mhurhangee/ep-ind-claims huggingface dataset:
A cross-flow fan, comprising: an impeller; and a shaft (8f, 12a) supporting the impeller in a rotatable manner, the impeller comprising: a plurality of support plates; and a plurality of blades arranged at intervals in a circumferential direction between a corresponding pair of the plurality of support plates, each of the blades comprising a plurality of regions (8ca,8cb,8cc) different in a blade cross section orthogonal to an impeller rotational axis, the plurality of regions (8ca, 8cb, 8cc) being arranged in a direction of the impeller rotational axis in the blade, each of the blades further comprising a coupling portion for coupling the plurality of regions (8ca, 8cb, 8cc) to each other, characterized in that each of the blades comprises at least one rib (14,16) formed on the coupling portion or a region adjacent to the coupling portion, wherein the rib (14,16) is formed on, in the blade surface, both of the blade suction surface positioned on the opposite side to the impeller rotational direction side and the blade pressure surface positioned on the impeller rotational direction side, wherein the ribs (14, 16) are each erected toward the adjacent blade, wherein the rib, which is formed on the blade suction surface, has a height that is larger than a height of the rib, which is formed on the blade pressure surface, and wherein the ribs (14, 16) are formed in a region between an outer diameter of a blade outer peripheral end portion and an inner diameter of a blade inner peripheral end portion. an impeller; and a shaft (8f, 12a) supporting the impeller in a rotatable manner, the impeller comprising: a plurality of support plates; and a plurality of blades arranged at intervals in a circumferential direction between a corresponding pair of the plurality of support plates, a plurality of support plates; and a plurality of blades arranged at intervals in a circumferential direction between a corresponding pair of the plurality of support plates, each of the blades comprising a plurality of regions (8ca,8cb,8cc) different in a blade cross section orthogonal to an impeller rotational axis, the plurality of regions (8ca, 8cb, 8cc) being arranged in a direction of the impeller rotational axis in the blade, each of the blades further comprising a coupling portion for coupling the plurality of regions (8ca, 8cb, 8cc) to each other, characterized in that each of the blades comprises at least one rib (14,16) formed on the coupling portion or a region adjacent to the coupling portion, wherein the rib (14,16) is formed on, in the blade surface, both of the blade suction surface positioned on the opposite side to the impeller rotational direction side and the blade pressure surface positioned on the impeller rotational direction side, wherein the ribs (14, 16) are each erected toward the adjacent blade, wherein the rib, which is formed on the blade suction surface, has a height that is larger than a height of the rib, which is formed on the blade pressure surface, and wherein the ribs (14, 16) are formed in a region between an outer diameter of a blade outer peripheral end portion and an inner diameter of a blade inner peripheral end portion.
A device for providing image data during an extraction procedure for extracting a lead in the body of a subject using an extraction device, the device comprising: an input configured to receive a live stream of x-ray projection image data of the lead in the body of the subject during the extraction procedure and for receiving three-dimensional image data representative of said lead in the body of the subject as acquired before performing said extraction procedure, a processing unit configured to determine a position of said extraction device in the three-dimensional image data by detecting a position of said extraction device in said live stream of x-ray projection image data during said extraction procedure and correlating said position in said live stream with the position in the three-dimensional image data, and the device being characterized in that it further comprises an output comprising an interface configured to control at least one parameter of said extraction device, wherein said processing unit is further adapted: i) to determine a vessel and/or plaque characteristic at or near said determined position of said extraction device-, and ii) to control said at least one parameter of said extraction device by taking said characteristic into account. an input configured to receive a live stream of x-ray projection image data of the lead in the body of the subject during the extraction procedure and for receiving three-dimensional image data representative of said lead in the body of the subject as acquired before performing said extraction procedure, a processing unit configured to determine a position of said extraction device in the three-dimensional image data by detecting a position of said extraction device in said live stream of x-ray projection image data during said extraction procedure and correlating said position in said live stream with the position in the three-dimensional image data, and the device being characterized in that it further comprises an output comprising an interface configured to control at least one parameter of said extraction device, wherein said processing unit is further adapted: i) to determine a vessel and/or plaque characteristic at or near said determined position of said extraction device-, and ii) to control said at least one parameter of said extraction device by taking said characteristic into account.
A composition comprising: from 5 to 20 parts by weight per hundred parts by weight rubber (phr) of a propylene-ethylene-diene (PEDM) terpolymer comprising 1 to 10 wt% diene, 5 to 40 wt% ethylene, and 15 to 85 wt% propylene, said wt% based on the weight of the PEDM terpolymer; and from 80 to 95 phr of an ethylene-based copolymer comprising ethylene, one or more C 3 to C 12 α-olefins, and, optionally, one or more dienes; wherein the amount of ethylene content of the ethylene-based copolymer (in wt% on the basis of total weight of the ethylene-based copolymer) is greater than the amount of ethylene content of the PEDM terpolymer (in wt% on the basis of total weight of the PEDM terpolymer). from 5 to 20 parts by weight per hundred parts by weight rubber (phr) of a propylene-ethylene-diene (PEDM) terpolymer comprising 1 to 10 wt% diene, 5 to 40 wt% ethylene, and 15 to 85 wt% propylene, said wt% based on the weight of the PEDM terpolymer; and from 80 to 95 phr of an ethylene-based copolymer comprising ethylene, one or more C 3 to C 12 α-olefins, and, optionally, one or more dienes; wherein the amount of ethylene content of the ethylene-based copolymer (in wt% on the basis of total weight of the ethylene-based copolymer) is greater than the amount of ethylene content of the PEDM terpolymer (in wt% on the basis of total weight of the PEDM terpolymer).
An aqueous ethyl alcohol free paediatric solution comprising propranolol or pharmaceutically acceptable salts thereof, a non sugar type sweetener and less than 0.01 w/V% of any preservative agents, other than propranolol itself, for use as a medicament in the treatment of hemangiomas.
Wall panels, ceiling panels or floor panels having a multilayer structure, characterised in that a layer consists of a decorative paper which has a length of greater than 1.31 m, does not have a repeating pattern and is divided by a paper strip transversely to the longitudinal extent thereof, wherein a woodgrain-effect pattern which has a longitudinal texture and a transverse texture is printed on one side of the paper strip and wherein the longitudinal texture of the woodgrain-effect pattern is printed on transversely to the longitudinal extent of the paper strip.
An injection molded article that is obtained by injection molding a molten resin into a mold, the injection molded article comprising: abase as a thin plate-shaped member that is connected to a gate of the mold; and a plurality of protrusions (13, 14) each integrally molded on the base and having a thickness greater than a plate thickness of the base; wherein the plurality of protrusions (13, 14) have holes (13a, 14a) each extending through the base, and the holes (13a, 14a) in the respective protrusions (13, 14) are connected through another component to form a flow channel; wherein when a thickness value of a thickest portion of the protrusions (13, 14) is defined as 100%, a processed region processed to have a surface roughness greater than a surface roughness of a mirror surface region including a region between the holes (13a, 14a) on the base is formed in a projected region where a region having a thickness value of 95 to 100% is projected on the base; and wherein the injection molded article is obtained from the mold processed such that the mirror surface region and the projected region are located close to each other, wherein when an area of a smallest circle containing the projected region is defined as 100%, the injection molded article is obtained from the mold roughened to make a surface roughness greater than the surface roughness of the mirror surface region, in an area that is within the smallest circle and is 50 to 100% of an area of the smallest circle. abase as a thin plate-shaped member that is connected to a gate of the mold; and a plurality of protrusions (13, 14) each integrally molded on the base and having a thickness greater than a plate thickness of the base; wherein the plurality of protrusions (13, 14) have holes (13a, 14a) each extending through the base, and the holes (13a, 14a) in the respective protrusions (13, 14) are connected through another component to form a flow channel; wherein when a thickness value of a thickest portion of the protrusions (13, 14) is defined as 100%, a processed region processed to have a surface roughness greater than a surface roughness of a mirror surface region including a region between the holes (13a, 14a) on the base is formed in a projected region where a region having a thickness value of 95 to 100% is projected on the base; and wherein the injection molded article is obtained from the mold processed such that the mirror surface region and the projected region are located close to each other, wherein when an area of a smallest circle containing the projected region is defined as 100%, the injection molded article is obtained from the mold roughened to make a surface roughness greater than the surface roughness of the mirror surface region, in an area that is within the smallest circle and is 50 to 100% of an area of the smallest circle.
A method for the diagnosis and/or prognosis of renal damage, the method comprising determining the presence or amount of a plurality of marker proteins, or a plurality of nucleic acids encoding said proteins, selected from AMBP protein precursor (α 1 -microglobulin), adiponectin, C4b-binding protein α-chain precursor, ceruloplasmin precursor, complement C3 precursor, complement component C9 precursor, complement factor D precursor, α 1B -glycoprotein, β 2 -glycoprotein I precursor, heparin cofactor II precursor, Ig μ Chain C region protein, Leucine-rich α 2 -glycoprotein precursor, pigment epithelium-derived factor precursor, plasma retinol-binding protein precursor and translation initiation factor 3 subunit 10, N-acetylmuramoyl-L-alanine amidase precursor; or a fragment thereof, or antibodies against said proteins, in a sample from a patient.
A process for modifying bitumen, the process including passing bitumen along a continuous tubular path provided by a loop reactor and using a circulation pump to cause the bitumen to circulate in the tubular path, and injecting air into the bitumen at a point along the tubular path, the process characterised by the steps of: Introducing bitumen into the continuous tubular path; injecting air into the bitumen at a point along the tubular path prior to a plurality of static mixers spaced along a section of the tubular path; causing the bitumen and air to pass through the plurality of static mixers; removing vapour from the tubular path through a vapour outlet coupled to a head section having an air space, wherein bitumen issues into the head section after passing through the static mixers, and flows from the head section to an outlet port to which is coupled an extraction pump; sensing a level of bitumen located between the head section and the outlet port; extracting a portion of modified bitumen from the tubular path through the outlet port; controlling a rate of introduction of bitumen into the tubular path; and controlling the extraction of modified bitumen in accordance with the sensing of a level of bitumen; wherein the process Is continuous with the addition of bitumen Into the tubular path and the extraction of modified bitumen from the tubular path. Introducing bitumen into the continuous tubular path; injecting air into the bitumen at a point along the tubular path prior to a plurality of static mixers spaced along a section of the tubular path; causing the bitumen and air to pass through the plurality of static mixers; removing vapour from the tubular path through a vapour outlet coupled to a head section having an air space, wherein bitumen issues into the head section after passing through the static mixers, and flows from the head section to an outlet port to which is coupled an extraction pump; sensing a level of bitumen located between the head section and the outlet port; extracting a portion of modified bitumen from the tubular path through the outlet port; controlling a rate of introduction of bitumen into the tubular path; and controlling the extraction of modified bitumen in accordance with the sensing of a level of bitumen; wherein the process Is continuous with the addition of bitumen Into the tubular path and the extraction of modified bitumen from the tubular path.
A signal transmission processing method, comprising: obtaining at least one Common Public Radio Interface, CPRI, signal of a distributed base station that is sent by a Base Band Unit, BBU, of the distributed base station; encapsulating the obtained at least one CPRI signal of the distributed base station into optical transport network, OTN, frames, wherein the at least one CPRI signal is mapped into the OTN frames by adopting a Generic Mapping Procedure, GMP, mapping scheme; and performing electro-optic conversion for the OTN frames obtained through the encapsulating to generate an optical signal and transmitting the optical signal. obtaining at least one Common Public Radio Interface, CPRI, signal of a distributed base station that is sent by a Base Band Unit, BBU, of the distributed base station; encapsulating the obtained at least one CPRI signal of the distributed base station into optical transport network, OTN, frames, wherein the at least one CPRI signal is mapped into the OTN frames by adopting a Generic Mapping Procedure, GMP, mapping scheme; and performing electro-optic conversion for the OTN frames obtained through the encapsulating to generate an optical signal and transmitting the optical signal.
Method for producing a functional element for an electrode unit of a battery cell, wherein at least one starting material is provided, and the starting material is compressed in a calender, and wherein, during the compressing, sound waves or ultrasonic waves are transferred from the calender into the starting material.
Motor vehicle having at least one door and a radar sensor (1, 1a, 1b, 1c) installed in at least one of the at least one doors, wherein the radar sensor (1, 1a, 1b, 1c) has a circuit board with two antenna arrangements (3a, 3b), wherein on both the front side of the circuit board and the rear side of the circuit board opposite the front side an antenna arrangement (3a, 3b) is attached, such that opposite detection areas (4a, 4b) are created, and the radar sensor (1, 1a, 1b, 1c) also has a control unit which is designed for selecting an antenna arrangement (3a, 3b) to be used, wherein in the closed state of the door one antenna arrangement (3a, 3b) is oriented inwards and one antenna arrangement (3b, 3a) is oriented outwards, and the radar sensor (1, 1a, 1b, 1c) is installed in a vehicle body part such that an antenna arrangement (3a, 3b) is covered on the inside of the door by a radar-permeable cover part, made in particular of plastic, and in a vehicle body part forming the outside of the door a recess filled with a radar-permeable material, in particular plastic, is provided which recess covers the other antenna arrangement (3b, 3a).
A multi-digital-to-analog converter, DAC, system, comprising: a plurality of DACs arranged in parallel and configured to convert a digital signal to an analog signal, each DAC path having a different analog phase response which is achieved by using multi-phase clocking to control operation of the DAC; and a circuit operable to multiply the digital signal input to at least some of the DACs by a multiplicand sufficient to shift a peak of a frequency response of the multi-DAC system to a non-DC frequency, wherein: the circuit comprises a single multiplier configured to: - input the digital signal at a sampling frequency of N *Fs, - alternate between multiplying each successive group of Mconsecutive input samples by a digital value of +1 or -1 and - output the samples post multiplication toward the plurality of DACs; the peak of the frequency response of the multi-DAC system occurs at 0.5* N *Fs/ M; N corresponds to the number of DACs coupled in parallel; and Fs corresponds to the sampling frequency of the plurality of DACs. a plurality of DACs arranged in parallel and configured to convert a digital signal to an analog signal, each DAC path having a different analog phase response which is achieved by using multi-phase clocking to control operation of the DAC; and a circuit operable to multiply the digital signal input to at least some of the DACs by a multiplicand sufficient to shift a peak of a frequency response of the multi-DAC system to a non-DC frequency, the circuit comprises a single multiplier configured to: - input the digital signal at a sampling frequency of N *Fs, - alternate between multiplying each successive group of Mconsecutive input samples by a digital value of +1 or -1 and - output the samples post multiplication toward the plurality of DACs; - input the digital signal at a sampling frequency of N *Fs, - alternate between multiplying each successive group of Mconsecutive input samples by a digital value of +1 or -1 and - output the samples post multiplication toward the plurality of DACs; the peak of the frequency response of the multi-DAC system occurs at 0.5* N *Fs/ M; N corresponds to the number of DACs coupled in parallel; and Fs corresponds to the sampling frequency of the plurality of DACs.
A nucleic acid amplifier for amplifying nucleic acid in a reaction solution as a mixture of a sample and a reagent, comprising: a plurality of temperature control blocks each designed to hold a reaction vessel storing a reaction solution; a temperature control device (14, 17-19) which is provided to each of the temperature control blocks and adapted to control the temperature of the reaction solution; and a holder including a disk-shaped base member, wherein the base member is arranged to be rotatable in its circumferential direction with its central axis pointing upward, characterised in that the temperature control blocks are mounted along the periphery of the base member to be separate from each other. a plurality of temperature control blocks each designed to hold a reaction vessel storing a reaction solution; a temperature control device (14, 17-19) which is provided to each of the temperature control blocks and adapted to control the temperature of the reaction solution; and a holder including a disk-shaped base member, wherein the base member is arranged to be rotatable in its circumferential direction with its central axis pointing upward, characterised in that the temperature control blocks are mounted along the periphery of the base member to be separate from each other.
A terminal resin film that is disposed to cover an outer peripheral surface of a portion of a metal terminal electrically connected to a power storage device body constituting a power storage device, the terminal resin film comprising: at least seven layers, wherein the at least seven layers among layers constituting the terminal resin film each of which corresponds to at least one layer selected from a group consisting of a layer A, a layer B, a layer C, and a layer D indicated below, and wherein at least a portion of the terminal resin film has a structure in which the layer A, the layer B, the layer A, and the layer C are stacked in this order or the layer D, the layer A, the layer B, and the layer A are stacked in this order, where, the layer A is formed from a resin composition including an acid-modified polyolefin resin and having a melt flow rate of 2.0 to 50 g/10 mins at 230°C, the layer B is formed from a resin composition including a polyolefin resin and having a melt flow rate of 0.05 g/10 mins or more and less than 2.0 g/10 mins at 230°C, the layer C is formed from a resin composition including an unmodified polyolefin resin and having a melt flow rate of 0.05 to 50 g/10 mins at 230°C, and the layer D is an adhesive layer including a resin having a cross-linked structure. at least seven layers, wherein the at least seven layers among layers constituting the terminal resin film each of which corresponds to at least one layer selected from a group consisting of a layer A, a layer B, a layer C, and a layer D indicated below, and wherein at least a portion of the terminal resin film has a structure in which the layer A, the layer B, the layer A, and the layer C are stacked in this order or the layer D, the layer A, the layer B, and the layer A are stacked in this order, the layer A is formed from a resin composition including an acid-modified polyolefin resin and having a melt flow rate of 2.0 to 50 g/10 mins at 230°C, the layer B is formed from a resin composition including a polyolefin resin and having a melt flow rate of 0.05 g/10 mins or more and less than 2.0 g/10 mins at 230°C, the layer C is formed from a resin composition including an unmodified polyolefin resin and having a melt flow rate of 0.05 to 50 g/10 mins at 230°C, and the layer D is an adhesive layer including a resin having a cross-linked structure.