mhurhangee/ep-ind-claims huggingface dataset:
A base transceiver station, node B, (102; 600) arranged to set up common Enhanced Dedicated Channel, E-DCH, resources in a cellular network, wherein the node B is arranged to - configure the common E-DCH resources comprising deciding at least one E-DCH Radio Network Transaction Identifier, E-RNTI, range for the common E-DCH resources, and - send the at least one E-RNTI range for the common E-DCH resources to a Controlling Radio Network Controller, CRNC (101; 700) so as to set up the common E-DHC resources. - configure the common E-DCH resources comprising deciding at least one E-DCH Radio Network Transaction Identifier, E-RNTI, range for the common E-DCH resources, and - send the at least one E-RNTI range for the common E-DCH resources to a Controlling Radio Network Controller, CRNC (101; 700) so as to set up the common E-DHC resources.
Device for closing an atrial appendage, particularly the left atrial appendage, comprising: - a closing element, configured to be arranged in an atrial appendage entrance and to prevent an entrance of blood into the atrial appendage and/or a leakage of thrombus out of the atrial appendage, - a first anchoring element, adjacent to the closing element and connected to the closing element, wherein the first anchoring element is configured for anchoring on the atrial appendage wall, - a connecting element, which is at least in a radial direction flexible and connected to the first anchoring element, and - a second anchoring element, which is connected to the connecting element and configured for anchoring on the atrial appendage wall, wherein the first anchoring element is disc-shaped or umbrella-shaped and extends in a radial direction, wherein the closing element is cylindrical, conical, tapered, frustoconical, cylindrically conical, cylindrically conically tapered or cylindrically frustoconical, and characterized in that the closing element extends over a length of 0,5 cm to 2,5 cm in the longitudinal direction of the device, and the diameter of the closing element is between 5 % and 20 % larger than the atrial appendage entrance, and in that the surface of the closing element facing the atrium of the heart is smooth and in the implanted state does not protrude from the atrial appendage into the atrium of the heart, and in that the connecting element is made of a tube. - a closing element, configured to be arranged in an atrial appendage entrance and to prevent an entrance of blood into the atrial appendage and/or a leakage of thrombus out of the atrial appendage, - a first anchoring element, adjacent to the closing element and connected to the closing element, wherein the first anchoring element is configured for anchoring on the atrial appendage wall, - a connecting element, which is at least in a radial direction flexible and connected to the first anchoring element, and - a second anchoring element, which is connected to the connecting element and configured for anchoring on the atrial appendage wall, wherein the first anchoring element is disc-shaped or umbrella-shaped and extends in a radial direction, wherein the closing element is cylindrical, conical, tapered, frustoconical, cylindrically conical, cylindrically conically tapered or cylindrically frustoconical, and characterized in that the closing element extends over a length of 0,5 cm to 2,5 cm in the longitudinal direction of the device, and the diameter of the closing element is between 5 % and 20 % larger than the atrial appendage entrance, and in that the surface of the closing element facing the atrium of the heart is smooth and in the implanted state does not protrude from the atrial appendage into the atrium of the heart, and in that the connecting element is made of a tube.
A breathing gas delivery pipe configured to deliver gas to a patient interface, comprising a gas delivery pipe body, which comprises an inner pipe defining a gas delivery channel therein and an outer pipe fitted outside the inner pipe, with pipe support ribs arranged between the inner pipe and the outer pipe for keeping the inner pipe and the outer pipe spaced apart from each other, so that a heat preservation space is formed between the inner pipe and the outer pipe, wherein an electric heating wire is arranged in the pipe wall of at least one of the inner pipe and the outer pipe; wherein one radial end of each of the pipe support ribs is integrally formed with the inner pipe, and the other radial end of each of the pipe support ribs is integrally formed with the outer pipe, or, wherein one radial end of each of the pipe support ribs is integrally formed with one of the inner pipe and the outer pipe, and the other radial end of each of the pipe support ribs is not integrally formed with the other of the inner pipe and the outer pipe. an electric heating wire is arranged in the pipe wall of at least one of the inner pipe and the outer pipe; wherein one radial end of each of the pipe support ribs is integrally formed with the inner pipe, and the other radial end of each of the pipe support ribs is integrally formed with the outer pipe, or, wherein one radial end of each of the pipe support ribs is integrally formed with one of the inner pipe and the outer pipe, and the other radial end of each of the pipe support ribs is not integrally formed with the other of the inner pipe and the outer pipe.
A method of separating ions according to their ion mobility using an ion mobility separation device including a first section comprising a first plurality of electrodes and a second section comprising a second plurality of electrodes, the method comprising: urging ions through the first section against a first opposing electric field using a first driving force provided by a first set of one or more time varying voltage(s) or voltage waveform(s) applied to the electrodes of the first section, the first opposing electric field increasing in magnitude along the length of the first section, such that the ions are caused to distribute along the first section at equilibrium positions determined by their mobility; progressively reducing the magnitude of the first opposing electric field and/or progressively increasing the magnitude of the first driving force over time so that ions sequentially pass from the first section into the second section in order of mobility; and driving ions through the second section against a second opposing electric field using a second drive force provided by a second set of one or more time-varying voltage(s) or voltage waveform(s) applied to the electrodes of the second section such that ions separate temporally in the second section, wherein the second opposing electric field is substantially uniform along the length of the second section, wherein the magnitude of the second opposing electric field is progressively reduced and/or the magnitude of the second driving force is progressively increased in tandem with reducing the magnitude of the first opposing electric field and/or increasing the magnitude of the first driving force. urging ions through the first section against a first opposing electric field using a first driving force provided by a first set of one or more time varying voltage(s) or voltage waveform(s) applied to the electrodes of the first section, the first opposing electric field increasing in magnitude along the length of the first section, such that the ions are caused to distribute along the first section at equilibrium positions determined by their mobility; progressively reducing the magnitude of the first opposing electric field and/or progressively increasing the magnitude of the first driving force over time so that ions sequentially pass from the first section into the second section in order of mobility; and driving ions through the second section against a second opposing electric field using a second drive force provided by a second set of one or more time-varying voltage(s) or voltage waveform(s) applied to the electrodes of the second section such that ions separate temporally in the second section, wherein the second opposing electric field is substantially uniform along the length of the second section, wherein the magnitude of the second opposing electric field is progressively reduced and/or the magnitude of the second driving force is progressively increased in tandem with reducing the magnitude of the first opposing electric field and/or increasing the magnitude of the first driving force.
A method of installing a drilling conductor for a subsea well, the method comprising: providing a suction anchor that is arranged to support the conductor within; lowering the suction anchor toward a subsea processing unit at a seabed location, the processing unit having a frame defining a base that lies on the seabed and a top spaced from the base to accommodate equipment within the processing unit; lowering the suction anchor into the processing unit through the top of the frame; embedding the suction anchor into the seabed beneath the processing unit; fixing the frame to the embedded suction anchor to form a structural unit that comprises the conductor, the suction anchor and the frame; lowering additional equipment through the top of the frame and onto the conductor that is supported by the embedded suction anchor; and closing an opening in the frame above the additional equipment on the conductor. providing a suction anchor that is arranged to support the conductor within; lowering the suction anchor toward a subsea processing unit at a seabed location, the processing unit having a frame defining a base that lies on the seabed and a top spaced from the base to accommodate equipment within the processing unit; lowering the suction anchor into the processing unit through the top of the frame; embedding the suction anchor into the seabed beneath the processing unit; fixing the frame to the embedded suction anchor to form a structural unit that comprises the conductor, the suction anchor and the frame; lowering additional equipment through the top of the frame and onto the conductor that is supported by the embedded suction anchor; and closing an opening in the frame above the additional equipment on the conductor.
A three-dimensional scanning system for generating a three-dimensional scan of an object, the 3D scanning system comprising: an illumination unit for projecting light onto the object; further comprising: an optical system which has a first aperture and a second aperture different from the first aperture; a camera unit including: a color pixel sensor array which has a first portion and a second portion, each including an array of pixels of the color pixel sensor array, wherein the first portion of the color pixel sensor array is adapted to generate a first two-dimensional color image data based on the light that has been reflected by the object and that has passed through the first aperture and has been projected onto the first portion, and wherein the second portion of the color pixel sensor array is adapted to generate second 2D color image data based on the light that has been reflected by the object, and that passed through the second aperture and has been projected onto the second portion; and at least one processor adapted to generate first and second two-dimensional color image data by scanning the illuminated object, wherein the first and second 2D color image data include pixels; generate first and second 2D monochrome image data by processing the first and second 2D color image data respectively; generate 3D data using the first and second 2D monochrome image data by performing stereo correspondence matching methods; and generate 3D color image data by combining color information obtained from at least one of the first and second 2D color image data with the 3D data. an optical system which has a first aperture and a second aperture different from the first aperture; a camera unit including: a color pixel sensor array which has a first portion and a second portion, each including an array of pixels of the color pixel sensor array, wherein the first portion of the color pixel sensor array is adapted to generate a first two-dimensional color image data based on the light that has been reflected by the object and that has passed through the first aperture and has been projected onto the first portion, and wherein the second portion of the color pixel sensor array is adapted to generate second 2D color image data based on the light that has been reflected by the object, and that passed through the second aperture and has been projected onto the second portion; and at least one processor adapted to generate first and second two-dimensional color image data by scanning the illuminated object, wherein the first and second 2D color image data include pixels; generate first and second 2D monochrome image data by processing the first and second 2D color image data respectively; generate 3D data using the first and second 2D monochrome image data by performing stereo correspondence matching methods; and generate 3D color image data by combining color information obtained from at least one of the first and second 2D color image data with the 3D data.
A system for the determination of the position of an observed target, comprising: - first means for target observation, - a rangefinder fixed to the first means, - second means (3, 4) for determining the global position and orientation of the second means (3, 4), - a computing unit combining data from the rangefinder and the second means (3, 4) to determine the position of the target, wherein - the second means (3, 4) is physically separated from the first means, characterized in that - the first means has at least three fiducials attached to it, - the second means (3, 4) has at least one camera attached to it, and - the computing unit is operable to use the images of the fiducials captured by the at least one camera to determine both the position and orientation of the first means relative to the second means (3, 4), and therefore to determine the target position. - first means for target observation, - a rangefinder fixed to the first means, - second means (3, 4) for determining the global position and orientation of the second means (3, 4), - a computing unit combining data from the rangefinder and the second means (3, 4) to determine the position of the target, wherein - the second means (3, 4) is physically separated from the first means, characterized in that - the first means has at least three fiducials attached to it, - the second means (3, 4) has at least one camera attached to it, and - the computing unit is operable to use the images of the fiducials captured by the at least one camera to determine both the position and orientation of the first means relative to the second means (3, 4), and therefore to determine the target position.
A method of injection molding a part made of composite material comprising fiber reinforcement densified by a matrix, the method comprising, in succession, placing (E10-1) a fiber preform in an injection mold, injecting (E10-2) a thermoplastic resin under pressure so as to impregnate the preform, and polymerizing (E10-3) the resin, the method begin characterized in that the fiber preform is consolidated in the injection mold prior to injecting the resin.
Method of simultaneously transforming at least two input voice signals x i of a communications system, each input voice signal x i being received at a specific reception frequency F i and corresponding to a voice of an interlocutor of a user of said communications system, i being an integer corresponding to a number of said input voice signal x i, in which method: - during an initialisation stage, at least two transformations T i are allocated to said input voice signals, each transformation T i being associated with at least one reception frequency F i of said input voice signals x i and being distinct from the other transformations, - during a utilisation stage, said transformations T i are applied simultaneously to said input voice signals x i of reception frequency F i, thereby transforming each input voice signal x i in order to optimise the perception and the discrimination of said voice of each interlocutor by said user by modifying at least one characteristic of said voice, said characteristics being the sound volume for a first voice corresponding to a first input voice signal according to a first reception frequency and the frequencies for a second voice corresponding to a second input voice signal according to a second reception frequency in order to allow said user to concentrate on said voice of an interlocutor likely to deliver an important message. - during an initialisation stage, at least two transformations T i are allocated to said input voice signals, each transformation T i being associated with at least one reception frequency F i of said input voice signals x i and being distinct from the other transformations, - during a utilisation stage, said transformations T i are applied simultaneously to said input voice signals x i of reception frequency F i, thereby transforming each input voice signal x i in order to optimise the perception and the discrimination of said voice of each interlocutor by said user by modifying at least one characteristic of said voice, said characteristics being the sound volume for a first voice corresponding to a first input voice signal according to a first reception frequency and the frequencies for a second voice corresponding to a second input voice signal according to a second reception frequency in order to allow said user to concentrate on said voice of an interlocutor likely to deliver an important message.
Orthodontic screw comprising two bodies connected by means of positioning means (21, 22) adapted to allow the distance between said bodies to be adjusted with a reciprocal movement along a predetermined direction, wherein said bodies have a seat adapted to receive a portion (30, 31) of a connecting structure (3, 4) associable with the orthodontic screw for its connection to the teeth of a dental arch, wherein said seat consists of a groove formed on an external surface of the bodies, so that said portion (30, 31) of said connecting structure (3, 4) can be inserted in said seat through a displacement orthogonal to the same seat, characterized in that said seat is closed at one of its ends and in that said seat develops parallel to said direction.
A system, comprising: a flexible circuit that includes a first portion and a second portion, radio-frequency identification RFID circuitry, said RFID circuitry comprising: an integrated circuit, an antenna, and a connector that couples the integrated circuit to the antenna; and wherein the RFID circuitry is positioned in the first portion of the flexible circuit characterised in that: the flexible circuit further includes a plated through-hole (154, 156) extending through the flexible circuit, and the plated through-hole (154, 156) is positioned between the first portion and the second portion, and wherein at least a portion of the plated through-hole is plated with radio frequency insulation that shields the second portion from at least some radio frequency radiation radiated from the RFID circuitry. a flexible circuit that includes a first portion and a second portion, radio-frequency identification RFID circuitry, said RFID circuitry comprising: an integrated circuit, an antenna, and a connector that couples the integrated circuit to the antenna; and an integrated circuit, an antenna, and a connector that couples the integrated circuit to the antenna; and wherein the RFID circuitry is positioned in the first portion of the flexible circuit characterised in that: the flexible circuit further includes a plated through-hole (154, 156) extending through the flexible circuit, and the plated through-hole (154, 156) is positioned between the first portion and the second portion, and the flexible circuit further includes a plated through-hole (154, 156) extending through the flexible circuit, and the plated through-hole (154, 156) is positioned between the first portion and the second portion, and wherein at least a portion of the plated through-hole is plated with radio frequency insulation that shields the second portion from at least some radio frequency radiation radiated from the RFID circuitry.
A surfactant of the general formula R 1 -X where R 1 is an aliphatic C 17 H 35 - alkyl radical and X is a hydrophilic group, wherein the mean degree of branching of the R 1 radical is from 2.8 to 3.7, where the degree of branching is the number of methyl groups in the R 1 radial minus 1.
A method of causing a genetic change in a plant cell, said method comprising exposing said cell to a DNA cutter and a gene repair oligonucleobase (GRON), wherein the DNA cutter is CRISPR-Cas, wherein the GRON includes one or more alterations from conventional RNA and DNA nucleotides, said alterations being selected from one or more 2'O-methyl nucleotides at the 5' and/or 3' ends, a reverse base (idC) at the 3' end, an O-(2-methoxyethyl) modification at the 5' and/or 3' ends, one or more Cy3 groups at the 5' and/or 3' ends, wherein Cy3 denotes a blocked phosphoroamidite that upon incorporation into an oligonucleotide yields a 3,3,3',3'-tetramethyl N,N'-isopropyl substituted indomonocarbocyanine dye, and one or more 3PS groups at the 5' and/or 3' ends, wherein 3PS denotes 3 phosphothioate linkages, and wherein said GRON is between 15 and 210 nucleotides in length. wherein the DNA cutter is CRISPR-Cas, wherein the GRON includes one or more alterations from conventional RNA and DNA nucleotides, said alterations being selected from one or more 2'O-methyl nucleotides at the 5' and/or 3' ends, a reverse base (idC) at the 3' end, an O-(2-methoxyethyl) modification at the 5' and/or 3' ends, one or more Cy3 groups at the 5' and/or 3' ends, wherein Cy3 denotes a blocked phosphoroamidite that upon incorporation into an oligonucleotide yields a 3,3,3',3'-tetramethyl N,N'-isopropyl substituted indomonocarbocyanine dye, and one or more 3PS groups at the 5' and/or 3' ends, wherein 3PS denotes 3 phosphothioate linkages, and wherein said GRON is between 15 and 210 nucleotides in length.