mhurhangee/ep-ind-claims huggingface dataset:
A sulfide-based solid electrolyte compound for a lithium ion battery comprising a crystal phase of a cubic argyrodite-type crystal structure, and being represented by a composition formula: Li 7-x+y PS 6-x Cl x+y, wherein x and y in the composition formula satisfy 0.05 ≤ y ≤ 0.9 and -3.0x + 1.8 ≤ y ≤ -3.0x + 5.7.
A slit-lamp microscope for stereoscopically examining an eye, having an optical unit for generating two images of the eye, wherein the slit-lamp microscope comprises at least one, preferably two image sensors for electronic capture of the two images, wherein it comprises an observation unit with an image rendering unit for displaying the two images and two eyepieces for stereoscopically observing the images, characterized in that the observation unit is embodied to be movable independently of the optical unit.
A network interface comprising: a redirector to update an association between an address and a storage node based on one or more messages, wherein the redirector is to: based on the one or more messages comprising a simple hint or a striped hint, update an association between the address and a remote direct memory access, RDMA, queue-pair, QP, number, and based on the one or more messages comprising a hash hint, update an association between a hash value and an RDMA QP number; and an initiator to determine a storage node associated with an access command based on an association between an address in the access command and the storage node. a redirector to update an association between an address and a storage node based on one or more messages, wherein the redirector is to: based on the one or more messages comprising a simple hint or a striped hint, update an association between the address and a remote direct memory access, RDMA, queue-pair, QP, number, and based on the one or more messages comprising a hash hint, update an association between a hash value and an RDMA QP number; and based on the one or more messages comprising a simple hint or a striped hint, update an association between the address and a remote direct memory access, RDMA, queue-pair, QP, number, and based on the one or more messages comprising a hash hint, update an association between a hash value and an RDMA QP number; and an initiator to determine a storage node associated with an access command based on an association between an address in the access command and the storage node.
A dry shaver having a shaver head that has at least one top cutter provided with holes, a bottom cutter assembly, and a motor to drive the oscillation back and forth of the top cutter and bottom cutter assembly, wherein the bottom cutter assembly has at least one first bottom cutter and a second bottom cutter (22; 32; 34; 36; 38; 40; 42) that precedes the first bottom cutter in the respective direction of the oscillating movement, which second bottom cutter is designed to exert a tensile force on a hair extending into the hole of the top cutter to be pinched between the second bottom cutter (22; 32; 34; 36; 38; 40; 42) and the top cutter characterized in that the top cutter has a rounded-off edge contour contiguous to its holes against the pinched hair.
A method for producing a resin molded article, comprising: an introducing step of mixing a plurality of resin foam particles and a particulate thermoplastic resin composition to obtain a mixed particle material, and introducing the mixed particle material and a heat medium substance into a forming mold; and a molding step of, after the introducing step, heating the mixed particle material of the plurality of resin foam particles and the particulate thermoplastic resin composition by heating the forming mold to a temperature at which the heat medium substance can be vaporized to allow the heat medium substance to vaporize in the forming mold, thereby integrating the plurality of resin foam particles and the particulate thermoplastic resin composition together to form a resin composite in which the plurality of resin foam particles are dispersed in a matrix composed of the thermoplastic resin composition, characterized in that the heat medium substance is a liquid at a temperature at which the introducing step is performed. an introducing step of mixing a plurality of resin foam particles and a particulate thermoplastic resin composition to obtain a mixed particle material, and introducing the mixed particle material and a heat medium substance into a forming mold; and a molding step of, after the introducing step, heating the mixed particle material of the plurality of resin foam particles and the particulate thermoplastic resin composition by heating the forming mold to a temperature at which the heat medium substance can be vaporized to allow the heat medium substance to vaporize in the forming mold, thereby integrating the plurality of resin foam particles and the particulate thermoplastic resin composition together to form a resin composite in which the plurality of resin foam particles are dispersed in a matrix composed of the thermoplastic resin composition, characterized in that the heat medium substance is a liquid at a temperature at which the introducing step is performed.
A method of forming a doped bismuth-silicate seed crystal with a controlled crystallization process to form a high purity, bismuth-silicate seed crystal comprising from 10 mole % to 50 mole % bismuth trioxide, from 20 mole % to 60 mole % silicon dioxide, and less than 10 mole % of a rare earth dopant A, which is combined and melted from 1093-1371 °C (2000-2500°F) for 1-2 hours to form a glass melt having a nominal stoichiometry of Bi 2-x A x SiO 5, where x=0.001 to 0.1.
Saddle for two-wheeled vehicles, in particular bicycles, comprising at least one saddle shell with or without cushioning, and with two struts (2, 3), a left strut and right strut which are connected to both the saddle nose as well as the saddle shell in the rear saddle area, characterised in that the two struts (2, 3) cross once in the rear saddle area without coming into contact with or being connected to each other so that they are each connected to the saddle shell via the rear connections (7, 8) on the other side of the saddle to the one on which they are attached at the front on the saddle nose.
A light control sheet (10, 10α) comprising: a first transparent electrode; a second transparent electrode; a first light control layer (13, 13α) which is disposed between the two transparent electrodes, the first light control layer (13, 13α) having light transmission properties which are changed by alteration in a voltage applied across the two transparent electrodes; and a voltage control unit (15, 15α) that is arranged to apply AC voltage as the voltage applied across the two transparent electrodes, and to change a frequency of the applied AC voltage, characterized in that the voltage control unit (15, 15α) includes a random number generator (16, 16A, 16B) that is arranged to generate a random number, and wherein the voltage control unit is arranged to set a frequency of AC voltage on a basis of a random number generated by the random number generator (16, 16A, 16B). a first transparent electrode; a second transparent electrode; a first light control layer (13, 13α) which is disposed between the two transparent electrodes, the first light control layer (13, 13α) having light transmission properties which are changed by alteration in a voltage applied across the two transparent electrodes; and a voltage control unit (15, 15α) that is arranged to apply AC voltage as the voltage applied across the two transparent electrodes, and to change a frequency of the applied AC voltage, characterized in that the voltage control unit (15, 15α) includes a random number generator (16, 16A, 16B) that is arranged to generate a random number, and wherein the voltage control unit is arranged to set a frequency of AC voltage on a basis of a random number generated by the random number generator (16, 16A, 16B).
A method for providing scanner corrections, comprising: providing a plurality of wafer geometry groups; identifying a particular wafer geometry group out of the plurality of wafer geometry groups that best matches wafer geometry of a given wafer; applying at least one scanner correction value associated with the particular wafer geometry group to the given wafer; and applying a shape correction to the given wafer prior to applying the at least one scanner correction value; wherein applying the shape correction to the given wafer further comprises: collecting raw overlay data of the given wafer to obtain a raw overlay signature of the given wafer; obtaining a shape signature of the given wafer based on the wafer geometry of the given wafer; and removing the shape signature of the given wafer from the raw overlay signature of the given wafer. providing a plurality of wafer geometry groups; identifying a particular wafer geometry group out of the plurality of wafer geometry groups that best matches wafer geometry of a given wafer; applying at least one scanner correction value associated with the particular wafer geometry group to the given wafer; and applying a shape correction to the given wafer prior to applying the at least one scanner correction value; wherein applying the shape correction to the given wafer further comprises: collecting raw overlay data of the given wafer to obtain a raw overlay signature of the given wafer; obtaining a shape signature of the given wafer based on the wafer geometry of the given wafer; and removing the shape signature of the given wafer from the raw overlay signature of the given wafer. collecting raw overlay data of the given wafer to obtain a raw overlay signature of the given wafer; obtaining a shape signature of the given wafer based on the wafer geometry of the given wafer; and removing the shape signature of the given wafer from the raw overlay signature of the given wafer.
Portable object comprising a near-field communication device, the communication device comprising an antenna, the ends of which are intended to be connected electrically to an electronic chip, forming, together with the electronic chip, an electrical circuit, the portable object comprising a control element (9, 18, 22, 31) which is able to be displaced between two predefined positions, i.e. an active position in which the communication device is activated and a passive position in which the communication device is deactivated, the portable object comprising, furthermore, a mechanical switch, which is able to switch between an open state and a closed state in response to a displacement of the control element (9, 18, 22, 31) from one to the other of its predefined positions, characterized in that the mechanical switch is a Reed switch and in that the portable object comprises a permanent magnet which is mobile relative to the Reed switch and able to modify the state of the Reed switch in response to a displacement of the control element.
A method of moving data from a source memory to a destination memory by a processor comprising a plurality of registers, the source memory storing a sequence of instructions, wherein the sequence of instructions comprises one or more load instructions and one or more store instructions, the method comprising: moving the one or more load instructions from the source memory to the destination memory; initiating execution of the one or more load instructions from the destination memory; loading the data from the source memory to at least one register in the processor, on executing the one or more load instructions; returning execution to the sequence of instructions stored in the source memory; and storing the data from the at least one register to the destination memory on executing the one or more store instructions from the source memory. moving the one or more load instructions from the source memory to the destination memory; initiating execution of the one or more load instructions from the destination memory; loading the data from the source memory to at least one register in the processor, on executing the one or more load instructions; returning execution to the sequence of instructions stored in the source memory; and storing the data from the at least one register to the destination memory on executing the one or more store instructions from the source memory.
A process for preparation of a compound of formula 7 wherein PG 1 is an alcohol protecting group, the process comprising: - nucleophillic addition of an allyl-silane derivative of formula 8 to a compound of formula 4 to form the compound of formula 5; wherein R 1 is a alcohol protecting group, and each R 2, R 3 and R 4 independently is an alkyl, cyclo-alkyl, aryl or hetero-aryl group; - deprotecting the compound of formula 5 under conditions to remove the R 1 protecting group, and protecting the resulting aldehyde to form a compound of formula 6, wherein each R 5 and R 6 independently is an alkyl, cyclo-alkyl, aryl or hetero-aryl group, optionally having one or more heteroatoms, or R 5 and R 6 together form an alkanediyl group, optionally having one or more heteroatoms; - replacing the hydroxyl group with a methylene group in the compound of formula 6, followed by deprotection of the protected aldehyde to form the compound of formula 7; - nucleophillic addition of an allyl-silane derivative of formula 8 to a compound of formula 4 to form the compound of formula 5; wherein R 1 is a alcohol protecting group, and each R 2, R 3 and R 4 independently is an alkyl, cyclo-alkyl, aryl or hetero-aryl group; - deprotecting the compound of formula 5 under conditions to remove the R 1 protecting group, and protecting the resulting aldehyde to form a compound of formula 6, wherein each R 5 and R 6 independently is an alkyl, cyclo-alkyl, aryl or hetero-aryl group, optionally having one or more heteroatoms, or R 5 and R 6 together form an alkanediyl group, optionally having one or more heteroatoms; - replacing the hydroxyl group with a methylene group in the compound of formula 6, followed by deprotection of the protected aldehyde to form the compound of formula 7;
An element comprising a substrate, at least one organic-inorganic perovskite layer, a conductive layer, optionally at least one additional layer, and at least one scaffold layer, characterized in that the perovskite layer is directly provided on said substrate.
A method for operating a solar module array, the method comprising: determining energy consumption information for an output of the solar module array by one or more energy consuming resources (605, 606); controlling the operation of a device that directs air flow under the solar module array; and affecting an efficiency of the solar module array using the energy consumption information in directing the air flow to provide energy for use by the one or more energy consuming resources (605, 606) while increasing the efficiency of the solar module array in producing electricity. determining energy consumption information for an output of the solar module array by one or more energy consuming resources (605, 606); controlling the operation of a device that directs air flow under the solar module array; and affecting an efficiency of the solar module array using the energy consumption information in directing the air flow to provide energy for use by the one or more energy consuming resources (605, 606) while increasing the efficiency of the solar module array in producing electricity.
EIGAcoil for melting an electrode, comprising a plurality of windings (12A, 12B, 12C) arranged coaxially to each other and axially spaced apart from each other with respect to a center axis, wherein each of the plurality of windings (12A, 12B, 12C) is formed in the shape of a ring interrupted by a gap (14A, 14B, 14C) which is equidistant with respect to the center axis and extends in a plane perpendicular to the center axis, and wherein adjacent windings (12A, 12B, 12C) of the plurality of windings (12A, 12B, 12C) are respectively connected to one another via a connecting section (20AB, 20BC; 120AB, 120BC), and characterized in that at least one of the windings (12A, 12B, 12C) has an oval, circular, rectangular or square cross-section in at least one section, and the gap (14A, 14B, 14C) is between 0.5 mm and 30 mm wide. each of the plurality of windings (12A, 12B, 12C) is formed in the shape of a ring interrupted by a gap (14A, 14B, 14C) which is equidistant with respect to the center axis and extends in a plane perpendicular to the center axis, and wherein adjacent windings (12A, 12B, 12C) of the plurality of windings (12A, 12B, 12C) are respectively connected to one another via a connecting section (20AB, 20BC; 120AB, 120BC), and characterized in that at least one of the windings (12A, 12B, 12C) has an oval, circular, rectangular or square cross-section in at least one section, and the gap (14A, 14B, 14C) is between 0.5 mm and 30 mm wide.
Method for wireless communication in a communication network comprising at least one central unit and at least one radio access unit for wireless connection of user terminals, the radio access unit comprising an injection locked oscillator and an upconversion mixer the method comprises the steps of: - receiving by the radio access unit a first signal transmitted by the central unit on a communication link between the central unit and the radio access unit, the received first signal comprising a data part and an oscillator part; - decoupling the data part and the oscillator part of the received first signal; - applying the decoupled oscillator part of the received first signal to the injection locked oscillator; - generating an oscillator signal by the injection locked oscillator, - providing the generated oscillator signal as an input to the upconversion mixer; and - upconverting a data signal to be transmitted with the upconversion mixer with the generated oscillator signal. - receiving by the radio access unit a first signal transmitted by the central unit on a communication link between the central unit and the radio access unit, the received first signal comprising a data part and an oscillator part; - decoupling the data part and the oscillator part of the received first signal; - applying the decoupled oscillator part of the received first signal to the injection locked oscillator; - generating an oscillator signal by the injection locked oscillator, - providing the generated oscillator signal as an input to the upconversion mixer; and - upconverting a data signal to be transmitted with the upconversion mixer with the generated oscillator signal.
Device comprising: a receiver configured to receive a multi-layered video signal composed of a sequence of packets each of which comprises a layer identification syntax element structure composed of a base layer-ID field and an extension layer-ID field; a layer identification extender configured to read, for a predetermined portion of the multi-layered video signal comprising a plurality of packets, a syntax element from the multi-layered video signal, indicating the maximum value of the extension layer-ID field of the packets comprised by the predetermined portion of the multi-layered video signal, for each of the packets within the predetermined portion of the multi-layered video signal, determine the layer ID for the respective packet based on the layer identification syntax element structure, determine a maximum number of layers within the predetermined portion of the multi-layered video signal based on the maximum value, and determine at least one characteristic for each of the maximum number of layers by iteratively parsing a layer characterizing syntax portion of the multi-layered video signal a number of times equal to the maximum number of layers, wherein the device is configured to obtain a bit length of the extension layer-ID field from an extra syntax element in the bit stream. a receiver configured to receive a multi-layered video signal composed of a sequence of packets each of which comprises a layer identification syntax element structure composed of a base layer-ID field and an extension layer-ID field; a layer identification extender configured to read, for a predetermined portion of the multi-layered video signal comprising a plurality of packets, a syntax element from the multi-layered video signal, indicating the maximum value of the extension layer-ID field of the packets comprised by the predetermined portion of the multi-layered video signal, for each of the packets within the predetermined portion of the multi-layered video signal, determine the layer ID for the respective packet based on the layer identification syntax element structure, determine a maximum number of layers within the predetermined portion of the multi-layered video signal based on the maximum value, and determine at least one characteristic for each of the maximum number of layers by iteratively parsing a layer characterizing syntax portion of the multi-layered video signal a number of times equal to the maximum number of layers, wherein the device is configured to obtain a bit length of the extension layer-ID field from an extra syntax element in the bit stream.
A UHF satellite communications antenna comprising: a cylinder having a longitudinal axis; an annular dielectric substrate on an end of the cylinder; a circular substrate coplanar and concentric with the annular dielectric substrate; a set of opposed conductive bow tie elements (26, 28, 70) extending radially on the annular dielectric substrate from the circular substrate, including two pairs of bow tie elements disposed orthogonally on the annular dielectric substrate to form two orthogonal dipoles; open sleeve elements (30, 32, 34, 36, 72, 74) extending radially on the annular dielectric substrate from the circular substrate on either side of each of the set of opposed conductive bow tie elements (26, 28, 70), spaced from the set of opposed conductive bow tie elements, and electrically coupled to each other; and a feed line (22, 24) extending parallel to the longitudinal axis through the cylinder and the circular substrate and electrically coupled with the set of opposed conductive bow tie elements (26, 28). a cylinder having a longitudinal axis; an annular dielectric substrate on an end of the cylinder; a circular substrate coplanar and concentric with the annular dielectric substrate; a set of opposed conductive bow tie elements (26, 28, 70) extending radially on the annular dielectric substrate from the circular substrate, including two pairs of bow tie elements disposed orthogonally on the annular dielectric substrate to form two orthogonal dipoles; open sleeve elements (30, 32, 34, 36, 72, 74) extending radially on the annular dielectric substrate from the circular substrate on either side of each of the set of opposed conductive bow tie elements (26, 28, 70), spaced from the set of opposed conductive bow tie elements, and electrically coupled to each other; and a feed line (22, 24) extending parallel to the longitudinal axis through the cylinder and the circular substrate and electrically coupled with the set of opposed conductive bow tie elements (26, 28).