mhurhangee/patent-ind-claim-en huggingface dataset:
An operation method of a first terminal in a communication system , comprising: transmitting (S806), by the first terminal , first sidelink control information, SCI, to a second terminal , the first SCI including information indicating time resource(s), information indicating frequency resource(s), information indicating a periodicity of physical resources, and information indicating a modulation and coding scheme, MCS; wherein the SCI further indicates that a blind retransmission of sidelink data is supported; transmitting (S807, S808), by the first terminal , an initial sidelink data and then retransmission sidelink data to the second terminal according to a blind retransmission procedure using information included in the first SCI; and transmitting (S811), by the first terminal , second SCI to the second terminal , the second SCI including an indicator requesting to stop the blind retransmission procedure, wherein the first SCI is different from the second SCI. transmitting (S806), by the first terminal , first sidelink control information, SCI, to a second terminal , the first SCI including information indicating time resource(s), information indicating frequency resource(s), information indicating a periodicity of physical resources, and information indicating a modulation and coding scheme, MCS; wherein the SCI further indicates that a blind retransmission of sidelink data is supported; transmitting (S807, S808), by the first terminal , an initial sidelink data and then retransmission sidelink data to the second terminal according to a blind retransmission procedure using information included in the first SCI; and transmitting (S811), by the first terminal , second SCI to the second terminal , the second SCI including an indicator requesting to stop the blind retransmission procedure, wherein the first SCI is different from the second SCI.
Valve-actuating device having an operating element and a valve arrangement , which can be actuated by the operating element , wherein the valve arrangement has a first valve , by means of which a first inflow , in a closed position, can be separated from a first outflow and, in an open position, can be connected to the first outflow , and a second valve , by means of which a second inflow , in a closed position, can be separated from a second outflow and, in an open position, can be connected to the second outflow , wherein a switchover device , which can be actuated by means of the operating element , is designed to transfer in opposite directions the first valve from the closed position into the open position and the second valve from the open position into the closed position, and vice versa, characterized in that at least the first valve has a first pressure chamber , which is connected to the first inflow via a filling opening and can be connected to the first outflow via an outflow opening , wherein the first pressure chamber can act on a valve element of the first valve , said valve element separating the first outflow from the first inflow , and wherein the outflow opening can be opened and closed by means of a closure element which is in operative connection with the operating element .
A terminal identification method for identifying terminals in communication via a network between a server and the terminals, the method characterized by comprising: sharing (S201) a first hash function H and an initial value which is determined for each of the terminals between the server and the respective terminal; calculating (S202) a temporary ID at the server and a terminal among the terminals by hashing an initial value S(k, 0) i times with the first hash function H to generate a value S(k, i) and by further hashing the value S(k, i) with a second hash function J that is shared between the server and each of the terminals (S203), the same temporary ID being calculated at the server and the terminal by setting the same number of times of hashing operations at the server and the terminal, wherein the server identifies the terminal using the temporary ID. sharing (S201) a first hash function H and an initial value which is determined for each of the terminals between the server and the respective terminal; calculating (S202) a temporary ID at the server and a terminal among the terminals by hashing an initial value S(k, 0) i times with the first hash function H to generate a value S(k, i) and by further hashing the value S(k, i) with a second hash function J that is shared between the server and each of the terminals (S203), the same temporary ID being calculated at the server and the terminal by setting the same number of times of hashing operations at the server and the terminal, wherein the server identifies the terminal using the temporary ID.
A method for adjusting a physical layer interface, hereinafter referred as to PHY, in a flexible Ethernet FlexE group, comprising: determining , by a receiving device, that a first physical port PHY needs to be added to a first FlexE group in a working state; and aligning all PHY through performing , by the receiving device for each PHY in the first FlexE group, deskew on the first PHY or the respective PHY in the first FlexE group based on a received data stream corresponding to the first PHY and a received data stream corresponding to the respective PHY in the first FlexE group, and restoring a data stream corresponding to a client Client from a PHY in the first FlexE group; wherein performing deskew comprises waiting, by the one of the first PHY or the respective PHY in the first FlexE group receiving a feature block earlier than the other, for the other to receive the same feature block, by buffering a quantity of blocks; characterized in that if skew between the data stream corresponding to the first PHY and the data stream corresponding to each PHY in the first FlexE group after the deskew is performed is zero, the methods further comprises restoring , by the receiving device, a data stream corresponding to a client from a PHY in a second FlexE group, wherein the second FlexE group is a FlexE group after the first PHY is added to the first FlexE group. determining , by a receiving device, that a first physical port PHY needs to be added to a first FlexE group in a working state; and aligning all PHY through performing , by the receiving device for each PHY in the first FlexE group, deskew on the first PHY or the respective PHY in the first FlexE group based on a received data stream corresponding to the first PHY and a received data stream corresponding to the respective PHY in the first FlexE group, and restoring a data stream corresponding to a client Client from a PHY in the first FlexE group; wherein performing deskew comprises waiting, by the one of the first PHY or the respective PHY in the first FlexE group receiving a feature block earlier than the other, for the other to receive the same feature block, by buffering a quantity of blocks; characterized in that if skew between the data stream corresponding to the first PHY and the data stream corresponding to each PHY in the first FlexE group after the deskew is performed is zero, the methods further comprises restoring , by the receiving device, a data stream corresponding to a client from a PHY in a second FlexE group, wherein the second FlexE group is a FlexE group after the first PHY is added to the first FlexE group.
A method, performed by an apparatus, of wireless communication under coordinated multipoint transmission, comprising: transmitting from a first cell to at least one user equipment, UE, a first uplink parameter related to resource determination for reception of an uplink control channel at a serving base station , wherein the first uplink parameter includes a location of a first region of the uplink control channel; transmitting from the first cell to the at least one UE a second uplink parameter related to resource determination for reception of the uplink control channel at a non-serving base station , wherein the second uplink parameter includes a location of a second region of the uplink control channel; performing a data transmission from the first cell to the at least one UE ; determining at the first cell a resource for receiving of the uplink control channel based on at least in part on the second uplink parameter; and receiving at the first cell the uplink control channel using the determined resource; wherein the first cell is the non-serving base station . transmitting from a first cell to at least one user equipment, UE, a first uplink parameter related to resource determination for reception of an uplink control channel at a serving base station , wherein the first uplink parameter includes a location of a first region of the uplink control channel; transmitting from the first cell to the at least one UE a second uplink parameter related to resource determination for reception of the uplink control channel at a non-serving base station , wherein the second uplink parameter includes a location of a second region of the uplink control channel; performing a data transmission from the first cell to the at least one UE ; determining at the first cell a resource for receiving of the uplink control channel based on at least in part on the second uplink parameter; and receiving at the first cell the uplink control channel using the determined resource; wherein the first cell is the non-serving base station .
An absorbent article, comprising an absorbent element obtained by wrapping an absorbent body in a wrapping sheet, the absorbent body being obtained by mixing and accumulating fibers and high absorbent polymer particles, wherein the absorbent body includes an impregnation layer impregnated with a hot melt adhesive having melt viscosity of 1,000 to 6,000 mPa·s on at least one side of a front face side and a back face side of the absorbent body, and a part of an internal surface of the wrapping sheet facing the impregnation layer is bonded to an external surface of the impregnation layer through an adhesive layer made of a hot melt adhesive having melt viscosity within a range of 4, 000 to 9, 000 mPa·s and having higher melt viscosity than melt viscosity of the hot melt adhesive impregnated into the impregnation layer.
Improved tube rail cart fit for riding on tubes of a horticultural greenhouse and which is intended for harvesting products such as fruit and vegetables with, wherein the tube rail cart has a loading floor or loading space intended for stacking packagings on, such as boxes, crates or the like, for harvested products while harvesting, wherein the tube rail cart is provided with a work platform on at least one of the front sides , more particularly on the front side or the rear side or on both sides , which is intended to allow a user or harvester to fill empty packagings standing on the work platform with harvested products , characterised in that the tube rail cart is further provided with an automated handling system for automatically supplying empty packagings and removing full packagings between the loading floor or loading space and a work platform , and vice versa, and for efficiently stacking empty packagings and full packagings on the loading floor or in the loading space without any direct intervention of the user or harvester .
A vaporization injector for gas chromatographs, of the type comprising a fixed part constituting a block having a heating element and a removable part constituting an injector body , designed to receive the injected sample, directly or in a replaceable liner of the injector body , said injector body comprising - a housing head for a replaceable septum, having a detachable covering element ; - means for the supply of carrier gas and for the evacuation of splitting gas and/or purge gas from the septum, characterised in that a) said injector body is mountable with its counter-surface on a surface of the block in a detachable manner, wherein said injector body consists of a cylindrical element designed to be inserted in the heating element of the block and terminating at the top in a wider area comprising the counter-surface resting on said surface of the block ; b) said gas supply and evacuation means consist of channels , provided said injector body , and corresponding channel apertures defining inlets and outlets provided on said counter surface of the injector body so that, when said injector body is mounted in said block , said inlets and outlets coincide with channel apertures provided on the surface of said block ; c) pneumatic seal means are provided at the interface between the coinciding apertures of the channels of the injector body and those of the block , and d) pneumatic seal means are provided to separate the paths of the gases inside said injector body . - a housing head for a replaceable septum, having a detachable covering element ; - means for the supply of carrier gas and for the evacuation of splitting gas and/or purge gas from the septum, a) said injector body is mountable with its counter-surface on a surface of the block in a detachable manner, wherein said injector body consists of a cylindrical element designed to be inserted in the heating element of the block and terminating at the top in a wider area comprising the counter-surface resting on said surface of the block ; b) said gas supply and evacuation means consist of channels , provided said injector body , and corresponding channel apertures defining inlets and outlets provided on said counter surface of the injector body so that, when said injector body is mounted in said block , said inlets and outlets coincide with channel apertures provided on the surface of said block ; c) pneumatic seal means are provided at the interface between the coinciding apertures of the channels of the injector body and those of the block , and d) pneumatic seal means are provided to separate the paths of the gases inside said injector body .
Assembly comprising an aircraft and a device for determining the water content in the atmosphere, comprising: - a laser emitter able to emit a laser beam intended to illuminate particles, - a first imager having a first collection angle (α1), able to capture at least one first image representing particles in a first range of sizes, - second imager having a second collection angle (α2), able to capture at least one second image representing particles in a second range of sizes, and - a processing unit in communication connection with the first imager and with the second imager , the processing unit being able to process the first and second images, characterised in that the laser emitter , the first and the second imagers are placed inside the fuselage of an aircraft and point towards the outside through a window, and in that the laser beam is polarized and is adapted to illuminate water particles and/or ice particles present in the atmosphere and in that the first , and in that the first and the second imagers are out-of-focus imagers, the first and the second images being formed by diffusion of the laser beam on the water particles and/or ice particles , the processing unit being able to determine the water content in the atmosphere. - a laser emitter able to emit a laser beam intended to illuminate particles, - a first imager having a first collection angle (α1), able to capture at least one first image representing particles in a first range of sizes, - second imager having a second collection angle (α2), able to capture at least one second image representing particles in a second range of sizes, and - a processing unit in communication connection with the first imager and with the second imager , the processing unit being able to process the first and second images,
A condensation particle counter system comprising: an inlet with a flow control orifice for introducing a sample stream to be analyzed; a saturator for introducing a condensate into said sample stream; wherein said saturator is in fluid communication with a condensate reservoir; a condenser in fluid communication with said saturator for condensing said condensate onto particles contained in said sample stream; a particle counter in fluid communication with said condenser for detecting or characterizing said particles in said sample stream; characterized in that the condensation particle counter further comprises: a first valve positioned between said particle counter and said condenser for isolating said particle counter from said condenser, said saturator and said condensate reservoir; and a second valve positioned between said inlet and said saturator for isolating said flow control orifice from said condenser, said saturator and said condensate reservoir; wherein said first valve and said second valve are configured to automatically close when said particle counter is not operational, said particle counter is powered off and/or there is no flow through said flow orifice. an inlet with a flow control orifice for introducing a sample stream to be analyzed; a saturator for introducing a condensate into said sample stream; wherein said saturator is in fluid communication with a condensate reservoir; a condenser in fluid communication with said saturator for condensing said condensate onto particles contained in said sample stream; a particle counter in fluid communication with said condenser for detecting or characterizing said particles in said sample stream; characterized in that the condensation particle counter further comprises: a first valve positioned between said particle counter and said condenser for isolating said particle counter from said condenser, said saturator and said condensate reservoir; and a second valve positioned between said inlet and said saturator for isolating said flow control orifice from said condenser, said saturator and said condensate reservoir; wherein said first valve and said second valve are configured to automatically close when said particle counter is not operational, said particle counter is powered off and/or there is no flow through said flow orifice. a first valve positioned between said particle counter and said condenser for isolating said particle counter from said condenser, said saturator and said condensate reservoir; and a second valve positioned between said inlet and said saturator for isolating said flow control orifice from said condenser, said saturator and said condensate reservoir; wherein said first valve and said second valve are configured to automatically close when said particle counter is not operational, said particle counter is powered off and/or there is no flow through said flow orifice.
A system for modifying an intraocular device having a surface region and one or more subsurface regions, the surface region having a mechanical property, the system comprising: a laser assembly configured to output a pulsed laser beam ; and a processing unit coupled to the laser assembly , the processing unit configured to control the laser assembly to direct the pulsed laser beam at the one or more subsurface regions, the one or more subsurface regions being structurally altered in response to the pulsed laser beam while maintaining the mechanical property of the surface region, the intraocular device having an accommodative capability associated therewith, characterized in that the accommodative capability is increased based on the structural alteration of the one or more regions. a laser assembly configured to output a pulsed laser beam ; and a processing unit coupled to the laser assembly , the processing unit configured to control the laser assembly to direct the pulsed laser beam at the one or more subsurface regions, the one or more subsurface regions being structurally altered in response to the pulsed laser beam while maintaining the mechanical property of the surface region,
Specimen delimiting element for microscopy, said specimen delimiting element, at least in one region, consisting of a nano-porous material which is transparent to at least one observation radiation selected from a wavelength range of 200 to 2000 nm, wherein the nano-porous material has pores , the mean pore diameter of which is smaller than the wavelength of the observation radiation , and - a proportion of at least 5% of the volume of the nano-porous material is taken up by the pores of the nano-porous material, characterized in that - the nano-porous material has an open porosity, - the mean pore diameter is in a value range of 0.5 nm to 100 nm, wherein the mean pore diameter is determined on the basis of a distribution function as diameter of 95% of all pores plus and/or minus the standard deviation thereof, - the number of pores per unit volume of the nano-porous material and/or the mean pore diameter changes or change along at least one extent of the specimen delimiting element , such that a pore gradient is formed in the specimen delimiting element , - the pore gradient has at least one gradient portion (11.1) in which no porosity is present, such that a separation of a specimen medium on one side surface (1.1, 1.2) of the specimen delimiting element and an immersion medium on an opposite side surface (1.1, 1.2) of the specimen delimiting element can be effected by means of the specimen delimiting element , and a respective pore gradient is formed proceeding from two mutually opposite side surfaces (1.1, 1.2) of the specimen delimiting element , wherein the pore gradients are formed in a mutually opposing fashion with regard to the number of pores per unit volume of the material and/or the mean pore diameter. - a proportion of at least 5% of the volume of the nano-porous material is taken up by the pores of the nano-porous material, characterized in that - the nano-porous material has an open porosity, - the mean pore diameter is in a value range of 0.5 nm to 100 nm, wherein the mean pore diameter is determined on the basis of a distribution function as diameter of 95% of all pores plus and/or minus the standard deviation thereof, - the number of pores per unit volume of the nano-porous material and/or the mean pore diameter changes or change along at least one extent of the specimen delimiting element , such that a pore gradient is formed in the specimen delimiting element , - the pore gradient has at least one gradient portion (11.1) in which no porosity is present, such that a separation of a specimen medium on one side surface (1.1, 1.2) of the specimen delimiting element and an immersion medium on an opposite side surface (1.1, 1.2) of the specimen delimiting element can be effected by means of the specimen delimiting element , and a respective pore gradient is formed proceeding from two mutually opposite side surfaces (1.1, 1.2) of the specimen delimiting element , wherein the pore gradients are formed in a mutually opposing fashion with regard to the number of pores per unit volume of the material and/or the mean pore diameter.