mhurhangee/patent-ind-claim-en huggingface dataset:
A method (S) for generating a plurality of cold plasma jets at atmospheric pressure in order to treat a target , comprising the following steps: - producing (S1) a primary cold plasma jet at atmospheric pressure using a plasma source , by generating electrical discharges in a flow of plasmagene gas, - placing (S2) a substrate near the target to be treated, said substrate comprising at least two through holes , - passing (S3) the primary plasma jet through the through holes such as to generate at least two secondary cold plasma jets at atmospheric pressure, characterized by an aspect ratio of the through holes of the substrate comprised between 1 and 100, preferably between 5 and 50, said aspect ratio being defined as a ratio of a length to a diameter of a through hole, as a function of the gas flow entering the plasma source , the latter being comprised between one or several standard cubic centimeters per minute (sccm) and a few standard liters per minutes (slm), under reference conditions of 20 °C and 1013 10 2 Pa. - producing (S1) a primary cold plasma jet at atmospheric pressure using a plasma source , by generating electrical discharges in a flow of plasmagene gas, - placing (S2) a substrate near the target to be treated, said substrate comprising at least two through holes , - passing (S3) the primary plasma jet through the through holes such as to generate at least two secondary cold plasma jets at atmospheric pressure, characterized by an aspect ratio of the through holes of the substrate comprised between 1 and 100, preferably between 5 and 50, said aspect ratio being defined as a ratio of a length to a diameter of a through hole, as a function of the gas flow entering the plasma source , the latter being comprised between one or several standard cubic centimeters per minute (sccm) and a few standard liters per minutes (slm), under reference conditions of 20 °C and 1013 10 2 Pa.
A method performed by a first Wireless Local Area Network, WLAN, node for performing a transmission to a second WLAN node in a WLAN , and wherein the method comprises: - identifying a third WLAN node by reading one or more fields in a physical, PHY, header and/or a Medium Access Control, MAC, header of a first signal (S1) transmitted by the third WLAN node to a fourth WLAN node , which first signal (S1) is received by the first WLAN node and which one or more fields comprise a unique identifier of the third WLAN node ; the method characterized by : - determining whether to transmit, to the second WLAN node , a second signal (S2) based on the unique identifier of the third WLAN node and based on a received power of the first signal (S1); - determining , - by means of a link adaptation process specific for the first WLAN node , the second WLAN node , and for the identified third WLAN node , a Modulation and Coding Scheme, MCS, index value, and - transmitting , to the second WLAN node , the second signal (S2) using the determined MCS index. - identifying a third WLAN node by reading one or more fields in a physical, PHY, header and/or a Medium Access Control, MAC, header of a first signal (S1) transmitted by the third WLAN node to a fourth WLAN node , which first signal (S1) is received by the first WLAN node and which one or more fields comprise a unique identifier of the third WLAN node ; the method characterized by : - determining whether to transmit, to the second WLAN node , a second signal (S2) based on the unique identifier of the third WLAN node and based on a received power of the first signal (S1); - determining , - by means of a link adaptation process specific for the first WLAN node , the second WLAN node , and for the identified third WLAN node , a Modulation and Coding Scheme, MCS, index value, and - transmitting , to the second WLAN node , the second signal (S2) using the determined MCS index. - determining whether to transmit, to the second WLAN node , a second signal (S2) based on the unique identifier of the third WLAN node and based on a received power of the first signal (S1); - determining , - by means of a link adaptation process specific for the first WLAN node , the second WLAN node , and for the identified third WLAN node , a Modulation and Coding Scheme, MCS, index value, and - transmitting , to the second WLAN node , the second signal (S2) using the determined MCS index.
. An isolated HLA-B57 open conformer for use as a medicament.
A panel , comprising a casing , an equipment disposed in the casing and a temperature abnormality detection device that detects a temperature abnormality in the equipment , the temperature abnormality detection device , comprising: a plurality of infrared temperature sensors each capable of detecting temperature in a mutually different detection area of the equipment ; and a device body including a temperature abnormality determination unit that determines that the temperature in the detection area detected by each of the plurality of infrared temperature sensors is abnormal when the temperature in the detection area is higher than a reference temperature, wherein the plurality of infrared temperature sensors is connected to each other by crossover wiring , characterized in that the plurality of infrared temperature sensors includes a first infrared temperature sensor disposed in the panel and capable of detecting the temperature in a first detection area , the first infrared temperature sensor includes an attachment surface attachable to and detachable from an inner surface of the casing and a connection surface provided with a connection terminal to which the crossover wiring is connected, the connection surface extending in a direction intersecting the attachment surface , the temperature abnormality detection device comprises an attachment fitting configured to detachably attach the attachment surface of the first infrared temperature sensor to the inner surface of the casing , the attachment fitting includes a pair of rail portions extending in parallel, and the attachment surface includes a rail attachment portion to which the pair of rail portions is attached. a plurality of infrared temperature sensors each capable of detecting temperature in a mutually different detection area of the equipment ; and a device body including a temperature abnormality determination unit that determines that the temperature in the detection area detected by each of the plurality of infrared temperature sensors is abnormal when the temperature in the detection area is higher than a reference temperature, wherein the plurality of infrared temperature sensors is connected to each other by crossover wiring , characterized in that the plurality of infrared temperature sensors includes a first infrared temperature sensor disposed in the panel and capable of detecting the temperature in a first detection area , the first infrared temperature sensor includes an attachment surface attachable to and detachable from an inner surface of the casing and a connection surface provided with a connection terminal to which the crossover wiring is connected, the connection surface extending in a direction intersecting the attachment surface , the temperature abnormality detection device comprises an attachment fitting configured to detachably attach the attachment surface of the first infrared temperature sensor to the inner surface of the casing , the attachment fitting includes a pair of rail portions extending in parallel, and the attachment surface includes a rail attachment portion to which the pair of rail portions is attached.
A tool head assembly for a solid state additive manufacturing apparatus , the tool head assembly comprising: a tool head comprising a material passage configured to receive a material therein, the tool head being configured to deposit the material from the material passage onto a substrate of the solid state additive manufacturing apparatus to form at least one layer of the material on the substrate , the tool head comprising a shoulder configured to contact the material such that rotation of the tool head frictionally stirs the material; and a barrier configured to extend along a side surface of the at least one layer as the at least one layer is deposited onto the substrate such that the barrier is configured to constrain the material from extruding past an edge of the shoulder ; wherein the tool head is configured to move along a longitudinal axis (5 06) of the substrate as the tool head (5 10) deposits the at least one layer of the material on the substrate , being characterised in that the barrier is positioned behind the tool head (5 10) along the longitudinal axis of the substrate. a tool head comprising a material passage configured to receive a material therein, the tool head being configured to deposit the material from the material passage onto a substrate of the solid state additive manufacturing apparatus to form at least one layer of the material on the substrate , the tool head comprising a shoulder configured to contact the material such that rotation of the tool head frictionally stirs the material; and a barrier configured to extend along a side surface of the at least one layer as the at least one layer is deposited onto the substrate such that the barrier is configured to constrain the material from extruding past an edge of the shoulder ; wherein the tool head is configured to move along a longitudinal axis (5 06) of the substrate as the tool head (5 10) deposits the at least one layer of the material on the substrate , being characterised in that the barrier is positioned behind the tool head (5 10) along the longitudinal axis of the substrate.
Lighting height corrector for a motor vehicle headlamp with a reflector, comprising an adjustment element capable of modifying the inclination of said reflector , a threaded rod , and a means for actuating the translation of said threaded rod , said adjustment element being movable in translation by screwing or unscrewing on said threaded rod , said adjustment element including for this purpose at least one thread shaped such as to co-operate with the threading of said threaded rod , the threading of said threaded rod including, at the distal end thereof, at least one stop shaped to limit the translation of the adjustment element away from the threaded rod , by co-operation with said thread , characterised in that the threaded rod is substantially in the form of a cylindrical bar in which said threading is formed, said threading being extended by a substantially cylindrical abutment of which the diameter is greater than that of the base of said threading, said abutment forming said stop at the distal end of said threading, said stop being formed by a first flat face making an angle (a) with an axial plane of the threaded rod so as to form a re-entrant female wedge , the adjustment element having the shape of a hollow cylinder the proximal part of which supports at least one helical sector forming said thread , said thread extending from the interior of the cylinder and having on at least one of its ends a second flat face making an angle (a) with an axial plane of the cylinder so as to form a projecting male wedge , thus the male wedge being inserted under the female wedge at the end of the threading, the female wedge providing a cover function that prevents the male wedge from leapfrogging over it and escaping from the threading. said stop being formed by a first flat face making an angle (a) with an axial plane of the threaded rod so as to form a re-entrant female wedge , the adjustment element having the shape of a hollow cylinder the proximal part of which supports at least one helical sector forming said thread , said thread extending from the interior of the cylinder and having on at least one of its ends a second flat face making an angle (a) with an axial plane of the cylinder so as to form a projecting male wedge , thus the male wedge being inserted under the female wedge at the end of the threading, the female wedge providing a cover function that prevents the male wedge from leapfrogging over it and escaping from the threading.
A method, comprising: periodically measuring outbound latency of communications over a network from a first networked device to a second networked device, wherein one or more outbound latency measurements are made; storing the one or more outbound latency measurements and a time corresponding to each of the one or more outbound latency measurements; determining a rate of outbound latency increase based on a most recent outbound latency measurement and the stored one or more outbound latency measurements and the corresponding times, wherein determining the rate of outbound latency increase comprises calculating an increase in outbound latency over time from one of the stored one or more outbound latency measurements to the most recent outbound latency measurement; determining a proportion by which to decrease a target transmission rate of the first networked device based on at least the determined rate of outbound latency increase; and decreasing the target transmission rate of the first networked device by the determined proportion. periodically measuring outbound latency of communications over a network from a first networked device to a second networked device, wherein one or more outbound latency measurements are made; storing the one or more outbound latency measurements and a time corresponding to each of the one or more outbound latency measurements; determining a rate of outbound latency increase based on a most recent outbound latency measurement and the stored one or more outbound latency measurements and the corresponding times, wherein determining the rate of outbound latency increase comprises calculating an increase in outbound latency over time from one of the stored one or more outbound latency measurements to the most recent outbound latency measurement; determining a proportion by which to decrease a target transmission rate of the first networked device based on at least the determined rate of outbound latency increase; and decreasing the target transmission rate of the first networked device by the determined proportion.
A grass mower comprising: a traveling machine body having a traveling device ; a mower device supported by the traveling machine body ; and a hydrostatic stepless speed changer device for effecting a speed change of the traveling device , the speed changer device including: a hydraulic pump , a variable displacement type hydraulic motor , and a hydraulic actuator for changing a swash plate angle of the hydraulic motor ; wherein there is provided a closed circuit which interconnects the hydraulic pump and the hydraulic motor ; and an operational circuit is connected to a high-pressure side oil passage of the closed circuit for supplying a pilot pressure taken off the high-pressure side oil passage to the hydraulic actuator ; characterized in that the operational circuit is connected to a low-speed operation side of the hydraulic actuator so as to operate a swash plate of the hydraulic motor to a lower speed side in association with a pressure increase in the high-pressure side oil passage ; wherein the hydraulic actuator includes an operational mechanism for urging the swash plate of the hydraulic motor to be returned to a high speed side; wherein the operational mechanism is formed of a spring ; and wherein the hydraulic actuator is arranged such that an operational piston and the spring are disposed on opposite sides across the swash plate . a traveling machine body having a traveling device ; a mower device supported by the traveling machine body ; and a hydrostatic stepless speed changer device for effecting a speed change of the traveling device , the speed changer device including: a hydraulic pump , a variable displacement type hydraulic motor , and a hydraulic actuator for changing a swash plate angle of the hydraulic motor ; a hydraulic pump , a variable displacement type hydraulic motor , and a hydraulic actuator for changing a swash plate angle of the hydraulic motor ; wherein there is provided a closed circuit which interconnects the hydraulic pump and the hydraulic motor ; and an operational circuit is connected to a high-pressure side oil passage of the closed circuit for supplying a pilot pressure taken off the high-pressure side oil passage to the hydraulic actuator ; characterized in that the operational circuit is connected to a low-speed operation side of the hydraulic actuator so as to operate a swash plate of the hydraulic motor to a lower speed side in association with a pressure increase in the high-pressure side oil passage ; wherein the hydraulic actuator includes an operational mechanism for urging the swash plate of the hydraulic motor to be returned to a high speed side; wherein the operational mechanism is formed of a spring ; and wherein the hydraulic actuator is arranged such that an operational piston and the spring are disposed on opposite sides across the swash plate .
A high-strength cold-rolled thin steel sheet which is optionally surface treated and has a tensile strength of 440 MPa or higher; a thickness of 2.0 mm or less; a component composition containing, in mass%, C: 0.04 to 0.25%, Si: 0.5 to 2.0%, Mn: 0.1 to 2.0%, P: 0.05% or less, S: 0.030% or less, Al: 0.10% or less, N: 0.010% or less, optionally 0.01 to 1.0% of each of one or two or more of Ti, Nb, and V, optionally 0.005 to 1.0% of each of one or two or more of Mo, Ta, and W, optionally 0.01 to 1.0% of each of one or two or more of Cr, Ni, and Cu, optionally 0.0002 to 0.0050% of B, optionally 0.0005 to 0.01% of each of one or two of Ca and REM, and optionally 0.005 to 0.050% of Sb, with the balance being iron and incidental impurities; and a microstructure containing, in area fraction, 90% or more of ferrite and bainite in total, wherein ferrite and bainite each have an aspect ratio of 3.0 or higher.
Guide vane ring housing for a turbomachine, which housing comprises a housing surface that extends around a central axis (A) and faces the axis, a plurality of receptacles each intended for a vane disk of a guide vane being arranged in the housing surface, characterized in that the housing surface has a radial recess between at least two adjacent receptacles which interconnects the two receptacles.
Magnetic bearing for a turbomachine, comprising a stator fixable to a structure (C) of a turbomachine; a rotor magnetically coupled to said stator and defining a rotation axis (A), said rotor having a front central surface , a rear central surface opposite to said front central surface and an external surface with respect to said rotation axis (A); wherein said rotor is provided with an internal channel configured to displace cooling fluid; characterised by a mechanical backup bearing configured to act on said rotor to support said rotor and said rotor being provided with a support extending outwardly from the front central surface , the mechanical backup bearing being configured to engage said support and said rotor being placed in an overhanging configuration.
A method of making a coated cutting tool, the method comprises chemical vapor deposition of a coating on a substrate, wherein said coating comprising an inner layer of TiN, a subsequent layer of TiCN and a Al 2 O 3 layer located between the TiCN layer and an outermost surface of the coated cutting tool, wherein the substrate is made of cemented carbide composed of hard constituents in a metallic binder and wherein the metallic binder comprises 60 to 90 wt% Ni, characterized in that the TiN layer is deposited on the cemented carbide substrate in two subsequent steps at a temperature of about 850-900°C and a pressure of about 300-600 mbar, preferably 300-500 mbar: a first TiN deposition of TiN-1, followed by a second TiN deposition of TiN-2, the TiN-1 deposition is performed in a gas comprising 1-1.5 vol% TiCl 4 and H 2 and N 2 , wherein the volume ratio H 2 /N 2 is 0.05-0.18, preferably 0.09-0.14, and wherein the gas preferably comprises 0.5-1.5 vol% HCl, more preferably 0.8-1.0 vol% HCl, and the TiN-2 deposition is performed in a gas comprising 2-3 vol% TiCl 4 and H 2 and N 2 , wherein the volume ratio H 2 /N 2 is 0.8-2.5, preferably 0.9-1.7, more preferably 0.9-1.2 the TiN-1 deposition is performed in a gas comprising 1-1.5 vol% TiCl 4 and H 2 and N 2 , wherein the volume ratio H 2 /N 2 is 0.05-0.18, preferably 0.09-0.14, and wherein the gas preferably comprises 0.5-1.5 vol% HCl, more preferably 0.8-1.0 vol% HCl, and the TiN-2 deposition is performed in a gas comprising 2-3 vol% TiCl 4 and H 2 and N 2 , wherein the volume ratio H 2 /N 2 is 0.8-2.5, preferably 0.9-1.7, more preferably 0.9-1.2
Encoder for encoding an audio signal with reduced background noise using linear predictive coding, the encoder comprising: a background noise estimator configured to estimate an autocorrelation of the background noise as a representation of background noise of the audio signal ; a background noise reducer configured to generate a representation of a background noise reduced audio signal by subtracting the autocorrelation of the background noise of the audio signal from an autocorrelation of the audio signal so that the representation of the background noise reduced audio signal is an autocorrelation of a background noise reduced audio signal; a predictor configured to subject the representation of the audio signal to linear prediction analysis to obtain a first set of linear prediction filter, LPC, coefficients and to subject the representation of the background noise reduced audio signal to linear prediction analysis to obtain a second set of linear prediction filter, LPC, coefficients ; and an analysis filter composed of a cascade of time-domain filters being a Wiener filter and controlled by the obtained first set of LPC coefficients and the obtained second set of LPC coefficients to obtain a residual signal from the audio signal ; and a transmitter configured to transmit the second set of LPC coefficients and the residual signal . a background noise estimator configured to estimate an autocorrelation of the background noise as a representation of background noise of the audio signal ; a background noise reducer configured to generate a representation of a background noise reduced audio signal by subtracting the autocorrelation of the background noise of the audio signal from an autocorrelation of the audio signal so that the representation of the background noise reduced audio signal is an autocorrelation of a background noise reduced audio signal; a predictor configured to subject the representation of the audio signal to linear prediction analysis to obtain a first set of linear prediction filter, LPC, coefficients and to subject the representation of the background noise reduced audio signal to linear prediction analysis to obtain a second set of linear prediction filter, LPC, coefficients ; and an analysis filter composed of a cascade of time-domain filters being a Wiener filter and controlled by the obtained first set of LPC coefficients and the obtained second set of LPC coefficients to obtain a residual signal from the audio signal ; and a transmitter configured to transmit the second set of LPC coefficients and the residual signal .