mhurhangee/patent-ind-claim-en huggingface dataset:
A polymer comprising the following monomers in polymerized form (in weight %): A) 49 - 60 % of a first monomer which is selected from the group consisting of methyl acrylate, methyl methacrylate, ethyl acrylate, ethyl methacrylate, C3-alkyl acrylate, C3-alkyl methacrylate, C4-alkyl acrylate, C4-alkyl methacrylate and mixtures thereof, B) 30 - 40 % methacrylic acid, C) 4 -15 % acrylic acid, and D) 0.02 - 0.30 % of a crosslinking agent which is a compound having at least two allyl moieties, wherein the sum of the amounts of monomers A to D is 100 %. A) 49 - 60 % of a first monomer which is selected from the group consisting of methyl acrylate, methyl methacrylate, ethyl acrylate, ethyl methacrylate, C3-alkyl acrylate, C3-alkyl methacrylate, C4-alkyl acrylate, C4-alkyl methacrylate and mixtures thereof, B) 30 - 40 % methacrylic acid, C) 4 -15 % acrylic acid, and D) 0.02 - 0.30 % of a crosslinking agent which is a compound having at least two allyl moieties, wherein the sum of the amounts of monomers A to D is 100 %.
Method for producing an electrical component, comprising: - providing a carrier element , - providing a material having a temperature-dependent resistance, as a non-sintered, calcined metal oxide comprising one out of nickel oxide, manganese oxide, copper oxide and zinc oxide or combinations thereof, - applying the material on a surface (O10) of the carrier element for producing a resistance layer on the carrier element , - subsequently sintering the resistance layer for linking the resistance layer to the carrier element . - providing a carrier element , - providing a material having a temperature-dependent resistance, as a non-sintered, calcined metal oxide comprising one out of nickel oxide, manganese oxide, copper oxide and zinc oxide or combinations thereof, - applying the material on a surface (O10) of the carrier element for producing a resistance layer on the carrier element , - subsequently sintering the resistance layer for linking the resistance layer to the carrier element .
An aerosol-forming article comprising an aerosol-forming substrate wherein the aerosol-forming substrate comprises at least one discrete region of a first aerosol-forming material within a matrix of a second aerosol-forming material; characterised in that the first aerosol-forming material comprises pellets, granules or chips of extruded tobacco and the second aerosol-forming material comprises reconstituted tobacco.
A fuel cell , comprising: a support substrate having a region in which a support portion having a mesh-like shape in a plan view is provided; a first electrode on the support substrate; an electrolyte film on the first electrode ; and a second electrode on the electrolyte film , wherein the first electrode includes a first thin film electrode formed in a manner of covering at least the region, and a first mesh-like electrode connected to the first thin film electrode and provided corresponding to the support portion, the first mesh-like electrode having a film thickness larger than that of the first thin film electrode and having a mesh-like shape in a plan view, characterized in that the second electrode includes a second thin film electrode formed on the electrolyte film in a manner of covering at least the region, and a second mesh-like electrode connected to the second thin film electrode and provided corresponding to the support portion, the second mesh-like electrode having a film thickness larger than that of the second thin film electrode and having a mesh-like shape in a plan view. a support substrate having a region in which a support portion having a mesh-like shape in a plan view is provided; a first electrode on the support substrate; an electrolyte film on the first electrode ; and a second electrode on the electrolyte film , wherein the first electrode includes a first thin film electrode formed in a manner of covering at least the region, and a first mesh-like electrode connected to the first thin film electrode and provided corresponding to the support portion, the first mesh-like electrode having a film thickness larger than that of the first thin film electrode and having a mesh-like shape in a plan view, characterized in that the second electrode includes a second thin film electrode formed on the electrolyte film in a manner of covering at least the region, and a second mesh-like electrode connected to the second thin film electrode and provided corresponding to the support portion, the second mesh-like electrode having a film thickness larger than that of the second thin film electrode and having a mesh-like shape in a plan view.
A robot cleaner comprising: a main body ; a light transmitting unit that emits light; an image sensor that senses light reflected or scattered by an obstacle from the light emitted from the light transmitting unit ; characterized by a base supporting the light transmitting unit and the image sensor and rotatably and vertically movably disposed in the main body ; a rotation drive unit that rotates the base ; and an elevation drive unit that allows the base to retract and protract from the main body . a main body ; a light transmitting unit that emits light; an image sensor that senses light reflected or scattered by an obstacle from the light emitted from the light transmitting unit ; characterized by a base supporting the light transmitting unit and the image sensor and rotatably and vertically movably disposed in the main body ; a rotation drive unit that rotates the base ; and an elevation drive unit that allows the base to retract and protract from the main body .
A computer-implemented method of determining a scattering spectrum of an eye, comprising: receiving data from a detector indicative of a reflected wave of radiation reflected from the retina, wherein the reflected wave of radiation is formed by an incident wave of masked radiation directed towards a retina of the eye, such that at least one region masked from the incident wave is present on the retina; determining a first back scattering spectrum indicative of light scattered from an optical media of the eye in dependence on a portion of the reflected wave of radiation corresponding to the at least one masked region; determining a second back scattering spectrum indicative of light scattered from a neural retina of the eye in dependence on retinal structure information representative of neural retinal structure, characterised in that the step of determining the second back scattering spectrum comprises receiving structural data indicative of a 3D structure of a neural retina, deriving, from the structural data, a map of the neural retina, and determining the second back scattering spectrum in dependence thereon; wherein the method is further characterised by determining the scattering spectrum of the eye in dependence on the first back scattering spectrum and the second back scattering spectrum. receiving data from a detector indicative of a reflected wave of radiation reflected from the retina, wherein the reflected wave of radiation is formed by an incident wave of masked radiation directed towards a retina of the eye, such that at least one region masked from the incident wave is present on the retina; determining a first back scattering spectrum indicative of light scattered from an optical media of the eye in dependence on a portion of the reflected wave of radiation corresponding to the at least one masked region; determining a second back scattering spectrum indicative of light scattered from a neural retina of the eye in dependence on retinal structure information representative of neural retinal structure, characterised in that the step of determining the second back scattering spectrum comprises receiving structural data indicative of a 3D structure of a neural retina, deriving, from the structural data, a map of the neural retina, and determining the second back scattering spectrum in dependence thereon; wherein the method is further characterised by receiving structural data indicative of a 3D structure of a neural retina, deriving, from the structural data, a map of the neural retina, and determining the second back scattering spectrum in dependence thereon; wherein the method is further characterised by determining the scattering spectrum of the eye in dependence on the first back scattering spectrum and the second back scattering spectrum.
An optical device, comprising: a transmitter configured to provide an optical signal; and a modulator comprising: two or more tributary modulators configured to modulate an X polarization channel, "X channel" and a Y polarization channel, "Y channel", of the optical signal with a training pattern; an interference device configured to cause the X channel to interfere with the Y channel; a detector configured to determine an optical power measurement of the optical signal after the X channel interferes with the Y channel; and a controller configured to: generate a control signal to align a skew associated with the optical signal based on the optical power measurement, wherein the skew is a time misalignment between the X channel and the Y channel; and provide the control signal to a tributary modulator, of the two or more tributary modulators, to alter a modulation of the optical signal. a transmitter configured to provide an optical signal; and a modulator comprising: two or more tributary modulators configured to modulate an X polarization channel, "X channel" and a Y polarization channel, "Y channel", of the optical signal with a training pattern; an interference device configured to cause the X channel to interfere with the Y channel; a detector configured to determine an optical power measurement of the optical signal after the X channel interferes with the Y channel; and a controller configured to: generate a control signal to align a skew associated with the optical signal based on the optical power measurement, wherein the skew is a time misalignment between the X channel and the Y channel; and provide the control signal to a tributary modulator, of the two or more tributary modulators, to alter a modulation of the optical signal. two or more tributary modulators configured to modulate an X polarization channel, "X channel" and a Y polarization channel, "Y channel", of the optical signal with a training pattern; an interference device configured to cause the X channel to interfere with the Y channel; a detector configured to determine an optical power measurement of the optical signal after the X channel interferes with the Y channel; and a controller configured to: generate a control signal to align a skew associated with the optical signal based on the optical power measurement, wherein the skew is a time misalignment between the X channel and the Y channel; and provide the control signal to a tributary modulator, of the two or more tributary modulators, to alter a modulation of the optical signal. generate a control signal to align a skew associated with the optical signal based on the optical power measurement, wherein the skew is a time misalignment between the X channel and the Y channel; and provide the control signal to a tributary modulator, of the two or more tributary modulators, to alter a modulation of the optical signal.
Applicator system with an ear, nose and throat applicator , wherein the applicator comprises a connector which is preferably simultaneously designed as a hand piece, and a doser , a supply hose which feeds the applicator with the substance to be applied, and a coupling element connected to the hose, wherein the connector and the doser are coupled to one another in a detachable manner, preferably in a detachable manner without tools, characterized in that the doser forms a coupling sleeve into which a coupling nipple (16a; 16b) of the coupling element connected to the supply hose is inserted in a fluid-tight manner, or vice versa, that, by coupling the doser to the connector , the coupling nipple (16a; 16b) is fixed in the direction of the longitudinal axis into the coupling sleeve , that the coupling element comprises a holding groove , wherein, in operational status, a holding element is pushed on the holding groove of the coupling element and positively secures the coupling element in operational status against being pulled out of the connector .
A composition for sealing slurries comprising: (i) 2 - 15 weight % hydraulic binder (ii) 40 - 77 weight % silica sand (iii) 15 - 20 weight % polymer (iv) 5 - 20 weight % limestone powder (v) 0 - 7 weight % one or more additives characterized in that the hydraulic binder component comprises calcium aluminate cement, calcium sulfoaluminate cement or mixtures thereof and the polymer is selected from the group consisting of vinyl acetate polymer, vinyl acetate-ethylene copolymer, vinyl acetate-vinyl ester copolymer and/or vinyl acetate-vinyl ester-ethylene copolymer, with the vinyl ester monomers in each case being selected from the group consisting of vinyl laurate, vinyl pivalate, and vinyl versatates, vinyl acetate-acrylic ester copolymer, vinyl acetate-acrylic ester-ethylene copolymer, styrene-butadiene copolymer, styrene-acrylic ester copolymer, and styrene acrylate copolymer, with the acrylic esters in each case being esters with branched or linear alcohols containing from 1 to 10 carbon atoms, preferably the polymer is selected from the group comprising styrene acrylate copolymer, polyvinyl acetate, styrene butadiene copolymer or mixtures thereof in liquid or powder form. (i) 2 - 15 weight % hydraulic binder (ii) 40 - 77 weight % silica sand (iii) 15 - 20 weight % polymer (iv) 5 - 20 weight % limestone powder (v) 0 - 7 weight % one or more additives
An immune checkpoint inhibitor and a compound of Formula (I) for use in the treatment or prevention of cancer; wherein the compound of Formula (I) is: wherein X is SO 3 M or H, wherein M is any pharmaceutically acceptable cation; and wherein at least 70% of the X groups is SO 3 M; and wherein the immune checkpoint inhibitor is a PD-1 inhibitor or a PD-L1 inhibitor. wherein the compound of Formula (I) is: wherein X is SO 3 M or H, wherein M is any pharmaceutically acceptable cation; and wherein at least 70% of the X groups is SO 3 M; and wherein the immune checkpoint inhibitor is a PD-1 inhibitor or a PD-L1 inhibitor.
An information processing apparatus comprising: a rendering control unit configured to switch a rendering frequency of a virtual image between a first rendering frequency and a second rendering frequency higher than the first rendering frequency on the basis of a sensing result relating to a real space; and a display control unit configured to cause a display device to display the virtual image on the basis of the sensing result and either the first rendering frequency or the second rendering frequency, wherein the rendering control unit is configured to control the rendering frequency of the virtual image to the first rendering frequency when the virtual image based on the sensing result has a first change amount, and control the rendering frequency of the virtual image to the second rendering frequency when the virtual image has a second change amount larger than the first change amount; and a correction unit configured to correct a display position of the virtual image, wherein the correction unit is configured to correct the display position of the virtual image while the rendering control unit reduces re-rendering of the virtual image when the virtual image has the first change amount. a rendering control unit configured to switch a rendering frequency of a virtual image between a first rendering frequency and a second rendering frequency higher than the first rendering frequency on the basis of a sensing result relating to a real space; and a display control unit configured to cause a display device to display the virtual image on the basis of the sensing result and either the first rendering frequency or the second rendering frequency, wherein the rendering control unit is configured to control the rendering frequency of the virtual image to the first rendering frequency when the virtual image based on the sensing result has a first change amount, and control the rendering frequency of the virtual image to the second rendering frequency when the virtual image has a second change amount larger than the first change amount; and a correction unit configured to correct a display position of the virtual image, wherein the correction unit is configured to correct the display position of the virtual image while the rendering control unit reduces re-rendering of the virtual image when the virtual image has the first change amount.
An ETHERNET physical layer device comprising: a physical medium dependent sublayer to couple the physical layer device to a jack ; a physical medium attachment sublayer ; and a physical coding sublayer ; medium independent interface functionality to couple the physical layer device to a media access control device over a medium independent interface; management functionality to couple the physical layer device to the media access control device over a management data input/output, MDIO, interface; a plurality of registers , wherein the management functionality is configured to output information stored in the plurality of registers to the media access control device via the management data input/output, MDIO, interface; and physical layer information functionality configured to read media information stored in a storage device that is part of a plug connected to an end of a cable when the plug is inserted into the jack, and to store the media information in at least one of the plurality of registers . a physical medium dependent sublayer to couple the physical layer device to a jack ; a physical medium attachment sublayer ; and a physical coding sublayer ; medium independent interface functionality to couple the physical layer device to a media access control device over a medium independent interface; management functionality to couple the physical layer device to the media access control device over a management data input/output, MDIO, interface; a plurality of registers , wherein the management functionality is configured to output information stored in the plurality of registers to the media access control device via the management data input/output, MDIO, interface; and physical layer information functionality configured to read media information stored in a storage device that is part of a plug connected to an end of a cable when the plug is inserted into the jack, and to store the media information in at least one of the plurality of registers .
Robotic vacuum cleaner comprising a housing which has a suction mouth on the underside for sucking in air and dirt particles and a suction chamber with a suction channel leading out of the suction chamber for transporting away air and dirt particles, and a rotatable brush roller arranged in the suction chamber for picking up dirt particles which can be transported away to the suction channel , and a cutting wheel which is designed, when set into rotation, to perform a rolling cutting function on elongate dirt particles located on the brush roller .
An exhaust gas-purifying catalyst , characterized by comprising: a support substrate ; a first catalyst support layer formed on the support substrate and containing a composite oxide of a first rare earth element and zirconium; a first catalytic metal supported by the first catalyst support layer ; a second catalyst support layer formed on the first catalyst support layer and containing a composite oxide of a second rare earth element and zirconium; and a second catalytic metal supported by the second catalyst support layer and differing from the first catalytic metal , wherein all oxides containing the first rare earth element are composite oxides of the first rare earth element and zirconium in which an atomic ratio of zirconium to the first rare earth element is equal to or higher than 0.8, and all oxides containing the second rare earth element are composite oxides of the second rare earth element and zirconium in which an atomic ratio of zirconium to the second rare earth element is equal to or higher than 0.8, and the exhaust gas-purifying catalyst does not contain any composite oxide in which an atomic ratio of zirconium to a rare earth element is lower than 0.8 and any oxide containing only a rare earth element as a metal element, and the exhaust gas-purifying catalyst contains only the composite oxide and the composite oxide as an oxide containing rare earth element. a support substrate ; a first catalyst support layer formed on the support substrate and containing a composite oxide of a first rare earth element and zirconium; a first catalytic metal supported by the first catalyst support layer ; a second catalyst support layer formed on the first catalyst support layer and containing a composite oxide of a second rare earth element and zirconium; and a second catalytic metal supported by the second catalyst support layer and differing from the first catalytic metal , wherein all oxides containing the first rare earth element are composite oxides of the first rare earth element and zirconium in which an atomic ratio of zirconium to the first rare earth element is equal to or higher than 0.8, and all oxides containing the second rare earth element are composite oxides of the second rare earth element and zirconium in which an atomic ratio of zirconium to the second rare earth element is equal to or higher than 0.8, and the exhaust gas-purifying catalyst does not contain any composite oxide in which an atomic ratio of zirconium to a rare earth element is lower than 0.8 and any oxide containing only a rare earth element as a metal element, and the exhaust gas-purifying catalyst contains only the composite oxide and the composite oxide as an oxide containing rare earth element.
A method for manufacturing a linerless label web comprising a direct thermal printable coating and a patterned pressure sensitive adhesive , wherein the method comprises - arranging a substrate comprising the direct thermal printable coating as a face stock , - applying water-based adhesive coating onto the face stock , - providing the face stock with alternating adhesion areas and adhesion-free areas in a transversal direction of the face stock, - ensuring the adhesion-free areas with a pre-determined level of moisture, and - thermally drying the water-based adhesive coating into the pressure sensitive adhesive . - arranging a substrate comprising the direct thermal printable coating as a face stock , - applying water-based adhesive coating onto the face stock , - providing the face stock with alternating adhesion areas and adhesion-free areas in a transversal direction of the face stock, - ensuring the adhesion-free areas with a pre-determined level of moisture, and - thermally drying the water-based adhesive coating into the pressure sensitive adhesive .
A circularly polarizing plate for an organic EL display apparatus, comprising in this order: a polarizer; a retardation layer, which is configured to function as a λ/4 plate; a barrier layer; and a pressure-sensitive adhesive layer including a rubber-based pressure-sensitive adhesive composition using a rubber-based polymer as a base polymer, the pressure-sensitive adhesive layer having a water vapor transmission rate, under the conditions of 40°C and 90%RH when the thickness of the layer is 100 μm, of 200 g/m 2 /24 hr or less, wherein the barrier layer comprises thin glass having a thickness of from 10 μm to 100 μm and wherein the thickness of the pressure-sensitive adhesive layer is 1 μm to 300 μm. a polarizer; a retardation layer, which is configured to function as a λ/4 plate; a barrier layer; and a pressure-sensitive adhesive layer including a rubber-based pressure-sensitive adhesive composition using a rubber-based polymer as a base polymer, the pressure-sensitive adhesive layer having a water vapor transmission rate, under the conditions of 40°C and 90%RH when the thickness of the layer is 100 μm, of 200 g/m 2 /24 hr or less, wherein the barrier layer comprises thin glass having a thickness of from 10 μm to 100 μm and wherein the thickness of the pressure-sensitive adhesive layer is 1 μm to 300 μm.