mhurhangee/ep-ind-claims huggingface dataset:
A method for compensating for critical dimension variations of pattern lines of a wafer, by correcting the CD of the corresponding photomask, the photomask comprising a transparent substrate having two substantially opposite surfaces, a first back surface and a second front surface on which front surface an absorbing coating is provided, on which the pattern lines were formed by removing the coating at the pattern lines, the method comprising: determining CD variations across regions of a wafer exposure field relating to the photomask; and irradiating pulsed laser radiation through the back surface into the photomask and substantially opposite the pattern lines so as to provide shading elements (42, 44) within the substrate of the photomask in regions which correlate to regions of the wafer exposure field in which CD variations greater than a predetermined target value were determined, whereby the shading elements attenuate light passing through the regions, so as to compensate for the CD variations. determining CD variations across regions of a wafer exposure field relating to the photomask; and irradiating pulsed laser radiation through the back surface into the photomask and substantially opposite the pattern lines so as to provide shading elements (42, 44) within the substrate of the photomask in regions which correlate to regions of the wafer exposure field in which CD variations greater than a predetermined target value were determined, whereby the shading elements attenuate light passing through the regions, so as to compensate for the CD variations.
Hybrid drive arrangement for a motor vehicle, comprising - a first and a second electric machine (10, 20) which in each case have a rotor (12, 22) and a stator (11, 21), which is connected fixedly to a transmission housing, and can be operated both in motor and in generator operation and can be linked to one another via an electronic power system and can be connected to an electric energy store, - an input shaft which can be connected to an internal combustion engine and an output shaft which can be connected to a drivetrain output section, the rotor of the first electric machine being coupled to the input shaft, - a first planetary set, the sun of which is connected to the rotor of the second electric machine, the spider of which is coupled to the output shaft, and the internal gear of which is coupled firstly via a first brake to the housing and is coupled secondly to the input shaft, it being possible for either the coupling of the spider of the first planetary set to the output shaft or the coupling of the internal gear of the first planetary set to the input shaft to be switched by means of a first clutch, - a second planetary set, the sun of which is connected to the rotor of the second electric machine, the spider of which is coupled to the housing, and the internal gear of which is coupled to the output shaft, it being possible for either the coupling of the spider of the second planetary set to the housing to be switched by means of a second brake or the coupling of the internal gear of the second planetary set to the output shaft to be switched by means of a second clutch. - a first and a second electric machine (10, 20) which in each case have a rotor (12, 22) and a stator (11, 21), which is connected fixedly to a transmission housing, and can be operated both in motor and in generator operation and can be linked to one another via an electronic power system and can be connected to an electric energy store, - an input shaft which can be connected to an internal combustion engine and an output shaft which can be connected to a drivetrain output section, the rotor of the first electric machine being coupled to the input shaft, - a first planetary set, the sun of which is connected to the rotor of the second electric machine, the spider of which is coupled to the output shaft, and the internal gear of which is coupled firstly via a first brake to the housing and is coupled secondly to the input shaft, it being possible for either the coupling of the spider of the first planetary set to the output shaft or the coupling of the internal gear of the first planetary set to the input shaft to be switched by means of a first clutch, - a second planetary set, the sun of which is connected to the rotor of the second electric machine, the spider of which is coupled to the housing, and the internal gear of which is coupled to the output shaft, it being possible for either the coupling of the spider of the second planetary set to the housing to be switched by means of a second brake or the coupling of the internal gear of the second planetary set to the output shaft to be switched by means of a second clutch.
A fuel cell system comprising: a fuel cell arranged to perform power generation by an electrochemical reaction of a fuel gas and an oxidant gas; a cathode discharge pipe that opens into the atmosphere and arranged to discharge oxidant offgas generated during power generation from the fuel cell; an anode drain opening arranged to discharge fuel offgas and moisture generated during power generation from the fuel cell via an anode drainpipe; and a gas-liquid separator arranged to receive the fuel offgas and the moisture from the anode drain opening via the anode drainpipe, and to separate fuel gas components and moisture of the fuel offgas; characterised by: a variable throttle valve (111, 801) or two parallel blocking valves (302, 303) established in a flow path of the fuel offgas between the gas-liquid separator and the cathode discharge pipe and a control part arranged to alter the opening of said throttle valve (111, 801) or said blocking valves (302, 303) in response to detected operating conditions comprising at least one of fuel cell temperature and fuel cell current, so as to restrict a flow rate of the fuel offgas such that a pressure difference in the anode drainpipe causes the fuel offgas and the moisture to flow from the anode drain opening to the gas-liquid separator, and the fuel offgas to flow from the gas-liquid separator to the throttle valve. a fuel cell arranged to perform power generation by an electrochemical reaction of a fuel gas and an oxidant gas; a cathode discharge pipe that opens into the atmosphere and arranged to discharge oxidant offgas generated during power generation from the fuel cell; an anode drain opening arranged to discharge fuel offgas and moisture generated during power generation from the fuel cell via an anode drainpipe; and a gas-liquid separator arranged to receive the fuel offgas and the moisture from the anode drain opening via the anode drainpipe, and to separate fuel gas components and moisture of the fuel offgas; a variable throttle valve (111, 801) or two parallel blocking valves (302, 303) established in a flow path of the fuel offgas between the gas-liquid separator and the cathode discharge pipe and a control part arranged to alter the opening of said throttle valve (111, 801) or said blocking valves (302, 303) in response to detected operating conditions comprising at least one of fuel cell temperature and fuel cell current, so as to restrict a flow rate of the fuel offgas such that a pressure difference in the anode drainpipe causes the fuel offgas and the moisture to flow from the anode drain opening to the gas-liquid separator, and the fuel offgas to flow from the gas-liquid separator to the throttle valve.
A voice processing apparatus comprising: a dividing unit which is configured to divide a voice signal into frames, each frame having a predetermined length of time, in such a manner that any two temporally successive frames overlap each other by a predetermined amount; a first windowing unit which is configured to multiply each frame by a first windowing function that attenuates a signal at both ends of the frame and has the predetermined length of time; an orthogonal transform unit which is configured to apply an orthogonal transform to each frame multiplied by the first windowing function to compute a frequency spectrum on a frame-by-frame basis; a frequency signal processing unit which is configured to apply signal processing to the frequency spectrum to compute a corrected frequency spectrum on a frame-by-frame basis; an inverse orthogonal transform unit which is configured to apply an inverse orthogonal transform to the corrected frequency spectrum to compute a corrected frame on a frame-by-frame basis; a second windowing unit which is configured to multiply each corrected frame by a second windowing function that attenuates a signal at both ends of the corrected frame and has the predetermined length of time; and an addition unit which is configured to compute a corrected voice signal by adding up the corrected frames, each multiplied by the second windowing function, sequentially in time order while allowing one to overlap another by the predetermined amount. a dividing unit which is configured to divide a voice signal into frames, each frame having a predetermined length of time, in such a manner that any two temporally successive frames overlap each other by a predetermined amount; a first windowing unit which is configured to multiply each frame by a first windowing function that attenuates a signal at both ends of the frame and has the predetermined length of time; an orthogonal transform unit which is configured to apply an orthogonal transform to each frame multiplied by the first windowing function to compute a frequency spectrum on a frame-by-frame basis; a frequency signal processing unit which is configured to apply signal processing to the frequency spectrum to compute a corrected frequency spectrum on a frame-by-frame basis; an inverse orthogonal transform unit which is configured to apply an inverse orthogonal transform to the corrected frequency spectrum to compute a corrected frame on a frame-by-frame basis; a second windowing unit which is configured to multiply each corrected frame by a second windowing function that attenuates a signal at both ends of the corrected frame and has the predetermined length of time; and an addition unit which is configured to compute a corrected voice signal by adding up the corrected frames, each multiplied by the second windowing function, sequentially in time order while allowing one to overlap another by the predetermined amount.
A mobile device, comprising: a processor; and a transmitter, characterized in that the transmitter is configured to: transmit, to a fixed device installed at a fixed location, an operation command sequence, for automatically registering the fixed device at a server according to installation of the fixed device, comprising operation commands for the fixed device that are mapped to the identification information and to the location information of the mobile device, and receive, from the server which receives, from the fixed device, operation status information indicating operation status which corresponds to the operation commands and registers the fixed device using a location information of the fixed device estimated based on the operation status information, information indicating that the location information of the fixed device has been registered at the server, and wherein the processor is configured to control to display the information indicating that the location information of the fixed device has been registered at the server. a processor; and a transmitter, characterized in that the transmitter is configured to: transmit, to a fixed device installed at a fixed location, an operation command sequence, for automatically registering the fixed device at a server according to installation of the fixed device, comprising operation commands for the fixed device that are mapped to the identification information and to the location information of the mobile device, and receive, from the server which receives, from the fixed device, operation status information indicating operation status which corresponds to the operation commands and registers the fixed device using a location information of the fixed device estimated based on the operation status information, information indicating that the location information of the fixed device has been registered at the server, and wherein the processor is configured to control to display the information indicating that the location information of the fixed device has been registered at the server. transmit, to a fixed device installed at a fixed location, an operation command sequence, for automatically registering the fixed device at a server according to installation of the fixed device, comprising operation commands for the fixed device that are mapped to the identification information and to the location information of the mobile device, and receive, from the server which receives, from the fixed device, operation status information indicating operation status which corresponds to the operation commands and registers the fixed device using a location information of the fixed device estimated based on the operation status information, information indicating that the location information of the fixed device has been registered at the server, and wherein the processor is configured to control to display the information indicating that the location information of the fixed device has been registered at the server.
A tool steel, having the following composition, all percentages being in %wt, %Ceq = 0.15 - <0.68 % C = 0.15-2.0 %N = 0 - 0.6 %B >3 ppm to < 0.2 %Cr = 0 to < 1.8% %Ni = 0 to <2.7% %Si = 0 - 2.5 %Mn =0-3 %A1 =0-2.5 %Mo = 0 - 10 %W =0-10 %Ti =0-2 %Ta =0-3 %Zr =0-4 %Hf =0-3 %V = 0 - < 1.5 %Nb = 0 - 3 %Cu = 0 - 2 %Co = < 1.8 %Mo eq > 1.2 - 10 and wherein the sum of all rare earth elements is < 0.6 wt%, and wherein %Hf+%Ta+%Zr is below 1.4 the rest consisting of iron and trace elements, wherein trace elements are in a quantity less than 1.4%; and wherein % Ceq = % C + 0.86 * % N + 1.2 * % B, and % Mo eq = % Mo + 1 2 ⋅ % W, wherein the microstructure of the steel comprises at least 50%vol bainite and at least 20%vol of high temperature bainite, and presenting a microstructure which is characterized by a thermal diffusivity at room temperature of at least 12 mm 2 /s measured according to international standards ASTM-E1461 and ASTM-E2585 by means of the Flash Method. and wherein the sum of all rare earth elements is < 0.6 wt%, and wherein %Hf+%Ta+%Zr is below 1.4 the rest consisting of iron and trace elements, wherein trace elements are in a quantity less than 1.4%; and wherein % Ceq = % C + 0.86 * % N + 1.2 * % B, and % Mo eq = % Mo + 1 2 ⋅ % W, wherein the microstructure of the steel comprises at least 50%vol bainite and at least 20%vol of high temperature bainite, and presenting a microstructure which is characterized by a thermal diffusivity at room temperature of at least 12 mm 2 /s measured according to international standards ASTM-E1461 and ASTM-E2585 by means of the Flash Method.
A steering control device used in a vehicle, the vehicle including an engine for driving the vehicle and an idle reduction control unit configured to stop the engine when a predetermined condition is satisfied and to restart the engine when the vehicle starts moving, the steering control device comprising: a steering mechanism (St IN) which is operated by a driver to steer; a turning mechanism (St OUT) configured to turn a wheel; a clutch configured to enable the steering mechanism (St IN) and the turning mechanism (St OUT) to be coupled with and decoupled from each other; a turning actuator (M1, M2) capable of providing a turning torque to the turning mechanism (St OUT) depending on an amount of steering by the driver; and a steering control unit (71, 72, 73) configured to disengage the clutch and to perform control of driving of the turning actuator (M1, M2), wherein the steering control unit (71, 72, 73) is configured to maintain a disengaged state of the clutch and to restrict a drive torque of the turning actuator (M1, M2) when the idle reduction control unit stops the engine. a steering mechanism (St IN) which is operated by a driver to steer; a turning mechanism (St OUT) configured to turn a wheel; a clutch configured to enable the steering mechanism (St IN) and the turning mechanism (St OUT) to be coupled with and decoupled from each other; a turning actuator (M1, M2) capable of providing a turning torque to the turning mechanism (St OUT) depending on an amount of steering by the driver; and a steering control unit (71, 72, 73) configured to disengage the clutch and to perform control of driving of the turning actuator (M1, M2),
A hanger arm extension pump cover device for use with a wound therapy with instillation unit, the device comprising: a body portion having a first end and a second end; a hook extending from the first end; a tab extending from the body proximate the hook; a panel disposed proximate the second end; and a substantially rectangular sleeve extending at least partially through the body, the sleeve disposed between the first end and the second end. a body portion having a first end and a second end; a hook extending from the first end; a tab extending from the body proximate the hook; a panel disposed proximate the second end; and a substantially rectangular sleeve extending at least partially through the body, the sleeve disposed between the first end and the second end.
A method for producing a β-sialon fluorescent material, the method comprising: providing a composition having a composition represented by a formula: Si 6-z Al z O z N 8-z:Eu wherein z satisfies 0 < z ≦ 4.2; heat treating the composition in a rare gas atmosphere, contacting the heat-treated composition with a basic substance at a temperature of not less than 50 °C and not more than 650 °C, comprising mixing the heat-treated composition with a solution of the basic substance, wherein the solvent of the solution includes water, wherein the basic substance comprises at least one selected from the group consisting of LiOH, NaOH, KOH, RbOH, CsOH and NH 3, and removing at least part of a solvent present in the solution. providing a composition having a composition represented by a formula: Si 6-z Al z O z N 8-z:Eu wherein z satisfies 0 < z ≦ 4.2; heat treating the composition in a rare gas atmosphere, contacting the heat-treated composition with a basic substance at a temperature of not less than 50 °C and not more than 650 °C, comprising mixing the heat-treated composition with a solution of the basic substance, wherein the solvent of the solution includes water, wherein the basic substance comprises at least one selected from the group consisting of LiOH, NaOH, KOH, RbOH, CsOH and NH 3, and removing at least part of a solvent present in the solution.
A Ni-based corrosion resistant alloy powder for additive manufacturing, composed of a powder of a Ni-based alloy having a component composition including, in mass%, Cr: 14.5 to 24.5%, Mo: 12.0 to 23.0%, Fe: 0.01 to 7.00%, Co: 0.001 to 2.500%, Mg: 0.010% or less, N: 0.040% or less, Mn: 0.001 to 0.50%, Si: 0.001 to 0.200%, Al: more than 0 and 0.50% or less, Ti: 0.001 to 0.500%, Cu: 0.250% or less, V: 0.001 to 0.300%, B: 0.0001 to 0.0050%, Zr: 0.0001 to 0.0200%, O: 0.0010 to 0.0300%, and optionally, Ta: 2.5% or less, or W: 5.0% or less, with the remainder being Ni and unavoidable impurities, wherein C, S and P are contained as the unavoidable impurities (C: less than 0.05%, S: less than 0.01% and P: less than 0.01%), wherein, in a cumulative distribution curve showing the relationship between a particle size and a volume cumulative from a small particle size side obtained by a laser diffraction method, a particle size d10 corresponding to a cumulative frequency of 10 volume% of the powder is 15 μm or more and 100 μm or less, a particle size d50 corresponding to a cumulative frequency of 50 volume% of the powder is 30 μm or more and 250 μm or less, and a particle size d90 corresponding to a cumulative frequency of 90 volume% of the powder is 50 μm or more and 480 μm or less. in mass%, Cr: 14.5 to 24.5%, Mo: 12.0 to 23.0%, Fe: 0.01 to 7.00%, Co: 0.001 to 2.500%, Mg: 0.010% or less, N: 0.040% or less, Mn: 0.001 to 0.50%, Si: 0.001 to 0.200%, Al: more than 0 and 0.50% or less, Ti: 0.001 to 0.500%, Cu: 0.250% or less, V: 0.001 to 0.300%, B: 0.0001 to 0.0050%, Zr: 0.0001 to 0.0200%, O: 0.0010 to 0.0300%, and optionally, Ta: 2.5% or less, or W: 5.0% or less, with the remainder being Ni and unavoidable impurities, wherein C, S and P are contained as the unavoidable impurities (C: less than 0.05%, S: less than 0.01% and P: less than 0.01%), wherein, in a cumulative distribution curve showing the relationship between a particle size and a volume cumulative from a small particle size side obtained by a laser diffraction method, a particle size d10 corresponding to a cumulative frequency of 10 volume% of the powder is 15 μm or more and 100 μm or less, a particle size d50 corresponding to a cumulative frequency of 50 volume% of the powder is 30 μm or more and 250 μm or less, and a particle size d90 corresponding to a cumulative frequency of 90 volume% of the powder is 50 μm or more and 480 μm or less. wherein C, S and P are contained as the unavoidable impurities (C: less than 0.05%, S: less than 0.01% and P: less than 0.01%), wherein, in a cumulative distribution curve showing the relationship between a particle size and a volume cumulative from a small particle size side obtained by a laser diffraction method, a particle size d10 corresponding to a cumulative frequency of 10 volume% of the powder is 15 μm or more and 100 μm or less, a particle size d50 corresponding to a cumulative frequency of 50 volume% of the powder is 30 μm or more and 250 μm or less, and a particle size d90 corresponding to a cumulative frequency of 90 volume% of the powder is 50 μm or more and 480 μm or less.
A mixing device comprising: a first magnet rotating around a longitudinal axis; a mixing rod attached to a mount, the mount including a second magnet having a rotational axis, wherein the longitudinal axis of the first magnet is substantially coaxial with the rotational axis of the second magnet, characterized in that the mount is provided as holder with one or two sheet-like hinges (6,6') which swing or vibrate about a second axis such that the mount moves in a substantially orthogonal motion (6") to the longitudinal axis of the mixing rod by magnetic interaction of the rotating first magnet with the second magnet. a first magnet rotating around a longitudinal axis; a mixing rod attached to a mount, the mount including a second magnet having a rotational axis, wherein the longitudinal axis of the first magnet is substantially coaxial with the rotational axis of the second magnet, characterized in that the mount is provided as holder with one or two sheet-like hinges (6,6') which swing or vibrate about a second axis such that the mount moves in a substantially orthogonal motion (6") to the longitudinal axis of the mixing rod by magnetic interaction of the rotating first magnet with the second magnet.