mhurhangee/patent-ind-claim-en huggingface dataset:
A cosmetic composition for temporarily shaping keratin fibers, containing: (a) at least one acrylate copolymer (a), which is made up of at least the following monomer units: (a1) at least one (meth)acrylic acid unit, (a2) at least one (meth)acrylic acid ester unit which comprises an acrylic acid (C1-4)-alkyl ester, and (b) at least one anionic acrylate copolymer (b), which is composed only of the units (b1), (b2) and (b3), wherein (b1) comprises at least one (meth)acrylic acid unit which comprises methacrylic acid, (b2) comprises at least one (meth)acrylic acid ethyl ester unit which comprises ethyl acrylate, and (b3) comprises at least one (meth)acrylic acid ester unit which is different from the (meth)acrylic acid ethyl ester unit (b2) and is a (meth)acrylic acid alkyl ester which has a linear or branched alkyl group having 2 to 12 carbon atoms. (a) at least one acrylate copolymer (a), which is made up of at least the following monomer units: (a1) at least one (meth)acrylic acid unit, (a2) at least one (meth)acrylic acid ester unit which comprises an acrylic acid (C1-4)-alkyl ester, and (a1) at least one (meth)acrylic acid unit, (a2) at least one (meth)acrylic acid ester unit which comprises an acrylic acid (C1-4)-alkyl ester, (b) at least one anionic acrylate copolymer (b), which is composed only of the units (b1), (b2) and (b3), wherein (b1) comprises at least one (meth)acrylic acid unit which comprises methacrylic acid, (b2) comprises at least one (meth)acrylic acid ethyl ester unit which comprises ethyl acrylate, and (b3) comprises at least one (meth)acrylic acid ester unit which is different from the (meth)acrylic acid ethyl ester unit (b2) and is a (meth)acrylic acid alkyl ester which has a linear or branched alkyl group having 2 to 12 carbon atoms. (b1) comprises at least one (meth)acrylic acid unit which comprises methacrylic acid, (b2) comprises at least one (meth)acrylic acid ethyl ester unit which comprises ethyl acrylate, and (b3) comprises at least one (meth)acrylic acid ester unit which is different from the (meth)acrylic acid ethyl ester unit (b2) and is a (meth)acrylic acid alkyl ester which has a linear or branched alkyl group having 2 to 12 carbon atoms.
An encapsulated dye composition comprising: a) carrier consisting of a mixture of silica and clay; and b) at least one dye encapsulated in the carrier. a) carrier consisting of a mixture of silica and clay; and b) at least one dye encapsulated in the carrier.
A narrowband Internet of Things, NB-IoT, user equipment performing power headroom reporting, comprising: a receiving unit configured to receive system information indicating whether or not a base station allows transmitting an extended Data Volume and Power Headroom reporting, DPR; and a reporting unit configured to report a DPR MAC control element in msg3 if the NB-IoT user equipment supports Power Headroom reporting with 4 bit power headroom field, wherein, the DPR MAC control element includes Power Headroom field and Data Volume field, the Power Headroom field is either 2 bit-field or 4 bit-field, and the Power Headroom field included in the DPR MAC control element, which is reported if the system information indicates that the base station allows transmitting the extended DPR, is 4 bit-field. a receiving unit configured to receive system information indicating whether or not a base station allows transmitting an extended Data Volume and Power Headroom reporting, DPR; and a reporting unit configured to report a DPR MAC control element in msg3 if the NB-IoT user equipment supports Power Headroom reporting with 4 bit power headroom field, wherein, the DPR MAC control element includes Power Headroom field and Data Volume field, the Power Headroom field is either 2 bit-field or 4 bit-field, and the Power Headroom field included in the DPR MAC control element, which is reported if the system information indicates that the base station allows transmitting the extended DPR, is 4 bit-field.
A method of manufacturing a heating chamber for an aerosol generating device , the method comprising: providing a heating chamber comprising a thermally conductive shell and an opening for receiving an aerosol substrate within the heating chamber ; depositing a layer of electrically insulating material onto an outer surface of the thermally conductive shell of the heating chamber using vacuum deposition; providing a thin film heater comprising a heating element and a flexible backing film on which the heating element is supported, wherein the flexible backing film comprises polyimide or poly ether ketone (PEEK) attaching the thin film heater to the heating chamber such that the heating element is in contact with the layer of electrically insulating material , wherein the layer of electrically insulating material prevents any contact between the heating element and the thermally conductive shell . providing a heating chamber comprising a thermally conductive shell and an opening for receiving an aerosol substrate within the heating chamber ; depositing a layer of electrically insulating material onto an outer surface of the thermally conductive shell of the heating chamber using vacuum deposition; providing a thin film heater comprising a heating element and a flexible backing film on which the heating element is supported, wherein the flexible backing film comprises polyimide or poly ether ketone (PEEK) attaching the thin film heater to the heating chamber such that the heating element is in contact with the layer of electrically insulating material , wherein the layer of electrically insulating material prevents any contact between the heating element and the thermally conductive shell .
Power semiconductor device comprising - a semiconductor body with a top side , - a main electrode on the top side and - a gate electrode on the top of a base region and arranged next to the main electrode in a first lateral direction (L1), wherein - the semiconductor body comprises - a drift layer of a first conductivity type, - the base region of a second conductivity type arranged vertically between the drift layer and the top side , - a contact region of the first conductivity type at the top side arranged vertically between the drift layer and the top side , wherein the contact region adjoins the base region , - a drift region of the first conductivity type arranged next to the base region in the first lateral direction (L1) and adjoining the base region , - the main electrode is in electrical contact with the top of the contact region , - in plan view of the top side , the gate electrode at least partially covers a channel portion of the base region which lies, in the first lateral direction (L1), between the contact region and the drift region , characterized in that - at the top side , the contact region projects beyond the top of the base region in vertical direction (V) . - a semiconductor body with a top side , - a main electrode on the top side and - a gate electrode on the top of a base region and arranged next to the main electrode in a first lateral direction (L1), wherein - the semiconductor body comprises - a drift layer of a first conductivity type, - the base region of a second conductivity type arranged vertically between the drift layer and the top side , - a contact region of the first conductivity type at the top side arranged vertically between the drift layer and the top side , wherein the contact region adjoins the base region , - a drift region of the first conductivity type arranged next to the base region in the first lateral direction (L1) and adjoining the base region , - a drift layer of a first conductivity type, - the base region of a second conductivity type arranged vertically between the drift layer and the top side , - a contact region of the first conductivity type at the top side arranged vertically between the drift layer and the top side , wherein the contact region adjoins the base region , - a drift region of the first conductivity type arranged next to the base region in the first lateral direction (L1) and adjoining the base region , - the main electrode is in electrical contact with the top of the contact region , - in plan view of the top side , the gate electrode at least partially covers a channel portion of the base region which lies, in the first lateral direction (L1), between the contact region and the drift region , characterized in that - at the top side , the contact region projects beyond the top of the base region in vertical direction (V) .
A user equipment, UE, comprising: one or more processors ; and one or more memories storing instructions that, upon execution by the one or more processors , configure the UE to: determine that Kc channel state information reference signal, CSI-RS, samples are to be used in channel state information, CSI, reporting for M subbands, wherein Kc and M are positive integers, M < Kc, and the M subbands belong to a bandwidth part, BWP; determine that a first number of CSI-RS samples of the Kc CSI-RS samples is to be used for a first subband of the M subbands, wherein the first number of CSI-RS samples is different from a second number of CSI-RS samples determined for a second subband of the M subbands, wherein the first number of CSI-RS samples is determined based on channel information associated with the BWP; generate a CSI report for the first subband by at least using CSI-RS samples associated with the first subband, wherein a total number of the used CSI-RS samples for the CSI report is equal to the first number of CSI-RS samples; and send the CSI report to a network. one or more processors ; and one or more memories storing instructions that, upon execution by the one or more processors , configure the UE to: determine that Kc channel state information reference signal, CSI-RS, samples are to be used in channel state information, CSI, reporting for M subbands, wherein Kc and M are positive integers, M < Kc, and the M subbands belong to a bandwidth part, BWP; determine that a first number of CSI-RS samples of the Kc CSI-RS samples is to be used for a first subband of the M subbands, wherein the first number of CSI-RS samples is different from a second number of CSI-RS samples determined for a second subband of the M subbands, wherein the first number of CSI-RS samples is determined based on channel information associated with the BWP; generate a CSI report for the first subband by at least using CSI-RS samples associated with the first subband, wherein a total number of the used CSI-RS samples for the CSI report is equal to the first number of CSI-RS samples; and send the CSI report to a network. determine that Kc channel state information reference signal, CSI-RS, samples are to be used in channel state information, CSI, reporting for M subbands, wherein Kc and M are positive integers, M < Kc, and the M subbands belong to a bandwidth part, BWP; determine that a first number of CSI-RS samples of the Kc CSI-RS samples is to be used for a first subband of the M subbands, wherein the first number of CSI-RS samples is different from a second number of CSI-RS samples determined for a second subband of the M subbands, wherein the first number of CSI-RS samples is determined based on channel information associated with the BWP; generate a CSI report for the first subband by at least using CSI-RS samples associated with the first subband, wherein a total number of the used CSI-RS samples for the CSI report is equal to the first number of CSI-RS samples; and send the CSI report to a network.
A light absorber , comprising: a group of dielectric protrusions , each dielectric protrusion protruding from a dielectric surface and having a surface profile of a particle with a diameter determined in accordance with a wavelength range of light to be absorbed, wherein the group of dielectric protrusions forms an in-plane random arrangement whose regularity is broken on the dielectric surface; a conductive thin film disposed on or above at least a part of a surface of each dielectric protrusion in the group of dielectric protrusions and on or above at least a part of the dielectric surface where the dielectric protrusions are not present thereon, wherein the conductive thin film has an energy transmission property for the light to be absorbed; and a conductive thick film spreading out along the dielectric surface and being kept separate from the conductive thin film , wherein through the conductive thick film the energy transmission property for the light to be absorbed is not utilized. a group of dielectric protrusions , each dielectric protrusion protruding from a dielectric surface and having a surface profile of a particle with a diameter determined in accordance with a wavelength range of light to be absorbed, wherein the group of dielectric protrusions forms an in-plane random arrangement whose regularity is broken on the dielectric surface; a conductive thin film disposed on or above at least a part of a surface of each dielectric protrusion in the group of dielectric protrusions and on or above at least a part of the dielectric surface where the dielectric protrusions are not present thereon, wherein the conductive thin film has an energy transmission property for the light to be absorbed; and a conductive thick film spreading out along the dielectric surface and being kept separate from the conductive thin film , wherein through the conductive thick film the energy transmission property for the light to be absorbed is not utilized.
Device for the removal of at least one biological and/or chemical entity (C) from an extracorporeal blood volume (B) comprising: - a hollow capture chamber with a cylindrical shape having an inlet for the entry of the extracorporeal blood (B) and an outlet for the outflow of the extracorporeal blood (B) and - at least one capture element (20; 20'; 20"; 20′′′) comprised inside the capture chamber , extending longitudinally within the capture chamber , and movable relative to the capture chamber , the capture element (20; 20'; 20"; 20′′′) having a reactant surface (22; 22'; 22"; 22′′′) placed in contact with the extracorporeal blood (B) and comprising a plurality of binding agents (A) for the biological and/or chemical entity to be removed (C) such that at the outlet of the capture chamber the biological and/or chemical entity (C) is removed from the extracorporeal blood (B), the biological and/or chemical entity (C) being bonded to the reactant surface (22; 22'; 22"; 22′′′),wherein the total volume of extracorporeal blood (B) flowing inside the capture chamber is comprised between 3 to 5 litres of blood up to 30 litres of blood, characterized in that the capture element (20; 20'; 20"; 20′′′) is rotatable about a longitudinal axis (a) of the capture chamber , and in that the device further comprises a coupling and uncoupling system configured such that the capture element (20; 20'; 20"; 20′′′) can be removed from the capture chamber to allow analysis of entities captured by the reactant surface (22; 22'; 22"; 22′′′). - a hollow capture chamber with a cylindrical shape having an inlet for the entry of the extracorporeal blood (B) and an outlet for the outflow of the extracorporeal blood (B) and - at least one capture element (20; 20'; 20"; 20′′′) comprised inside the capture chamber , extending longitudinally within the capture chamber , and movable relative to the capture chamber , the capture element (20; 20'; 20"; 20′′′) having a reactant surface (22; 22'; 22"; 22′′′) placed in contact with the extracorporeal blood (B) and comprising a plurality of binding agents (A) for the biological and/or chemical entity to be removed (C) such that at the outlet of the capture chamber the biological and/or chemical entity (C) is removed from the extracorporeal blood (B), the biological and/or chemical entity (C) being bonded to the reactant surface (22; 22'; 22"; 22′′′),wherein the total volume of extracorporeal blood (B) flowing inside the capture chamber is comprised between 3 to 5 litres of blood up to 30 litres of blood, characterized in that the capture element (20; 20'; 20"; 20′′′) is rotatable about a longitudinal axis (a) of the capture chamber , and in that the device further comprises a coupling and uncoupling system configured such that the capture element (20; 20'; 20"; 20′′′) can be removed from the capture chamber to allow analysis of entities captured by the reactant surface (22; 22'; 22"; 22′′′).
A process for the production of lower olefins by the conversion of a feed stream comprising carbon monoxide and hydrogen, using a supported, iron-based catalyst, wherein a catalyst composition is provided that comprises iron-oxide particles dispersed onto an α-alumina support, said support being loaded with, calculated on the weight of the support, at least 1 wt.% of the iron oxide particles, and wherein the majority of the iron-oxide particles has a particle size determined by Transmission Electron Microscopy of 20 nm or lower.
A bone implant comprising an array of a plurality of adjacent polymeric casings at least one of which encases a bone void filler, wherein said filler is not attached to its casing, and at least one reinforcement component which is encased by one of said plurality of casings, which casing is other than the one encasing the bone void filler.
A protective tube connection assembly comprising: an electric wire ; a protective tube through which the electric wire is inserted and which has alternately large diameter portions and small diameter portions ; a protector comprising a body portion , an end portion of the protective tube is fixed on the protector , the electric wire led out from the end portion being disposed inside the protector , a wire support portion is provided on a bottom plate portion of the body portion spaced apart from an end portion of the protective tube and the electric wire led out from the end portion of the protective tube is placed on the wire support portion , characterised in that the wire support portion is formed to be higher than a lower inner surface of the small-diameter portion such that the electric wire is disposed at a floating position spaced apart from the lower inner surface of the small diameter portion at the end portion of the protective tube . an electric wire ; a protective tube through which the electric wire is inserted and which has alternately large diameter portions and small diameter portions ; a protector comprising a body portion , an end portion of the protective tube is fixed on the protector , the electric wire led out from the end portion being disposed inside the protector , a wire support portion is provided on a bottom plate portion of the body portion spaced apart from an end portion of the protective tube and the electric wire led out from the end portion of the protective tube is placed on the wire support portion , characterised in that the wire support portion is formed to be higher than a lower inner surface of the small-diameter portion such that the electric wire is disposed at a floating position spaced apart from the lower inner surface of the small diameter portion at the end portion of the protective tube .
A grease composition, which comprises (A) a mixed base oil comprising (A1) a low-viscosity base oil having a kinematic viscosity at 40°C of 10 to 50 mm 2 /s and (A2) a high-viscosity base oil having a kinematic viscosity at 40°C of 200 to 700 mm 2 /s, (B) a lithium-based thickener and (C) a polymer having a kinematic viscosity at 100°C of 1,000 to 100,000 mm 2 /s, and which has an apparent viscosity at -10°C, as measured according to JIS K2220:2013 and at a shear rate of 10 s -1 , of 50 to 250 mPa·s, wherein the content ratio by mass of the low-viscosity base oil (A1) to the high-viscosity base oil (A2) [(A1)/(A2)] is from 1/5 to 10/1, the content of the mixed base oil (A) is, based on the total amount of the grease composition, 50 to 95% by mass, the content ratio of the low-viscosity base oil (A1) and the high-viscosity base oil (A2) is, relative to the total amount of the mixed base oil (A), 75 to 100% by mass, the content of the lithium-based thickener (B) is, based on the total amount of the grease composition, 0.5 to 25% by mass, and the content of the polymer (C) is, based on the total amount of the grease composition, from 1 to 20% by mass. (A) a mixed base oil comprising (A1) a low-viscosity base oil having a kinematic viscosity at 40°C of 10 to 50 mm 2 /s and (A2) a high-viscosity base oil having a kinematic viscosity at 40°C of 200 to 700 mm 2 /s, (B) a lithium-based thickener and (C) a polymer having a kinematic viscosity at 100°C of 1,000 to 100,000 mm 2 /s, and which has an apparent viscosity at -10°C, as measured according to JIS K2220:2013 and at a shear rate of 10 s -1 , of 50 to 250 mPa·s, wherein the content ratio by mass of the low-viscosity base oil (A1) to the high-viscosity base oil (A2) [(A1)/(A2)] is from 1/5 to 10/1, the content of the mixed base oil (A) is, based on the total amount of the grease composition, 50 to 95% by mass, the content ratio of the low-viscosity base oil (A1) and the high-viscosity base oil (A2) is, relative to the total amount of the mixed base oil (A), 75 to 100% by mass, the content of the lithium-based thickener (B) is, based on the total amount of the grease composition, 0.5 to 25% by mass, and the content of the polymer (C) is, based on the total amount of the grease composition, from 1 to 20% by mass.
A microelectronic device, comprising: a substrate ; a magnetic sensor component ; and magnetizable structural features comprising bond pads containing magnetizable material, separate from the magnetic sensor component , each magnetizable structural feature having a magnetic moment, wherein the magnetic moments of the magnetizable structural features are aligned parallel to each other. a substrate ; a magnetic sensor component ; and magnetizable structural features comprising bond pads containing magnetizable material, separate from the magnetic sensor component , each magnetizable structural feature having a magnetic moment, wherein the magnetic moments of the magnetizable structural features are aligned parallel to each other.
A binder for an anode for a secondary battery, comprising: a copolymer having a main chain composed of a repeating unit (A) of the following Formula 1, a repeating unit (B) of the following Formula 2, a repeating unit (C) of the following Formula 3, and a repeating unit (D) of the following Formula 4, wherein R 1 and R 3 are each independently substituted or unsubstituted (C1-C10)hydrocarbyl, R 2 and R 4 are each independently hydrogen or substituted or unsubstituted (C1-C10)hydrocarbyl, M n+ is a cation with an oxidation number of n excluding hydrogen ions, and n is an integer of 1 to 3, and wherein a saponification ratio of the copolymer satisfies Expression 1, 0.45 < saponification ratio = (b + d)/(a + b + c + d) < 1.00 wherein a is the number of moles of the repeating unit (A), b is the number of moles of the repeating unit (B), c is the number of moles of the repeating unit (C), and d is the number of moles of the repeating unit (D). R 1 and R 3 are each independently substituted or unsubstituted (C1-C10)hydrocarbyl, R 2 and R 4 are each independently hydrogen or substituted or unsubstituted (C1-C10)hydrocarbyl, M n+ is a cation with an oxidation number of n excluding hydrogen ions, and n is an integer of 1 to 3, and wherein a saponification ratio of the copolymer satisfies Expression 1, 0.45 < saponification ratio = (b + d)/(a + b + c + d) < 1.00 wherein a is the number of moles of the repeating unit (A), b is the number of moles of the repeating unit (B), c is the number of moles of the repeating unit (C), and d is the number of moles of the repeating unit (D).