mhurhangee/ep-ind-claims huggingface dataset:
Vehicle having a transport space which is delimited by a wall, and at least one push-out unit which is inserted into an opening in the wall and which is movable between a retracted and an extended position, wherein the push-out unit has a floor element, a ceiling element, an outer wall element and side wall elements, characterized in that the side wall elements are of at least two-part design and have an upper and a lower side wall portion (60, 62, 64), and, with the push-out unit retracted, one of the two side wall portions is vertically displaced over the other side wall portion or is removed, resulting in a side wall cutout which is open towards the transport space, a loading floor is provided within the transport space which is height-adjustable between a loading position and a dwelling position, wherein the side wall cutout is configured in such a way that it engages in the transport space delimited between the loading floor in the loading position and the wall if the push-out unit is situated in the retracted position.
A method of carrying out computed tomography measurements, comprising: generating a beam of X-rays in an X-ray source; creating a line focus of X-rays extending linearly in a first direction, wherein the line focus has a width perpendicular to the first direction of less than 2% of length of the line focus; passing the beam of X-rays from the line focus though a mechanical slit in a mask, the mechanical slit extending in a slit direction substantially perpendicular to the line focus; passing the beam of X-rays after passing through the mechanical slit through an object to be measured; and imaging the beam of X-rays on a two dimensional detector. generating a beam of X-rays in an X-ray source; creating a line focus of X-rays extending linearly in a first direction, wherein the line focus has a width perpendicular to the first direction of less than 2% of length of the line focus; passing the beam of X-rays from the line focus though a mechanical slit in a mask, the mechanical slit extending in a slit direction substantially perpendicular to the line focus; passing the beam of X-rays after passing through the mechanical slit through an object to be measured; and imaging the beam of X-rays on a two dimensional detector.
Rolling-body-return means for a guide carriage of a linear roller-bearing-mounted guide, having the following features: a rolling-body-return channel with a first end region, into which rolling bodies can enter from a first rolling-body-deflection region, and with a second end region, from which the rolling bodies can exit into a second rolling-body-deflection region, wherein, in the installed state, the rolling-body-return channel, between the first and the second end regions, has a curved portion oriented away from a guide rail of the linear guide, and therefore the rolling-body-return channel can be arranged around a rigidity-increasing arrangement of the guide carriage, characterized in that a central region of the rolling-body-return channel runs at a distance (d) from, and parallel to, the two end regions (12; 15) of said channel, and, at its two ends, the central region is connected to the respective end region (12; 15) of the rolling-body-return channel in each case by means of connecting portions of the rolling-body-return channel. a rolling-body-return channel with a first end region, into which rolling bodies can enter from a first rolling-body-deflection region, and with a second end region, from which the rolling bodies can exit into a second rolling-body-deflection region, wherein, in the installed state, the rolling-body-return channel, between the first and the second end regions, has a curved portion oriented away from a guide rail of the linear guide, and therefore the rolling-body-return channel can be arranged around a rigidity-increasing arrangement of the guide carriage, characterized in that a central region of the rolling-body-return channel runs at a distance (d) from, and parallel to, the two end regions (12; 15) of said channel, and, at its two ends, the central region is connected to the respective end region (12; 15) of the rolling-body-return channel in each case by means of connecting portions of the rolling-body-return channel.
A bearing material comprising a polymeric matrix of polyamide-imide polymer material, between about 8 wt % and about 20 wt % melamine cyanurate particles dispersed within the polymeric matrix, characterised in that the bearing material comprising between about 8 wt % and about 12 wt % melamine cyanurate and additionally comprising aluminium flakes.
A mobile edge computing method, wherein the method comprises: • receiving, by a mobile edge computing MEC management network element, an MEC virtualization resource request sent by a control plane of a target radio access network RAN, wherein the control plane of the target RAN belongs to the target RAN to which user equipment is handed over, and the MEC virtualization resource request comprises an MEC computing resource requirement of the user equipment; • creating, by the MEC management network element based on the MEC virtualization resource request, a new virtual machine VM on an MEC server for the user equipment, wherein the new VM is a VM used on the target RAN side after the user equipment is handed over; and • sending, by the MEC management network element, first information of the new VM to the control plane of the target RAN, wherein the first information comprises an ID of the new VM. • receiving, by a mobile edge computing MEC management network element, an MEC virtualization resource request sent by a control plane of a target radio access network RAN, wherein the control plane of the target RAN belongs to the target RAN to which user equipment is handed over, and the MEC virtualization resource request comprises an MEC computing resource requirement of the user equipment; • creating, by the MEC management network element based on the MEC virtualization resource request, a new virtual machine VM on an MEC server for the user equipment, wherein the new VM is a VM used on the target RAN side after the user equipment is handed over; and • sending, by the MEC management network element, first information of the new VM to the control plane of the target RAN, wherein the first information comprises an ID of the new VM.
Use of glyphosate for controlling, treating, or preventing a plant pathogen induced disease in a field of glyphosate tolerant crop plants, wherein said crop plants are selected from soybean, corn and cotton and comprise an exogenous nucleic acid molecule encoding a 5-enolpyruvylshikimate-3-phosphate synthase that confers tolerance to glyphosate, and wherein said disease is induced by a fungal pathogen which comprises a glyphosate sensitive 5-enolpyruvylshikimate-3-phosphate synthase, and is selected from Asian Soybean Rust, Corn Rust and Cotton Verticillium Wilt, which use comprises identifying said field of glyphosate tolerant crop plants, other than wheat, in need of disease control; and contacting said crop plants with an effective amount of a glyphosate composition that yields a concentration of glyphosate in a plant pathogen susceptible tissue of said plant from between 0.01 and 100 ppm fresh weight, whereby said disease of said crop plants induced by said fungal pathogen is controlled by said glyphosate.
A blender comprising: a main body; a jar configured to be seated on the main body and provided with a blade device for crushing food; a motor assembly provided inside the main body and configured to generate rotation power of the blade device; a main PCB device provided inside the main body, wherein a knob rotation shaft is mounted on the main PCB device, and wherein the main PCB device includes a plurality of LEDs (673a, 673b) for emitting light toward the knob assembly; and a knob assembly for operation of the blender by a user, the knob assembly is mounted on the knob rotation shaft and the knob assembly is protruding outwardly through the main body, wherein the knob assembly includes: a knob coupled with the knob rotation shaft and configured to be rotationally manipulated by the user; and a knob ring penetrated by the knob and mounted on the main body; and characterized in that the LEDs (673a, 673b) include: at least one inner LED disposed to emit light toward a rear end of the knob, and at least one outer LED provided on the outside of the inner LED to emit light toward the knob ring. a main body; a jar configured to be seated on the main body and provided with a blade device for crushing food; a motor assembly provided inside the main body and configured to generate rotation power of the blade device; a main PCB device provided inside the main body, wherein a knob rotation shaft is mounted on the main PCB device, and wherein the main PCB device includes a plurality of LEDs (673a, 673b) for emitting light toward the knob assembly; and a knob assembly for operation of the blender by a user, the knob assembly is mounted on the knob rotation shaft and the knob assembly is protruding outwardly through the main body, a knob coupled with the knob rotation shaft and configured to be rotationally manipulated by the user; and a knob ring penetrated by the knob and mounted on the main body; and characterized in that the LEDs (673a, 673b) include: at least one inner LED disposed to emit light toward a rear end of the knob, and at least one outer LED provided on the outside of the inner LED to emit light toward the knob ring. at least one inner LED disposed to emit light toward a rear end of the knob, and at least one outer LED provided on the outside of the inner LED to emit light toward the knob ring.
A method for validating measurements of multiple measurement channels which depend on the position of the sun, comprising the following steps: - storage of at least maximum values of measurements of the measurement channels taking into consideration the associated position of the sun; - calculation and storage of stored ratios, in such a way that for the measurements of each measurement channel the ratio to the measurements of the other measurement channels is formed for each position of the sun; - determination of an expected ratio by calculation of a frequency distribution of all the stored ratios; - calculation of a current ratio of a currently measured measurement to current measurements of the other measurement channels; and - validation of the currently measured measurement: - when the expected ratio corresponds to the stored ratio and the stored ratio corresponds to the current ratio, then the current measurement is applicable and valid; and/or - when the expected ratio corresponds to the stored ratio and the stored ratio deviates from the current ratio, then a disturbance exists; and/or - when the expected ratio deviates from the stored ratio, then the validity for this measurement is not evaluated. - storage of at least maximum values of measurements of the measurement channels taking into consideration the associated position of the sun; - calculation and storage of stored ratios, in such a way that for the measurements of each measurement channel the ratio to the measurements of the other measurement channels is formed for each position of the sun; - determination of an expected ratio by calculation of a frequency distribution of all the stored ratios; - calculation of a current ratio of a currently measured measurement to current measurements of the other measurement channels; and - validation of the currently measured measurement: - when the expected ratio corresponds to the stored ratio and the stored ratio corresponds to the current ratio, then the current measurement is applicable and valid; and/or - when the expected ratio corresponds to the stored ratio and the stored ratio deviates from the current ratio, then a disturbance exists; and/or - when the expected ratio deviates from the stored ratio, then the validity for this measurement is not evaluated. - when the expected ratio corresponds to the stored ratio and the stored ratio corresponds to the current ratio, then the current measurement is applicable and valid; and/or - when the expected ratio corresponds to the stored ratio and the stored ratio deviates from the current ratio, then a disturbance exists; and/or - when the expected ratio deviates from the stored ratio, then the validity for this measurement is not evaluated.
Device for determining the actual center of gravity of a vehicle, having: - a control command input interface for determining control command inputs for controlling the movement of the vehicle, - a sensor interface for determining sensor acceleration data (Bsen) which are measured by an acceleration sensor system at a sensor reference point of the vehicle relating to the actual movements of the vehicle resulting from the control command inputs, characterized in - a movement modeling unit which is set up to calculate reference acceleration data (B Ref) at a model reference point of the vehicle with respect to the control command inputs on the basis of modeled movements of the vehicle, which are derived from a vehicle movement model, with respect to the control command inputs determined via the control command input interface, whereby the vehicle movement model derives a movement of the vehicle with respect to the control command inputs taking into account an assumed center of gravity of the vehicle, and - a computation unit which is set up to determine the actual center of gravity of the vehicle on the basis of the assumed center of gravity and the difference between the reference acceleration data (B Ref) and the sensor acceleration data (Bsen). - a control command input interface for determining control command inputs for controlling the movement of the vehicle, - a sensor interface for determining sensor acceleration data (Bsen) which are measured by an acceleration sensor system at a sensor reference point of the vehicle relating to the actual movements of the vehicle resulting from the control command inputs, - a movement modeling unit which is set up to calculate reference acceleration data (B Ref) at a model reference point of the vehicle with respect to the control command inputs on the basis of modeled movements of the vehicle, which are derived from a vehicle movement model, with respect to the control command inputs determined via the control command input interface, whereby the vehicle movement model derives a movement of the vehicle with respect to the control command inputs taking into account an assumed center of gravity of the vehicle, and - a computation unit which is set up to determine the actual center of gravity of the vehicle on the basis of the assumed center of gravity and the difference between the reference acceleration data (B Ref) and the sensor acceleration data (Bsen).
A physical quantity measuring apparatus comprising: a synchronization unit configured to generate a synchronized input signal from an input signal having a continuous pulse train, wherein the synchronized input signal is synchronized with a reference clock; a counter configured to measure a total number (N sum) that is the sum of pulses of the reference clock included in each of n units of the synchronized input signal, wherein each unit of the synchronized input signal has n cycles of the synchronized input signal, and n is a positive integer of 1 or more; a deviation signal generator configured to generate 2n deviation signals based on a delay of the synchronized input signal with respect to the input signal; a deviation integrating unit configured to generate a deviation integration signal by adding values of n front-half deviation signals in the 2n deviation signals and subtracting values of n rear-half deviation signals in the 2n deviation signals; a compensation counter configured to convert the deviation integration signal into a number (dN sum) of pulses of the reference clock; and a calculator configured to calculate the average number (Nr ave) of pulses of the reference clock included in one unit of the input signal, based on the total number (N sum), the number (dN sum), and the number n, wherein one unit of the input signal has n cycles of the input signal. a synchronization unit configured to generate a synchronized input signal from an input signal having a continuous pulse train, wherein the synchronized input signal is synchronized with a reference clock; a counter configured to measure a total number (N sum) that is the sum of pulses of the reference clock included in each of n units of the synchronized input signal, wherein each unit of the synchronized input signal has n cycles of the synchronized input signal, and n is a positive integer of 1 or more; a deviation signal generator configured to generate 2n deviation signals based on a delay of the synchronized input signal with respect to the input signal; a deviation integrating unit configured to generate a deviation integration signal by adding values of n front-half deviation signals in the 2n deviation signals and subtracting values of n rear-half deviation signals in the 2n deviation signals; a compensation counter configured to convert the deviation integration signal into a number (dN sum) of pulses of the reference clock; and a calculator configured to calculate the average number (Nr ave) of pulses of the reference clock included in one unit of the input signal, based on the total number (N sum), the number (dN sum), and the number n, wherein one unit of the input signal has n cycles of the input signal.
An ultrasonic surgical instrument (410, 510), comprising: a handle assembly (412, 512); an elongated body extending distally from the handle assembly; a waveguide extending at least partially through the elongated body; a tool assembly including a blade coupled to a distal end of the waveguide, the blade defining a blade lumen, characterised by the blade lumen having closed proximal and distal ends, the blade defining an output in communication with the blade lumen towards the proximal end of the blade lumen; an inflow conduit (482, 582) entering the blade lumen via the output and extending distally through the blade lumen, the inflow conduit defining an open distal end positioned within the blade lumen adjacent the distal end of the blade lumen; and a return conduit (486, 586) defining an open distal end positioned within the blade lumen adjacent the proximal end of the blade lumen, the return conduit exiting the blade lumen via the output and extending proximally therefrom, wherein the inflow and return conduits extend along an exterior of the elongated body. a handle assembly (412, 512); an elongated body extending distally from the handle assembly; a waveguide extending at least partially through the elongated body; a tool assembly including a blade coupled to a distal end of the waveguide, the blade defining a blade lumen, characterised by the blade lumen having closed proximal and distal ends, the blade defining an output in communication with the blade lumen towards the proximal end of the blade lumen; an inflow conduit (482, 582) entering the blade lumen via the output and extending distally through the blade lumen, the inflow conduit defining an open distal end positioned within the blade lumen adjacent the distal end of the blade lumen; and a return conduit (486, 586) defining an open distal end positioned within the blade lumen adjacent the proximal end of the blade lumen, the return conduit exiting the blade lumen via the output and extending proximally therefrom, wherein the inflow and return conduits extend along an exterior of the elongated body.
Capsule filling machine for filling capsules, comprising at least two processing paths (10, 10', 10") with a plurality of processing stations (1, 2, 3, 4, 5, 6, 7, 8), characterized in that one of the processing stations comprises a cleaning unit, in that the cleaning unit has, for each of the at least two processing paths (10, 10', 10"), a leadthrough path (13, 13', 13") with a longitudinal axis for leading through capsules, and in that at least one cleaning element for cleaning the capsules is arranged on each leadthrough path (13, 13', 13"). comprising at least two processing paths (10, 10', 10") with a plurality of processing stations (1, 2, 3, 4, 5, 6, 7, 8), characterized in that one of the processing stations comprises a cleaning unit, in that the cleaning unit has, for each of the at least two processing paths (10, 10', 10"), a leadthrough path (13, 13', 13") with a longitudinal axis for leading through capsules, and in that at least one cleaning element for cleaning the capsules is arranged on each leadthrough path (13, 13', 13").
A method of aligning the multi-channel pipetting head of a manually directed electronic pipetting system comprising: a multi-channel pipetting head carried in a movable carriage, the multiple channels in the pipetting head being arranged in a two-dimensional array of rows and columns; a deck having at least two wellplate nesting receptacles adapted to hold a multi wellplate or reservoir; a motorized Z-axis drive mechanism for raising and lowering the pipetting head with respect to the deck; a motorized X-axis drive mechanism for moving the pipetting head laterally with respect to the deck; and a control handle mounted such that the multi-channel pipetting head moves in response to force applied to the control handle and the speed of the pipetting head in a given direction is generally proportional to the amount of detected force exerted on the control handle in said given direction; comprising the steps of: exerting force on the control handle in a given direction to move the pipetting head in the given direction in order to move the channels on the pipetting head into approximate alignment witch wells in a wellplate set within one of the wellplate nesting receptacles on the deck; and biasing the X-axis position of the pipetting head to a predetermined X-axis position. a multi-channel pipetting head carried in a movable carriage, the multiple channels in the pipetting head being arranged in a two-dimensional array of rows and columns; a deck having at least two wellplate nesting receptacles adapted to hold a multi wellplate or reservoir; a motorized Z-axis drive mechanism for raising and lowering the pipetting head with respect to the deck; a motorized X-axis drive mechanism for moving the pipetting head laterally with respect to the deck; and a control handle mounted such that the multi-channel pipetting head moves in response to force applied to the control handle and the speed of the pipetting head in a given direction is generally proportional to the amount of detected force exerted on the control handle in said given direction; comprising the steps of: exerting force on the control handle in a given direction to move the pipetting head in the given direction in order to move the channels on the pipetting head into approximate alignment witch wells in a wellplate set within one of the wellplate nesting receptacles on the deck; and biasing the X-axis position of the pipetting head to a predetermined X-axis position.