mhurhangee/patent-ind-claim-en huggingface dataset:
A station-side apparatus in an optical transmission system, comprising: a plurality of optical transceivers each configured to convert, into electrical signals, upstream frames including upstream control frames sent as optical signals from a plurality of subscriber-side apparatuses connected via an optical transmission channel; a plurality of frame reproduction circuits each configured to reproduce the upstream frames converted into the electrical signals by the plurality of optical transceivers; a plurality of control frame processing circuits each configured to perform predetermined processes for the upstream control frames included in the upstream frames reproduced by the plurality of frame reproduction circuits; a first upstream allocation circuit configured to allocate each of the upstream control frames included in the upstream frames from the plurality of subscriber-side apparatuses to a predetermined one of the plurality of control frame processing circuits based on information added to the frames; and a first downstream allocation circuit configured to allocate, to a predetermined one of the plurality of frame reproduction circuits, each of downstream control frames output from the control frame processing circuits to which the upstream control frames have been allocated. a plurality of optical transceivers each configured to convert, into electrical signals, upstream frames including upstream control frames sent as optical signals from a plurality of subscriber-side apparatuses connected via an optical transmission channel; a plurality of frame reproduction circuits each configured to reproduce the upstream frames converted into the electrical signals by the plurality of optical transceivers; a plurality of control frame processing circuits each configured to perform predetermined processes for the upstream control frames included in the upstream frames reproduced by the plurality of frame reproduction circuits; a first upstream allocation circuit configured to allocate each of the upstream control frames included in the upstream frames from the plurality of subscriber-side apparatuses to a predetermined one of the plurality of control frame processing circuits based on information added to the frames; and a first downstream allocation circuit configured to allocate, to a predetermined one of the plurality of frame reproduction circuits, each of downstream control frames output from the control frame processing circuits to which the upstream control frames have been allocated.
External timepiece element made of composite material including at least one reinforcement and one matrix, the reinforcement having a three-dimensional honeycomb structure with a plurality of cells into which the matrix is injected, characterised in that the cells have a length comprised between 0.5mm and 2mm.
A process for manufacturing the compound of formula I wherein R is n -propyl, or a salt thereof, said process comprising the reaction of the compound of formula I-1 wherein X is bromine or chlorine, with the compound of formula 1-2 wherein R is n -propyl, or a salt of said compound of formula 1-2, said reaction being performed in the presence of a base in a polar aprotic organic solvent or a polar mixture of aprotic organic solvents, whereby said polar aprotic organic solvent or polar mixture of aprotic organic solvents comprises dimethylsulfoxide, and in the presence of tetra- n -butyl ammonium fluoride hydrate or cesium fluoride.
Valve for cylinder for pressurised fluid comprising a body provided with an end intended to be connected to the orifice of a cylinder for pressurised fluid, the body of the valve housing a drawing-off circuit comprising a first upstream end intended to communicate the storage volume of a cylinder for pressurised fluid and a second downstream end intended to be connected to a user member of the drawn-off gas, the drawing-off circuit comprising a member for regulating the flow rate and/or the pressure of the drawn-off fluid between the upstream and downstream ends, the valve comprising a member for manually controlling the regulation member , the control member being mounted mobile relative to the body of the valve and engaging with the regulation member for controlling the flow rate and/or the pressure of fluid input to circulate from the upstream end to the downstream end according to the position of the control member with respect to the body of the valve , the valve comprising a position sensor of the control member configured to generate an electric signal representative of the position of the latter or of the flow rate and/or of the pressure of fluid imposed by the regulation member , the position sensor comprising at least one detectable element situated on the body of the valve or, respectively, on the control member , and at least one measuring element situated on the control member or, respectively, on the body of the valve , characterised in that the at least one from among: the at least one detectable element , the at least one measuring element is covered or confined in a protective membrane .
A method for manufacturing a HEMT transistor , comprising the steps of: - forming a heterostructure ; - forming a dielectric layer on the heterostructure ; - forming a source electrode and a drain electrode through the dielectric layer electrically contacting said heterostructure; and - forming a gate electrode , between the source electrode and the drain electrode , wherein the step of forming the gate electrode comprises: - removing selective portions of the dielectric layer adjacent to the source electrode to form a trench throughout the entire thickness of the dielectric layer ; and - depositing conductive material in said trench and shaping said conductive material so as to form a gate metallization having a side surface , facing the source electrode , which extends at a distance (L D ) from the source electrode that is constant throughout the entire extension of said gate metallization , wherein the step of removing selective portions of the dielectric layer comprises removing completely the dielectric layer between the gate electrode to be formed and the source electrode and maintaining the dielectric layer between the gate electrode to be formed and the drain electrode . - forming a heterostructure ; - forming a dielectric layer on the heterostructure ; - forming a source electrode and a drain electrode through the dielectric layer electrically contacting said heterostructure; and - forming a gate electrode , between the source electrode and the drain electrode , wherein the step of forming the gate electrode comprises: - removing selective portions of the dielectric layer adjacent to the source electrode to form a trench throughout the entire thickness of the dielectric layer ; and - depositing conductive material in said trench and shaping said conductive material so as to form a gate metallization having a side surface , facing the source electrode , which extends at a distance (L D ) from the source electrode that is constant throughout the entire extension of said gate metallization , wherein the step of removing selective portions of the dielectric layer comprises removing completely the dielectric layer between the gate electrode to be formed and the source electrode and maintaining the dielectric layer between the gate electrode to be formed and the drain electrode . - removing selective portions of the dielectric layer adjacent to the source electrode to form a trench throughout the entire thickness of the dielectric layer ; and - depositing conductive material in said trench and shaping said conductive material so as to form a gate metallization having a side surface , facing the source electrode , which extends at a distance (L D ) from the source electrode that is constant throughout the entire extension of said gate metallization ,
1. A method of controlling an adjustable lighting system for a carrier vehicle , the adjustment of the lighting comprising determining the illumination outside at least one dark area of presence of a target vehicle detected as driving in front of the carrier vehicle, so as not to dazzle the driver of the target vehicle, and when the lighting system is to illuminate in front of the carrier vehicle in a dark lighting environment, e.g. at night left and right low beam (LB) modules are controlled to operate and left and right high beam light source modules are on the one hand controlled to operate simultaneously with the left and right low beam (LB) modules and on the other hand are selectively adjusted on the left and on the right to illuminate with a selective high beam (SB) out of the said dark zone of target vehicle presence when at least one such target vehicle is detected the left and right light source modules of the selective high beam (SB), generating respectively a left and a right high beam (SBG, SBD), being independently controllable by a light source blanker to define said dark zone over a width portion of the selective high beam (SB) both in the middle and to the right or left of said selective high beam (SB) characterized in that one of the two left or right high beams (SBG, SBD) can be completely blocked out.
A compound of the formula: 1-(2,2-Difluoro-benzo dioxol-5-yl)-cyclopropanecarboxylic acid or a pharmaceutically acceptable salt thereof.
A method, at a first base station, for supporting positioning of a mobile device , the method comprising: generating a plurality of directional positioning reference signals, PRSs, for at least one cell for the first base station , wherein, to direct the mobile device to measure at least one first directional PRS and to not measure at least one second directional PRS of the plurality of PRSs because the at least one second directional PRS is not expected to be transmitted in a direction of a line of sight between the first base station and the mobile device , each of the plurality of directional PRSs comprises at least one signal characteristic and a direction of transmission, wherein the at least one signal characteristic and the direction of transmission for each of the plurality of directional PRSs are unique for any other directional PRS transmitted by the first base station and other base stations nearby the first base station ; and transmitting each of the plurality of directional PRSs within the at least one cell, wherein each of the plurality of directional PRSs is transmitted in its direction of transmission; obtaining at least one round trip time, RTT, measurement from the mobile device for the at least one first directional PRS transmitted from the first base station; and obtaining a position of the mobile device based at least in part on the at least one direction of transmission and the at least one RTT measurement for the at least one first directional PRS. generating a plurality of directional positioning reference signals, PRSs, for at least one cell for the first base station , wherein, to direct the mobile device to measure at least one first directional PRS and to not measure at least one second directional PRS of the plurality of PRSs because the at least one second directional PRS is not expected to be transmitted in a direction of a line of sight between the first base station and the mobile device , each of the plurality of directional PRSs comprises at least one signal characteristic and a direction of transmission, wherein the at least one signal characteristic and the direction of transmission for each of the plurality of directional PRSs are unique for any other directional PRS transmitted by the first base station and other base stations nearby the first base station ; and transmitting each of the plurality of directional PRSs within the at least one cell, wherein each of the plurality of directional PRSs is transmitted in its direction of transmission; obtaining at least one round trip time, RTT, measurement from the mobile device for the at least one first directional PRS transmitted from the first base station; and obtaining a position of the mobile device based at least in part on the at least one direction of transmission and the at least one RTT measurement for the at least one first directional PRS.
Roller tongue for a locking system, having a spindle, which can be fastened on the locking system, and having a roller , which is mounted in a rotatable manner on the spindle, characterized in that the spindle is formed in a number of parts and comprises a pin and an adapter element , wherein the adapter element comprises a mount for the pin , said mount being arranged eccentrically in the adapter element , and wherein the adapter element can be secured in different orientations on the pin .
A method, comprising: by a user equipment, UE or a baseband processor: receiving, from a base station, BS , a measurement reporting capability request; transmitting, to the BS , an indication of the UE's measurement reporting capability; receiving, from the BS , signaling comprising a channel status information, CSI, request trigger, wherein the CSI request trigger is implicitly indicated via re-use, by the BS of one or more bits of downlink control information, DCI Format 1-1 or DCI Format 1-2; and transmitting, in response to receiving the CSI request trigger, a measurement report to the base station , wherein the measurement report comprises at least one received signal strength indicator, RSSI, measurement. receiving, from a base station, BS , a measurement reporting capability request; transmitting, to the BS , an indication of the UE's measurement reporting capability; receiving, from the BS , signaling comprising a channel status information, CSI, request trigger, wherein the CSI request trigger is implicitly indicated via re-use, by the BS of one or more bits of downlink control information, DCI Format 1-1 or DCI Format 1-2; and transmitting, in response to receiving the CSI request trigger, a measurement report to the base station , wherein the measurement report comprises at least one received signal strength indicator, RSSI, measurement.
A quality management apparatus for managing a surface mount production line for performing: a solder printing step of printing solder onto a printed circuit board by using a solder printing apparatus ; a mounting step of arranging electronic components on the printed circuit board by using a mounter ; and a reflow step of soldering the electronic components by using a reflow furnace , the quality management apparatus comprising: state acquisition means adapted to acquire a state of the surface mount production line, wherein, for each of a plurality of causes of a stoppage of the surface mount production line including replacement and/or maintenance of parts of the surface mount production line, a plurality of states are defined based on a period of time elapsed since a restart of the surface mount production line, and the state acquisition means is adapted to acquire the state of the surface mount production line after the restart of the surface mount production line from the states based on information of the cause of the stoppage before the restart and an operation time elapsed since the restart; correction information storage means adapted to store correction information for correcting a setting parameter for at least one of: the solder printing apparatus ; the mounter ; and the reflow furnace , for each of the states; and correction means adapted to acquire, from the correction information storage means , correction information that corresponds to the state acquired by the state acquisition means , and correcting the setting parameter for at least one of: the solder printing apparatus ; the mounter ; and the reflow furnace , using the acquired correction information. state acquisition means adapted to acquire a state of the surface mount production line, wherein, for each of a plurality of causes of a stoppage of the surface mount production line including replacement and/or maintenance of parts of the surface mount production line, a plurality of states are defined based on a period of time elapsed since a restart of the surface mount production line, and the state acquisition means is adapted to acquire the state of the surface mount production line after the restart of the surface mount production line from the states based on information of the cause of the stoppage before the restart and an operation time elapsed since the restart; correction information storage means adapted to store correction information for correcting a setting parameter for at least one of: the solder printing apparatus ; the mounter ; and the reflow furnace , for each of the states; and correction means adapted to acquire, from the correction information storage means , correction information that corresponds to the state acquired by the state acquisition means , and correcting the setting parameter for at least one of: the solder printing apparatus ; the mounter ; and the reflow furnace , using the acquired correction information.
Compound containing at least one hexahydrotriazine unit of the formula (I) where A is a divalent hydrocarbyl radical optionally containing heteroatoms, and Z is an amidine or guanidine group bonded via a nitrogen atom, where the hexahydrotriazine ring and the Z group are separated from one another by a chain of at least two carbon atoms. A is a divalent hydrocarbyl radical optionally containing heteroatoms, and Z is an amidine or guanidine group bonded via a nitrogen atom,
A method comprising exchanging at least a portion of a first cation of a perovskite solid with a second cation, wherein: the perovskite solid comprises ABX 3 , wherein A comprises at least one of the first cation or the second cation, B comprises a third cation, and X comprises an anion, the first cation of the perovskite solid comprises methylammonium, and characterised in that the exchanging is performed by exposing the perovskite solid to a precursor of the second cation, such that the precursor of the second cation oxidizes to form the second cation and the first cation reduces to form a precursor of the first cation. the perovskite solid comprises ABX 3 , wherein A comprises at least one of the first cation or the second cation, B comprises a third cation, and X comprises an anion, the first cation of the perovskite solid comprises methylammonium, and characterised in that the exchanging is performed by exposing the perovskite solid to a precursor of the second cation, such that the precursor of the second cation oxidizes to form the second cation and the first cation reduces to form a precursor of the first cation.
A battery assembly for an implantable medical device , the assembly comprising: an electrode stack comprising a plurality of electrode plates , wherein the plurality of electrode plates comprises a first electrode plate including a first tab extending from the first electrode plate and a second electrode plate including a second tab extending from the second electrode plate ; a spacer between the first tab and the second tab ; and a rivet extending through the first tab , second tab , and spacer , wherein the rivet is configured to mechanically attach the first tab , second tab , and spacer to each other. an electrode stack comprising a plurality of electrode plates , wherein the plurality of electrode plates comprises a first electrode plate including a first tab extending from the first electrode plate and a second electrode plate including a second tab extending from the second electrode plate ; a spacer between the first tab and the second tab ; and a rivet extending through the first tab , second tab , and spacer , wherein the rivet is configured to mechanically attach the first tab , second tab , and spacer to each other.
A system for tracking the motion of an implantable cardiac device, comprising: an implantable acoustic controller-transmitter comprising an array of acoustic transducers configured to transmit acoustic energy to a cardiac tissue location; and at least one implantable acoustic receiver adapted to be implanted at the cardiac tissue location and adapted to receive acoustic energy and convert the acoustic energy into electrical energy; wherein the system is configured to: detect the electrical energy throughout one or more cardiac cycles to dynamically track the 3D motion data of the implantable acoustic receiver to generate a mechanical motion profile; and normalize the mechanical motion profile with electrocardiogram (EKG) data to generate an electromechanical motion profile; or correlate the mechanical motion profile with electromyography (EGM) data to generate an electromechanical motion profile. an implantable acoustic controller-transmitter comprising an array of acoustic transducers configured to transmit acoustic energy to a cardiac tissue location; and at least one implantable acoustic receiver adapted to be implanted at the cardiac tissue location and adapted to receive acoustic energy and convert the acoustic energy into electrical energy; wherein the system is configured to: detect the electrical energy throughout one or more cardiac cycles to dynamically track the 3D motion data of the implantable acoustic receiver to generate a mechanical motion profile; and normalize the mechanical motion profile with electrocardiogram (EKG) data to generate an electromechanical motion profile; or correlate the mechanical motion profile with electromyography (EGM) data to generate an electromechanical motion profile. normalize the mechanical motion profile with electrocardiogram (EKG) data to generate an electromechanical motion profile; or correlate the mechanical motion profile with electromyography (EGM) data to generate an electromechanical motion profile.
Tank configured to store a liquid , comprising: - at least one chamber comprising a bottom which extends between first and second ends (24.1, 24.2), - at least one capture device comprising at least one line positioned on the bottom or in the vicinity thereof, each line having a lower face oriented toward the bottom of the chamber and an upper face opposite to the lower face , the capture device comprising at least a first portion of line in the vicinity of the first end (24.1) and at least a second portion of line in the vicinity of the second end (24.2), characterized in that each of the first and second portions comprises at least one orifice situated on the upper face of the line , and in that the capture device comprises, for each orifice , a floating shut-off device that is movable between an open position in which the floating shut-off device is spaced apart from the orifice and a closed position in which the floating shut-off device shuts off the orifice , the floating shut-off device having a density lower than that of the liquid stored in the tank. - at least one chamber comprising a bottom which extends between first and second ends (24.1, 24.2), - at least one capture device comprising at least one line positioned on the bottom or in the vicinity thereof, each line having a lower face oriented toward the bottom of the chamber and an upper face opposite to the lower face ,
A substituted maleamide linker as shown in Formula la, wherein, R is X or ArS-, X is selected from halogen; Ar is selected from the group consisting of substituted or unsubstituted C 6 -C 10 aryl and substituted or unsubstituted 5-12 membered heteroaryl; Ar' is selected from the group consisting of substituted or unsubstituted C 6 -C 10 arylene, and substituted or unsubstituted 5-12 membered heteroarylene; L 1 is -O(CH 2 CH 2 O) n - linked to Ar', in which n is any integer between 1 and 20. wherein, R is X or ArS-, X is selected from halogen; Ar is selected from the group consisting of substituted or unsubstituted C 6 -C 10 aryl and substituted or unsubstituted 5-12 membered heteroaryl; Ar' is selected from the group consisting of substituted or unsubstituted C 6 -C 10 arylene, and substituted or unsubstituted 5-12 membered heteroarylene; L 1 is -O(CH 2 CH 2 O) n - linked to Ar', in which n is any integer between 1 and 20.