mhurhangee/patent-ind-claim-en huggingface dataset:
A method for manufacturing a sheet having a fine shape transferred thereon comprising the steps of: placing a sheet-like material made from a thermoplastic resin between an imprint mold having an imprinting surface provided with the fine shapes of texture and an intermediate base ; and pressing the imprint mold and the intermediate base in a direction toward the sheet-like material by a pair of pressing plates so that the fine shapes of texture are imprinted on the sheet-like material , wherein the sheet-like material is pressed such that, when pressing force of the pressing plates is maximized, an imprinting pressure difference is present in an imprinting surface of the imprint mold , a maximum imprinting pressure section is present in the imprinting surface , and a portion where the imprinting pressure (P2) has a minimum value is not present in the imprinting surface ; and the intermediate base has an imprinting surface having a fine a texture so that the fine shapes of texture are imprinted on a surface opposed to the intermediate base of the sheet-like material , and wherein the pressing process is carried out such that, when pressing force of the pressing plates is maximized, an imprinting pressure difference is present in an imprinting surface of the intermediate base , a maximum imprinting pressure section is present in the imprinting surface, and a portion where the imprinting pressure has a minimum value is not present in the imprinting surface. placing a sheet-like material made from a thermoplastic resin between an imprint mold having an imprinting surface provided with the fine shapes of texture and an intermediate base ; and pressing the imprint mold and the intermediate base in a direction toward the sheet-like material by a pair of pressing plates so that the fine shapes of texture are imprinted on the sheet-like material , wherein the sheet-like material is pressed such that, when pressing force of the pressing plates is maximized, an imprinting pressure difference is present in an imprinting surface of the imprint mold , a maximum imprinting pressure section is present in the imprinting surface , and a portion where the imprinting pressure (P2) has a minimum value is not present in the imprinting surface ; and the intermediate base has an imprinting surface having a fine a texture so that the fine shapes of texture are imprinted on a surface opposed to the intermediate base of the sheet-like material , and wherein the pressing process is carried out such that, when pressing force of the pressing plates is maximized, an imprinting pressure difference is present in an imprinting surface of the intermediate base , a maximum imprinting pressure section is present in the imprinting surface, and a portion where the imprinting pressure has a minimum value is not present in the imprinting surface.
An auxiliary monitor comprising: a mount including a first rail (1 10a) and a second rail each extending along a first axis and parallel to each other; one or more coupling elements coupled to the mount and configured to be coupled to a backplane surface of a laptop computer ; and a display portion including: a first communications interface configured to be communicatively coupled to a first communications interface of the laptop computer; a display screen configured to display output information; and at least one hinge configured to be slidably coupled to the first rail and the second rail , the display portion being configured to move along the first axis via the at least one hinge to a parallel configuration in which the display screen is configured to be parallel to the laptop computer , the display portion being further configured to rotate 180 degrees about the at least one hinge from the parallel configuration to a tabletized configuration in which the display screen is configured to be antiparallel to the primary display screen of the laptop computer , and is configured to be disposed in a space between the first rail and the second rail . a mount including a first rail (1 10a) and a second rail each extending along a first axis and parallel to each other; one or more coupling elements coupled to the mount and configured to be coupled to a backplane surface of a laptop computer ; and a display portion including: a first communications interface configured to be communicatively coupled to a first communications interface of the laptop computer; a display screen configured to display output information; and at least one hinge configured to be slidably coupled to the first rail and the second rail , the display portion being configured to move along the first axis via the at least one hinge to a parallel configuration in which the display screen is configured to be parallel to the laptop computer , the display portion being further configured to rotate 180 degrees about the at least one hinge from the parallel configuration to a tabletized configuration in which the display screen is configured to be antiparallel to the primary display screen of the laptop computer , and is configured to be disposed in a space between the first rail and the second rail . a first communications interface configured to be communicatively coupled to a first communications interface of the laptop computer; a display screen configured to display output information; and at least one hinge configured to be slidably coupled to the first rail and the second rail , the display portion being configured to move along the first axis via the at least one hinge to a parallel configuration in which the display screen is configured to be parallel to the laptop computer , the display portion being further configured to rotate 180 degrees about the at least one hinge from the parallel configuration to a tabletized configuration in which the display screen is configured to be antiparallel to the primary display screen of the laptop computer , and is configured to be disposed in a space between the first rail and the second rail .
Method to prepare a thermoplastic capstock composition, comprising blending: a.) 15 to 60 parts by weight of a halogen-containing polymer; b.) 1 to 50 part by weight of a thermoplastic polyurethane; c.) at least one acrylic polymer; d.) 10 to 50 parts by weight of at least one styrene acrylonitrile (SAN) copolymer, wherein the acrylic polymer comprises a polyacrylate-styrene-acrylonitrile (ASA) copolymer, wherein the halogen-containing polymer comprises polyvinyl chloride, wherein all said parts are based on 100 total parts by weight of the composition, and wherein the blending is performed at a temperature between 140 and 200 °C. a.) 15 to 60 parts by weight of a halogen-containing polymer; b.) 1 to 50 part by weight of a thermoplastic polyurethane; c.) at least one acrylic polymer; d.) 10 to 50 parts by weight of at least one styrene acrylonitrile (SAN) copolymer, wherein the acrylic polymer comprises a polyacrylate-styrene-acrylonitrile (ASA) copolymer, wherein the halogen-containing polymer comprises polyvinyl chloride, wherein all said parts are based on 100 total parts by weight of the composition, and wherein the blending is performed at a temperature between 140 and 200 °C.
A method of analyzing a probe card , comprising: moving a common support member supporting a radio frequency connector element and a sensor , so that the radio frequency connector element is connected to a selected pin of the probecard , inputting into the probe card a radio frequency test signal, receiving from the probe card a transmitted signal in response to the inputted radio frequency test signal, measuring a magnitude of the transmitted signal, outputting by the sensor, a measurement signal that represents only the magnitude of the transmitted signal. moving a common support member supporting a radio frequency connector element and a sensor , so that the radio frequency connector element is connected to a selected pin of the probecard , inputting into the probe card a radio frequency test signal, receiving from the probe card a transmitted signal in response to the inputted radio frequency test signal, measuring a magnitude of the transmitted signal, outputting by the sensor, a measurement signal that represents only the magnitude of the transmitted signal.
Frame element in a, preferably, fire-protected design, particularly in the form of a fire protection door, consisting of an inner and an outer frame shell which are both connected to one another with spacing and receive between them a panel-shaped two-dimensional element , in particular a glass element, and with holding bars , protruding towards the two-dimensional element , also in the form of releasable glass holding bars, which hold the two-dimensional element between them, wherein the inner and the outer frame shells are connected to one another in addition by way of at least one fire-resistant shell connector , wherein the shell connector is designed as a sheet metal angle, the first leg (5.1) of which is equipped with holding clamps for fastening on preferably T-profile-shaped connecting bars protruding from the frame shells towards the two-dimensional element , while the second leg forms a bearing surface for the two-dimensional element , wherein a supporting slider is arranged on the first leg (5.1) so as to be able to be displaced and fixed, which has a supporting metal sheet (8.1) for the two-dimensional element which is parallel to the second leg (5.2) of the shell connector , characterised in that the second leg is also arranged so as to be displaceable on the first leg and is formed by a second supporting slider .
Beta-component of a transfer system comprising a receiving space , a beta-flange , a casing defining the receiving space , and a beta-closure unit , the beta-closure unit being detachably attached to the beta-flange for opening and closing the receiving space , and the beta-flange and the beta-closure unit being designed for coupling to an alpha-flange and an alpha-closure unit of an alpha-port of the transfer system , characterized in that the beta-component has a holding device for holding an object , in particular a filling needle , in a defined position and orientation, characterized in that the holding device is arranged on a side of the beta-closure unit facing the receiving space , in particular a filling needle being held by the holding device .
A computer-implemented method for efficient frame-to-frame coherency exploitation for sort-last architectures, comprising: storing an identifier associated with a tile of pixels; determining whether the tile of pixels is covered completely by a triangle to be drawn by a first static draw call in a first frame; and setting the identifier associated with the tile of pixels to an identifier associated with the first static draw call in response to a determination that the tile of pixels is covered completely by the triangle from the first static draw call in the first frame; characterized in that determining, in a second frame, whether an identifier of a second static draw call matches the identifier associated with the tile of pixels; and reusing pixel color values of the tile of pixels in the first frame for the pixel color values of the tile of pixels in the second frame, if the identifier of the second static draw call matches the identifier associated with the tile of pixels. storing an identifier associated with a tile of pixels; determining whether the tile of pixels is covered completely by a triangle to be drawn by a first static draw call in a first frame; and setting the identifier associated with the tile of pixels to an identifier associated with the first static draw call in response to a determination that the tile of pixels is covered completely by the triangle from the first static draw call in the first frame; characterized in that determining, in a second frame, whether an identifier of a second static draw call matches the identifier associated with the tile of pixels; and reusing pixel color values of the tile of pixels in the first frame for the pixel color values of the tile of pixels in the second frame, if the identifier of the second static draw call matches the identifier associated with the tile of pixels.
Microchip laser comprising a monolithic resonator , which comprises a birefringent laser crystal , a laser beam coupled out of the resonator and having a laser wavelength emanating from the resonator along a laser beam axis and the length (L) of the resonator in the direction of the laser beam axis being <=50 μm, characterised in that the laser crystal has such a thickness (D) in the direction of the laser beam axis that, when a light beam having the laser wavelength is incident on the laser crystal in the direction of the laser beam axis , a phase shift in the range of n/2 +/- n/4 occurs between the ordinary and the extraordinary ray , into which the light beam splits in the laser crystal , during a single passage through the laser crystal .
A solid-state radar device , comprising: a transmission/reception unit transmits and receives radio wave signals comprising a modulated signal and a non-modulated signal, which are pulse signals whose frequencies are different from each other; a frequency filter unit respectively separates the modulated signal and the non-modulated signal from the received radio wave signals based on the frequencies by using band pass filters; a pulse compression unit generate a pulse-compressed signal by pulse-compressing the modulated signal; a first echo image generation unit generates a first echo image based on the non-modulated signal and the pulse-compressed signal; a wave analysis unit analyzes ocean wave information based on one of the non-modulated signal and the pulse-compressed signal; and a display signal generation unit generates a display signal comprising the first echo image and/or the ocean wave information. a transmission/reception unit transmits and receives radio wave signals comprising a modulated signal and a non-modulated signal, which are pulse signals whose frequencies are different from each other; a frequency filter unit respectively separates the modulated signal and the non-modulated signal from the received radio wave signals based on the frequencies by using band pass filters; a pulse compression unit generate a pulse-compressed signal by pulse-compressing the modulated signal; a first echo image generation unit generates a first echo image based on the non-modulated signal and the pulse-compressed signal; a wave analysis unit analyzes ocean wave information based on one of the non-modulated signal and the pulse-compressed signal; and a display signal generation unit generates a display signal comprising the first echo image and/or the ocean wave information.
An electric blower including: a motor , a single axial fan driven by said motor, wherein said fan includes a hub and a plurality of fan blades engaged with said hub, and a nozzle with an outlet allowing outflow of air from said electric blower through said outlet, said outlet having an outlet area (Ao), characterized in that the motor of the electric blower is operable at a first speed of rotation of substantially 15,000 revolutions per minute (rpm) and a second speed of rotation of substantially 18,000 rpm, and in that the single axial fan has a hub diameter (φ H ) and an outer diameter (φ T ), wherein the ratio φ H φ T is between substantially 0.6 and substantially 0.65, and wherein the ratio A O A F is between substantially 0.25 and substantially 0.35, wherein A F is a flow through area at the single axial fan position. a motor , a single axial fan driven by said motor, wherein said fan includes a hub and a plurality of fan blades engaged with said hub, and a nozzle with an outlet allowing outflow of air from said electric blower through said outlet, said outlet having an outlet area (Ao), characterized in that the motor of the electric blower is operable at a first speed of rotation of substantially 15,000 revolutions per minute (rpm) and a second speed of rotation of substantially 18,000 rpm, and in that the single axial fan has a hub diameter (φ H ) and an outer diameter (φ T ), wherein the ratio φ H φ T is between substantially 0.6 and substantially 0.65, and wherein the ratio A O A F is between substantially 0.25 and substantially 0.35, wherein A F is a flow through area at the single axial fan position.
A pharmaceutical composition comprising: 1-2 part by weight of extract of Schisandra chinensis and 5-10 part by weight of extract of Psidium guajava for use in the treatment of hyperuricemia or gout in a subject.
A method for managing a backup procedure of a transaction backup mode, which can be activated in the event of a computer attack or a failure on a transaction network , implemented by an electronic device able to carry out a transaction in a normal mode or in the backup mode, said method comprising the following steps: • receiving (F340, F455) a command of activation (CA) of said procedure of the backup mode, comprising an identifier of the procedure and a first encrypted data, • verifying (F360) the activation command (CA), comprising a verification of said first encrypted data, • if the verification of the command is successful, activating (F370) the backup procedure (PMS), • after the activation (F370) of the backup procedure (PMS) and following an initialization of a transaction between the electronic device and a reader , sending (F520) a message (M2) to said reader comprising a request to consult (RQ) a normal mode server of the transaction network , and • upon receipt (F540) of a message (M3) indicating that the consultation of the server of the normal mode has failed, sending (F570) to said reader a cryptogram (CR) comprising at least one information on said procedure (PMS). • receiving (F340, F455) a command of activation (CA) of said procedure of the backup mode, comprising an identifier of the procedure and a first encrypted data, • verifying (F360) the activation command (CA), comprising a verification of said first encrypted data, • if the verification of the command is successful, activating (F370) the backup procedure (PMS), • after the activation (F370) of the backup procedure (PMS) and following an initialization of a transaction between the electronic device and a reader , sending (F520) a message (M2) to said reader comprising a request to consult (RQ) a normal mode server of the transaction network , and • upon receipt (F540) of a message (M3) indicating that the consultation of the server of the normal mode has failed, sending (F570) to said reader a cryptogram (CR) comprising at least one information on said procedure (PMS).
A computer-implemented method of predicting thermally induced aberrations of a projection system for projecting a radiation beam, the method comprising: calculating a change in temperature of the projection system from a power of the radiation beam output from the projection system using a dynamic linear function; and calculating the thermally induced aberrations from the calculated change in temperature using a static non-linear function. calculating a change in temperature of the projection system from a power of the radiation beam output from the projection system using a dynamic linear function; and calculating the thermally induced aberrations from the calculated change in temperature using a static non-linear function.
A medical device for spinal tumor ablation, the medical device comprising: a first tubular conductor ; a tubular insulator extending through the first tubular conductor such that a proximal end of the tubular insulator is proximal of the first tubular conductor and a distal end of the tubular insulator is distal of the first tubular conductor; a second tubular conductor extending through the tubular insulator such that a distal portion of the second tubular conductor is disposed distal of the tubular insulator , wherein at least a portion of the second tubular conductor is fixedly disposed relative to the first tubular conductor; and an articulating distal portion of the medical device that is configured to transition from a linear configuration to a non-linear configuration; characterized in that it further comprises, an outer sleeve which is a metallic tube that is attached directly to the distal portion of the second tubular conductor and the outer sleeve is not attached to the first tubular conductor , wherein a majority of the outer sleeve has an outer diameter that is substantially identical to the outer diameter of the first tubular conductor ; wherein the medical device is configured such that, when the medical device is activated for ablation within a vertebra of a patient, an electrical current flows between the distal portion of the second tubular conductor and the first tubular conductor via tissue within the vertebra of the patient. a first tubular conductor ; a tubular insulator extending through the first tubular conductor such that a proximal end of the tubular insulator is proximal of the first tubular conductor and a distal end of the tubular insulator is distal of the first tubular conductor; a second tubular conductor extending through the tubular insulator such that a distal portion of the second tubular conductor is disposed distal of the tubular insulator , wherein at least a portion of the second tubular conductor is fixedly disposed relative to the first tubular conductor; and an articulating distal portion of the medical device that is configured to transition from a linear configuration to a non-linear configuration; characterized in that it further comprises, an outer sleeve which is a metallic tube that is attached directly to the distal portion of the second tubular conductor and the outer sleeve is not attached to the first tubular conductor , wherein a majority of the outer sleeve has an outer diameter that is substantially identical to the outer diameter of the first tubular conductor ; wherein the medical device is configured such that, when the medical device is activated for ablation within a vertebra of a patient, an electrical current flows between the distal portion of the second tubular conductor and the first tubular conductor via tissue within the vertebra of the patient.
An ultrasonic diagnostic apparatus , comprising: an ultrasonic probe which scans an observation region in an object with an ultrasonic wave; and an estimated image generating means including a model having been machine-learned using learning data including first data based on a first received signal that is obtained by one scan of an ultrasonic wave and second data based on a second received signal that is obtained by a plurality of scans, in which a transmission direction or a central frequency of an ultrasonic wave has been changed, wherein the estimated image generating means is adapted to generate, by using the model, an estimated image equivalent to image data obtained by a plurality of scans, in which a transmission direction or a central frequency of an ultrasonic wave has been changed, from third data based on a third received signal that is obtained by one scan of the ultrasonic wave by the ultrasonic probe. an ultrasonic probe which scans an observation region in an object with an ultrasonic wave; and an estimated image generating means including a model having been machine-learned using learning data including first data based on a first received signal that is obtained by one scan of an ultrasonic wave and second data based on a second received signal that is obtained by a plurality of scans, in which a transmission direction or a central frequency of an ultrasonic wave has been changed, wherein the estimated image generating means is adapted to generate, by using the model, an estimated image equivalent to image data obtained by a plurality of scans, in which a transmission direction or a central frequency of an ultrasonic wave has been changed, from third data based on a third received signal that is obtained by one scan of the ultrasonic wave by the ultrasonic probe.