mhurhangee/ep-ind-claims huggingface dataset:
Lifting device for a mobile working machine having a working cylinder via which a cylinder force with different efficiencies can be transmitted to the lifting device, characterized in that a working pressure of the working cylinder can be controlled in dependence on the efficiency.
A power semiconductor device, comprising: a semiconductor wafer having a first main side, a second main side opposite to the first main side, a lateral side connecting the first main side and the second main side, at least one junction and a junction termination laterally surrounding the at least one junction; a protection layer (18; 28; 38; 48; 58) covering the lateral side of the semiconductor wafer and covering the second main side at least in an area of the junction termination, a first metal disk (2; 22; 32) which has a lateral size (d 2; d 2 '; d 2 ") that is the same as or larger than a lateral size (d W) of the semiconductor wafer, wherein the first metal disk (2; 22; 32) is arranged on the first main side to cover the first main side of the semiconductor wafer, wherein the first metal disk (2; 22; 32) is a molybdenum or tungsten disk, wherein an interface between the first metal disk (2; 22; 32) and the semiconductor wafer is a free floating interface, and wherein a metal layer is sandwiched between the first metal disk (2; 22; 32) and the semiconductor wafer, the metal layer having a melting point below 150°C, exemplarily below 100°C. a semiconductor wafer having a first main side, a second main side opposite to the first main side, a lateral side connecting the first main side and the second main side, at least one junction and a junction termination laterally surrounding the at least one junction; a protection layer (18; 28; 38; 48; 58) covering the lateral side of the semiconductor wafer and covering the second main side at least in an area of the junction termination, a first metal disk (2; 22; 32) which has a lateral size (d 2; d 2 '; d 2 ") that is the same as or larger than a lateral size (d W) of the semiconductor wafer, wherein the first metal disk (2; 22; 32) is arranged on the first main side to cover the first main side of the semiconductor wafer, wherein the first metal disk (2; 22; 32) is a molybdenum or tungsten disk, wherein an interface between the first metal disk (2; 22; 32) and the semiconductor wafer is a free floating interface, and wherein a metal layer is sandwiched between the first metal disk (2; 22; 32) and the semiconductor wafer, the metal layer having a melting point below 150°C, exemplarily below 100°C.
A substrate for an organic electronic device, comprising: a glass substrate; and a functional layer which is formed on the glass substrate, and which comprises a sintered product of a glass frit, an absolute value of a difference in refractive index between the glass substrate and the sintered product being 1.0 or less, and scattering particles that are comprised in the sintered product and that have a refractive index with respect to light having a wavelength of 550 nm of 2.0 to 3.5 and an average diameter of 50 nm or more, characterized in that the sintered product of the glass frit has a refractive index with respect to light having a wavelength of 550 nm of 1.3 to 1.7. a glass substrate; and a functional layer which is formed on the glass substrate, and which comprises a sintered product of a glass frit, an absolute value of a difference in refractive index between the glass substrate and the sintered product being 1.0 or less, and scattering particles that are comprised in the sintered product and that have a refractive index with respect to light having a wavelength of 550 nm of 2.0 to 3.5 and an average diameter of 50 nm or more, characterized in that the sintered product of the glass frit has a refractive index with respect to light having a wavelength of 550 nm of 1.3 to 1.7.
An electro plating device which forms an electro plating layer on a surface of a female screw carved on an inner circumferential surface of a pipe end of a steel pipe, the electro plating device comprising: a pipe inside seal mechanism which occludes an inner channel of the steel pipe at a position distanced from the female screw in a pipe axial direction of the steel pipe; a tubular insoluble electrode which is disposed in the pipe end so as to be opposite to the female screw; a plating solution feed mechanism which includes a plurality of nozzles which extend radially with a pipe axis of the steel pipe as a center, and is disposed outside the pipe end; and a pipe end seal mechanism which accommodates the nozzles thereinside and is mounted to the pipe end in a state where the pipe end seal mechanism closely contacts an outer circumferential surface of the pipe end, wherein when viewed in the pipe axial direction, a tip of each of the nozzles is positioned between the female screw and the insoluble electrode, and each of the nozzles injects the plating solution from an injection port formed on the tip toward a direction which intersects an extension direction of the nozzle, the direction being a rotational direction of a clockwise direction or a counterclockwise direction in which the pipe axis is the center. a pipe inside seal mechanism which occludes an inner channel of the steel pipe at a position distanced from the female screw in a pipe axial direction of the steel pipe; a tubular insoluble electrode which is disposed in the pipe end so as to be opposite to the female screw; a plating solution feed mechanism which includes a plurality of nozzles which extend radially with a pipe axis of the steel pipe as a center, and is disposed outside the pipe end; and a pipe end seal mechanism which accommodates the nozzles thereinside and is mounted to the pipe end in a state where the pipe end seal mechanism closely contacts an outer circumferential surface of the pipe end, wherein when viewed in the pipe axial direction, a tip of each of the nozzles is positioned between the female screw and the insoluble electrode, and each of the nozzles injects the plating solution from an injection port formed on the tip toward a direction which intersects an extension direction of the nozzle, the direction being a rotational direction of a clockwise direction or a counterclockwise direction in which the pipe axis is the center.
A method for drilling in a coal containing formation, the method comprising: providing a mixed metal-viscosified drilling fluid including at least 0.05% (w/v) calcium sulfate; circulating the drilling fluid through the well; and drilling into the coal seam. providing a mixed metal-viscosified drilling fluid including at least 0.05% (w/v) calcium sulfate; circulating the drilling fluid through the well; and drilling into the coal seam.
A method for estimating the state of charge of a battery (BATT) comprising the following steps: a) acquiring at least one time series of measurements of voltage (U τ) across the terminals of said battery, as well as at least one other time series of measurements of another physical parameter of said battery or of its environment; b) determining, as a function of said measurements, an operating regime of said battery; characterized in that, the method further comprises the following steps: c) choosing, as a function of said operating regime, a non-linear regression model from among a predefined set of such models; and d) estimating the state of charge (SoC) of said battery by applying said non-linear regression model to said time series of voltage measurements and to said or to at least one said other time series of measurements. a) acquiring at least one time series of measurements of voltage (U τ) across the terminals of said battery, as well as at least one other time series of measurements of another physical parameter of said battery or of its environment; b) determining, as a function of said measurements, an operating regime of said battery; c) choosing, as a function of said operating regime, a non-linear regression model from among a predefined set of such models; and d) estimating the state of charge (SoC) of said battery by applying said non-linear regression model to said time series of voltage measurements and to said or to at least one said other time series of measurements.
A baler for use with a forming bale having a first bale attribute, the baler comprising: a frame; a compression system coupled to the frame, the compression system at least partially defining a compression chamber sized to receive at least a portion of the forming bale therein; a feed pan (66, 66') at least partially defining a pre-compression chamber (70, 70'), wherein the shape of the pre-compression is adjustable, and wherein the pre-compression chamber (70, 70') is open to the compression chamber; a sensor (334, 338, 342, 346, 378a, 378b, 378c, 378d) configured to output signals representative of the first bale attribute; and a controller in operable communication with the feed pan (66, 66') and the sensor (334, 338, 342, 346, 378a, 378b, 378c, 378d), characterized in that the controller is configured to actively adjust the shape of the pre-compression chamber (70, 70') based at least in part upon the first bale attribute of the forming bale. a frame; a compression system coupled to the frame, the compression system at least partially defining a compression chamber sized to receive at least a portion of the forming bale therein; a feed pan (66, 66') at least partially defining a pre-compression chamber (70, 70'), wherein the shape of the pre-compression is adjustable, and wherein the pre-compression chamber (70, 70') is open to the compression chamber; a sensor (334, 338, 342, 346, 378a, 378b, 378c, 378d) configured to output signals representative of the first bale attribute; and a controller in operable communication with the feed pan (66, 66') and the sensor (334, 338, 342, 346, 378a, 378b, 378c, 378d), characterized in that the controller is configured to actively adjust the shape of the pre-compression chamber (70, 70') based at least in part upon the first bale attribute of the forming bale.
Method for correcting position coordinates of a field boundary, a field boundary section and/or characteristic landmarks stored temporarily and/or permanently in a memory of a work computer and/or job computer of an agricultural tractor and/or an agricultural working machine, measured in the past and shifted with respect to the position currently measured by at least one position sensor located on the tractor and/or the working machine on account of drift effects and/or other error sources incorporated in the position determination by means of satellite location, with the aid of at least two reference measurements of the current position coordinates with precisely that position sensor, characterized in that in order to make a correction to the position coordinates, the tractor or the working machine travels at a known distance along the field boundary, field boundary section and/or characteristic landmarks, in that the aforesaid reference measurements are each used to carry out a mathematical shift operation of the position coordinates measured in the past in order to correct the position coordinates measured in the past and to adapt them to the current measurement, wherein at least two of these shift operations are carried out in a non-parallel direction and the shift direction of at least one of the shift operations is carried out on the basis of location and direction-of-movement data of the working machine and/or of the tractor.
A stator for an electric machine, said stator comprising a plurality of radially distributed metal sheet winding turns extending in an axial and a circumferential direction of the stator, for housing a rotor component therein; wherein said metal sheet winding turns are radially spaced apart from each other, such that cooling passages are provided between the metal sheet winding turns, characterized in that the radially distributed metal sheet winding turns are arranged in a respective continuous S-shaped configuration in the circumferential direction of the stator, such that the stator is alternatingly provided with portions of metal sheets and openings when following the circumferential direction of the stator, the stator further comprising at least one metal block, said metal block having a first portion positioned in one of the openings of the radially distributed metal sheet winding turns, and a ring portion enclosing said plurality of radially distributed metal sheet winding turns, wherein said ring portion further comprises circumferentially distributed recesses in the radial and axial direction of the ring portion for housing a second portion of said at least one metal block.
A door assembly (10, 110, 310, 410, 510) for selectively opening and closing an access opening to a treating chamber of a laundry treating appliance, the door assembly (10, 110, 310, 410, 510) comprising: an inner door wall (20, 120, 320, 420, 520) comprising a portion (22, 122) that is configured to extend at least partially into the treating chamber when the door assembly (10, 110, 310, 410, 510) is closed, wherein the inner door wall (20, 120, 320, 420, 520) includes an air inlet (24, 124) and an air outlet (26, 126); an outer door wall (30, 130) adjacent to the inner door wall (20, 120, 320, 420, 520), wherein the outer door wall (30, 130) and the inner door wall (20, 120, 320, 420, 520) at least partially define an internal volume (32, 132, 332, 432, 532); characterized in that the door assembly further comprises a baffle (34, 134) projecting from the inner door wall (20, 120, 320, 420, 520) into the internal volume (32, 132, 332, 432, 532), wherein the baffle (34, 134) is disposed between the air inlet (24, 124) and the air outlet (26, 126); and at least one blower (40, 140) disposed adjacent one of the air inlet (24, 124), the air outlet (26, 126), or both, and configured to move an airflow through the internal volume (32, 132, 332, 432, 532). an inner door wall (20, 120, 320, 420, 520) comprising a portion (22, 122) that is configured to extend at least partially into the treating chamber when the door assembly (10, 110, 310, 410, 510) is closed, wherein the inner door wall (20, 120, 320, 420, 520) includes an air inlet (24, 124) and an air outlet (26, 126); an outer door wall (30, 130) adjacent to the inner door wall (20, 120, 320, 420, 520), wherein the outer door wall (30, 130) and the inner door wall (20, 120, 320, 420, 520) at least partially define an internal volume (32, 132, 332, 432, 532); characterized in that the door assembly further comprises a baffle (34, 134) projecting from the inner door wall (20, 120, 320, 420, 520) into the internal volume (32, 132, 332, 432, 532), wherein the baffle (34, 134) is disposed between the air inlet (24, 124) and the air outlet (26, 126); and at least one blower (40, 140) disposed adjacent one of the air inlet (24, 124), the air outlet (26, 126), or both, and configured to move an airflow through the internal volume (32, 132, 332, 432, 532).
A frozen confection comprising freezing point depressants in an amount of from 25 to 35% by weight of the frozen confection, wherein the number average molecular weight < M > n of the freezing point depressants is from 200 to 250 g mol -1, and wherein the freezing point depressants comprise erythritol in an amount of from 0.25 to 7% by weight of the frozen confection.
A work vehicle comprising: a driver's step; a driver's seat disposed further rearward than the driver's step and between rear traveling units on left and right sides; a steering wheel disposed in front of the driver's seat; fenders on the left and right sides that cover upper portions of both the rear traveling units; a boarding section that enables boarding to and deboarding from the driver's step at a position on a front side of at least one of the fenders; and a gripping portion that is provided on a forward portion of the boarding section and is graspable to a driver when boarding and deboarding, characterized in that the gripping portion extends upward from a foot guard covering the front side of the boarding section, wherein the gripping portion includes: a horizontal gripping body horizontally or substantially horizontally disposed in an inclined posture that is positioned further forward toward the outward side of the vehicle body in a plan view; and a vertical gripping body which continues to an end portion of the horizontal gripping body on the outward side of the vehicle body, and wherein the vertical gripping body is connected to the foot guard in a position, where the vertical gripping body extends along a vertical direction. a driver's step; a driver's seat disposed further rearward than the driver's step and between rear traveling units on left and right sides; a steering wheel disposed in front of the driver's seat; fenders on the left and right sides that cover upper portions of both the rear traveling units; a boarding section that enables boarding to and deboarding from the driver's step at a position on a front side of at least one of the fenders; and a gripping portion that is provided on a forward portion of the boarding section and is graspable to a driver when boarding and deboarding, characterized in that the gripping portion extends upward from a foot guard covering the front side of the boarding section, wherein the gripping portion includes: a horizontal gripping body horizontally or substantially horizontally disposed in an inclined posture that is positioned further forward toward the outward side of the vehicle body in a plan view; and a vertical gripping body which continues to an end portion of the horizontal gripping body on the outward side of the vehicle body, and wherein the vertical gripping body is connected to the foot guard in a position, where the vertical gripping body extends along a vertical direction. a horizontal gripping body horizontally or substantially horizontally disposed in an inclined posture that is positioned further forward toward the outward side of the vehicle body in a plan view; and a vertical gripping body which continues to an end portion of the horizontal gripping body on the outward side of the vehicle body, and wherein the vertical gripping body is connected to the foot guard in a position, where the vertical gripping body extends along a vertical direction.
Method for providing transport data for controlling goods transport in a production environment with the following steps: - determining occupancy data on the basis of sensor data of a sensor unit at a production unit, wherein the occupancy data relates to an occupancy status of at least one goods inlet of the production unit in the production environment with respective stored components, - determining component data, wherein the component data indicates which components are required at the production unit for a production order assigned to said production unit, - determining procurement data for the components to be installed, wherein the procurement data indicates how long transport of a respective one of the components to be installed and required according to the component data at the production unit from a respective storage location to the production unit is expected to take, wherein the determination of the procurement data takes place at least in dependence on a position of the respective storage location and a position of the production unit, - determining transport data depending on the occupancy data, the component data and the procurement data, wherein the transport data is determined by means of an optimization algorithm, wherein the optimization algorithm receives the occupancy data, the component data and the procurement data as input data and outputs the transport data, wherein the transport data describes a transport process to be carried out, and - transmitting the transport data to a transport system for controlling a transport of components by means of the transport data. - determining occupancy data on the basis of sensor data of a sensor unit at a production unit, wherein the occupancy data relates to an occupancy status of at least one goods inlet of the production unit in the production environment with respective stored components, - determining component data, wherein the component data indicates which components are required at the production unit for a production order assigned to said production unit, - determining procurement data for the components to be installed, wherein the procurement data indicates how long transport of a respective one of the components to be installed and required according to the component data at the production unit from a respective storage location to the production unit is expected to take, wherein the determination of the procurement data takes place at least in dependence on a position of the respective storage location and a position of the production unit, - determining transport data depending on the occupancy data, the component data and the procurement data, wherein the transport data is determined by means of an optimization algorithm, wherein the optimization algorithm receives the occupancy data, the component data and the procurement data as input data and outputs the transport data, wherein the transport data describes a transport process to be carried out, and - transmitting the transport data to a transport system for controlling a transport of components by means of the transport data.
A phosphor assembly adapted for use with a lighting apparatus that includes at least one light source, the assembly, moving away from the light source, comprising: a first glass substrate (322A, 322B); a first index layer (324A, 324B); a phosphor component; a second index layer (324A, 324B); and a second glass substrate (322A, 322B), characterised in that light (112A, 112B, 312, 328, 558) from the at least one light source is partially refracted between the first and second index layers (324A, 324B) such that at least some of the emitted light passes multiple times through the phosphor component, wherein the indices of refraction for the first and second index layers (324A, 324B) substantially match one another and are selected in dependence of the phosphor component material. a first glass substrate (322A, 322B); a first index layer (324A, 324B); a phosphor component; a second index layer (324A, 324B); and a second glass substrate (322A, 322B), characterised in that light (112A, 112B, 312, 328, 558) from the at least one light source is partially refracted between the first and second index layers (324A, 324B) such that at least some of the emitted light passes multiple times through the phosphor component, wherein the indices of refraction for the first and second index layers (324A, 324B) substantially match one another and are selected in dependence of the phosphor component material.