mhurhangee/ep-ind-claims huggingface dataset:
Modular holder for textile fabrics comprising: - a chain of function units and end units having an oval form and made from polymer, - each unit having a front part with a boss shape and a cylindrical neck with a circular enlargement with reinforced ledges on one side and a shelf portion on the other side, - an intermediate part and - an end part with a tear-drop shaped opening leading via an entrance to a part-circular recess, being slightly wider than said cylindrical neck, to enable said units to be connected during use, - on each function unit, the intermediate part has a flexible pinch slot with both linear and waved portions formed on each inner contacting surface, which begin to open up at a centre part and then diverge away from one another towards the end part characterised in that, on each outer side of said pinch slot are a pair of inner ribs (11,11) connected via a pair of inclined space bars to an outer rib, thereby forming relief space portions between said inner and outer ribs. - a chain of function units and end units having an oval form and made from polymer, - each unit having a front part with a boss shape and a cylindrical neck with a circular enlargement with reinforced ledges on one side and a shelf portion on the other side, - an intermediate part and - an end part with a tear-drop shaped opening leading via an entrance to a part-circular recess, being slightly wider than said cylindrical neck, to enable said units to be connected during use, - on each function unit, the intermediate part has a flexible pinch slot with both linear and waved portions formed on each inner contacting surface, which begin to open up at a centre part and then diverge away from one another towards the end part
A dongle-based software copy protection method, comprising: transplanting part of codes in protected software into a dongle, and operating, by the protected software and the dongle, threads respectively based on codes in the protected software and codes in the dongle at the same time; wherein the method further comprises: sending, by the protected software, an invoking instruction to the dongle, and going on operating the thread based on the codes in the protected software; performing, by the dongle, processing according to the invoking instruction received, obtaining a processing result, and going on operating the thread based on the codes in the dongle; sending, by the protected software, a result obtaining instruction to the dongle when necessary, and providing, by the dongle, the processing result to the protected software according to the result obtaining instruction. sending, by the protected software, an invoking instruction to the dongle, and going on operating the thread based on the codes in the protected software; performing, by the dongle, processing according to the invoking instruction received, obtaining a processing result, and going on operating the thread based on the codes in the dongle; sending, by the protected software, a result obtaining instruction to the dongle when necessary, and providing, by the dongle, the processing result to the protected software according to the result obtaining instruction.
A bandwidth extension method, performed by an electronic device, the method comprising: determining parameters of a low-frequency spectrum of a to-be-processed narrowband signal, the parameters of the low-frequency spectrum comprising a low-frequency amplitude spectrum, wherein the narrowband signal is a speech frame; inputting the parameters of the low-frequency spectrum into a neural network model, and obtaining a correlation parameter based on an output of the neural network model, the correlation parameter representing a correlation between a high-frequency part and a low-frequency part of a target broadband spectrum and comprising a high-frequency spectrum envelope; obtaining a target high-frequency amplitude spectrum based on the correlation parameter and the low-frequency amplitude spectrum; generating a corresponding high-frequency phase spectrum based on a low-frequency phase spectrum of the narrowband signal; obtaining a high-frequency spectrum according to the target high-frequency amplitude spectrum and the high-frequency phase spectrum; and obtaining a broadband signal after BWE based on the low-frequency spectrum and the high-frequency spectrum, wherein the broadband signal comprises a signal of a low-frequency part in the narrowband signal and a signal of a high-frequency part after extension. determining parameters of a low-frequency spectrum of a to-be-processed narrowband signal, the parameters of the low-frequency spectrum comprising a low-frequency amplitude spectrum, wherein the narrowband signal is a speech frame; inputting the parameters of the low-frequency spectrum into a neural network model, and obtaining a correlation parameter based on an output of the neural network model, the correlation parameter representing a correlation between a high-frequency part and a low-frequency part of a target broadband spectrum and comprising a high-frequency spectrum envelope; obtaining a target high-frequency amplitude spectrum based on the correlation parameter and the low-frequency amplitude spectrum; generating a corresponding high-frequency phase spectrum based on a low-frequency phase spectrum of the narrowband signal; obtaining a high-frequency spectrum according to the target high-frequency amplitude spectrum and the high-frequency phase spectrum; and obtaining a broadband signal after BWE based on the low-frequency spectrum and the high-frequency spectrum, wherein the broadband signal comprises a signal of a low-frequency part in the narrowband signal and a signal of a high-frequency part after extension.
Felt support, comprising: a plurality of felt composites as a module of the felt support, each of the felt composites comprising: at least one first felt layer, a multi-element second felt layer, which is arranged on the first felt layer and which comprises at least a first felt shaping element and a second felt shaping element which are arranged side by side on the first felt layer; wherein the first felt shaping element and the second felt shaping element are sewn to the first felt layer separately from one another along mutually adjacent edges (20a, 20b); wherein the first felt shaping element has a first edge and the first felt shaping element is sewn to the first felt layer along the first edge by means of a first seam; wherein the second felt shaping element has a second edge which extends along and is adjacent to the first edge of the first felt shaping element, and the second felt shaping element is sewn to the first felt layer along the second edge by means of a second seam; wherein the felt support further comprises a third felt layer; wherein the felt composites are adhered and/or sewn to the third felt layer mutually adjacently. at least one first felt layer, a multi-element second felt layer, which is arranged on the first felt layer and which comprises at least a first felt shaping element and a second felt shaping element which are arranged side by side on the first felt layer; wherein the first felt shaping element and the second felt shaping element are sewn to the first felt layer separately from one another along mutually adjacent edges (20a, 20b); wherein the first felt shaping element has a first edge and the first felt shaping element is sewn to the first felt layer along the first edge by means of a first seam; wherein the second felt shaping element has a second edge which extends along and is adjacent to the first edge of the first felt shaping element, and the second felt shaping element is sewn to the first felt layer along the second edge by means of a second seam; wherein the felt support further comprises a third felt layer; wherein the felt composites are adhered and/or sewn to the third felt layer mutually adjacently.
A method for configuring an available memory size of an integrated circuit comprising at least a processor and a total memory, the method comprising a stage for the configuration of an available memory size smaller than or equal to that of the total memory, characterised in that the configuration method is carried out by a circuit user other than the circuit manufacturer, and in that the configuration method includes: - a step of selecting the memory size of the integrated circuit, - a step of registering and locking the selected memory size, where such registration is locked permanently, and - a step of generating a signature representative of the selected memory size by the integrated circuit. - a step of selecting the memory size of the integrated circuit, - a step of registering and locking the selected memory size, where such registration is locked permanently, and - a step of generating a signature representative of the selected memory size by the integrated circuit.
A method comprising: determining, by a base station, loading of at least one of the component carriers; determining, by a base station, a capability of a user equipment for carrier aggregation of a plurality of component carriers; assigning, by a base station, the user equipment to one or more of the component carriers on the basis of the determined capability and the determined loading; and characterised in that wherein determining the loading comprises determining a loading limit for each component carrier based on a maximum number of user equipments supported by each component carrier, and wherein determining the capability comprises determining the maximum number of component carriers the user equipment supports in carrier aggregation. determining, by a base station, loading of at least one of the component carriers; determining, by a base station, a capability of a user equipment for carrier aggregation of a plurality of component carriers; assigning, by a base station, the user equipment to one or more of the component carriers on the basis of the determined capability and the determined loading; and characterised in that wherein determining the loading comprises determining a loading limit for each component carrier based on a maximum number of user equipments supported by each component carrier, and wherein determining the capability comprises determining the maximum number of component carriers the user equipment supports in carrier aggregation.
A winding device, comprising: a bobbin that winds up a striatum; a cover that covers the bobbin and includes a slit parallel to an axial direction of the bobbin such that the striatum is inserted; and a roller that guides the striatum directly to the bobbin; characterized by a mechanism for moving the roller relative to the bobbin or moving a location of the slit of the cover in a circumferential direction, depending on a bobbin winding body diameter (Dn) of the striatum of the bobbin. a bobbin that winds up a striatum; a cover that covers the bobbin and includes a slit parallel to an axial direction of the bobbin such that the striatum is inserted; and a roller that guides the striatum directly to the bobbin; characterized by a mechanism for moving the roller relative to the bobbin or moving a location of the slit of the cover in a circumferential direction, depending on a bobbin winding body diameter (Dn) of the striatum of the bobbin.
An apparatus for use in aerosolized delivery of a powder, comprising: a first chamber, containing gas at a first pressure higher than atmospheric pressure; a second chamber, containing gas at a second pressure higher than atmospheric pressure; a powder contained within the first or second chamber; wherein the first chamber has a first external wall and a separating wall, the separating wall being shared with the second chamber, wherein the separating wall is configured to rupture if a pressure difference across it becomes equal to or greater than a threshold pressure difference; wherein the difference between the second pressure and atmospheric pressure is greater than the threshold pressure difference; characterised in that the powder is held on a gas-permeable structure; the gas-permeable structure is held close to the separating wall. a first chamber, containing gas at a first pressure higher than atmospheric pressure; a second chamber, containing gas at a second pressure higher than atmospheric pressure; a powder contained within the first or second chamber; wherein the first chamber has a first external wall and a separating wall, the separating wall being shared with the second chamber, wherein the separating wall is configured to rupture if a pressure difference across it becomes equal to or greater than a threshold pressure difference; wherein the difference between the second pressure and atmospheric pressure is greater than the threshold pressure difference; characterised in that the powder is held on a gas-permeable structure; the gas-permeable structure is held close to the separating wall.
A crash load absorption structure for a motor vehicle, the structure comprising a compressible load absorbing structure having a front portion and a rear portion and being arranged to compress under a crash load along a generally longitudinal direction, characterized by the structure further comprising a load transfer element having one end fixed to a substantially rigid structural member and a free, cantilevered distal end opposite the end fixed to the substantially rigid structural member for applying crash load to the load absorbing structure at a location part-way along the load absorbing structure.
A lubricant supplying device comprising: lubricant accommodating chambers for storing a predetermined amount of a lubricant; and lubricant coaters for guiding and applying the lubricant stored in the lubricant accommodating chambers to a surface to be coated, wherein the lubricant accommodating chamber has a grease absorber having a porosity of 70 to 95%, wherein the lubricant coater has a porosity of 40 to 60%, wherein the lubricant stored in the lubricant accommodating chambers is absorbed and held by the grease absorbers in the lubricant accommodating chambers and is supplied from the grease absorber to the surface to be coated through the lubricant coaters, and wherein the lubricant stored in the lubricant accommodating chambers is lubricating grease which contains 0.5 to 3.5 wt% of a thickener in lubricating base oil and has worked penetration according to JIS K2220 5.3 of 410 to 550. lubricant accommodating chambers for storing a predetermined amount of a lubricant; and lubricant coaters for guiding and applying the lubricant stored in the lubricant accommodating chambers to a surface to be coated, wherein the lubricant accommodating chamber has a grease absorber having a porosity of 70 to 95%, wherein the lubricant coater has a porosity of 40 to 60%, wherein the lubricant stored in the lubricant accommodating chambers is absorbed and held by the grease absorbers in the lubricant accommodating chambers and is supplied from the grease absorber to the surface to be coated through the lubricant coaters, and wherein the lubricant stored in the lubricant accommodating chambers is lubricating grease which contains 0.5 to 3.5 wt% of a thickener in lubricating base oil and has worked penetration according to JIS K2220 5.3 of 410 to 550.
A circuit board assembly, comprising a circuit board provided with a plurality of heating elements and a heat dissipation apparatus, wherein the heat dissipation apparatus comprises a substrate, at least one heat conductor is disposed on one surface that is of the substrate and that faces the circuit board, one end of the heat conductor is connected to the substrate, and the other end of the heat conductor extends toward the circuit board and is close to the heating elements; wherein the heat dissipation apparatus is disposed on one surface that is of the circuit board and that is provided with the heating elements, wherein one end of at least one heat conductor in the heat dissipation apparatus extends between a high-temperature element and a low-temperature element that are adjacent in the heating elements, to isolate the high-temperature element from the low-temperature element by using the heat conductor; characterized in that a heat insulation layer is disposed on the heat conductor between the high-temperature element and the low-temperature element, and the heat insulation layer faces the low-temperature element. wherein one end of at least one heat conductor in the heat dissipation apparatus extends between a high-temperature element and a low-temperature element that are adjacent in the heating elements, to isolate the high-temperature element from the low-temperature element by using the heat conductor; characterized in that a heat insulation layer is disposed on the heat conductor between the high-temperature element and the low-temperature element, and the heat insulation layer faces the low-temperature element.
A tire rubber composition comprising a microparticle composite in a sulfur vulcanizable rubber; the microparticle composite being a solid component of a mixture formed from an emulsion of an organic microparticle and a rubber latex; the emulsion of the organic microparticle being an emulsion containing a microparticle obtained by polymerizing and/or crosslinking at least one selected from the group consisting of polymerizable monomers, and oligomers, prepolymers, and polymers having a reactive functional group and having a molecular weight from 500 to 50000 simultaneously or stepwise in water; and an average particle size of the microparticle being from 0.001 to 100 μm, wherein the at least one selected from the group consisting of oligomers, prepolymers, and polymers has at least one selected from the group consisting of a mercapto group, a sulfur atom, and polysulfide bonds containing at least two sulfur atoms. a microparticle composite in a sulfur vulcanizable rubber; the microparticle composite being a solid component of a mixture formed from an emulsion of an organic microparticle and a rubber latex; the emulsion of the organic microparticle being an emulsion containing a microparticle obtained by polymerizing and/or crosslinking at least one selected from the group consisting of polymerizable monomers, and oligomers, prepolymers, and polymers having a reactive functional group and having a molecular weight from 500 to 50000 simultaneously or stepwise in water; and an average particle size of the microparticle being from 0.001 to 100 μm, wherein the at least one selected from the group consisting of oligomers, prepolymers, and polymers has at least one selected from the group consisting of a mercapto group, a sulfur atom, and polysulfide bonds containing at least two sulfur atoms.
Method for the preparation of a multi component non-woven wound dressing comprising the steps of (a) ejecting two aqueous solutions of natural protein structures of different compositions through nozzles, wherein the aqueous solutions comprise <25% low molecular weight alcohol; while (b) emitting pressurized air from air jet bores to attenuate or stretch the natural protein structure fibers; while (c) collecting the fibers on a collecting device, wherein at least one of the two aqueous solutions comprises gelatin. (a) ejecting two aqueous solutions of natural protein structures of different compositions through nozzles, wherein the aqueous solutions comprise <25% low molecular weight alcohol; while (b) emitting pressurized air from air jet bores to attenuate or stretch the natural protein structure fibers; while (c) collecting the fibers on a collecting device,
A method of wireless communication by a user equipment, UE, in a wireless communication system comprising the user equipment, UE and at least one other UE in a distributed vehicle-to-everything, V2X environment, comprising: determining a multi-frequency transmission schedule comprising a schedule for transmissions on multiple transmission frequencies from different wireless technologies available in the V2X environment based at least in part on a determination at the UE of a number of users on a subchannel, wherein the multi-frequency transmission schedule comprises assignments of one or more subchannels to specific applications at the UE for communication with the at least one other UE, wherein determining the number of users on the subchannel is based in part on one or more of a received demodulation reference signal, a received power during a predetermined time period, and a number of packets successfully decoded; transmitting the multi-frequency transmission schedule to the at least one other UE; and transmitting a transport block of data to the at least one other UE based on the determined multi-frequency transmission schedule. determining a multi-frequency transmission schedule comprising a schedule for transmissions on multiple transmission frequencies from different wireless technologies available in the V2X environment based at least in part on a determination at the UE of a number of users on a subchannel, wherein the multi-frequency transmission schedule comprises assignments of one or more subchannels to specific applications at the UE for communication with the at least one other UE, wherein determining the number of users on the subchannel is based in part on one or more of a received demodulation reference signal, a received power during a predetermined time period, and a number of packets successfully decoded; transmitting the multi-frequency transmission schedule to the at least one other UE; and transmitting a transport block of data to the at least one other UE based on the determined multi-frequency transmission schedule.
A lifting connector for use with earthmoving equipment comprising a head for connecting to a lifting device, and a base to create a positive engagement with a preformed hole (66, 67, 68) within a wear part used on the earthmoving equipment, wherein the base has a latching formation to hold the head of the lifting connector in a preferred orientation.