mhurhangee/ep-ind-claims huggingface dataset:
A cosmetic agent for temporarily shaping keratin fibers, containing, in a cosmetically acceptable carrier, a) at least one anionic polyurethane polymer, comprising at least one structural unit of formula, at least one structural unit of formula, at least one structural unit of formula, at least one structural unit of formula and at least one structural unit of formula, in which a and b represent, independently of one another, integers from 1 to 20, R 1, R 2, R 3, R 4 and R 5 represent, in each case independently of one another, a hydrogen atom or a C 1 -C 4 alkyl group, B represents a hydrogen atom or a direct bond to another structural unit, X + represents a physiologically acceptable cation, and b) at least one silicone-containing cationic copolymer comprising at least one structural unit of formula, at least one structural unit of formula and at least one structural unit of formula (VIII), in which A represents a hydroxyl group, an amino group, or a thiol group, R 7 and R 8 represent, in each case independently of one another, a hydrogen atom, a methyl group, an ethyl group, a C 1 -C 4 aralkyl group, a C 2 -C 6 alkenyl group or a C 2 -C 6 hydroxyalkyl group, and c and d represent, in each case independently of one another, integers from 10 to 55. a) at least one anionic polyurethane polymer, comprising at least one structural unit of formula, at least one structural unit of formula, at least one structural unit of formula, at least one structural unit of formula and at least one structural unit of formula, in which a and b represent, independently of one another, integers from 1 to 20, R 1, R 2, R 3, R 4 and R 5 represent, in each case independently of one another, a hydrogen atom or a C 1 -C 4 alkyl group, B represents a hydrogen atom or a direct bond to another structural unit, X + represents a physiologically acceptable cation, and a and b represent, independently of one another, integers from 1 to 20, R 1, R 2, R 3, R 4 and R 5 represent, in each case independently of one another, a hydrogen atom or a C 1 -C 4 alkyl group, B represents a hydrogen atom or a direct bond to another structural unit, X + represents a physiologically acceptable cation, and b) at least one silicone-containing cationic copolymer comprising at least one structural unit of formula, at least one structural unit of formula and at least one structural unit of formula (VIII), in which A represents a hydroxyl group, an amino group, or a thiol group, R 7 and R 8 represent, in each case independently of one another, a hydrogen atom, a methyl group, an ethyl group, a C 1 -C 4 aralkyl group, a C 2 -C 6 alkenyl group or a C 2 -C 6 hydroxyalkyl group, and c and d represent, in each case independently of one another, integers from 10 to 55. A represents a hydroxyl group, an amino group, or a thiol group, R 7 and R 8 represent, in each case independently of one another, a hydrogen atom, a methyl group, an ethyl group, a C 1 -C 4 aralkyl group, a C 2 -C 6 alkenyl group or a C 2 -C 6 hydroxyalkyl group, and c and d represent, in each case independently of one another, integers from 10 to 55.
An imaging method, wherein the imaging method is applied to an imaging apparatus comprising a color camera and a black-and-white camera, and resolution of the black-and-white camera is higher than resolution of the color camera; and the imaging method comprises: obtaining a zoom magnification; simultaneously capturing a color image and a black-and-white image of a target scene, wherein resolution of the black-and-white image is higher than resolution of the color image; performing cropping processing on the black-and-white image and the color image separately based on the zoom magnification, wherein the cropped black-and-white image and the cropped color image have a same field of view; and merging the cropped color image and the cropped black-and-white image to obtain an output image of the target scene, wherein the merging the cropped color image and the cropped black-and-white image to obtain an output image of the target scene comprises: separating the cropped color image into a chroma component image and a luminance component image; replacing only high frequency information of the luminance component image with high frequency information of the cropped black-and-white image to obtain an optical variable luminance component image; and merging the chroma component image and the optical variable luminance component image to obtain the output image. obtaining a zoom magnification; simultaneously capturing a color image and a black-and-white image of a target scene, wherein resolution of the black-and-white image is higher than resolution of the color image; performing cropping processing on the black-and-white image and the color image separately based on the zoom magnification, wherein the cropped black-and-white image and the cropped color image have a same field of view; and merging the cropped color image and the cropped black-and-white image to obtain an output image of the target scene, wherein the merging the cropped color image and the cropped black-and-white image to obtain an output image of the target scene comprises: separating the cropped color image into a chroma component image and a luminance component image; replacing only high frequency information of the luminance component image with high frequency information of the cropped black-and-white image to obtain an optical variable luminance component image; and merging the chroma component image and the optical variable luminance component image to obtain the output image. separating the cropped color image into a chroma component image and a luminance component image; replacing only high frequency information of the luminance component image with high frequency information of the cropped black-and-white image to obtain an optical variable luminance component image; and merging the chroma component image and the optical variable luminance component image to obtain the output image.
A method for managing transfer of Multimedia Broadcast/Multicast Services, MBMS, over a Single Frequency Network, MBSFN, service for a mobile entity from a source base station to a target base station of a cellular wireless communications system, the method comprising: identifying candidate target base stations based on each having paging signal strength and system information signal strength sufficient to support camping on by the mobile entity in idle mode; prioritizing the candidate target base stations in a priority order based in part on an MBMS status of the mobile entity and on MBMS services support by respective ones of the candidate target base stations; determining that none of the candidate target base stations supports the MBSFN service for the mobile entity, and selecting a target base station that does not support the MBSFN service for the mobile entity; transmitting an identifier for the target base station from the source base station, for use in transferring the MBSFN service to the target base station; and transmitting buffered MBMS content from the source base station to the target base station for unicast transmission to the mobile entity. identifying candidate target base stations based on each having paging signal strength and system information signal strength sufficient to support camping on by the mobile entity in idle mode; prioritizing the candidate target base stations in a priority order based in part on an MBMS status of the mobile entity and on MBMS services support by respective ones of the candidate target base stations; determining that none of the candidate target base stations supports the MBSFN service for the mobile entity, and selecting a target base station that does not support the MBSFN service for the mobile entity; transmitting an identifier for the target base station from the source base station, for use in transferring the MBSFN service to the target base station; and transmitting buffered MBMS content from the source base station to the target base station for unicast transmission to the mobile entity.
An injection molding nozzle assembly comprising: a nozzle body defining a melt channel that extends from a melt entrance to a melt exit; a nozzle tip toward a distal end of the nozzle body which includes the melt exit, the nozzle tip having a tip end for engagement, in use, with a gate insert when a corresponding mold is being filled with plastic melt; and a sealing member radially outward from the nozzle tip; wherein the nozzle body, nozzle tip and sealing member are integrally formed so as to form a unitary structure that is functionally graded to place materials with specific material properties at predetermined locations in the nozzle, said materials including: a first, high strength material disposed primarily in the nozzle body and included on the surface of the tip end for inhibiting wear at the engagement point between said gate insert and the tip end; a second, thermally conductive material distributed partially within nozzle body and being the primary material of nozzle tip, the second material having a higher thermal conductivity and a lower strength than the first material; and a third, insulating material from which the sealing member is primarily made for resisting, in use, heat transfer from the melt and a heating sleeve to said gate insert. a nozzle body defining a melt channel that extends from a melt entrance to a melt exit; a nozzle tip toward a distal end of the nozzle body which includes the melt exit, the nozzle tip having a tip end for engagement, in use, with a gate insert when a corresponding mold is being filled with plastic melt; and a sealing member radially outward from the nozzle tip; wherein the nozzle body, nozzle tip and sealing member are integrally formed so as to form a unitary structure that is functionally graded to place materials with specific material properties at predetermined locations in the nozzle, said materials including: a first, high strength material disposed primarily in the nozzle body and included on the surface of the tip end for inhibiting wear at the engagement point between said gate insert and the tip end; a second, thermally conductive material distributed partially within nozzle body and being the primary material of nozzle tip, the second material having a higher thermal conductivity and a lower strength than the first material; and a third, insulating material from which the sealing member is primarily made for resisting, in use, heat transfer from the melt and a heating sleeve to said gate insert. a first, high strength material disposed primarily in the nozzle body and included on the surface of the tip end for inhibiting wear at the engagement point between said gate insert and the tip end; a second, thermally conductive material distributed partially within nozzle body and being the primary material of nozzle tip, the second material having a higher thermal conductivity and a lower strength than the first material; and a third, insulating material from which the sealing member is primarily made for resisting, in use, heat transfer from the melt and a heating sleeve to said gate insert.
A method for preparing electrocompetent yeast cells comprising the steps of: a) growing yeast cells to an OD 600 of between 1.0 to 2; b) washing the cells with cold water; c) washing the cells with a cold solution comprising sorbitol and CaCh; d) incubating the cells with a solution comprising lithium acetate and tris-(2-carboxyethyl)-phosphine (TCEP); e) washing the cells with a cold solution comprising sorbitol and CaCh; f) resuspending the cells in a solution comprising sorbitol; and g) optionally, suitably storing said cells. a) growing yeast cells to an OD 600 of between 1.0 to 2; b) washing the cells with cold water; c) washing the cells with a cold solution comprising sorbitol and CaCh; d) incubating the cells with a solution comprising lithium acetate and tris-(2-carboxyethyl)-phosphine (TCEP); e) washing the cells with a cold solution comprising sorbitol and CaCh; f) resuspending the cells in a solution comprising sorbitol; and g) optionally, suitably storing said cells.
A process for the oxidation of N-(phosphonomethyl)iminodiacetic acid or a salt thereof, the process comprising contacting N-(phosphonomethyl)iminodiacetic acid or a salt thereof with an oxidizing agent in the presence of an oxidation catalyst, said oxidation catalyst comprising a particulate carbon support having a transition metal/nitrogen composition bonded to the carbon support, said transition metal/nitrogen composition comprising an iron or cobalt nitride, said catalyst comprising said transition metal/nitrogen composition in such proportion that the Fe, Co or the sum of (Fe + Co) of said transition metal/nitrogen composition constitutes at least 0.1% by weight of said catalyst, and the nitrogen of said transition metal/nitrogen composition constitutes from 0.01% to 10% by weight of said catalyst.
A method of manufacturing a structural member, the method comprising: moving a plurality of fibers along an assembly line; applying a binder to at least one of the fibers, wherein when the binder is applied, the fibers are spaced apart and extend across a first area; applying a first traction agent to the binder and mixing the first traction agent with the binder before applying the binder; applying a second traction agent to at least one of the plurality of fibers after applying the binder; providing a die having a first portion with a first diameter positioned to receive the fibers and a second portion with a second diameter positioned downstream of the first portion, wherein the first diameter is greater than the second diameter and wherein the die is tapered between the first portion and the second portion; guiding the fibers along the die; decreasing a distance between the plurality of fibers with the die, wherein after decreasing the distance between the plurality of fibers, the fibers extend across a second area that is smaller than the first area; and after decreasing, shaping the plurality of fibers with a shaping station, wherein the traction agent increases friction between at least one of the fibers and either an adjacent fiber or the die during shaping. moving a plurality of fibers along an assembly line; applying a binder to at least one of the fibers, wherein when the binder is applied, the fibers are spaced apart and extend across a first area; applying a first traction agent to the binder and mixing the first traction agent with the binder before applying the binder; applying a second traction agent to at least one of the plurality of fibers after applying the binder; providing a die having a first portion with a first diameter positioned to receive the fibers and a second portion with a second diameter positioned downstream of the first portion, wherein the first diameter is greater than the second diameter and wherein the die is tapered between the first portion and the second portion; guiding the fibers along the die; decreasing a distance between the plurality of fibers with the die, wherein after decreasing the distance between the plurality of fibers, the fibers extend across a second area that is smaller than the first area; and after decreasing, shaping the plurality of fibers with a shaping station, wherein the traction agent increases friction between at least one of the fibers and either an adjacent fiber or the die during shaping.
A transmit device configured to: • jointly encode at least two of the three following pieces of transmission burst information in first Downlink Control Information, DCI: ▪ whether or not a current subframe is an end subframe; ▪ end subframe configuration; and/ or ▪ number of subframes to monitor, thereby arriving at encoded transmission burst information; • transmit the first DCI comprising the encoded transmission burst information with a DCI format used for the transmission burst information to a receive device, wherein the DCI format used for the transmission burst information has a same number of bits as a DCI format used for Physical Downlink Shared Channel, PDSCH, scheduling. • jointly encode at least two of the three following pieces of transmission burst information in first Downlink Control Information, DCI: ▪ whether or not a current subframe is an end subframe; ▪ end subframe configuration; and/ or ▪ number of subframes to monitor, thereby arriving at encoded transmission burst information; ▪ whether or not a current subframe is an end subframe; ▪ end subframe configuration; and/ or ▪ number of subframes to monitor, • transmit the first DCI comprising the encoded transmission burst information with a DCI format used for the transmission burst information to a receive device, wherein the DCI format used for the transmission burst information has a same number of bits as a DCI format used for Physical Downlink Shared Channel, PDSCH, scheduling.
A system for storing and retrieving items comprising: a rack (50;300) including a plurality of layers, each layer including an aisle (86;303) and a plurality of rows extending from the aisle (86,303), the items being storable in storage locations along the rows, each aisle (86,303) having a loading position at one end and transfer positions located along the aisle (86,303) adjacent ends of the rows; a shuttle on each layer, at least one of the shuttles being a dual shuttle including a first cart movable along the aisle (86,303) between the loading position and the transfer positions, the dual shuttle including a second cart configured to be carried by the first cart between the loading position and the transfer positions, the second cart movable in either direction between a transfer position and a storage location along a row while carrying an item; and a conveyor located on the dual shuttle operable when the first cart is at the loading position to move the item onto or off the first cart, wherein the second cart has a raisable top platform, a first motor for moving the second cart along the rows and a second motor for selectively raising the top platform to lift an item, and wherein the top platform is raised by a camming device (182,186,192) that rotates around a horizontal axis. a rack (50;300) including a plurality of layers, each layer including an aisle (86;303) and a plurality of rows extending from the aisle (86,303), the items being storable in storage locations along the rows, each aisle (86,303) having a loading position at one end and transfer positions located along the aisle (86,303) adjacent ends of the rows; a shuttle on each layer, at least one of the shuttles being a dual shuttle including a first cart movable along the aisle (86,303) between the loading position and the transfer positions, the dual shuttle including a second cart configured to be carried by the first cart between the loading position and the transfer positions, the second cart movable in either direction between a transfer position and a storage location along a row while carrying an item; and a conveyor located on the dual shuttle operable when the first cart is at the loading position to move the item onto or off the first cart, wherein the second cart has a raisable top platform, a first motor for moving the second cart along the rows and a second motor for selectively raising the top platform to lift an item, and wherein the top platform is raised by a camming device (182,186,192) that rotates around a horizontal axis.
Layered composite material, in particular for use in a redox flow battery, wherein the layered composite material contains at least one layer of a textile sheeting and at least one graphite-containing shaped body, the graphite-containing shaped body being obtainable by a method in which graphite particles are mixed with at least one solid organic additive to form a mixture and the mixture thus obtained is subsequently compressed, the at least one solid organic additive and the mixture produced therefrom not being melted and not being sintered prior to compression.
Dialysis concentrate preparation assembly for preparing a dialysis concentrate liquid by dissolving a dry concentrate in water, comprising a stationary manufacturing plant comprising a storage tank with a mixing inlet and a mixing outlet, and a mobile exchangeable container with the dry concentrate, wherein the exchangeable container comprises a discharge connection which is fluidically connected to the mixing inlet of the receiving container via a first line and comprises a combined connection which is fluidically connected to the mixing outlet of the receiving container via a corresponding second line, wherein an outlet filter is fluidically associated with the exchangeable container discharge connection, which filter is configured as a fine filter with a pore size of less than 1.5 μm, and characterised by a suction pump which pumps the liquid from the exchangeable container discharge connection to the mixing inlet and which is arranged in the first line downstream of the outlet filter and is fluidically connected to the exchangeable container discharge connection. a stationary manufacturing plant comprising a storage tank with a mixing inlet and a mixing outlet, and a mobile exchangeable container with the dry concentrate, wherein the exchangeable container comprises a discharge connection which is fluidically connected to the mixing inlet of the receiving container via a first line and comprises a combined connection which is fluidically connected to the mixing outlet of the receiving container via a corresponding second line, wherein an outlet filter is fluidically associated with the exchangeable container discharge connection, which filter is configured as a fine filter with a pore size of less than 1.5 μm, and characterised by a suction pump which pumps the liquid from the exchangeable container discharge connection to the mixing inlet and which is arranged in the first line downstream of the outlet filter and is fluidically connected to the exchangeable container discharge connection.
An apparatus comprising a first waveguide and a second waveguide and a spectral dispersion element, wherein the first waveguide is configured to guide radiation from a radiation source to an analyte region and the second waveguide is configured to guide radiation from the analyte region to the dispersion element, and the dispersion element comprises a plurality of diffraction gratings formed in the second waveguide each grating configured to diffract radiation from the analyte region, towards the radiation sensing element, the apparatus being configured to be moveably attachable to a portable device to enable the apparatus to be moved between a first position and a second position relative to a radiation source and radiation sensing element of the portable device, wherein the apparatus remains attached to the portable device in the second position, and wherein in the first position the first waveguide is positioned to guide radiation from the radiation source towards the analyte region and the second waveguide is positioned to guide radiation from the analyte region towards the dispersion element; and such that the dispersion element is positioned to disperse radiation from the analyte region to form a spectrum which is provided towards the radiation sensing element for spectral analysis, and in the second position the waveguides (15, 19) are not positioned between the radiation sensing element and radiation source and the dispersion element is not positioned over the radiation sensing element whereby in the second position the radiation sensing element and radiation source are able to capture and illuminate a scene for image capture.