mhurhangee/ep-ind-claims huggingface dataset:
An oral cleaning device comprising: a head portion that supports cleaning elements; a handle portion extending from said head portion; a radio frequency energy, RF, generator disposed in said handle portion, connected to electrodes (13, 14) located on said head portion; and a non-conductive barrier located on said head portion that separates said electrodes (13, 14) from each other, characterised in that said cleaning elements are located between said non-conductive barrier and each of said electrodes (13, 14). a head portion that supports cleaning elements; a handle portion extending from said head portion; a radio frequency energy, RF, generator disposed in said handle portion, connected to electrodes (13, 14) located on said head portion; and a non-conductive barrier located on said head portion that separates said electrodes (13, 14) from each other, characterised in that said cleaning elements are located between said non-conductive barrier and each of said electrodes (13, 14).
A positioning system for determining location information for a mobile radio transmitter, the system comprising: an antenna system comprising a plurality of antennas aimed at different directions (v1, v2, v3, v4, v5, v6, v7, v8) and arranged on one common antenna carrier; a receiver system electrically connected to the antennas and configured to receive via each of the antennas a radio signal transmitted by the mobile radio transmitter; and a processing circuit electrically connected to the receiver system and configured to calculate the location information for the mobile radio transmitter based on the radio signal received at each of the antennas, the location information including at least angular direction ( φ) of the mobile radio transmitter with respect to the antenna system; wherein the receiver system is configured to determine received signal strengths of the radio signal received at each of the antennas characterized in that the receiver system is configured to extract from the radio signal orientation data which indicates a current spatial orientation of the mobile radio transmitter; and the processing circuit is configured to calculate and include in the location information a distance of the mobile radio transmitter from the antenna system using the received signal strengths of the radio signal received at each of the antennas, the current spatial orientation of the mobile radio transmitter, and radio transmission characteristics of the mobile radio transmitter. an antenna system comprising a plurality of antennas aimed at different directions (v1, v2, v3, v4, v5, v6, v7, v8) and arranged on one common antenna carrier; a receiver system electrically connected to the antennas and configured to receive via each of the antennas a radio signal transmitted by the mobile radio transmitter; and a processing circuit electrically connected to the receiver system and configured to calculate the location information for the mobile radio transmitter based on the radio signal received at each of the antennas, the location information including at least angular direction ( φ) of the mobile radio transmitter with respect to the antenna system; wherein the receiver system is configured to determine received signal strengths of the radio signal received at each of the antennas characterized in that the receiver system is configured to extract from the radio signal orientation data which indicates a current spatial orientation of the mobile radio transmitter; and the processing circuit is configured to calculate and include in the location information a distance of the mobile radio transmitter from the antenna system using the received signal strengths of the radio signal received at each of the antennas, the current spatial orientation of the mobile radio transmitter, and radio transmission characteristics of the mobile radio transmitter.
Turbine exhaust structure comprising: - a casing divided into a first element and a second element, the second element being connected to the first element, - at least one connecting pipe (37, 38) configured to be connected to a second pipe (39, 40), the second element comprising at least one outlet (41, 42), the connecting pipe (37, 38) being provided with a first end, having a first section, and a second end, having a second section, the outlet (41, 42) of the second element being connected to the first end of the connecting pipe (37, 38), the second end of the connecting pipe (37, 38) being configured to be connected to the second pipe (39, 40), wherein no pipe is connected to the first element, the casing has a central aperture, wherein the central aperture extends from a first face to a second opposite face of the casing, characterised in that the section of a first face central aperture being larger than the section of a second opposite face central aperture. - a casing divided into a first element and a second element, the second element being connected to the first element, - at least one connecting pipe (37, 38) configured to be connected to a second pipe (39, 40),
Method for improving the estimation of symbols of a modulated signal and the reliability of the estimate, the signal comprising one or more data blocks, comprising at least the following steps which are carried out in a processor: • a step of calculating flexible estimates of the signal which calculates the estimated symbols μ m τ s and their reliabilities γ m τ s using at the input probability distributions which are obtained by standardising the calculated Gaussian likelihoods using the estimated symbols x ^ τ s = x ^ 0 τ s ⋯ x ^ m τ s ⋯ x ^ M − 1 τ s of the current data block and their reliability σ ν 2 τ s, the estimated symbols μ m τ s of the block being characterised by a measurement of mean reliability γ ( τ,s), • a step of Gaussian division of the estimated signal μ ( τ,s) = μ 0 τ s ⋯ μ m τ s ⋯ μ M − 1 τ s by the estimated signal x̂ ( τ,s) in order to generate a flexible estimate of the signal transmitted x ̅ ′ m τ, s + 1 and a mean extrinsic variance (reliability) v ' ( τ,s +1) with: x ̅ ′ m τ, s + 1 = μ m τ s σ ν 2 τ s − x ^ m τ s γ ̅ τ s σ ν 2 τ s − γ ̅ τ s, m = 0,..., M − 1 v ̅ ′ τ, s + 1 = σ ν 2 τ s γ ̅ τ s σ ν 2 τ s − γ ̅ τ s, • an adaptive smoothing step on the signal estimated by the Gaussian division and on the measurements of reliabilities in order to provide an estimate x ( τ,s +1) of the signal transmitted and an associated reliability measurement v ( τ,s +1). • a step of calculating flexible estimates of the signal which calculates the estimated symbols μ m τ s and their reliabilities γ m τ s using at the input probability distributions which are obtained by standardising the calculated Gaussian likelihoods using the estimated symbols x ^ τ s = x ^ 0 τ s ⋯ x ^ m τ s ⋯ x ^ M − 1 τ s of the current data block and their reliability σ ν 2 τ s, the estimated symbols μ m τ s of the block being characterised by a measurement of mean reliability γ ( τ,s), • a step of Gaussian division of the estimated signal μ ( τ,s) = μ 0 τ s ⋯ μ m τ s ⋯ μ M − 1 τ s by the estimated signal x̂ ( τ,s) in order to generate a flexible estimate of the signal transmitted x ̅ ′ m τ, s + 1 and a mean extrinsic variance (reliability) v ' ( τ,s +1) with: x ̅ ′ m τ, s + 1 = μ m τ s σ ν 2 τ s − x ^ m τ s γ ̅ τ s σ ν 2 τ s − γ ̅ τ s, m = 0,..., M − 1 v ̅ ′ τ, s + 1 = σ ν 2 τ s γ ̅ τ s σ ν 2 τ s − γ ̅ τ s, • an adaptive smoothing step on the signal estimated by the Gaussian division and on the measurements of reliabilities in order to provide an estimate x ( τ,s +1) of the signal transmitted and an associated reliability measurement v ( τ,s +1).
A method of manufacturing a permanent magnet for a rotating electrical machine from a plurality of magnet pieces formed by being fractured and split along a notch groove, the method being carried out with the plurality of magnet pieces arranged in a fixing jig with the fractured surfaces opposing each other and an adhesive interposed between fractured surfaces, the method comprising: a first pressing step of aligning the plurality of magnet pieces in a width direction by pressing from the width direction of the plurality of magnet pieces aligned to form the permanent magnet; a second pressing step of aligning the plurality of magnet pieces in a thickness direction by pressing from the thickness direction of the aligned plurality of magnet pieces after the first pressing step; and a third pressing step of pressing the plurality of magnet pieces aligned in the first and second pressing steps by pressing the aligned plurality of magnets pieces in a longitudinal direction from the longitudinal direction of the aligned plurality of magnet pieces and joining the opposing fractured surfaces of the plurality of magnet pieces with the interposed adhesive. a first pressing step of aligning the plurality of magnet pieces in a width direction by pressing from the width direction of the plurality of magnet pieces aligned to form the permanent magnet; a second pressing step of aligning the plurality of magnet pieces in a thickness direction by pressing from the thickness direction of the aligned plurality of magnet pieces after the first pressing step; and a third pressing step of pressing the plurality of magnet pieces aligned in the first and second pressing steps by pressing the aligned plurality of magnets pieces in a longitudinal direction from the longitudinal direction of the aligned plurality of magnet pieces and joining the opposing fractured surfaces of the plurality of magnet pieces with the interposed adhesive.
A strut comprising an elongated beam portion and at least one connecting end portion, wherein the elongated beam portion is a tubular structure having an external circumference, and the connecting end portion is integral with the elongated beam portion and is comprised of a folded and flattened end portion of the tubular structure, in which diametrically opposite inward fold lines meet between flattened parts (3a, 3b) of the end portion of the tubular structure, so that the resulting connecting end portion comprises four material layers, characterised in that the end portion of the tubular structure has been cold-formed by pre-expansion of the end portion of the tubular structure prior to being folded and flattened.
Equipment for the support of biomedical devices comprising: - at least one basic element associable with at least one carrying device of a patient and provided with anchoring means of at least one biomedical device (O, C); - attachment means of said basic element to said carrying device; characterized by - at least one pair of sustaining elements to sustain the legs of the patient, wherein said sustaining elements are associated on mutually opposite sides with said basic element. - at least one basic element associable with at least one carrying device of a patient and provided with anchoring means of at least one biomedical device (O, C); - attachment means of said basic element to said carrying device; characterized by - at least one pair of sustaining elements to sustain the legs of the patient, wherein said sustaining elements are associated on mutually opposite sides with said basic element.
Implant for tissue engineering, comprising a porous matrix with cells of Islets of Langerhans and hepatocytes, the matrix comprising a first biodegradable and biocompatible polymer component forming a three-dimensional primary structure with primary pores, and further comprising a second biodegradable and biocompatible polymer component other than the first polymer component selected from the group consisting of collagens, laminin, fibronectin and mixtures thereof, wherein the second polymer component forms a three-dimensional secondary structure which is contained within the interior space of at least a part of the primary pores, wherein the ratio of hepatocytes to cells of Islets of Langerhans is about 1 × 10 6 hepatocytes to 20'000-500'000 cells of Islets of Langerhans.
A link adaptation method for a wireless telecommunications system comprising at least one first pair of terminals formed by a first transmitting terminal and a first receiving terminal and a second pair of terminals formed by a second transmitting terminal and a second receiving terminal, a first communication on a first link between the terminals of the first pair using the same transmission resources as a second communication on a second link between the terminals of the second pair, such that the two communications interfere with each other, characterized in that, for the first communication: - a first interference regime is selected for the first communication from among a weak regime, in which the first receiving terminal processes the interference due to the second communication as thermal noise, and a strong regime, in which it decodes the information signal of the second communication to subtract its contribution to the received signal therefrom; - a modulation and coding scheme is determined for the second link allowing the first communication to operate in the interference regime thus selected; - a modulation and coding scheme is determined for the first link maximizing the spectral efficiency without that link being in an outage situation. - a first interference regime is selected for the first communication from among a weak regime, in which the first receiving terminal processes the interference due to the second communication as thermal noise, and a strong regime, in which it decodes the information signal of the second communication to subtract its contribution to the received signal therefrom; - a modulation and coding scheme is determined for the second link allowing the first communication to operate in the interference regime thus selected; - a modulation and coding scheme is determined for the first link maximizing the spectral efficiency without that link being in an outage situation.
A modular green roof building element adapted to contain a growing medium, the modular green roof building element having peripheral walls (2,3,4,5) and sub dividing walls so as to define cells for retaining the growing medium and a floor comprising a membrane which is water permeable, but impermeable to particles of the growing medium; the modular green roof building element characterised by comprising spacers for spacing the floor of the modular green roof building element from a roof or mounting means for attaching such spacers such that in use rainwater can flow from the top to the bottom of the cells and drain out through the water permeable floor.
A three-dimensional data encoding method, comprising: classifying three-dimensional points included in point cloud data into Level of Detail, LoD, layers, based on geometry information of the three-dimensional points; characterized by the three-dimensional data encoding method comprising: generating first information indicating whether or not a reference to attribute information of another three-dimensional point belonging to a same LoD layer as a current three-dimensional point is permitted; and encoding attribute information of the current three-dimensional point to generate a bitstream, by or without referring to the attribute information of the other three-dimensional point according to the first information, wherein the bitstream includes the first information. classifying three-dimensional points included in point cloud data into Level of Detail, LoD, layers, based on geometry information of the three-dimensional points; characterized by the three-dimensional data encoding method comprising: generating first information indicating whether or not a reference to attribute information of another three-dimensional point belonging to a same LoD layer as a current three-dimensional point is permitted; and encoding attribute information of the current three-dimensional point to generate a bitstream, by or without referring to the attribute information of the other three-dimensional point according to the first information, wherein the bitstream includes the first information. generating first information indicating whether or not a reference to attribute information of another three-dimensional point belonging to a same LoD layer as a current three-dimensional point is permitted; and encoding attribute information of the current three-dimensional point to generate a bitstream, by or without referring to the attribute information of the other three-dimensional point according to the first information, wherein the bitstream includes the first information.
A display device for a vehicle interior, the display device comprising: a matrix of color controllable light emitting units covered by an at least partly transparent cover; and a back-cover for mechanically supporting the matrix of color controllable light emitting units, and for covering the side of the matrix of color controllable light emitting units opposite the side of the transparent cover, whereby the matrix of color controllable light emitting units is interleaved between the at least partly transparent cover and the back-cover, characterized in that the back-cover is a cross-car beam of the vehicle. a matrix of color controllable light emitting units covered by an at least partly transparent cover; and a back-cover for mechanically supporting the matrix of color controllable light emitting units, and for covering the side of the matrix of color controllable light emitting units opposite the side of the transparent cover, whereby the matrix of color controllable light emitting units is interleaved between the at least partly transparent cover and the back-cover, characterized in that the back-cover is a cross-car beam of the vehicle.
Process for equalizing a signal received in a receiver of a Terminal Equipment in a wireless communication system, said process comprises the steps of: - receiving a signal r - applying an initialization step S^ = P 0 r, where P 0 is a first preconditioning matrix defined as a function of the propagation channel matrix H and the noise variance σ v 2, - applying an iterative algorithm based on a sequence of varying preconditionners in accordance with the following formula: s ^ MMSE ≈ ∑ k = 1 K − 1 ∏ j = 1 k I − P j H + I P 0 r based on a sequence of preconditioning matrices P j, each matrix depending on H, the variance of the noise, and the precedent matrices P j within said sequence, with ŝ MMSE | being the Minimum Mean Square Error - MMSE - estimation of the signal sequence - receiving a signal r - applying an initialization step S^ = P 0 r, where P 0 is a first preconditioning matrix defined as a function of the propagation channel matrix H and the noise variance σ v 2, - applying an iterative algorithm based on a sequence of varying preconditionners in accordance with the following formula: s ^ MMSE ≈ ∑ k = 1 K − 1 ∏ j = 1 k I − P j H + I P 0 r based on a sequence of preconditioning matrices P j, each matrix depending on H, the variance of the noise, and the precedent matrices P j within said sequence, with ŝ MMSE | being the Minimum Mean Square Error - MMSE - estimation of the signal sequence
A compound selected from the group consisting of: or a pharmaceutically acceptable salt or solvate thereof; and or a pharmaceutically acceptable salt or solvate thereof.
A decoding method, comprising: determining, by a receive end, to-be-decoded information, and polar decoding and de-interleaving the to-be-decoded information based on a first interleaving sequence, to obtain a decoded bit sequence, wherein the decoded bit sequence comprises L cyclic redundancy check, CRC, bits and A information bits, wherein the first interleaving sequence comprises indexes which are obtained by subtracting K max -A from all indexes greater than or equal to K max - A extracted from a maximum-length interleaving sequence, wherein a length of the first interleaving sequence is equal to A + L, and a length of the maximum-length interleaving sequence is equal to K max + L; and A is an information bit quantity, L is a CRC bit quantity, wherein K max is a maximum information bit quantity corresponding to the maximum-length interleaving sequence, A ≤ K max.
An integrated circuit apparatus, comprising: a semiconductor substrate having opposed first and second major sides and one or more edges defining an outer periphery of the substrate; one or more transducers situated on the first major side of the substrate; and wherein the substrate comprises an integrated circuit containing electronics to drive the one or more transducers, characterised by an attenuation pattern formed in one or more of the edges of the substrate. a semiconductor substrate having opposed first and second major sides and one or more edges defining an outer periphery of the substrate; one or more transducers situated on the first major side of the substrate; and
Luminaire comprising: at least one LED module, a housing enclosing the LED module, a heat sink being in thermal contact with the LED module, wherein the housing comprises as optical housing areas: • a reflection area opposite to and facing the LED module, • a first light emitting area for emitting direct light of the LED module, and • a second light emitting area for emitting light of the LED module being reflected by the reflection area, wherein the second light emitting area is opposite to the reflection area, characterized by an optical element being associated with the LED module to optically control the light inside the housing before reaching the respective optical housing areas, and wherein the optical element comprises retaining elements for retaining the LED module onto the heat sink. at least one LED module, a housing enclosing the LED module, a heat sink being in thermal contact with the LED module, wherein the housing comprises as optical housing areas: • a reflection area opposite to and facing the LED module, • a first light emitting area for emitting direct light of the LED module, and • a second light emitting area for emitting light of the LED module being reflected by the reflection area, wherein the second light emitting area is opposite to the reflection area, • a reflection area opposite to and facing the LED module, • a first light emitting area for emitting direct light of the LED module, and • a second light emitting area for emitting light of the LED module being reflected by the reflection area, wherein the second light emitting area is opposite to the reflection area, characterized by an optical element being associated with the LED module to optically control the light inside the housing before reaching the respective optical housing areas, and wherein the optical element comprises retaining elements for retaining the LED module onto the heat sink.
A process for preparing a compound of formula XVII: comprising reacting a compound of formula XI-a or a salt thereof, with 1,1'-carbonyldiimidazole to obtain the compound of formula XVII, wherein R 1 is a 2-methylpropan-oxy ("isobutoxy") group or a group that can be converted into an isobutoxy group, selected from a hydroxyl group, a halogen, a mesylate or triflate group, or a silyl ether.
A high performance single control lever cold water and hot water mixing cartridge of circular shape, said mixing cartridge comprising a holding body housing at least a bottom fixed plate and at least a top movable plate, with an indirect driving system including a driving member for driving said top movable plate, characterized in that said holding body includes side windows allowing the top movable plate and driving member to exit said holding body, as said driving member is driven by said control lever from an all hot water to an all cold water position of said driving member and said movable plate; and in that the top movable plate comprises a substantially triangular contour with convex sides and two side outlets or lugs.