mhurhangee/patent-ind-claim-en huggingface dataset:
An audio/video, A/V, interconnection architecture comprising: a non-Audio Video Bridging, AVB,-compliant Ethernet network including a first network switch ; an AVB-compliant Ethernet network including a second network switch ; a receive, RX, A/V endpoint coupled to the non-AVB-compliant Ethernet network and an A/V sink component that is capable of processing or outputting native audio; an audio system coupled to the AVB-compliant Ethernet network and an audio sink component that is incapable of processing or outputting the native audio; a transmit, TX, A/V, endpoint including: at least one receive, RX, interface configured to be coupled to an A/V source component and to receive the native audio from the A/V source component , a first network interface coupled to the at least one RX interface and configured to receive the native audio from the at least one RX interface and output the native audio over the non-AVB-compliant Ethernet network to the RX A/V endpoint; a down-mix audio digital signal processor, DSP, coupled to the at least one RX interface and configured to produce a stereo down-mixed version of the native audio; and a second network interface configured to output the down-mixed version over the AVB-compliant Ethernet network to the audio system. a non-Audio Video Bridging, AVB,-compliant Ethernet network including a first network switch ; an AVB-compliant Ethernet network including a second network switch ; a receive, RX, A/V endpoint coupled to the non-AVB-compliant Ethernet network and an A/V sink component that is capable of processing or outputting native audio; an audio system coupled to the AVB-compliant Ethernet network and an audio sink component that is incapable of processing or outputting the native audio; a transmit, TX, A/V, endpoint including: at least one receive, RX, interface configured to be coupled to an A/V source component and to receive the native audio from the A/V source component , a first network interface coupled to the at least one RX interface and configured to receive the native audio from the at least one RX interface and output the native audio over the non-AVB-compliant Ethernet network to the RX A/V endpoint; a down-mix audio digital signal processor, DSP, coupled to the at least one RX interface and configured to produce a stereo down-mixed version of the native audio; and a second network interface configured to output the down-mixed version over the AVB-compliant Ethernet network to the audio system. at least one receive, RX, interface configured to be coupled to an A/V source component and to receive the native audio from the A/V source component , a first network interface coupled to the at least one RX interface and configured to receive the native audio from the at least one RX interface and output the native audio over the non-AVB-compliant Ethernet network to the RX A/V endpoint; a down-mix audio digital signal processor, DSP, coupled to the at least one RX interface and configured to produce a stereo down-mixed version of the native audio; and a second network interface configured to output the down-mixed version over the AVB-compliant Ethernet network to the audio system.
A laminate structure comprising: a sealant film comprising ethylene-based polymer; a print film laminated to the sealant film, the print film comprising at least 3 layers and having an overall thickness from 15 to 30 μm, where the print film comprises a middle layer, an inner layer disposed between sealant film and the middle layer, and an outer layer, wherein the middle layer comprises at least 90% by weight high density polyethylene (HDPE) having a density from 0.950 to 0.965 g/cc and a melt index (I 2 ) from 0.1 to 20 g/10 min, wherein density is measured according to ASTM D792, Method B and I 2 is measured according to ASTM D1238 at 190°C and 2.16 kg load; the inner layer comprises linear low density polyethylene (LLDPE) having a density from 0.925 to 0.965 g/cc and a melt index (I 2 ) from 0.1 to 20 g/10 min; and the outer layer comprises linear low density polyethylene (LLDPE) having a density from 0.925 to 0.965 g/cc and a melt index (I 2 ) from 0.1 to 20 g/10 min; wherein the laminate structure exhibits a gloss value of at least 40%, wherein gloss is measured at 45° according to ASTM D2457. a sealant film comprising ethylene-based polymer; a print film laminated to the sealant film, the print film comprising at least 3 layers and having an overall thickness from 15 to 30 μm, where the print film comprises a middle layer, an inner layer disposed between sealant film and the middle layer, and an outer layer, wherein the middle layer comprises at least 90% by weight high density polyethylene (HDPE) having a density from 0.950 to 0.965 g/cc and a melt index (I 2 ) from 0.1 to 20 g/10 min, wherein density is measured according to ASTM D792, Method B and I 2 is measured according to ASTM D1238 at 190°C and 2.16 kg load; the inner layer comprises linear low density polyethylene (LLDPE) having a density from 0.925 to 0.965 g/cc and a melt index (I 2 ) from 0.1 to 20 g/10 min; and the outer layer comprises linear low density polyethylene (LLDPE) having a density from 0.925 to 0.965 g/cc and a melt index (I 2 ) from 0.1 to 20 g/10 min; the middle layer comprises at least 90% by weight high density polyethylene (HDPE) having a density from 0.950 to 0.965 g/cc and a melt index (I 2 ) from 0.1 to 20 g/10 min, wherein density is measured according to ASTM D792, Method B and I 2 is measured according to ASTM D1238 at 190°C and 2.16 kg load; the inner layer comprises linear low density polyethylene (LLDPE) having a density from 0.925 to 0.965 g/cc and a melt index (I 2 ) from 0.1 to 20 g/10 min; and the outer layer comprises linear low density polyethylene (LLDPE) having a density from 0.925 to 0.965 g/cc and a melt index (I 2 ) from 0.1 to 20 g/10 min; wherein the laminate structure exhibits a gloss value of at least 40%, wherein gloss is measured at 45° according to ASTM D2457.
A scroll compressor to compress fluid in a compression chamber formed by combining a scroll wrap of a fixed scroll and a scroll wrap of an orbiting scroll , the scroll wrap of the fixed scroll and the scroll wrap of the orbiting scroll each having a scroll inner end part having a bulb shape defined by an outer surface involute curve, an inner surface involute curve, and a plurality of arcs connecting an end of the outer surface involute curve and an end of the inner surface involute curve, at least one of the scroll inner end parts being formed in an n-tier stair-like shape in which n number of bulb shapes are stacked on top of one another in an upright direction of the scroll wrap, where the number n is equal to or larger than 3, the scroll compressor being configured to satisfy the following relationship φ ⁢ os 0 > φ ⁢ os 1 > φ ⁢ os 2 > ... > φ ⁢ os n − 1 where involute roll angles of the end of the outer surface involute curve in tiers of the stair-like shape of the scroll inner end part are φos , φos , φos , ..., φos (n-1), respectively, from a wrap tip side to a wrap root side; and characterized in that the involute roll angles of the end of the inner surface involute curve in the n-tiers of the stair-like shape of the scroll inner end parts are equal for the n-tiers of the n-tier stair-like shape. an outer surface involute curve, an inner surface involute curve, and a plurality of arcs connecting an end of the outer surface involute curve and an end of the inner surface involute curve,
An electronic device, comprising an external circuit, wherein the electronic device comprises a conductive electrode, the conductive electrode comprising: a transparent conductive film disposed on a substrate; an adhesive intermediate layer disposed on the transparent conductive film; and a metal layer disposed on the adhesive intermediate layer, where the metal layer is mainly formed by a precious metal and configured to be bonded to an external circuit; wherein the conductive electrode further comprises a protective layer, and the protective layer is disposed on an edge of the adhesive intermediate layer, or the protective layer is disposed on edges of both the adhesive intermediate layer and the metal layer; wherein the metal layer is connected to the external circuit through bonding. a transparent conductive film disposed on a substrate; an adhesive intermediate layer disposed on the transparent conductive film; and a metal layer disposed on the adhesive intermediate layer, where the metal layer is mainly formed by a precious metal and configured to be bonded to an external circuit; wherein the conductive electrode further comprises a protective layer, and the protective layer is disposed on an edge of the adhesive intermediate layer, or the protective layer is disposed on edges of both the adhesive intermediate layer and the metal layer; wherein the metal layer is connected to the external circuit through bonding.
A method for keeping a first subscriber identity module, SIM, card and a second SIM card in a standby state, comprising: accessing, by a terminal device, a second network for the second SIM card using a second interface, wherein the second SIM card is implemented on a basis of hardware; receiving, by a first SlM card interface module of the terminal device, an enabling request from a first SlM card management module , wherein the enabling request is used for simultaneous dual standby of the first SIM card and the second SIM card in the terminal device, the first SIM card is implemented on a basis of software; sending, by the first SlM card interface module of the terminal device, the enabling request to a SIM card control module of the terminal device; invoking, by the first SlM card interface module of the terminal device, a third-party interface of an operating system of the terminal device to perform interaction with the SIM card control module through a subscriber identity module mobile equipment, SIM-ME, function of the third-party interface to complete a first network access process of the first SIM card on basis of a data file associated with the first SIM card, so that the first SIM card and the second SIM card are kept in the simultaneous dual standby; wherein the second interface is different from the third-party interface. accessing, by a terminal device, a second network for the second SIM card using a second interface, wherein the second SIM card is implemented on a basis of hardware; receiving, by a first SlM card interface module of the terminal device, an enabling request from a first SlM card management module , wherein the enabling request is used for simultaneous dual standby of the first SIM card and the second SIM card in the terminal device, the first SIM card is implemented on a basis of software; sending, by the first SlM card interface module of the terminal device, the enabling request to a SIM card control module of the terminal device; invoking, by the first SlM card interface module of the terminal device, a third-party interface of an operating system of the terminal device to perform interaction with the SIM card control module through a subscriber identity module mobile equipment, SIM-ME, function of the third-party interface to complete a first network access process of the first SIM card on basis of a data file associated with the first SIM card, so that the first SIM card and the second SIM card are kept in the simultaneous dual standby; wherein the second interface is different from the third-party interface.
A wind turbine component for a wind turbine, in particular for a wind turbine tower and/or a rotor blade , comprising - a first wall element with a first inner surface and a first outer surface arranged opposite the latter, - a corrugated structural element , - wherein the structural element is arranged on the first inner surface or on the first outer surface, - wherein the first wall element is connected to the structural element , further comprising - a second wall element with a second inner surface and a second outer surface arranged opposite the latter, wherein the structural element is arranged between the first wall element and the second wall element , and the structural element is connected to the first wall element and the second wall element, and wherein - the first wall element and the second wall element are composed of or comprise steel, aluminum and/or titanium, and - the first wall element and the second wall element have a ring-shaped cross section orthogonally with respect to the axis of rotation. - a first wall element with a first inner surface and a first outer surface arranged opposite the latter, - a corrugated structural element , - wherein the structural element is arranged on the first inner surface or on the first outer surface, - wherein the first wall element is connected to the structural element , further comprising - a second wall element with a second inner surface and a second outer surface arranged opposite the latter, wherein the structural element is arranged between the first wall element and the second wall element , and the structural element is connected to the first wall element and the second wall element, and wherein - the first wall element and the second wall element are composed of or comprise steel, aluminum and/or titanium, and - the first wall element and the second wall element have a ring-shaped cross section orthogonally with respect to the axis of rotation.
Interface module of a shoring device comprising: - a first assembly provided to be attached to a supporting wall, comprising a first panel on which first guide means are arranged, - a second assembly cooperating with the first assembly , so as to define a chamber, said second assembly being provided to be attached to one end of a shoring device and comprising a second panel adapted to cooperate with the first guide means so that the second assembly is slidably guided with respect to the first assembly , - at least one actuator adapted to generate a thrust force suitable for moving the first and second assemblies away from each other so as to put the shoring device under compressive stress, said chamber being formed by two lateral cheeks connected to each other by two crossmembers in the form of plates respectively referred to as "bottom crossmember" and "top crossmember" , said lateral cheeks and said bottom and top crossmembers being attached to the first panel , said chamber being designed to receive a bracing element adapted to distribute, in the chamber, forces tending to attract the first and second assemblies one against the other, said forces resulting from the release of the compressive stress on the shoring device , when the actuator is no longer generating a thrust force. - a first assembly provided to be attached to a supporting wall, comprising a first panel on which first guide means are arranged, - a second assembly cooperating with the first assembly , so as to define a chamber, said second assembly being provided to be attached to one end of a shoring device and comprising a second panel adapted to cooperate with the first guide means so that the second assembly is slidably guided with respect to the first assembly , - at least one actuator adapted to generate a thrust force suitable for moving the first and second assemblies away from each other so as to put the shoring device under compressive stress,
A method of improving performance of a wireless communication device having at least a first SIM and a radio frequency, RF, resource, the method comprising: detecting , by the wireless communication device, an active communication in a first network on a modem stack associated with the first SIM; detecting , by the wireless communication device, a signal disruption period during the active communication in the first network, the method characterized by : determining , by the wireless communication device, whether there is a loss of synchronization between an operational downlink mode for the modem stack and a corresponding downlink mode represented in the first network by determining whether a control signal for transitioning to a new downlink mode was missed on the modem stack during the disruption period; and triggering , by the wireless communication device, an internal instruction that matches the missed control signal to transition the modem stack associated with the first SIM to a new downlink mode in response to determining that there is a loss of synchronization between the operational downlink mode for the modem stack and the corresponding downlink mode represented in the first network. detecting , by the wireless communication device, an active communication in a first network on a modem stack associated with the first SIM; detecting , by the wireless communication device, a signal disruption period during the active communication in the first network, the method characterized by : determining , by the wireless communication device, whether there is a loss of synchronization between an operational downlink mode for the modem stack and a corresponding downlink mode represented in the first network by determining whether a control signal for transitioning to a new downlink mode was missed on the modem stack during the disruption period; and triggering , by the wireless communication device, an internal instruction that matches the missed control signal to transition the modem stack associated with the first SIM to a new downlink mode in response to determining that there is a loss of synchronization between the operational downlink mode for the modem stack and the corresponding downlink mode represented in the first network. determining , by the wireless communication device, whether there is a loss of synchronization between an operational downlink mode for the modem stack and a corresponding downlink mode represented in the first network by determining whether a control signal for transitioning to a new downlink mode was missed on the modem stack during the disruption period; and triggering , by the wireless communication device, an internal instruction that matches the missed control signal to transition the modem stack associated with the first SIM to a new downlink mode in response to determining that there is a loss of synchronization between the operational downlink mode for the modem stack and the corresponding downlink mode represented in the first network.
An assembly for securing a portion of a leaf spring to an axle in a vehicle suspension system, the assembly comprising: a spring seat and a top cap , the spring seat comprising a seat portion , configured to be connected to a body of a said axle, and a spring mounting portion associated with an upper end of the seat portion and configured to accommodate a said portion of a leaf spring, the spring mounting portion including an upper surface defining a plurality of bores each configured to receive at least a portion of one of a plurality of mechanical fasteners, whereby the top cap can be connected to the spring seat by said mechanical fasteners with a said portion of a leaf spring positioned between the top cap and the spring seat , and with at least a portion of at least one of the bores positioned directly above the body of a said axle connected to the spring seat . a spring seat and a top cap , the spring seat comprising a seat portion , configured to be connected to a body of a said axle, and a spring mounting portion associated with an upper end of the seat portion and configured to accommodate a said portion of a leaf spring, the spring mounting portion including an upper surface defining a plurality of bores each configured to receive at least a portion of one of a plurality of mechanical fasteners, whereby the top cap can be connected to the spring seat by said mechanical fasteners with a said portion of a leaf spring positioned between the top cap and the spring seat , and with at least a portion of at least one of the bores positioned directly above the body of a said axle connected to the spring seat .
Disposable, multi-layer floor sweeping cloth having an abrasive strip, which comprises at least one cleaning layer and one core layer, wherein both the cleaning layer and the core layer contain cellulose and consist entirely of natural fibres and/or regenerated fibres, wherein on top of or in the cleaning layer, a scraping strip having increased abrasive properties in comparison to the rest of the cleaning layer is arranged, characterized in that the scraping strip contains hemp and also consists entirely of natural and/or regenerated fibres.
An internal combustion engine, comprising: a cylinder ; an intake port coupled to the cylinder ; one or more intake valves configured to selectively allow and block connection of the intake port to the cylinder ; an asynchronous injection valve configured to inject water into the intake port when the one or more intake valves are closed; and a synchronous injection valve configured to inject water into the intake port when the one or more intake valves are open, wherein the asynchronous injection valve and the synchronous injection valve are configured to have injection characteristics that are different between the asynchronous injection valve and the synchronous injection valve , characterized in that the one or more intake valves are two intake valves , the intake port is coupled to the cylinder by the two intake valves , the intake port has a width direction (W) that extends in a direction in which the two intake valves are arranged, and the asynchronous injection valve is configured to inject water at a wider angle than the synchronous injection valve in the width direction (W) of the intake port . a cylinder ; an intake port coupled to the cylinder ; one or more intake valves configured to selectively allow and block connection of the intake port to the cylinder ; an asynchronous injection valve configured to inject water into the intake port when the one or more intake valves are closed; and a synchronous injection valve configured to inject water into the intake port when the one or more intake valves are open, wherein the asynchronous injection valve and the synchronous injection valve are configured to have injection characteristics that are different between the asynchronous injection valve and the synchronous injection valve , characterized in that the one or more intake valves are two intake valves , the intake port is coupled to the cylinder by the two intake valves , the intake port has a width direction (W) that extends in a direction in which the two intake valves are arranged, and the asynchronous injection valve is configured to inject water at a wider angle than the synchronous injection valve in the width direction (W) of the intake port .