mhurhangee/ep-ind-claims huggingface dataset:
A method in a network node for radio resource allocation, the method comprising: allocating a number of subframes to a first terminal device for uplink transmission, in which the first terminal device repeatedly transmits its data to the network node for N times, wherein N is an integer greater than 1; decoding the data received from the first terminal device after the data has been received for M times, wherein M is an integer smaller than N; recording, after the received data from the first terminal device is successfully decoded, a remainder of the subframes, allocated to the first terminal device for a remaining N-M transmissions, as recycling uplink resource that is available for other terminal devices by putting the remainder of the subframes in a recycle buffer; and after the recording, in response to an uplink transmission need of a second terminal device, determining a first priority resource for the second terminal device based on a geometry or communication quality of the second terminal device, wherein the first priority resource comprises either unallocated resource, or the recycling uplink resource. allocating a number of subframes to a first terminal device for uplink transmission, in which the first terminal device repeatedly transmits its data to the network node for N times, wherein N is an integer greater than 1; decoding the data received from the first terminal device after the data has been received for M times, wherein M is an integer smaller than N; recording, after the received data from the first terminal device is successfully decoded, a remainder of the subframes, allocated to the first terminal device for a remaining N-M transmissions, as recycling uplink resource that is available for other terminal devices by putting the remainder of the subframes in a recycle buffer; and after the recording, in response to an uplink transmission need of a second terminal device, determining a first priority resource for the second terminal device based on a geometry or communication quality of the second terminal device, wherein the first priority resource comprises either unallocated resource, or the recycling uplink resource.
An electrical distribution control system associated with an electrical distribution grid, the electrical distribution control system comprising: first, second, and third distribution network node controller, DNNC, components (210, 220, 230) arranged in a non-flat control topography, the first DNNC component configured to communicate with the second DNNC component, with the third DNNC component, and with at least an electrical distribution grid component to dynamically control at least a portion of the electrical distribution grid, the second DNNC component configured to communicate with the first DNNC component, with the third DNNC component, and with at least an electrical distribution grid component to effect dynamic control of at least a portion of the electrical distribution grid, the second DNNC component further configured to process data received from the third DNNC component on the basis of data received from the first DNNC component and to transmit the processed data to the first DNNC component. first, second, and third distribution network node controller, DNNC, components (210, 220, 230) arranged in a non-flat control topography, the first DNNC component configured to communicate with the second DNNC component, with the third DNNC component, and with at least an electrical distribution grid component to dynamically control at least a portion of the electrical distribution grid, the second DNNC component configured to communicate with the first DNNC component, with the third DNNC component, and with at least an electrical distribution grid component to effect dynamic control of at least a portion of the electrical distribution grid, the second DNNC component further configured to process data received from the third DNNC component on the basis of data received from the first DNNC component and to transmit the processed data to the first DNNC component.
A service signal processing method, wherein the method is applied to customer-premises equipment, CPE and comprises: the following steps carried out in sequence: obtaining signal strength information of a current service antenna corresponding to a current service; obtaining a first idle timeslot of a current-service signal frame structure and a second idle timeslot of another-service signal frame structure; obtaining a synchronization moment of the first idle timeslot and the second idle timeslot; controlling the current service antenna to be disconnected from a radio frequency channel of the current service antenna; controlling another service antenna corresponding to the another service to be switched to the radio frequency channel of the current service antenna at the obtained synchronization moment, and then receive/send a test signal; controlling the another service antenna to be disconnected from the radio frequency channel of the current service antenna, and controlling the current service antenna to be switched back to the radio frequency channel of the current service antenna; determining signal strength information of the another service antenna according to a receiving/sending result of the test signal; selecting a working antenna according to the signal strength information of the current service antenna and the signal strength information of the another service antenna; and controlling the working antenna to process a service signal of the current service by using the radio frequency channel of the current service antenna. obtaining signal strength information of a current service antenna corresponding to a current service; obtaining a first idle timeslot of a current-service signal frame structure and a second idle timeslot of another-service signal frame structure; obtaining a synchronization moment of the first idle timeslot and the second idle timeslot; controlling the current service antenna to be disconnected from a radio frequency channel of the current service antenna; controlling another service antenna corresponding to the another service to be switched to the radio frequency channel of the current service antenna at the obtained synchronization moment, and then receive/send a test signal; controlling the another service antenna to be disconnected from the radio frequency channel of the current service antenna, and controlling the current service antenna to be switched back to the radio frequency channel of the current service antenna; determining signal strength information of the another service antenna according to a receiving/sending result of the test signal; selecting a working antenna according to the signal strength information of the current service antenna and the signal strength information of the another service antenna; and controlling the working antenna to process a service signal of the current service by using the radio frequency channel of the current service antenna.
A vacuum pad for suctioning a workpiece by utilizing a vacuum pressure, the vacuum pad comprising: a support member including a vacuum passage inside; a bellows secured to the support member; and a restriction member attached to an inner side of the bellows; wherein the restriction member comes into the vacuum passage when the bellows is contracted; wherein the restriction member includes a sleeve portion configured to be inserted into the vacuum passage and a flange portion extending outward from one end portion of the sleeve portion; and wherein a tip end of the flange portion engages with an inner wall of the bellows; characterized in that another end portion of the sleeve portion is formed as a tapered surface becoming thinner toward an end; and that an end portion of the vacuum passage is formed as a tapered surface expanding in diameter. a support member including a vacuum passage inside; a bellows secured to the support member; and a restriction member attached to an inner side of the bellows; wherein the restriction member comes into the vacuum passage when the bellows is contracted; wherein the restriction member includes a sleeve portion configured to be inserted into the vacuum passage and a flange portion extending outward from one end portion of the sleeve portion; and wherein a tip end of the flange portion engages with an inner wall of the bellows; characterized in that another end portion of the sleeve portion is formed as a tapered surface becoming thinner toward an end; and that an end portion of the vacuum passage is formed as a tapered surface expanding in diameter.
A crystalline form of compound, wherein the crystalline form displays a reflection, stated as a 20 value, at 17.8 ± 0.2°, in an X-ray powder diffraction pattern, wherein the reflection at 17.8 ± 0.2° is one of the four strongest reflections in the X-ray powder diffraction pattern.
A high melt strength resin composition comprising a) non-functionalized polypropylene, b) at least one of zinc diacrylate, calcium diacrylate or aluminum triacrylate in a total amount of from 0.1 to 5 % by weight based on the weight of non-functionalized polypropylene, and c) at least one acid neutralizer in a total amount of from 0.005 to 5 % by weight based on the total weight of the at least one acrylate.
A container having a deep-drawn tub made of plastics material and having at least one dosing unit located in a tub interior of the tub, which dosing unit comprises at least one active ingredient having a water-soluble casing enclosing the active ingredient, wherein the tub has a base and a tub wall that extends from the base, which base and tub wall define the tub interior, wherein the tub wall comprises a plurality of projections which are directed toward the tub interior from a datum plane of the tub wall and which have a first ridge extending in the longitudinal direction and additional ridges that are parallel to the first ridge, wherein a spacing of adjacent projections is smaller than a length and smaller than a width of the dosing unit, the ridges each have a first ridge flank, a ridge top and a second ridge flank in cross section and the first ridge flank and the second ridge flank bridge a spacing between the ridge top and the datum plane of the tub wall.
A method of forming a multilayer graphene, the method comprising: forming a first graphene on an underlayer at a first temperature by using a first source gas; and forming a first multilayer graphene on a first area of the first graphene at a second temperature by using a second source gas, the first multilayer graphene comprising a portion of the first graphene corresponding to the first area, wherein the first temperature used to form the first graphene is different from the second temperature, or a first source gas used to form the first graphene is different from the second source gas. forming a first graphene on an underlayer at a first temperature by using a first source gas; and forming a first multilayer graphene on a first area of the first graphene at a second temperature by using a second source gas, the first multilayer graphene comprising a portion of the first graphene corresponding to the first area, wherein the first temperature used to form the first graphene is different from the second temperature, or a first source gas used to form the first graphene is different from the second source gas.
A method of manufacturing a shear web for a wind turbine blade, the shear web having a web body and a first web foot flange at a first end of the web body and a second web foot flange at a second end of the web body, wherein the method comprises the steps of: a) providing an elongated lower web mould part having a moulding surface with a central portion, which is substantially flat, a first downwardly extending moulding surface portion at a first end of the lower web mould part, and a second downwardly extending moulding surface portion at a second end of the lower web mould part, b) arranging one or more fibre layers (62, 64) on top of the elongated lower web mould part and at least partly covering the first downwardly extending moulding surface portion, the central portion, and the second downwardly extending moulding surface portion, c) arranging a first backing plate opposite to the first downwardly extending moulding surface portion and arranging a second backing plate opposite to the second downwardly extending moulding surface portion to create a mould cavity between the first and second backing plates (66, 68) and the lower web mould part, wherein each backing plate comprises an inner moulding surface, one or more outer surfaces (98, 100), and a channel or groove extending between at least one of the outer surfaces (98, 100) and the inner moulding surface of the backing plate, d) supplying resin to the mould cavity via the respective channel or groove of the first and second backing plate (66, 68), and e) curing or hardening the resin in order to form the shear web. a) providing an elongated lower web mould part having a moulding surface with a central portion, which is substantially flat, a first downwardly extending moulding surface portion at a first end of the lower web mould part, and a second downwardly extending moulding surface portion at a second end of the lower web mould part, b) arranging one or more fibre layers (62, 64) on top of the elongated lower web mould part and at least partly covering the first downwardly extending moulding surface portion, the central portion, and the second downwardly extending moulding surface portion, c) arranging a first backing plate opposite to the first downwardly extending moulding surface portion and arranging a second backing plate opposite to the second downwardly extending moulding surface portion to create a mould cavity between the first and second backing plates (66, 68) and the lower web mould part, wherein each backing plate comprises an inner moulding surface, one or more outer surfaces (98, 100), and a channel or groove extending between at least one of the outer surfaces (98, 100) and the inner moulding surface of the backing plate, d) supplying resin to the mould cavity via the respective channel or groove of the first and second backing plate (66, 68), and e) curing or hardening the resin in order to form the shear web.
Hair crimping device having two arms (2, 3) supported in an articulated manner on one another, on which a first or second crimping plate (4, 5) is arranged, wherein the respective crimping plate (4, 5) has wave crests and wave troughs, which interlock in a complementary manner when the two arms (2, 3) are closed, wherein at least one supporting device for supporting an associated crimping plate (4, 5) is provided on the arm (2, 3), characterised in that the supporting device is embodied such that the two crimping plates (4, 5) move in an oblique manner on top of each other, as a result of which the individual wave crests and wave troughs of the two crimping plates (4, 5) interlock successively when the two arms (2, 3) are closed such that a lock of hair to be curled is firstly fixed on a first side of the crimping plate (4, 5), and when the hair crimping device is closed further, the individual wave crests and wave troughs of both crimping plates (4, 5) move successively into one another and as a result clamp the air.
A resin composition for a model material, which is used for shaping a model material by an inkjet optical shaping method and comprises a monofunctional monomer and an oligomer, the oligomer having a weight average molecular weight Mw of 1,000 to 10,000 in terms of polystyrene measured by Gel Permeation Chromatography, as photocurable components, wherein the resin composition comprises, based on 100 parts by weight of a whole resin composition, 20 to 90 parts by weight of a (meth)acrylate monomer represented by the following formula and/or a (meth)acrylate monomer represented by the following formula as the component, and 5 parts by weight or more of a polyfunctional oligomer as the component, and further comprises no or 15 parts by weight or less, based on 100 parts by weight of the whole resin composition, of polyfunctional monomer as a photocurable component, wherein R 1, R 2 and R 3 each independently represent a hydrogen atom or a linear or branched alkyl group having 1 to 3 carbon atoms. based on 100 parts by weight of a whole resin composition, 20 to 90 parts by weight of a (meth)acrylate monomer represented by the following formula and/or a (meth)acrylate monomer represented by the following formula as the component, and 5 parts by weight or more of a polyfunctional oligomer as the component, and further comprises no or 15 parts by weight or less, based on 100 parts by weight of the whole resin composition, of polyfunctional monomer as a photocurable component,
CIC-7 protein that is presented on the cell surface and/or plasma membrane, characterised in that interaction between CIC-7 and the endosomal and/or lysosomal sorting machinery is inhibited and/or disrupted, whereby the CIC-7 protein is selected from human, rat or mouse CIC-7 protein, wherein said CIC-7 protein comprises an N-terminal sequence according to SEQ ID NO: 19, 20 or 21, which is modified by a mutation in the following AP or GGA recognition motifs: - In the human CIC-7 sequence the 19-EAAPLL-24 motif (SEQ ID NO: 2) and/or the 65-DDELL-69 motif (SEQ ID NO: 8), - In the mouse and/or rat CIC-7 sequences the 19-EGAPLL-24 motif (SEQ ID NO: 4), the 32-EETPLL-37 motif (SEQ ID NO: 6) and/or the 63-DDELL-67 motif (SEQ ID NO: 10), wherein said CIC-7 protein comprises at least a mutation in the 19-EAAPLL-24 motif (SEQ ID NO: 2) in human CIC-7 or 19-EGAPLL-24 motif (SEQ ID NO: 4) in rat or mouse CIC-7, wherein rat or mouse CLC-7 additionally comprises a mutation in the 32-EETPLL-37 motif (SEQ ID NO: 6). - In the human CIC-7 sequence the 19-EAAPLL-24 motif (SEQ ID NO: 2) and/or the 65-DDELL-69 motif (SEQ ID NO: 8), - In the mouse and/or rat CIC-7 sequences the 19-EGAPLL-24 motif (SEQ ID NO: 4), the 32-EETPLL-37 motif (SEQ ID NO: 6) and/or the 63-DDELL-67 motif (SEQ ID NO: 10),
Method for controlling a thermal power plant for producing electrical energy, said power plant comprising at least one source of heat for providing thermal energy to a working fluid circulation circuit, said circuit comprising at least: - a high pressure turbine mechanically connected to an electric generator, - a high pressure regulator valve controlling the supply of steam to said high pressure turbine from a high pressure superheater combined with a high pressure storage tank, the fluid supply to said high pressure storage tank from a high pressure steam generator being controlled by a high pressure feed valve, with the method being characterised in that in response to a surplus electrical power requirement, - the opening of the high pressure regulator valve is increased - the opening of the high pressure feed valve is reduced. - a high pressure turbine mechanically connected to an electric generator, - a high pressure regulator valve controlling the supply of steam to said high pressure turbine from a high pressure superheater combined with a high pressure storage tank, the fluid supply to said high pressure storage tank from a high pressure steam generator being controlled by a high pressure feed valve, - the opening of the high pressure regulator valve is increased - the opening of the high pressure feed valve is reduced.
A system for demonstrating proof of control of an agricultural machine by a user, the agricultural machine configured to generate and transmit operational data corresponding to operations performed by the agricultural machine, the system comprising: a mobile electronic device configured to receive an identity confirmation action sequence for the user to perform in the agricultural machine; and a computer server including a processing element in electronic communication with a memory element, the processing element configured or programmed to: receive a request to execute a demonstration of proof of control process, generate and transmit an identity confirmation action sequence to the mobile electronic device, transmit an instruction to the agricultural machine to activate logging and transmission of its initial state and operational data, receive operational data related to the identity confirmation action sequence from the agricultural machine, compare the operational data with the identity confirmation action sequence, and assign operational data from the agricultural machine to a data account of the user if the operational data matches the identity confirmation action sequence. a mobile electronic device configured to receive an identity confirmation action sequence for the user to perform in the agricultural machine; and a computer server including a processing element in electronic communication with a memory element, the processing element configured or programmed to: receive a request to execute a demonstration of proof of control process, generate and transmit an identity confirmation action sequence to the mobile electronic device, transmit an instruction to the agricultural machine to activate logging and transmission of its initial state and operational data, receive operational data related to the identity confirmation action sequence from the agricultural machine, compare the operational data with the identity confirmation action sequence, and assign operational data from the agricultural machine to a data account of the user if the operational data matches the identity confirmation action sequence. receive a request to execute a demonstration of proof of control process, generate and transmit an identity confirmation action sequence to the mobile electronic device, transmit an instruction to the agricultural machine to activate logging and transmission of its initial state and operational data, receive operational data related to the identity confirmation action sequence from the agricultural machine, compare the operational data with the identity confirmation action sequence, and assign operational data from the agricultural machine to a data account of the user if the operational data matches the identity confirmation action sequence.
Degradable implant composed of an implant structure and a coating that is located thereon at least partially, characterized in that the coating on the implant structure - contains gallium ions in the form of gallium compounds that are sparingly soluble in aqueous and/or physiological media, wherein the gallium content in the coating amounts to 1 to 50 atom percent and the gallium compounds are present in the form of mainly gallium phosphate and/or gallium-Ca and/or -Mg phosphate, wherein the gallium phosphate is present in amorphous or nanocrystalline form, - has a thickness of 0.1 to 50 μm, and - has a porous structure with a pore density of 10 4 to 10 7 pores/mm 2 and an average pore size between 0.1 and 10 μm. - contains gallium ions in the form of gallium compounds that are sparingly soluble in aqueous and/or physiological media, wherein the gallium content in the coating amounts to 1 to 50 atom percent and the gallium compounds are present in the form of mainly gallium phosphate and/or gallium-Ca and/or -Mg phosphate, wherein the gallium phosphate is present in amorphous or nanocrystalline form, - has a thickness of 0.1 to 50 μm, and - has a porous structure with a pore density of 10 4 to 10 7 pores/mm 2 and an average pore size between 0.1 and 10 μm.