mhurhangee/ep-ind-claims huggingface dataset:
A method for self-adaptive bandwidth control of a CDN platform, comprising: configuring corresponding parameters for a self-adaptive bandwidth task through a UI platform and sending the parameters to a control center; registering, by a proxy of a plurality of proxies (104; 104-1; 104-n), on the control center; after the proxy is registered successfully, assigning, by the control center, a range for proxy-controllable CDN service resources (102; 102-1; 102-n) to the proxy; based on the range for proxy-controllable CDN service resources, sending, by the proxy, a data collection command to CDN service resources within the range; after receiving the data collection command, returning, by the CDN service resources, real-time data to the proxy that sends the data collection command, wherein the real-time data comprises real-time bandwidth data of a node and machine data; sending, by the proxy, collected data to the control center; wherein the collected data comprises data obtained by gathering the real-time data by the proxy; gathering, by the control center, the collected data, and generating, by the control center, a control line through data analysis; based on collected data from each CDN service resource combined with the control line, generating, by the control center, a control command for the proxy; and after receiving the control command, performing, by the proxy, a self-learning and adjustment to generate a control policy for each proxy-controllable CDN service resource, and allocating, by the proxy, the control policy to a corresponding CDN service resource. configuring corresponding parameters for a self-adaptive bandwidth task through a UI platform and sending the parameters to a control center; registering, by a proxy of a plurality of proxies (104; 104-1; 104-n), on the control center; after the proxy is registered successfully, assigning, by the control center, a range for proxy-controllable CDN service resources (102; 102-1; 102-n) to the proxy; based on the range for proxy-controllable CDN service resources, sending, by the proxy, a data collection command to CDN service resources within the range; after receiving the data collection command, returning, by the CDN service resources, real-time data to the proxy that sends the data collection command, wherein the real-time data comprises real-time bandwidth data of a node and machine data; sending, by the proxy, collected data to the control center; wherein the collected data comprises data obtained by gathering the real-time data by the proxy; gathering, by the control center, the collected data, and generating, by the control center, a control line through data analysis; based on collected data from each CDN service resource combined with the control line, generating, by the control center, a control command for the proxy; and after receiving the control command, performing, by the proxy, a self-learning and adjustment to generate a control policy for each proxy-controllable CDN service resource, and allocating, by the proxy, the control policy to a corresponding CDN service resource.
A lead-oxide pasted battery plate comprising (i) a lead alloy grid, (ii) lead oxide paste and (iii) a nonwoven glass mat comprised of (a) glass fibers having a diameter of greater than 10 microns, (b) a binder, and (c) a component selected from the group consisting of cellulosic fibers, (d) said component (c) being dispersed among component (a) the glass fibers having a diameter of greater than 10 microns and component (b) the binder. (i) a lead alloy grid, (ii) lead oxide paste and (iii) a nonwoven glass mat comprised of (a) glass fibers having a diameter of greater than 10 microns, (b) a binder, and (c) a component selected from the group consisting of cellulosic fibers, (d) said component (c) being dispersed among component (a) the glass fibers having a diameter of greater than 10 microns and component (b) the binder. (a) glass fibers having a diameter of greater than 10 microns, (b) a binder, and (c) a component selected from the group consisting of cellulosic fibers, (d) said component (c) being dispersed among component (a) the glass fibers having a diameter of greater than 10 microns and component (b) the binder.
A heat-insulating and heat-dissipating component of a vaporizer device of a cotton-free electronic cigarette, wherein a heat insulation sleeve is provided inside an outer pipe and outside a vaporizer unit; the heat insulation sleeve, the outer pipe and the vaporizer unit have a same central longitudinal axis; the heat insulation sleeve is arranged inside the outer pipe and outside a liquid storage cup, a circumferential protrusion of a supporting frame and a power connecting assembly that are received in the outer pipe; characterized in that the heat insulation sleeve starts from the position of a liquid percolation piece of the vaporizer device and terminates at the position of the power connecting assembly; the heat insulation sleeve, the outer pipe, the liquid storage cup, the circumferential protrusion of the supporting frame, the power connecting assembly, and the liquid percolation piece of the vaporizer device have the same central longitudinal axis.
A sealed air boiler air inlet chamber, comprising: a casing, defining a volume, an air and water inlet aperture, a first outlet for water, and a second outlet for air; a barrier, spaced from the second outlet, demarking a first region of the casing including the first outlet and a second region of the casing including the second outlet, wherein the barrier is configured to inhibit the flow of water from the first region to the second region and to permit the flow of air from the first region to the second region. characterized in that the sealed air boiler air inlet chamber further comprises a spacer configured to inhibit an object within the chamber from contacting the surface of the chamber. a casing, defining a volume, an air and water inlet aperture, a first outlet for water, and a second outlet for air; a barrier, spaced from the second outlet, demarking a first region of the casing including the first outlet and a second region of the casing including the second outlet, wherein the barrier is configured to inhibit the flow of water from the first region to the second region and to permit the flow of air from the first region to the second region. characterized in that the sealed air boiler air inlet chamber further comprises a spacer configured to inhibit an object within the chamber from contacting the surface of the chamber.
Welding process of a fibrous reinforcement (3, 3') during the manufacture of an object chosen from the group consisting of a tank and a filling pipe, said object comprising a wall of thermoplastic material, the fibrous reinforcement (3, 3 ') comprising both a thermoplastic material compatible with that of the object and chopped fibers or long fibers or continuous fibers which may or may not be woven, the welding process comprising the steps consisting of: - heating the fiber reinforcement (3, 3') to bring it into a molten state, - performing, in a mold (1, 1'), a welding of the heated fibrous reinforcement (3, 3') to the wall in an at least partially molten state, by means of the pressure of a gas that inflates the wall against the mold (1, 1'), characterized in that - the fibrous reinforcement (3, 3 ') is preformed to a predetermined three-dimensional shape, this preforming being at least partially carried out outside the mold using a shaping tool comprising an oven for heating said reinforcement to a temperature sufficient to bring it into a molten state, and an impression to conform the reinforcement in the molten state into said three-dimensional predetermined shape. - heating the fiber reinforcement (3, 3') to bring it into a molten state, - performing, in a mold (1, 1'), a welding of the heated fibrous reinforcement (3, 3') to the wall in an at least partially molten state, by means of the pressure of a gas that inflates the wall against the mold (1, 1'), characterized in that - the fibrous reinforcement (3, 3 ') is preformed to a predetermined three-dimensional shape, this preforming being at least partially carried out outside the mold using a shaping tool comprising an oven for heating said reinforcement to a temperature sufficient to bring it into a molten state, and an impression to conform the reinforcement in the molten state into said three-dimensional predetermined shape.
Method for manufacturing a preform of a component made of composite material provided with a vacuum bagging film, this method comprising the following successive steps: a) deposition of a thermoplastic vacuum bagging film on a forming tool, the form of which conforms to an outer form or geometry of the preform; b) deposition of a sheet of a material constituting the preform on the forming tool; c) deposition of at least one anti-adhesive layer, preferably of at least two anti-adhesive layers, on the sheet of a material constituting the preform; d) thermoforming of the thermoplastic film, of the sheet of a material constituting the preform, and of the anti-adhesive layer or layers, on the forming tool; e) separation of the preform provided with the thermoplastic vacuum bagging film, which is located on the forming tool, from the anti-adhesive layer or layers; f) characterized by the removal of the forming tool so as to obtain the preform provided with the thermoplastic vacuum bagging film. a) deposition of a thermoplastic vacuum bagging film on a forming tool, the form of which conforms to an outer form or geometry of the preform; b) deposition of a sheet of a material constituting the preform on the forming tool; c) deposition of at least one anti-adhesive layer, preferably of at least two anti-adhesive layers, on the sheet of a material constituting the preform; d) thermoforming of the thermoplastic film, of the sheet of a material constituting the preform, and of the anti-adhesive layer or layers, on the forming tool; e) separation of the preform provided with the thermoplastic vacuum bagging film, which is located on the forming tool, from the anti-adhesive layer or layers; f) characterized by the removal of the forming tool so as to obtain the preform provided with the thermoplastic vacuum bagging film.
A method for determining a precoding matrix indicator, carried out by a user equipment, comprising: receiving a first reference signal set sent by a base station, wherein the first reference signal set is associated with a user equipment-specific matrix set, including at least two matrices, A and B; selecting a precoding matrix W based on the first reference signal set, wherein the precoding matrix W is a product of two matrices W 1 and W 2, W = W 1 W 2, wherein the matrix W 1 is a block diagonal matrix comprising at least two block matrices, X i, wherein the matrix W 2 is used for selection or weighted combination of column vectors in the matrix W 1, so as to form the matrix W, and wherein each block matrix X i is a Kronecker product of two matrices C and D, X = C ⊗ D, and the matrices C and D are respectively a function of the matrices A and B in the user equipment-specific matrix set; and sending a precoding matrix indicator, PMI, to the base station, wherein the PMI corresponds to the preceding matrix W. receiving a first reference signal set sent by a base station, wherein the first reference signal set is associated with a user equipment-specific matrix set, including at least two matrices, A and B; selecting a precoding matrix W based on the first reference signal set, wherein the precoding matrix W is a product of two matrices W 1 and W 2, W = W 1 W 2, wherein the matrix W 1 is a block diagonal matrix comprising at least two block matrices, X i, wherein the matrix W 2 is used for selection or weighted combination of column vectors in the matrix W 1, so as to form the matrix W, and wherein each block matrix X i is a Kronecker product of two matrices C and D, X = C ⊗ D, and the matrices C and D are respectively a function of the matrices A and B in the user equipment-specific matrix set; and sending a precoding matrix indicator, PMI, to the base station, wherein the PMI corresponds to the preceding matrix W.
A system for transmission of broadband signals over a three-phase power line, said system comprising: a three-phase power system; a three-phase power line comprising a plurality of conductors (108, 202, 204, 206), said power line being operable for transfer of three-phase power generated by said three-phase power system to a load via said conductors; a data source; a controller communicatively coupled to said data source and programmed to configure data received from said data source into data packages for transmission along said three-phase power line, wherein said controller is further configured to associate a modulation frequency range with each said conductor (108, 202, 204, 206), wherein a different modulation frequency range is associated with each respective conductor; a modulation signal source; and a modulation device operable for modulating data packages from said controller onto one or more of said conductors (108, 202, 204, 206) using a modulation signal associated with the conductor, wherein said controller is programmed to assign the data packages for modulation onto a specific one of the conductors based on a data rate associated with said three-phase power line. a three-phase power system; a three-phase power line comprising a plurality of conductors (108, 202, 204, 206), said power line being operable for transfer of three-phase power generated by said three-phase power system to a load via said conductors; a data source; a controller communicatively coupled to said data source and programmed to configure data received from said data source into data packages for transmission along said three-phase power line, wherein said controller is further configured to associate a modulation frequency range with each said conductor (108, 202, 204, 206), wherein a different modulation frequency range is associated with each respective conductor; a modulation signal source; and a modulation device operable for modulating data packages from said controller onto one or more of said conductors (108, 202, 204, 206) using a modulation signal associated with the conductor, wherein said controller is programmed to assign the data packages for modulation onto a specific one of the conductors based on a data rate associated with said three-phase power line.
A method for forming a surface relief microstructure, especially an optically variable image on a substrate comprising the steps of: A) applying a curable composition to at least a portion of the substrate wherein the curable composition comprises a1) at least one ethylenically unsaturated resin, a monomer or a mixture thereof; a2) at least one photoinitiator; and a3) a metal pigment which is in the form of platelet shaped transition metal particles having a longest dimension of edge length of from 5 nm to 1000 nm, preferably from 7 nm to 600 nm and particularly from 10 nm to 500 nm, and a thickness of from 1 nm to 100 nm, preferably from 2 to 40 nm and particularly from 3 to 30 nm; B) contacting at least a portion of the curable composition with a surface relief microstructure, especially optically variable image forming means; C) curing the composition by using at least one UV lamp. A) applying a curable composition to at least a portion of the substrate wherein the curable composition comprises a1) at least one ethylenically unsaturated resin, a monomer or a mixture thereof; a2) at least one photoinitiator; and a3) a metal pigment which is in the form of platelet shaped transition metal particles having a longest dimension of edge length of from 5 nm to 1000 nm, preferably from 7 nm to 600 nm and particularly from 10 nm to 500 nm, and a thickness of from 1 nm to 100 nm, preferably from 2 to 40 nm and particularly from 3 to 30 nm; a1) at least one ethylenically unsaturated resin, a monomer or a mixture thereof; a2) at least one photoinitiator; and a3) a metal pigment which is in the form of platelet shaped transition metal particles having a longest dimension of edge length of from 5 nm to 1000 nm, preferably from 7 nm to 600 nm and particularly from 10 nm to 500 nm, and a thickness of from 1 nm to 100 nm, preferably from 2 to 40 nm and particularly from 3 to 30 nm; B) contacting at least a portion of the curable composition with a surface relief microstructure, especially optically variable image forming means; C) curing the composition by using at least one UV lamp.
Profiled rail system for concealing at least one edge of a covering, wherein the profiled rail system has at least one base rail and at least one concealing rail which is adjustable relative thereto and which is drawn towards the at least one base rail by means of at least one permanent magnet, wherein the at least one base rail and the at least one concealing rail are magnetizable at least in a subregion, characterized in that the permanent magnet is in touching contact with the base rail and the concealing rail at different height positions of the concealing rail and is arranged at an acute angle to the base rail and concealing rail, wherein the angle is variable with a mutual spacing between the covering rail and the base rail.
A process for in vitro cell-free production of closed linear DNA comprising: - amplifying DNA from a DNA template comprising more than one protelomerase target sequence, and - contacting said amplified DNA with at least one protelomerase under conditions promoting production of closed linear DNA. - amplifying DNA from a DNA template comprising more than one protelomerase target sequence, and - contacting said amplified DNA with at least one protelomerase under conditions promoting production of closed linear DNA.
A method of insulating a conductive element in a medical electrical lead of the type comprising a lead body including a conductive element and a conductive connector electrically coupled to the conductive element, the method characterized by: introducing PTFE over the conductive element forming a coated conductive element; coupling the coated conductive element comprising the conductive element and its PTFE coating around a mandrel to form a coiled shape in the coated conductive element; annealing the coiled coated conductive element thereby setting a coiled shape in the PTFE and the conductive element; and removing the annealed coiled coated conductive element from the mandrel. introducing PTFE over the conductive element forming a coated conductive element; coupling the coated conductive element comprising the conductive element and its PTFE coating around a mandrel to form a coiled shape in the coated conductive element; annealing the coiled coated conductive element thereby setting a coiled shape in the PTFE and the conductive element; and removing the annealed coiled coated conductive element from the mandrel.
A method of manufacturing a metallic ball pen tip for a writing instrument comprising a feeding passage extending in an axial direction, the feeding passage reaching in a housing configured to receive a ball, the housing being defined by a cylindrical wall and a ball seat, wherein the ball seat comprises a plurality of feeding grooves and wherein the ball seat is textured, the method comprising the method steps of: - providing a preform of the metallic ball pen tip comprising the feeding passage and a housing preform, the housing preform being defined by the cylindrical wall and a ball seat preform wall; - machining the ball seat preform wall in two machining steps, a first machining step of machining a first group of steps and a second machining step of machining a second group of steps, the steps of the first group being alternated with the steps of the second group, so as to obtain a stepped wall;broaching the feeding grooves in the stepped wall; - coining the stepped wall with a spherical die, so as to deform the steps of the stepped wall and provide a non-smooth surface with a texture to the ball seat, so as to obtain the textured ball seat. - providing a preform of the metallic ball pen tip comprising the feeding passage and a housing preform, the housing preform being defined by the cylindrical wall and a ball seat preform wall; - machining the ball seat preform wall in two machining steps, a first machining step of machining a first group of steps and a second machining step of machining a second group of steps, the steps of the first group being alternated with the steps of the second group, so as to obtain a stepped wall;broaching the feeding grooves in the stepped wall; - coining the stepped wall with a spherical die, so as to deform the steps of the stepped wall and provide a non-smooth surface with a texture to the ball seat, so as to obtain the textured ball seat.
A delivery system for delivering multiple dosages of a polyethylene glycolylated (PEGylated) therapeutic to a target site of a subject, comprising: an anti-PEG antibody for directing the PEGylated therapeutic to the target site; and a hydrogel for retaining the anti-PEG antibody and/or the PEGylated therapeutic at the target site for at least 3 days; wherein the hydrogel is selected from the group consisting of hyaluronan, collagen, gelatin, fibronectin, fibrinogen, alginate, chitosan, a fibrin glue, and a synthetic biocompatible polymer. an anti-PEG antibody for directing the PEGylated therapeutic to the target site; and a hydrogel for retaining the anti-PEG antibody and/or the PEGylated therapeutic at the target site for at least 3 days; wherein the hydrogel is selected from the group consisting of hyaluronan, collagen, gelatin, fibronectin, fibrinogen, alginate, chitosan, a fibrin glue, and a synthetic biocompatible polymer.
A method for determining a reference signal sequence, comprising, at a terminal device: receiving first indication information from a network device; determining a bandwidth part based on the first indication information; determining a reference signal sequence based on an offset between a frequency domain start position of the bandwidth part and a frequency domain start position of a maximum system bandwidth; and sending or receiving the reference signal sequence by using the bandwidth part, wherein the method further comprises: receiving second indication information from the network device; and determining the frequency domain start position of the maximum system bandwidth based on the second indication information. receiving first indication information from a network device; determining a bandwidth part based on the first indication information; determining a reference signal sequence based on an offset between a frequency domain start position of the bandwidth part and a frequency domain start position of a maximum system bandwidth; and sending or receiving the reference signal sequence by using the bandwidth part, wherein the method further comprises: receiving second indication information from the network device; and determining the frequency domain start position of the maximum system bandwidth based on the second indication information. receiving second indication information from the network device; and determining the frequency domain start position of the maximum system bandwidth based on the second indication information.