mhurhangee/ep-ind-claims huggingface dataset:
A method for making a lens assembly that can be placed on an eye of a person, the lens assembly including at least one rigid element, the method comprising: providing a first pliable membrane on a concave surface of a first rigid mold part of a membrane molding assembly comprising the first rigid mold part and a second rigid mold part; providing a second pliable membrane on a convex surface of a compliant stage, wherein the compliant stage has a greater flexibility than the first rigid mold part; placing at least one rigid element in contact with the first pliable membrane or the second pliable membrane; placing the second pliable membrane located on the compliant stage in contact with the first pliable membrane such that the second pliable membrane is aligned with the first pliable membrane, and the compliant stage provides compression to the first pliable membrane and the second pliable membrane; and coupling the second pliable membrane and the first pliable membrane together to form the lens assembly with the at least one rigid element between the first pliable membrane and the second pliable membrane. providing a first pliable membrane on a concave surface of a first rigid mold part of a membrane molding assembly comprising the first rigid mold part and a second rigid mold part; providing a second pliable membrane on a convex surface of a compliant stage, wherein the compliant stage has a greater flexibility than the first rigid mold part; placing at least one rigid element in contact with the first pliable membrane or the second pliable membrane; placing the second pliable membrane located on the compliant stage in contact with the first pliable membrane such that the second pliable membrane is aligned with the first pliable membrane, and the compliant stage provides compression to the first pliable membrane and the second pliable membrane; and coupling the second pliable membrane and the first pliable membrane together to form the lens assembly with the at least one rigid element between the first pliable membrane and the second pliable membrane.
A method for self-adaptively eliminating noises, characterized in that said method comprises: filtering a signal received by a first microphone using a first filter, filtering the signal received by a second microphone using a second filter, and obtaining a signal with noises reduced by subtracting the filtered signals; wherein, in a noise-only segment, the coefficient of the first filter and the coefficient of the second filter are updated respectively using the signal with noises reduced in the following manner: the ratio of the transfer function of the first filter to the transfer function of the second filter approaches the ratio of the channel transfer function between a noise source and the second microphone to the channel transfer function between the noise source and the first microphone, wherein, the manner comprises: approaching the transfer function of the first filter to the product of the channel transfer function between the noise source and the second microphone and a constant, and approaching the transfer function of the second filter to the product of the channel transfer function between the noise source and the first microphone and the constant; and in a voice segment with noise, the coefficient of the first filter and the coefficient of the second filter are remained unchanged respectively, the first filter uses a coefficient updated in the previous noise-only segment to filter the signal received by the first microphone, and the second filter uses a coefficient updated in the previous noise-only segment to filter the signal received by the second microphone. filtering a signal received by a first microphone using a first filter, filtering the signal received by a second microphone using a second filter, and obtaining a signal with noises reduced by subtracting the filtered signals; wherein, in a noise-only segment, the coefficient of the first filter and the coefficient of the second filter are updated respectively using the signal with noises reduced in the following manner: the ratio of the transfer function of the first filter to the transfer function of the second filter approaches the ratio of the channel transfer function between a noise source and the second microphone to the channel transfer function between the noise source and the first microphone, wherein, the manner comprises: approaching the transfer function of the first filter to the product of the channel transfer function between the noise source and the second microphone and a constant, and approaching the transfer function of the second filter to the product of the channel transfer function between the noise source and the first microphone and the constant; and in a voice segment with noise, the coefficient of the first filter and the coefficient of the second filter are remained unchanged respectively, the first filter uses a coefficient updated in the previous noise-only segment to filter the signal received by the first microphone, and the second filter uses a coefficient updated in the previous noise-only segment to filter the signal received by the second microphone.
A vehicle engine comprising a camshaft, an output device, and a force transfer arrangement for transferring a force from the rotating camshaft to the output device, the force transfer arrangement comprising: a first transfer element being in contact with the camshaft and configured to transfer force from the camshaft to the output device when the camshaft rotates, wherein the first transfer element is rotationally attached adjacent to the camshaft and is rotatable about a rotation axis, wherein the first transfer element includes a contact portion being in contact with the camshaft, and a transfer portion, wherein when the contact portion is pushed away from a rotation axis of the camshaft, the transfer portion is arranged to move in a substantially opposite direction to thereby transfer force to the output device, wherein the first transfer portion is arranged to push on a linkage arm when the first transfer element rotates, to thereby transfer force from one side of the camshaft to the output device; a second transfer element being in contact with the camshaft and configured to transfer force from the camshaft to the output device when the camshaft rotates, wherein the second force transfer element is arranged to be linearly displaced when the camshaft rotates, to transfer force to the output element; wherein the first transfer element and the second transfer element are arranged to be pushed by lobes (432, 434) arranged on opposite sides of the camshaft; wherein the forces on the camshaft caused by the first transfer element and the second transfer element when transferring forces to the output element, are in substantially opposite directions. a first transfer element being in contact with the camshaft and configured to transfer force from the camshaft to the output device when the camshaft rotates, wherein the first transfer element is rotationally attached adjacent to the camshaft and is rotatable about a rotation axis, wherein the first transfer element includes a contact portion being in contact with the camshaft, and a transfer portion, wherein when the contact portion is pushed away from a rotation axis of the camshaft, the transfer portion is arranged to move in a substantially opposite direction to thereby transfer force to the output device, wherein the first transfer portion is arranged to push on a linkage arm when the first transfer element rotates, to thereby transfer force from one side of the camshaft to the output device; a second transfer element being in contact with the camshaft and configured to transfer force from the camshaft to the output device when the camshaft rotates, wherein the second force transfer element is arranged to be linearly displaced when the camshaft rotates, to transfer force to the output element; wherein the first transfer element and the second transfer element are arranged to be pushed by lobes (432, 434) arranged on opposite sides of the camshaft; wherein the forces on the camshaft caused by the first transfer element and the second transfer element when transferring forces to the output element, are in substantially opposite directions.
A system for manufacturing an electrode, the system comprising: a first coating unit configured to discharge an electrode slurry to a first surface that is an opposite surface of a surface where an electrode current collector contacts a first coating roller while the electrode current collector passes through the first coating roller; a primary drying furnace configured to dry the electrode current collector having the first surface on which the electrode slurry has been coated; a second coating unit configured to discharge the electrode slurry to a second surface that is an opposite surface of a surface where the electrode current collector contacts a second coating roller (100, 200, 300) while the electrode current collector passes through the second coating roller (100, 200, 300); and a secondary drying furnace configured to dry the electrode current collector having the second surface on which the electrode slurry has been coated; characterized in that said system comprises n heat pipe guide rollers (101, 102, 103) configured to reduce a temperature deviation in a width direction of the electrode current collector having passed through the primary drying furnace by heating the electrode current collector, wherein the n is an integer between 1 and 20, and wherein the heat pipe guide roller (101, 102, 103) is positioned at a location (1, 2, 3, 4, 5) on a moving path of the electrode current collector between an exit of the primary drying furnace and an entrance of the second coating unit. a first coating unit configured to discharge an electrode slurry to a first surface that is an opposite surface of a surface where an electrode current collector contacts a first coating roller while the electrode current collector passes through the first coating roller; a primary drying furnace configured to dry the electrode current collector having the first surface on which the electrode slurry has been coated; a second coating unit configured to discharge the electrode slurry to a second surface that is an opposite surface of a surface where the electrode current collector contacts a second coating roller (100, 200, 300) while the electrode current collector passes through the second coating roller (100, 200, 300); and a secondary drying furnace configured to dry the electrode current collector having the second surface on which the electrode slurry has been coated; characterized in that said system comprises n heat pipe guide rollers (101, 102, 103) configured to reduce a temperature deviation in a width direction of the electrode current collector having passed through the primary drying furnace by heating the electrode current collector, wherein the n is an integer between 1 and 20, and wherein the heat pipe guide roller (101, 102, 103) is positioned at a location (1, 2, 3, 4, 5) on a moving path of the electrode current collector between an exit of the primary drying furnace and an entrance of the second coating unit.
A method of scheduling an uplink packet transmission channel for user equipment, hereinafter called UE, in a base station, the method comprising: transmitting, by the base station, a scheduling assignment based on noise/interference of an uplink packet transmission channel, the scheduling assignment comprising scheduling contents for the uplink packet transmission and an identifier through an Enhanced Absolute Grant Channel, hereinafter called E-AGCH; wherein the E-AGCH is a shared channel; receiving, by the base station, an uplink data packet on an Enhanced Uplink Dedicated Channel, hereinafter called E-DCH, based on the scheduling contents of the scheduling assignment, wherein the scheduling contents of the scheduling assignment comprises a scheduled power command for the uplink packet transmission, the identifier is one of a first identifier for identifying only the UE and a second identifier for a plurality of UEs including the UE, and the identifier is set to the first identifier when the scheduling assignment is for the UE corresponding to the first identifier, and to the second identifier when the scheduling assignment is for all of the plurality of UEs. transmitting, by the base station, a scheduling assignment based on noise/interference of an uplink packet transmission channel, the scheduling assignment comprising scheduling contents for the uplink packet transmission and an identifier through an Enhanced Absolute Grant Channel, hereinafter called E-AGCH; wherein the E-AGCH is a shared channel; receiving, by the base station, an uplink data packet on an Enhanced Uplink Dedicated Channel, hereinafter called E-DCH, based on the scheduling contents of the scheduling assignment, wherein the scheduling contents of the scheduling assignment comprises a scheduled power command for the uplink packet transmission, the identifier is one of a first identifier for identifying only the UE and a second identifier for a plurality of UEs including the UE, and the identifier is set to the first identifier when the scheduling assignment is for the UE corresponding to the first identifier, and to the second identifier when the scheduling assignment is for all of the plurality of UEs.
A magnetic pulse inducted transfer-type DC circuit breaker, wherein the DC circuit breaker comprises a main current circuit, a transfer current circuit, and an access port; wherein the main current circuit comprises one or more of a mechanical switch, a power electronic device, and a current limiter which are connected in series or parallel, for continuously bearing current or temporarily conducting current; the transfer current circuit, which is for bearing current transferred from the main current circuit, comprises a first circuit and a second circuit; the first circuit comprises a secondary-side inductor and an arrestor; the second circuit comprises a primary-side inductor (Lo) and a third circuit that includes a pre-charging capacitor and an inductor which are connected in series; the primary-side inductor (Lo) and the secondary-side inductor form a mutual inductor; and the access port is for connecting to an external system; characterized in that the secondary-side inductor and the arrestor are connected in series, and the second circuit further comprises a first power semiconductor device, a second power semiconductor device, a third power semiconductor device, and a fourth power semiconductor device; the first to fourth power semiconductor devices (B1, B2, B3, B4) and the third circuit form a bridge circuit that is connected in series with the primary-side inductor (Lo).
A system for establishing a connection between a first clothing element and a second clothing element along an interface, wherein in a connected state the first clothing element and the second clothing element provide an ensemble serving as functional wear, comprising: - at least one fastening device for establishing at least one connection between the first clothing element and the second clothing element, wherein the at least one fastening device has at least one primary component and at least one secondary component that are brought into contact with each other by means of magnetic force, so that the first clothing element and the second clothing element are connected to one another, characterised in that the at least one fastening device comprises a system of a hook as primary component and an eyelet as secondary component, in which the hook is guided into an engaged state with the eyelet associated with the hook by means of magnetic force, so that the first clothing element and the second clothing element are connected to one another in a form-fitting and/or force-fitting manner, and wherein a belt device is provided, the belt device being connected to the primary component of the fastening device respectively. - at least one fastening device for establishing at least one connection between the first clothing element and the second clothing element, wherein the at least one fastening device has at least one primary component and at least one secondary component that are brought into contact with each other by means of magnetic force, so that the first clothing element and the second clothing element are connected to one another, characterised in that the at least one fastening device comprises a system of a hook as primary component and an eyelet as secondary component, in which the hook is guided into an engaged state with the eyelet associated with the hook by means of magnetic force, so that the first clothing element and the second clothing element are connected to one another in a form-fitting and/or force-fitting manner,
A method performed by a terminal in a wireless communication system, the method comprising: receiving a radio resource control, RRC, release message configuring an RRC inactive state, the RRC release message including measurement configuration information; performing a measurement based on the measurement configuration information while the terminal is in the RRC inactive state; receiving, from a base station, an RRC resume message (2I-40) as a response to an RRC resume request message transmitted by the terminal; in case that the RRC resume message does not include information associated with restoring a secondary cell group, SCG, configuration, releasing the SCG configuration; and transmitting (2I-45), to the base station, an RRC resume complete message including a result of the measurement based on the RRC resume message. receiving a radio resource control, RRC, release message configuring an RRC inactive state, the RRC release message including measurement configuration information; performing a measurement based on the measurement configuration information while the terminal is in the RRC inactive state; receiving, from a base station, an RRC resume message (2I-40) as a response to an RRC resume request message transmitted by the terminal; in case that the RRC resume message does not include information associated with restoring a secondary cell group, SCG, configuration, releasing the SCG configuration; and transmitting (2I-45), to the base station, an RRC resume complete message including a result of the measurement based on the RRC resume message.
A vehicle floor configured to direct water flow comprising: a floor portion that extends front-to-back and side-to-side in said vehicle including a surface that faces the vehicle occupant; said floor portion surface including one or a plurality of raised rib portions and one or a plurality of web regions in-between said raised rib portions, characterized in that said one or plurality of said web regions provide a downwardly sloping floor portion in said surface that is configured to direct water to one or a plurality of desired locations. a floor portion that extends front-to-back and side-to-side in said vehicle including a surface that faces the vehicle occupant; said floor portion surface including one or a plurality of raised rib portions and one or a plurality of web regions in-between said raised rib portions, characterized in that said one or plurality of said web regions provide a downwardly sloping floor portion in said surface that is configured to direct water to one or a plurality of desired locations.
A process for manufacturing a lens which comprises a laminated substance wherein a plastic sheet, a resin layer prepared on said plastic sheet and containing an electromagnetic wave absorbing agent, and a backup resin are laminated in this order, and wherein the electromagnetic wave absorbing agent is any one of a visible light absorbing agent, an ultraviolet absorbing agent, and an infrared absorbing agent or a mixture thereof, and is dissolved or dispersed at an optical level in the resin layer, said process being characterized in that a plastic sheet is bend-processed in advance into a spherical shape or a shape close to it, or a cylindrical shape, and then the backup resin is injection molded on the resin layer provided on a concave surface side of the bend-processed plastic sheet.
A stand-off breaching round (20, 32) for generating an overpressure for breaching a barrier, comprising a housing (21, 33) containing an explosive main charge (24, 36) having a barrier-end (25, 37) and a rear-end (26, 38), a detonator (29, 44), and means (27, 39) for initiating the detonator when the explosive main charge (24, 36) is at a preselected distance from a barrier, characterised in that the detonator (29, 44) is configured to detonate the explosive main charge (24, 36) at the rear-end (26, 38), such that the detonation wave propagates from the rear-end towards the barrier end, such that in-use a barrier can be breached by an explosively generated overpressure.
Tyre for vehicle wheels, comprising a tread band having a plurality of blocks (20, 21, 23), at least some of said blocks (20, 21, 23) comprising at least one sipe (8, 30) extending from an axially outer portion of the block (20, 21, 23) up to an axially inner portion of the block (20, 21, 23) and from a radially outer face of the block (20, 21, 23) towards a radially inner portion of the block (20, 21, 23), wherein said sipe (8, 30) extends from said axially outer portion of the block (20, 21, 23) to said axially inner portion of the block (20, 21, 23) along a predetermined trajectory and comprises, in any cross-section perpendicular to said predetermined trajectory, a main portion having a first radial dimension and a first transversal dimension and, in a radially inner position with respect to said main portion and adjacent to the radially inner portion of the block (20, 21, 23), a bottom portion having a second radial dimension smaller than said first radial dimension and a second transversal dimension greater than said first transversal dimension, wherein the second transversal dimension measured in a first cross-section of the sipe (8, 30) taken at at least one of said axially outer portion of the block (20, 21, 23) and said axially inner portion of the block (20, 21, 23) is greater than the second transversal dimension measured in a second cross-section of the sipe (8, 30) taken at a portion of the block (20, 21, 23) axially arranged between said axially outer portion of the block (20, 21, 23) and said axially inner portion of the block (20, 21, 23), wherein said at least one sipe (8, 30) comprises an axially outer portion, an axially inner portion and a central portion defined between said axially outer portion and said axially inner portion, characterised in that said at least one sipe (8, 30) comprises, in said central portion, at least one area in which said predetermined trajectory is not rectilinear.