mhurhangee/patent-ind-claim-en huggingface dataset:
A system for producing pharmaceutical objects, such as tablets, granules and capsules, via 3D printing, comprising a 3D printing machine with a mechanical system movable in one or more directions, at least one print head with a nozzle being movable by the mechanical system and a base system carrying a print base for receiving a prepared mixture applied by the print head , wherein the system comprises at least one carrier for holding a cartridge , wherein a fluid connection between the cartridge and the print head via a fed line or a direct fluid connection between the cartridge and the print head is established, wherein the print head is temperature controlled and comprises a print head body with indentations, fins or channels for guiding a tempering agent, wherein the print head comprises a stirring tool , in particular a worm screw, being arranged in the print head body , characterized in that the stirring tool is at least partly collapsible, in particular the stirring tool comprises a collapsible head . wherein a fluid connection between the cartridge and the print head via a fed line or a direct fluid connection between the cartridge and the print head is established, wherein the print head is temperature controlled and comprises a print head body with indentations, fins or channels for guiding a tempering agent, wherein the print head comprises a stirring tool , in particular a worm screw, being arranged in the print head body , characterized in that the stirring tool is at least partly collapsible, in particular the stirring tool comprises a collapsible head .
A lateral p-n junction black phosphorus thin film in which a p-type black phosphorus thin film and a n-type black phosphorus thin film form a lateral junction, characterized in that the n-type black phosphorus thin film is surface-modified by a diazirine compound represented by Chemical Formula 1 below to have a n-type semiconductor property, wherein the nitrogen atoms of the diazirine group are decomposed into a nitrogen molecule N 2 by light, and the carbon bonded to the nitrogen atom of the diazirine group is transformed into carbene, and reacted with the phosphorus atoms constituting the black phosphorus thin film and thereby covalently bonded to the surface of the black phosphorus thin film. in Chemical Formula 1, L 1 is a direct bond, C1-C20 alkylene group, C5-C30 cycloalkylene group, C6-C30 arylene group, or a combination thereof, and R 1 and R 2 are each independently C1-C20 alkyl group, C5-C30 cycloalkyl group, C6-C30 aryl group, C1-C20 alkoxy group, C1-C20 hydroxyalkyl group, halogen group, amine group, nitro group, sulfonic acid group, C1-C20 heteroalkyl group including at least one heteroatom in which electronegativity is 2.5 or more, C5-C30 heterocycloalkyl group including at least one heteroatom in which electronegativity is 2.5 or more, C6-C30 heteroaryl group including at least one heteroatom in which electronegativity is 2.5 or more, or a combination thereof, wherein at least one hydrogen in the alkylene group, cycloalkylene group, arylene group, alkyl group, cycloalkyl group, aryl group, alkoxy group, and hydroxyalkyl group is each independently unsubstituted or substituted with a substituent, the substituent being C1-C20 alkyl group, C1-C20 alkoxy group, C1-C20 hydroxyalkyl group, C5-C30 cycloalkyl group, C6-C30 aryl group, halogen group, or amino group. L 1 is a direct bond, C1-C20 alkylene group, C5-C30 cycloalkylene group, C6-C30 arylene group, or a combination thereof, and R 1 and R 2 are each independently C1-C20 alkyl group, C5-C30 cycloalkyl group, C6-C30 aryl group, C1-C20 alkoxy group, C1-C20 hydroxyalkyl group, halogen group, amine group, nitro group, sulfonic acid group, C1-C20 heteroalkyl group including at least one heteroatom in which electronegativity is 2.5 or more, C5-C30 heterocycloalkyl group including at least one heteroatom in which electronegativity is 2.5 or more, C6-C30 heteroaryl group including at least one heteroatom in which electronegativity is 2.5 or more, or a combination thereof, wherein at least one hydrogen in the alkylene group, cycloalkylene group, arylene group, alkyl group, cycloalkyl group, aryl group, alkoxy group, and hydroxyalkyl group is each independently unsubstituted or substituted with a substituent, the substituent being C1-C20 alkyl group, C1-C20 alkoxy group, C1-C20 hydroxyalkyl group, C5-C30 cycloalkyl group, C6-C30 aryl group, halogen group, or amino group.
A method programmed in a non-transitory memory of a device comprising: determining a patch orientation, the patch being a two-dimensional patch used in coding of a three-dimensional point cloud; and sending patch orientation information including when implementing adaptive packing sending a flag indicating a default orientation, adaptive packing being when orientation information of a patch is sent to a decoder; wherein when implementing adaptive packing, utilizing an adaptive dictionary to indicate the patch orientation and wherein the adaptive dictionary is determined based on statistical analysis of patch orientation usage. determining a patch orientation, the patch being a two-dimensional patch used in coding of a three-dimensional point cloud; and sending patch orientation information including when implementing adaptive packing sending a flag indicating a default orientation, adaptive packing being when orientation information of a patch is sent to a decoder; wherein when implementing adaptive packing, utilizing an adaptive dictionary to indicate the patch orientation and wherein the adaptive dictionary is determined based on statistical analysis of patch orientation usage.
An intravenous drip monitoring device, comprising: a processor ; a weight sensor electrically connected to the processor , configured for detecting a weight information of drip, and transmitting the weight information to the processor ; a communication module electrically connected to the processor , configured for transmitting a drip monitoring information to a first server ; an alarm module electrically connected to the processor , configured for generating a warning signal; a power supply module electrically connected to the processor , the weight sensor , the communication module , and the alarm module , configured for supplying power source to the processor , the weight sensor , the communication module , and the alarm module ; wherein the processor is configured for determining whether the weight information is less than or equal to a warning value, if the weight information is less than or equal to the warning value, controlling the alarm module to generate the warning signal, characterized in that the communication module is configured for receiving the warning value and a control information transmitted from the server and the processor is configured for enabling or disabling the alarm module according to the control information. a processor ; a weight sensor electrically connected to the processor , configured for detecting a weight information of drip, and transmitting the weight information to the processor ; a communication module electrically connected to the processor , configured for transmitting a drip monitoring information to a first server ; an alarm module electrically connected to the processor , configured for generating a warning signal; a power supply module electrically connected to the processor , the weight sensor , the communication module , and the alarm module , configured for supplying power source to the processor , the weight sensor , the communication module , and the alarm module ; wherein the processor is configured for determining whether the weight information is less than or equal to a warning value, if the weight information is less than or equal to the warning value, controlling the alarm module to generate the warning signal, characterized in that the communication module is configured for receiving the warning value and a control information transmitted from the server and the processor is configured for enabling or disabling the alarm module according to the control information.
Process for producing sintered components composed of zirconium carbide, in which a green body comprising a substoichiometric ZrC x O y powder, where X = 0.7 to 1.0 and Y = 0.0 to 0.2, is produced and subsequently sintered at atmospheric pressure in a heat treatment with a maximum temperature of 2000°C, characterized in that a synthetic ZrC X O Y powder having a particle size range from 0.03 μm to 10 μm and an average particle size d 50 in the range from 1 μm to 2 μm is used and no additives apart from components which may be considered to be impurities, for example chemical elements and compounds, are present in a maximum amount of 0.2% by mass and the zirconium carbide has a relatively broad particle size distribution and components having a variety of geometries and dimensions are produced.
A method for transmitting Downlink Control Information, DCI, wherein the method comprises: transmitting the DCI, wherein the DCI comprises: a first information field indicating a frequency resource occupied by a data resource scheduled by the DCI, and a second information field indicating a time resource occupied by the data resource scheduled by the DCI; wherein the time resource occupied by the data resource scheduled by the DCI comprises: a quantity of symbols occupied by the data resource scheduled by the DCI; or a quantity of symbols occupied by the data resource scheduled by the DCI, and a start symbol index of the symbols; or a length of a Transmission Time Interval, TTI, for data transmission scheduled by the DCI; or a length of a Transmission Time Interval, TTI, for data transmission scheduled by the DCI, and a time domain start position of the data transmission. transmitting the DCI, wherein the DCI comprises: a first information field indicating a frequency resource occupied by a data resource scheduled by the DCI, and a second information field indicating a time resource occupied by the data resource scheduled by the DCI; wherein the time resource occupied by the data resource scheduled by the DCI comprises: a quantity of symbols occupied by the data resource scheduled by the DCI; or a quantity of symbols occupied by the data resource scheduled by the DCI, and a start symbol index of the symbols; or a length of a Transmission Time Interval, TTI, for data transmission scheduled by the DCI; or a length of a Transmission Time Interval, TTI, for data transmission scheduled by the DCI, and a time domain start position of the data transmission. a quantity of symbols occupied by the data resource scheduled by the DCI; or a quantity of symbols occupied by the data resource scheduled by the DCI, and a start symbol index of the symbols; or a length of a Transmission Time Interval, TTI, for data transmission scheduled by the DCI; or a length of a Transmission Time Interval, TTI, for data transmission scheduled by the DCI, and a time domain start position of the data transmission.
A method of producing a three-dimensional object from an extrusion of material, the method comprising: forming, using an additive extrusion printing device having a movable portion , at least one line of material from the movable portion of the additive extrusion printing device, extruding being a function of a nominal model having a specification of the object; measuring, using a coordinate measuring machine , at least one dimension of the line of material during the extrusion process of the line of material; checking, using a checker operatively coupled with the coordinate measuring machine, the dimensional accuracy of at least one dimension of the line of material by comparing the at least one dimension with at least one object specification of the nominal model of the object; and altering subsequent extrusion of the line of material by the movable portion of the additive extrusion printing device as a function of the dimensional accuracy of said checking the at least one measured dimension, altering comprising controlling the additive extrusion printing device to change an extrusion parameter of the line of material, the extrusion parameter including at least one of the trajectory of the movable portion, the velocity of the movable portion, the velocity the material extrudes from the movable portion, and at least one dimension of the line of material. forming, using an additive extrusion printing device having a movable portion , at least one line of material from the movable portion of the additive extrusion printing device, extruding being a function of a nominal model having a specification of the object; measuring, using a coordinate measuring machine , at least one dimension of the line of material during the extrusion process of the line of material; checking, using a checker operatively coupled with the coordinate measuring machine, the dimensional accuracy of at least one dimension of the line of material by comparing the at least one dimension with at least one object specification of the nominal model of the object; and altering subsequent extrusion of the line of material by the movable portion of the additive extrusion printing device as a function of the dimensional accuracy of said checking the at least one measured dimension, altering comprising controlling the additive extrusion printing device to change an extrusion parameter of the line of material, the extrusion parameter including at least one of the trajectory of the movable portion, the velocity of the movable portion, the velocity the material extrudes from the movable portion, and at least one dimension of the line of material.
A method of wireless communication of a user equipment (104; 504; 704), UE, comprising: determining a number of bits scheduled in one or more first uplink channel grants received in a set of subframes for a first uplink channel; determining a number of bits scheduled in a second uplink channel grant for a second uplink channel; determining whether a bit threshold is surpassed based on the determined number of bits scheduled in each first uplink channel grant of the one or more first uplink channel grants received for the first uplink channel in the set of subframes and based on the determined number of bits scheduled in the second uplink channel grant received for the second uplink channel; and processing for transmission, based on whether the bit threshold is surpassed, at least one of: the bits scheduled in at least one first uplink channel grant of the one or more first uplink channel grants received in the set of subframes, or the bits scheduled in the second uplink channel grant, wherein the at least one of the bits scheduled in the at least one first uplink channel grant of the one or more first uplink channel grants, or the bits scheduled in the second uplink channel grant are processed for transmission based on whether the bit threshold is surpassed within a processing window (510; 710) comprising a number of subframes in the set of subframes. determining a number of bits scheduled in one or more first uplink channel grants received in a set of subframes for a first uplink channel; determining a number of bits scheduled in a second uplink channel grant for a second uplink channel; determining whether a bit threshold is surpassed based on the determined number of bits scheduled in each first uplink channel grant of the one or more first uplink channel grants received for the first uplink channel in the set of subframes and based on the determined number of bits scheduled in the second uplink channel grant received for the second uplink channel; and processing for transmission, based on whether the bit threshold is surpassed, at least one of: the bits scheduled in at least one first uplink channel grant of the one or more first uplink channel grants received in the set of subframes, or the bits scheduled in the second uplink channel grant, wherein the at least one of the bits scheduled in the at least one first uplink channel grant of the one or more first uplink channel grants, or the bits scheduled in the second uplink channel grant are processed for transmission based on whether the bit threshold is surpassed within a processing window (510; 710) comprising a number of subframes in the set of subframes.
A device for creating an arteriovenous (AV) fistula, comprising: a first member comprising a main body having a primary lumen and a secondary lumen ; a second member comprising a piercing member disposed in said secondary lumen, and configured to be capable of movement distally out of said secondary lumen, and capable of cutting through tissue while being distally moved, characterised in that there is further provided; a third member extending from a distal end of the piercing member and being actuatable to move adjacent first and second blood vessels toward one another and to create an elongated communicating aperture in opposing sides of each of the first vessel and the second vessel; wherein the third member comprises a toggle member hinged to a distal end of the piercing member , and pivotable between first and second orientations relative to the piercing member; and a source of energy for application to the third member, capable of energising the third member to create said elongated communicating aperture. a second member comprising a piercing member disposed in said secondary lumen, and configured to be capable of movement distally out of said secondary lumen, and capable of cutting through tissue while being distally moved, characterised in that there is further provided; a third member extending from a distal end of the piercing member and being actuatable to move adjacent first and second blood vessels toward one another and to create an elongated communicating aperture in opposing sides of each of the first vessel and the second vessel; wherein the third member comprises a toggle member hinged to a distal end of the piercing member , and pivotable between first and second orientations relative to the piercing member; and a source of energy for application to the third member, capable of energising the third member to create said elongated communicating aperture.
An adaptive repair method comprising the steps of providing a digitised model of a base portion of a physical component , aligning a corresponding base portion of a nominal CAD model of said component with the digitised model such that the nominal model extends beyond the digitised model used for alignment, extracting a set of co-ordinate points from the aligned nominal model and lofting a cross-sectional profile based on a measured profile of the base portion along a path defined by the co-ordinate points of the aligned nominal model to create an adapted model for repair of the component ; and adding material to the component based on the adapted model .
A pack comprising a sealed package containing a squeezable product , the package having a first openable portion and being at least partially flexible to enable squeezing of the package to facilitate dispensing of a liquid contained within the product via the first openable portion once opened, wherein the package comprises one or more films which are fluid-tight and which fully enclose a volume in which the product is sealingly retained, wherein said one or more films comprises a flexible first film and a flexible second film , which films are sealingly joined to each other about a periphery thereby fully enclosing said volume in which the product is sealingly retained, wherein the pack has at least one formation for improving the dispensing of the liquid, said at least one formation comprising the second film being provided with a first preformed hinge across at least part of the volume enclosed by the package, a second preformed hinge being aligned with said first preformed hinge and being provided either by (i) the first film or (ii) by an insert plate which lies against the first film and which is less flexible than said first film, and wherein the product is a flexible, absorbent substrate containing said liquid, said substrate being a non-memory foam which, in use, remains collapsed after removal of a compressive, squeezing force.
A method for homogenizing glass, comprising the method steps of: (a) providing a cylindrical blank made of the glass and having a cylindrical outer surface extending along a longitudinal axis (6.1; 7.1) of the blank over a length of the blank between a first end face and a second end face, (b) forming a shear zone in the blank by softening a longitudinal portion of the blank and subjecting said portion to a thermal-mechanical intermixing treatment, and (c) displacing the shear zone along the longitudinal axis (6.1; 7.1) of the blank, characterized in that cylindrical portions (1.1; 1.2) of the blank are adjacent to the shear zone on both sides, the first cylindrical portion (1.1) having a first central axis (6.1) and the second cylindrical portion (1.2) having a second central axis (7.1), wherein the first central axis (6.1) and the second central axis (7.1) are non-coaxial with each other at least at times. (a) providing a cylindrical blank made of the glass and having a cylindrical outer surface extending along a longitudinal axis (6.1; 7.1) of the blank over a length of the blank between a first end face and a second end face, (b) forming a shear zone in the blank by softening a longitudinal portion of the blank and subjecting said portion to a thermal-mechanical intermixing treatment, and (c) displacing the shear zone along the longitudinal axis (6.1; 7.1) of the blank, characterized in that cylindrical portions (1.1; 1.2) of the blank are adjacent to the shear zone on both sides, the first cylindrical portion (1.1) having a first central axis (6.1) and the second cylindrical portion (1.2) having a second central axis (7.1), wherein the first central axis (6.1) and the second central axis (7.1) are non-coaxial with each other at least at times.
A method for preparing an organic/inorganic composite porous membrane for an electrochemical device, comprising providing unit particles where one or more inorganic particles or an agglomerate of the particles are surrounded with a binder polymer , wherein the unit particles surrounded by the binder are obtained in that, after mixing the binder polymer and the inorganic particles or an agglomerate of the particles in a solvent to obtain a solution, the solution is passed through a membrane filter with uniform pores and dropped in an aqueous solution containing a surfactant, wherein the aqueous solution maintains its temperature above the boiling point of the solvent, and the drops of the solution solidify directly after passing through the membrane filter, thereby forming the unit particles ; obtaining a suspension containing the unit particles, coating the suspension and applying heat to the coated suspension to make the unit particles be bonded with each other.