mhurhangee/patent-ind-claim-en huggingface dataset:
A method for the video surveillance of the crossing of a line by people, the method being computer-implemented and comprising: - for each of a plurality of successive images (I, I 1 , I 2 ) of a video stream (F) from a camera pointing towards the line , the search for at least one person (106, 106 1 , 106 2 ) present in the image (I, I 1 , I 2 ) and the definition , for each person (106, 106 1 , 106 2 ) found, of a zone in the image (I, I 1 , I 2 ), known as a person zone (ZP, ZP 11 , ZP 12 , ZP 21 , ZP 22 ), surrounding this person (106, 106 1 , 106 2 ) at least partially; - for each of at least one person (106, 106 1 , 106 2 ) found, the grouping together into one tracklet (T, T 1 , T 2 ) of several person zones (ZP, ZP 11 , ZP 12 , ZP 21 , ZP 22 ) from successive images (I, I 1 , I 2 ) and surrounding this same person (106, 106 1 , 106 2 ) at least partially; for each tracklet (T, T 1 , T 2 ): - the identification of the person in the tracklet (T, T 1 , T 2 ) from person zones (ZP, ZP 11 , ZP 12 , ZP 21 , ZP 22 ) in the tracklet (T, T 1 , T 2 ); - the determination of a moment (D) at which the line is crossed by the person identified from the person zones (ZP, ZP 11 , ZP 12 , ZP 21 , ZP 22 ) in the tracklet (T, T 1 , T 2 ); and - the addition of the name found (N) and of the moment of crossing (D) determined in at least some of the images (I, I 1 , I 2 ) containing the person zones (ZP, ZP 11 , ZP 12 , ZP 21 , ZP 22 ) in the tracklet (T, T 1 , T 2 ). - for each of a plurality of successive images (I, I 1 , I 2 ) of a video stream (F) from a camera pointing towards the line , the search for at least one person (106, 106 1 , 106 2 ) present in the image (I, I 1 , I 2 ) and the definition , for each person (106, 106 1 , 106 2 ) found, of a zone in the image (I, I 1 , I 2 ), known as a person zone (ZP, ZP 11 , ZP 12 , ZP 21 , ZP 22 ), surrounding this person (106, 106 1 , 106 2 ) at least partially; - for each of at least one person (106, 106 1 , 106 2 ) found, the grouping together into one tracklet (T, T 1 , T 2 ) of several person zones (ZP, ZP 11 , ZP 12 , ZP 21 , ZP 22 ) from successive images (I, I 1 , I 2 ) and surrounding this same person (106, 106 1 , 106 2 ) at least partially; - the identification of the person in the tracklet (T, T 1 , T 2 ) from person zones (ZP, ZP 11 , ZP 12 , ZP 21 , ZP 22 ) in the tracklet (T, T 1 , T 2 ); - the determination of a moment (D) at which the line is crossed by the person identified from the person zones (ZP, ZP 11 , ZP 12 , ZP 21 , ZP 22 ) in the tracklet (T, T 1 , T 2 ); and - the addition of the name found (N) and of the moment of crossing (D) determined in at least some of the images (I, I 1 , I 2 ) containing the person zones (ZP, ZP 11 , ZP 12 , ZP 21 , ZP 22 ) in the tracklet (T, T 1 , T 2 ).
A tool configured to form four evenly spaced indentations having an indentation radius and four evenly spaced projections about a circumference of a generally cylindrical seamless ferrule having a ferrule radius , each projection of the four projections having a projection height equal to or less than a height threshold , said tool comprising: four crimping dies ; and four limiting dies , each limiting die located intermediate two adjacent crimping dies of the four crimping dies and defining a limiting surface configured to limit a height of each projection to the height threshold , wherein each limiting surface is spaced a limiting distance from the longitudinal axis of the ferrule, and wherein the four limiting dies are fixed such that each limiting surface remains at the limiting distance as the four crimping dies move relative to the longitudinal axis of the ferrule; characterized in that , each crimping die of the four crimping dies defining a concave crimping surface having the indentation radius ; and that said tool further comprises: four linkages between each crimping die and an adjoining limiting die , wherein the four linkages are configured to move each limiting surface of each limiting die to the limiting distance as the four crimping dies move toward the longitudinal axis of the ferrule. four crimping dies ; and four limiting dies , each limiting die located intermediate two adjacent crimping dies of the four crimping dies and defining a limiting surface configured to limit a height of each projection to the height threshold , wherein each limiting surface is spaced a limiting distance from the longitudinal axis of the ferrule, and wherein the four limiting dies are fixed such that each limiting surface remains at the limiting distance as the four crimping dies move relative to the longitudinal axis of the ferrule;
A load control device for controlling the amount of power delivered from an AC power source to an electrical load, the load control device comprising: a thyristor having first and second main load terminals adapted to be coupled in series electrical connection between the AC power source and the electrical load for conducting a load current from the AC power source to the electrical load, the thyristor having a gate for conducting a gate current to render the thyristor conductive; a gate coupling circuit comprising two MOS-gated transistors (Q252A, Q252B, Q352A, Q352B); characterised in that said MOS-gated transistors are operatively coupled in anti-series connection between the first main load terminal and the gate of thyristor for conducting the gate current through the gate of the thyristor when the anti-series combination of the MOS-gated transistors (Q252A, Q252B, Q352A, Q352B) is conductive; and a control circuit operable to cause the anti-series combination of the MOS-gated transistors (Q252A, Q252B, Q352A, Q352B) to conduct the gate current to thus render the thyristor conductive at a firing time during a half cycle of the AC power source ; wherein the control circuit is operable to cause the anti-series combination of the MOS-gated transistors (Q252A, Q252B, Q352A, Q352B) to remain conductive to conduct the gate current again after the firing time and before the end of the half-cycle. a thyristor having first and second main load terminals adapted to be coupled in series electrical connection between the AC power source and the electrical load for conducting a load current from the AC power source to the electrical load, the thyristor having a gate for conducting a gate current to render the thyristor conductive; a gate coupling circuit comprising two MOS-gated transistors (Q252A, Q252B, Q352A, Q352B); characterised in that said MOS-gated transistors are operatively coupled in anti-series connection between the first main load terminal and the gate of thyristor for conducting the gate current through the gate of the thyristor when the anti-series combination of the MOS-gated transistors (Q252A, Q252B, Q352A, Q352B) is conductive; and a control circuit operable to cause the anti-series combination of the MOS-gated transistors (Q252A, Q252B, Q352A, Q352B) to conduct the gate current to thus render the thyristor conductive at a firing time during a half cycle of the AC power source ; wherein the control circuit is operable to cause the anti-series combination of the MOS-gated transistors (Q252A, Q252B, Q352A, Q352B) to remain conductive to conduct the gate current again after the firing time and before the end of the half-cycle.
A method for manufacturing a polymer coated board product, wherein said product has super- or highly hydrophobic characteristics, comprising the following steps: x) providing a melt of polymer and a web of board, wherein the board is a packaging board, wherein the board comprises a fibrous board base, wherein the density of the fibrous board base is at least 575 kg/m3, and coating said web of board with said melt of polymer, wherein the weight of the polymer coating is at least 14 g/m 2 , xi) passing said polymer coated web of board over a roll whereby said roll faces the polymer coated side and wherein also said roll provides a mould giving said coated side a pattern providing a Lotus effect when in contact with said coated side of said composite, and xii) optionally cooling said product obtained, wherein also an oleophobic wax is added on to the polymer. x) providing a melt of polymer and a web of board, wherein the board is a packaging board, wherein the board comprises a fibrous board base, wherein the density of the fibrous board base is at least 575 kg/m3, and coating said web of board with said melt of polymer, wherein the weight of the polymer coating is at least 14 g/m 2 , xi) passing said polymer coated web of board over a roll whereby said roll faces the polymer coated side and wherein also said roll provides a mould giving said coated side a pattern providing a Lotus effect when in contact with said coated side of said composite, and xii) optionally cooling said product obtained, wherein also an oleophobic wax is added on to the polymer.
A robot , comprising a memory , a processor and a computer program stored on the memory and able to be run on the processor , when the processor executes the computer program, implementing: (S202, S302, S402) obtaining, a material information of a working surface; and S204 determining, a target running speed of the robot according to the material information, and control the robot to run at the target running speed, characterized in that before the step of (S202, S302, S402) obtaining the material information of the working surface is implemented when the processor executes the computer program, it further implements: (S502) starting, a cleaning program; and (S504) controlling, the robot to run at a third speed, wherein, the third speed is greater than or equal to the target running speed. (S202, S302, S402) obtaining, a material information of a working surface; and S204 determining, a target running speed of the robot according to the material information, and control the robot to run at the target running speed, characterized in that before the step of (S202, S302, S402) obtaining the material information of the working surface is implemented when the processor executes the computer program, it further implements: (S502) starting, a cleaning program; and (S504) controlling, the robot to run at a third speed, wherein, the third speed is greater than or equal to the target running speed. (S502) starting, a cleaning program; and (S504) controlling, the robot to run at a third speed, wherein, the third speed is greater than or equal to the target running speed.
Method for recognizing a license plate of a vehicle , the method comprising the following steps: - Reading in an image captured by an optical sensor , the image originating from the optical sensor picturing at least said vehicle having a detectable license plate ; - Analyzing the image using a convolutional neural network , the convolutional neural network having at least two separated symbol identification branches , the at least two separated symbol identification branches each including a fully connected layer and an output layer , each of the separated symbol identification branches being configured for identifying one of several symbols at respective positions in the registration string of the license plate and/or the convolutional neural network having a country identification branch being separated from the symbol identification branches , the country identification branch being configured for identifying the country having issued the license plate ; and Outputting the at least two identified symbols and/or the identified country in order to recognize the license plate of the vehicle . - Reading in an image captured by an optical sensor , the image originating from the optical sensor picturing at least said vehicle having a detectable license plate ; - Analyzing the image using a convolutional neural network , the convolutional neural network having at least two separated symbol identification branches , the at least two separated symbol identification branches each including a fully connected layer and an output layer , each of the separated symbol identification branches being configured for identifying one of several symbols at respective positions in the registration string of the license plate and/or the convolutional neural network having a country identification branch being separated from the symbol identification branches , the country identification branch being configured for identifying the country having issued the license plate ; and
A closing device for doors and hatches, comprising: a handle lock adapted to be integrally fixed to a door or a hatch, said handle lock comprising a rotatable handle connected to a shaft ; a lock adapted to be integrally fixed to a door or a hatch, said lock comprising a shaft associated with a closing latch ; a rotatable sleeve adapted to guide, when put into rotation about its own axis, the shaft in a rotatable and axially translatable manner; connection means adapted to transmit the motion of said shaft to said rotatable sleeve , wherein the rotatable sleeve comprises a pin adapted to be engaged both with said shaft and with a guide on said rotatable sleeve and an adjustment bushing adapted to cooperate with said pin and with said guide so as to allow said rotatable sleeve to rotate relatively to said shaft while the shaft translates axially, characterized in that said connection means comprises a first cogged wheel connected with said rotatable sleeve and a second cogged wheel connected to said shaft . a handle lock adapted to be integrally fixed to a door or a hatch, said handle lock comprising a rotatable handle connected to a shaft ; a lock adapted to be integrally fixed to a door or a hatch, said lock comprising a shaft associated with a closing latch ; a rotatable sleeve adapted to guide, when put into rotation about its own axis, the shaft in a rotatable and axially translatable manner; connection means adapted to transmit the motion of said shaft to said rotatable sleeve , wherein the rotatable sleeve comprises a pin adapted to be engaged both with said shaft and with a guide on said rotatable sleeve and an adjustment bushing adapted to cooperate with said pin and with said guide so as to allow said rotatable sleeve to rotate relatively to said shaft while the shaft translates axially, characterized in that said connection means comprises a first cogged wheel connected with said rotatable sleeve and a second cogged wheel connected to said shaft .
A communication method, comprising: receiving , by a terminal device, first indication information sent by a network device; determining , by the terminal device, a target transmission mode of N TBs based on the first indication information, wherein the target transmission mode is a sequential transmission mode or an interleaved transmission mode, and the N TBs are scheduled by using downlink control information, DCI; and receiving , by the terminal device, the N TBs from the network device based on the target transmission mode; wherein the method is characterised in that when the target transmission mode is the interleaved transmission mode, an interleaving granularity of the N TBs is p × N SF × min M rep NPUSCH 4 subframes; or an interleaving granularity of the N TBs is p × min M rep NPUSCH 4 subframes, wherein p is a positive integer greater than or equal to 1, N SF is the quantity of subframes to which the downlink data channel carrying TB k is mapped, N SF is determined based on the resource allocation indication information in the DCI, M rep NPUSCH is the repetition quantity of TB k , M rep NPUSCH is determined based on the repetition quantity indication information in the DCI, and TB k is one of the N TBs. receiving , by a terminal device, first indication information sent by a network device; determining , by the terminal device, a target transmission mode of N TBs based on the first indication information, wherein the target transmission mode is a sequential transmission mode or an interleaved transmission mode, and the N TBs are scheduled by using downlink control information, DCI; and receiving , by the terminal device, the N TBs from the network device based on the target transmission mode; wherein the method is characterised in that when the target transmission mode is the interleaved transmission mode, an interleaving granularity of the N TBs is p × N SF × min M rep NPUSCH 4 subframes; or an interleaving granularity of the N TBs is p × min M rep NPUSCH 4 subframes, wherein p is a positive integer greater than or equal to 1, N SF is the quantity of subframes to which the downlink data channel carrying TB k is mapped, N SF is determined based on the resource allocation indication information in the DCI, M rep NPUSCH is the repetition quantity of TB k , M rep NPUSCH is determined based on the repetition quantity indication information in the DCI, and TB k is one of the N TBs.
a solar cell, comprising: a substrate ; a tunneling dielectric layer located on a first surface of the substrate ; a plurality of doped conductive layers , wherein the plurality of doped conductive layers are located on a surface of the tunneling dielectric layer away from the substrate and are disposed in a spaced manner, and each of the plurality of doped conductive layers has a same conductivity type of doping elements as the substrate ; a plurality of first electrodes disposed at intervals in a second direction (Y) and arranged on a side of the plurality of doped conductive layers away from the substrate , wherein each of the plurality of first electrodes extends along a first direction (X) perpendicular to the second direction (Y), and the plurality of first electrodes are electrically connected to the plurality of doped conductive layers in a one-to-one correspondence; at least one conductive transport layer , wherein the at least one conductive transport layer is located between every two adjacent doped conductive layers in the plurality of doped conductive layers , and is in contact with a side surface of the plurality of doped conductive layers ; wherein the solar cell is characterized in that there are a plurality of conductive transport layers disposed in a spaced manner along the first direction (X). a substrate ; a tunneling dielectric layer located on a first surface of the substrate ; a plurality of doped conductive layers , wherein the plurality of doped conductive layers are located on a surface of the tunneling dielectric layer away from the substrate and are disposed in a spaced manner, and each of the plurality of doped conductive layers has a same conductivity type of doping elements as the substrate ; a plurality of first electrodes disposed at intervals in a second direction (Y) and arranged on a side of the plurality of doped conductive layers away from the substrate , wherein each of the plurality of first electrodes extends along a first direction (X) perpendicular to the second direction (Y), and the plurality of first electrodes are electrically connected to the plurality of doped conductive layers in a one-to-one correspondence; at least one conductive transport layer , wherein the at least one conductive transport layer is located between every two adjacent doped conductive layers in the plurality of doped conductive layers , and is in contact with a side surface of the plurality of doped conductive layers ; wherein the solar cell is characterized in that there are a plurality of conductive transport layers disposed in a spaced manner along the first direction (X).
A process to prepare morpholine amide 2b: comprising amidation of ester 2: to provide 2b; wherein each R 1 is independently halo, -O(C=O)-alkyl, -O(C=O)-substituted alkyl, -O(C=O)-aryl, -O(C=O)-substituted aryl, -O(C=O)-O-alkyl, -O(C=O)-O-substituted alkyl, -O(C=O)-O-aryl, -O(C=O)-O-substituted aryl, -O(SO 2 )-alkyl, -O(SO 2 )-substituted alkyl, -O(SO 2 )-aryl, or -O(SO 2 )-substituted aryl.
A guided drilling method that comprises: drilling a first borehole and casing it with a casing tubular having at least one transmission crossover arrangement , each transmission crossover arrangement having an adapter in communication with a coil antenna that encircles the casing tubular ; deploying, inside the casing tubular, a conductive path that extends from a surface interface to the at least one transmission crossover arrangement; drilling a second borehole with a drill string having a bottomhole assembly ; obtaining distance or direction information from electromagnetic (EM) field measurements acquired using the bottomhole assembly and the at least one transmission crossover arrangement; and steering the drill string based at least in part on the obtained distance or direction information, the method comprising acquiring the EM field measurements by generating an EM field by the bottomhole assembly and by conveying responses from the at least one transmission crossover arrangement to the surface interface via the conductive path. drilling a first borehole and casing it with a casing tubular having at least one transmission crossover arrangement , each transmission crossover arrangement having an adapter in communication with a coil antenna that encircles the casing tubular ; deploying, inside the casing tubular, a conductive path that extends from a surface interface to the at least one transmission crossover arrangement; drilling a second borehole with a drill string having a bottomhole assembly ; obtaining distance or direction information from electromagnetic (EM) field measurements acquired using the bottomhole assembly and the at least one transmission crossover arrangement; and steering the drill string based at least in part on the obtained distance or direction information, the method comprising acquiring the EM field measurements by generating an EM field by the bottomhole assembly and by conveying responses from the at least one transmission crossover arrangement to the surface interface via the conductive path.
A respiratory treatment apparatus for generating a controlled supply of ionized breathable gas comprising: a flow generator to generate a flow of breathable gas at a pressure above atmospheric pressure, the flow generator adapted for connection with a patient respiratory interface ; a first ionizer (101, 101-A, 101-FG) configured to ionize the flow of breathable gas at a level of ionization; a controller , including a processor , the controller coupled with the first ionizer and the flow generator, the controller configured to control the first ionizer to change the level of ionization of the pressurized flow of breathable gas to set the level to a plurality of different ionization levels; and a sensor coupled with the controller; characterised in that the sensor is configured to detect a physiological characteristic; and in that the controller is configured to change the level of ionization based on the detection of the physiological characteristic. a flow generator to generate a flow of breathable gas at a pressure above atmospheric pressure, the flow generator adapted for connection with a patient respiratory interface ; a first ionizer (101, 101-A, 101-FG) configured to ionize the flow of breathable gas at a level of ionization; a controller , including a processor , the controller coupled with the first ionizer and the flow generator, the controller configured to control the first ionizer to change the level of ionization of the pressurized flow of breathable gas to set the level to a plurality of different ionization levels; and a sensor coupled with the controller; characterised in that the sensor is configured to detect a physiological characteristic; and in that the controller is configured to change the level of ionization based on the detection of the physiological characteristic.