mhurhangee/ep-ind-claims huggingface dataset:
A method of manufacturing a product by the steps of i) injecting a sufficiently heated thermoplastic material into a 1 st cavity to form a preliminary product comprising a collar having a connecting feature located on the inner surface thereof, then ii) optionally cooling the preliminary product of step i), then iii) blow moulding the preliminary product in a 2 nd cavity to form a void volume, wherein steps i) to iii) are performed in a single moulding unit, then iv) removing the finished product produced in step iii) from the single moulding unit i) injecting a sufficiently heated thermoplastic material into a 1 st cavity to form a preliminary product comprising a collar having a connecting feature located on the inner surface thereof, then ii) optionally cooling the preliminary product of step i), then iii) blow moulding the preliminary product in a 2 nd cavity to form a void volume, wherein steps i) to iii) are performed in a single moulding unit, then iv) removing the finished product produced in step iii) from the single moulding unit
A system for additive manufacturing, the system comprising: a delivery guide configured to dispense a curable material to additively manufacture a part in sequential layers of the curable material; and a source of curing energy configured to direct the curing energy to a discrete region of the curable material forward of a location where a subsequent layer of the curable material is dispensed from the delivery guide against a preceding layer of the curable material to cure together the subsequent layer and the preceding layer, wherein the discrete region comprises or consists of a forward side of the curable material as the curable material is being dispensed from the delivery guide to define the subsequent layer, wherein the forward side of the curable material as it is being dispensed is the side of the curable material that comes into contact with the preceding layer as the subsequent layer is dispensed against the preceding layer wherein the curing energy comprises an energy beam; and wherein the source of curing energy comprises a mirror-positioning system configured to actively direct the energy beam to the discrete region. a delivery guide configured to dispense a curable material to additively manufacture a part in sequential layers of the curable material; and a source of curing energy configured to direct the curing energy to a discrete region of the curable material forward of a location where a subsequent layer of the curable material is dispensed from the delivery guide against a preceding layer of the curable material to cure together the subsequent layer and the preceding layer, wherein the discrete region comprises or consists of a forward side of the curable material as the curable material is being dispensed from the delivery guide to define the subsequent layer, wherein the forward side of the curable material as it is being dispensed is the side of the curable material that comes into contact with the preceding layer as the subsequent layer is dispensed against the preceding layer wherein the curing energy comprises an energy beam; and wherein the source of curing energy comprises a mirror-positioning system configured to actively direct the energy beam to the discrete region.
A method comprising: receiving, at data processing hardware, a plurality of recorded speech samples; training, by the data processing hardware, a first autoregressive neural network using the plurality of recorded speech samples, the trained first autoregressive neural network configured to output synthetic speech as an audible representation of a text input; generating, by the data processing hardware, a plurality of synthetic speech samples using the trained first autoregressive neural network; training, by the data processing hardware, a second autoregressive neural network using the plurality of synthetic speech samples from the trained first autoregressive neural network; and distilling, by the data processing hardware, the trained second autoregressive neural network into a feedforward neural network; wherein the feedforward neural network is configured to output synthetic speech without knowledge of one or more prior synthetic speech outputs. receiving, at data processing hardware, a plurality of recorded speech samples; training, by the data processing hardware, a first autoregressive neural network using the plurality of recorded speech samples, the trained first autoregressive neural network configured to output synthetic speech as an audible representation of a text input; generating, by the data processing hardware, a plurality of synthetic speech samples using the trained first autoregressive neural network; training, by the data processing hardware, a second autoregressive neural network using the plurality of synthetic speech samples from the trained first autoregressive neural network; and distilling, by the data processing hardware, the trained second autoregressive neural network into a feedforward neural network; wherein the feedforward neural network is configured to output synthetic speech without knowledge of one or more prior synthetic speech outputs.
A method in a Mobile Switching Center, MSC, server in a wireless network for managing IMS Centralized Services, ICS, sessions, the method comprising: receiving at the MSC server from a Service Centralization and Continuity Application Server, SCC AS,, a first message including an indication that the SCC AS is requesting notification of a change in status of the user terminal; subsequent to receipt of said first message, detecting, at said MSC server, that a user terminal has been transferred from a first access network to a second access network while engaged in a circuit-switched call; in response to said detecting, sending a second message to the SCC AS from the MSC server, the second message indicating that the user terminal has been transferred; and receiving, in response to said second message, one or more requests for MSC server-assisted mid-call feature services for the user terminal to maintain one or more held ICS sessions or conferences; and assigning transaction identifiers to one or more sessions held for the user terminal or to one or more conference participants corresponding to the user terminal, in response to said requests. receiving at the MSC server from a Service Centralization and Continuity Application Server, SCC AS,, a first message including an indication that the SCC AS is requesting notification of a change in status of the user terminal; subsequent to receipt of said first message, detecting, at said MSC server, that a user terminal has been transferred from a first access network to a second access network while engaged in a circuit-switched call; in response to said detecting, sending a second message to the SCC AS from the MSC server, the second message indicating that the user terminal has been transferred; and receiving, in response to said second message, one or more requests for MSC server-assisted mid-call feature services for the user terminal to maintain one or more held ICS sessions or conferences; and assigning transaction identifiers to one or more sessions held for the user terminal or to one or more conference participants corresponding to the user terminal, in response to said requests.
A self-service terminal (10, 110 or 210) comprising: a terminal body (12 or 112) defining a transaction fulfilment area, wherein the terminal body (12 or 112) is approximately waist-high for an average adult person, and provides an upper surface that can be used as a table surface at a teller station; and, a terminal head extending from the terminal body (12 or 112) and defining a transaction request area transverse to the transaction fulfilment area to create a customer zone (24 or 124) defined on one side by the transaction fulfilment area and on another side by the transaction request area. a terminal body (12 or 112) defining a transaction fulfilment area, wherein the terminal body (12 or 112) is approximately waist-high for an average adult person, and provides an upper surface that can be used as a table surface at a teller station; and, a terminal head extending from the terminal body (12 or 112) and defining a transaction request area transverse to the transaction fulfilment area to create a customer zone (24 or 124) defined on one side by the transaction fulfilment area and on another side by the transaction request area.
Printing apparatus comprising: - a printing device arranged for printing a document on a strip that advances along a path; - cutting means arranged for separating the document from the strip; - a reversible rotor with a forward rotation, for driving said cutting means in case of normal operation, and a backward rotation, to unlock said cutting means, in case of lock of said cutting means, for example due to jamming; - characterised by a mechanism that connects said rotor to said cutting means, said mechanism having at least one first portion connected to said rotor and at least one second portion connected to said cutting means; in which: - in said forward rotation, said first portion is coupled with said second portion, whereby the motion is transmitted to said cutting means; - in an initial portion of said backward rotation, said first portion is decoupled from said second portion, whereby said rotor does not drive said second portion and the motion is not transmitted to said cutting means; - continuing said backward rotation, after said initial portion of backward rotation, said first portion is coupled with said second portion, whereby said rotor also drives said second portion and then the motion is transmitted to said cutting means; wherein said initial portion of backward rotation extends for an angle of at least 180° such as to determine an impact of said first portion against said second portion that is sufficient to unlock said cutting means. - a printing device arranged for printing a document on a strip that advances along a path; - cutting means arranged for separating the document from the strip; - a reversible rotor with a forward rotation, for driving said cutting means in case of normal operation, and a backward rotation, to unlock said cutting means, in case of lock of said cutting means, for example due to jamming; - characterised by a mechanism that connects said rotor to said cutting means, said mechanism having at least one first portion connected to said rotor and at least one second portion connected to said cutting means; - in said forward rotation, said first portion is coupled with said second portion, whereby the motion is transmitted to said cutting means; - in an initial portion of said backward rotation, said first portion is decoupled from said second portion, whereby said rotor does not drive said second portion and the motion is not transmitted to said cutting means; - continuing said backward rotation, after said initial portion of backward rotation, said first portion is coupled with said second portion, whereby said rotor also drives said second portion and then the motion is transmitted to said cutting means;
Method for the lysis of cells and PCR amplification, having the following method steps a) positioning the cells in a chamber; b) staining the cells; c) adding a PCR treatment solution; d) photolysis of the cells; and e) amplification of DNA from the cells by means of PCR; wherein method steps a) and b) and also c) and d) can in each case take place in any desired order and the light used for the photolysis is substantially in a wavelength range which is strongly absorbed by the stained cells, but is poorly absorbed by water, characterized in that in method step b) the cells are stained with at least one stain from the group consisting of crystal violet solution and methylene blue solution. a) positioning the cells in a chamber; b) staining the cells; c) adding a PCR treatment solution; d) photolysis of the cells; and e) amplification of DNA from the cells by means of PCR;
An electret comprising a laminate wherein a layer containing a polymer compound (a) having a relative dielectric constant of from 1.8 to 3.0 and a layer containing a polymer compound (b) or inorganic substance (c) having a relative dielectric constant higher than the polymer compound (a) are directly laminated, wherein the difference between the relative dielectric constant of the polymer compound (b) or inorganic substance (c) and the relative dielectric constant of the polymer compound (a) is at least 0.3; the laminate is a laminate wherein substrate/layer /layer, substrate/layer /layer /layer or substrate/layer /layer /layer /layer are laminated in this order, the layer or at least one of the layers is in contact directly with the substrate thereby being disposed on the outermost surface on a side opposite to the side where electric charge is injected at the time of injecting electric charge into the laminate to form the electret; and the layer has a thickness of at least 1 μm.
A system for treating a nasal condition, the system comprising: a probe (400, 600, 800, 900, 1000, 1100, 1200) including a shaft (402, 602, 802, 902, 1002, 1102, 1202) and a cryotherapy element (406, 606, 806, 906, 1006, 1106, 1206) coupled to the shaft (402, 602, 802, 902, 1002, 1102, 1202), wherein the probe (400, 600, 800, 900, 1000, 1100, 1200) is configured to be advanced into a nasal cavity and to cryoablate treatment tissue including at least one nasal nerve at a target treatment site with the cryotherapy element (406, 606, 806, 906, 1006, 1106, 1206); characterized in further comprising: an ultrasound transducer assembly (408, 608, 816, 908, 1008, 1108, 1216) configured to transmit a focused ultrasound beam to non-treatment tissue at a target heating site to increase a temperature of the non-treatment tissue and to protect the non-treatment tissue from effects of cold temperature produced during cryoablation of the treatment tissue.
A method comprising: initiating an executable file for processing instructions of the executable file by a multi-processor system, wherein the multi-processor system comprises at least one host processor and at least one dynamically reconfigurable co-processor; determining by an operating system of multi-processor system from information included in the executable file one of a plurality of fixed instruction set images (36-1-36-N) to load to said at least one dynamically reconfigurable co-processor for processing a portion of the instructions of the executable file, wherein the plurality of fixed instruction set images define instruction sets that differ from an instruction set of the at least one host processor, and wherein the determined instruction set image is not embedded within the executable file; when determined by the operating system that the determined instruction set image is not present on the dynamically reconfigurable co-processor, loading the determined instruction set image in its entirety from persistent storage to the dynamically reconfigurable co-processor; and processing, by the multi-processor system, the instructions of the executable file, wherein a portion of the instructions are processed by the at least one host processor and a portion of the instructions are processed by the at least one dynamically reconfigurable co-processor, wherein said processing of said portion of the instructions that are processed by the at least one dynamically reconfigurable co-processor is performed in response to a dispatch operation when an instruction of the determined instruction set image is present for the dynamically reconfigurable co-processor.
A tool holder for a modular tool, said tool holder having a distal end and a proximal end disposed on a first longitudinal axis, wherein said tool holder comprises a first lateral slot disposed along a second axis, said second axis in the plane of the first axis and being at an angle of between 10 and 80 degrees to said first longitudinal axis, said first slot widening from top to bottom, said first slot widening to an entry aperture at the distal end of the first slot, said tool holder further comprising a securing pin channel extending through said tool holder and terminating in said entry aperture, such that a securing pin may be inserted through said securing pin channel so as to trap a keyed element of a working element for a modular tool inserted in the widened part of said first slot. said tool holder comprises a first lateral slot disposed along a second axis, said second axis in the plane of the first axis and being at an angle of between 10 and 80 degrees to said first longitudinal axis, said first slot widening from top to bottom, said first slot widening to an entry aperture at the distal end of the first slot, said tool holder further comprising a securing pin channel extending through said tool holder and terminating in said entry aperture, such that a securing pin may be inserted through said securing pin channel so as to trap a keyed element of a working element for a modular tool inserted in the widened part of said first slot.
A pharmaceutical soft gelatin capsule dosage form comprising: a shell comprising gelatin and a plasticizer; and a fill comprising at least one pharmaceutically active ingredient, polyethylene glycol, polyacrylic acid, a neutralizing agent, and water, wherein the neutralizing agent is a primary amine or a secondary amine and is present in an amount necessary to provide a soft gelatin dosage form having stable dissolution after storage, and wherein the at least one active ingredient is selected from the group consisting of estradiol, its salts, esters and hydrates. a shell comprising gelatin and a plasticizer; and a fill comprising at least one pharmaceutically active ingredient, polyethylene glycol, polyacrylic acid, a neutralizing agent, and water, wherein the neutralizing agent is a primary amine or a secondary amine and is present in an amount necessary to provide a soft gelatin dosage form having stable dissolution after storage, and wherein the at least one active ingredient is selected from the group consisting of estradiol, its salts, esters and hydrates.
A method for preparing a T cell expressing a chimeric antigen receptor, interleukin-7 and CCL19, comprising introducing a nucleic acid encoding CAR and a nucleic acid encoding a T cell immune function-enhancing factor using one or more vectors into the T cell, in which the nucleic acid encoding a T cell immune function-enhancing factor comprises a nucleic acid encoding interleukin-7 and a nucleic acid encoding CCL19.
An isolated nucleic acid sequence encoding: (a) a polypeptide comprising a CDR3 of a TCR α chain polypeptide that specifically binds to CLAVEEVSL (SEQ ID NO:1); and/or (b) a polypeptide comprising a CDR3 of a TCR β chain polypeptide that specifically binds to CLAVEEVSL (SEQ ID NO:1). (a) a polypeptide comprising a CDR3 of a TCR α chain polypeptide that specifically binds to CLAVEEVSL (SEQ ID NO:1); and/or (b) a polypeptide comprising a CDR3 of a TCR β chain polypeptide that specifically binds to CLAVEEVSL (SEQ ID NO:1).
A method of calibrating a device for monitoring the curvature of a structure, this monitoring device being equipped with a deformable rod that has a central axis, and with at least three optical sensors (29, 30, 31) kept pressed against the periphery of said rod, comprising the steps involving: - for various successive orientations of planes of bending about said central axis: - bending the rod to the same bend radius; - measuring the deformation of the sensors (29, 30, 31) during the bending; - extrapolating from the measured deformations, a sinusoidal function of the deformation for each sensor as a function of the orientation of the plane of bending; - calculating error correction coefficients as a function of the angular offset between the extrapolated sinusoidal functions and as a function of the amplitudes of the extrapolated sinusoidal curves. - for various successive orientations of planes of bending about said central axis: - bending the rod to the same bend radius; - measuring the deformation of the sensors (29, 30, 31) during the bending; - bending the rod to the same bend radius; - measuring the deformation of the sensors (29, 30, 31) during the bending; - extrapolating from the measured deformations, a sinusoidal function of the deformation for each sensor as a function of the orientation of the plane of bending; - calculating error correction coefficients as a function of the angular offset between the extrapolated sinusoidal functions and as a function of the amplitudes of the extrapolated sinusoidal curves.
An air purifier comprising: a base; a body coupled to the base and having a cylindrical shape at a portion thereof; a suction unit, arranged within the body, having a suction port to intake air; a discharge unit, arranged within the body, having a discharge port to output the intake air; a blowing unit, arranged within the body, to blow air from the suction unit to the discharge unit; and a filter unit, arranged within the body, to purify the air moved by the blowing unit, wherein at least one of the suction port and the discharge port has a periphery surface that is inclined from a central axis of the body, wherein the filter unit is disposed on the suction unit and the suction unit is pivotally coupled to the body, wherein the suction unit comprises: a suction panel having a partial cylindrical shape and forming a cylindrical shape with the body; and a suction body formed with the suction port; and wherein the filter unit is disposed on the suction body, characterized in that the suction unit further comprises a two-link mechanism coupled to the body, wherein the suction panel includes a base coupling pin that is rotatably coupled to the base, and wherein the base includes a pin receiving slot to receive the base coupling pin, the pin receiving slot having an arc shape. a base; a body coupled to the base and having a cylindrical shape at a portion thereof; a suction unit, arranged within the body, having a suction port to intake air; a discharge unit, arranged within the body, having a discharge port to output the intake air; a blowing unit, arranged within the body, to blow air from the suction unit to the discharge unit; and a filter unit, arranged within the body, to purify the air moved by the blowing unit, wherein at least one of the suction port and the discharge port has a periphery surface that is inclined from a central axis of the body, wherein the filter unit is disposed on the suction unit and the suction unit is pivotally coupled to the body, wherein the suction unit comprises: a suction panel having a partial cylindrical shape and forming a cylindrical shape with the body; and a suction body formed with the suction port; and wherein the filter unit is disposed on the suction body, characterized in that the suction unit further comprises a two-link mechanism coupled to the body, wherein the suction panel includes a base coupling pin that is rotatably coupled to the base, and wherein the base includes a pin receiving slot to receive the base coupling pin, the pin receiving slot having an arc shape. a suction panel having a partial cylindrical shape and forming a cylindrical shape with the body; and a suction body formed with the suction port; and wherein the filter unit is disposed on the suction body, characterized in that the suction unit further comprises a two-link mechanism coupled to the body, wherein the suction panel includes a base coupling pin that is rotatably coupled to the base, and wherein the base includes a pin receiving slot to receive the base coupling pin, the pin receiving slot having an arc shape.
A composition comprising a therapeutically effective amount of guaiacol for use in a method for the treatment or prevention of a glycogen storage disease in a subject in need thereof, wherein said disease is characterized by polyglucosan accumulation or abnormal glycogen accumulation and is chosen from the group consisting of: types I-IX glycogen storage disease, and Lafora disease.