissive carpet is disposed on the top surface . a luminous composite sheet including a light guide film and a plurality of light sources , the light guide film having a top side , a bottom side opposite the top side , and an edge extending from the top side to the bottom side , the light sources arranged in a row at or proximate to the edge of the light guide film , the light sources configured to emit light into the light guide film through the edge ; and a light transmissive carpet disposed above the top side of the light guide film , the light transmissive carpet including a backing structure and a pile mounted to and extending from the backing structure , wherein the light guide film is configured to spread and redirect the light that is received therein through the edge for emitting the light through the top side of the light guide film such that some of the light is transmitted through the light transmissive carpet ; wherein the luminous composite sheet also includes a substrate on which the light sources are mounted, the substrate positioned adjacent to the edge of the light guide film , and a laminate coating that covers a top side of the substrate , the light sources and the top side of the light guide film , wherein a top surface of the laminate coating is planar and the light transmissive carpet is disposed on the top surface .
A handheld electronic device comprising: an electronic component that produces heat during operation; and a thermal control device for dissipating the heat produced by the electronic component away from the electronic component, comprising: a vapor chamber comprising a fluid to transport heat from a first portion of the vapor chamber to a second portion of the vapor chamber ; and an isolation chamber adjacent the vapor chamber and fluidically isolated from the vapor chamber , the isolation chamber evacuated to a pressure less than atmospheric pressure to thermally isolate at least a portion of the vapor chamber , wherein a surface of the thermal control device forms an outer housing surface of the electronic device . an electronic component that produces heat during operation; and a thermal control device for dissipating the heat produced by the electronic component away from the electronic component, comprising: a vapor chamber comprising a fluid to transport heat from a first portion of the vapor chamber to a second portion of the vapor chamber ; and an isolation chamber adjacent the vapor chamber and fluidically isolated from the vapor chamber , the isolation chamber evacuated to a pressure less than atmospheric pressure to thermally isolate at least a portion of the vapor chamber , wherein a surface of the thermal control device forms an outer housing surface of the electronic device .
A winding machine for winding fibre bands of lap, with a winding unit, on which or in which a wound lap is formed, wherein the winding machine includes a device for generating a winding force onto the lap roll, wherein the device is adapted to adjust the winding force over the winding length along a varying winding curve and having it continuously increase, at least in the beginning of the winding procedure, characterized in that the winding machine includes at least one sensor (L1) for determining the actual diameter of the lap roll during the winding procedure, and in that the winding force is variable by the device depending on emerging bubbles.
An eMarker for a cable connecting a first port (P1) to a second port (P2) of two different electronic devices, the cable comprising a configuration channel, CC, wire (CC) and a bus power wire (Vbus), wherein the cable is a USB type-C cable, and the eMarker comprising: an active trigger circuit , wherein the active trigger circuit is configured to be coupled to the bus power wire (Vbus); and a protection circuit coupled to the active trigger circuit , the protection circuit being configured to be coupled to the CC wire (CC); wherein when the second port (P2) connects the first port (P1) via the cable , if a predefined event happens (24a-e) according to a supply characteristic of the bus power wire (Vbus), the active trigger circuit is configured to trigger the protection circuit , characterized in that the protection circuit is configured to change an electric characteristic of the CC wire (CC) when triggered by the active trigger circuit , such that the first port (P1) is able to detect a detachment of the second port (P2). an active trigger circuit , wherein the active trigger circuit is configured to be coupled to the bus power wire (Vbus); and a protection circuit coupled to the active trigger circuit , the protection circuit being configured to be coupled to the CC wire (CC); wherein when the second port (P2) connects the first port (P1) via the cable , if a predefined event happens (24a-e) according to a supply characteristic of the bus power wire (Vbus), the active trigger circuit is configured to trigger the protection circuit , characterized in that the protection circuit is configured to change an electric characteristic of the CC wire (CC) when triggered by the active trigger circuit , such that the first port (P1) is able to detect a detachment of the second port (P2).
A process of recovering oil from a fermentation product production process comprising the steps of: a) liquefying starch-containing material at a temperature above the initial gelatinization temperature using: - the alpha-amylase shown in SEQ ID NO: 1 or an alpha-amylase having at least 95% identity thereto; and - more than 0.5 micro gram protease per gram dry solids (DS), wherein the protease is the one shown in SEQ ID NO: 13 herein or a protease having at least 80% identity thereto; b) saccharifying using a glucoamylase; c) fermenting using a fermenting organism. d) recovering the fermentation product to form whole stillage; e) separating the whole stillage into thin stillage and wet cake; f) optionally concentrating the thin stillage into syrup; wherein oil is recovered from the: - liquefied starch-containing material after step a); and/or - downstream from fermentation step c). a) liquefying starch-containing material at a temperature above the initial gelatinization temperature using: - the alpha-amylase shown in SEQ ID NO: 1 or an alpha-amylase having at least 95% identity thereto; and - more than 0.5 micro gram protease per gram dry solids (DS), wherein the protease is the one shown in SEQ ID NO: 13 herein or a protease having at least 80% identity thereto; - the alpha-amylase shown in SEQ ID NO: 1 or an alpha-amylase having at least 95% identity thereto; and - more than 0.5 micro gram protease per gram dry solids (DS), wherein the protease is the one shown in SEQ ID NO: 13 herein or a protease having at least 80% identity thereto; b) saccharifying using a glucoamylase; c) fermenting using a fermenting organism. d) recovering the fermentation product to form whole stillage; e) separating the whole stillage into thin stillage and wet cake; f) optionally concentrating the thin stillage into syrup; wherein oil is recovered from the: - liquefied starch-containing material after step a); and/or - downstream from fermentation step c). - liquefied starch-containing material after step a); and/or - downstream from fermentation step c).