mhurhangee/ep-ind-claims huggingface dataset:
An ultrasound controller unit for receiving and processing ultrasound data to derive a measure of at least one physiological parameter, the unit being operably coupleable with an ultrasound transducer unit, for controlling the transducer unit to acquire the ultrasound data, and for controlling a set of amplification weighting coefficients applied to transmitted and received ultrasound signals of each of a plurality of transducer elements of the transducer unit, including at least one weighting coefficient for each of the transducer elements, the ultrasound controller unit being adapted to: receive ultrasound data from the transducer unit, perform artefact detection to detect the presence of any artefacts in the received data, and associate any detected artefacts with the signal data of one or more of the transducer elements, perform an optimization procedure for the at least one physiological parameter measure, comprising adjusting the weighting coefficients of the non-associated transducer elements to minimize an expected noise component in the derived physiological parameter measure when derived from data of the non-associated transducers only, and acquire further ultrasound data using only the non-associated transducer elements, the elements being configured with the optimized weighting coefficients, and derive measures of the at least one physiological parameter based on said further acquired data. receive ultrasound data from the transducer unit, perform artefact detection to detect the presence of any artefacts in the received data, and associate any detected artefacts with the signal data of one or more of the transducer elements, perform an optimization procedure for the at least one physiological parameter measure, comprising adjusting the weighting coefficients of the non-associated transducer elements to minimize an expected noise component in the derived physiological parameter measure when derived from data of the non-associated transducers only, and acquire further ultrasound data using only the non-associated transducer elements, the elements being configured with the optimized weighting coefficients, and derive measures of the at least one physiological parameter based on said further acquired data.
Apparatus for electrical power transmission (1, 39), having a first converter (4, 40) and a further converter which are connected to one another on the DC voltage side via a DC voltage line and are installed several kilometers away from one another, wherein the apparatus for electrical power transmission has means (16, 17, 18, 19, 43, 44, 45) for controlling the first converter and the further converter such that the zero phase angle, the amplitude and/or the instantaneous values of an AC voltage of a transmission system which can be connected to the apparatus, and the DC voltage and the direct current on the DC voltage line which connects the first converter to the further converter, can be controlled, wherein the DC voltage and the direct current can be captured at each converter and can be supplied to a control unit respectively assigned to the converter, characterized in that each converter (4, 6, 40) has phase elements (10, 11, 12, 13, 14, 15, 27, 28, 29) which each have an arrangement of switching elements (10a...10i, 11a...11i, 12a...12i, 13a...13i, 14a...14i, 15a...15i, 10a'...10i', 11a'...11i', 12a'...12i') each comprising at least two power semiconductors (22, 23) which can be switched off and at least two freewheeling diodes (24, 25), which are respectively connected in parallel with them, and a capacitor, wherein desired parameters can be transmitted between the converters by means of remote data transmission, wherein each phase element (10, 11, 12, 13, 14, 15, 27, 28, 29) has at least one impedance (36, 37, 38, 36', 37', 38'), or is connected to another phase element via an impedance (36, 37, 38, 36', 37', 38'), wherein the at least one impedance is in the form of a coil, wherein at least one further diode is connected in parallel with the switching elements and, in the event of a fault of one of more switching elements, is used to deliberately set up a brief overvoltage at the defective switching element with suitable actuation of the switching elements which are still intact by means of control, with the result that the at least one further diode can be broke down and permanent bridging of the defective switching element can be formed.
A collagen peptide composition obtainable by digesting gelatinized collagen or gelatin derived from fish scale with protease for 0.5 to 4 hours at 30 to 80°C; wherein the gelatinized collagen or gelatin is prepared by acid treatment of collagen raw materials; and wherein (a) the ratio of hydroxyproline to total of amino acid residues at the second position from the N terminus of the peptides in the composition is 2 mol% or more and 20 mol% or less and the ratio of glycine to total of amino acid residues at the third position from the N terminus of the same is 20 mol% or more and 50 mol% or less; and (b) the average molecular weight is 1000 or more and 1500 or less; (c) the protease is papain alone or an enzyme mixture of papain and one, two or more types of neutral protease from the genus Aspergillus or the genus Bacillus, or neutral protease from the genus Rhizopus; and (d) the papain has specific activity ranging from 400 U/g to 5000 U/g. (a) the ratio of hydroxyproline to total of amino acid residues at the second position from the N terminus of the peptides in the composition is 2 mol% or more and 20 mol% or less and the ratio of glycine to total of amino acid residues at the third position from the N terminus of the same is 20 mol% or more and 50 mol% or less; and (b) the average molecular weight is 1000 or more and 1500 or less; (c) the protease is papain alone or an enzyme mixture of papain and one, two or more types of neutral protease from the genus Aspergillus or the genus Bacillus, or neutral protease from the genus Rhizopus; and (d) the papain has specific activity ranging from 400 U/g to 5000 U/g.
A test method of evaluating wear resistance performance of a rubber material when used as a tread rubber of a tire, comprising a step of preparing a cylindrical test piece of the rubber material having a ground contact surface extending in a circumferential direction, a step of abrading the ground contact surface by rolling the test piece on a running surface of a wear testing machine at a slip ratio (α) of not more than 3.5% and a slip angle (θ) is 2 degrees or less, and a step of evaluating the wear resistance performance of the test piece by comparing the amount of wear of the test piece with a predetermined threshold value, wherein the wear testing machine is a LAT100 Laboratory Abrasion Tester having an abrasive disc rotating around an axis (j), and wherein the outer circumferential surface of the cylindrical test piece of the rubber material is brought into contact with the surface of the rotating abrasive disc so as to roll on the surface of the abrasive disc, wherein the slip ratio (α) is obtained by the following expression α = W / 2 R × 100 % wherein "W" is the width of the rubber material and corresponds to the width of a ground contact area, and "R" is a distance from axis (j) of a running surface to the center (Fj) of the ground contact area and corresponds to a turning radius of the test piece. a step of preparing a cylindrical test piece of the rubber material having a ground contact surface extending in a circumferential direction, a step of abrading the ground contact surface by rolling the test piece on a running surface of a wear testing machine at a slip ratio (α) of not more than 3.5% and a slip angle (θ) is 2 degrees or less, and a step of evaluating the wear resistance performance of the test piece by comparing the amount of wear of the test piece with a predetermined threshold value, wherein the wear testing machine is a LAT100 Laboratory Abrasion Tester having an abrasive disc rotating around an axis (j), and wherein the outer circumferential surface of the cylindrical test piece of the rubber material is brought into contact with the surface of the rotating abrasive disc so as to roll on the surface of the abrasive disc, wherein the slip ratio (α) is obtained by the following expression α = W / 2 R × 100 % wherein "W" is the width of the rubber material and corresponds to the width of a ground contact area, and "R" is a distance from axis (j) of a running surface to the center (Fj) of the ground contact area and corresponds to a turning radius of the test piece.
A method for producing a stator for an electric machine, comprising the following steps in the specified sequence: - making available a cylindrical stator body with a plurality of stator slots, - drawing at least a first coil which is wound outside the stator body into the stator slots, wherein the first coil has a first coil end on at least one end face of the stator body, characterised by - placing at least one moulded body which is configured annularly in one piece on the stator body, the moulded body having a partition and a plurality of intermediate walls extending from the partition, with nine first receptacles being formed on the outer side of the partition which are located in each case between two intermediate walls, and - inserting the first coil end into a first receptacle of the at least one moulded body for electrically insulating the first coil end. - making available a cylindrical stator body with a plurality of stator slots, - drawing at least a first coil which is wound outside the stator body into the stator slots, wherein the first coil has a first coil end on at least one end face of the stator body, characterised by - placing at least one moulded body which is configured annularly in one piece on the stator body, the moulded body having a partition and a plurality of intermediate walls extending from the partition, with nine first receptacles being formed on the outer side of the partition which are located in each case between two intermediate walls, and - inserting the first coil end into a first receptacle of the at least one moulded body for electrically insulating the first coil end.
An optoelectronic device comprising a light-emitting field-effect transistor with an organic semiconductor active layer comprising a channel and further with a ridge waveguide integrated within the channel of the light-emitting field-effect transistor, said light-emitting field-effect transistor comprising source, drain and gate electrodes and said channel disposed between said source and drain electrodes, wherein said organic semiconductor active layer is on top of said waveguide and said source and drain electrodes, wherein said ridge waveguide comprises a material which has a higher refractive index than said organic semiconductor of said channel, wherein said light-emitting field-effect transistor is biased to control the location of the recombination zone of opposite polarity charge carriers in said channel, such that said location of recombination zone is aligned to said ridge waveguide such that light from said recombination zone is coupled into said waveguide ridge.
A method for manufacturing an optical fiber base material including producing glass fine particles through a hydrolysis of a glass material gas in a flame created by an oxidizing gas and a combustible gas, the method using a burner comprising: a central gas discharge port that ejects a gas containing an oxidizing gas; a plurality of small-diameter gas discharge ports that are arranged in a concentric circle with the central gas discharge port so as to externally surround the central gas discharge port, the plurality of small-diameter gas discharge ports ejecting a gas containing an oxidizing gas; a combustible gas discharge port that is concentrically arranged with the central gas discharge port so as to externally surround the central gas discharge port, the combustible gas discharge port having the plurality of small-diameter gas discharge port arranged therein, the combustible gas discharge port ejecting a combustible gas; and an oxidizing gas discharge port that is concentrically arranged with the central gas discharge port so as to externally surround the combustible gas discharge port, the oxidizing gas discharge port ejecting an oxidizing gas, characterized in that a relation of V 1 > V 2 > V 3 > V 4 is satisfied where V 1 denotes a gas flow speed at the central gas discharge port, V 2 denotes a gas flow speed at the plurality of small-diameter gas discharge ports, V 3 denotes a gas flow speed at the combustible gas discharge port, and V 4 denotes a gas flow speed at the oxidizing gas discharge port. a central gas discharge port that ejects a gas containing an oxidizing gas; a plurality of small-diameter gas discharge ports that are arranged in a concentric circle with the central gas discharge port so as to externally surround the central gas discharge port, the plurality of small-diameter gas discharge ports ejecting a gas containing an oxidizing gas; a combustible gas discharge port that is concentrically arranged with the central gas discharge port so as to externally surround the central gas discharge port, the combustible gas discharge port having the plurality of small-diameter gas discharge port arranged therein, the combustible gas discharge port ejecting a combustible gas; and an oxidizing gas discharge port that is concentrically arranged with the central gas discharge port so as to externally surround the combustible gas discharge port, the oxidizing gas discharge port ejecting an oxidizing gas, characterized in that a relation of V 1 > V 2 > V 3 > V 4 is satisfied where V 1 denotes a gas flow speed at the central gas discharge port, V 2 denotes a gas flow speed at the plurality of small-diameter gas discharge ports, V 3 denotes a gas flow speed at the combustible gas discharge port, and V 4 denotes a gas flow speed at the oxidizing gas discharge port.
A pharmaceutical composition comprising: a) a compound of Formula, or a salt, co-crystal or solvate thereof; and b) at least one chemotherapeutic agent, or a salt, co-crystal or solvate thereof, wherein said at least one chemotherapeutic agent is: i) the anti-mitotic chemotherapeutic agent, docetaxel, wherein the molar ratio of the compound of the Formula to said anti-mitotic chemotherapeutic agent is from 1:0.05 to 1:1; ii) the nucleoside analog chemotherapeutic agent, gemcitabine, wherein the molar ratio of the compound of the Formula to said nucleoside analog chemotherapeutic agent is from 1:0.1 to 1:2; iii) the tyrosine kinase inhibitor, dasatinib, wherein the molar ratio of the compound of the Formula to said tyrosine kinase inhibitor is from 1:0.1 to 1:2; and/or iv) vinorelbine, wherein the molar ratio of the compound of the Formula to vinorelbine is 1:0.3. a) a compound of Formula, or a salt, co-crystal or solvate thereof; and b) at least one chemotherapeutic agent, or a salt, co-crystal or solvate thereof, wherein said at least one chemotherapeutic agent is: i) the anti-mitotic chemotherapeutic agent, docetaxel, wherein the molar ratio of the compound of the Formula to said anti-mitotic chemotherapeutic agent is from 1:0.05 to 1:1; ii) the nucleoside analog chemotherapeutic agent, gemcitabine, wherein the molar ratio of the compound of the Formula to said nucleoside analog chemotherapeutic agent is from 1:0.1 to 1:2; iii) the tyrosine kinase inhibitor, dasatinib, wherein the molar ratio of the compound of the Formula to said tyrosine kinase inhibitor is from 1:0.1 to 1:2; and/or iv) vinorelbine, wherein the molar ratio of the compound of the Formula to vinorelbine is 1:0.3. i) the anti-mitotic chemotherapeutic agent, docetaxel, wherein the molar ratio of the compound of the Formula to said anti-mitotic chemotherapeutic agent is from 1:0.05 to 1:1; ii) the nucleoside analog chemotherapeutic agent, gemcitabine, wherein the molar ratio of the compound of the Formula to said nucleoside analog chemotherapeutic agent is from 1:0.1 to 1:2; iii) the tyrosine kinase inhibitor, dasatinib, wherein the molar ratio of the compound of the Formula to said tyrosine kinase inhibitor is from 1:0.1 to 1:2; and/or iv) vinorelbine, wherein the molar ratio of the compound of the Formula to vinorelbine is 1:0.3.
A method for determining the composition of one or more gases with a sensor assembly and at least one processor, the sensor assembly comprising a first gas sensor and a second gas sensor, the method comprising: causing the first sensor to be powered to detect a presence of one or more gases while the second sensor is unpowered; detecting, via the first sensor, the presence of the one or more gases while the second sensor is unpowered, wherein the detecting includes determining a total quantity of the one or more gases present based on first sensor data generated by the first sensor in response to detecting the presence of the one or more gases, causing the second sensor to be powered with a delay, wherein the delay is inversely proportional to a signal from the first sensor based on the first sensor data; generating, via the second sensor, sensor data corresponding to at least one of the one or more gases, wherein the generating includes determining the proportions and identities of the one or more gases; and identifying, via the at least one processor, the at least one of the one or more gases based on an analysis of the sensor data. causing the first sensor to be powered to detect a presence of one or more gases while the second sensor is unpowered; detecting, via the first sensor, the presence of the one or more gases while the second sensor is unpowered, wherein the detecting includes determining a total quantity of the one or more gases present based on first sensor data generated by the first sensor in response to detecting the presence of the one or more gases, causing the second sensor to be powered with a delay, wherein the delay is inversely proportional to a signal from the first sensor based on the first sensor data; generating, via the second sensor, sensor data corresponding to at least one of the one or more gases, wherein the generating includes determining the proportions and identities of the one or more gases; and identifying, via the at least one processor, the at least one of the one or more gases based on an analysis of the sensor data.
An operation cord comprising a cord whose both ends are configured to be coupled with each other by means of a coupling portion (20, 60) so that the operation cord has an endless shape, characterized in that the coupling portion (20, 60) comprises: a first joint body provided at one end of the cord; a second joint body provided at another end of the cord; and a joint ring provided between the first joint body and the second joint body; or an integrated portion provided at one end of the cord and a second joint body provided at another end of the cord, wherein the first joint body and the second joint body each have a fitting protrusion of an axial shape, the joint ring and the integrated portion each have a fitting hole configured to fit with the fitting protrusion, the fitting protrusion is configured to engage with the fitting hole through being inserted in the fitting hole and subsequently rotated, and the first joint body, the second joint body, the joint ring, and the integrated portion are each so formed that an outer diameter thereof in a lateral direction is equal to or smaller than a maximum diameter of the cord. a first joint body provided at one end of the cord; a second joint body provided at another end of the cord; and a joint ring provided between the first joint body and the second joint body; or an integrated portion provided at one end of the cord and a second joint body provided at another end of the cord, wherein the first joint body and the second joint body each have a fitting protrusion of an axial shape, the joint ring and the integrated portion each have a fitting hole configured to fit with the fitting protrusion, the fitting protrusion is configured to engage with the fitting hole through being inserted in the fitting hole and subsequently rotated, and the first joint body, the second joint body, the joint ring, and the integrated portion are each so formed that an outer diameter thereof in a lateral direction is equal to or smaller than a maximum diameter of the cord.
A portable terminal comprising: a body having a front surface, the front surface having an upper portion and a lower portion; a display unit located in the body and visible at the front surface thereof, the display unit having a first end and a second end, and at least one of the first end being adjacent the upper portion and the second end being adjacent the lower portion; and a speaker unit located in an upper rear portion of the body opposite the upper portion of the front surface, the speaker unit including a bone conduction speaker, the portable terminal characterized in that the bone conduction speaker is configured to vibrate the body if the portable terminal is set in a silent mode, and the bone conduction speaker of the speaker unit contacts a rear surface of the body. a body having a front surface, the front surface having an upper portion and a lower portion; a display unit located in the body and visible at the front surface thereof, the display unit having a first end and a second end, and at least one of the first end being adjacent the upper portion and the second end being adjacent the lower portion; and a speaker unit located in an upper rear portion of the body opposite the upper portion of the front surface, the speaker unit including a bone conduction speaker, the portable terminal characterized in that the bone conduction speaker is configured to vibrate the body if the portable terminal is set in a silent mode, and the bone conduction speaker of the speaker unit contacts a rear surface of the body.
A method for making an inkjet-receptive coating, the method comprising combining: a primary pigment having a particle size distribution where at least 96% of the particles by weight have a particle size less than 2 micrometers; a secondary pigment having an average particle size of 3 micrometers or less; a multivalent salt; a binder wherein the binder is present in an amount from 2 to 15 parts by weight of based on 100 parts total pigments: and a dispersant selected from the group consisting of dispersants containing polyether polycarboxylate salts, dispersants containing polyoxyalkylene salts and combinations thereof. a primary pigment having a particle size distribution where at least 96% of the particles by weight have a particle size less than 2 micrometers; a secondary pigment having an average particle size of 3 micrometers or less; a multivalent salt; a binder wherein the binder is present in an amount from 2 to 15 parts by weight of based on 100 parts total pigments: and a dispersant selected from the group consisting of dispersants containing polyether polycarboxylate salts, dispersants containing polyoxyalkylene salts and combinations thereof.