mhurhangee/ep-ind-claims huggingface dataset:
Use of a molecular probe for imaging of pancreatic islets, wherein the molecular probe is prepared prior to said imaging by labelling the amino group at the N-terminus of a precursor with a positron emission nuclide or a single photon emission nuclide and deprotecting the labelled precursor, said precursor consisting of any one of the following polypeptides: a polypeptide represented by any one of the following formulae to; a polypeptide obtained by deletion, insertion, or substitution of one or two amino acids with respect to a polypeptide represented by any one of the following formulae to, the polypeptide being capable of binding to pancreatic islets after being labeled and deprotected; and a polypeptide having a homology of 95% or higher with any one of the amino acid sequences of polypeptides represented by the following formulae to, the polypeptide being capable of binding to pancreatic islets after being labeled and deprotected, DLSK* QMEEEAVRLFIEWLK* NGGPSSGAPPPS-NH 2 (SEQ ID NO. 9) LSK* QMEEEAVRLFIEWLK* NGGPSSGAPPPS-NH 2 (SEQ ID NO. 10) SK* QMEEEAVRLFIEWLK* NGGPSSGAPPPS-NH 2 (SEQ ID NO. 11) K* QMEEEAVRLFIEWLK* NGGPSSGAPPPS-NH 2 (SEQ ID NO. 12) where, in the foregoing formulae to, "K*" indicates that the amino group of the side chain of the lysine is protected by a protecting group, and "-NH 2 " indicates that the carboxyl group at the C-terminus is amidated. a polypeptide represented by any one of the following formulae to; a polypeptide obtained by deletion, insertion, or substitution of one or two amino acids with respect to a polypeptide represented by any one of the following formulae to, the polypeptide being capable of binding to pancreatic islets after being labeled and deprotected; and a polypeptide having a homology of 95% or higher with any one of the amino acid sequences of polypeptides represented by the following formulae to, the polypeptide being capable of binding to pancreatic islets after being labeled and deprotected, DLSK* QMEEEAVRLFIEWLK* NGGPSSGAPPPS-NH 2 (SEQ ID NO. 9) LSK* QMEEEAVRLFIEWLK* NGGPSSGAPPPS-NH 2 (SEQ ID NO. 10) SK* QMEEEAVRLFIEWLK* NGGPSSGAPPPS-NH 2 (SEQ ID NO. 11) K* QMEEEAVRLFIEWLK* NGGPSSGAPPPS-NH 2 (SEQ ID NO. 12) DLSK* QMEEEAVRLFIEWLK* NGGPSSGAPPPS-NH 2 (SEQ ID NO. 9) LSK* QMEEEAVRLFIEWLK* NGGPSSGAPPPS-NH 2 (SEQ ID NO. 10) SK* QMEEEAVRLFIEWLK* NGGPSSGAPPPS-NH 2 (SEQ ID NO. 11) K* QMEEEAVRLFIEWLK* NGGPSSGAPPPS-NH 2 (SEQ ID NO. 12) where, in the foregoing formulae to, "K*" indicates that the amino group of the side chain of the lysine is protected by a protecting group, and "-NH 2 " indicates that the carboxyl group at the C-terminus is amidated.
A lubricant composition comprising: a perfluoropolyether as a base oil; and fluorine resin particles as a thickener, wherein the lubricant composition further comprises a fluorine-containing polymer having a tetrafluoroethylene structure under a state in which the fluorine-containing polymer is dissolved in the perfluoropolyether, characterized in that, the fluorine resin particles are particles of polytetrafluoroethylene, the fluorine-containing polymer has a structure represented by the structural formula or the structural formula: where n7 and m7 each independently represent an integer of 1 or more, where n8 and m8 each represent an integer of 1 or more, the content of the fluorine resin particles in the lubricant composition is 10 mass% to 50 mass%, and wherein an amount of the fluorine-containing polymer dissolved in the perfluoropolyether with respect to the perfluropolyether is from 0.05 mass% to 10.00 mass%, the amount of the fluorine-containing polymer dissolved in the perfluoropolyether is determined in accordance with the method described in the specification. a perfluoropolyether as a base oil; and fluorine resin particles as a thickener, wherein the lubricant composition further comprises a fluorine-containing polymer having a tetrafluoroethylene structure under a state in which the fluorine-containing polymer is dissolved in the perfluoropolyether, characterized in that, the fluorine resin particles are particles of polytetrafluoroethylene, the fluorine-containing polymer has a structure represented by the structural formula or the structural formula: where n7 and m7 each independently represent an integer of 1 or more, where n8 and m8 each represent an integer of 1 or more, where n7 and m7 each independently represent an integer of 1 or more, where n8 and m8 each represent an integer of 1 or more, the content of the fluorine resin particles in the lubricant composition is 10 mass% to 50 mass%, and wherein an amount of the fluorine-containing polymer dissolved in the perfluoropolyether with respect to the perfluropolyether is from 0.05 mass% to 10.00 mass%, the amount of the fluorine-containing polymer dissolved in the perfluoropolyether is determined in accordance with the method described in the specification.
A mobile terminal, comprising: a display unit configured to display screen information related to the execution of an application; a wireless communication unit configured to receive a call signal from at least one other terminal; and a controller configured to: display call related information on the display unit when the call signal is received, wherein the screen information is no longer displayed on the display unit when the call related information is displayed, and transmit, via the wireless communication unit, the screen information displayed on the display unit of the mobile terminal before the call signal was received to an external terminal if a call connection is successfully established between the mobile terminal and said at least one other terminal, wherein the screen information displayed on the mobile terminal before the call signal was received is displayed on a display unit of the external terminal while a phone call function is performed in the mobile terminal. a display unit configured to display screen information related to the execution of an application; a wireless communication unit configured to receive a call signal from at least one other terminal; and a controller configured to: display call related information on the display unit when the call signal is received, wherein the screen information is no longer displayed on the display unit when the call related information is displayed, and transmit, via the wireless communication unit, the screen information displayed on the display unit of the mobile terminal before the call signal was received to an external terminal if a call connection is successfully established between the mobile terminal and said at least one other terminal, wherein the screen information displayed on the mobile terminal before the call signal was received is displayed on a display unit of the external terminal while a phone call function is performed in the mobile terminal. display call related information on the display unit when the call signal is received, wherein the screen information is no longer displayed on the display unit when the call related information is displayed, and transmit, via the wireless communication unit, the screen information displayed on the display unit of the mobile terminal before the call signal was received to an external terminal if a call connection is successfully established between the mobile terminal and said at least one other terminal, wherein the screen information displayed on the mobile terminal before the call signal was received is displayed on a display unit of the external terminal while a phone call function is performed in the mobile terminal.
A power conversion device comprising: a plurality of power units, each of which is provided with a power conversion circuit; a plurality of wires through which power is input and output with respect to the plurality of power units; and a cooling device that supplies a liquid refrigerant to the plurality of power units; and a plurality of pipes that connect the plurality of power units and the cooling device, wherein a space is provided in the center portion of the power conversion device to gather the plurality of wires and the plurality of pipes, and main circuit terminals (216, 226, 236, 246) that connect the plurality of wires to the plurality of power units, a plurality of power-unit-side pipe connectors (214, 215) that connect the plurality of pipes to the plurality of power units, and a plurality of cooling-device-side pipe connectors (351, 361) that connect the plurality of pipes to the cooling device are disposed at positions abutting on the space. a plurality of power units, each of which is provided with a power conversion circuit; a plurality of wires through which power is input and output with respect to the plurality of power units; and a cooling device that supplies a liquid refrigerant to the plurality of power units; and a plurality of pipes that connect the plurality of power units and the cooling device, wherein a space is provided in the center portion of the power conversion device to gather the plurality of wires and the plurality of pipes, and main circuit terminals (216, 226, 236, 246) that connect the plurality of wires to the plurality of power units, a plurality of power-unit-side pipe connectors (214, 215) that connect the plurality of pipes to the plurality of power units, and a plurality of cooling-device-side pipe connectors (351, 361) that connect the plurality of pipes to the cooling device are disposed at positions abutting on the space.
A staining agent for tissue staining, comprising, as a staining component, dye-resin particles containing thermosetting resin particles and a fluorescent dye immobilized on said resin particles, wherein said resin particles contains a substituent having an electric charge opposite to that of said fluorescent dye and forms an ionic bond or a covalent bond with said fluorescent dye, and said dye-resin particles have a particle size variation coefficient of 15% or less, wherein the ratio, the molecular weight of said fluorescent dye per molecule/the number of charged substituents, is less than 400.
A method for controlling a power amplifier operating in a non-linear state, comprising: inputting a signal to be amplified (x(n)) to a pre-distorter provided for compensating for non-linearity of the power amplifier; forwarding the pre-distorted output signal (y(n)) from the pre-distorter to the power amplifier; adapting parameters of the pre-distorter based on an error between the linearized signal (z(n)) output from the power amplifier and the signal to be amplified (x(n)) using an adaptive direct learning algorithm; and solving the linear system of equations formed by the direct learning algorithm using a conjugate gradient algorithm, wherein, once per direct learning algorithm adaptation, at least one of the initial residual and the initial direction of the conjugate gradient algorithm are set based on the result of the previous adaptation, characterized in that an error scaling factor is introduced in the adaptive direct learning algorithm, so as to fulfill the following equation: y n = x n − μ ∗ e n wherein y is the pre-distorted signal vector, x is a vector of the signal to be amplified (x(n)), e is the error vector, μ is the error scaling factor, and indicates the adaptation number, and wherein the error scaling factor is set to a value smaller than 1.0. inputting a signal to be amplified (x(n)) to a pre-distorter provided for compensating for non-linearity of the power amplifier; forwarding the pre-distorted output signal (y(n)) from the pre-distorter to the power amplifier; adapting parameters of the pre-distorter based on an error between the linearized signal (z(n)) output from the power amplifier and the signal to be amplified (x(n)) using an adaptive direct learning algorithm; and solving the linear system of equations formed by the direct learning algorithm using a conjugate gradient algorithm, wherein, once per direct learning algorithm adaptation, at least one of the initial residual and the initial direction of the conjugate gradient algorithm are set based on the result of the previous adaptation, characterized in that an error scaling factor is introduced in the adaptive direct learning algorithm, so as to fulfill the following equation: y n = x n − μ ∗ e n wherein y is the pre-distorted signal vector, x is a vector of the signal to be amplified (x(n)), e is the error vector, μ is the error scaling factor, and indicates the adaptation number, and wherein the error scaling factor is set to a value smaller than 1.0. wherein y is the pre-distorted signal vector, x is a vector of the signal to be amplified (x(n)), e is the error vector, μ is the error scaling factor, and indicates the adaptation number, and wherein the error scaling factor is set to a value smaller than 1.0.
A planetary gear system comprising: (a) a flywheel; (b) an axle shaft having a first end and a second end, the axle shaft is disposed through a center of the flywheel, the flywheel rotates independently of the axle shaft; (c) a sun gear disposed around the axle shaft and fixedly attached to the flywheel, the sun gear rotates independently of the axle shaft; (d) a first crank and a second crank fixedly attached to the first end and the second end of the axle shaft, respectively; (e) a planet carrier fixedly attached to the axle shaft; (f) a ring gear; (g) at least one planet gear wheel rotatably attached to the planet carrier, the planet gear wheel can rotate independently of the planet carrier, an outer surface of the planet gear wheel engages both an inner surface of the ring gear and an outer surface of the sun gear; wherein rotation of the axle shaft in a first direction via the cranks in turn rotates the planet carrier in the first direction, thereby causing the planet gear wheel to rotate in a second direction within the ring gear, rotation of the planet gear wheel in the second direction causes the sun gear and the flywheel to together rotate in the first direction. (a) a flywheel; (b) an axle shaft having a first end and a second end, the axle shaft is disposed through a center of the flywheel, the flywheel rotates independently of the axle shaft; (c) a sun gear disposed around the axle shaft and fixedly attached to the flywheel, the sun gear rotates independently of the axle shaft; (d) a first crank and a second crank fixedly attached to the first end and the second end of the axle shaft, respectively; (e) a planet carrier fixedly attached to the axle shaft; (f) a ring gear; (g) at least one planet gear wheel rotatably attached to the planet carrier, the planet gear wheel can rotate independently of the planet carrier, an outer surface of the planet gear wheel engages both an inner surface of the ring gear and an outer surface of the sun gear;
A method of manufacturing a porous glass preform for an optical fiber comprising: depositing glass particles on an outer periphery of a target rod while a burner for synthesizing glass particles and the target rod that is rotating are relatively reciprocated, the glass particles being synthesized by a glass making feedstock gas and a combustion gas being supplied to the burner, wherein V and r are gradually reduced when a glass particle deposition layer of a portion satisfying a relation 0.5 L ≤ R ≤ 0.8 L is synthesized; where a final outer diameter of the manufactured porous glass preform for an optical fiber is L [mm], an outer diameter of a glass particle deposition body in the middle of the manufacture is R [mm], a rotating speed of the target rod is r [rpm], and a relative moving speed between the target rod and the burner is V [mm/min.], characterized in that a variation in sweeping pitch P [mm] expressed as V/r is caused to be within a range of a central value ± 10%. depositing glass particles on an outer periphery of a target rod while a burner for synthesizing glass particles and the target rod that is rotating are relatively reciprocated, the glass particles being synthesized by a glass making feedstock gas and a combustion gas being supplied to the burner, wherein V and r are gradually reduced when a glass particle deposition layer of a portion satisfying a relation 0.5 L ≤ R ≤ 0.8 L is synthesized; where a final outer diameter of the manufactured porous glass preform for an optical fiber is L [mm], an outer diameter of a glass particle deposition body in the middle of the manufacture is R [mm], a rotating speed of the target rod is r [rpm], and a relative moving speed between the target rod and the burner is V [mm/min.], characterized in that a variation in sweeping pitch P [mm] expressed as V/r is caused to be within a range of a central value ± 10%.
An angle adjustment mechanism for LED bar lighting, comprising: a lamp body; two end covers respectively arranged on two ends of the lamp body along an axial direction thereof, each of the two end covers comprising a threading pipe extending along the axial direction of the lamp body; two lamp frames respectively mounted on the two threading pipes; two wheel gears respectively fixed on the two lamp frames, each of the two wheel gears comprising a plurality of gear teeth along a radial direction thereof and rotating around the threading pipe; two outer end caps respectively fixed and covered on the two end covers; and at least two stopping plates respectively received in the two lamp frames, each of the stopping plates providing at least one stopping tooth which is coupling to the gear teeth, characterized in that said wheel gear comprises a mounting portion in one end thereof along an axial direction of the wheel gear, and at least one ear extending along the radial direction of the wheel gear, the lamp frame provides a through hole disposed on the mounting portion, and at least one opening configured for receiving the ear. a lamp body; two end covers respectively arranged on two ends of the lamp body along an axial direction thereof, each of the two end covers comprising a threading pipe extending along the axial direction of the lamp body; two lamp frames respectively mounted on the two threading pipes; two wheel gears respectively fixed on the two lamp frames, each of the two wheel gears comprising a plurality of gear teeth along a radial direction thereof and rotating around the threading pipe; two outer end caps respectively fixed and covered on the two end covers; and at least two stopping plates respectively received in the two lamp frames, each of the stopping plates providing at least one stopping tooth which is coupling to the gear teeth, characterized in that said wheel gear comprises a mounting portion in one end thereof along an axial direction of the wheel gear, and at least one ear extending along the radial direction of the wheel gear, the lamp frame provides a through hole disposed on the mounting portion, and at least one opening configured for receiving the ear.
A radio frequency, RF, power semiconductor device (200, 300, 400), wherein the device comprises: a first non-linear filter network configured to pre-distort an input signal for a compound semiconductor power amplifier to compensate for narrowband distortion of the compound semiconductor power amplifier caused by charge trapping effects as the compound semiconductor power amplifier is charged from low to high power, wherein the first non-linear filter network comprises a corrective element configured to receive an envelope of the input signal and correct for a non-linear portion of the power amplifier, and a first plurality of infinite impulse response, IIR, filters (262A, 264A, 266A) arranged in series, wherein the output of the corrective element is provided to the first plurality of IIR filters (262A, 264A, 266A), wherein the first plurality of IIR filters are arranged to function as a Laguerre filter, and wherein the first non-linear filter network is configured to: generate a low frequency gain term based on outputs from the first plurality of IIR filters, wherein the low frequency gain term represents a narrowband frequency correction gain, and pre-distort the input signal using the low frequency gain term. a first non-linear filter network configured to pre-distort an input signal for a compound semiconductor power amplifier to compensate for narrowband distortion of the compound semiconductor power amplifier caused by charge trapping effects as the compound semiconductor power amplifier is charged from low to high power, wherein the first non-linear filter network comprises a corrective element configured to receive an envelope of the input signal and correct for a non-linear portion of the power amplifier, and a first plurality of infinite impulse response, IIR, filters (262A, 264A, 266A) arranged in series, wherein the output of the corrective element is provided to the first plurality of IIR filters (262A, 264A, 266A), wherein the first plurality of IIR filters are arranged to function as a Laguerre filter, and wherein the first non-linear filter network is configured to: generate a low frequency gain term based on outputs from the first plurality of IIR filters, wherein the low frequency gain term represents a narrowband frequency correction gain, and pre-distort the input signal using the low frequency gain term. generate a low frequency gain term based on outputs from the first plurality of IIR filters, wherein the low frequency gain term represents a narrowband frequency correction gain, and pre-distort the input signal using the low frequency gain term.
A high stability ink delivery system (32, 50), comprising: a secondary ink reservoir located between a primary ink reservoir and a printhead in a printing system; a pressure sensor positioned on an ink delivery conduit between the secondary ink reservoir and the printhead, the pressure sensor configured to measure pressure within the ink delivery conduit and output a signal corresponding to the measured pressure; and a valve; characterized in that the secondary ink reservoir is configured to be opened, during printing, to the atmosphere through the valve, based on the output signal of the pressure sensor. a secondary ink reservoir located between a primary ink reservoir and a printhead in a printing system; a pressure sensor positioned on an ink delivery conduit between the secondary ink reservoir and the printhead, the pressure sensor configured to measure pressure within the ink delivery conduit and output a signal corresponding to the measured pressure; and a valve; characterized in that the secondary ink reservoir is configured to be opened, during printing, to the atmosphere through the valve, based on the output signal of the pressure sensor.
Oven door for closing the loading opening of the cooking compartment of an especially pyrolytic self-cleaning oven, with a disc (1, 4) on the front side and on the cooking compartment side, preferably made from glass material, which discs (1, 4) delimit a cavity, in which at least one heat-conducting plate consisting of a good heat-conducting material is disposed at a minimal distance from the front disc, wherein the heat-conducting plate is supported on the front disc and defines a distance (a) between the disc and heat-conducting plate, characterised in that the support and retention of the defined distance is carried out by a number of small, preferably punctiform shapes of the heat-conducting plate.