mhurhangee/patent-ind-claim-en huggingface dataset:
An RFID reader comprising a housing and at least one antenna arranged in the housing , wherein the antenna is formed from at least one conductor loop, wherein the conductor loop has a central axis and a height (h) running in a longitudinal direction perpendicular to the central axis and a width b running in a transverse direction perpendicular to the central axis and perpendicular to the longitudinal direction , wherein - an open structure is formed by at least one through-opening arranged inside the conductor loop, wherein the conductor loop runs around the through-opening , characterized in that the height h is greater than the width b, wherein the width b of the conductor loop is between 40 millimetres and 100 millimetres (40 millimetres ≤ b ≤ 100 millimetres) and the height h of the conductor loop is between 200 millimetres and 1000 millimetres (200 millimetres ≤ h ≤ 1000 millimetres) and the reader comprises a stand base and/or means for mounting the reader on a wall or a component. - an open structure is formed by at least one through-opening arranged inside the conductor loop, wherein the conductor loop runs around the through-opening , the height h is greater than the width b, wherein the width b of the conductor loop is between 40 millimetres and 100 millimetres (40 millimetres ≤ b ≤ 100 millimetres) and the height h of the conductor loop is between 200 millimetres and 1000 millimetres (200 millimetres ≤ h ≤ 1000 millimetres) and the reader comprises a stand base and/or means for mounting the reader on a wall or a component.
Method for limiting the production of pollutants, in particular fine particles, of a thermal engine of a hybrid vehicle, during the starting phase of said thermal engine , said hybrid vehicle comprising an engine structure comprising said thermal engine , an electric motor , a primary shaft and a clutch arranged between said heat engine and said electric motor , said heat engine having a maximum torque of operation (CMF), said method using a computer and comprising the following steps: - a step a) of obtaining the maximum quantity of pollutants (QTEM) to reject; - a step b) of obtaining an operating curve (CFONC) of said heat engine indicating the quantity of pollutants released as a function of the torque generated by said heat engine ; - a step c) of determining a maximum torque (CM) to be generated by said heat engine for the quantity of pollutants to be rejected (QTEM) from said operating curve (CFONC); - a step d) of calculating a target speed (REGCI) of the heat engine from said maximum torque (CM); - a step e) of measuring the speed of the primary shaft (REGAP); - a step f) of calculating an intermediate torque (CI); - a step g) of calculating an acceleration (ACC) of the actual speed (REGR) of said heat engine ; - a step h) of determining a speed setpoint (RCONS) of the heat engine from said acceleration (ACC); - a step i) of regulating the actual speed (REGR) of the heat engine following the speed setpoint (RCONS) until reaching said target speed (REGCI); - a step j) of regulating the real speed (REGR) of said thermal engine until equalizing said real speed (REGR) with said speed of the primary shaft (REGAP). - a step a) of obtaining the maximum quantity of pollutants (QTEM) to reject; - a step b) of obtaining an operating curve (CFONC) of said heat engine indicating the quantity of pollutants released as a function of the torque generated by said heat engine ; - a step c) of determining a maximum torque (CM) to be generated by said heat engine for the quantity of pollutants to be rejected (QTEM) from said operating curve (CFONC); - a step d) of calculating a target speed (REGCI) of the heat engine from said maximum torque (CM); - a step e) of measuring the speed of the primary shaft (REGAP); - a step f) of calculating an intermediate torque (CI); - a step g) of calculating an acceleration (ACC) of the actual speed (REGR) of said heat engine ; - a step h) of determining a speed setpoint (RCONS) of the heat engine from said acceleration (ACC); - a step i) of regulating the actual speed (REGR) of the heat engine following the speed setpoint (RCONS) until reaching said target speed (REGCI); - a step j) of regulating the real speed (REGR) of said thermal engine until equalizing said real speed (REGR) with said speed of the primary shaft (REGAP).
A scraping apparatus for removing pellets from a die plate of a rotary press, comprising a housing , a scraping element that is arranged on the housing and that can be positioned over the die plate for removing pellets produced in the rotary press from the die plate , and a first channel section arranged on the housing for guiding away pellets removed from the die plate , wherein the scraping element and the first channel section are shiftably mounted on the housing , characterized in that in that the scraping apparatus comprises a plurality of mechanical positioning means that can be alternatively inserted into the housing and that in each case cooperate with the scraping element and the first channel section when inserted in the housing such that the scraping element and the first channel section are arranged in a position on the housing defined by the respective mechanical positioning means, wherein the defined position for the scraping element and/or the first channel section differ for different mechanical positioning means.
A cross-linkable polymer (SPO) having one or more backbone chains consisting of recurring units derived from ethylene and a C 6 -C 10 olefin and comprising hydrolysable silane groups, said cross-linkable polymer (SPO) being obtainable from the reaction of: - an olefin silane (OS) comprising hydrolysable silane groups of formula R 1 R 2 R 3 SiY, wherein Y denotes a hydrocarbon radical comprising at least one vinyl functional group, R 1 is a hydrolysable group and R 2 and R 3 are, independently from each other, a C 1 -C 8 alkyl group or are an hydrolysable group as R 1 , with - a blend (CB) of at least two copolymer (c1) and (c2) of ethylene and a C 6 -C 10 olefin, wherein the melt flow rate (MFR) of (c1) is lower than 8 g/10 min and the MFR of (c2) is higher than 10 g/10 min, as measured at 190°C and 2.16 kg. - an olefin silane (OS) comprising hydrolysable silane groups of formula R 1 R 2 R 3 SiY, wherein Y denotes a hydrocarbon radical comprising at least one vinyl functional group, R 1 is a hydrolysable group and R 2 and R 3 are, independently from each other, a C 1 -C 8 alkyl group or are an hydrolysable group as R 1 , with - a blend (CB) of at least two copolymer (c1) and (c2) of ethylene and a C 6 -C 10 olefin, wherein the melt flow rate (MFR) of (c1) is lower than 8 g/10 min and the MFR of (c2) is higher than 10 g/10 min, as measured at 190°C and 2.16 kg.
System for optically detecting at least one substance in a fluid , comprising: at least one agent arranged to be dispersed in the fluid and to interact with said at least one substance to thereby give an optical response upon a determined optical excitation or a chemical reaction; a chamber with a window to contain said fluid , wherein the chamber is closed at one side by said window that is optically transparent to the wavelengths of said optical response and optionally of said optical excitation if needed; an optical detector adapted to detect at least a portion of said optical response; a magnetic bead attached to or to be attached to the at least one agent ; at least one magnetic source arranged to magnetically drag at least one complex comprising the magnetic bead and the therewith attached agent to the window for decreasing background optical noises, and to magnetically retain said at least one complex onto or close to the window during optical detection therethrough; wherein the optical detector is positioned to receive at least a portion of the optical response from the at least one agent if located onto or close to the window , and wherein the interface between the window and the chamber is not specifically functionalized to capture said at least one substance or any analogue of said at least one substance. at least one agent arranged to be dispersed in the fluid and to interact with said at least one substance to thereby give an optical response upon a determined optical excitation or a chemical reaction; a chamber with a window to contain said fluid , wherein the chamber is closed at one side by said window that is optically transparent to the wavelengths of said optical response and optionally of said optical excitation if needed; an optical detector adapted to detect at least a portion of said optical response; a magnetic bead attached to or to be attached to the at least one agent ; at least one magnetic source arranged to magnetically drag at least one complex comprising the magnetic bead and the therewith attached agent to the window for decreasing background optical noises, and to magnetically retain said at least one complex onto or close to the window during optical detection therethrough; wherein the optical detector is positioned to receive at least a portion of the optical response from the at least one agent if located onto or close to the window , and wherein the interface between the window and the chamber is not specifically functionalized to capture said at least one substance or any analogue of said at least one substance.
A rechargeable battery jump starting device , the device comprising: a first 12V battery ; a second 12V battery ; an electrical control switch electrically connected to the first 12V battery and second 12V battery, the electrical control switch having a parallel switch position for connecting the first 12V battery and the second 12V battery in parallel, the electrical control switch having a series switch position for connecting the first 12V battery and the second 12V battery in series; a microcontroller unit electrically connected to the electrical control switch; and characterised by : an electrical optical position sensing switch system comprising a circuit electrically connected to the first and second batteries and having an optical coupler electrically connected to the microcontroller, wherein the optical coupler is configured to provide a signal to the microcontroller for indicating the parallel switch position or the series switch position of the electrical control switch in response to current flow or lack thereof in the circuit, wherein the electrical control switch is configured to be selectively rotated to either the parallel switch position or the series switch position. a first 12V battery ; a second 12V battery ; an electrical control switch electrically connected to the first 12V battery and second 12V battery, the electrical control switch having a parallel switch position for connecting the first 12V battery and the second 12V battery in parallel, the electrical control switch having a series switch position for connecting the first 12V battery and the second 12V battery in series; a microcontroller unit electrically connected to the electrical control switch;
A non-coated air bag fabric, wherein the fabric is woven using fibers containing polyethylene terephthalate as a main raw material, a single fiber fineness of a yarn that constitutes the fabric is 2.5 dtex to 3.0 dtex, characterized in that the fabric has a cover factor of 2450 to 2500, wherein the cover factor = warp density of fabric (#/2.54 cm) × √total fineness of warp (dtex) + weft density of fabric (#/2.54 cm) × √total fineness of weft (dtex).
A network node for classification of interference connections between Citizens Broadband Radio Service Devices, CBSDs, in a wireless communication network, the network node comprising: processing circuitry configured to: calculate an interference level, the calculation being based at least in part on whether two interfering CBSDs are operating in one of alternate channels, adjacent channels and the same channel; compare the calculated interference level to an interference threshold to determine a classification of an interference connection, wherein the interference threshold is based on probabilistic soft values of received interference levels at the CBSDs ; and perform at least one action based on the classification of the interference connection, wherein the network node is a Coexistence Manager, CxM, being a logical entity responsible for managing coexistence between General Authorized Access, GAA, users within a Coexistence Group, CxG, in coordination with a Spectrum Access System, SAS, according to a common interference management policy. processing circuitry configured to: calculate an interference level, the calculation being based at least in part on whether two interfering CBSDs are operating in one of alternate channels, adjacent channels and the same channel; compare the calculated interference level to an interference threshold to determine a classification of an interference connection, wherein the interference threshold is based on probabilistic soft values of received interference levels at the CBSDs ; and perform at least one action based on the classification of the interference connection, calculate an interference level, the calculation being based at least in part on whether two interfering CBSDs are operating in one of alternate channels, adjacent channels and the same channel; compare the calculated interference level to an interference threshold to determine a classification of an interference connection, wherein the interference threshold is based on probabilistic soft values of received interference levels at the CBSDs ; and perform at least one action based on the classification of the interference connection, wherein the network node is a Coexistence Manager, CxM, being a logical entity responsible for managing coexistence between General Authorized Access, GAA, users within a Coexistence Group, CxG, in coordination with a Spectrum Access System, SAS, according to a common interference management policy.
Use of a metal salt of a carboxylic acid or a compound as a rubber-metal adhesion promoter, wherein the metal salt of a carboxylic acid is a metal salt of an aliphatic carboxylic acid having 2 to 25 carbon atoms and in which the metal is bismuth, antimony, silver or niobium; and wherein the compound is represented by the following general formula (A): [Chemical Formula 1] [(R COO) x MO] 3 Z (A) [wherein Z represents a structure selected from the following formulae (z-1) to (z-4); wherein M represents bismuth, copper, antimony, silver or niobium; (RCOO) represents a residue of an aliphatic carboxylic acid having 2 to 25 carbon atoms; and x represents an integer of {(valence of M) - 1}].
Method for impregnating, strengthening or electrically insulating a body supporting single or multi-layer windings, in particular for an electric machine , wherein the body supporting the windings is sprinkled with the multi-component resin system, wherein the body supporting the windings, at an ambient temperature of 15 to 25°C, in particular 20 to 23°C, is sprinkled with the multi-component resin system, wherein the multi-component resin system has at least two components, wherein a first component (K1) is a resin, wherein a second component (K2) is a curing agent, wherein the first component (K1) and the second component (K2) are conveyed separately from one another, wherein the first component and the second component are mixed to form the multi-component resin system immediately before the sprinkling, characterised in that the first component has a viscosity of 2400 to 2600 mPa·s at an ambient temperature of 25°C and has a specific weight of 1.13 to 1.17 g/cm 3 , and the second component has a viscosity of 200 to 300 mPa·s at an ambient temperature of 25°C and has a specific weight of 1.00 to 1.04 g/cm 3 , wherein a "parts by weight" mixing ratio lies at 5 parts resin to 1 part curing agent and a "parts by volume" mixing ratio lies at 4.3 parts resin to 1 parts curing agent, wherein the mixed material has a viscosity of 1550 to 1750 mPa·s at an ambient temperature of 25°C and has a specific weight of 1.11 to 1.15 g/cm 3 , wherein the multi-component resin system is shaped as a jet with a dosing between 0.2 ml/s and 2 ml/s for the purpose of sprinkling. wherein the body supporting the windings, at an ambient temperature of 15 to 25°C, in particular 20 to 23°C, is sprinkled with the multi-component resin system, wherein the multi-component resin system has at least two components, wherein a first component (K1) is a resin, wherein a second component (K2) is a curing agent, wherein the first component (K1) and the second component (K2) are conveyed separately from one another, wherein the first component and the second component are mixed to form the multi-component resin system immediately before the sprinkling, characterised in that the first component has a viscosity of 2400 to 2600 mPa·s at an ambient temperature of 25°C and has a specific weight of 1.13 to 1.17 g/cm 3 , and the second component has a viscosity of 200 to 300 mPa·s at an ambient temperature of 25°C and has a specific weight of 1.00 to 1.04 g/cm 3 , wherein a "parts by weight" mixing ratio lies at 5 parts resin to 1 part curing agent and a "parts by volume" mixing ratio lies at 4.3 parts resin to 1 parts curing agent, wherein the mixed material has a viscosity of 1550 to 1750 mPa·s at an ambient temperature of 25°C and has a specific weight of 1.11 to 1.15 g/cm 3 , wherein the multi-component resin system is shaped as a jet with a dosing between 0.2 ml/s and 2 ml/s for the purpose of sprinkling.
A composition, comprising: a first hairpin monomer comprising: a first input domain comprising a first toehold portion and a first stem section, and a first output domain comprising a first hairpin loop and a complement to the first stem section; a second hairpin monomer comprising: a second input domain comprising a second toehold portion and a second stem section, and a second output domain comprising a second hairpin loop and a complement to the second stem section; a first fractional initiator probe comprising a first fractional initiator capable of hybridizing to a first portion of the first input domain; and a second fractional initiator probe comprising a second fractional initiator capable of hybridizing to a second portion of the first input domain adjacent to said first portion. a first hairpin monomer comprising: a first input domain comprising a first toehold portion and a first stem section, and a first output domain comprising a first hairpin loop and a complement to the first stem section; a first input domain comprising a first toehold portion and a first stem section, and a first output domain comprising a first hairpin loop and a complement to the first stem section; a second hairpin monomer comprising: a second input domain comprising a second toehold portion and a second stem section, and a second output domain comprising a second hairpin loop and a complement to the second stem section; a first fractional initiator probe comprising a first fractional initiator capable of hybridizing to a first portion of the first input domain; and a second fractional initiator probe comprising a second fractional initiator capable of hybridizing to a second portion of the first input domain adjacent to said first portion. a second input domain comprising a second toehold portion and a second stem section, and a second output domain comprising a second hairpin loop and a complement to the second stem section; a first fractional initiator probe comprising a first fractional initiator capable of hybridizing to a first portion of the first input domain; and a second fractional initiator probe comprising a second fractional initiator capable of hybridizing to a second portion of the first input domain adjacent to said first portion.
A method performed by a terminal in a wireless communication system, the method comprising: receiving, from a base station, first discontinuous reception, DRX, configuration information for a first DRX group and second DRX configuration information for a second DRX group; performing physical downlink control channel, PDCCH, monitoring for the first DRX group in a first active time based on the first DRX configuration information, and performing PDCCH monitoring for the second DRX group in a second active time based on the second DRX configuration information; receiving a medium access control, MAC, control element, CE, associated with a DRX cycle in one of the first DRX group and the second DRX group; and using one DRX cycle for each of the first DRX group and the second DRX group based on the MAC CE, wherein the first DRX group and the second DRX group are determined based on a frequency range, FR. receiving, from a base station, first discontinuous reception, DRX, configuration information for a first DRX group and second DRX configuration information for a second DRX group; performing physical downlink control channel, PDCCH, monitoring for the first DRX group in a first active time based on the first DRX configuration information, and performing PDCCH monitoring for the second DRX group in a second active time based on the second DRX configuration information; receiving a medium access control, MAC, control element, CE, associated with a DRX cycle in one of the first DRX group and the second DRX group; and using one DRX cycle for each of the first DRX group and the second DRX group based on the MAC CE, wherein the first DRX group and the second DRX group are determined based on a frequency range, FR.
A method comprising: reacting n-butane with bromine in one or more bromination reactors to form a bromination product stream comprising dibromobutanes; and subjecting the dibromobutanes to dehydrobromination in a dehydrobromination reactor to form a dehydrobromination product stream comprising 1,3-butadiene and HBr; and oxidizing the HBr from the dehydrobromination product stream to form bromine. reacting n-butane with bromine in one or more bromination reactors to form a bromination product stream comprising dibromobutanes; and subjecting the dibromobutanes to dehydrobromination in a dehydrobromination reactor to form a dehydrobromination product stream comprising 1,3-butadiene and HBr; and oxidizing the HBr from the dehydrobromination product stream to form bromine.