mhurhangee/patent-ind-claim-en huggingface dataset:
A spinner configured for fiberizing mineral fibers, in particular glass fibers, by centrifugation from a molten material, comprising: - a peripheral barrel , preferably frustaconical, pierced with orifices for the passage of the molten material and for obtaining fibers by drawing during said centrifugation, - a wheel center connecting said peripheral barrel to an upper flange for securing the spinner in a fiberizing device, - a turnup extending said peripheral barrel in the bottom part of the spinner and making an angle β therewith, said spinner being characterized in that the angle β is strictly less than 90°. - a peripheral barrel , preferably frustaconical, pierced with orifices for the passage of the molten material and for obtaining fibers by drawing during said centrifugation, - a wheel center connecting said peripheral barrel to an upper flange for securing the spinner in a fiberizing device, - a turnup extending said peripheral barrel in the bottom part of the spinner and making an angle β therewith,
A light emitting device, comprising: a light emitting structure comprising a first conductivity type semiconductor layer , an active layer , and a second conductivity type semiconductor layer ; a dielectric layer on a part of an upper surface of the light emitting structure and on a lateral side of the light emitting structure ; a pad electrode over the dielectric layer ; a bottom electrode layer under the light emitting structure; and a top electrode over the light emitting structure, wherein the bottom electrode layer is in direct contact with the dielectric layer ,wherein the dielectric layer comprises a first dielectric layer on the part of an upper surface of the light emitting structure and a second dielectric layer on the lateral side of the light emitting structure , wherein the first dielectric layer and the second dielectric layer are connected to each other, wherein the pad electrode is in direct contact with the first dielectric layer , wherein the bottom electrode layer is in direct contact with the second dielectric layer , and wherein the pad electrode, the first dielectric layer, and the light emitting structure function as a Metal Insulator Semiconductor MIS capacitor, wherein the top electrode is directly disposed on the first conductivity type semiconductor layer of the light emitting structure, wherein the pad electrode is not directly disposed on the first conductivity type semiconductor layer of the light emitting structure. a light emitting structure comprising a first conductivity type semiconductor layer , an active layer , and a second conductivity type semiconductor layer ; a dielectric layer on a part of an upper surface of the light emitting structure and on a lateral side of the light emitting structure ; a pad electrode over the dielectric layer ; a bottom electrode layer under the light emitting structure; and a top electrode over the light emitting structure, wherein the bottom electrode layer is in direct contact with the dielectric layer ,wherein the dielectric layer comprises a first dielectric layer on the part of an upper surface of the light emitting structure and a second dielectric layer on the lateral side of the light emitting structure , wherein the first dielectric layer and the second dielectric layer are connected to each other, wherein the pad electrode is in direct contact with the first dielectric layer , wherein the bottom electrode layer is in direct contact with the second dielectric layer , and wherein the pad electrode, the first dielectric layer, and the light emitting structure function as a Metal Insulator Semiconductor MIS capacitor, wherein the top electrode is directly disposed on the first conductivity type semiconductor layer of the light emitting structure, wherein the pad electrode is not directly disposed on the first conductivity type semiconductor layer of the light emitting structure.
A freeze dried active composition comprising: (a) active (b) oil (c) less than 6.5% by weight of the composition, water; (d) emulsifier; and (e) thickening agent wherein from 4 to 25 times more oil by weight is present than active in the composition, the oil having a peroxide value from 0 to 4 meq/kg and a polarity index of from 0.1 to 80 mN/m, and less than 0.5% by weight of the total weight of oil is hydroxylated and wherein the active is retinoic acid precursor represented by the formula where each R is independently a hydrogen or a C 1-6 alkyl group and X is and further where each R' is hydrogen or a C 1 -C 3 alkyl and n is an integer from 0 to 16. (a) active (b) oil (c) less than 6.5% by weight of the composition, water; (d) emulsifier; and (e) thickening agent wherein from 4 to 25 times more oil by weight is present than active in the composition, the oil having a peroxide value from 0 to 4 meq/kg and a polarity index of from 0.1 to 80 mN/m, and less than 0.5% by weight of the total weight of oil is hydroxylated and wherein the active is retinoic acid precursor represented by the formula where each R is independently a hydrogen or a C 1-6 alkyl group and X is and further where each R' is hydrogen or a C 1 -C 3 alkyl and n is an integer from 0 to 16.
An osmotic material-free sanitary tissue product exhibiting a basis weight of from 40 g/m 2 to 500 g/m 2 as measured according to the Basis Weight Test Method and comprising between 5% and 30% by weight of thermoplastic filaments relative to the total mass of the sanitary tissue product wherein the sanitary tissue product exhibits a CRT Rate of greater than 0.35 g/sec as measured according to the Absorptive Rate and Capacity (CRT) Test Method and a Liquid Breakthrough of greater than 1.00 as measured according to the Liquid Breakthrough Test Method and wherein the sanitary tissue product comprises scrims of filaments, arranged on one or more of the exterior surfaces of the sanitary tissue product, said sanitary tissue product further comprising one or more inner fibrous structures comprising a through-air-dried wet-laid fibrous structures and co-formed fibrous structures; said scrims of filaments exhibiting each a basis weight of less than 10 g/m 2 as measured according to the Basis Weight Test Method, and said filaments being chosen from polyester filaments, nylon filaments, polyolefin filaments, polylactic acid filaments, polyhydroxyalkanoate filaments, polyesteramide filaments, and polycaprolactone filaments, said co-formed fibrous structures exhibiting a basis weight of from 10 g/m 2 to 200 g/m 2 as measured according to the Basis Weight Test Method and comprising from 10% to 50% by weight of thermoplastic filaments relative to the total weight of the co-formed fibrous structure and a plurality of wood pulp fibers selected from the group consisting of softwood kraft pulp fibers, hardwood fibers, and mixtures thereof, said wet-laid structures comprising a surface pattern and pulp fibers chosen from hardwood pulp fibers, softwood pulp fibers, and mixtures thereof. said scrims of filaments exhibiting each a basis weight of less than 10 g/m 2 as measured according to the Basis Weight Test Method, and said filaments being chosen from polyester filaments, nylon filaments, polyolefin filaments, polylactic acid filaments, polyhydroxyalkanoate filaments, polyesteramide filaments, and polycaprolactone filaments, said co-formed fibrous structures exhibiting a basis weight of from 10 g/m 2 to 200 g/m 2 as measured according to the Basis Weight Test Method and comprising from 10% to 50% by weight of thermoplastic filaments relative to the total weight of the co-formed fibrous structure and a plurality of wood pulp fibers selected from the group consisting of softwood kraft pulp fibers, hardwood fibers, and mixtures thereof, said wet-laid structures comprising a surface pattern and pulp fibers chosen from hardwood pulp fibers, softwood pulp fibers, and mixtures thereof.
A method of wireless communication at a user equipment "UE", comprising: increasing a bandwidth configuration of the UE, based on a function performed by the UE; and communicating with a base station based on the increased bandwidth configuration, wherein the function comprises a positioning function, and wherein increasing the bandwidth configuration includes increasing the bandwidth configuration used for a measurement associated with the positioning function; or wherein the function comprises a mobility function, and wherein the increased bandwidth configuration includes a first bandwidth configuration for a first measurement associated with a serving cell and a second bandwidth configuration for a second measurement associated with a neighbor cell; or wherein the function comprises a voice over long term evolution "VoLTE" function, and wherein the increased bandwidth configuration includes an increased bandwidth configuration for performing VoLTE or a bandwidth configuration for better quality of service for performing VoLTE; or wherein the function comprises radio link measurement "RLM", wherein increasing the bandwidth configuration includes increasing the bandwidth configuration for RLM measurements prior to declaring a radio link failure. increasing a bandwidth configuration of the UE, based on a function performed by the UE; and communicating with a base station based on the increased bandwidth configuration, wherein the function comprises a positioning function, and wherein increasing the bandwidth configuration includes increasing the bandwidth configuration used for a measurement associated with the positioning function; or wherein the function comprises a mobility function, and wherein the increased bandwidth configuration includes a first bandwidth configuration for a first measurement associated with a serving cell and a second bandwidth configuration for a second measurement associated with a neighbor cell; or wherein the function comprises a voice over long term evolution "VoLTE" function, and wherein the increased bandwidth configuration includes an increased bandwidth configuration for performing VoLTE or a bandwidth configuration for better quality of service for performing VoLTE; or wherein the function comprises radio link measurement "RLM", wherein increasing the bandwidth configuration includes increasing the bandwidth configuration for RLM measurements prior to declaring a radio link failure.
An optical transceiver for an optical communications network, comprising: a receiver configured to receive an optical signal comprising an X-polarization component that comprises a first frame and a Y-polarization component that comprises a second frame, each of the frames comprising a plurality of training sequences; a processor coupled to the receiver and comprising a channel estimation unit , the channel estimation unit comprising a data path for each of the polarization components, each data path comprising a plurality of FFT modules adapted to receive a respective plurality of training sequences, a vector module adapted to combine the outputs of the FFT modules, means for providing a training matrix determined according to frequency domain representations of the training sequences of the optical signal, an estimated phase of the training sequences and a chromatic dispersion compensation value received by the channel estimation unit, and a matrix vector multiply module adapted to multiply the output of the vector module by the training matrix; the channel estimation unit further comprising a channel estimate module adapted to combine the outputs of the vector multiply modules to form a channel estimate according to the training sequences of the optical signal, the processor being configured to: determine a chromatic dispersion and PMD compensated optical signal according to the channel estimate; and a transmitter coupled to the processor and configured to transmit the compensated optical signal to a downstream component in the optical communications network. a receiver configured to receive an optical signal comprising an X-polarization component that comprises a first frame and a Y-polarization component that comprises a second frame, each of the frames comprising a plurality of training sequences; a processor coupled to the receiver and comprising a channel estimation unit , the channel estimation unit comprising a data path for each of the polarization components, each data path comprising a plurality of FFT modules adapted to receive a respective plurality of training sequences, a vector module adapted to combine the outputs of the FFT modules, means for providing a training matrix determined according to frequency domain representations of the training sequences of the optical signal, an estimated phase of the training sequences and a chromatic dispersion compensation value received by the channel estimation unit, and a matrix vector multiply module adapted to multiply the output of the vector module by the training matrix; the channel estimation unit further comprising a channel estimate module adapted to combine the outputs of the vector multiply modules to form a channel estimate according to the training sequences of the optical signal, the processor being configured to: determine a chromatic dispersion and PMD compensated optical signal according to the channel estimate; and a transmitter coupled to the processor and configured to transmit the compensated optical signal to a downstream component in the optical communications network.
An apparatus comprising: a cable guide connector configured to slidably engage a slot of a networking chassis, the slot having a length extending along a first axis, and a cable management bracket configured to engage the cable guide connector , the cable management bracket comprising: an elongated section configured to support one or more cables in the networking chassis; a first end having a protrusion configured to engage one of a plurality of apertures in the cable guide connector and define a plurality of selectable angles at which the cable management bracket can be positioned relative to a second axis that is perpendicular to the first axis through which the slot extends; and a second end configured to enable rotation of the cable management bracket about the second axis. a cable guide connector configured to slidably engage a slot of a networking chassis, the slot having a length extending along a first axis, and a cable management bracket configured to engage the cable guide connector , the cable management bracket comprising: an elongated section configured to support one or more cables in the networking chassis; a first end having a protrusion configured to engage one of a plurality of apertures in the cable guide connector and define a plurality of selectable angles at which the cable management bracket can be positioned relative to a second axis that is perpendicular to the first axis through which the slot extends; and a second end configured to enable rotation of the cable management bracket about the second axis. an elongated section configured to support one or more cables in the networking chassis; a first end having a protrusion configured to engage one of a plurality of apertures in the cable guide connector and define a plurality of selectable angles at which the cable management bracket can be positioned relative to a second axis that is perpendicular to the first axis through which the slot extends; and a second end configured to enable rotation of the cable management bracket about the second axis.
A method of producing a freestanding ceramic tile, the method comprising the steps of: (a) grit-blasting a substrate using a grit size in the range from 36 mesh to 220 mesh; (b) depositing a release layer on the grit-blasted surface of the substrate, wherein the release layer is a layer of carbon or a layer of graphite, the release layer being from 2 to 10 microns thick; (c) applying ceramic over the release layer until a desired thickness of ceramic is achieved to form a ceramic layer; (d) heating the substrate, release layer, and ceramic layer to a temperature of from 800 to 1000 degrees Celsius; (e) keeping the substrate, release layer, and ceramic layer at a temperature from 800 to 1000 degrees Celsius for a time from 10 to 20 minutes so as to remove the release layer; and (f) cooling the substrate and ceramic layer via quenching at a rate of at least 200 degrees Celsius per minute, such that the ceramic layer separates from the substrate to produce a freestanding ceramic tile. (a) grit-blasting a substrate using a grit size in the range from 36 mesh to 220 mesh; (b) depositing a release layer on the grit-blasted surface of the substrate, wherein the release layer is a layer of carbon or a layer of graphite, the release layer being from 2 to 10 microns thick; (c) applying ceramic over the release layer until a desired thickness of ceramic is achieved to form a ceramic layer; (d) heating the substrate, release layer, and ceramic layer to a temperature of from 800 to 1000 degrees Celsius; (e) keeping the substrate, release layer, and ceramic layer at a temperature from 800 to 1000 degrees Celsius for a time from 10 to 20 minutes so as to remove the release layer; and (f) cooling the substrate and ceramic layer via quenching at a rate of at least 200 degrees Celsius per minute, such that the ceramic layer separates from the substrate to produce a freestanding ceramic tile.
A system for building a play area comprising: two or more panels , each of the two or more panels comprising: a connector ; and at least one magnet positioned in the connector such that the at least one magnet can rotate; wherein each of the two or more panels are configured such that when at least one edge of the first panel is brought towards at least one edge of the second panel from any direction, the at least one magnet in each panel orientate such that a magnetic connection is formed between the two or more panels ; and wherein the at least one magnet comprises at least one cylindrical magnet, the at least one cylindrical magnet being diametrically magnetized; wherein the at least one magnet comprises: a first magnet housed in a first end of the connector ; and a second magnet housed in a second end of the connector , wherein the connector connects a first dowel and a second dowel . a connector ; and at least one magnet positioned in the connector such that the at least one magnet can rotate; wherein each of the two or more panels are configured such that when at least one edge of the first panel is brought towards at least one edge of the second panel from any direction, the at least one magnet in each panel orientate such that a magnetic connection is formed between the two or more panels ; and wherein the at least one magnet comprises at least one cylindrical magnet, the at least one cylindrical magnet being diametrically magnetized; wherein the at least one magnet comprises: a first magnet housed in a first end of the connector ; and a second magnet housed in a second end of the connector , wherein the connector connects a first dowel and a second dowel .
An organic light emitting display device comprising: a substrate ; a thin film transistor on the substrate ; a planarization layer on the thin film transistor ; and a contact hole (CT2) passing through the planarization layer to expose a source or drain electrode of the thin film transistor ; a plurality of emissive areas (EA) each having a first electrode , a light emitting layer on the first electrode , and a second electrode on the light emitting layer ; a hole (H) between a first emissive area and a second emissive area of the plurality of emissive areas to provide an interruption between the light emitting layer of the first emissive area and the light emitting layer of the second emissive area; and a pixel defining layer on a portion of one first electrode and in the hole (H), wherein the first and second emissive areas are divided by the pixel defining layer , wherein a width (W1) of the hole (H) is wider than a distance (D) between one first electrode of the first emissive area and one first electrode of the second emissive area. a substrate ; a thin film transistor on the substrate ; a planarization layer on the thin film transistor ; and a contact hole (CT2) passing through the planarization layer to expose a source or drain electrode of the thin film transistor ; a plurality of emissive areas (EA) each having a first electrode , a light emitting layer on the first electrode , and a second electrode on the light emitting layer ; a hole (H) between a first emissive area and a second emissive area of the plurality of emissive areas to provide an interruption between the light emitting layer of the first emissive area and the light emitting layer of the second emissive area; and a pixel defining layer on a portion of one first electrode and in the hole (H), wherein the first and second emissive areas are divided by the pixel defining layer , wherein a width (W1) of the hole (H) is wider than a distance (D) between one first electrode of the first emissive area and one first electrode of the second emissive area.
A battery module comprising a module case having a bottom plate and sidewalls forming an internal space; a plurality of battery cells existing in the internal space of said module case; and a resin layer existing in the internal space of said module case, wherein said resin layer has a flame retardance grade of V-0 or higher in UL 94 V test, and comprises resin components, a filler having a thermal conductivity of 1 W/mK or more and a phosphorus flame retardant comprising a liquid phosphorus flame retardant and a solid phosphorus flame retardant, wherein the liquid phosphorus flame retardant is a phosphate flame retardant and the solid phosphorus flame retardant is a phosphinate flame retardant.
A formwork , in particular a climbing formwork, for casting a concrete structure , the formwork comprising - at least a first form element for delimiting a cavity to receive concrete, the first form element having an upper end and a lower end, - a first tilt sensor for measuring an actual tilt of the first form element with respect to a vertical plane, - a processing unit communicating with the first tilt sensor , characterized in that - the first tilt sensor comprises a first longitudinal element mounted on the first form element , the first longitudinal element extending from an upper region of the first form element to a lower region of the first form element , the first longitudinal element being connected to the first form element at the upper region and at the lower region of the first form element , respectively, - the first tilt sensor further comprising a first sensor element for measuring the inclination of a lower region of the first longitudinal element and a second sensor element for measuring the inclination of an upper region of the first longitudinal element , - the processing unit further being arranged for determining a deviation between the inclination of the lower region of the first longitudinal element and the upper region of the first longitudinal element . - at least a first form element for delimiting a cavity to receive concrete, the first form element having an upper end and a lower end, - a first tilt sensor for measuring an actual tilt of the first form element with respect to a vertical plane, - a processing unit communicating with the first tilt sensor , - the first tilt sensor comprises a first longitudinal element mounted on the first form element , the first longitudinal element extending from an upper region of the first form element to a lower region of the first form element , the first longitudinal element being connected to the first form element at the upper region and at the lower region of the first form element , respectively, - the first tilt sensor further comprising a first sensor element for measuring the inclination of a lower region of the first longitudinal element and a second sensor element for measuring the inclination of an upper region of the first longitudinal element , - the processing unit further being arranged for determining a deviation between the inclination of the lower region of the first longitudinal element and the upper region of the first longitudinal element .