mhurhangee/ep-ind-claims huggingface dataset:
An apparatus comprising: a coupled inductor receiving a single-ended input signal (Vin), performing single-ended to differential conversion, and providing a differential input signal (Vinp, Vinn), the coupled inductor comprising a first coil and a second coil, the first coil being magnetically coupled with the second coil, the first coil receiving the single-ended input signal and providing a first input signal to the LNA, the second coil providing a second input signal to the LNA, and the differential input signal comprising the first and second input signals; a low noise amplifier, LNA, coupled to the coupled inductor and receiving the differential input signal and providing a differential output signal (Ioutn, Ioutp); a first capacitor and a first switch coupled in series and further in parallel with the first coil, the first capacitor and the first coil forming a first resonant circuit when the first switch is closed; and a second capacitor and a second switch coupled in series and further in parallel with the second coil, the second capacitor and the second coil forming a second resonant circuit when the second switch is closed. a coupled inductor receiving a single-ended input signal (Vin), performing single-ended to differential conversion, and providing a differential input signal (Vinp, Vinn), the coupled inductor comprising a first coil and a second coil, the first coil being magnetically coupled with the second coil, the first coil receiving the single-ended input signal and providing a first input signal to the LNA, the second coil providing a second input signal to the LNA, and the differential input signal comprising the first and second input signals; a low noise amplifier, LNA, coupled to the coupled inductor and receiving the differential input signal and providing a differential output signal (Ioutn, Ioutp); a first capacitor and a first switch coupled in series and further in parallel with the first coil, the first capacitor and the first coil forming a first resonant circuit when the first switch is closed; and a second capacitor and a second switch coupled in series and further in parallel with the second coil, the second capacitor and the second coil forming a second resonant circuit when the second switch is closed.
A method for producing an organic solvent dispersion of zirconium oxide particles in a content of 20% by weight or more in an organic solvent except methanol and ethanol, wherein the zirconium oxide particles in the organic solvent have a D50 in a range of 1 to 20 nm, and wherein the organic solvent dispersion has a transmittance of 10% or more at a wavelength of 400 nm and a transmittance of 80% or more at a wavelength of 800 nm, a viscosity of 10 mPa-s or less at a temperature of 25°C immediately after production while the increase in the viscosity is 10 mPa-s or less seven days after production as compared to that of the dispersion immediately after production, the method comprising: a surface treating process for surface treating an alcohol dispersion of zirconium oxide particles in at least one alcohol solvent selected from methanol and ethanol with a surface treating agent comprising a silane coupling agent and 12-hydroxystearic acid thereby surface treating the zirconium oxide particles; and a solvent replacing process for replacing the alcohol solvent that is a dispersion medium of the alcohol dispersion of zirconium oxide particles with the organic solvent except methanol and ethanol, wherein the silane coupling agent has the general formula n -Si-X 4-n wherein R is an alkyl group having carbon atoms of 1-4, n is 2 or 3, X is an alkyl, a fluoroalkyl, a vinyl or a (meth)acryloyloxyalkyl group; and wherein the zirconium oxide particles are surface-treated with the silane coupling agent in an amount of 1-100 parts by weight and 12-hydroxystearic acid in an amount of 1-20 parts by weight each in relation to 100 parts by weight of particles of zirconium oxide. a surface treating process for surface treating an alcohol dispersion of zirconium oxide particles in at least one alcohol solvent selected from methanol and ethanol with a surface treating agent comprising a silane coupling agent and 12-hydroxystearic acid thereby surface treating the zirconium oxide particles; and a solvent replacing process for replacing the alcohol solvent that is a dispersion medium of the alcohol dispersion of zirconium oxide particles with the organic solvent except methanol and ethanol, wherein the silane coupling agent has the general formula n -Si-X 4-n wherein R is an alkyl group having carbon atoms of 1-4, n is 2 or 3, X is an alkyl, a fluoroalkyl, a vinyl or a (meth)acryloyloxyalkyl group; and wherein the zirconium oxide particles are surface-treated with the silane coupling agent in an amount of 1-100 parts by weight and 12-hydroxystearic acid in an amount of 1-20 parts by weight each in relation to 100 parts by weight of particles of zirconium oxide.
A resin powder for three-dimensional molding, the resin powder comprising ethylene-propylene copolymer particles, wherein: the volume average particle size of the ethylene-propylene copolymer particles is within a range of 5 to 200 μm, as determined in accordance with the method disclosed in the description, the ethylene content molar ratio (ethylene/(ethylene + propylene)) in the ethylene-propylene copolymer particles is within a range of 0.005 to 0.035, as determined in accordance with the method disclosed in the description, the melt flow rate of the resin powder is within a range of 3 to 40 g/10 min at 230°C and under a load of 2.16 kg, as determined in accordance with JIS K 7210, A, and the number of particles having an average particle size 0.15 times the number average particle size (Mn) of the ethylene-propylene copolymer particles is equal to or more than the number of the particles having the number average particle size (Mn), as determined in accordance with the method disclosed in the description. the volume average particle size of the ethylene-propylene copolymer particles is within a range of 5 to 200 μm, as determined in accordance with the method disclosed in the description, the ethylene content molar ratio (ethylene/(ethylene + propylene)) in the ethylene-propylene copolymer particles is within a range of 0.005 to 0.035, as determined in accordance with the method disclosed in the description, the melt flow rate of the resin powder is within a range of 3 to 40 g/10 min at 230°C and under a load of 2.16 kg, as determined in accordance with JIS K 7210, A, and the number of particles having an average particle size 0.15 times the number average particle size (Mn) of the ethylene-propylene copolymer particles is equal to or more than the number of the particles having the number average particle size (Mn), as determined in accordance with the method disclosed in the description.
A biosensor microarray comprising: (i) a solid support substrate surface comprising a plurality of nanowells; (ii) a plurality of capture moieties linked to the solid support substrate surface; (iii) a plurality of detector polypeptides or detector peptides specifically bound by the capture moieties and provided by an array of isolated in vitro translation reactions in sealed nanowells; and (iv) a plurality of sensors; wherein each sensor in the plurality of sensors is in direct contact or in proximity to a capture moiety in the plurality of capture moieties, and wherein the biosensor microarray is substantially free of in vitro translation contaminants. (i) a solid support substrate surface comprising a plurality of nanowells; (ii) a plurality of capture moieties linked to the solid support substrate surface; (iii) a plurality of detector polypeptides or detector peptides specifically bound by the capture moieties and provided by an array of isolated in vitro translation reactions in sealed nanowells; and (iv) a plurality of sensors;
A data storage medium for a security document with a laser-marked or laser-markable colored security feature, comprising a lamination body formed by a plurality of substrate layers (1, 21 -24), one of which comprises a color pattern composed of differently colored pattern elements (4-1, 4-x) formed next to one another, in the basic colors of a color system, in which the color pattern is formed inside the lamination body, characterized in that brightening additives are additionally incorporated into the lamination body which can cause a local brightening and/or whitening inside the lamination body on local interaction with laser light in the material to which the brightening additives are added, wherein a brightening or whitening inside a lamination body denotes an area which causes an increased reflection of light over a broad wavelength range.
An infrastructure equipment for forming part of a mobile radio network, the infrastructure equipment including a transmit and receive unit, which is arranged in operation to transmit and receive data to and from mobile communications devices via a wireless access interface, and a controller for processing requests for communications resources from the mobile communications devices, wherein a plurality of associated communications devices are arranged to form a group, and each of the associated communications devices of the group includes the same common identifier, with respect to which communications sessions can be established to communicate data via the mobile radio network, and the controller is arranged in combination with the transmit and receive unit to respond to a request from one of the communications devices of the group to establish a communications bearer using the common identifier and the controller in combination with the transmitter and receiver unit are further characterized by being arranged in operation to provide each of the communications devices within the group of associated communications devices with one of a set of predefined sequences of data for use in forming a random access burst (90, 92) for transmission in a random access channel (100, 104) of the wireless access interface, the set of predefined sequences being uniquely associated with the group, and to transmit a signalling message in response to a random access burst (90, 92), using the unique data sequence which was used to form the random access burst (90, 92) received from a communications device, the random access burst of signals received from one of the communications devices including data representing a request for uplink resources and in response to the transmitted burst, and the controller is configured to communicate a grant of uplink resources to the communications device, which is identified using the same predefined sequence allocated to the communications device and received in the random access burst (90, 92).
A hydrophilic fraction of hypericum (Hypericum perforatum L.) flowering stems extracts containing hypericin or hypericin for use in the treatment of neuropathic pain by oral administration, wherein neuropathic pain is defined as a pain initiated or caused by a primary lesion or dysfunction in the nervous system caused by chemotherapy drugs, mononeuropathy or osteoarthritis.
Method of processing sound data comprising a) receiving sound data (302, 304), which sound data is provided in separate streams, each stream having sound from a performance of one specific artist recorded by one single microphone as well as specific position data at which said microphone acquired said sound; b) determining virtual sound source positions, one for each artist, wherein said virtual sound source positions are defined by said specific position data provided with said sound data; c) determining a relative listener position with respect to said virtual sound source positions, by means of a listener transponder; d) identifying a listener by means of said listener transponder; e) providing a user interface indicating said virtual sound source positions and said listener position and relative positions of said virtual sound source positions and said listener to one another; f) receiving user input on changing said relative positions of said virtual sound source positions and said listener to one another, wherein said user providing said user input is said listener; g) processing said sound data based on said identifying said listener for reproduction by at least two speakers to let said identified listener perceive said processed sound data reproduced by said at least two speakers to originate from said virtual sound source positions. a) receiving sound data (302, 304), which sound data is provided in separate streams, each stream having sound from a performance of one specific artist recorded by one single microphone as well as specific position data at which said microphone acquired said sound; b) determining virtual sound source positions, one for each artist, wherein said virtual sound source positions are defined by said specific position data provided with said sound data; c) determining a relative listener position with respect to said virtual sound source positions, by means of a listener transponder; d) identifying a listener by means of said listener transponder; e) providing a user interface indicating said virtual sound source positions and said listener position and relative positions of said virtual sound source positions and said listener to one another; f) receiving user input on changing said relative positions of said virtual sound source positions and said listener to one another, wherein said user providing said user input is said listener; g) processing said sound data based on said identifying said listener for reproduction by at least two speakers to let said identified listener perceive said processed sound data reproduced by said at least two speakers to originate from said virtual sound source positions.
A fiber optic interface module configured to provide optical communication of infrared light between a light source and an optical fiber having an end and a core, comprising: a module body that is substantially transparent to light having an infrared wavelength and that includes a top surface and a bottom surface, wherein the top surface defines a total-internal-reflection mirror, an end wall, and an optical fiber support feature that supports the optical fiber with the optical fiber end abutting the end wall, wherein the optical fiber support feature is a groove; a lens surface formed on the bottom surface of the module body, wherein the lens surface, the total-internal-reflection mirror, the end wall and an intervening portion of the module body define a lens having a folded optical axis that can be laterally offset from the light source by a lateral misalignment δZ; and the lens surface having a shape that provides a theoretical coupling efficiency CE ≥ 85% between the light source and the optical fiber and that defines a back focus that falls within the optical fiber core at a back focus distance F2 in the range of 0 < F2 ≤ 500 μm when the optical fiber is operably supported in the optical fiber support feature, wherein the lens surface has a hyperbolic shape, and wherein the lens surface shape is defined by a radius R in the range of 80 microns ≤ R ≤ 300 microns. a module body that is substantially transparent to light having an infrared wavelength and that includes a top surface and a bottom surface, wherein the top surface defines a total-internal-reflection mirror, an end wall, and an optical fiber support feature that supports the optical fiber with the optical fiber end abutting the end wall, wherein the optical fiber support feature is a groove; a lens surface formed on the bottom surface of the module body, wherein the lens surface, the total-internal-reflection mirror, the end wall and an intervening portion of the module body define a lens having a folded optical axis that can be laterally offset from the light source by a lateral misalignment δZ; and the lens surface having a shape that provides a theoretical coupling efficiency CE ≥ 85% between the light source and the optical fiber and that defines a back focus that falls within the optical fiber core at a back focus distance F2 in the range of 0 < F2 ≤ 500 μm when the optical fiber is operably supported in the optical fiber support feature, wherein the lens surface has a hyperbolic shape, and wherein the lens surface shape is defined by a radius R in the range of 80 microns ≤ R ≤ 300 microns.
A fluid composition comprising from 30% to 70% by weight of anionic surfactant, from 0.5% to 25% by weight of a solvent comprising a propoxylated glycerine of formula wherein a +b +c has an average value of from 2 to 6 and wherein the propoxylated glycerine comprises from 22.2 to 46.4 wt% glycerine having a degree of propoxylation of 3 and from 25.22 to 37.3 wt% glycerine having a degree of propoxylation of 4, and water.
Spout which is produced by plastic injection moulding and is intended for bag packs, having an inner pouring channel which, at its upper end, has a pouring connector which can be closed by a cap and, at its lower end, is enclosed by a boat-shaped weld-in part which has boat-shaped ribs, wherein there are interspaces between the ribs, which are parallel to one another, and the ribs enclose the pouring channel, wherein a horizontal cover plate is formed on between the pouring connector and the weld-in part, and wherein a second plastic material, which forms an oxygen barrier, is injected along with the main plastic material, characterized in that there is at least one gate on the outer side, the plastic melt being forced in via said gate, and in that the cover plate has the pouring channel passing through it and the gate arranged on its outer edge.
Snare device for catching an object, in particular for catching objects or foreign bodies in a human or animal body, comprising a hollow element, in particular a catheter, and a snare (3, 4) of a flexible material, wherein the snare (3, 4) is movable relative to the hollow element and can be pulled into the hollow element and pushed out of it, and wherein the snare (3, 4) has an impressed original shape to which said snare (3, 4) returns, when pushed out from the hollow element, as a result of the material stresses caused when it was pulled in, wherein the original shape of the snare (3, 4) has a twisted area, as a result of which a first loop and a second loop are formed, wherein the first loop is arranged substantially parallel to the longitudinal axis of the hollow element, and the second loop is at an angle with respect to the longitudinal axis of the hollow element, characterized in that the snare (3, 4) is introduced such deformed into the hollow element and is arranged inside the hollow element, that the second loop is pivoted relative to the first loop and through the first loop, such that the second loop, on emerging from the hollow element, pivots back through the first loop as a result of the load being removed from the shape-memory material, thereby allowing the object to be enclosed.
One or more non-transitory, computer-readable media having instructions that, when executed by one or more processors, cause a user equipment, UE, to: determine one or more beam pair links, BPLs (231, 230), wherein respective ones of the BPLs (231, 230) include a transmit, Tx, beam (210, 211) of an access node and a receive, Rx, beam (220, 221) of the UE; decode a Reference Signal, RS, received from the access node, the reference signal related to radio link monitoring, RLM; determine, at least partially based on the RS, beam quality for the one or more BPLs (231, 230); determine that the beam quality for the one or more BPLs (231, 230) is below a first threshold; in response to determining that the beam quality for the one or more BPLs (231, 230) is below the first threshold, encode a beam recovery request for transmission to the access node; decode a Channel State Information Reference Signal, CSI-RS, received from the access node in response to transmitting the beam recovery request; determine, at least partially based on the CSI-RS beam quality for one or more Rx beams; determine that the beam quality for the one or more Rx beams is below the first threshold; in response to determining that the beam quality for the one or more Rx beams is below the first threshold, identify an occurrence of out-of-sync; determine that a number of consecutive out-of-syncs has reached a predetermined or configured number; and in response to determining that the number of consecutive out-of-syncs has reached the predetermined or configured number, determine occurrence of radio link failure, RLF. determine one or more beam pair links, BPLs (231, 230), wherein respective ones of the BPLs (231, 230) include a transmit, Tx, beam (210, 211) of an access node and a receive, Rx, beam (220, 221) of the UE; decode a Reference Signal, RS, received from the access node, the reference signal related to radio link monitoring, RLM; determine, at least partially based on the RS, beam quality for the one or more BPLs (231, 230); determine that the beam quality for the one or more BPLs (231, 230) is below a first threshold; in response to determining that the beam quality for the one or more BPLs (231, 230) is below the first threshold, encode a beam recovery request for transmission to the access node; decode a Channel State Information Reference Signal, CSI-RS, received from the access node in response to transmitting the beam recovery request; determine, at least partially based on the CSI-RS beam quality for one or more Rx beams; determine that the beam quality for the one or more Rx beams is below the first threshold; in response to determining that the beam quality for the one or more Rx beams is below the first threshold, identify an occurrence of out-of-sync; determine that a number of consecutive out-of-syncs has reached a predetermined or configured number; and in response to determining that the number of consecutive out-of-syncs has reached the predetermined or configured number, determine occurrence of radio link failure, RLF.
A masterbatch composition comprising glass bubbles dispersed in a blend of syndiotactic 1,2-polybutadiene and cis-1,4-polybutadiene, wherein the glass bubbles are present in an amount of at least 30 percent by weight, based on the total weight of the masterbatch composition.
A test panel for testing food sensitivity in a patient diagnosed with or suspected of having attention deficit disorder / attention deficit hyperactivity disorder (ADD/ADHD), comprising: a plurality of distinct food preparations, wherein each food preparation is independently coupled to an individually addressable solid carrier; wherein the plurality of distinct food preparations consists of cantaloupe, wheat, tomato, cucumber, squashes, almond, egg, cauliflower, pinto bean, broccoli, orange, butter, corn, lettuce, rye, peach, green pea, carrot, tea, mustard, strawberry, celery, green pepper, garlic, oat, onion, banana, eggplant, cabbage, safflower, olive, cottage cheese, grapefruit, black walnut, cow's milk, soybean, chili pepper, tobacco, malt, cinnamon, cane sugar, and potato.