mhurhangee/patent-ind-claim-en huggingface dataset:
A method for controlling an output power of an antenna in user equipment , comprising: during a sounding reference signal, SRS, transmission period, transmitting , by a first antenna of at least one antenna of the user equipment , a first SRS signal to a base station at a first SRS output power, wherein the first SRS output power is equal to a maximum output power, P cmax , of the first antenna; and during the SRS period, transmitting a non-SRS signal to the base station at a non-SRS output power, wherein the non-SRS output power is less than a difference between the maximum output power of the first antenna and a maximum output power reduction of the first antenna, and the maximum output power reduction of the first antenna is set to meet an electromagnetic power density exposure requirement of the first antenna. during a sounding reference signal, SRS, transmission period, transmitting , by a first antenna of at least one antenna of the user equipment , a first SRS signal to a base station at a first SRS output power, wherein the first SRS output power is equal to a maximum output power, P cmax , of the first antenna; and during the SRS period, transmitting a non-SRS signal to the base station at a non-SRS output power, wherein the non-SRS output power is less than a difference between the maximum output power of the first antenna and a maximum output power reduction of the first antenna, and the maximum output power reduction of the first antenna is set to meet an electromagnetic power density exposure requirement of the first antenna.
Rubber-reinforced vinyl aromatic (co)polymer comprising a polymeric matrix and a rubber phase of a diene rubber dispersed and/or grafted in the polymeric matrix wherein said rubber phase is selected between at least one of: (i) a linear diene rubber; (iii) a three-branches diene rubber, that is a linear diene rubber coupled with a trifunctional agent; (iv) a mixture of linear diene rubbers (i) and radial diene rubbers (v) with a maximum ratio between one another (i)/(v) comprised between 99.5/0.5 and 85/15, wherein the diene rubber in the rubber phase (i), (iii) and (iv) is a polybutadiene having: a solution viscosity comprised between 40 and 70 cPs, as measured according to the description in a solution thereof at 5% by weight in styrene at 25°C; a content of 1,2 vinyl comprised between 5 and 35% by weight; and a content of 1,4-cis comprised between 20 and 85% by weight. (i) a linear diene rubber; (iii) a three-branches diene rubber, that is a linear diene rubber coupled with a trifunctional agent; (iv) a mixture of linear diene rubbers (i) and radial diene rubbers (v) with a maximum ratio between one another (i)/(v) comprised between 99.5/0.5 and 85/15, a solution viscosity comprised between 40 and 70 cPs, as measured according to the description in a solution thereof at 5% by weight in styrene at 25°C; a content of 1,2 vinyl comprised between 5 and 35% by weight; and a content of 1,4-cis comprised between 20 and 85% by weight.
A multi-stage centrifugal pump with a foot part which comprises a suction connection and a delivery connection , and with a head part , wherein at least two pump stages are arranged between the foot part and the head part , said stages each comprising an impeller and a housing surrounding this, with an outer casing surrounding the housing at a distance and forming an annular channel , and with clamping bolts which connect the head part and the foot part to one another amid the inclusion of the casing and the housings , wherein the annular channel leads the delivery fluid to one of the connections (2 or 16), characterised in that the clamping bolts are arranged in the annular channel .
A fertilizer in pellet form, each pellet comprising: - a carrier (F), said carrier comprising Sulphur and being present in the dispersion in percentage by weight not less than 70%; - at least one additive (A) homogeneously dispersed in the carrier (F), the additive (A) comprising at least one substance having a disgregating mechanical function of the pellet in the presence of water or moisture, said substance having a disgregating mechanical function of the pellet being present in percentage greater than 2% by weight, characterized in that said substance having a disgregating mechanical function of the pellet comprises vegetal fibers, such as wood, wood-based materials, vegetal masses, starch, stubbles and/or combinations thereof and in that the substance having a disgregating mechanical function of the pellet is dispersed in the pellet in a particulate form wherein the particles have a granulometry greater than 50 microns and less than 150 microns. - a carrier (F), said carrier comprising Sulphur and being present in the dispersion in percentage by weight not less than 70%; - at least one additive (A) homogeneously dispersed in the carrier (F), the additive (A) comprising at least one substance having a disgregating mechanical function of the pellet in the presence of water or moisture, said substance having a disgregating mechanical function of the pellet being present in percentage greater than 2% by weight, characterized in that said substance having a disgregating mechanical function of the pellet comprises vegetal fibers, such as wood, wood-based materials, vegetal masses, starch, stubbles and/or combinations thereof and in that the substance having a disgregating mechanical function of the pellet is dispersed in the pellet in a particulate form wherein the particles have a granulometry greater than 50 microns and less than 150 microns.
A composition for forming a polyimide film which comprises: a first polyimide including a repeating unit of the following Chemical Formula 1-1 or a first polyamic acid including a repeating unit of the following Chemical Formula 1-2; and a second polyamic acid having a weight average molecular weight of 50,000 g/mol or more, wherein the first polyimide or the first polyamic acid has a weight average molecular weight of 500 g/mol to 40,000 g/mol: wherein, R 1 and R 2 are each independently hydrogen atom or a substituent selected from a halogen atom, a hydroxyl group (-OH), a thiol group (-SH), a nitro group (-NO 2 ), a cyano group (-CN), a C 1-10 alkyl group, a C 1-4 halogenoalkoxyl group, a C 1-10 halogenoalkyl group, and a C 6-20 aryl group. a first polyimide including a repeating unit of the following Chemical Formula 1-1 or a first polyamic acid including a repeating unit of the following Chemical Formula 1-2; and a second polyamic acid having a weight average molecular weight of 50,000 g/mol or more, wherein the first polyimide or the first polyamic acid has a weight average molecular weight of 500 g/mol to 40,000 g/mol:
A method for decomposing struvite, comprising the steps of: - dissolving (S10) a feed material comprising struvite in sulphuric acid , forming a solution; - removing (S20) phosphate ions from said solution; - precipitating (S40) magnesium compounds from said solution, after said step of removing (S20) phosphate ions, by increasing a pH of said solution, forming a solution comprising ammonium sulphate . - dissolving (S10) a feed material comprising struvite in sulphuric acid , forming a solution; - removing (S20) phosphate ions from said solution; - precipitating (S40) magnesium compounds from said solution, after said step of removing (S20) phosphate ions, by increasing a pH of said solution, forming a solution comprising ammonium sulphate .
A method of depositing a donor material onto a target surface comprising the steps of: - covering (S1) a first main side of a substrate with a stretchable layer , attaching the stretchable layer thereto with a sealing around an enclosed area at the first main side, therewith defining an enclosure , the stretchable layer having an outer surface facing away from the substrate, the outer surface being patterned with one or more recessed areas (42a,...,42e); - filling the one or more recessed areas (42a,...,42e) with the donor material to be deposited; - providing for a relatively high pressure in an interior of the enclosure as compared to a pressure in an exterior of the enclosure by supplying a gas to the interior through an opening in the substrate , therewith increasing a volume (V 61 ) of the interior to press the patterned surface of the stretchable layer against the target surface ; - irradiating the substrate at a second main side opposite its first main side with photon radiation having an intensity and a duration that causes a transfer of donor material from the one or more recessed areas (42a,...,42e) to the target surface . - covering (S1) a first main side of a substrate with a stretchable layer , attaching the stretchable layer thereto with a sealing around an enclosed area at the first main side, therewith defining an enclosure , the stretchable layer having an outer surface facing away from the substrate, the outer surface being patterned with one or more recessed areas (42a,...,42e); - filling the one or more recessed areas (42a,...,42e) with the donor material to be deposited; - providing for a relatively high pressure in an interior of the enclosure as compared to a pressure in an exterior of the enclosure by supplying a gas to the interior through an opening in the substrate , therewith increasing a volume (V 61 ) of the interior to press the patterned surface of the stretchable layer against the target surface ; - irradiating the substrate at a second main side opposite its first main side with photon radiation having an intensity and a duration that causes a transfer of donor material from the one or more recessed areas (42a,...,42e) to the target surface .
A flow control device comprising: a body locatable with a tubular a flow regulator , housed within the body , the flow regulator defining a flow path through the body to accommodate flow between internal and external locations of a tubular in use, the flow regulator comprising a valve arrangement forming part of the flow path, and a biasing mechanism configured to urge the valve arrangement towards an open configuration from a restricted configuration in which fluid flow though the flow path is restricted, wherein the biasing mechanism and flow path through the flow control device are configured such that a differential pressure acting across the flow regulator , in excess of a particular threshold, moves the valve arrangement from the open configuration towards the restricted configuration in order to limit flow through the flow control device , wherein the biasing mechanism is provided with a shroud arrangement , characterized by the shroud arrangement comprising two shroud members , wherein the shroud members cooperate in a sliding arrangement to maintain a tortuous path that inhibits fluid/debris entering the biasing mechanism . a body locatable with a tubular a flow regulator , housed within the body , the flow regulator defining a flow path through the body to accommodate flow between internal and external locations of a tubular in use, the flow regulator comprising a valve arrangement forming part of the flow path, and a biasing mechanism configured to urge the valve arrangement towards an open configuration from a restricted configuration in which fluid flow though the flow path is restricted, wherein the biasing mechanism and flow path through the flow control device are configured such that a differential pressure acting across the flow regulator , in excess of a particular threshold, moves the valve arrangement from the open configuration towards the restricted configuration in order to limit flow through the flow control device , wherein the biasing mechanism is provided with a shroud arrangement , characterized by the shroud arrangement comprising two shroud members , wherein the shroud members cooperate in a sliding arrangement to maintain a tortuous path that inhibits fluid/debris entering the biasing mechanism .
Apparatus for measuring the operating parameters of espresso coffee machines, comprising: - a filter-holder body configured to be associated with a water dispensing nozzle of an espresso coffee machine, said body internally defining a chamber for the passage of the water dispensed by said nozzle; - a filling element arranged in said chamber and having a cavity for the passage of the water dispensed by the nozzle towards an outlet duct ; - a water outlet terminal element associated with said filter-holder body downstream of said chamber and defining said water outlet duct ; and - reading means for the pressure and temperature values of the water passing from the chamber to the outlet duct ; characterized in that said reading means comprise at least one pressure reading device operatively engaged to said water outlet terminal element and at least one temperature reading device operatively engaged at said cavity obtained in the filling element . - a filter-holder body configured to be associated with a water dispensing nozzle of an espresso coffee machine, said body internally defining a chamber for the passage of the water dispensed by said nozzle; - a filling element arranged in said chamber and having a cavity for the passage of the water dispensed by the nozzle towards an outlet duct ; - a water outlet terminal element associated with said filter-holder body downstream of said chamber and defining said water outlet duct ; and - reading means for the pressure and temperature values of the water passing from the chamber to the outlet duct ; characterized in that said reading means comprise at least one pressure reading device operatively engaged to said water outlet terminal element and at least one temperature reading device operatively engaged at said cavity obtained in the filling element .
An Ethereum Virtual Machine-based transaction processing method, the method being applied to a non-Ethereum blockchain node of a non-Ethereum blockchain system comprising: acquiring (S110), by an Ethereum virtual machine instance running in the non-Ethereum blockchain node, a to-be-processed transaction request; in a process of executing the to-be-processed transaction request, generating (S120), by the Ethereum virtual machine instance, a data access request in a form of an Ethereum Virtual Machine instruction for target access data and transmitting the data access request to an interface module, wherein the data access request comprises a data read request and/or a data write request; performing (S130), by the interface module, instruction conversion according to the data access request to determine a blockchain access interface corresponding to a function of the data access request; and calling (S140), by the interface module, the blockchain access interface to access a data storage space of the non-Ethereum blockchain system where the target access data is located and feeding back an access result to the Ethereum virtual machine instance; wherein the target access data comprises account data and/or contract data, the contract data comprises an account identifier, a contract bytecode and an intra-contract variable, and the account identifier is a contract call identifier of a smart contract. acquiring (S110), by an Ethereum virtual machine instance running in the non-Ethereum blockchain node, a to-be-processed transaction request; in a process of executing the to-be-processed transaction request, generating (S120), by the Ethereum virtual machine instance, a data access request in a form of an Ethereum Virtual Machine instruction for target access data and transmitting the data access request to an interface module, wherein the data access request comprises a data read request and/or a data write request; performing (S130), by the interface module, instruction conversion according to the data access request to determine a blockchain access interface corresponding to a function of the data access request; and calling (S140), by the interface module, the blockchain access interface to access a data storage space of the non-Ethereum blockchain system where the target access data is located and feeding back an access result to the Ethereum virtual machine instance; wherein the target access data comprises account data and/or contract data, the contract data comprises an account identifier, a contract bytecode and an intra-contract variable, and the account identifier is a contract call identifier of a smart contract.
Electrical conducting part for an electrical assembly , said assembly comprising an electronic power module and an electronic control unit for controlling said electronic power module , said electronic power module comprising at least one external electrical terminal , said part being characterized in that it is intended to electrically connect said at least one external electrical terminal to the electronic control unit and in that it comprises: - an electrically conductive planar segment intended to be electrically connected with the at least one external electrical terminal , and - at least one electrical connection pin extending from an edge (300-1) of the planar segment and comprising a linking end connected to the planar segment , at least one intermediate segment and at least one free end connected to said linking end by said at least one intermediate segment , said at least one free end extending orthogonally to the plane (β) of the planar segment and being suitable for being electrically connected to the electronic control unit . - an electrically conductive planar segment intended to be electrically connected with the at least one external electrical terminal , and - at least one electrical connection pin extending from an edge (300-1) of the planar segment and comprising a linking end connected to the planar segment , at least one intermediate segment and at least one free end connected to said linking end by said at least one intermediate segment , said at least one free end extending orthogonally to the plane (β) of the planar segment and being suitable for being electrically connected to the electronic control unit .
A communication method, comprising: receiving, by a first network device, first indication information from a second network device, wherein the first indication information comprises information used to determine a third network device, the second network device is an original master network device of a terminal device in a first connected state, and the third network device is an original secondary network device of the terminal device in the first connected state; and determining, by the first network device, the third network device as a new secondary network device of the terminal device based on the first indication information. receiving, by a first network device, first indication information from a second network device, wherein the first indication information comprises information used to determine a third network device, the second network device is an original master network device of a terminal device in a first connected state, and the third network device is an original secondary network device of the terminal device in the first connected state; and determining, by the first network device, the third network device as a new secondary network device of the terminal device based on the first indication information.
A motorcycle tire comprising: a tread portion having a pair of tread edges (Te) and a tread surface therebetween, and comprising a crown region (Cr) including a tire equator (C) and a pair of shoulder regions (Sh) respectively including the tread edges (Te); a pair of axially spaced bead portions ; a pair of sidewall portions extending from the tread edges (Te) to the bead portions ; a bias-ply carcass extending between the bead portions through the tread portion and the sidewall portions , and comprising a plurality of carcass plies of carcass cords , including an outer carcass ply which is radially outermost in the tread portion in the carcass plies ; a band disposed radially outside the carcass in the tread portion , and comprising a jointless band ply composed of at least one band cord wound spirally and circumferentially of the tire at 5 degrees or less with respect to the tire circumferential direction; and a tread rubber disposed radially outside the band , characterized in that a loss tangent of the tread rubber at a temperature of 0 deg C is larger in the crown region (Cr) than in the shoulder regions (Sh), wherein the loss tangent is measured under the conditions frequency 5 Hz, initial strain 10%, and dynamic strain +/-2.5%, and angles of the carcass cords of the outer carcass ply with respect to the tire circumferential direction are smaller in the crown region (Cr) than in the shoulder regions (Sh). a tread portion having a pair of tread edges (Te) and a tread surface therebetween, and comprising a crown region (Cr) including a tire equator (C) and a pair of shoulder regions (Sh) respectively including the tread edges (Te); a pair of axially spaced bead portions ; a pair of sidewall portions extending from the tread edges (Te) to the bead portions ; a bias-ply carcass extending between the bead portions through the tread portion and the sidewall portions , and comprising a plurality of carcass plies of carcass cords , including an outer carcass ply which is radially outermost in the tread portion in the carcass plies ; a band disposed radially outside the carcass in the tread portion , and comprising a jointless band ply composed of at least one band cord wound spirally and circumferentially of the tire at 5 degrees or less with respect to the tire circumferential direction; and a tread rubber disposed radially outside the band , characterized in that a loss tangent of the tread rubber at a temperature of 0 deg C is larger in the crown region (Cr) than in the shoulder regions (Sh), wherein the loss tangent is measured under the conditions frequency 5 Hz, initial strain 10%, and dynamic strain +/-2.5%, and angles of the carcass cords of the outer carcass ply with respect to the tire circumferential direction are smaller in the crown region (Cr) than in the shoulder regions (Sh).
A method for manufacturing a preform for a turbomachine component using a weaving installation comprising at least a first delivery roll and a take-up roll , the method comprising the following steps: - feeding the weaving installation with weft (Tn) and warp (Cn) filaments, - weaving the weft and warp filaments together to form the preform , - driving the preform in a direction of travel towards the take-up roll which applies a predetermined tension on the preform , and - winding and storing the preform around the take-up roll , characterised in that it comprises a step of immobilising the preform on the first delivery roll arranged upstream of the take-up roll in the direction of travel of the preform when the installation is stopped. - feeding the weaving installation with weft (Tn) and warp (Cn) filaments, - weaving the weft and warp filaments together to form the preform , - driving the preform in a direction of travel towards the take-up roll which applies a predetermined tension on the preform , and - winding and storing the preform around the take-up roll , characterised in that it comprises a step of immobilising the preform on the first delivery roll arranged upstream of the take-up roll in the direction of travel of the preform when the installation is stopped.
Device suitable for aligning a calibration chart for a vehicle , the device comprising said calibration chart which is adjustably positioned on a support of said device in front of a distance detector of said vehicle , wherein said support has an arm lying in a direction transverse to the longitudinal axis of the vehicle, on both ends of said arm being mounted a measuring light source to which corresponds a reflector unit adapted to be mounted on the rear axle of the vehicle , wherein said calibration chart positioned in a rectangular direction with regard to the longitudinal axis of the vehicle is mounted on a swivel arm to be locked on said support and adapted to be pivoted through 180° on vertical axis in order to avoid re-positioning of said calibration chart .