mhurhangee/patent-ind-claim-en huggingface dataset:
A method of detecting an input of an input marking apparatus , the method comprising: generating (S1104) a number signal including a number information, and outputting (S1104) the number signal to the input marking apparatus, the number information is to be stored in the input marking apparatus ; outputting (S1106) a response request signal corresponding to the number information; detecting the input marking apparatus storing the number information, by detecting (S1108) a response signal output from the input marking apparatus storing the number information; and detecting (S1112) a position of the input of the input marking apparatus of which the response signal is detected; wherein the input marking apparatus is one of a plurality of input marking apparatuses, and different number information is assigned to each of the plurality of input marking apparatuses; wherein the generating and outputting the number signal is performed for each of the plurality of input marking apparatuses with the number information assigned to the respective input marking apparatus included in the number signal; wherein the sequence of outputting the response request signal and detecting the input marking apparatus is sequentially performed for each of the plurality of input marking apparatuses; and wherein the response request signals output for each of the plurality of input marking apparatuses are different from each other based on the number information assigned to each of the plurality of marking apparatuses. generating (S1104) a number signal including a number information, and outputting (S1104) the number signal to the input marking apparatus, the number information is to be stored in the input marking apparatus ; outputting (S1106) a response request signal corresponding to the number information; detecting the input marking apparatus storing the number information, by detecting (S1108) a response signal output from the input marking apparatus storing the number information; and detecting (S1112) a position of the input of the input marking apparatus of which the response signal is detected; wherein the input marking apparatus is one of a plurality of input marking apparatuses, and different number information is assigned to each of the plurality of input marking apparatuses; wherein the generating and outputting the number signal is performed for each of the plurality of input marking apparatuses with the number information assigned to the respective input marking apparatus included in the number signal; wherein the sequence of outputting the response request signal and detecting the input marking apparatus is sequentially performed for each of the plurality of input marking apparatuses; and wherein the response request signals output for each of the plurality of input marking apparatuses are different from each other based on the number information assigned to each of the plurality of marking apparatuses.
A pin actuator assembly for a telescoping boom, the pin actuator assembly comprising: a locking head comprising a base , an operating plate operably coupled to the base , one or more cylinder pins and/or one or more section lock arms movable in response to movement of the operating plate relative to the base ; an actuator operably coupled to the operating plate and configured to move the operating plate relative to the base , the actuator comprising an electric motor and a drive arm , wherein the electric motor is configured to drive the drive arm between an extended drive arm position and a retracted drive arm position; characterized by a motion mitigator comprising a housing , a rod coupled to the drive arm , movable relative to the housing and operably coupled to the actuator , a first biasing member , a second biasing member , a slide plate movably disposed on the rod and serving as a seat for first ends of the first and second biasing members , and a retainer plate disposed at or near a free end of the rod and serving as a seat for a second end of the first biasing member , wherein a second end of the second biasing member is seated at a portion of the housing . a locking head comprising a base , an operating plate operably coupled to the base , one or more cylinder pins and/or one or more section lock arms movable in response to movement of the operating plate relative to the base ; an actuator operably coupled to the operating plate and configured to move the operating plate relative to the base , the actuator comprising an electric motor and a drive arm , wherein the electric motor is configured to drive the drive arm between an extended drive arm position and a retracted drive arm position; characterized by a motion mitigator comprising a housing , a rod coupled to the drive arm , movable relative to the housing and operably coupled to the actuator , a first biasing member , a second biasing member , a slide plate movably disposed on the rod and serving as a seat for first ends of the first and second biasing members , and a retainer plate disposed at or near a free end of the rod and serving as a seat for a second end of the first biasing member , wherein a second end of the second biasing member is seated at a portion of the housing .
A system for implementing gesture recognition, comprising: a memory for storing sensor data collected by a plurality of sensors located on a wearable device , wherein the plurality of sensors comprises an accelerometer (105-1) and a gyroscope (105-2), and wherein said wearable device is configured to be worn by a user; and one or more processors configured to: analyze the sensor data by comparing magnitudes of two or more motion vectors comprising a magnitude of an acceleration vector obtained from the accelerometer (105-1) and a magnitude of an angular velocity vector obtained from the gyroscope (105-2), without comparing the motion vectors to a plurality of physical motion profiles, to determine a likelihood of the user performing a predefined gesture; and determine whether the likelihood that the user is performing the predefined gesture is below or above a threshold value. a memory for storing sensor data collected by a plurality of sensors located on a wearable device , wherein the plurality of sensors comprises an accelerometer (105-1) and a gyroscope (105-2), and wherein said wearable device is configured to be worn by a user; and one or more processors configured to: analyze the sensor data by comparing magnitudes of two or more motion vectors comprising a magnitude of an acceleration vector obtained from the accelerometer (105-1) and a magnitude of an angular velocity vector obtained from the gyroscope (105-2), without comparing the motion vectors to a plurality of physical motion profiles, to determine a likelihood of the user performing a predefined gesture; and determine whether the likelihood that the user is performing the predefined gesture is below or above a threshold value. analyze the sensor data by comparing magnitudes of two or more motion vectors comprising a magnitude of an acceleration vector obtained from the accelerometer (105-1) and a magnitude of an angular velocity vector obtained from the gyroscope (105-2), without comparing the motion vectors to a plurality of physical motion profiles, to determine a likelihood of the user performing a predefined gesture; and determine whether the likelihood that the user is performing the predefined gesture is below or above a threshold value.
An aerosol generating device comprising: a case ; a cover having a metallic body and configured to be coupled to the case ; a heater configured to heat an aerosol generating material; a magnetic force generator arranged in the case and configured to generate magnetic force acting on the metallic body according to a current applied thereto; and a controller configured to adjust coupling force between the cover and the case , which is generated by the magnetic force, by controlling the current applied to the magnetic force generator based on an operating state of the heater , characterized in that the cover comprises an outer hole aligned with an insertion hole of the case for allowing a cigarette to penetrate the cover through the outer hole and reach the insertion hole of the case . a case ; a cover having a metallic body and configured to be coupled to the case ; a heater configured to heat an aerosol generating material; a magnetic force generator arranged in the case and configured to generate magnetic force acting on the metallic body according to a current applied thereto; and a controller configured to adjust coupling force between the cover and the case , which is generated by the magnetic force, by controlling the current applied to the magnetic force generator based on an operating state of the heater , characterized in that the cover comprises an outer hole aligned with an insertion hole of the case for allowing a cigarette to penetrate the cover through the outer hole and reach the insertion hole of the case .
A compression garment system comprising: a head garment portion configured to be donned on a head of a body, wherein the head garment portion comprises a plurality of head pressure applying regions , and at least a portion of the plurality of head pressure applying regions defines an arcuate shape when viewed in plan view prior to being donned on the head of the body and further wherein each of the plurality of head pressure applying regions is controllable to apply pressure to a portion of the head; and a controller configured to control pressure applied by each of the plurality of head pressure applying regions to move lymph at least from the head towards a neck of the body. a head garment portion configured to be donned on a head of a body, wherein the head garment portion comprises a plurality of head pressure applying regions , and at least a portion of the plurality of head pressure applying regions defines an arcuate shape when viewed in plan view prior to being donned on the head of the body and further wherein each of the plurality of head pressure applying regions is controllable to apply pressure to a portion of the head; and a controller configured to control pressure applied by each of the plurality of head pressure applying regions to move lymph at least from the head towards a neck of the body.
A shield body system for a process fluid for chemical and/or electrolytic surface treatment of a substrate , wherein the shield body system comprises a shield body , a distribution body , an agitation unit, at least a substrate and an alignment unit, wherein the shield body comprises a plurality of openings to direct a process fluid flow and/or a current density distribution towards the substrate to be treated, wherein the agitation unit is configured to move the shield body together with the substrate vertically and/or horizontally relative to a distribution body and/or relative to a deposition chamber for chemical and/or electrolytic surface treatment, wherein the distribution body comprises a plurality of openings to direct the process fluid flow and/or the current density distribution towards the shield body , characterized in that the alignment unit is a processor configured to control a relative movement between the shield body and the substrate , thereby aligning the openings of the shield body relative to the substrate , wherein the shield body is positioned and/or dimensioned so that the openings of the shield body correspond to surface elements of the substrate , which are to be deposited, wherein the distribution body is a high-speed plate and comprises a plurality of jets to direct the process fluid to the substrate and a plurality of drains for a return flow of the process fluid back from the substrate and through the drains of the high-speed plate, wherein the drains are arranged next to or around the jets and the drain is dedicated or assigned to the jet arranged next to or around the drain. wherein the shield body system comprises a shield body , a distribution body , an agitation unit, at least a substrate and an alignment unit, wherein the shield body comprises a plurality of openings to direct a process fluid flow and/or a current density distribution towards the substrate to be treated, wherein the agitation unit is configured to move the shield body together with the substrate vertically and/or horizontally relative to a distribution body and/or relative to a deposition chamber for chemical and/or electrolytic surface treatment, wherein the distribution body comprises a plurality of openings to direct the process fluid flow and/or the current density distribution towards the shield body , characterized in that the alignment unit is a processor configured to control a relative movement between the shield body and the substrate , thereby aligning the openings of the shield body relative to the substrate , wherein the shield body is positioned and/or dimensioned so that the openings of the shield body correspond to surface elements of the substrate , which are to be deposited, wherein the distribution body is a high-speed plate and comprises a plurality of jets to direct the process fluid to the substrate and a plurality of drains for a return flow of the process fluid back from the substrate and through the drains of the high-speed plate, wherein the drains are arranged next to or around the jets and the drain is dedicated or assigned to the jet arranged next to or around the drain.
Method for desulfurizing a gas stream comprising hydrogen sulfide , more particularly a fuel gas stream which can be utilized for combustion in a gas turbine , where the gas stream is contacted with a catalyst -comprising scrubbing medium for absorbing the hydrogen sulfide with formation of elemental sulfur , where the catalyst is reduced in the formation of the elemental sulfur , where the scrubbing medium comprising the reduced catalyst is supplied to a regeneration stage in which the reduced catalyst is regenerated by oxidation with an oxygen-containing gas fed to the regeneration stage , where the oxygen-containing gas is fed to the regeneration stage from a compression stage of the gas turbine , and where the oxygen-depleted gas from the regeneration of the catalyst is fed to at least one turbine stage , connected fluidically downstream of the compression stage , of the gas turbine .
A cooking apparatus comprising a knob assembly, the knob assembly comprising: a knob for adjusting a power level of a power source; a knob ring surrounding the knob and rotatable independently of the knob, and a display ; wherein the display is provided on the knob ring ; and wherein a power level detected based on a rotational amount of a manipulation of the knob is displayed on the display , and characterised in that a timer time detected based on manipulation of the knob ring is displayed on the display . a knob for adjusting a power level of a power source; a knob ring surrounding the knob and rotatable independently of the knob, and a display ; wherein the display is provided on the knob ring ; and wherein a power level detected based on a rotational amount of a manipulation of the knob is displayed on the display , and characterised in that a timer time detected based on manipulation of the knob ring is displayed on the display .
An arrangement for treating pulp to be fed to a screening room of a pulp mill, which arrangement comprises: a tower having an upstanding wall , and a bottom ; a pulp inlet in an upper part of the tower ; a device for feeding dilution liquid into the pulp flowing downwards in the tower , said dilution device being located substantially at a level which divides the tower into said upper part and a bottom part , and a discharge device for diluted pulp arranged in the bottom part of the tower , wherein a device for homogenizing the consistency of the diluted pulp flow is arranged at a distance downstream of the dilution device in the pulp flow direction and upstream of the discharge device, the homogenizing device comprising a rotating homogenizer comprising a shaft mounted in the wall of the tower , the shaft being equipped with at least one rotating member that generates turbulence in the pulp suspension, characterized in that the homogenizing device comprises a static homogenizer positioned downstream of the rotating homogenizer in the pulp flow direction and comprising at least one throttling member configured for throttling the pulp flow to further improve the turbulence in the pulp suspension. a tower having an upstanding wall , and a bottom ; a pulp inlet in an upper part of the tower ; a device for feeding dilution liquid into the pulp flowing downwards in the tower , said dilution device being located substantially at a level which divides the tower into said upper part and a bottom part , and a discharge device for diluted pulp arranged in the bottom part of the tower , wherein a device for homogenizing the consistency of the diluted pulp flow is arranged at a distance downstream of the dilution device in the pulp flow direction and upstream of the discharge device, the homogenizing device comprising a rotating homogenizer comprising a shaft mounted in the wall of the tower , the shaft being equipped with at least one rotating member that generates turbulence in the pulp suspension, characterized in that the homogenizing device comprises a static homogenizer positioned downstream of the rotating homogenizer in the pulp flow direction and comprising at least one throttling member configured for throttling the pulp flow to further improve the turbulence in the pulp suspension.
A particle extraction system comprising: a particle dislodging apparatus operably connectable to an electrical interrupter ; a particle removal apparatus operably connectable to the electrical interrupter ; an actuation system operable for cycling the electrical Interrupter to release particles; an electronic control system operably connected to the particle dislodging apparatus and to the particle removal apparatus; and a support bay configured to hold the electrical interrupter , wherein the particle removal apparatus is in fluid communication with a pumping system that is configured to produce a compressed fluid flow within the support bay that is deliverable to the electrical interrupter. a particle dislodging apparatus operably connectable to an electrical interrupter ; a particle removal apparatus operably connectable to the electrical interrupter ; an actuation system operable for cycling the electrical Interrupter to release particles; an electronic control system operably connected to the particle dislodging apparatus and to the particle removal apparatus; and a support bay configured to hold the electrical interrupter , wherein the particle removal apparatus is in fluid communication with a pumping system that is configured to produce a compressed fluid flow within the support bay that is deliverable to the electrical interrupter.
A battery pack configured to be installed in a vehicle (V), the battery pack comprising: a battery stack including a plurality of battery modules stacked in a first direction; an air supply member of which a position with respect to the battery stack is fixed, and that defines an internal space extending in a second direction orthogonal to the first direction along a first side face of the battery stack ; and a partition member that divides the internal space of the air supply member in the first direction into a plurality of air supply passages (P1, P2) configured to each extend in the second direction and be connected to a blower device (B1, B2), wherein the partition member supports a wire harness (WH) connected to a component member of the battery stack . a battery stack including a plurality of battery modules stacked in a first direction; an air supply member of which a position with respect to the battery stack is fixed, and that defines an internal space extending in a second direction orthogonal to the first direction along a first side face of the battery stack ; and a partition member that divides the internal space of the air supply member in the first direction into a plurality of air supply passages (P1, P2) configured to each extend in the second direction and be connected to a blower device (B1, B2), wherein the partition member supports a wire harness (WH) connected to a component member of the battery stack .
An electrical power system for distributing electrical power in an arrangement comprising one or more gas turbine engines , the electrical power system comprising: one or more rotary electric machines (111-113), each mechanically coupled to a gas turbine engine spool; a set of converter circuits connected to the one or more rotary electric machines for conversion between alternating current, ac, and direct current, dc, wherein the one or more rotary electric machines and the set of converter circuits are arranged to output a number R ≥ 2 of dc power channels (206-209), each dc power channel having a respective index r = (1, ..., R); and a group of N dc load channels (400-1200) connected to the R dc power channels by a switching arrangement (410-1210), wherein each dc load channel has a respective index n = (1, ..., N), characterized in that: R < N ≤ 2 R ; and the switching arrangement (410-1210) is operable to connect the r-th power channel (206-209) to the n-th load channel (400-1200) according to the relationship: r n = 1 , n = 1 n 2 and n 2 + 1 , 1 < n < N and n = 0 mod 2 n − 1 2 and n + 1 2 , 1 < n < N and n = 1 mod 2 R , n = N . one or more rotary electric machines (111-113), each mechanically coupled to a gas turbine engine spool; a set of converter circuits connected to the one or more rotary electric machines for conversion between alternating current, ac, and direct current, dc, wherein the one or more rotary electric machines and the set of converter circuits are arranged to output a number R ≥ 2 of dc power channels (206-209), each dc power channel having a respective index r = (1, ..., R); and a group of N dc load channels (400-1200) connected to the R dc power channels by a switching arrangement (410-1210), wherein each dc load channel has a respective index n = (1, ..., N), characterized in that: R < N ≤ 2 R ; and the switching arrangement (410-1210) is operable to connect the r-th power channel (206-209) to the n-th load channel (400-1200) according to the relationship: r n = 1 , n = 1 n 2 and n 2 + 1 , 1 < n < N and n = 0 mod 2 n − 1 2 and n + 1 2 , 1 < n < N and n = 1 mod 2 R , n = N .
An asymmetric hub bearing assembly for a motor vehicle wheel, the assembly having a rotation axis (x) and comprising a flanged hub rotatable about the axis (x), a flange integral with the flanged hub and transversal to the axis (x), a stationary bearing ring arranged radially outwardly of the flanged hub and providing raceways axially spaced from one another, and two rows of rolling elements arranged between the stationary ring and the flanged hub , the rolling elements having pitch circles (C1, C2) with respective diameters (D1, D2), of which the diameter (D1) of the pitch circle (C1) of the axially outer row of rolling elements has a size greater than the size of the diameter (D2) of the pitch circle (C2) of the axially inner row of rolling elements; the flanged hub integrally forming a radially inner raceway for the ally outer row of rolling elements; the flanged hub comprising a tubular portion which projects in an axially outer direction beyond the flange and provides a thread for a single, central threaded fastener for releasable locking the said wheel on the hub; the flange provides a plurality of through lightening holes which open entirely on a flat portion of a radial surface on the axially outer side of the flange , the asymmetric hub assembly being characterized in that the hub provides a radially inner tubular core with a cylindrical through cavity with axial grooves for coupling fast for rotation with a shaft portion of a constant velocity joint, and that the tubular portion surrounds a radial surface providing an axial abutment for a threaded fastener applicable for axially locking the shaft portion with respect to the hub.