mhurhangee/ep-ind-claims huggingface dataset:
A package, comprising: a cup configured to accommodate and support a content; a guiding sleeve disposed around the cup, the cup being movable in the guiding sleeve in an axial direction of the guiding sleeve; a driving sleeve for driving the cup to move in the axial direction, the driving sleeve being disposed around the guiding sleeve; and an outer housing disposed around the driving sleeve and coupled to the driving sleeve, wherein the guiding sleeve is detachably coupled to the driving sleeve and is rotatable relative to the driving sleeve in a circumferential direction, characterised in that the outer housing comprises a top end and a bottom end opposite to one another in the axial direction, each of the top end and the bottom end being provided with an opening, the outer housing being detachably coupled to the driving sleeve, so that an assembly constituted by the driving sleeve, the guiding sleeve and the cup is capable to be separated from the outer housing from the bottom end of the outer housing. a cup configured to accommodate and support a content; a guiding sleeve disposed around the cup, the cup being movable in the guiding sleeve in an axial direction of the guiding sleeve; a driving sleeve for driving the cup to move in the axial direction, the driving sleeve being disposed around the guiding sleeve; and an outer housing disposed around the driving sleeve and coupled to the driving sleeve, wherein the guiding sleeve is detachably coupled to the driving sleeve and is rotatable relative to the driving sleeve in a circumferential direction, characterised in that the outer housing comprises a top end and a bottom end opposite to one another in the axial direction, each of the top end and the bottom end being provided with an opening, the outer housing being detachably coupled to the driving sleeve, so that an assembly constituted by the driving sleeve, the guiding sleeve and the cup is capable to be separated from the outer housing from the bottom end of the outer housing.
A device for reducing secondary airflow in a gas turbine, the device comprising: an inter-stage sealing member located between a plurality of first turbine buckets attached to a first rotor disk and a plurality of second turbine buckets attached to a second rotor disk, the first rotor disk and the second rotor disk being rotatable about a central axis, the inter-stage sealing member being a circumferentially segmented structure including a plurality of segments and a sealing feature disposed between each of the plurality of segments; and an inter-stage rotor disk coupled to and supporting the sealing member in a fixed position relative to the first rotor disk and the second rotor disk; wherein the inter-stage sealing member is configured to contact the plurality of first buckets and the plurality of second buckets in a sealing engagement. an inter-stage sealing member located between a plurality of first turbine buckets attached to a first rotor disk and a plurality of second turbine buckets attached to a second rotor disk, the first rotor disk and the second rotor disk being rotatable about a central axis, the inter-stage sealing member being a circumferentially segmented structure including a plurality of segments and a sealing feature disposed between each of the plurality of segments; and an inter-stage rotor disk coupled to and supporting the sealing member in a fixed position relative to the first rotor disk and the second rotor disk; wherein the inter-stage sealing member is configured to contact the plurality of first buckets and the plurality of second buckets in a sealing engagement.
A method performed by a system for estimating crosstalk between a first electrical transmission line and a second electrical transmission line, the method comprising: obtaining measurements of a received near end crosstalk, NEXT, signal, the NEXT signal being received at a first end of the second transmission line over a time period as a result of an electrical signal sent onto the first transmission line from its first end, the obtained measurements being in the time domain; determining a level of NEXT measurement noise floor at the first end of the second transmission line; obtaining a crosstalk coupling estimate per transmission line sub-interval (X 1, X 2, X 3, X 4, X 5) by compensating the obtained measurements in the time domain of the received NEXT signal for round-trip attenuation of the sent signal from the first end of the first line to the sub-interval and back to the first end of the second line, wherein the crosstalk coupling estimate per transmission line sub-interval is obtained by only compensating the obtained measurements for round-trip attenuation for the obtained measurements of NEXT signal that are at least an amount stronger than the determined NEXT measurement noise floor; and obtaining an estimate of a total crosstalk coupling by adding together at least some of the obtained crosstalk coupling estimates per transmission line sub-interval. obtaining measurements of a received near end crosstalk, NEXT, signal, the NEXT signal being received at a first end of the second transmission line over a time period as a result of an electrical signal sent onto the first transmission line from its first end, the obtained measurements being in the time domain; determining a level of NEXT measurement noise floor at the first end of the second transmission line; obtaining a crosstalk coupling estimate per transmission line sub-interval (X 1, X 2, X 3, X 4, X 5) by compensating the obtained measurements in the time domain of the received NEXT signal for round-trip attenuation of the sent signal from the first end of the first line to the sub-interval and back to the first end of the second line, wherein the crosstalk coupling estimate per transmission line sub-interval is obtained by only compensating the obtained measurements for round-trip attenuation for the obtained measurements of NEXT signal that are at least an amount stronger than the determined NEXT measurement noise floor; and obtaining an estimate of a total crosstalk coupling by adding together at least some of the obtained crosstalk coupling estimates per transmission line sub-interval.
Control block having at least one receptacle for at least one valve, an inlet and an outlet, wherein the at least one valve has two ports (7, 8), which are connected fluidically to different pressure spaces (5, 5') and, in a manner dependent on the actuation of the at least one valve, fluidically connect the pressure spaces (5, 5'), wherein the at least two pressure spaces (5, 5') are lined in each case with a diaphragm at the inside on one side, the diaphragm in each case being supported at least partially by a support, characterized in that the support is mounted in the control block, and wherein the support, by means of its shape and/or by means of its limited elasticity, limits the changes in shape of the diaphragm at pressures in the at least two pressure spaces (5, 5') that occur during operation to elastic changes in shape.
Electric heating device with a casing which forms inlet and outlet openings (10; 12) for a fluid to be heated and a circulation chamber, communicating with said inlet and outlet openings (10; 12), into which at least one PTC heating element with at least one PTC element projects which is for electrical contact provided with contact strips which are exposed in a connection chamber which is separated from said circulation chamber by way a fluid tight partition wall, where said casing further forms a control chamber for accommodating a control device which with regard to controlling is coupled to said at least one PTC heating element, characterized by an integrally formed casing base member made of plastic material which forms said partition wall and walls (52, 58) which circumferentially surround said circulation chamber and said connection chamber.
A pharmaceutical composition comprising a compound selected from 2-(tetradecylamino)propane-1,3-diol, also designated herein as AD2750; 2-(hexadecylamino)propane-1,3-diol, also designated herein as ADYZ252; 2-(dodecylamino)propane-1,3-diol, also designated hererin as ADYZ74; 2-(hexadecylamino)-2-(hydroxymethyl)propane-1,3-diol, also designated herein as ADYZ243; 2-(decylamino)-2-(hydroxymethyl)propane-1,3-diol, also designated herein as ADYZ195; 2-(tetradecylamino)-2-(hydroxymethyl)propane-1,3-diol, also designated herein ADYZ196; 2-(octadecylamino)-2-(hydroxymethyl)propane-1,3-diol, also designated herein ADYZ197;or a pharmaceutically acceptable salt or isomer thereof, and at least one pharmaceutically acceptable carrier, diluent, excipient and/or additive for use in the treatment of a pathological disorder selected from the group consisting of proliferative disorders, immune-related disorders, neurodegenerative disorders, infectious diseases and metabolism-associated conditions.
A method for flling and packing a gas and a liquid material by filling the gas in an amount corresponding to 2-40 vol% of the volume of the liquid material together with the liquid material into a package bag composed of plastic films through an unsealed opening portion thereof and then sealing the unsealed opening portion by heat sealing, characterized in that the gas is previously dispersed and incorporated in form of microbubbles having a diameter of not more than 50 μm in to the liquid material and filled into in the package bag at a state of microbubble-containing liquid material, or the gas is filled while generating as microbubbles having a diameter of not more than 50 μm in the liquid material previously supplied to the package bag.
A decoding method in an artificial neural network for speech recognition, said artificial neural network being trained according to the training method of any one of claims 8 to 10, the decoding method comprising: performing a first decoding task (410, 540) of decoding a feature including speech information and at least one token recognized up to a current point in time, using a shared decoding layer of a multitask artificial neural network included in the artificial neural network; performing a second decoding task (420, 550) of decoding the at least one token using the shared decoding layer; and determining an output token to be recognized subsequent to the at least one token based on a result of the first decoding task and a result of the second decoding task (430, 560). performing a first decoding task (410, 540) of decoding a feature including speech information and at least one token recognized up to a current point in time, using a shared decoding layer of a multitask artificial neural network included in the artificial neural network; performing a second decoding task (420, 550) of decoding the at least one token using the shared decoding layer; and determining an output token to be recognized subsequent to the at least one token based on a result of the first decoding task and a result of the second decoding task (430, 560).
Watercraft, comprising: a hull for the accommodation of at least one payload, wherein the hull is the only hull of the watercraft; a wing which is connected to the hull by means of a rope and is configured to transmit a wind force to the rope; and a plurality of profile elements (6 - 9) which are attached to the hull and which are each configured to be pulled through the water while traveling, wherein the profile elements (6 - 9) each comprise a first profile section, which is substantially perpendicular in the water, and a second profile section, which is arranged substantially perpendicularly in the water with respect to the first profile section, wherein the respective entire profile element (6 - 9) is rotatably connected to the hull about an axis and wherein the setting angle of the respective first profile section is adjustable by rotating the respective entire profile element (6 - 9) with respect to the hull, wherein the respective second profile section is rotatably supported with respect to the respective first profile section about a further axis, wherein the respective second profile section is controllable by adjusting its setting angle for selectively generating an upward force (Fauf) for a planing of the hull and a downward force (Fab) in such a way that the upward forces and downward forces (Fauf, Fab) generate a moment which counteracts a heeling of the hull generated by the wind force. a hull for the accommodation of at least one payload, wherein the hull is the only hull of the watercraft; a wing which is connected to the hull by means of a rope and is configured to transmit a wind force to the rope; and a plurality of profile elements (6 - 9) which are attached to the hull and which are each configured to be pulled through the water while traveling, wherein the profile elements (6 - 9) each comprise a first profile section, which is substantially perpendicular in the water, and a second profile section, which is arranged substantially perpendicularly in the water with respect to the first profile section, wherein the respective entire profile element (6 - 9) is rotatably connected to the hull about an axis and wherein the setting angle of the respective first profile section is adjustable by rotating the respective entire profile element (6 - 9) with respect to the hull, wherein the respective second profile section is rotatably supported with respect to the respective first profile section about a further axis, wherein the respective second profile section is controllable by adjusting its setting angle for selectively generating an upward force (Fauf) for a planing of the hull and a downward force (Fab) in such a way that the upward forces and downward forces (Fauf, Fab) generate a moment which counteracts a heeling of the hull generated by the wind force.
A computer-implemented method of detecting objects in images recorded by a camera (310, 406) of a head mounted device, the method comprising: performing eye-tracking while recording the images; determining a region of interest of an image recorded by the camera (310, 406) based upon the eye-tracking; generating a bounding box identifying the region of interest; cropping the image based upon the bounding box to generate a cropped image; performing a fine cropping of the cropped image to generate a fine cropped image using a saliency map; and detecting an object in the fine cropped image, wherein detecting the object in the fine cropped image comprises performing deep learning, and wherein determining the region of interest of the image based upon the eye-tracking comprises obtaining depth information of objects in the image from a depth camera, obtaining depth information of a detected gaze point of a user by intersection of left and right eye tracking information and determining a boundary of the object where the user is focusing as the region of interest based on the depth information of the objects in the image and the depth information of the detected gaze point. performing eye-tracking while recording the images; determining a region of interest of an image recorded by the camera (310, 406) based upon the eye-tracking; generating a bounding box identifying the region of interest; cropping the image based upon the bounding box to generate a cropped image; performing a fine cropping of the cropped image to generate a fine cropped image using a saliency map; and detecting an object in the fine cropped image, wherein detecting the object in the fine cropped image comprises performing deep learning, and wherein determining the region of interest of the image based upon the eye-tracking comprises obtaining depth information of objects in the image from a depth camera, obtaining depth information of a detected gaze point of a user by intersection of left and right eye tracking information and determining a boundary of the object where the user is focusing as the region of interest based on the depth information of the objects in the image and the depth information of the detected gaze point.
A laser scanner, comprising: an optical source configured to emit a laser beam; and an optical deflector configured to deflect the laser beam emitted from the optical source to scan an object with the laser beam deflected thereby, wherein the optical deflector comprises: a reflecting mirror; and a motor configured to rotate the reflecting mirror around a bar: characterized in that the optical deflector comprises: a first member fixed on a shaft of the motor, configured to rotate with the shaft; and a second member fixed on the bar, wherein one of the first member and the second member comprises a projection and the other thereof comprises a receptor into which the projection is inserted; the shaft and bar are separate from each other; and the first and second member engage through the projection and receptor which are slidable with respect to each other in a radial direction of the shaft to transmit rotation of the shaft to the mirror whilst preventing transmission of eccentricity of the shaft. an optical source configured to emit a laser beam; and an optical deflector configured to deflect the laser beam emitted from the optical source to scan an object with the laser beam deflected thereby, wherein the optical deflector comprises: a reflecting mirror; and a motor configured to rotate the reflecting mirror around a bar: a reflecting mirror; and a motor configured to rotate the reflecting mirror around a bar: characterized in that the optical deflector comprises: a first member fixed on a shaft of the motor, configured to rotate with the shaft; and a second member fixed on the bar, a first member fixed on a shaft of the motor, configured to rotate with the shaft; and a second member fixed on the bar, wherein one of the first member and the second member comprises a projection and the other thereof comprises a receptor into which the projection is inserted; the shaft and bar are separate from each other; and the first and second member engage through the projection and receptor which are slidable with respect to each other in a radial direction of the shaft to transmit rotation of the shaft to the mirror whilst preventing transmission of eccentricity of the shaft.
An automatic node adding method of a blockchain integrated station, comprising: receiving, by the blockchain integrated station, a first configuration instruction after accessing a certificate authority network, wherein the first configuration instruction indicates a first network address corresponding to a certificate authority center, wherein the first network address is configured by a user or pre-configured in the blockchain integrated station in factory settings; initiating an authentication application to the certificate authority center according to the first network address indicated in the first configuration instruction; receiving a digital certificate returned by the certificate authority center after the certificate authority center determines the authentication application passes verification; receiving, by the blockchain integrated station, a second configuration instruction after accessing a blockchain network, wherein the second configuration instruction indicates a second network address corresponding to a first blockchain node in the blockchain network, wherein the second network address is configured by the user or pre-configured in the blockchain integrated station upon leaving factory; and sending the digital certificate to the first blockchain node in the blockchain network according to the second network address indicated in the second configuration instruction, wherein the digital certificate is used to trigger the first blockchain node to add the blockchain integrated station as a newly-added blockchain node in the blockchain network. receiving, by the blockchain integrated station, a first configuration instruction after accessing a certificate authority network, wherein the first configuration instruction indicates a first network address corresponding to a certificate authority center, wherein the first network address is configured by a user or pre-configured in the blockchain integrated station in factory settings; initiating an authentication application to the certificate authority center according to the first network address indicated in the first configuration instruction; receiving a digital certificate returned by the certificate authority center after the certificate authority center determines the authentication application passes verification; receiving, by the blockchain integrated station, a second configuration instruction after accessing a blockchain network, wherein the second configuration instruction indicates a second network address corresponding to a first blockchain node in the blockchain network, wherein the second network address is configured by the user or pre-configured in the blockchain integrated station upon leaving factory; and sending the digital certificate to the first blockchain node in the blockchain network according to the second network address indicated in the second configuration instruction, wherein the digital certificate is used to trigger the first blockchain node to add the blockchain integrated station as a newly-added blockchain node in the blockchain network.
Apparatus for curling hair (1, 10) comprising first and second side portions (2, 12, 3, 13) which are secured together in a spaced apart relationship via a connector portion (4, 14), the connector portion (4, 14) being positioned substantially centrally with respect to each side portion (2, 12, 3, 13); wherein the connector portion has a length of not more than 20 mm and, the side portions (2, 12, 3, 13) each having a width that is at least three times larger than the length of the connector portion, wherein the apparatus is fabricated from resilient and thermally conductive silicon rubber and wherein either: each of the first and second side portions are substantially flat; or one of the first and second side portions is substantially flat and the other of the first and second side portions is curved; and wherein the apparatus allows for transfer of heat from heater plates clamped around the first and second side portions to hair that has been wound around the connector portion. each of the first and second side portions are substantially flat; or one of the first and second side portions is substantially flat and the other of the first and second side portions is curved; and wherein the apparatus allows for transfer of heat from heater plates clamped around the first and second side portions to hair that has been wound around the connector portion.
An imaging device for a binocular indirect ophthalmoscope, comprising: one or more camera, wherein the one or more camera is optionally provided by a cartridge comprising the one or more camera; a mounting bracket capable of removably attaching the one or more camera or the cartridge to a binocular indirect ophthalmoscope; wherein the mounting bracket comprises an opening or window configured such that when the mounting bracket is attached to the one or more camera or cartridge and to the binocular indirect ophthalmoscope, the opening or window permits incident light from an eye or portion of an eye being examined to transmit to a patient-facing front viewport of the binocular indirect ophthalmoscope; one or more computer processing unit, memory unit, and/or communication device for sending one or more electronic still and/or video images from the one or more camera to an electronic device by way of a wired or wireless connection and/or for storing the one or more electronic still and/or video images on the one or more memory unit; characterized by a beamsplitter, wherein the incident light from the eye or portion of the eye being examined is partially transmitted to the patient-facing front viewport or a front viewing window of the binocular indirect ophthalmoscope and partially directed to the one or more camera; and a power source.