mhurhangee/ep-ind-claims huggingface dataset:
A LED light with omnidirectional light distribution comprising a light-emitting bulb and a lamp holder connected with the light-emitting bulb; wherein said lamp holder is set with a power driver, and external thread is set outside the said lamp holder; wherein said light-emitting bulb comprises a shell, a stem set inside the shell and a light-emitting component. One end of the stem is connected with the said power driver, and the other end of the stem is connected with the light-emitting component. The said stem is set with the wire; wherein said light-emitting component comprises at least two bar-type LED filaments with omnidirectional glaring. The said bar-type LED filaments are connected in series connection or in series-parallel connection. The said bar-type LED filament is connected with the power driver through the stem; wherein said bar-type LED filament comprises a die bond substrate, an electrode, a gold bonding wire, a fluorescent colloid and several light-emitting chips; wherein said light-emitting chip is attached and fixed onto the front of the die bond substrate; the anode and cathode of light-emitting chip is directly or indirectly connected with the anode and cathode of die bond substrate through the gold bonding wire; said anode and cathode are respectively connected with outer leads of the anode and cathode of substrates set on the die bond substrate; wherein one end of the said electrode is connected with outer leads of the die bond substrate through the gold bonding wire and fixed with the outer lead of the die bond substrate through the plastic cement; the other end of the said electrode is connected with the said wire; and wherein the fluorescent colloid is filled on the front and back of the die bond substrate through the transparent AB glue, and covers the light-emitting chip; said light-emitting chip is purple light wafer, and the said fluorescent colloid is RGB three-color fluorescent powder to make LED filament a white light LED source; characterized in that the said die bond substrate is of conductive magnetic substance, iron, nickel, cobalt or alloy material. Preferably, the surface of the said die bond substrate is set with silver-plated or gold-plated coating. The surface of the said electrode is of conductive metal such as iron, nickel, cobalt, copper or alloy. The stem comprises exhaust tube, seal, support pillar and magnetic connecting piece. The seal is wrapped outside the wire, and the seal is connected with the shell. The exhaust tube is set inside the seal, and the exhaust tube has the internal part of light-emitting bulb connected with the external part. The end of the exhaust tube is welded to the sealed light-emitting bulb for sealing. One end of the support pillar is fixed at the end of the seal, while the other end of the support pillar is bonded with the magnetic connecting piece. The magnetic connecting piece is used to fix the bar-type LED filament and have the bar-type LED filaments connected through magnetic connecting piece. The said magnetic connecting piece is made of conductive NdFeB magnet, Sm-Co magnet, AINiCo magnet or ferrite magnet.
An encoded chromophoric polymer particle comprising: a polymer matrix comprising one or more chromophoric polymers; and a plurality of distinct chromophores comprising the one or more chromophoric polymers; wherein each chromophore of the plurality of distinct chromophores comprises a set of tunable optical properties, thereby defining an optically detectable code for the encoded chromophoric polymer particle, wherein the set of tunable optical properties of each distinct chromophore has one or more optical properties that are distinguishable from one another and the one or more optical properties are selected from the group consisting of emission spectra, emission intensities, emission wavelengths, emission lifetimes, emission rates, and absorbance wavelengths. a polymer matrix comprising one or more chromophoric polymers; and a plurality of distinct chromophores comprising the one or more chromophoric polymers; wherein each chromophore of the plurality of distinct chromophores comprises a set of tunable optical properties, thereby defining an optically detectable code for the encoded chromophoric polymer particle, wherein the set of tunable optical properties of each distinct chromophore has one or more optical properties that are distinguishable from one another and the one or more optical properties are selected from the group consisting of emission spectra, emission intensities, emission wavelengths, emission lifetimes, emission rates, and absorbance wavelengths.
A frictional power transmission belt comprising an adhesion rubber layer in contact with at least a portion of a tension member extending in a longitudinal direction of the belt, wherein the adhesion rubber layer is formed of a first vulcanized rubber composition comprising a rubber component and a filler, the filler contains 30 parts by mass or more of carbon black and from 0.1 to 15 parts by mass of silica based on 100 parts by mass of the rubber component, and the tension member has, on a surface thereof, an overcoat layer formed of a second vulcanized rubber composition comprising a rubber component and silica.
A bottle comprising: a main body with an open end and a closed end; a flange positioned adjacent to the open end, the flange being configured to contact and retain to a valve cup that is crimped to the flange in such a manner so as to close the open end of the bottle; and at least one protrusion extending from the flange in a direction away from the rest of the bottle, wherein the main body, the flange, and the at least one protrusion are formed from a thermoplastic material; characterized in that the at least one protrusion extends in a direction that is substantially perpendicular to an axis of the bottle that runs from the open end to the closed end. a main body with an open end and a closed end; a flange positioned adjacent to the open end, the flange being configured to contact and retain to a valve cup that is crimped to the flange in such a manner so as to close the open end of the bottle; and at least one protrusion extending from the flange in a direction away from the rest of the bottle, characterized in that the at least one protrusion extends in a direction that is substantially perpendicular to an axis of the bottle that runs from the open end to the closed end.
A display panel, comprising: a substrate having an edge; a plurality of pixels, disposed on the substrate; and a black matrix, disposed between the pixels, wherein the black matrix is characterized in that the black matrix comprises a first sub-portion, a second sub-portion, and a third sub-portion disposed side by side, the first sub-portion has a first width, the second sub-portion has a second width, and the third sub-portion has a third width, and the first width, the second width, and the third width are in an ascending order, the third sub-portion is closer to the edge than the second sub-portion, and the second sub-portion is closer to the edge than the first sub-portion; and wherein the pixels comprise a plurality of first row pixels, a plurality of second row pixels, and a plurality of third row pixels,wherein the first row pixels are disposed at one side of the first sub-portion and have a fourth width, the second row pixels are disposed at one side of the second sub-portion and have a fifth width, the third row pixels are disposed at one side of the third sub-portion and have a sixth width, the fourth width, the fifth width, and the sixth width are in an ascending order, the third row pixels are closer to the edge than the second row pixels, and the second row pixels are closer to the edge than the first row pixels, wherein the pixels are characterized in that a ratio of the first width to the fourth width, a ratio of the second width to the fifth width, and a ratio of the third width to the sixth width are the same. a substrate having an edge; a plurality of pixels, disposed on the substrate; and a black matrix, disposed between the pixels, wherein the black matrix is characterized in that the black matrix comprises a first sub-portion, a second sub-portion, and a third sub-portion disposed side by side, the first sub-portion has a first width, the second sub-portion has a second width, and the third sub-portion has a third width, and the first width, the second width, and the third width are in an ascending order, the third sub-portion is closer to the edge than the second sub-portion, and the second sub-portion is closer to the edge than the first sub-portion; and wherein the pixels comprise a plurality of first row pixels, a plurality of second row pixels, and a plurality of third row pixels,wherein the first row pixels are disposed at one side of the first sub-portion and have a fourth width, the second row pixels are disposed at one side of the second sub-portion and have a fifth width, the third row pixels are disposed at one side of the third sub-portion and have a sixth width, the fourth width, the fifth width, and the sixth width are in an ascending order, the third row pixels are closer to the edge than the second row pixels, and the second row pixels are closer to the edge than the first row pixels, wherein the pixels are characterized in that a ratio of the first width to the fourth width, a ratio of the second width to the fifth width, and a ratio of the third width to the sixth width are the same.
A heat pump where a flowing primary fluid is circulating, the heat pump comprising: - a condenser for emitting heat from the primary fluid circulating in the heat pump; - an evaporator for receiving heat to the primary fluid; - a compressor for increasing the pressure of the primary fluid; and - an expansion valve for decreasing the pressure of the primary fluid, which condenser comprises a first heat exchanger comprising at least two separate flow channels for the flowing primary fluid and a flowing secondary fluid and transferring heat from the primary fluid to the secondary fluid, and which evaporator comprises a second heat exchanger for transferring heat from a heat fluid serving as the heat source to the primary fluid, the first heat exchanger is provided with an integral auxiliary heater for raising the temperature of the secondary fluid, characterized in that a structure made of metallic material is arranged between the first heat exchanger and the auxiliary heater to minimize heat transfer between the flow channel for the primary fluid and the auxiliary heater, wherein a vacuum is formed within this structure. - a condenser for emitting heat from the primary fluid circulating in the heat pump; - an evaporator for receiving heat to the primary fluid; - a compressor for increasing the pressure of the primary fluid; and - an expansion valve for decreasing the pressure of the primary fluid,
An aliphatic polycarbonate in which a salt consisting of a metal or onium cation and an anion whose corresponding acid has a pKa not greater than 3 is dispersed, the aliphatic polycarbonate comprising repeating units of Formula 1: wherein A is a substituted or unsubstituted C 3 -C 60 alkylene, or a substituted or unsubstituted C 3 -C 60 heteroalkylene and the O- A -O units in one polymer chain are identical to or different from each other, wherein the HO- A -OH as a raw material for the aliphatic polycarbonate of Formula 1 is selected from the group consisting of the compounds of Formulae 2a to 2d, or wherein the HO- A -OH is a mixture of the compound of Formula 2a and one diol compound selected from the group consisting of the compounds of Formulae 2b to 2d, 2f and 2h: wherein the aliphatic polycarbonate has a weight average molecular weight of 80,000 to 250,000, determined by polystyrene standard substance with THF and 40°C, using GPC (gel permeation chromatography).
A fluid separation apparatus fluidly connectable to an anesthetic circuit, the anesthetic circuit having a flow passage for transporting an exhaled fluid mixture containing at least exhaled anesthetic agent and exhaled carbon dioxide through the flow passage, the fluid separation apparatus comprises: a membrane having a plurality of hollow fibers, wherein the membrane is at least partially impervious to the exhaled anesthetic agent to at least partially retain the exhaled anesthetic agent in the flow passage after the exhaled fluid mixture contacts the membrane, and the membrane is more pervious to the exhaled carbon dioxide than the exhaled anesthetic agent such that the membrane has an exhaled carbon dioxide-to-exhaled anesthetic agent selectivity of greater than 1; and the membrane is inert with respect to the exhaled carbon dioxide and is free of amino acids; and a membrane housing containing the membrane therein, wherein the housing is configured to receive the exhaled fluid mixture via a housing inlet, the membrane housing directs the exhaled fluid mixture into contact with the membrane, to provide a modified fluid mixture having a lower amount of the exhaled carbon dioxide than the exhaled fluid mixture, the membrane housing directs the modified fluid mixture out of the membrane housing via a housing outlet, at least one of the plurality of hollow fibers permits a sweep fluid to pass therethough to facilitate the transport of at least a portion of the exhaled carbon dioxide into the at least one hollow fiber, and the membrane housing has at least one sweep inlet to receive the sweep fluid therethrough and at least one sweep outlet to expel the sweep fluid from the membrane housing. a membrane having a plurality of hollow fibers, wherein the membrane is at least partially impervious to the exhaled anesthetic agent to at least partially retain the exhaled anesthetic agent in the flow passage after the exhaled fluid mixture contacts the membrane, and the membrane is more pervious to the exhaled carbon dioxide than the exhaled anesthetic agent such that the membrane has an exhaled carbon dioxide-to-exhaled anesthetic agent selectivity of greater than 1; and the membrane is inert with respect to the exhaled carbon dioxide and is free of amino acids; and a membrane housing containing the membrane therein, wherein the housing is configured to receive the exhaled fluid mixture via a housing inlet, the membrane housing directs the exhaled fluid mixture into contact with the membrane, to provide a modified fluid mixture having a lower amount of the exhaled carbon dioxide than the exhaled fluid mixture, the membrane housing directs the modified fluid mixture out of the membrane housing via a housing outlet, at least one of the plurality of hollow fibers permits a sweep fluid to pass therethough to facilitate the transport of at least a portion of the exhaled carbon dioxide into the at least one hollow fiber, and the membrane housing has at least one sweep inlet to receive the sweep fluid therethrough and at least one sweep outlet to expel the sweep fluid from the membrane housing.
A method for operating a mobile entity in a cellular network, comprising at the mobile entity: - determining that the mobile entity of the cellular network has become mobile within the cellular network, - transmitting an indication to a radio access network of the cellular network indicating that the mobile entity has become mobile, wherein transmitting the indication comprises transmitting a tracking area update request to a radio access network node indicating that a control plane signaling entity towards the mobile entity should be transferred from a currently used network entity to another network entity of the cellular network even when the mobile entity remains in the same tracking area, wherein the mobile entity determines that is has become mobile when the currently used control plane signaling entity is a local network entity that is only used for mobile entities as long as they are stationary. - determining that the mobile entity of the cellular network has become mobile within the cellular network, - transmitting an indication to a radio access network of the cellular network indicating that the mobile entity has become mobile, wherein transmitting the indication comprises transmitting a tracking area update request to a radio access network node indicating that a control plane signaling entity towards the mobile entity should be transferred from a currently used network entity to another network entity of the cellular network even when the mobile entity remains in the same tracking area,
An uncoupling mat comprising a flexible plastic layer made of a film-like plastic with structuring that defines indentations provided with undercuts on the first side and cavities positioned between the indentations on the opposite second side, and a fleece or fabric securely connected to the second side and covering the cavities, characterised in that the plastic layer is provided with a plurality of weakening zones which each extend between two rows of indentations in a straight line and continuously between opposite side edges of the plastic layer and by which the plastic layer is structurally given an additional possibility of movement essentially transversely to the direction in which the weakening zones extend.
A system comprising: an imaging system; and a computing system to: operate the imaging system to acquire a two-dimensional radiograph of a patient; input the radiograph to a trained machine learning model to generate a classification, wherein the model is trained based on a plurality of radiographs and a classification corresponding to each radiograph, wherein the classification corresponding to a radiograph is determined based on a computed tomography volume generated contemporaneously to the radiograph; if the classification indicates that the patient does not have a first condition, operate the imaging system to perform a computed tomography scan of the patient based on the two-dimensional radiograph, wherein the first condition is pregnancy; and if the classification indicates that the patient has the first condition, determine to modify the computed tomography scan, including at least one of: aborting the computed tomography scan of the patient, shielding a fetus and/or reducing radiation delivered to reproductive organs of the patient. an imaging system; and a computing system to: operate the imaging system to acquire a two-dimensional radiograph of a patient; input the radiograph to a trained machine learning model to generate a classification, wherein the model is trained based on a plurality of radiographs and a classification corresponding to each radiograph, wherein the classification corresponding to a radiograph is determined based on a computed tomography volume generated contemporaneously to the radiograph; if the classification indicates that the patient does not have a first condition, operate the imaging system to perform a computed tomography scan of the patient based on the two-dimensional radiograph, wherein the first condition is pregnancy; and if the classification indicates that the patient has the first condition, determine to modify the computed tomography scan, including at least one of: aborting the computed tomography scan of the patient, shielding a fetus and/or reducing radiation delivered to reproductive organs of the patient. operate the imaging system to acquire a two-dimensional radiograph of a patient; input the radiograph to a trained machine learning model to generate a classification, wherein the model is trained based on a plurality of radiographs and a classification corresponding to each radiograph, wherein the classification corresponding to a radiograph is determined based on a computed tomography volume generated contemporaneously to the radiograph; if the classification indicates that the patient does not have a first condition, operate the imaging system to perform a computed tomography scan of the patient based on the two-dimensional radiograph, wherein the first condition is pregnancy; and if the classification indicates that the patient has the first condition, determine to modify the computed tomography scan, including at least one of: aborting the computed tomography scan of the patient, shielding a fetus and/or reducing radiation delivered to reproductive organs of the patient.
Sensor element for detecting at least one property of a fluid medium, comprising at least one housing, wherein the housing forms at least one flow duct through which the fluid medium can flow, wherein a pressure tap branches off from the flow duct, wherein at least one pressure sensor for sensing a pressure of the fluid medium is arranged in the pressure tap, characterized in that at least one cavity for receiving impurities in at least one wall of the pressure tap is arranged between the flow duct and the pressure sensor, wherein the pressure tap has a bore hole which branches off from the flow duct, and the cavity is embodied as an annular recess in a wall of the bore hole.
Method for identifying separate audio objects in a captured sound field, the method comprising: - generating electrical signals in response to sound in the captured sound field; and - extracting spatial angle and diffusivity information from the electrical signals; characterised in that it further comprises: - mapping the spatial angle and diffusivity information onto the form of a Riemann sphere, wherein spatial angle varies longitudinally and diffusivity varies latitudinally along the sphere; --determining a distance between two observations in the mapped information; and - based on the distance, deciding whether the observations relate to the same audio object. - generating electrical signals in response to sound in the captured sound field; and - extracting spatial angle and diffusivity information from the electrical signals; - mapping the spatial angle and diffusivity information onto the form of a Riemann sphere, wherein spatial angle varies longitudinally and diffusivity varies latitudinally along the sphere; --determining a distance between two observations in the mapped information; and - based on the distance, deciding whether the observations relate to the same audio object. --determining a distance between two observations in the mapped information; and - based on the distance, deciding whether the observations relate to the same audio object.
A pipeline for supplying a gas to an internal combustion engine, with a pipeline cross section forming a passage for the gas and a gas measuring device for measuring a gas mass flow, wherein the pipeline comprises a mixing element made from a wire structure upstream from the gas measuring device and in that the mixing element serves for influencing, preferably for the thorough mixing of, the gas in order to homogenize an inhomogeneous flow profile which is present upstream from the mixing element, characterized in that the wire structure comprises a rolled-up band of wire mesh or wire weave to form the mixing element and/or a wire mesh tube is pressed flat into a band and the band is rolled up to form the mixing element.