mhurhangee/patent-ind-claim-en huggingface dataset:
An organic light emitting device comprising: an anode ; a cathode ; and an organic layer, disposed between the anode and the cathode, comprising an emissive layer , wherein the emissive layer comprises a host, a first dopant, and a second dopant; wherein the first dopant is a metallorganic phosphorescent compound, or thermally activated delayed fluorescent compound, that emits light having a wavelength less than or equal to 500 nm and the second dopant is an excited energy state managing dopant; wherein the second dopant comprises between 2-10 vol. % of the emissive layer and has a lowest triplet state energy level that is higher than the lowest triplet state energy levels of both the host and the first dopant and lower than the multiply-excited energy level of the first dopant which facilitates energy transfer from the multiply-excited energy level of the first dopant resulting in an improvement in the lifetime of the organic light emitting device. an anode ; a cathode ; and an organic layer, disposed between the anode and the cathode, comprising an emissive layer , wherein the emissive layer comprises a host, a first dopant, and a second dopant; wherein the first dopant is a metallorganic phosphorescent compound, or thermally activated delayed fluorescent compound, that emits light having a wavelength less than or equal to 500 nm and the second dopant is an excited energy state managing dopant; wherein the second dopant comprises between 2-10 vol. % of the emissive layer and has a lowest triplet state energy level that is higher than the lowest triplet state energy levels of both the host and the first dopant and lower than the multiply-excited energy level of the first dopant which facilitates energy transfer from the multiply-excited energy level of the first dopant resulting in an improvement in the lifetime of the organic light emitting device. a cathode ; and an organic layer, disposed between the anode and the cathode, comprising an emissive layer , wherein the emissive layer comprises a host, a first dopant, and a second dopant; wherein the first dopant is a metallorganic phosphorescent compound, or thermally activated delayed fluorescent compound, that emits light having a wavelength less than or equal to 500 nm and the second dopant is an excited energy state managing dopant; wherein the second dopant comprises between 2-10 vol. % of the emissive layer and has a lowest triplet state energy level that is higher than the lowest triplet state energy levels of both the host and the first dopant and lower than the multiply-excited energy level of the first dopant which facilitates energy transfer from the multiply-excited energy level of the first dopant resulting in an improvement in the lifetime of the organic light emitting device.
Angle measuring device, comprising • a housing , • a position detection unit for producing angle values (φ, φi) that specify the angular position of a shaft in relation to a reference position, • an interface unit for communicating with downstream electronics by way of a data transfer channel , wherein the angle measuring device further comprises • at least one imbalance sensor that generates an imbalance signal (u(t)) from deflections of the shaft caused by imbalance, • an imbalance evaluation unit that generates imbalance values (u, ui) from the imbalance signal (u(t)), and • a signal processing unit that generates an imbalance information item (I) from the angle values (φ, φi) and the imbalance values (u, ui), said imbalance information item being transferable to the downstream electronics via the interface unit , wherein the position detection unit and the imbalance sensor are arranged within the housing . • a housing , • a position detection unit for producing angle values (φ, φi) that specify the angular position of a shaft in relation to a reference position, • an interface unit for communicating with downstream electronics by way of a data transfer channel , wherein the angle measuring device further comprises • at least one imbalance sensor that generates an imbalance signal (u(t)) from deflections of the shaft caused by imbalance, • an imbalance evaluation unit that generates imbalance values (u, ui) from the imbalance signal (u(t)), and • a signal processing unit that generates an imbalance information item (I) from the angle values (φ, φi) and the imbalance values (u, ui), said imbalance information item being transferable to the downstream electronics via the interface unit , wherein the position detection unit and the imbalance sensor are arranged within the housing .
A method for preventing gas bubbles in oil flow to enter a high-voltage device configured to be executed in a system , which comprises a gravitational gas bubble filter , which is a closed oil vessel filled with oil and with an oil inlet at the upper part of the vessel and an oil outlet at the lower part of the vessel connected to a channel for the oil flow to the high-voltage device and comprising an enlargement of space for the oil flow, which system further comprises an oil flow generating means , which is an oil pump, and means to generate counter pressure to the oil flow generating means, which means to generate counter pressure is a pressure regulator or a throttle located in respect of the oil flow between the gravitational gas bubble filter and the high-voltage device , in which method velocity of the oil flow is decreased by the gravitational gas bubble filter formed as the closed oil vessel with the oil inlet at the upper part of the vessel and the oil outlet at the lower part of the vessel located in the channel for oil flow and in which oil vessel the velocity of the oil flow decreases or the oil flow stops such, that by the effect of gravity the gas bubbles are separated from the oil flow and the velocity of the oil flow is decreased by the enlargement of space for the oil flow and the gas bubbles of the oil flow are separated from the oil flow based on the effect of gravity, which causes the gas bubbles to move upwards and unite to form gas one or more pockets, and in which method a counter pressure to the oil flow generating means , which is the oil pump, is created at the outlet side of the gravitational gas bubble filter , characterized in that temperature of the oil flow is adjusted to desired temperature before it enters the gravitational gas bubble filter or the temperature of the gravitational gas bubble filter is adjusted to desired temperature with respect to the incoming oil, or both, to ensure that the temperature of the incoming oil is not lower than average temperature of the oil in the gravitational gas bubble filter.
A pump for use with a tube , the pump comprising: a rotor having an axis of rotation (A) and a plurality of rollers (44A-44D) configured to define an orbital path about the axis of rotation, the orbital path defined by a radius (R), and a roller bed having a surface adapted to support the tube for peristaltic compression by one or more rollers (44A-44D), wherein the surface has a predetermined profile comprising a circular arc segment and at least one side segment , the circular arc segment having a first curvature defined by the radius, and the at least one side segment having a second curvature lesser than the first curvature, and characterized in that the surface of the roller bed includes a controlled friction portion. a rotor having an axis of rotation (A) and a plurality of rollers (44A-44D) configured to define an orbital path about the axis of rotation, the orbital path defined by a radius (R), and a roller bed having a surface adapted to support the tube for peristaltic compression by one or more rollers (44A-44D), wherein the surface has a predetermined profile comprising a circular arc segment and at least one side segment , the circular arc segment having a first curvature defined by the radius, and the at least one side segment having a second curvature lesser than the first curvature, and characterized in that the surface of the roller bed includes a controlled friction portion.
A method of manufacturing an article of footwear having a sole assembly with a midsole and an outsole , and having an upper, the method comprising: disposing a first polymeric sheet in a mold assembly that has a mold surface ; wherein the mold surface has an etched area ; forming a fluid-filled bladder element at least partially by conforming the first polymeric sheet to the mold surface ; wherein said conforming imparts an impression of the etched area on a surface of the first polymeric sheet ; and assembling the fluid-filled bladder element in the midsole so that a first portion of the fluid-filled bladder element with the impression of the etched area is exposed to view through an opening in one of the midsole , the outsole , and the upper, and a second portion of the fluid-filled bladder element is blocked from view by said one of the midsole , the outsole , and the upper; wherein the fluid-filled bladder element has a sealable internal cavity that retains fluid. disposing a first polymeric sheet in a mold assembly that has a mold surface ; wherein the mold surface has an etched area ; forming a fluid-filled bladder element at least partially by conforming the first polymeric sheet to the mold surface ; wherein said conforming imparts an impression of the etched area on a surface of the first polymeric sheet ; and assembling the fluid-filled bladder element in the midsole so that a first portion of the fluid-filled bladder element with the impression of the etched area is exposed to view through an opening in one of the midsole , the outsole , and the upper, and a second portion of the fluid-filled bladder element is blocked from view by said one of the midsole , the outsole , and the upper; wherein the fluid-filled bladder element has a sealable internal cavity that retains fluid.
A belt cleaner which removes the leavings of conveying material on the surface of a conveyor belt at the return running side thereof comprising a scraper , a holder holding said scraper and pushing-up tension means; wherein said holder is provided with a pair of rotary shafts having an axis extending in the transverse direction of the belt, and a pair of holding rails which form a holding groove curving from its both ends toward the center in the return running direction (F) of the belt, and wherein said scraper is comprised of a blade of a resilient member in which supporting plates are embedded in parallel with each other, and thin plate-like tips are fixedly mounted on the back top of said supporting plates respectively, said blade being formed to be curved from a linear state to a substantially arcuate shape and inserted to be held in said holding groove , and said pushing-up tension means exerting resilient forces to rotate said rotary shafts so that said tips are moved up and pressed against the belt surface in an inclined posture at an angle θ1 from the perpendicular to the belt surface, characterized in that : said scraper is provided with a flat slope to be contacted with the belt surface in a manner of surface-contact connection which extends from the top edge of each tip toward the belt running direction (F) in parallel with the belt surface when said tips are held in said inclined posture, and a width W of said flat slope in the belt running direction (F) with respect to the thickness t of said tip is formed under the condition of t<W. wherein said holder is provided with a pair of rotary shafts having an axis extending in the transverse direction of the belt, and a pair of holding rails which form a holding groove curving from its both ends toward the center in the return running direction (F) of the belt, and wherein said scraper is comprised of a blade of a resilient member in which supporting plates are embedded in parallel with each other, and thin plate-like tips are fixedly mounted on the back top of said supporting plates respectively, said blade being formed to be curved from a linear state to a substantially arcuate shape and inserted to be held in said holding groove , and said pushing-up tension means exerting resilient forces to rotate said rotary shafts so that said tips are moved up and pressed against the belt surface in an inclined posture at an angle θ1 from the perpendicular to the belt surface, characterized in that : said scraper is provided with a flat slope to be contacted with the belt surface in a manner of surface-contact connection which extends from the top edge of each tip toward the belt running direction (F) in parallel with the belt surface when said tips are held in said inclined posture, and a width W of said flat slope in the belt running direction (F) with respect to the thickness t of said tip is formed under the condition of t<W.
System for unwinding and quick change of reels of a sheet product fed to a continuous production line , wherein: said system comprises at least one pair of unwinders of which a first unwinder is in a running position and carries a reel of inline product, and a second unwinder is in a reserve position and carries a reserve reel of said product, which is not connected to the line; the system characterized in that at least one of said two unwinders comprises a movable shaft on which the respective product reel is mounted; and wherein said two unwinders are placed side by side and positioned so that the respective product reels face one another, at a distance such that a movement of said movable shaft can bring said inline reel and said reserve reel to contact with each other to form a junction between a tail of the inline reel and a head of the reserve reel, so as to allow the inline insertion of the reserve reel to replace the previous one. said system comprises at least one pair of unwinders of which a first unwinder is in a running position and carries a reel of inline product, and a second unwinder is in a reserve position and carries a reserve reel of said product, which is not connected to the line; the system characterized in that at least one of said two unwinders comprises a movable shaft on which the respective product reel is mounted; and wherein said two unwinders are placed side by side and positioned so that the respective product reels face one another, at a distance such that a movement of said movable shaft can bring said inline reel and said reserve reel to contact with each other to form a junction between a tail of the inline reel and a head of the reserve reel, so as to allow the inline insertion of the reserve reel to replace the previous one.
Electromagnetic energy converter comprising: - at least one conductive coil of main axis XX', - a multipole magnet comprising at least three magnetised zones of the same dimensions, aligned along an elongation axis YY' of the multipole magnet , said multipole magnet being arranged in such a way that the magnetic polarities of two adjacent magnetised zones are essentially oriented so that they are anti-parallel in a direction perpendicular to the elongation axis YY', - a ferromagnetic yoke comprising a frame and a main section arranged so as to form two magnetic loops respectively referred to as a first magnetic loop and a second magnetic loop, which are adjacent at the main section , the main section passes through the at least one conductive coil , the yoke further comprises a main air-gap disposed on the main section , and two lateral air-gaps, respectively referred to as a first lateral air-gap and a second lateral air-gap which are disposed on the frame , the main air-gap , the converter is characterised in that the multipole magnet is a single piece and in that the main air-gap , the first lateral air-gap and the second lateral air-gap are arranged in such a way as to form a guide member into which the multipole magnet is inserted by sliding, and in such a way as to allow magnetic coupling of three successive magnetised zones with, respectively, the first lateral air-gap , the main air-gap , and the second lateral air-gap . - at least one conductive coil of main axis XX', - a multipole magnet comprising at least three magnetised zones of the same dimensions, aligned along an elongation axis YY' of the multipole magnet , said multipole magnet being arranged in such a way that the magnetic polarities of two adjacent magnetised zones are essentially oriented so that they are anti-parallel in a direction perpendicular to the elongation axis YY', - a ferromagnetic yoke comprising a frame and a main section arranged so as to form two magnetic loops respectively referred to as a first magnetic loop and a second magnetic loop, which are adjacent at the main section , the main section passes through the at least one conductive coil , the yoke further comprises a main air-gap disposed on the main section , and two lateral air-gaps, respectively referred to as a first lateral air-gap and a second lateral air-gap which are disposed on the frame , the main air-gap ,
A thermoplastic elastomer composition comprising a hydrogenated block copolymer component (A), a thermoplastic resin component (B) and a rubber softener component (C), wherein: the hydrogenated block copolymer component (A) comprises a hydrogenated block copolymer having (i) two or more polymer blocks (a) containing structural units derived from an aromatic vinyl compound, and one or more polymer blocks (b) containing a structural unit derived from isoprene and/or a structural unit derived from 1,3-butadiene; (ii) a glass transition temperature of less than about -45°C (measured as set forth in the examples), and (iii) a crystallization peak temperature (Tc) of from about -3°C to about 15°C (measured as set forth in the examples); the thermoplastic elastomer composition further comprises a polyolefin elastomer component (D); and the thermoplastic elastomer composition comprises from about 18 to about 60 parts by mass of the hydrogenated block copolymer component (A), from about 3 to about 24 parts by mass of the thermoplastic resin component (B), from about 3 to about 25 parts by mass of the rubber softener component (C), and from about 5 to about 76 parts by mass of a polyolefin elastomer component (D), based on 100 parts by mass (A)+(B)+(C)+(D). the hydrogenated block copolymer component (A) comprises a hydrogenated block copolymer having (i) two or more polymer blocks (a) containing structural units derived from an aromatic vinyl compound, and one or more polymer blocks (b) containing a structural unit derived from isoprene and/or a structural unit derived from 1,3-butadiene; (ii) a glass transition temperature of less than about -45°C (measured as set forth in the examples), and (iii) a crystallization peak temperature (Tc) of from about -3°C to about 15°C (measured as set forth in the examples); (i) two or more polymer blocks (a) containing structural units derived from an aromatic vinyl compound, and one or more polymer blocks (b) containing a structural unit derived from isoprene and/or a structural unit derived from 1,3-butadiene; (ii) a glass transition temperature of less than about -45°C (measured as set forth in the examples), and (iii) a crystallization peak temperature (Tc) of from about -3°C to about 15°C (measured as set forth in the examples); the thermoplastic elastomer composition further comprises a polyolefin elastomer component (D); and the thermoplastic elastomer composition comprises from about 18 to about 60 parts by mass of the hydrogenated block copolymer component (A), from about 3 to about 24 parts by mass of the thermoplastic resin component (B), from about 3 to about 25 parts by mass of the rubber softener component (C), and from about 5 to about 76 parts by mass of a polyolefin elastomer component (D), based on 100 parts by mass (A)+(B)+(C)+(D).
Measuring system for determining an arresting energy E Fang of a safety gear of a cable elevator which is connected to a counterweight by means of a cable , comprising at least one distance measuring device for determining a distance s of an elevator car and/or of the counterweight from a fixed point , wherein the measuring system comprises a second distance measuring device and/or an acceleration sensor , a relative position measuring device for measuring a relative position change Δ s between elevator car and counterweight at the conclusion of a downward movement of the elevator car due to the braking effect of the safety gear , and an analysis device for determining the arresting energy E Fang when standstill is achieved of the elevator car and of the counterweight on the basis of the development of the relative position change Δ s between elevator car and counterweight .
A method for dynamically adjusting Physical Uplink Shared Channel, PUSCH, resource, comprising steps of: determining a scenario for transmitting Uplink Control Information, UCI, over a PUSCH, wherein the scenario includes at least one of: transmitting service data and UCI over the PUSCH, and transmitting only the UCI over the PUSCH; selecting , according to the scenario, a group of PUSCH resource parameters from a plurality of groups of PUSCH resource parameters that do not discard UCI to generate scheduling information; and sending the scheduling information to User Equipment, UE; wherein the step of selecting, according to the scenario, a group of PUSCH resource parameters from the plurality of groups of PUSCH resource parameters that do not discard UCI to generate scheduling information comprises: selecting the group of PUSCH resource parameters from the plurality of groups of PUSCH resource parameters according to a preset sequence; determining the number of Resource Elements, REs, required for transmitting the UCI according to the scenario and currently selected PUSCH resource parameter; and when it is determined, according to the number of REs and the scenario, that a preset condition that the UCI is not discarded is satisfied, generating the scheduling information according to the currently selected PUSCH resource parameter. determining a scenario for transmitting Uplink Control Information, UCI, over a PUSCH, wherein the scenario includes at least one of: transmitting service data and UCI over the PUSCH, and transmitting only the UCI over the PUSCH; selecting , according to the scenario, a group of PUSCH resource parameters from a plurality of groups of PUSCH resource parameters that do not discard UCI to generate scheduling information; and sending the scheduling information to User Equipment, UE; selecting the group of PUSCH resource parameters from the plurality of groups of PUSCH resource parameters according to a preset sequence; determining the number of Resource Elements, REs, required for transmitting the UCI according to the scenario and currently selected PUSCH resource parameter; and when it is determined, according to the number of REs and the scenario, that a preset condition that the UCI is not discarded is satisfied, generating the scheduling information according to the currently selected PUSCH resource parameter.