mhurhangee/ep-ind-claims huggingface dataset:
A signal processing method, said method being performed by a communication apparatus located in a base station, said method comprising: generating a reference signal sequence of a physical channel based on a first m-sequence and a second m-sequence, wherein the reference signal sequence is a gold sequence, the reference signal sequence is related to a physical cell identifier and first timing information, and the first timing information comprises a 2-bit synchronization signal block time index; and in response to modulating the generated reference signal sequence, mapping a modulated reference signal sequence to N subcarriers to obtain a reference signal, wherein N is a positive integer greater than or equal to 1 and a carrier frequency band of the N subcarriers is a frequency band less than or equal to 3 GHz; wherein a cyclic shift value m 0 of the first m-sequence meets: m 0 = N cell ID + a ∗ SS _ block _ idx ∗ b mod c; or m 0 = b ∗ N cell ID + d ∗ SS _ block _ idx mod c, where N cell ID represents an identifier corresponding to the physical cell identifier, SS_block_idx represents the synchronization signal block time index, a, b, c, and d each are a non-zero integer, and a, b, c, and d meet at least one of the following constraint conditions: d ∗ SS _ block _ idx max mod c ≤ c − b ∗ N cell, max ID; d mod c ≤ ⌊ c / SS _ block _ idx max ⌋, where d = a ∗ b, SS_block_idx max is a maximum value in SS_block_idx, N cell, max ID is a maximum value in N cell ID, mod represents a modulo operation, and └ ┘ represents a rounding down operation. generating a reference signal sequence of a physical channel based on a first m-sequence and a second m-sequence, wherein the reference signal sequence is a gold sequence, the reference signal sequence is related to a physical cell identifier and first timing information, and the first timing information comprises a 2-bit synchronization signal block time index; and in response to modulating the generated reference signal sequence, mapping a modulated reference signal sequence to N subcarriers to obtain a reference signal, wherein N is a positive integer greater than or equal to 1 and a carrier frequency band of the N subcarriers is a frequency band less than or equal to 3 GHz; wherein a cyclic shift value m 0 of the first m-sequence meets: m 0 = N cell ID + a ∗ SS _ block _ idx ∗ b mod c; or m 0 = b ∗ N cell ID + d ∗ SS _ block _ idx mod c, where N cell ID represents an identifier corresponding to the physical cell identifier, SS_block_idx represents the synchronization signal block time index, a, b, c, and d each are a non-zero integer, and a, b, c, and d meet at least one of the following constraint conditions: d ∗ SS _ block _ idx max mod c ≤ c − b ∗ N cell, max ID; d mod c ≤ ⌊ c / SS _ block _ idx max ⌋, where d = a ∗ b, SS_block_idx max is a maximum value in SS_block_idx, N cell, max ID is a maximum value in N cell ID, mod represents a modulo operation, and └ ┘ represents a rounding down operation.
A passive AC-DC converter comprising: an autotransformer, wherein said autotransformer comprises; a plurality of first high voltage AC inputs; a plurality of second low voltage AC inputs; a winding topology having at most 21 windings (A0-A6, B0-B6, C0-C6) corresponding to each of multiple phases, wherein the multiple phases comprises three phases and wherein seven of said at most 21 windings are on each of said phases; a set of autotransformer outputs comprising a nine-phase AC output configured to output nine pulsed current waveforms, each with a 40° phase shift relative to one another; a bridge rectifier connected to said set of autotransformer outputs; and a DC output from said bridge rectifier; wherein said autotransformer is configured to synthesize the nine output pulsed current waveforms into an 18-step AC input current waveform that closely approximates a sinewave current. an autotransformer, wherein said autotransformer comprises; a plurality of first high voltage AC inputs; a plurality of second low voltage AC inputs; a winding topology having at most 21 windings (A0-A6, B0-B6, C0-C6) corresponding to each of multiple phases, wherein the multiple phases comprises three phases and wherein seven of said at most 21 windings are on each of said phases; a plurality of first high voltage AC inputs; a plurality of second low voltage AC inputs; a winding topology having at most 21 windings (A0-A6, B0-B6, C0-C6) corresponding to each of multiple phases, wherein the multiple phases comprises three phases and wherein seven of said at most 21 windings are on each of said phases; a set of autotransformer outputs comprising a nine-phase AC output configured to output nine pulsed current waveforms, each with a 40° phase shift relative to one another; a bridge rectifier connected to said set of autotransformer outputs; and a DC output from said bridge rectifier;
A method for preparing a polymer composite material for building air conditioning or dehumidification, comprising: adding a crosslinking agent and a porous filler for conferring durability and antibacterial properties into a hydrophilic polymer solution to prepare a polymer composite material solution; electrospinning the polymer composite material solution to prepare a nanofiber sheet; and crosslinking the nanofiber sheet by heat-treatment, the method further comprising: adhering the nanofiber sheet to a metal sheet, a ceramic fiber sheet or a conductive polymer film before or after heat treatment, characterized by performing said crosslinking by heating the prepared nanofiber sheet at 120 °C for 1 hour. adding a crosslinking agent and a porous filler for conferring durability and antibacterial properties into a hydrophilic polymer solution to prepare a polymer composite material solution; electrospinning the polymer composite material solution to prepare a nanofiber sheet; and crosslinking the nanofiber sheet by heat-treatment, the method further comprising: adhering the nanofiber sheet to a metal sheet, a ceramic fiber sheet or a conductive polymer film before or after heat treatment,
Control device with haptic feedback comprising a sensitive control surface to which an actuator is fixed, said control surface being connected to a support in at least two connecting areas, each connecting area comprising at least one damper placed between the control surface and the support, said connecting areas defining a proximal suspension of said control surface on said support in one connecting area near the actuator and a distal suspension of said control surface on the support in a connecting area at a distance from the actuator, characterized in that the stiffness of the proximal suspension is less than the stiffness of the distal suspension.
Packaging for a wiper blade having a blade-side connector configured to engage a wiper arm, the packaging comprising: an inner component configured to house the wiper blade; and an outer sleeve component having an enclosure that defines a cavity configured to receive at least a portion of the inner component, wherein at least one of the inner component and the outer sleeve component comprises a connector-identification feature configured to indicate a compatible arm-side connector of the wiper arm, characterized in that the connector-identification feature is a cutout that is sized and shaped to correspond to a size and a shape of the compatible arm-side connector. an inner component configured to house the wiper blade; and an outer sleeve component having an enclosure that defines a cavity configured to receive at least a portion of the inner component, wherein at least one of the inner component and the outer sleeve component comprises a connector-identification feature configured to indicate a compatible arm-side connector of the wiper arm, characterized in that wherein at least one of the inner component and the outer sleeve component comprises a connector-identification feature configured to indicate a compatible arm-side connector of the wiper arm, characterized in that the connector-identification feature is a cutout that is sized and shaped to correspond to a size and a shape of the compatible arm-side connector.
A method for producing a gas turbine component comprising: forming a core assembly (140; 160), the forming including: deforming a refractory metal wire (144; 166); and assembling the wire to a ceramic feedcore (142; 164), including inserting an intermediate portion (150; 174) of the wire (144; 166) into a compartment (152; 178) of the ceramic feedcore (142; 164) such that portions of said wire on either side of said intermediate portion (150; 174) protrude from the compartment, molding a pattern-forming material at least partially over the core assembly for forming a pattern; shelling the pattern; removing the pattern-forming material from the shelled pattern for forming a shell; introducing molten alloy to the shell; and removing the shell and core assembly; said protruding portions of said wire (144; 166) casting outlet passageways in said component. forming a core assembly (140; 160), the forming including: deforming a refractory metal wire (144; 166); and assembling the wire to a ceramic feedcore (142; 164), including inserting an intermediate portion (150; 174) of the wire (144; 166) into a compartment (152; 178) of the ceramic feedcore (142; 164) such that portions of said wire on either side of said intermediate portion (150; 174) protrude from the compartment, molding a pattern-forming material at least partially over the core assembly for forming a pattern; shelling the pattern; removing the pattern-forming material from the shelled pattern for forming a shell; introducing molten alloy to the shell; and removing the shell and core assembly; said protruding portions of said wire (144; 166) casting outlet passageways in said component. deforming a refractory metal wire (144; 166); and assembling the wire to a ceramic feedcore (142; 164), including inserting an intermediate portion (150; 174) of the wire (144; 166) into a compartment (152; 178) of the ceramic feedcore (142; 164) such that portions of said wire on either side of said intermediate portion (150; 174) protrude from the compartment, molding a pattern-forming material at least partially over the core assembly for forming a pattern; shelling the pattern; removing the pattern-forming material from the shelled pattern for forming a shell; introducing molten alloy to the shell; and removing the shell and core assembly; said protruding portions of said wire (144; 166) casting outlet passageways in said component.
A device comprising: a module configured to exchange data with a near field communication device and transmit energy to the NFC device; and a processor configured to receive, using the module, energy data from the NFC device, the energy data comprising data for determining a difference between a current energy level of an energy storage apparatus at the NFC device and a given amount of energy for performing a given function at the NFC device; determine the difference from the energy data; transmit, using the module, an amount of energy corresponding to the difference, to the NFC device; estimate a time for implementing the given function when the given function is to occur; and begin transmission, using the module, of the amount of energy corresponding to the difference at a time prior to the estimated time, such that a difference between the time when transmission of the amount of energy corresponding to the difference begins and the estimated time, is greater than or about equal to an amount of time for transmitting the amount of energy corresponding to the difference. a module configured to exchange data with a near field communication device and transmit energy to the NFC device; and a processor configured to receive, using the module, energy data from the NFC device, the energy data comprising data for determining a difference between a current energy level of an energy storage apparatus at the NFC device and a given amount of energy for performing a given function at the NFC device; determine the difference from the energy data; transmit, using the module, an amount of energy corresponding to the difference, to the NFC device; estimate a time for implementing the given function when the given function is to occur; and begin transmission, using the module, of the amount of energy corresponding to the difference at a time prior to the estimated time, such that a difference between the time when transmission of the amount of energy corresponding to the difference begins and the estimated time, is greater than or about equal to an amount of time for transmitting the amount of energy corresponding to the difference.
Protection device for an optical instrument of a satellite comprising a body on which the optical instrument is mounted, the protection device comprising a folded position and a deployed position, and comprising a plurality of rigid panels (202, 203), the panels being held against the body of the satellite in the folded position and forming a tube having a polygonal cross-section in the deployed position, arranged to protect the optical instrument, the longitudinal axis of the tube being substantially parallel with the focal axis of the optical instrument, the device being characterised in that each face of the polygon is composed of a sub-assembly of the plurality of rigid panels, the rigid panels being connected to each other by means of self-propelled articulations (211,212,213).
A dialyzer housing manufacturing system comprising: an injection molding device configured to mold a dialyzer housing, wherein the injection molding device comprises an injection mold that includes two mold halves (110, 112) and an alignment pin (510, 512, 514, 516, 520, 522, 524, 526) coupled to a first of the halves, wherein the alignment pin remains partially inserted into a second of the halves when the injection mold is opened after molding the dialyzer housing; and a tool coupled to a robotic arm and configured to retrieve the dialyzer housing from the molding device after the dialyzer housing is molded, the tool comprising: a frame; a first suction cup (230, 232, 234, 236, 238, 240, 242, 244) connected to a first portion (282, 284) of the frame; and a second suction cup (230, 232, 234, 236, 238, 240, 242, 244) connected to a second portion (282, 284) of the frame, the second suction cup being oriented about 70 degrees to about 110 degrees relative to the first suction cup. an injection molding device configured to mold a dialyzer housing, wherein the injection molding device comprises an injection mold that includes two mold halves (110, 112) and an alignment pin (510, 512, 514, 516, 520, 522, 524, 526) coupled to a first of the halves, wherein the alignment pin remains partially inserted into a second of the halves when the injection mold is opened after molding the dialyzer housing; and a tool coupled to a robotic arm and configured to retrieve the dialyzer housing from the molding device after the dialyzer housing is molded, the tool comprising: a frame; a first suction cup (230, 232, 234, 236, 238, 240, 242, 244) connected to a first portion (282, 284) of the frame; and a second suction cup (230, 232, 234, 236, 238, 240, 242, 244) connected to a second portion (282, 284) of the frame, the second suction cup being oriented about 70 degrees to about 110 degrees relative to the first suction cup. a frame; a first suction cup (230, 232, 234, 236, 238, 240, 242, 244) connected to a first portion (282, 284) of the frame; and a second suction cup (230, 232, 234, 236, 238, 240, 242, 244) connected to a second portion (282, 284) of the frame, the second suction cup being oriented about 70 degrees to about 110 degrees relative to the first suction cup.
An insulating glass unit comprising: two panes maintained in a parallel, spaced-apart relationship by one or more spacer bars; a cavity between the panes, a primary gas sealant between the spacer bar and the pane adjacent the cavity; and a secondary gas sealant between the spacer bar and the pane, not adjacent the cavity, wherein the primary and/or secondary gas sealant is a polyurethane-based sealant that comprises at least a reaction product of at least one isocyanate and at least one polyol blend, the blend comprising a natural oil-based polyol (NOBP). two panes maintained in a parallel, spaced-apart relationship by one or more spacer bars; a cavity between the panes, a primary gas sealant between the spacer bar and the pane adjacent the cavity; and a secondary gas sealant between the spacer bar and the pane, not adjacent the cavity, wherein the primary and/or secondary gas sealant is a polyurethane-based sealant that comprises at least a reaction product of at least one isocyanate and at least one polyol blend, the blend comprising a natural oil-based polyol (NOBP).
An alphavirus replicon RNA comprising a 5' sequence required for nonstructural protein-mediated amplification, sequences encoding biologically active alphavirus nonstructural proteins, an alphavirus subgenomic promoter, a non-alphavirus heterologous sequence, and a 3' sequence required for nonstructural protein-mediated amplification, wherein the sequence encoding at least one of said nonstructural proteins is derived from a Venezuelan equine encephalitis virus and wherein the sequence of said replicon RNA exhibits between 33.33% and 66.67% sequence identity to the Venezuelan equine encephalitis virus across the entire genome-length of the Venezuelan equine encephalitis virus and wherein the alphavirus replicon RNA comprises sequences derived from Sindbis virus, wherein the SIN-derived sequences comprise a packaging signal inserted into a site selected from the junction of nsP3 with nsP4, following the open reading frame of nsP4, and a deletion in a nonstructural protein gene.
Mid-air haptic interface, comprising: - a control circuit, - a plurality of ultrasound transducers which are connected to said circuit, including a first set of transducers which emit at a first ultrasound carrier frequency and at least one second set of transducers which emit at a second ultrasound carrier frequency which is different from the first, the transducers in the first set being of a different size and/or being formed from a different material from the transducers in the second set; the control circuit being configured to modulate the signals which are sent to the transducers in order to: • generate, with the ultrasound waves emitted by at least some of the transducers in the first set, an acoustic pressure which can be detected tactilely in at least one first focal region, and • generate, with the ultrasound waves emitted by at least some of the transducers in the second set, an acoustic pressure which can be detected tactilely in at least one second focal region. - a control circuit, - a plurality of ultrasound transducers which are connected to said circuit, including a first set of transducers which emit at a first ultrasound carrier frequency and at least one second set of transducers which emit at a second ultrasound carrier frequency which is different from the first, the transducers in the first set being of a different size and/or being formed from a different material from the transducers in the second set; • generate, with the ultrasound waves emitted by at least some of the transducers in the first set, an acoustic pressure which can be detected tactilely in at least one first focal region, and • generate, with the ultrasound waves emitted by at least some of the transducers in the second set, an acoustic pressure which can be detected tactilely in at least one second focal region.
An image processing device comprising: an acquisition unit that sets an angle of incidence of radiation, which is emitted from a radiation source, is transmitted through a subject, and is incident on a detection surface of a radiation detector with respect to the detection surface, to a plurality of angles different from each other including an angle in a normal direction to the detection surface, and acquires at least one of a plurality of projection images captured by the radiation detector in accordance with the angle of incidence or reconstructed images reconstructed using the projection images; a first generation unit that generates a first synthetic mammogram image on the basis of any one of the plurality of the projection images or the reconstructed images; characterised in that it further comprises: a second generation unit that generates a second synthetic mammogram image by synthesizing an image of a high-frequency component higher than a first spatial frequency of the first synthetic mammogram image and an image of a low-frequency component of equal to or lower than a second spatial frequency of a projection image, the projection image is one of the plurality of the projection images and captured with the angle of incidence set to be in the normal direction. an acquisition unit that sets an angle of incidence of radiation, which is emitted from a radiation source, is transmitted through a subject, and is incident on a detection surface of a radiation detector with respect to the detection surface, to a plurality of angles different from each other including an angle in a normal direction to the detection surface, and acquires at least one of a plurality of projection images captured by the radiation detector in accordance with the angle of incidence or reconstructed images reconstructed using the projection images; a first generation unit that generates a first synthetic mammogram image on the basis of any one of the plurality of the projection images or the reconstructed images; characterised in that it further comprises: a second generation unit that generates a second synthetic mammogram image by synthesizing an image of a high-frequency component higher than a first spatial frequency of the first synthetic mammogram image and an image of a low-frequency component of equal to or lower than a second spatial frequency of a projection image, the projection image is one of the plurality of the projection images and captured with the angle of incidence set to be in the normal direction.