mhurhangee/patent-ind-claim-en huggingface dataset:
A method for performing, by a first device, wireless communication, the method comprising: obtaining information related to a start of a sensing window; triggering resource selection in a slot; determining a selection window based on the slot and a remaining packet delay budget, PDB; determining the sensing window based on the information related to the start of the sensing window and a processing time; determining a first sidelink resource within the selection window, based on sensing within the sensing window, wherein the first sidelink resource is within a period; determining a second sidelink resource within a subsequent period to the period of the first sidelink resource; and performing, to a second device, transmission of first sidelink information based on the first sidelink resource within the period of the first sidelink resource, wherein the first device is not allowed to perform retransmission of the first sidelink information within the subsequent period. obtaining information related to a start of a sensing window; triggering resource selection in a slot; determining a selection window based on the slot and a remaining packet delay budget, PDB; determining the sensing window based on the information related to the start of the sensing window and a processing time; determining a first sidelink resource within the selection window, based on sensing within the sensing window, wherein the first sidelink resource is within a period; determining a second sidelink resource within a subsequent period to the period of the first sidelink resource; and performing, to a second device, transmission of first sidelink information based on the first sidelink resource within the period of the first sidelink resource, wherein the first device is not allowed to perform retransmission of the first sidelink information within the subsequent period.
A method of communication by a sidelink receiver device, the method comprising: receiving a ready-to-send, RTS, message in an RTS channel at a received RTS channel power; receiving a dynamic clear-to-send, CTS, transmit power scaling parameter that is different from a pre-assigned constant parameter for CTS power control stored at the sidelink receiver device, wherein the dynamic CTS transmit power scaling parameter is a multiplier used to increase or decrease a CTS channel power on a transmission time interval, TTI, -by-TTI basis, and wherein the dynamic CTS transmit power scaling parameter is re-determined and sent to the sidelink receiver device on the TTI-by-TTI basis in response to changes in reliability requirements, traffic priority, and/or buffer status for data packets being sent to the sidelink receiver device; generating a CTS message responsive to the RTS message; calculating the CTS channel power as a function of at least the dynamic CTS transmit power scaling parameter and the received RTS channel power; and sending the CTS message in a CTS channel at the calculated CTS channel power. receiving a ready-to-send, RTS, message in an RTS channel at a received RTS channel power; receiving a dynamic clear-to-send, CTS, transmit power scaling parameter that is different from a pre-assigned constant parameter for CTS power control stored at the sidelink receiver device, wherein the dynamic CTS transmit power scaling parameter is a multiplier used to increase or decrease a CTS channel power on a transmission time interval, TTI, -by-TTI basis, and wherein the dynamic CTS transmit power scaling parameter is re-determined and sent to the sidelink receiver device on the TTI-by-TTI basis in response to changes in reliability requirements, traffic priority, and/or buffer status for data packets being sent to the sidelink receiver device; generating a CTS message responsive to the RTS message; calculating the CTS channel power as a function of at least the dynamic CTS transmit power scaling parameter and the received RTS channel power; and sending the CTS message in a CTS channel at the calculated CTS channel power.
A method of making a vacuum insulating glass (VIG) window unit , the method comprising: having a vacuum insulating glass assembly including first and second substantially parallel spaced-apart glass substrates with a plurality of spacers therebetween, the first and second glass substrates each including one or more edge portions to be sealed, a frit for forming an edge seal provided at least partially between the first and second glass substrates ; providing a plurality of infrared (IR) absorbing clamps at a peripheral area of the vacuum insulating glass assembly, the infrared absorbing clamps clamping the first and second glass substrates together and overlapping at least part of the frit for forming the edge seal ; and directing infrared energy from at least one infrared source toward the frit for forming the edge seal and toward the infrared absorbing clamps during a process of melting the frit so as to form the edge seal , the infrared absorbing clamps absorbing infrared radiation from the at least one infrared source and transferring energy to at least one of the glass substrates and the frit in order to help melt the frit when forming the edge seal , characterized in that the infrared absorbing clamps are made of material that absorbs at least about 50% of incident infrared radiation in the near-infrared spectrum from 0.9 to 1.2 μm. having a vacuum insulating glass assembly including first and second substantially parallel spaced-apart glass substrates with a plurality of spacers therebetween, the first and second glass substrates each including one or more edge portions to be sealed, a frit for forming an edge seal provided at least partially between the first and second glass substrates ; providing a plurality of infrared (IR) absorbing clamps at a peripheral area of the vacuum insulating glass assembly, the infrared absorbing clamps clamping the first and second glass substrates together and overlapping at least part of the frit for forming the edge seal ; and directing infrared energy from at least one infrared source toward the frit for forming the edge seal and toward the infrared absorbing clamps during a process of melting the frit so as to form the edge seal , the infrared absorbing clamps absorbing infrared radiation from the at least one infrared source and transferring energy to at least one of the glass substrates and the frit in order to help melt the frit when forming the edge seal , characterized in that the infrared absorbing clamps are made of material that absorbs at least about 50% of incident infrared radiation in the near-infrared spectrum from 0.9 to 1.2 μm.
Antenna roof module for mounting and fixing on a roofless distribution cabinet , wherein the housing of the antenna roof module comprises: - an antenna in the antenna roof module , - a roof element , - a roof module frame below the roof element for attachment to the top of the roofless distribution cabinet , - side walls between the roof module frame and the edges of the roof element , which consist at least partially, in particular completely, of an emS material, in particular plastic, which is permeable to the electromagnetic radiation, emS, which can be emitted or received by the antenna, - upright support elements between the roof module frame and the edges of the roof element , characterized in that - the antenna is a PCB antenna , and - the PCB antenna is arranged in a cavity formed in one of the side walls or in one of the support elements or in the roof module frame . - an antenna in the antenna roof module , - a roof element , - a roof module frame below the roof element for attachment to the top of the roofless distribution cabinet , - side walls between the roof module frame and the edges of the roof element , which consist at least partially, in particular completely, of an emS material, in particular plastic, which is permeable to the electromagnetic radiation, emS, which can be emitted or received by the antenna, - upright support elements between the roof module frame and the edges of the roof element , characterized in that - the antenna is a PCB antenna , and - the PCB antenna is arranged in a cavity formed in one of the side walls or in one of the support elements or in the roof module frame .
Use of a non-porous adhesive article and a packing material to provide a fire-resistant joint system, wherein the non-porous adhesive article comprises an adhesive disposed on a first major surface of a substrate , wherein the fire-resistant joint system comprises a first structural element having a first attachment area and a second structural element having a second attachment area , the first and second structural elements being moveable with respect to one another, the first and second attachment areas defining a space therebetween, the space having a fixed length and a width which varies from a minimum width to a maximum width as the structural elements move with respect to each other, wherein the space comprises the packing material and the non-porous adhesive article is fixedly attached via the adhesive to the first attachment area, the second attachment area, and the packing material.
An optical transmission system comprising: a plurality of light supply devices configured to output signal beams ; a plurality of light receiving devices configured to receive the signal beams ; and an optical fiber cable configured to transmit the signal beams , wherein the light receiving devices are further configured to perform MIMO communication and receive the signal beams having signals different from one another, the signal beams being output from the light supply devices and transmitted through a single core or cladding of the optical fiber cable , characterized in that the signal beams are feed beams, wherein the light supply devices are configured to output the feed beams with signals different from one another superimposed thereon by modulation, wherein the light receiving devices are configured to convert the feed beams transmitted thereto into electric powers, and wherein the optical transmission system comprises: an electric power combiner configured to combine the electric powers obtained by the conversion by the light receiving devices ; and a data processing unit configured to obtain signals superimposed on the feed beams received by the light receiving devices , and based on the obtained signals, obtain the signals superimposed by the light supply devices on the feed beams. a plurality of light supply devices configured to output signal beams ; a plurality of light receiving devices configured to receive the signal beams ; and an optical fiber cable configured to transmit the signal beams , wherein the light receiving devices are further configured to perform MIMO communication and receive the signal beams having signals different from one another, the signal beams being output from the light supply devices and transmitted through a single core or cladding of the optical fiber cable , characterized in that the signal beams are feed beams, wherein the light supply devices are configured to output the feed beams with signals different from one another superimposed thereon by modulation, wherein the light receiving devices are configured to convert the feed beams transmitted thereto into electric powers, and wherein the optical transmission system comprises: an electric power combiner configured to combine the electric powers obtained by the conversion by the light receiving devices ; and a data processing unit configured to obtain signals superimposed on the feed beams received by the light receiving devices , and based on the obtained signals, obtain the signals superimposed by the light supply devices on the feed beams. an electric power combiner configured to combine the electric powers obtained by the conversion by the light receiving devices ; and a data processing unit configured to obtain signals superimposed on the feed beams received by the light receiving devices , and based on the obtained signals, obtain the signals superimposed by the light supply devices on the feed beams.
An interventional device, comprising: an elongated member having a wall and an interior lumen, the elongated member including a plurality of fenestrations extending through the wall and exposing the lumen, the plurality of fenestrations defining a plurality of axially extending beams and a plurality of circumferentially extending rings arranged in an imperfect ramp pattern, wherein no set of three successive segments or beam pairs within the imperfect ramp pattern are spaced according to the same rotational offset, wherein the imperfect ramp pattern includes an imperfect rotational offset from one beam pair to the next, the imperfect rotational offset being equal to a constant value ± a variable modifying value, and wherein the variable modifying value ranges from 2.5 to 30 degrees. an elongated member having a wall and an interior lumen, the elongated member including a plurality of fenestrations extending through the wall and exposing the lumen, the plurality of fenestrations defining a plurality of axially extending beams and a plurality of circumferentially extending rings arranged in an imperfect ramp pattern, wherein no set of three successive segments or beam pairs within the imperfect ramp pattern are spaced according to the same rotational offset, wherein the imperfect ramp pattern includes an imperfect rotational offset from one beam pair to the next, the imperfect rotational offset being equal to a constant value ± a variable modifying value, and wherein the variable modifying value ranges from 2.5 to 30 degrees.
Pressure regulating valve assembly comprising: - a valve having an upstream side receiving an input flow (I) and a downstream side providing an output flow (O), - actuating means for opening and closing the valve , including partially opening the valve , - regulating means controlling the actuating means to open or close the valve or to partially open the valve , - wherein the regulating means comprise a sense pressure port , wherein the pressure present at the sense pressure port is maintained constant by the regulating means, characterized by a chamber having a first entry orifice , a second entry orifice and an exit orifice , wherein the first entry orifice is connected to the valve upstream side , the second entry orifice is connected to the valve downstream side and the exit orifice is connected to the sense pressure port , wherein the exit orifice is provided such that the pressure present at the exit orifice which is applied to the sense pressure port lies between the pressure at the first entry orifice and the pressure at the second entry orifice . - a valve having an upstream side receiving an input flow (I) and a downstream side providing an output flow (O), - actuating means for opening and closing the valve , including partially opening the valve , - regulating means controlling the actuating means to open or close the valve or to partially open the valve , - wherein the regulating means comprise a sense pressure port , wherein the pressure present at the sense pressure port is maintained constant by the regulating means,
Foundation pile for wind turbines comprising at least two foundation pile segments which are connected to one another in such a way that the longitudinal axes thereof extend substantially collinearly to one another, at least two of the foundation pile segments each having a recess in their jacket walls , characterized in that, in at least one foundation pile segment , at least one recess extends to both end faces of the foundation pile segment , and in that said recess is a through-opening in the jacket wall.
An access method, comprising: receiving (S4), by a first device on a paging occasion, a second message sent by a base station, wherein the second message carries an identifier of a second device, wherein the paging occasion is a paging occasion of a first device and/or a paging occasion of the second device; determining (S5), by the first device based on the identifier of the second device that is carried in the second message, that the second device is paged; sending (S6), by the first device, a third message to the second device; and establishing a connection between the first device and the second device based on the third message, wherein establishing the connection comprises the following steps performed by the second device after receiving the third message: synchronizing, by the second device, with the first device based on the third message; identifying, by the second device, the first device; and establishing, by the second device, the connection to the first device. receiving (S4), by a first device on a paging occasion, a second message sent by a base station, wherein the second message carries an identifier of a second device, wherein the paging occasion is a paging occasion of a first device and/or a paging occasion of the second device; determining (S5), by the first device based on the identifier of the second device that is carried in the second message, that the second device is paged; sending (S6), by the first device, a third message to the second device; and establishing a connection between the first device and the second device based on the third message, wherein establishing the connection comprises the following steps performed by the second device after receiving the third message: synchronizing, by the second device, with the first device based on the third message; identifying, by the second device, the first device; and establishing, by the second device, the connection to the first device. synchronizing, by the second device, with the first device based on the third message; identifying, by the second device, the first device; and establishing, by the second device, the connection to the first device.
A method for multi-level storage of block data, the method comprising: receiving latest block data of a blockchain; storing the latest block data in a first-level storage system in a multi-level storage system, wherein block data of the blockchain is stored in the multi-level storage system interconnected to the blockchain and the block data further includes index data corresponding to each respective block data, the multi-level storage system comprising the first-level storage system configured to store the latest block data of the blockchain, and at least one lower-level storage system configured to archive block data stored in the first-level storage system, wherein the at least one lower-level storage system is configured to allow only a read operation on block data migrated to the at least one lower-level storage system, and wherein, for each respective block data, the corresponding index data includes one or more of: a block digest value index, a transaction digest value index, and a historical transaction status data index; determining whether a block data migration event for the first-level storage system is triggered; and in response to determining that a block data migration event for the first-level storage system is triggered, migrating at least a part of block data stored in the first-level storage system to the at least one lower-level storage system. receiving latest block data of a blockchain; storing the latest block data in a first-level storage system in a multi-level storage system, wherein block data of the blockchain is stored in the multi-level storage system interconnected to the blockchain and the block data further includes index data corresponding to each respective block data, the multi-level storage system comprising the first-level storage system configured to store the latest block data of the blockchain, and at least one lower-level storage system configured to archive block data stored in the first-level storage system, wherein the at least one lower-level storage system is configured to allow only a read operation on block data migrated to the at least one lower-level storage system, and wherein, for each respective block data, the corresponding index data includes one or more of: a block digest value index, a transaction digest value index, and a historical transaction status data index; determining whether a block data migration event for the first-level storage system is triggered; and in response to determining that a block data migration event for the first-level storage system is triggered, migrating at least a part of block data stored in the first-level storage system to the at least one lower-level storage system.
An engine control device comprising: an injector injecting fuel in a combustion chamber within a cylinder , the injector having: a body a tip end portion of which is exposed to the combustion chamber ; a sac portion which is a space formed in the tip end portion and into which the fuel flows; an injection hole communicating with the combustion chamber and the sac portion ; and a needle slidably disposed within the body to be displaced between a close position where no fuel is allowed to flow into the sac portion and an open position where the fuel is allowed to flow into the sac portion , wherein the control device includes a fuel injection controller controlling a fuel injection period in accordance with an operating state of the engine, and an injector controller controlling a motion of the needle in accordance with a fuel injection condition set by the fuel injection controller , and wherein the injector controller executes slow close control to reduce a moving speed of the needle before the needle reaches the close position when the fuel injection period ends, characterized in that the slow close control includes setting a speed at which the needle is displaced from the open position to the close position to a predetermined speed, and changing the predetermined speed to increase with a decrease in the number of revolutions of the engine. a body a tip end portion of which is exposed to the combustion chamber ; a sac portion which is a space formed in the tip end portion and into which the fuel flows; an injection hole communicating with the combustion chamber and the sac portion ; and a needle slidably disposed within the body to be displaced between a close position where no fuel is allowed to flow into the sac portion and an open position where the fuel is allowed to flow into the sac portion , wherein the control device includes a fuel injection controller controlling a fuel injection period in accordance with an operating state of the engine, and an injector controller controlling a motion of the needle in accordance with a fuel injection condition set by the fuel injection controller , and wherein the injector controller executes slow close control to reduce a moving speed of the needle before the needle reaches the close position when the fuel injection period ends, characterized in that the slow close control includes setting a speed at which the needle is displaced from the open position to the close position to a predetermined speed, and changing the predetermined speed to increase with a decrease in the number of revolutions of the engine.