mhurhangee/ep-ind-claims huggingface dataset:
An intelligent clothing washing management device, at least comprising a clothing module, a washing procedure recommendation module, a storage module and a processing module, wherein: the intelligent clothing washing management device arrangeable on an intelligent terminal which is communicatively connectable with a washing device having a control module and communication module configured to receive an operation instruction transmitted by the intelligent clothing washing management device and send operation instruction to the control module, and the washing procedure recommendation module is configured to, according to clothing model selected by the clothing module, recommend preferred washing parameters by information stored in the storage module, and the processing module is configured to receive the washing parameters recommended by the washing procedure recommendation module and control the washing device to perform corresponding operations in accordance with the washing parameters set by the intelligent clothing washing management device, characterized in that the washing parameters are set in each level of washing strength of clothing, wherein the management device includes levels of washing strength which is classified by washing strength from low to high according to clothing types. the intelligent clothing washing management device arrangeable on an intelligent terminal which is communicatively connectable with a washing device having a control module and communication module configured to receive an operation instruction transmitted by the intelligent clothing washing management device and send operation instruction to the control module, and the washing procedure recommendation module is configured to, according to clothing model selected by the clothing module, recommend preferred washing parameters by information stored in the storage module, and the processing module is configured to receive the washing parameters recommended by the washing procedure recommendation module and control the washing device to perform corresponding operations in accordance with the washing parameters set by the intelligent clothing washing management device, characterized in that the washing parameters are set in each level of washing strength of clothing, wherein the management device includes levels of washing strength which is classified by washing strength from low to high according to clothing types.
A package comprising a stack of absorbent tissue paper material and a packaging, wherein, in said stack, the absorbent tissue paper material forms panels having a length, and a width perpendicular to said length, said panels being piled on top of each other to form a height extending between a first end surface and a second end surface (11, 12) of the stack; the absorbent tissue paper material comprising at least a dry crepe material, characterised by the stack, when in said package, having a selected packing density D0 of 0.25 to 0.65 kg/ dm 3, and exerting a force along the height of said stack towards the packaging, the packaging encircling said stack so as to maintain said stack in a compressed condition with said selected packing density D0, said packing density D0 being > 0.25 and ≤ 0.35 kg/ dm 3 and said package displaying a piston imprinting load at 3 mm imprint level IM3 and a piston imprinting load at 10 mm imprint level IM10, wherein IM10/IM3 is greater than 3 or said packing density D0 being > 0.35 and ≤ 0.65 kg/ dm 3 and said package displaying a piston imprinting load as described herein at 3 mm imprint level IM3 and a piston imprinting load at 10 mm imprint level IM10, wherein IM10/IM3 is greater than 4.5, wherein the piston imprinting load is the force required to press a piston into the stack towards an end surface of the stack, and in a direction along the height of the stack, and the imprint level is the distance from an imprint level being set to 0 at the piston imprinting load being 1 N, said piston having an outward end for contacting the stack comprising an essentially planar circular outer end surface having a diameter of 33.5 mm, and comprising a conical surface extending radially outwards from the planar outer end surface, the conical surface forms an angle of 45 degrees with the planar outer end surface, and tapers longitudinally inward from the outer end surface, wherein the conical edge surface extends radially to a diameter of 36 mm, whereafter the outer surface of the piston forms a cylindrical surface extending towards an inward end of the piston.
A method for obtaining channel spatial characteristic information, characterized in: separately sending, by a first base station, a channel spatial characteristic request and an identity of to-be-measured user equipment, UE, to each of multiple second base stations, wherein the channel spatial characteristic request is used to instruct each of the second base stations to perform channel spatial characteristic information measurement on the to-be-measured UE; and receiving, by the first base station, channel spatial characteristic indication information sent by the multiple second base stations, wherein the channel spatial characteristic indication information carries channel spatial characteristic information of the to-be-measured UE, and the channel spatial characteristic information comprises: angle information and spatial intensity information that are generated when a beam of the second base station arrives at the to-be-measured UE. separately sending, by a first base station, a channel spatial characteristic request and an identity of to-be-measured user equipment, UE, to each of multiple second base stations, wherein the channel spatial characteristic request is used to instruct each of the second base stations to perform channel spatial characteristic information measurement on the to-be-measured UE; and receiving, by the first base station, channel spatial characteristic indication information sent by the multiple second base stations, wherein the channel spatial characteristic indication information carries channel spatial characteristic information of the to-be-measured UE, and the channel spatial characteristic information comprises: angle information and spatial intensity information that are generated when a beam of the second base station arrives at the to-be-measured UE.
A network node for an EGPRS system, the network node being equipped with a plurality of transmit antennas and being arranged to transmit at least a first and a second data stream as Multiple Input Multiple Output, MIMO, streams, with the first data stream being transmitted from a first transmit antenna and the second data stream being transmitted from a second transmit antenna, the network node being arranged to transmit said data streams as bursts comprising a training sequence and payload, the network node being characterized in that the network node is arranged to, before modulation, swap parts of said data streams between the first and second transmit antennas, the network node being arranged to perform said swaps adaptively in response to the network node receiving information regarding: swapping of q-bits of two or more bursts from said data streams between the bursts, the q-bits being bits that partially identify a Modulation and Coding Scheme, MCS, that has been used in a radio block which comprises a number of bursts; swapping of training sequences of two or more bursts from said data streams between the bursts; and one of the Modulation and Coding Scheme, MCS, and a length of Transmission Time Intervals, TTIs, used for the bursts. swapping of q-bits of two or more bursts from said data streams between the bursts, the q-bits being bits that partially identify a Modulation and Coding Scheme, MCS, that has been used in a radio block which comprises a number of bursts; swapping of training sequences of two or more bursts from said data streams between the bursts; and one of the Modulation and Coding Scheme, MCS, and a length of Transmission Time Intervals, TTIs, used for the bursts.
Method for manufacturing a monobloc part of revolution by superimposition, around a rotary cylindrical mandrel, of at least two metal-coated composite fibrous structures, respectively inner and outer, wound in first and second directions crossed on said mandrel, characterised in that it consists in: - placing, around the inner fibrous structure arranged on the mandrel in the first winding direction, at least one layer of metal wire, - winding on said layer of metal wire, the outer fibrous structure in the second winding direction, - placing the blank of said part, formed by the fibrous structures (7, 14) and the layer of metal wire, into a receiving tool to apply on the blank a treatment of hot isostatic compaction or isothermal forging, and - extracting the treated blank from the tool, as required, machining the treated blank to obtain said part. - placing, around the inner fibrous structure arranged on the mandrel in the first winding direction, at least one layer of metal wire, - winding on said layer of metal wire, the outer fibrous structure in the second winding direction, - placing the blank of said part, formed by the fibrous structures (7, 14) and the layer of metal wire, into a receiving tool to apply on the blank a treatment of hot isostatic compaction or isothermal forging, and - extracting the treated blank from the tool, as required, machining the treated blank to obtain said part.
A wireless communication method, comprising: determining, by a network device, N frequency domain units for sending reference signals and a reference signal pattern of each frequency domain unit in the N frequency domain units, wherein N is an integer greater than or equal to 1, and wherein a size of each frequency domain unit is equal to a size of frequency domain occupied by a number of Physical Resource Blocks, PRBs; and sending, by the network device, the reference signals on the each frequency domain unit according to the reference signal pattern, characterized by determining, by the network device, that a quantity of the frequency domain units for sending the reference signals needs to be changed from N to M, wherein M is a positive integer that is not equal to N; determining, by the network device, M frequency domain units for sending the reference signals; and sending, by the network device, a message to a terminal device, wherein the message is used for indicating that frequency domain units for sending the reference signals are M frequency domain units, or used for indicating M-N frequency domain units newly added for sending the reference signals in the M frequency domain units in addition to the N frequency domain units, wherein M is an integer greater than N, sending, by the network device, the reference signals on the M target frequency domain units. determining, by a network device, N frequency domain units for sending reference signals and a reference signal pattern of each frequency domain unit in the N frequency domain units, wherein N is an integer greater than or equal to 1, and wherein a size of each frequency domain unit is equal to a size of frequency domain occupied by a number of Physical Resource Blocks, PRBs; and sending, by the network device, the reference signals on the each frequency domain unit according to the reference signal pattern, characterized by determining, by the network device, that a quantity of the frequency domain units for sending the reference signals needs to be changed from N to M, wherein M is a positive integer that is not equal to N; determining, by the network device, M frequency domain units for sending the reference signals; and sending, by the network device, a message to a terminal device, wherein the message is used for indicating that frequency domain units for sending the reference signals are M frequency domain units, or used for indicating M-N frequency domain units newly added for sending the reference signals in the M frequency domain units in addition to the N frequency domain units, wherein M is an integer greater than N, sending, by the network device, the reference signals on the M target frequency domain units.
A one-part or multi-part dental prosthesis blank, which is designed of a flesh-colored material and a tooth-colored material, in particular each being based on plastic material, wherein an occlusal plane extends on the side of the tooth-colored material opposite to the flesh-colored material, which materials (12, 14) are bound to each another by bonding, by polymerization, by injection molding and/or by integral production, the boundary between the materials - as viewed in the direction of the tooth arch course - being wave-shaped with alternating grooves and ribs (22, 24) forming peaks and troughs, and in the region of the anterior arch - as viewed in the oral-vestibular direction - being of radiant shape, characterized in that the boundary between the tooth-colored and flesh-colored material (12, 14) - as viewed from the distal to mesial direction along the dental arch course - undulatingly rises towards the occlusal plane with an average slope of 15 degrees or more, in particular from 20 degrees to 25 degrees or more, and in that the tooth-colored material in the molar region has a greater height in the gingival-occlusal direction than in the anterior tooth region.
An electronic look-up device implemented on a semiconductor chip, the electronic device comprising: multiple Histogram Update Function Elements (HUFEs) (30a, 30b, 30c, 30d), which are logic units configured to perform histogram commands for updating values of bins of a histogram, wherein each of these histogram commands has multiple bin address operands and corresponding multiple input operands, supports updating multiple bins simultaneously and supports two or more of the address operands being identical, wherein each HUFE handles a single bin referenced by a single instance of a histogram command; a logic circuitry that is configured to determine when at least two bin address operands of a histogram command are the same; and send enable signals to the multiple HUFEs indicative of the determination; wherein each HUFE is configured to operate according to the histogram command and independently of the other HUFEs on an input value being provided over a single first input of the respective HUFE, when the enable signals indicate that none of the bin address operands are the same; and wherein, when the enable signals indicate that at least two bin address operands are the same, a first HUFE is configured to operate according to the histogram command on the at least two corresponding input values provided over at least two first inputs of the first HUFE, and an output of another HUFE for the bin address handled by the first HUFE is ignored. multiple Histogram Update Function Elements (HUFEs) (30a, 30b, 30c, 30d), which are logic units configured to perform histogram commands for updating values of bins of a histogram, wherein each of these histogram commands has multiple bin address operands and corresponding multiple input operands, supports updating multiple bins simultaneously and supports two or more of the address operands being identical, wherein each HUFE handles a single bin referenced by a single instance of a histogram command; a logic circuitry that is configured to determine when at least two bin address operands of a histogram command are the same; and send enable signals to the multiple HUFEs indicative of the determination; wherein each HUFE is configured to operate according to the histogram command and independently of the other HUFEs on an input value being provided over a single first input of the respective HUFE, when the enable signals indicate that none of the bin address operands are the same; and wherein, when the enable signals indicate that at least two bin address operands are the same, a first HUFE is configured to operate according to the histogram command on the at least two corresponding input values provided over at least two first inputs of the first HUFE, and an output of another HUFE for the bin address handled by the first HUFE is ignored.
A composite acoustic layer comprising a first nonwoven material consisting of filaments having a linear density in the range of 2 to 50 dtex, wherein the first nonwoven material is a thermally bonded nonwoven material, and comprising a second nonwoven material connected to the first nonwoven material, wherein the second nonwoven material is a carded staple fiber nonwoven, and wherein the composite acoustic layer has a total weight in the range of 100 g/m 2 to 500 g/m 2.
Extrusion head having a perforated plate of a granulating system, wherein the extrusion head (1, 2, 3) has a head part and a perforated plate, and wherein the perforated plate with a central inflow cone, nozzle channels, and perforated dies is detachably secured to the head part, wherein the head part of the extrusion head (1, 2, 3) has at least one central melt channel into which the inflow cone of the perforated plate projects and distributes the melt flow among nozzle channels arranged in the shape of a ring and among the perforated dies arranged in at least one ring, characterized in that the perforated plate is constructed in multiple parts of a perforated-plate wear insert, a perforated-plate main body, and an inflow cone part, and has a centrally located, corrosion-protected fastening part that holds the multi-part perforated plate together, and wherein the central fastening part is positioned centrally in the middle of the at least one ring of the perforated dies, wherein the inflow cone part has a conical lateral surface and a circular base, and the central fastening part projects outward from the base and through the perforated-plate main body and is anchored in the perforated-plate wear insert.
A permanent magnet suitable for a magnetic angle encoder, comprising: a cylindrical ring permanent magnet (100, 300) containing a first permanent magnet unit (101, 301) and a second permanent magnet unit (102, 302), said first and second permanent magnet units are symmetrically placed on opposite sides of the diametral cross-section (110, 310), wherein the first permanent magnet unit and the second permanent magnet unit have a respective magnetization (103, 104) that is aligned along the axial direction of the cylindrical ring and in antiparallel directions, or the first permanent magnet unit and second permanent magnet unit have magnetizations (303, 304) that are aligned perpendicular to the diametral cross-section and aligned parallel to the other, characterized in that within a circular region (23, 31) centered on the cylindrical ring permanent magnet's axis in a plane (120, 320) that is located adjacent and parallel to a circular end face of the cylindrical ring permanent magnet the rotational angle (φ) of the magnetic field components varies linearly with the rotational angle (α) of the permanent magnet. a cylindrical ring permanent magnet (100, 300) containing a first permanent magnet unit (101, 301) and a second permanent magnet unit (102, 302), a first permanent magnet unit (101, 301) and a second permanent magnet unit (102, 302), said first and second permanent magnet units are symmetrically placed on opposite sides of the diametral cross-section (110, 310), wherein the first permanent magnet unit and the second permanent magnet unit have a respective magnetization (103, 104) that is aligned along the axial direction of the cylindrical ring and in antiparallel directions, or the first permanent magnet unit and second permanent magnet unit have magnetizations (303, 304) that are aligned perpendicular to the diametral cross-section and aligned parallel to the other, the first permanent magnet unit and the second permanent magnet unit have a respective magnetization (103, 104) that is aligned along the axial direction of the cylindrical ring and in antiparallel directions, or the first permanent magnet unit and second permanent magnet unit have magnetizations (303, 304) that are aligned perpendicular to the diametral cross-section and aligned parallel to the other, characterized in that within a circular region (23, 31) centered on the cylindrical ring permanent magnet's axis in a plane (120, 320) that is located adjacent and parallel to a circular end face of the cylindrical ring permanent magnet the rotational angle (φ) of the magnetic field components varies linearly with the rotational angle (α) of the permanent magnet.
A computer system comprising: hardware resources including a processor, memory and a storage device that provisions a logical block device as a logical representation of physical storage space in the storage device; and a host computer, having a processor and a memory, the host computer being coupled to the storage device by a network, wherein the host computer operates to provide a hypervisor that supports execution of one or more virtual machines; wherein the hypervisor is configured to emulate hardware resources for the virtual machines including an emulated logical block device, the emulated logical block device being a logical representation of virtual storage space which is accessible by the virtual machines, and wherein the hypervisor provides the virtual storage space using the logical block device, wherein the hypervisor includes a component which is configured to issue commands to the logical block device to deallocate storage blocks from the logical block device, and wherein each of the virtual machines includes a component residing therein which is configured to issue commands to the emulated logical block device to deallocate storage blocks from the emulated logical block device. hardware resources including a processor, memory and a storage device that provisions a logical block device as a logical representation of physical storage space in the storage device; and a host computer, having a processor and a memory, the host computer being coupled to the storage device by a network, wherein the host computer operates to provide a hypervisor that supports execution of one or more virtual machines; wherein the hypervisor is configured to emulate hardware resources for the virtual machines including an emulated logical block device, the emulated logical block device being a logical representation of virtual storage space which is accessible by the virtual machines, and wherein the hypervisor provides the virtual storage space using the logical block device, wherein the hypervisor includes a component which is configured to issue commands to the logical block device to deallocate storage blocks from the logical block device, and wherein each of the virtual machines includes a component residing therein which is configured to issue commands to the emulated logical block device to deallocate storage blocks from the emulated logical block device.
A method for pressure relief and inertisation of waste containers for radioactive wastes, wherein an adapter with an adapter interior volume is connected to the container, wherein the adapter or the adapter interior volume is filled with an inert gas under excess pressure, wherein a connection between the container interior and the adapter interior volume is then produced, so that a mixed pressure is established in the adapter interior volume and in the container interior corresponding to the pressure difference between the pressure in the container interior and the excess pressure in the adapter interior volume, wherein the mixed pressure in the container interior and in the adapter interior volume is then relieved and wherein an underpressure is then generated in the container interior and the gas or gas mixture removed from the container interior is replaced by at least one inert gas.
Bone cement powder, comprising a fosfomycin preparation, whereby the fosfomycin preparation comprises a) a calcium salt of fosfomycin and b) at least one sugar alcohol having a melting point above 70°C, and the weight ratio of sugar alcohol to calcium salt of fosfomycin is at least 0.8. a) a calcium salt of fosfomycin and b) at least one sugar alcohol having a melting point above 70°C, and