mhurhangee/ep-ind-claims huggingface dataset:
Method for calibrating elementary patterns in shaped electron beam lithography, comprising the following steps: a. producing, by means of shaped electron beam lithography, at least one calibration pattern (MCO, MCH, MCV) comprising geometric figures which each have a critical nominal dimension (CD 0) and which are divided into elementary patterns of smaller sizes than each nominal critical dimension, the elementary patterns of each geometric figure having identical dimensions and those of separate geometric figures having different dimensions; b. measuring the real critical dimension (CD m) of each geometric figure; and c. applying a regression method based on the real critical dimensions determined in this manner in order to construct a mathematical model expressing: - either a dimension variation (ΔH, ΔW, ΔL) of the elementary patterns, - or an exposure dose error of the elementary patterns producing an effect equivalent to the dimension variation, in accordance with the dimensions (H 0, W 0, L 0) of the elementary patterns. a. producing, by means of shaped electron beam lithography, at least one calibration pattern (MCO, MCH, MCV) comprising geometric figures which each have a critical nominal dimension (CD 0) and which are divided into elementary patterns of smaller sizes than each nominal critical dimension, the elementary patterns of each geometric figure having identical dimensions and those of separate geometric figures having different dimensions; b. measuring the real critical dimension (CD m) of each geometric figure; and c. applying a regression method based on the real critical dimensions determined in this manner in order to construct a mathematical model expressing: - either a dimension variation (ΔH, ΔW, ΔL) of the elementary patterns, - or an exposure dose error of the elementary patterns producing an effect equivalent to the dimension variation, in accordance with the dimensions (H 0, W 0, L 0) of the elementary patterns. - either a dimension variation (ΔH, ΔW, ΔL) of the elementary patterns, - or an exposure dose error of the elementary patterns producing an effect equivalent to the dimension variation, in accordance with the dimensions (H 0, W 0, L 0) of the elementary patterns.
Measuring device for measurement of differential signals with a real time section, wherein the real time section comprises two units each with a signal terminal and a ground terminal (31, 32), two analogue-to-digital converters (13, 14), a signal adder and/or signal subtractor and a trigger unit, wherein the units each with a signal terminal and a ground terminal (31, 32) each pick up a part signal of a differential signal, wherein the analogue-to-digital converters (13, 14) each convert a part signal into a digital part signal, wherein the signal adder or signal subtractor adds the digital part signals to a digital differential signal or subtracts them, characterised in that the trigger unit carries out triggering of the digital differential signal with reference to the digital differential signal.
A surgical tool assembly, comprising: an end effector comprising an elongate channel configured to receive a fastener cartridge, wherein said elongate channel comprises a brace comprising a post that protrudes from a proximal end of the elongate channel; and a shaft comprising an articulation drive assembly, wherein said articulation drive assembly comprises an articulation link pivotably coupled to said elongate channel, wherein said articulation link comprises a pocket configured to receive said brace when said end effector is in a fully articulated configuration; characterized in that: said pocket defines an inner surface having at least one flat surface and the brace defines an outer surface having at least one flat surface, wherein the flat surfaces of the pocket and brace are complementary such that they are positioned in abutting contact when the end effector is in the fully articulated configuration. an end effector comprising an elongate channel configured to receive a fastener cartridge, wherein said elongate channel comprises a brace comprising a post that protrudes from a proximal end of the elongate channel; and a shaft comprising an articulation drive assembly, wherein said articulation drive assembly comprises an articulation link pivotably coupled to said elongate channel, wherein said articulation link comprises a pocket configured to receive said brace when said end effector is in a fully articulated configuration; characterized in that: said pocket defines an inner surface having at least one flat surface and the brace defines an outer surface having at least one flat surface, wherein the flat surfaces of the pocket and brace are complementary such that they are positioned in abutting contact when the end effector is in the fully articulated configuration.
An apparatus for opening and closing an oven door, the apparatus comprising: an oven main body; a door pivoting about a predetermined pivoting axis, for opening and closing an inside of the oven main body; a rack sliding from the inside of the oven main body; and a linkage for converting the pivoting of the door to the sliding of the rack, wherein the linkage comprises a plurality of gears with different gear ratios, wherein the plurality of gears are a rack gear formed on the rack, a first driven gear engaged with the rack gear, a second driven gear engaged with the first driven gear, a driving gear engaged with the second driven gear and operating in cooperation with the pivoting axis, characterized in that the oven main body includes a stopping protrusion formed on an interior surface thereof, to restrict the movement of the rack, wherein the rack includes a horizontal portion on which dishes and trays can be placed, and a bent portion that is bent from the horizontal portion, wherein the apparatus comprises a stopper (111, 131) for limiting the sliding of the rack to restrict the pivoting of the door within a predetermined angular range, the stopper (111, 131) including the bent portion and the stopping protrusion. an oven main body; a door pivoting about a predetermined pivoting axis, for opening and closing an inside of the oven main body; a rack sliding from the inside of the oven main body; and a linkage for converting the pivoting of the door to the sliding of the rack, wherein the linkage comprises a plurality of gears with different gear ratios, wherein the plurality of gears are a rack gear formed on the rack, a first driven gear engaged with the rack gear, a second driven gear engaged with the first driven gear, a driving gear engaged with the second driven gear and operating in cooperation with the pivoting axis, characterized in that the oven main body includes a stopping protrusion formed on an interior surface thereof, to restrict the movement of the rack, wherein the rack includes a horizontal portion on which dishes and trays can be placed, and a bent portion that is bent from the horizontal portion, wherein the apparatus comprises a stopper (111, 131) for limiting the sliding of the rack to restrict the pivoting of the door within a predetermined angular range, the stopper (111, 131) including the bent portion and the stopping protrusion.
A diode-included connector comprising: a first diode and a second diode, each having an anode and a cathode; housing containing the first and second diodes (602-1, 602-2); a first electrical connection which connects to the anode of the first diode and to the cathode of the second diode within the housing; a second electrical connection which connects to the cathode of the first diode within the housing; a third electrical connection which connects to the anode of the second diode within the housing; and a first port for electrically connecting from outside the housing to the first and second electrical connections (608-1, 608-2); and a second port for electrically connecting from outside the housing to the third electrical connection. a first diode and a second diode, each having an anode and a cathode; housing containing the first and second diodes (602-1, 602-2); a first electrical connection which connects to the anode of the first diode and to the cathode of the second diode within the housing; a second electrical connection which connects to the cathode of the first diode within the housing; a third electrical connection which connects to the anode of the second diode within the housing; and a first port for electrically connecting from outside the housing to the first and second electrical connections (608-1, 608-2); and a second port for electrically connecting from outside the housing to the third electrical connection.
A rotary valve comprising: a valve shaft coupled to a rotary valve element, the valve shaft defining an axis and being rotatable thereabout; a rotary position sensor; a coupling rotationally coupling the valve shaft and the sensor; a wrenching arm rotationally coupled to the valve shaft, the wrenching arm extending radially outwardly of the axis for attachment of a wrenching tool thereto, wherein the coupling is axially between the rotary position sensor and the wrenching arm; and a valve housing, the shaft extending axially through the valve housing, characterised in that: the valve housing comprises a socket formed therein, and the rotary valve further comprises a stop element for selective engagement with the socket, wherein the socket is positioned such that the wrenching arm may engage the stop element to prevent rotation of the wrenching arm around the axis. a valve shaft coupled to a rotary valve element, the valve shaft defining an axis and being rotatable thereabout; a rotary position sensor; a coupling rotationally coupling the valve shaft and the sensor; a wrenching arm rotationally coupled to the valve shaft, the wrenching arm extending radially outwardly of the axis for attachment of a wrenching tool thereto, wherein the coupling is axially between the rotary position sensor and the wrenching arm; and a valve housing, the shaft extending axially through the valve housing, characterised in that: the valve housing comprises a socket formed therein, and the rotary valve further comprises a stop element for selective engagement with the socket, wherein the socket is positioned such that the wrenching arm may engage the stop element to prevent rotation of the wrenching arm around the axis.
Method for controlling the engine torque of a motor vehicle fitted with a manual gearbox, characterized in that, during phases of engaging the clutch during upshift and downshift gear changes, characterized in that the engine torque (Γ e) is determined as a function of an estimate of the torque (Γ c) transmitted by the clutch, which estimate is obtained from an unknown-input state observer and in that, during phases of clutch engagement, it sets a minimum threshold (ω̇ e min) for the derivative of engine speed with respect to time and increases the value of the engine torque (Γ e) so that it is above or equal to a lower end point, defined by the sum of the estimated torque (Γ c) transmitted by the clutch and the product of the inertia of the engine (J e) times a minimum threshold (ω̇ e min) for the derivative of engine speed with respect to time: Γ e ≥ Γ c + J e * ω ̇ e ⁢ min = Γ e ⁢ min
A temperature sensor comprising: a temperature-sensing element having a temperature-sensing portion and an element electrode wire (104; 204; 304, 305) connected to the temperature-sensing portion and extending rearward from the temperature-sensing portion; a sheath member having a sheath core wire (108, 109; 208) joined to the element electrode wire (104; 204; 304, 305), and a sheath tube filled with a sheath filler so as to internally and insulatively hold the sheath core wire (108, 109; 208); an enclosing member made of metal, assuming the form of a closed-bottomed tube having a bottom portion at a front end, and enclosing at least the temperature-sensing element and a joint portion between the element electrode wire (104; 204; 304, 305) and the sheath core wire (108, 109; 208) formed by laser-spot-welding of overlying projecting end portions of the element electrode wire to those of the corresponding sheath core wires extending from the front end of the sheath tube; and a holding member charged into at least a portion of a space enclosed by the enclosing member, the portion extending between a front end face of the temperature-sensing portion and the bottom portion of the enclosing member; wherein the element electrode wire (104; 204; 304, 305) has a bend (104a; 204a; 304a, 305a) at an intermediate portion of the element electrode wire between the temperature-sensing portion and the joint portion, characterized in that the holding member holds the temperature-sensing element and the joint portion. a temperature-sensing element having a temperature-sensing portion and an element electrode wire (104; 204; 304, 305) connected to the temperature-sensing portion and extending rearward from the temperature-sensing portion; a sheath member having a sheath core wire (108, 109; 208) joined to the element electrode wire (104; 204; 304, 305), and a sheath tube filled with a sheath filler so as to internally and insulatively hold the sheath core wire (108, 109; 208); an enclosing member made of metal, assuming the form of a closed-bottomed tube having a bottom portion at a front end, and enclosing at least the temperature-sensing element and a joint portion between the element electrode wire (104; 204; 304, 305) and the sheath core wire (108, 109; 208) formed by laser-spot-welding of overlying projecting end portions of the element electrode wire to those of the corresponding sheath core wires extending from the front end of the sheath tube; and a holding member charged into at least a portion of a space enclosed by the enclosing member, the portion extending between a front end face of the temperature-sensing portion and the bottom portion of the enclosing member; wherein the element electrode wire (104; 204; 304, 305) has a bend (104a; 204a; 304a, 305a) at an intermediate portion of the element electrode wire between the temperature-sensing portion and the joint portion, characterized in that the holding member holds the temperature-sensing element and the joint portion.
A test and measurement system for synchronizing multiple oscilloscopes, comprising: a host oscilloscope including: a host timebase clock configured to output a clock signal; a host digitizer including a digitizer synchronization clock based on the clock signal; and a host acquisition controller including a trigger synchronization clock based on the clock signal, the host acquisition controller configured to output a run signal to begin an acquisition of an input signal; at least one client oscilloscope (102; 104), each client oscilloscope including: a client timebase clock configured to receive the clock signal from the host timebase clock and output the clock signal; a client digitizer including a digitizer synchronization clock based on the clock signal; and a client acquisition controller including a trigger synchronization clock based on the clock signal, each client acquisition controller configured to receive the run signal from the host acquisition controller and begin an acquisition of another input signal based on the run signal. a host oscilloscope including: a host timebase clock configured to output a clock signal; a host digitizer including a digitizer synchronization clock based on the clock signal; and a host acquisition controller including a trigger synchronization clock based on the clock signal, the host acquisition controller configured to output a run signal to begin an acquisition of an input signal; a host timebase clock configured to output a clock signal; a host digitizer including a digitizer synchronization clock based on the clock signal; and a host acquisition controller including a trigger synchronization clock based on the clock signal, the host acquisition controller configured to output a run signal to begin an acquisition of an input signal; at least one client oscilloscope (102; 104), each client oscilloscope including: a client timebase clock configured to receive the clock signal from the host timebase clock and output the clock signal; a client digitizer including a digitizer synchronization clock based on the clock signal; and a client acquisition controller including a trigger synchronization clock based on the clock signal, each client acquisition controller configured to receive the run signal from the host acquisition controller and begin an acquisition of another input signal based on the run signal. a client timebase clock configured to receive the clock signal from the host timebase clock and output the clock signal; a client digitizer including a digitizer synchronization clock based on the clock signal; and a client acquisition controller including a trigger synchronization clock based on the clock signal, each client acquisition controller configured to receive the run signal from the host acquisition controller and begin an acquisition of another input signal based on the run signal.
A communication device (100, 200) for use within a distributed antenna system, the communication device (100, 200) comprising: analog-to-digital converters (104a, 104b, 104n, 204a, 204b, 204c, 204n) configured to use a common sample rate to convert downlink radio frequency signals to digital downlink signals; and re-sampling devices (108a, 108b, 108n, 210a, 210b, 210c, 210n) configured to output re-sampled digital downlink signals by re-sampling the digital downlink signals at resample rates (110a, 110b, 110n) based on at least one factor, wherein the resample rates are less than the common sample rate, the re-sampled digital downlink signals having a smaller bandwidth than the digital downlink signals. analog-to-digital converters (104a, 104b, 104n, 204a, 204b, 204c, 204n) configured to use a common sample rate to convert downlink radio frequency signals to digital downlink signals; and re-sampling devices (108a, 108b, 108n, 210a, 210b, 210c, 210n) configured to output re-sampled digital downlink signals by re-sampling the digital downlink signals at resample rates (110a, 110b, 110n) based on at least one factor, wherein the resample rates are less than the common sample rate, the re-sampled digital downlink signals having a smaller bandwidth than the digital downlink signals.
Light module for a motor vehicle, comprising at least first and second surface light sources (11, 12, 13, 14), the first surface source comprising: - a light emission part and a peripheral part surrounding the light emission part, the peripheral part comprising at least two facing lateral portions, the light module comprising first holding means and second holding means for respectively holding the first surface source and the second surface source in position with respect to one another so that the second surface source at least partially overlaps the first surface source, the module being characterized in that the first holding means are arranged to hold the first surface source only at the two lateral portions of the peripheral part of this source and in that the module comprises a first mask arranged to mask a front portion of the peripheral part of the first surface source and wherein the first holding means are arranged to hold the mask integrally with the lateral portions of the first surface source. - a light emission part and a peripheral part surrounding the light emission part, the peripheral part comprising at least two facing lateral portions,
A turbine assembly comprising: a blade assembly having a plurality of curved blades with an inner end of each of the curved blades terminating at a cavity, and wherein each of the curved blades has a dynamic structure that flexes to expand under fluid pressure and at least partially collapses under reverse pressure, and a generator coupled to the blade assembly; characterised in that the turbine assembly is configured for underwater use, said cavity is closed and has an open bottom side, such that the blade assembly sits over the generator and the generator is located within the cavity. a blade assembly having a plurality of curved blades with an inner end of each of the curved blades terminating at a cavity, and wherein each of the curved blades has a dynamic structure that flexes to expand under fluid pressure and at least partially collapses under reverse pressure, and a generator coupled to the blade assembly; characterised in that the turbine assembly is configured for underwater use, said cavity is closed and has an open bottom side, such that the blade assembly sits over the generator and the generator is located within the cavity.
A modular tile system (100; 300), the modular tile system comprising: a plurality of modular tiles (102; 202; 302) formed from a textile web, the modular tiles each having a face and a backing of the textile web, and the modular tiles each having a machine direction of the textile web, and wherein the backing of each modular tile comprises an indicium (108; 208; 308), the indicium being at least one of randomly oriented with respect to the machine direction, and randomly positioned on the backing of the modular tile, wherein the modular tiles are for being installed in an installation with the indicium of each modular tile configured in a like manner with respect to the indicium of each other modular tile, so that the at least one of the randomly oriented indicia of the modular tiles are oriented in the same direction, and randomly positioned indicia of the modular tiles are positioned in the same position with respect to one another, so that the modular tiles of the installation are randomly oriented with respect to one another. a plurality of modular tiles (102; 202; 302) formed from a textile web, the modular tiles each having a face and a backing of the textile web, and the modular tiles each having a machine direction of the textile web, and wherein the backing of each modular tile comprises an indicium (108; 208; 308), the indicium being at least one of randomly oriented with respect to the machine direction, and randomly positioned on the backing of the modular tile, the backing of each modular tile comprises an indicium (108; 208; 308), the indicium being at least one of randomly oriented with respect to the machine direction, and randomly positioned on the backing of the modular tile, randomly oriented with respect to the machine direction, and randomly positioned on the backing of the modular tile, wherein the modular tiles are for being installed in an installation with the indicium of each modular tile configured in a like manner with respect to the indicium of each other modular tile, so that the at least one of the randomly oriented indicia of the modular tiles are oriented in the same direction, and randomly positioned indicia of the modular tiles are positioned in the same position with respect to one another, so that the modular tiles of the installation are randomly oriented with respect to one another. randomly oriented indicia of the modular tiles are oriented in the same direction, and randomly positioned indicia of the modular tiles are positioned in the same position with respect to one another, so that the modular tiles of the installation are randomly oriented with respect to one another.