mhurhangee/patent-ind-claim-en huggingface dataset:
A user migration method, comprising: receiving user traffic notified by each of at least one sub virtual Broadband Remote Access Server, sub vBRAS, of each vBRAS of a plurality of vBRASs; calculating user traffic of each vBRAS of the plurality of vBRASs, wherein the user traffic of a vBRAS is calculated as the sum of the user traffic of each sub vBRAS of the vBRAS; selecting a source vBRAS and a target vBRAS from the plurality of vBRASs, wherein selecting the source vBRAS and the target vBRAS is based on the user traffic of the vBRASs; selecting a migration sub vBRAS needing to migrate from the source vBRAS to the target vBRAS, wherein selecting a migration sub vBRAS needing to migrate is based on the user traffic of the source vBRAS and the user traffic of the sub vBRASs of the source vBRAS; and notifying the source vBRAS to send data relevant to the migration sub vBRAS to the target vBRAS, wherein the data relevant to the migration sub vBRAS include a MAC address of the migration sub vBRAS which is used as identification information of the migration sub vBRAS, the number of users accessing the migration sub vBRAS, and traffic of the users accessing the migration sub vBRAS. receiving user traffic notified by each of at least one sub virtual Broadband Remote Access Server, sub vBRAS, of each vBRAS of a plurality of vBRASs; calculating user traffic of each vBRAS of the plurality of vBRASs, wherein the user traffic of a vBRAS is calculated as the sum of the user traffic of each sub vBRAS of the vBRAS; selecting a source vBRAS and a target vBRAS from the plurality of vBRASs, wherein selecting the source vBRAS and the target vBRAS is based on the user traffic of the vBRASs; selecting a migration sub vBRAS needing to migrate from the source vBRAS to the target vBRAS, wherein selecting a migration sub vBRAS needing to migrate is based on the user traffic of the source vBRAS and the user traffic of the sub vBRASs of the source vBRAS; and notifying the source vBRAS to send data relevant to the migration sub vBRAS to the target vBRAS, wherein the data relevant to the migration sub vBRAS include a MAC address of the migration sub vBRAS which is used as identification information of the migration sub vBRAS, the number of users accessing the migration sub vBRAS, and traffic of the users accessing the migration sub vBRAS.
A system for cleaning heterogeneous sludge deposited in hydraulic facilities, comprising a machine assembly mounted on a floating platform that floats on the water of the hydraulic facility, said machine assembly comprising at least a first suction pipe connected to a suction and transfer device , wherein the system also comprises a horizontal and vertical mobile support with respect to said floating platform , the mobile support being connected to the machine assembly by means of a second suction pipe . said machine assembly comprising at least a first suction pipe connected to a suction and transfer device , wherein the system also comprises a horizontal and vertical mobile support with respect to said floating platform , the mobile support being connected to the machine assembly by means of a second suction pipe .
A method for manufacturing a turbomachine blade, the method comprising the following step: - installing primary pins in primary bores of a core, characterised in that : - the primary pins comprise a material other than a titanium based alloy, and - the primary bores form at least one polygon , the method comprising the following steps: - installing a secondary pin made of a titanium-based alloy in a secondary bore of the core, - making a stack of an upper wing skin , the core and a lower wing skin , - pressing the stack, - removing the primary pins from the primary bores , - removing the secondary pin from the secondary bore , and - taking the core out of the stack. - installing primary pins in primary bores of a core, characterised in that : - the primary pins comprise a material other than a titanium based alloy, and - the primary bores form at least one polygon , the method comprising the following steps: - installing a secondary pin made of a titanium-based alloy in a secondary bore of the core, - making a stack of an upper wing skin , the core and a lower wing skin , - pressing the stack, - removing the primary pins from the primary bores , - removing the secondary pin from the secondary bore , and - taking the core out of the stack. - the primary pins comprise a material other than a titanium based alloy, and - the primary bores form at least one polygon , the method comprising the following steps: - installing a secondary pin made of a titanium-based alloy in a secondary bore of the core, - making a stack of an upper wing skin , the core and a lower wing skin , - pressing the stack, - removing the primary pins from the primary bores , - removing the secondary pin from the secondary bore , and - taking the core out of the stack. - installing a secondary pin made of a titanium-based alloy in a secondary bore of the core, - making a stack of an upper wing skin , the core and a lower wing skin , - pressing the stack, - removing the primary pins from the primary bores , - removing the secondary pin from the secondary bore , and - taking the core out of the stack.
A detection circuit of electromagnetic fault injection, comprising: a shielding layer configured to shield interference; at least one group of metal-oxide semiconductor, MOS, transistors, wherein a source end of the at least one group of MOS transistors is connected to the shielding layer ; at least one latch, wherein a drain end of the at least one group of MOS transistors is connected to an input end of the at least one latch; and a signal output module , wherein an input end of the signal output module is connected to an output end of the at least one latch, the signal output module is configured to generate and output a target signal based on a voltage change at the output end of the at least one latch, and the target signal is used to indicate whether there is electromagnetic fault injection in the shielding layer ; wherein when some or all MOS of the at least one group of MOS transistors is turned on, the signal output module is configured to output s first target signal, and the first target signal is used to indicate that there is electromagnetic fault injection in the shielding layer ; and when the at least one group of MOS transistors are each turned off, the signal output module is configured to output a second target signal, and the second target signal is used to indicate that there is no electromagnetic fault injection in the shielding layer . a shielding layer configured to shield interference; at least one group of metal-oxide semiconductor, MOS, transistors, wherein a source end of the at least one group of MOS transistors is connected to the shielding layer ; at least one latch, wherein a drain end of the at least one group of MOS transistors is connected to an input end of the at least one latch; and a signal output module , wherein an input end of the signal output module is connected to an output end of the at least one latch, the signal output module is configured to generate and output a target signal based on a voltage change at the output end of the at least one latch, and the target signal is used to indicate whether there is electromagnetic fault injection in the shielding layer ; wherein when some or all MOS of the at least one group of MOS transistors is turned on, the signal output module is configured to output s first target signal, and the first target signal is used to indicate that there is electromagnetic fault injection in the shielding layer ; and when the at least one group of MOS transistors are each turned off, the signal output module is configured to output a second target signal, and the second target signal is used to indicate that there is no electromagnetic fault injection in the shielding layer .
Packaging insert for shock absorbing arrangement of a product (W) inside a transport container, in particular a folded box, comprising a blank which can be folded to form a hollow base and which has wings (7-9) which can be bent along fold lines (F1-F3), as well as a frame and a wall section connecting the frame to a base plate , wherein the frame and the base plate can be bent at the wall section along fold lines (F4, F5), and wherein a membrane which is provided to receive the product which can be placed thereon is attached to the frame and spans at least in part an opening which is demarcated by the frame , characterised in that the base plate has a free edge which is opposite the wall section with the frame arranged thereon in order to fix the product (W) placed on the membrane between the membrane and a section of the film web by wrapping the separate film web around the designated folded blank transversely to this free edge .
Universal joint for a steering shaft of a motor vehicle, comprising a universal joint with two pairs of journals arranged at right angles to one another and two joint forks which can be connected to the steering shaft and each have two arms lying opposite one another, in each of which a journal is mounted rotatably about a journal axis (Z) in a journal bearing which has a cup-shaped outer bush which is fixed in the arm and is closed at the end face by an outer cup base which is opposite the end face of the journal , wherein rollable rolling elements are arranged between the journal and the outer bush , wherein an inner bush is fixed on the journal , wherein the rolling elements are arranged between the inner bush and the outer bush in a region formed as a rolling element track, and wherein a convexly projecting contact region is arranged on the end face of a journal , which contacts the outer cup base , characterised in in that the contact region is formed integrally on the journal or on the inner bush and projects axially on the end face relative to the rolling element track of the inner bush . wherein an inner bush is fixed on the journal , wherein the rolling elements are arranged between the inner bush and the outer bush in a region formed as a rolling element track, and wherein a convexly projecting contact region is arranged on the end face of a journal , which contacts the outer cup base , characterised in in that the contact region is formed integrally on the journal or on the inner bush and projects axially on the end face relative to the rolling element track of the inner bush .
A battery module comprising: a heat sink having a predetermined area, the heat sink being horizontally located; a support plate comprising an upper support plate and a lower support plate located respectively at an upper surface and a lower surface of the heat sink ; a battery cell comprising a first battery cell disposed in tight contact with the upper support plate and a second battery cell disposed in tight contact with the lower support plate ; and a cover plate comprising an upper cover plate located above the first battery cell and a lower cover plate located under the second battery cell , characterized by wherein the heat sink is provided on the upper surface thereof with a protuberance protruding by a predetermined height, and wherein the upper support plate is provided with a first opening configured to receive the protuberance ; and wherein the first battery cell is located at an upper surface of the protuberance . a heat sink having a predetermined area, the heat sink being horizontally located; a support plate comprising an upper support plate and a lower support plate located respectively at an upper surface and a lower surface of the heat sink ; a battery cell comprising a first battery cell disposed in tight contact with the upper support plate and a second battery cell disposed in tight contact with the lower support plate ; and a cover plate comprising an upper cover plate located above the first battery cell and a lower cover plate located under the second battery cell , characterized by wherein the heat sink is provided on the upper surface thereof with a protuberance protruding by a predetermined height, and wherein the upper support plate is provided with a first opening configured to receive the protuberance ; and wherein the first battery cell is located at an upper surface of the protuberance .
A lanthanoid-containing inorganic material fine particle having a function of converting a wavelength of light to a shorter wavelength, the lanthanoid-containing inorganic material fine particle comprising: a core particle; and a shell layer, the core particle containing ytterbium or neodymium as a lanthanoid having a light-absorbing function and erbium, holmium or thulium as a lanthanoid having a light-emitting function, the core particle containing a fluoride containing an alkali metal and yttrium, gadolinium or scandium as a rare earth element other than the lanthanoids, the shell layer comprising at least an outer shell containing a rare earth element, the total amount of the lanthanoid having a light-absorbing function and the lanthanoid having a light-emitting function in the outer shell being 2 mol% or less based on the amount of the rare earth element contained in the outer shell, the outer shell having a thickness of 2 to 20 nm, characterized in that the core particle and the shell layer have no interface at a contact face to form a continuous body, and a fatty acid and an organophosphorus compound are on a surface of the shell layer. a core particle; and a shell layer, the core particle containing ytterbium or neodymium as a lanthanoid having a light-absorbing function and erbium, holmium or thulium as a lanthanoid having a light-emitting function, the core particle containing a fluoride containing an alkali metal and yttrium, gadolinium or scandium as a rare earth element other than the lanthanoids, the shell layer comprising at least an outer shell containing a rare earth element, the total amount of the lanthanoid having a light-absorbing function and the lanthanoid having a light-emitting function in the outer shell being 2 mol% or less based on the amount of the rare earth element contained in the outer shell, the outer shell having a thickness of 2 to 20 nm, characterized in that the core particle and the shell layer have no interface at a contact face to form a continuous body, and a fatty acid and an organophosphorus compound are on a surface of the shell layer.
An information processing apparatus configured to send fabrication data generated from shape data stored in a memory to a lamination fabricating apparatus that laminates a material to fabricate a 3D object, wherein the fabrication data is information interpreted by the lamination fabrication apparatus to fabricate the 3D object and the shape data is data representing a shape of the 3D object to be fabricated, the information processing apparatus comprising: a display unit configured to display, on a display device , the shape data of the 3D object to be fabricated; a direction receiver configured to receive an input indicating a direction in which to reinforce the 3D object; a relocation unit configured to convert the shape data to reinforce the 3D object in the direction received by the direction receiver by calculating a rotation angle, the rotation angle being the angle between the received direction and a horizontal plane of the lamination fabricating apparatus, and rotating the shape data by the calculated rotation angle; and a printing data generator for generating the fabrication data from the rotated shape data. a display unit configured to display, on a display device , the shape data of the 3D object to be fabricated; a direction receiver configured to receive an input indicating a direction in which to reinforce the 3D object; a relocation unit configured to convert the shape data to reinforce the 3D object in the direction received by the direction receiver by calculating a rotation angle, the rotation angle being the angle between the received direction and a horizontal plane of the lamination fabricating apparatus, and rotating the shape data by the calculated rotation angle; and a printing data generator for generating the fabrication data from the rotated shape data.
Adapter for a wiper, notably for a motor vehicle, comprising a body of longitudinally elongate shape which is delimited by two vertical longitudinal lateral walls which are transversely opposite and joined together by a horizontal upper wall , and which is shaped to be mounted in a complementary yoke of inverted U-shaped cross section belonging to a wiper arm, the body of the adapter comprising a locking tab : - which extends vertically projecting above the upper face of the body ; - which is configured to be received through a hole in the yoke; - which bears a rear contact surface for contact with an edge of the hole in the yoke; - and which is connected to the body of the adapter by a vertical connecting part which is able to deform elastically so as to allow a longitudinal movement of the rear contact surface , the free upper part of the locking tab being shaped as a hook comprising a vertical branch which comprises the rear contact surface and which is extended by a locking branch which extends longitudinally rearwards and which is delimited by a lower face , which is preferably planar, shaped to collaborate with an opposing portion of the yoke , characterized in that the hook comprises a recess formed in the region of connection between the vertical branch and the locking branch in the continuation of the lower face of the locking branch . - which extends vertically projecting above the upper face of the body ; - which is configured to be received through a hole in the yoke; - which bears a rear contact surface for contact with an edge of the hole in the yoke; - and which is connected to the body of the adapter by a vertical connecting part which is able to deform elastically so as to allow a longitudinal movement of the rear contact surface ,
A method of refining a molten iron alloy while feeding oxygen to a molten iron alloy bath in a converter furnace , the method comprising: supplying a direct current between a first electrode disposed above the molten iron alloy bath and a second electrode disposed in contact with the molten iron alloy bath, wherein a hollow top blowing lance is used as the first electrode, a height of the top blowing lance is controlled based on weight of residual slag in the furnace, weight of an input auxiliary raw material, weight of a reaction product, a slag density, and a cross-sectional area of the furnace belly portion, the height of the top blowing lance being controlled between 0.1 times and 10 times a slag height H (m) calculated by H (m) = (total weight of the residual slag in the furnace, the input auxiliary raw material, and the reaction products (kg)) / (the slag density (kg/m 3 ) × the cross-sectional area of the furnace belly portion (m 2 )), and when I P [A] represents a magnitude of an average of a direct current during an energization time when the direct current is supplied, I P '[A] represents a magnitude of an average of the direct current during the energization time within one minute immediately before the feeding of the oxygen is stopped, W s [t] represents an amount of molten steel in the converter furnace, and A s [m 2 ] represents a furnace internal cross-sectional area at a furnace belly portion, at least one of equations to is satisfied. I P ≥ 0.125 × W s I P ≥ 1.5 × A s I P ′ ≥ 0.125 × W s I P ′ ≥ 1.5 × A s supplying a direct current between a first electrode disposed above the molten iron alloy bath and a second electrode disposed in contact with the molten iron alloy bath, wherein a hollow top blowing lance is used as the first electrode, a height of the top blowing lance is controlled based on weight of residual slag in the furnace, weight of an input auxiliary raw material, weight of a reaction product, a slag density, and a cross-sectional area of the furnace belly portion, the height of the top blowing lance being controlled between 0.1 times and 10 times a slag height H (m) calculated by H (m) = (total weight of the residual slag in the furnace, the input auxiliary raw material, and the reaction products (kg)) / (the slag density (kg/m 3 ) × the cross-sectional area of the furnace belly portion (m 2 )), and when I P [A] represents a magnitude of an average of a direct current during an energization time when the direct current is supplied, I P '[A] represents a magnitude of an average of the direct current during the energization time within one minute immediately before the feeding of the oxygen is stopped, W s [t] represents an amount of molten steel in the converter furnace, and A s [m 2 ] represents a furnace internal cross-sectional area at a furnace belly portion, at least one of equations to is satisfied. I P ≥ 0.125 × W s I P ≥ 1.5 × A s I P ′ ≥ 0.125 × W s I P ′ ≥ 1.5 × A s
A process for the preparation of a crystalline polymorph Form B of 3-[5-amino-4-(3-cyanobenzoyl)-pyrazol-1-yl]-N-cyclopropyl-4-methylbenzamide, wherein said Form B has an X-ray powder diffraction pattern measured using Cu Ka radiation with peaks at 2θ = about 9.6, 10.1, 11.4, 13.1, 13.9, 14.8, 15.4, 15.8, 17.0, 17.4, 18.5, 18.8, 19.7, 19.9, 20.5, 21.0, 21.9, 22.9, 23.6, 24.6 and 25.7°, the method comprising: (a) dissolving 3-[5-amino-4-(3-cyanobenzoyl)-pyrazol-1-yl]-N-cyclopropyl-4-methylbenzamide, at a temperature of at least 40°C, in a non-aqueous solvent or mixture of non-aqueous solvents to obtain a solution, wherein the solvent or solvents contain less than about 5 wt% of water relative to the 3-[5-amino-4-(3-cyanobenzoyl)-pyrazol-1-yl]-N-cyclopropyl-4-methylbenzamide starting material; (b) cooling the solution; (c) isolating the crystals; (d) heating the resultant crystals to greater than 75°C for a period of greater than 1 minute to produce Form B 3-[5-amino-4-(3-cyanobenzoyl)-pyrazol-1-yl]-N-cyclopropyl-4-methylbenzamide. (a) dissolving 3-[5-amino-4-(3-cyanobenzoyl)-pyrazol-1-yl]-N-cyclopropyl-4-methylbenzamide, at a temperature of at least 40°C, in a non-aqueous solvent or mixture of non-aqueous solvents to obtain a solution, wherein the solvent or solvents contain less than about 5 wt% of water relative to the 3-[5-amino-4-(3-cyanobenzoyl)-pyrazol-1-yl]-N-cyclopropyl-4-methylbenzamide starting material; (b) cooling the solution; (c) isolating the crystals; (d) heating the resultant crystals to greater than 75°C for a period of greater than 1 minute to produce Form B 3-[5-amino-4-(3-cyanobenzoyl)-pyrazol-1-yl]-N-cyclopropyl-4-methylbenzamide.