mhurhangee/ep-ind-claims huggingface dataset:
A method of scanning a vessel having a vessel wall using an intravascular imaging probe disposed in the vessel, the intravascular imaging probe comprising a calibration feature (10a, 10b, 10c), the method comprising: storing image data obtained during a pullback through the vessel in a memory device, the image data comprising a plurality of frames, each frame comprising scan lines; averaging scan lines for a first frame of the plurality of frames (F1, F2) to obtain scan lines of a speckle reduced first frame; identifying a region in the speckle reduced first frame in which the calibration feature is estimated to appear; identifying candidate samples of the calibration feature; identifying a region defined by the candidate samples using a thickness of at least a portion of the calibration feature; and fitting a curve to the candidate samples to define a boundary of the calibration feature in the speckle reduced first frame. storing image data obtained during a pullback through the vessel in a memory device, the image data comprising a plurality of frames, each frame comprising scan lines; averaging scan lines for a first frame of the plurality of frames (F1, F2) to obtain scan lines of a speckle reduced first frame; identifying a region in the speckle reduced first frame in which the calibration feature is estimated to appear; identifying candidate samples of the calibration feature; identifying a region defined by the candidate samples using a thickness of at least a portion of the calibration feature; and fitting a curve to the candidate samples to define a boundary of the calibration feature in the speckle reduced first frame.
A telecommunications system comprising: - a chassis defining a first side and an opposite second side; - a tray pivotally mounted to the chassis between a closed storage position and an open access position relative to the chassis; - at least one telecommunications component removably mounted to the tray; - wherein one of an input or output cable (30, 32) from the telecommunications component extends out to an exterior of the chassis from the first side of the chassis; - and wherein the other of the input or output cables (30, 32) from the telecommunications component follows a cable path across the chassis, positioned above the pivotable tray, and extends out to the exterior of the chassis from the opposite second side of the chassis; characterised in that - the other of the input or output cables (30, 32) extending across the chassis is positioned within a trough defined by a cover of the chassis, the trough being located at an underside of the cover at a front side of the chassis, the trough extending from the first side toward the second side of the chassis, - the other of the input or output cables (30, 32) is positioned within the trough to keep the other of the input or output cables (30, 32) out of the way of the tray during pivotal movement of the tray and the other of the input of output cables (30, 32) is fixedly attached to the cover via the trough to limit movement of the other of the input or output cables (30, 32) during pivotal movement of the tray. - a chassis defining a first side and an opposite second side; - a tray pivotally mounted to the chassis between a closed storage position and an open access position relative to the chassis; - at least one telecommunications component removably mounted to the tray; - wherein one of an input or output cable (30, 32) from the telecommunications component extends out to an exterior of the chassis from the first side of the chassis; - and wherein the other of the input or output cables (30, 32) from the telecommunications component follows a cable path across the chassis, positioned above the pivotable tray, and extends out to the exterior of the chassis from the opposite second side of the chassis; characterised in that - the other of the input or output cables (30, 32) extending across the chassis is positioned within a trough defined by a cover of the chassis, the trough being located at an underside of the cover at a front side of the chassis, the trough extending from the first side toward the second side of the chassis, - the other of the input or output cables (30, 32) is positioned within the trough to keep the other of the input or output cables (30, 32) out of the way of the tray during pivotal movement of the tray and the other of the input of output cables (30, 32) is fixedly attached to the cover via the trough to limit movement of the other of the input or output cables (30, 32) during pivotal movement of the tray.
A method for receiving, by a user equipment, a downlink signal, the method comprising: receiving, by the user equipment, from a base station of a serving cell, discovery signal based radio resource measurement information for a small cell different from the serving cell; receiving, by the user equipment, from the small cell, a discovery signal of the small cell at discovery signal transmission periodicity based on the discovery signal based radio resource measurement information; and performing, by the user equipment, reference signal received power, RSRP, measurement for the small cell based on the discovery signal, wherein the discovery signal based radio resource measurement information includes transmission timing information of the discovery signal, and wherein the discovery signal transmission periodicity is equal to or shorter than a measurement periodicity at which the RSRP measurement is performed, wherein the small cell is in on-state during which a physical channel of the small cell is received, or in off-state during which only the discovery signal is received from the small cell at the discovery signal transmission periodicity, wherein a synchronization signal of the small cell is used as the discovery signal, and wherein transmission periodicity of the synchronization signal when the small cell is in off-state is longer than transmission periodicity of the synchronization signal when the small cell is in on-state. receiving, by the user equipment, from a base station of a serving cell, discovery signal based radio resource measurement information for a small cell different from the serving cell; receiving, by the user equipment, from the small cell, a discovery signal of the small cell at discovery signal transmission periodicity based on the discovery signal based radio resource measurement information; and performing, by the user equipment, reference signal received power, RSRP, measurement for the small cell based on the discovery signal, wherein the discovery signal based radio resource measurement information includes transmission timing information of the discovery signal, and wherein the discovery signal transmission periodicity is equal to or shorter than a measurement periodicity at which the RSRP measurement is performed, wherein the small cell is in on-state during which a physical channel of the small cell is received, or in off-state during which only the discovery signal is received from the small cell at the discovery signal transmission periodicity, wherein a synchronization signal of the small cell is used as the discovery signal, and wherein transmission periodicity of the synchronization signal when the small cell is in off-state is longer than transmission periodicity of the synchronization signal when the small cell is in on-state.
Aptamer comprising a nucleotide sequence which satisfies a grammar defined by the set of production rules P: P = { S → M | Y | D | E | H M → NRM M → MR M → RM N → M D → YM E → VM Y → K | KL | LK | LKL H → LV | V R → L Z → A | C | G | T L → ZL | Z BX → G x CX → BXLBX M → CXLCX K → CXLBX V → CXL} with the conditions a.) Q is the set of natural numbers b.) F is a subset of natural numbers defined as F: = X ∈ Q | X > 1 c.) Using F we define: ∀ X ∈ F ∃ M: M → CXLCX ∀ X ∈ F ∃ K: K → CXLBX ∀X ∈ F ∃ V: V → CXL ∀ X ∈ F: CX → BXLBX ∀ X ∈ F: BX → ∏ 1 X G d.) U is a set of non-terminals defined as U = S M N D E Y H R Z L BX CX K V For BX and CX see c) e.) W is a set of terminals defined as W = A C G T G X G X denotes all terminals which can be derived according to b.) and c.) f.) S ∈ U is the starting symbol for use in the treatment of autoimmune diseases associated with autoantibodies against G-protein coupled receptors, wherein "A" means an adenine nucleotide, "C" means a cytosine nucleotide, "G" means a guanine nucleotide and "T" means a thymine nucleotide if the nucleotide sequence is a DNA sequence, and "T" means a uracil nucleotide if the nucleotide sequence is a RNA sequence, wherein the aptamer does not comprise the nucleotide sequence GGTTGGTGTGGTTGG (SEQ ID No: 22), GGTTGGTGTGGT (SEQ ID NO: 23) or CGCCTAGGTTGGGTAGGGTGGTGGCG (SEQ ID No: 24), wherein the aptamer is for use in the treatment of a patient in which autoantibodies against G-protein coupled receptors can be detected, wherein the nucleotide sequence has a length of at most 593 nucleotides. a.) Q is the set of natural numbers b.) F is a subset of natural numbers defined as F: = X ∈ Q | X > 1 c.) Using F we define: ∀ X ∈ F ∃ M: M → CXLCX ∀ X ∈ F ∃ K: K → CXLBX ∀X ∈ F ∃ V: V → CXL ∀ X ∈ F: CX → BXLBX ∀ X ∈ F: BX → ∏ 1 X G ∀ X ∈ F ∃ M: M → CXLCX ∀ X ∈ F ∃ K: K → CXLBX ∀X ∈ F ∃ V: V → CXL ∀ X ∈ F: CX → BXLBX ∀ X ∈ F: BX → ∏ 1 X G d.) U is a set of non-terminals defined as U = S M N D E Y H R Z L BX CX K V For BX and CX see c) e.) W is a set of terminals defined as W = A C G T G X G X denotes all terminals which can be derived according to b.) and c.) f.) S ∈ U is the starting symbol
A device for in-line treatment of thread for use with a thread consuming device being an embroidery machine, a weaving machine, or a sewing machine, comprising: a first thread feeding unit comprising an electric motor and a thread length measurer, wherein the thread length measurer is an encoder wheel; a second thread feeding unit comprising an electric motor; a treatment unit located downstream the first thread feeding unit, said treatment unit comprises one or more discharge nozzles configured to dispensing a coating material to the thread as the thread from the first thread feeding unit passes the treatment unit; and a fixation unit arranged in series downstream the treatment unit, wherein the fixation unit is configured to fix the applied coating material to the thread, and wherein the second thread feeding unit is located downstream the fixation unit. a first thread feeding unit comprising an electric motor and a thread length measurer, wherein the thread length measurer is an encoder wheel; a second thread feeding unit comprising an electric motor; a treatment unit located downstream the first thread feeding unit, said treatment unit comprises one or more discharge nozzles configured to dispensing a coating material to the thread as the thread from the first thread feeding unit passes the treatment unit; and a fixation unit arranged in series downstream the treatment unit, wherein the fixation unit is configured to fix the applied coating material to the thread, and wherein the second thread feeding unit is located downstream the fixation unit.
A recombinant Pru p 3 mimick having the sequence of SEQ ID NO:1, which is modified by substituting at least one amino acid and which is capable of inducing IgG antibodies that are cross-reactive to the Pru p 3 wild-type allergen, and where reactivity to specific IgE antibodies is reduced and wherein at least one substitution is at a position outside the T-cell epitopes and wherein the cysteines at positions 48 and 50 remain unsubstituted.
A gas diffusion electrode having a microporous layer on at least one surface of an electrical conducting porous substrate, wherein the microporous layer has at least a first microporous layer in contact with the electrical conducting porous substrate, and a second microporous layer, and the first microporous layer contains carbon black having a structure index of 3.0 or more, and the second microporous layer contains carbon black having a structure index of less than 3.0. the microporous layer has at least a first microporous layer in contact with the electrical conducting porous substrate, and a second microporous layer, and the first microporous layer contains carbon black having a structure index of 3.0 or more, and the second microporous layer contains carbon black having a structure index of less than 3.0.
A capacitor comprising a positive electrode containing a positive-electrode active material, a negative electrode containing a negative-electrode active material, a separator disposed between the positive electrode and the negative electrode, and an electrolyte, wherein the positive-electrode active material contains a porous carbon material, in a volume-based pore size distribution of the porous carbon material, a cumulative volume of pores having a pore size of 1 nm or less accounts for 85% or more of a total pore volume, the porous carbon material has crystallites having a size of 1 to 10 nm, the porous carbon material contains an oxygen-containing functional group, and a content of the oxygen-containing functional group is 3.3 mol% or less, characterised in that when the X-ray diffraction pattern of the porous carbon material is measured with Cukα radiation, in the diffraction pattern, no peak attributed to the plane of graphite and positioned in 2θ = 20° to 30° is observed (I G002 /I k = 0).
A method performed by a graphics processing unit, GPU, the method comprising: receiving, by the GPU, a draw call command including, as arguments, a vertex buffer comprising a plurality of vertices and a primitive type buffer comprising a plurality of primitive type entries, wherein each vertex of the plurality of vertices of the vertex buffer is associated with one or more of the plurality of primitive type entries such that a first vertex of the plurality of vertices is associated with at least one of the plurality of primitive type entries and a second vertex of the plurality of vertices is associated with at least one of the plurality of primitive type entries, wherein the at least one of the plurality of primitive type entries associated with the first vertex is different from the at least one of the plurality of primitive type entries associated with the second vertex; determining, by the GPU, primitives based on the plurality of vertices and the associated one or more primitive type entries; and rendering, by the GPU, the primitives based on the plurality of vertices and the associated one or more primitive type entries of the primitive type buffer. receiving, by the GPU, a draw call command including, as arguments, a vertex buffer comprising a plurality of vertices and a primitive type buffer comprising a plurality of primitive type entries, wherein each vertex of the plurality of vertices of the vertex buffer is associated with one or more of the plurality of primitive type entries such that a first vertex of the plurality of vertices is associated with at least one of the plurality of primitive type entries and a second vertex of the plurality of vertices is associated with at least one of the plurality of primitive type entries, wherein the at least one of the plurality of primitive type entries associated with the first vertex is different from the at least one of the plurality of primitive type entries associated with the second vertex; determining, by the GPU, primitives based on the plurality of vertices and the associated one or more primitive type entries; and rendering, by the GPU, the primitives based on the plurality of vertices and the associated one or more primitive type entries of the primitive type buffer.
A method of producing coated substrates, the method comprising: a) providing a substrate having a major surface; b) depositing a first coating comprising a first layering system comprising a plurality of layers upon a first surface segment of said major surface by magnetron sputtering; c) depositing a second coating comprising a second layering system comprising a plurality of layers upon a second surface segment of said major surface by magnetron sputtering; wherein the first coating is different than the second coating. a) providing a substrate having a major surface; b) depositing a first coating comprising a first layering system comprising a plurality of layers upon a first surface segment of said major surface by magnetron sputtering; c) depositing a second coating comprising a second layering system comprising a plurality of layers upon a second surface segment of said major surface by magnetron sputtering;
A method of handling a plurality of time offsets between a communication device of a wireless communication system and a plurality of transmission points of the wireless communication system, the method being utilized in the communication device, and characterized by the method comprising: obtaining the plurality of time offsets by using a first reference signal; transmitting the plurality of time offsets to the plurality of transmission points, respectively; obtaining channel information between the communication device and the plurality of transmission points by using a second reference signal; determining a plurality of precoding matrix indicators corresponding to the plurality of transmission points, respectively, according to the channel information; and transmitting the plurality of precoding matrix indicators to the plurality of transmission points, respectively; wherein the plurality of transmission points compensate the plurality of time offsets, respectively, when communicating with the communication device; wherein the communication device transmits the plurality of time offsets periodically with a first period, and the first period is greater than a second period for transmitting the plurality of precoding matrix indicators periodically. obtaining the plurality of time offsets by using a first reference signal; transmitting the plurality of time offsets to the plurality of transmission points, respectively; obtaining channel information between the communication device and the plurality of transmission points by using a second reference signal; determining a plurality of precoding matrix indicators corresponding to the plurality of transmission points, respectively, according to the channel information; and transmitting the plurality of precoding matrix indicators to the plurality of transmission points, respectively;
An aircraft turbomachine, comprising: - a centrifugal compressor extending around an axis A, - an annular combustion chamber extending around the axis A - an annular casing extending around the axis A and the chamber and delimiting an annular space in which the chamber is located, and - a heat exchanger, this exchanger comprising: - a first circuit supplied with exhaust gases from the turbomachine, and - a second circuit comprising an inlet connected by a first volute to an outlet of the compressor, and an outlet connected by a second volute to said space, characterized in that the volutes (40a, 40b) are at an axial distance from one another, and in that the second volute is connected to the space by a rectifier which is located at least in part outside the casing and which is integrated into an annular connecting pipe which connects the second volute to this casing. - a centrifugal compressor extending around an axis A, - an annular combustion chamber extending around the axis A - an annular casing extending around the axis A and the chamber and delimiting an annular space in which the chamber is located, and - a heat exchanger, this exchanger comprising: - a first circuit supplied with exhaust gases from the turbomachine, and - a second circuit comprising an inlet connected by a first volute to an outlet of the compressor, and an outlet connected by a second volute to said space, characterized in that the volutes (40a, 40b) are at an axial distance from one another, and in that the second volute is connected to the space by a rectifier which is located at least in part outside the casing and which is integrated into an annular connecting pipe which connects the second volute to this casing. - a first circuit supplied with exhaust gases from the turbomachine, and - a second circuit comprising an inlet connected by a first volute to an outlet of the compressor, and an outlet connected by a second volute to said space,
Ophthalmic lens comprising a substrate, said lens having a transmission spectrum such that: - the mean transmission in the wavelength range between 380 nm inclusive and 780 nm inclusive is less than 60%; - the mean transmission at wavelengths less than or equal to 400 nm is less than 1%, - the mean transmission at wavelengths greater than 400 nm inclusive and less than 500 nm inclusive is less than 30% with a first transmission minimum of less than 10% between 425 nm and 445 nm inclusive, - the transmission in the wavelength range between 400 nm and 500 nm has a first transmission maximum between 405 nm and 425 nm, characterized in that it has a transmission value at least two times higher than the transmission of the first transmission minimum with a transmission value that is higher by at least 2% transmission. - the mean transmission in the wavelength range between 380 nm inclusive and 780 nm inclusive is less than 60%; - the mean transmission at wavelengths less than or equal to 400 nm is less than 1%, - the mean transmission at wavelengths greater than 400 nm inclusive and less than 500 nm inclusive is less than 30% with a first transmission minimum of less than 10% between 425 nm and 445 nm inclusive, - the transmission in the wavelength range between 400 nm and 500 nm has a first transmission maximum between 405 nm and 425 nm, characterized in that it has a transmission value at least two times higher than the transmission of the first transmission minimum with a transmission value that is higher by at least 2% transmission.
An apparatus for liquid disinfection by ultraviolet light, the apparatus comprising: a conduit (201,301,401) to carry a flowing liquid to be disinfected, said conduit having UV-transparent walls, an inlet to receive said liquid and an outlet to discharge said liquid, wherein at least a portion of an external surface of said UV-transparent walls is coated with a UV reflective coating; and two or more UV sources to illuminate said liquid with UV light, each positioned within a respective UV-transparent sleeve (202,302,402), wherein each sleeve is positioned within the conduit along a longitudinal axis of symmetry of the conduit and along the liquid flow direction and each of the UV-transparent sleeves is positioned substantially perpendicular to the longitudinal axis of symmetry of the conduit and to the liquid flow direction; wherein, the U-V transparent sleeves comprise one or more pairs of adjacent orthogonal sleeves. a conduit (201,301,401) to carry a flowing liquid to be disinfected, said conduit having UV-transparent walls, an inlet to receive said liquid and an outlet to discharge said liquid, wherein at least a portion of an external surface of said UV-transparent walls is coated with a UV reflective coating; and two or more UV sources to illuminate said liquid with UV light, each positioned within a respective UV-transparent sleeve (202,302,402), wherein each sleeve is positioned within the conduit along a longitudinal axis of symmetry of the conduit and along the liquid flow direction and each of the UV-transparent sleeves is positioned substantially perpendicular to the longitudinal axis of symmetry of the conduit and to the liquid flow direction; wherein, the U-V transparent sleeves comprise one or more pairs of adjacent orthogonal sleeves.