mhurhangee/patent-ind-claim-en huggingface dataset:
An organic light emitting display comprising: a light emitting device disposed in an active area of a substrate that displays images; an encapsulation part disposed on the light emitting device , the encapsulation part including a plurality of inorganic encapsulation layers and at least one organic encapsulation layer ; a plurality of touch sensing lines and a plurality of touch driving lines disposed on the encapsulation part , the plurality of touch sensing lines and the plurality of touch driving lines intersecting each other in the active area, and the plurality of touch driving lines and the plurality of touch sensing lines each including a plurality of conductive layers arranged in a stacking sequence; and a plurality of routing lines , connected to the plurality of touch sensing lines and the plurality of touch driving lines , on the substrate provided with the light emitting device and the encapsulation part , each of the plurality of routing lines including a plurality of routing layers , each of the plurality of routing layers made of a same material as a corresponding one of the plurality of conductive layers and the plurality of routing layers arranged in a same stacking sequence as the stacking sequence of the plurality of conductive layers. a light emitting device disposed in an active area of a substrate that displays images; an encapsulation part disposed on the light emitting device , the encapsulation part including a plurality of inorganic encapsulation layers and at least one organic encapsulation layer ; a plurality of touch sensing lines and a plurality of touch driving lines disposed on the encapsulation part , the plurality of touch sensing lines and the plurality of touch driving lines intersecting each other in the active area, and the plurality of touch driving lines and the plurality of touch sensing lines each including a plurality of conductive layers arranged in a stacking sequence; and a plurality of routing lines , connected to the plurality of touch sensing lines and the plurality of touch driving lines , on the substrate provided with the light emitting device and the encapsulation part , each of the plurality of routing lines including a plurality of routing layers , each of the plurality of routing layers made of a same material as a corresponding one of the plurality of conductive layers and the plurality of routing layers arranged in a same stacking sequence as the stacking sequence of the plurality of conductive layers.
A biological analysis device for performing capillary electrophoresis, comprising: a voltage section configured to generate a voltage differential across a cathode connector and an anode connector; an optical detector system configured to detect light emission from a sample; a cartridge holding portion configured to receive at least a portion of a removable cartridge , the cartridge comprising one or more capillaries and a separation medium container ; and one or more actuators configured to actuate components of the removable cartridge when the removable cartridge is received in the cartridge holding portion, a temperature regulation section configured to maintain the one or more capillaries at a temperature higher than ambient temperature, characterized in that the cartridge holding portion further comprises a refrigeration section configured to refrigerate a separation medium stored in the separation medium container at a temperature lower than ambient temperature. a voltage section configured to generate a voltage differential across a cathode connector and an anode connector; an optical detector system configured to detect light emission from a sample; a cartridge holding portion configured to receive at least a portion of a removable cartridge , the cartridge comprising one or more capillaries and a separation medium container ; and one or more actuators configured to actuate components of the removable cartridge when the removable cartridge is received in the cartridge holding portion, a temperature regulation section configured to maintain the one or more capillaries at a temperature higher than ambient temperature, characterized in that the cartridge holding portion further comprises a refrigeration section configured to refrigerate a separation medium stored in the separation medium container at a temperature lower than ambient temperature.
Dicing method, comprising: - providing a substrate of semiconductor material, the substrate having a main surface of the semiconductor material, where integrated components of chips are arranged, and a rear surface of the semiconductor material opposite the main surface , - fastening a first handling wafer above the main surface , - thinning the substrate at the rear surface , - arranging a dielectric layer on or above the rear surface of the thinned substrate , - forming openings in the dielectric layer , - removing the first handling wafer , and - etching trenches from the main surface to the openings by a single etching step through the semiconductor material, so that the trenches penetrate the substrate and separate the chips . - providing a substrate of semiconductor material, the substrate having a main surface of the semiconductor material, where integrated components of chips are arranged, and a rear surface of the semiconductor material opposite the main surface , - fastening a first handling wafer above the main surface , - thinning the substrate at the rear surface , - arranging a dielectric layer on or above the rear surface of the thinned substrate , - forming openings in the dielectric layer , - removing the first handling wafer , and - etching trenches from the main surface to the openings by a single etching step through the semiconductor material, so that the trenches penetrate the substrate and separate the chips .
A method of performing Single Instruction Multiple Data, SIMD, memory operation instructions, the method comprising: providing , by a processor , two or more source addresses and corresponding two or more destination addresses of a memory to a transaction input buffer ; wherein the two or more source addresses are non-contiguous; and wherein the two or more destination addresses are non-contiguous in the memory; and supplying, by the transaction input buffer, the two or more source addresses and corresponding two or more destination addresses to a transaction sequencer ; and executing , by the memory , two or more instructions supplied by the transaction sequencer, for copying the two or more data elements from the two or more source addresses to corresponding two or more destination addresses within the memory, without an intermediate copy to a register in the processor. providing , by a processor , two or more source addresses and corresponding two or more destination addresses of a memory to a transaction input buffer ; wherein the two or more source addresses are non-contiguous; and wherein the two or more destination addresses are non-contiguous in the memory; and supplying, by the transaction input buffer, the two or more source addresses and corresponding two or more destination addresses to a transaction sequencer ; and executing , by the memory , two or more instructions supplied by the transaction sequencer, for copying the two or more data elements from the two or more source addresses to corresponding two or more destination addresses within the memory, without an intermediate copy to a register in the processor.
Device for grinding coffee beans , characterized in that said device comprises: - a grinding member configured to grind coffee beans and produce a ground coffee powder , said grinding member comprising two reciprocally mobile grinders; - a grinding chamber housing said grinding member ; - a transit chamber configured to receive the ground coffee powder ; - a discharge member configured to discharge the ground coffee powder arriving from the transit chamber toward the outside of said device; - at least one air-powered powder removal member configured to generate a stream of air through said grinding member , in order to remove ground coffee powder from the grinding member and from the transit chamber ; said grinding chamber being in communication, downstream of the grinding member , with the transit chamber , said stream of air generated through the grinding member and the respective two reciprocally mobile grinders, to remove ground coffee powder from the grinding member and the transit chamber passing through the grinding chamber ; wherein said device is provided with an entrance aperture through which to feed the coffee beans and an exit aperture through which the ground coffee powder is discharged to the outside, wherein the entrance aperture is associated with the air-powered powder removal member and with the grinding member , and the exit aperture is associated with the discharge member . - a grinding member configured to grind coffee beans and produce a ground coffee powder , said grinding member comprising two reciprocally mobile grinders; - a grinding chamber housing said grinding member ; - a transit chamber configured to receive the ground coffee powder ; - a discharge member configured to discharge the ground coffee powder arriving from the transit chamber toward the outside of said device; - at least one air-powered powder removal member configured to generate a stream of air through said grinding member , in order to remove ground coffee powder from the grinding member and from the transit chamber ; said grinding chamber being in communication, downstream of the grinding member , with the transit chamber , said stream of air generated through the grinding member and the respective two reciprocally mobile grinders, to remove ground coffee powder from the grinding member and the transit chamber passing through the grinding chamber ; wherein said device is provided with an entrance aperture through which to feed the coffee beans and an exit aperture through which the ground coffee powder is discharged to the outside, wherein the entrance aperture is associated with the air-powered powder removal member and with the grinding member , and the exit aperture is associated with the discharge member .
An implantable leadless pacemaker (iLP) for a human or animal heart, the iLP comprising: - a housing , - at least two electrode poles for picking up electrical potentials and/or delivering electrical stimulation, - a stimulation control unit in connection with the electrode poles, - a sensing unit , wherein the sensing unit is in connection with at least one electrode pole, - a signal processing unit in connection with the sensing unit , - a signal evaluation unit in connection with the signal processing unit and/or the sensing unit , and - an energy source, wherein the iLP is configured to be anchored within a ventricle, and wherein - the sensing unit is configured to sense electrical potentials via the at least two electrode poles, wherein the sensing unit is further configured to sense a first signal associated with an activity of the ventricle, and - the stimulation control unit is configured to deliver electrical stimulation in the ventricle via the at least two electrode poles, - the sensing unit is further configured to sense a second signal, characterized in that - the sensing unit comprises an acoustic sensor which is configured to acquire acoustic signals representing cardiac activity, and - the second signal is an acoustic signal which is associated with contraction of an atrium, wherein the signal processing unit and the signal evaluation unit comprise an atrial event detector that is configured to detect atrial events in the second signal, and wherein the atrial event detector is configured to use bandpass-filtering tuned to atrial event frequency components on the second signal to provide a filtered signal, and to use a threshold crossing detection on the filtered signal, such that the second signal is evaluated for atrial events. - a housing , - at least two electrode poles for picking up electrical potentials and/or delivering electrical stimulation, - a stimulation control unit in connection with the electrode poles, - a sensing unit , wherein the sensing unit is in connection with at least one electrode pole, - a signal processing unit in connection with the sensing unit , - a signal evaluation unit in connection with the signal processing unit and/or the sensing unit , and - an energy source, wherein the iLP is configured to be anchored within a ventricle, and wherein - the sensing unit is configured to sense electrical potentials via the at least two electrode poles, wherein the sensing unit is further configured to sense a first signal associated with an activity of the ventricle, and - the stimulation control unit is configured to deliver electrical stimulation in the ventricle via the at least two electrode poles, - the sensing unit is further configured to sense a second signal, characterized in that - the sensing unit comprises an acoustic sensor which is configured to acquire acoustic signals representing cardiac activity, and - the second signal is an acoustic signal which is associated with contraction of an atrium,
Infusion device for administering a medical fluid to a patient (P), comprising: - a pump mechanism for administering a medical fluid to a patient (P) through a line set , - a sensor device for measuring a measurement value indicative of a pressure in the line set , and - a processor device configured to automatically set, in an initial phase, a threshold value to a value determined based on at least a mechanical characteristic of the line set and/or the pump mechanism and to determine, in an operational phase, whether an occlusion condition in the line set is present based on the measurement value and the threshold value (P thres ), wherein the processor device is configured to adjust, in particular increase, the threshold value (P thres ) if in the operational phase a pressure variation condition in the line set different than an occlusion condition is detected by the processor device , characterized in that , for detecting the pressure variation condition, a slope value indicative of a slope of the pressure in the line set is determined based on measurement values obtained from the sensor device , wherein the processor device is configured to conclude that a pressure variation condition different than an occlusion condition is present if the slope value deviates from an expected slope value by more than a predetermined margin. - a pump mechanism for administering a medical fluid to a patient (P) through a line set , - a sensor device for measuring a measurement value indicative of a pressure in the line set , and - a processor device configured to automatically set, in an initial phase, a threshold value to a value determined based on at least a mechanical characteristic of the line set and/or the pump mechanism and to determine, in an operational phase, whether an occlusion condition in the line set is present based on the measurement value and the threshold value (P thres ), wherein the processor device is configured to adjust, in particular increase, the threshold value (P thres ) if in the operational phase a pressure variation condition in the line set different than an occlusion condition is detected by the processor device , characterized in that , for detecting the pressure variation condition, a slope value indicative of a slope of the pressure in the line set is determined based on measurement values obtained from the sensor device , wherein the processor device is configured to conclude that a pressure variation condition different than an occlusion condition is present if the slope value deviates from an expected slope value by more than a predetermined margin.
A waveguide comprising: a pair of opposing surfaces arranged to guide a light field therebetween by internal reflection; an input port arranged to receive light from a display system; a reflective element arranged to internally reflect the light field, wherein the input port and reflective element are formed on a second surface of the pair of opposing surfaces; an output port formed by a transmissive-reflective element configured to divide the light field at each internal reflection therefrom such that a plurality of replicas of the light field are transmitted out of the waveguide through the output port, characterized in that the reflective element comprises a metal layer disposed on the second surface of the waveguide and a dielectric stack at least partially disposed on the metal layer to form a step, in which the metal layer forms an edge with the input port and the dielectric stack is offset with respect to the edge in a direction away from the input port. a pair of opposing surfaces arranged to guide a light field therebetween by internal reflection; an input port arranged to receive light from a display system; a reflective element arranged to internally reflect the light field, wherein the input port and reflective element are formed on a second surface of the pair of opposing surfaces; an output port formed by a transmissive-reflective element configured to divide the light field at each internal reflection therefrom such that a plurality of replicas of the light field are transmitted out of the waveguide through the output port, characterized in that the reflective element comprises a metal layer disposed on the second surface of the waveguide and a dielectric stack at least partially disposed on the metal layer to form a step, in which the metal layer forms an edge with the input port and the dielectric stack is offset with respect to the edge in a direction away from the input port.
Composition for cooling a propulsion system of an electric or hybrid vehicle, comprising: (i) at least one base oil, or at least one hydrocarbon fluid with a boiling point of greater than or equal to 50°C; and (ii) at least one fire retardant corresponding to formula (I) R F -L-R H (I) in which R F is a perfluorinated or partially fluorinated group, in particular comprising from 1 to 22, preferably from 1 to 20 and even more preferentially from 1 to 16 carbon atoms, R H is a hydrocarbon group, in particular comprising from 1 to 22, preferably from 1 to 20 and even more preferentially from 1 to 16 carbon atoms, and L is a linker, said fire retardant of formula (I) being at least partially, in particular totally, in an encapsulated form; said fire retardant of formula (I) being present in a content of between 0.5% and 40% by weight, relative to the total weight of the composition; said composition being free from water. (i) at least one base oil, or at least one hydrocarbon fluid with a boiling point of greater than or equal to 50°C; and (ii) at least one fire retardant corresponding to formula (I) R F -L-R H (I) in which R F is a perfluorinated or partially fluorinated group, in particular comprising from 1 to 22, preferably from 1 to 20 and even more preferentially from 1 to 16 carbon atoms, R H is a hydrocarbon group, in particular comprising from 1 to 22, preferably from 1 to 20 and even more preferentially from 1 to 16 carbon atoms, and L is a linker, said fire retardant of formula (I) being at least partially, in particular totally, in an encapsulated form; said fire retardant of formula (I) being present in a content of between 0.5% and 40% by weight, relative to the total weight of the composition; said composition being free from water. R F is a perfluorinated or partially fluorinated group, in particular comprising from 1 to 22, preferably from 1 to 20 and even more preferentially from 1 to 16 carbon atoms, R H is a hydrocarbon group, in particular comprising from 1 to 22, preferably from 1 to 20 and even more preferentially from 1 to 16 carbon atoms, and L is a linker, said fire retardant of formula (I) being at least partially, in particular totally, in an encapsulated form; said fire retardant of formula (I) being present in a content of between 0.5% and 40% by weight, relative to the total weight of the composition; said composition being free from water.
A composite cathode for a metal air cell comprising: a layer comprising porous particles; and a first electrolyte disposed between porous particles of the layer comprising porous particles, wherein the first electrolyte is disposed on at least a portion of a surface of the layer comprising porous particles, and wherein a weight ratio of the porous particles to the first electrolyte is higher than 1:3.7; wherein the first electrolyte comprises a solid electrolyte; and wherein the porous particles are carbon-based. a layer comprising porous particles; and a first electrolyte disposed between porous particles of the layer comprising porous particles, wherein the first electrolyte is disposed on at least a portion of a surface of the layer comprising porous particles, and wherein a weight ratio of the porous particles to the first electrolyte is higher than 1:3.7; wherein the first electrolyte comprises a solid electrolyte; and wherein the porous particles are carbon-based.
A method for preparing aliphatic isocyanate comprising the steps of: progressing a phosgenation reaction by reacting an aliphatic amine salt and phosgene in the presence of a solvent; separating aliphatic isocyanate, which is a product in the reaction mixture of the phosgenation reaction step, and sending a mixture comprising hydrogen chloride, unreacted phosgene and a solvent to a condenser to condense; sending the condensed mixture to a scrubber to discharge hydrogen chloride to the upper stage and separate unreacted phosgene and solvent to the lower stage; sending the separated unreacted phosgene and solvent to a distillation column to recover unreacted phosgene to the upper stage and separate the solvent to the lower stage; and introducing the recovered unreacted phosgene into the phosgenation reaction step, and sending the solvent separated to the lower stage to the scrubber, wherein the aliphatic amine is m-xylylene diamine, p-xylylene diamine or o-xylylene diamine, and wherein the phosgenation reaction step comprises a first reaction step of reacting an aliphatic amine and hydrogen chloride to form the aliphatic amine salt; and a second reaction step of reacting the aliphatic amine salt and phosgene in the presence of an organic solvent having a boiling point of 100 to 200°C. progressing a phosgenation reaction by reacting an aliphatic amine salt and phosgene in the presence of a solvent; separating aliphatic isocyanate, which is a product in the reaction mixture of the phosgenation reaction step, and sending a mixture comprising hydrogen chloride, unreacted phosgene and a solvent to a condenser to condense; sending the condensed mixture to a scrubber to discharge hydrogen chloride to the upper stage and separate unreacted phosgene and solvent to the lower stage; sending the separated unreacted phosgene and solvent to a distillation column to recover unreacted phosgene to the upper stage and separate the solvent to the lower stage; and introducing the recovered unreacted phosgene into the phosgenation reaction step, and sending the solvent separated to the lower stage to the scrubber, wherein the aliphatic amine is m-xylylene diamine, p-xylylene diamine or o-xylylene diamine, and wherein the phosgenation reaction step comprises a first reaction step of reacting an aliphatic amine and hydrogen chloride to form the aliphatic amine salt; and a second reaction step of reacting the aliphatic amine salt and phosgene in the presence of an organic solvent having a boiling point of 100 to 200°C.