mhurhangee/ep-ind-claims huggingface dataset:
A machining device for a laser machining tool, wherein the machining device is configured for guiding on a bridge and contains a movable carriage, on which a machining unit is arranged, which has a machining head, which is designed in such a way that, when using the machining device in the laser machining tool, it directs a laser beam of laser light onto a workpiece to be machined, wherein a flexible fibre cable for supplying the laser light from a laser light source is connected to the machining head and the machining unit can be moved linearly together with the machining head relative to the movable carriage, wherein the fibre cable is fixed to the machining unit with a first fixing means and fixed to the movable carriage with a second fixing means, characterized in that the fibre cable is freely movable for enabling a linear movement of the machining unit relative to the movable carriage in a predetermined guide plane between the first and second fixing means (7, 8), and guide means (9, 9') defining the predetermined guide plane are provided in order to restrict movement of the fibre cable in a direction running perpendicular to the predetermined guide plane, the guide means (9, 9') comprising at least two parallel stop elements for the fibre cable. wherein the fibre cable is fixed to the machining unit with a first fixing means and fixed to the movable carriage with a second fixing means, characterized in that the fibre cable is freely movable for enabling a linear movement of the machining unit relative to the movable carriage in a predetermined guide plane between the first and second fixing means (7, 8), and guide means (9, 9') defining the predetermined guide plane are provided in order to restrict movement of the fibre cable in a direction running perpendicular to the predetermined guide plane, the guide means (9, 9') comprising at least two parallel stop elements for the fibre cable.
A display device for a cargo-handling vehicle which has a mast located at a front of the vehicle, the mast being capable of tilting a fork forward and backward around a support axis and moving the fork up and down, a tilt-angle detector detecting a tilt angle of the mast, and a cargo weight detector detecting weight of a cargo loaded on the fork, the display device comprising: a display configured to display the speed of the cargo-handling vehicle and a control unit configured to control the display, wherein the display includes a speed display area displaying the speed of the cargo-handling vehicle characterized in that the display is configured to display the tilt angle of the mast and the selection display area is configured to alternatively display the tilt angle and the weight outside the speed display area, and in that the control unit is configured to control the display so that contents of the selection display area are changed depending on driving states of the cargo-handling vehicle including an initial driving state from turning on the cargo-handling vehicle to starting the vehicle, a slow driving state from staring the vehicle to reaching a prescribed speed and a normal driving state when the vehicle drives at the prescribed speed or higher, and wherein at least in the initial driving state, the selection display area is configured to display the tilt angle detected when turning on the vehicle, and in the normal driving state, the selection display area is configured to display only error indications. a display configured to display the speed of the cargo-handling vehicle and a control unit configured to control the display, wherein the display includes a speed display area displaying the speed of the cargo-handling vehicle characterized in that the display is configured to display the tilt angle of the mast and the selection display area is configured to alternatively display the tilt angle and the weight outside the speed display area, and in that the control unit is configured to control the display so that contents of the selection display area are changed depending on driving states of the cargo-handling vehicle including an initial driving state from turning on the cargo-handling vehicle to starting the vehicle, a slow driving state from staring the vehicle to reaching a prescribed speed and a normal driving state when the vehicle drives at the prescribed speed or higher, and wherein at least in the initial driving state, the selection display area is configured to display the tilt angle detected when turning on the vehicle, and in the normal driving state, the selection display area is configured to display only error indications.
Method for producing a decorated wall or floor panel, comprising the method steps: a) providing a pourable carrier material, in particular a granulate; b) arranging the carrier material between two belt-like conveying means (12, 14); c) forming the carrier material under the action of temperature to form a web-like carrier; d) compressing the carrier; e) treating the carrier under the action of temperature and pressure by use of a two-belt press; f) cooling the carrier; g) optionally applying a decoration subsurface onto at least a partial area of the carrier; h) applying a decoration reproducing a decoration template onto at least a partial area of the carrier; i) applying a protective layer onto at least a partial area of the decoration; and j) optionally structuring the protective layer for introducing pores and/or the edge region of the carrier for forming connecting elements, wherein the method is characterized in that the decoration is applied in method step h) by means of a digital printing process, and in that an additional process step k) treating the carrier for electrostatic discharge at least prior to method step h) is provided. a) providing a pourable carrier material, in particular a granulate; b) arranging the carrier material between two belt-like conveying means (12, 14); c) forming the carrier material under the action of temperature to form a web-like carrier; d) compressing the carrier; e) treating the carrier under the action of temperature and pressure by use of a two-belt press; f) cooling the carrier; g) optionally applying a decoration subsurface onto at least a partial area of the carrier; h) applying a decoration reproducing a decoration template onto at least a partial area of the carrier; i) applying a protective layer onto at least a partial area of the decoration; and j) optionally structuring the protective layer for introducing pores and/or the edge region of the carrier for forming connecting elements, wherein the method is characterized in that the decoration is applied in method step h) by means of a digital printing process, and in that an additional process step k) treating the carrier for electrostatic discharge at least prior to method step h) is provided.
Device for producing flat products comprising a first embossing roll, comprising at least one first and one second embossing projection (40, 42), wherein the first embossing projection has a height h 1 and the second embossing projection has a height h 2, wherein h 1 is larger than h 2, further comprising a second embossing roll, comprising at least a third and a fourth embossing projection (44, 46), wherein the third embossing projection has a height h 3 and the fourth embossing projection has a height h 4, wherein h 3 is larger than h 4, characterized in that the first and the second embossing roll (12, 16) are assigned to each other in a way that at least in sections of them, a head face of the first embossing projection is assigned to a head face of the fourth embossing projection and a head face of the second embossing projection is assigned to a head face of the third embossing projection.
A honeycomb structure coated with a coating material on its outer peripheral surface, wherein the honeycomb structure is a composite structure of segments bonded together, the coating material being applied to the outer peripheral face of the composite structure after grinding of the outer periphery thereof, the coating material comprising inorganic particles having D90/D10 of 5 to 50 with D10 of 50 μm or less and D90 of 4 μm or more wherein D10 and D90 are values of 10% diameter and 90% diameter, respectively, in a volume-based integrated fraction of a particle diameter distribution measured by a laser diffraction/scattering method from the smaller particle diameter side), and wherein the particles each has a long axis / short axis ratio of 1.3 to 3.4.
A method of determining hydrostatic lock in a combustion engine started with a turbine air starter, the method comprising: during a start sequence of the combustion engine, monitoring a speed parameter indicative of a rotational speed of the turbine air starter and a pressure parameter indicative of an inlet air pressure of the turbine air starter; determining the monitored speed parameter satisfies a speed threshold, and the monitored pressure parameter satisfies a pressure threshold; in response to determining the monitored speed parameter satisfies the speed threshold and the monitored pressure parameter satisfies the pressure threshold, determining that a hydrostatic lock condition exists in the combustion engine; and in response to the determining that a hydrostatic lock condition exists providing an indication of the hydrostatic lock condition or ceasing the start sequence. during a start sequence of the combustion engine, monitoring a speed parameter indicative of a rotational speed of the turbine air starter and a pressure parameter indicative of an inlet air pressure of the turbine air starter; determining the monitored speed parameter satisfies a speed threshold, and the monitored pressure parameter satisfies a pressure threshold; in response to determining the monitored speed parameter satisfies the speed threshold and the monitored pressure parameter satisfies the pressure threshold, determining that a hydrostatic lock condition exists in the combustion engine; and in response to the determining that a hydrostatic lock condition exists providing an indication of the hydrostatic lock condition or ceasing the start sequence.
Ammunition magazine having an ammunition hatch having a hatch opening, and a device for loading the ammunition magazine via the ammunition hatch, wherein the loading device has an ammunition receptacle for receiving an ammunition body, which ammunition receptacle is removable from a receiving positon outside the ammunition magazine along a lifting distance into a storage position located higher in the region of the ammunition hatch, wherein the ammunition receptacle is movable along the lifting distance via a swivelling extension arm, characterized in that the swivelling extension arm is arranged on the outer side of the ammunition hatch, and in that the hatch opening is closable via a hatch cover which covers the swivelling extension arm in the storage position thereof.
A lighting apparatus comprising: - a support substrate; - a plurality of LED subsets mounted on the support substrate, said plurality of LED subsets comprising at least a first subset having a plurality of LEDs and a second subset having at least one LED; - a corresponding plurality of lens elements mounted such that each subset (120a, 120b) of the plurality of LED subsets is covered by a lens element of the plurality of lens elements; characterized in that the LEDs of the plurality of LED subsets are divided in a plurality of groups (211, 212); wherein the plurality of groups comprises at least: a first group of LEDs comprising at least one LED of the first subset and at least one LED of the second subset; and a second group of LEDs comprising at least one LED of at least the first subset; - a drive and control means configured to drive selectively the plurality of groups of LEDs (211, 212) wherein LEDs of the same group are driven simultaneously. - a support substrate; - a plurality of LED subsets mounted on the support substrate, said plurality of LED subsets comprising at least a first subset having a plurality of LEDs and a second subset having at least one LED; - a corresponding plurality of lens elements mounted such that each subset (120a, 120b) of the plurality of LED subsets is covered by a lens element of the plurality of lens elements; - a drive and control means configured to drive selectively the plurality of groups of LEDs (211, 212) wherein LEDs of the same group are driven simultaneously.
An aluminum alloy wire rod having a composition comprising Mg: 0.10 mass% to 1.00 mass%, Si: 0.10 mass% to 1.00 mass%, Fe:0.01 mass% to 1.40 mass%, Ti:0 mass% to 0.100 mass%, B: 0 mass% to 0.030 mass%, Cu: 0 mass% to 1.00 mass%, Ag: 0 mass% to 0.50 mass%, Au: 0 mass% to 0.50 mass%, Mn: 0 mass% to 1.00 mass%, Cr: 0 mass% to 1.00 mass%, Zr: 0 mass% to 0.50 mass%, Hf: 0 mass% to 0.50 mass%, V: 0 mass% to 0.50 mass%, Sc: 0 mass% to 0.50 mass%, Sn: 0 mass% to 0.50 mass%, Co: 0 mass% to 0.50 mass%, Ni: 0 mass% to 0.50 mass%, and the balance: Al and inevitable impurities, wherein a ratio of (standard deviation of crystal grain size of the aluminum alloy wire rod)/(average crystal grain size of the aluminum alloy wire rod) is less than or equal to 0.57, and a ratio of (diameter of the aluminum alloy wire rod)/(average crystal grain size of the aluminum alloy wire rod) is greater than or equal to 10, wherein the measurement of the standard deviation of the crystal grain size and the average crystal grain size is performed on a cross section cut out parallel to a lengthwise direction of the wire rod and is measured in a straight line in an angle of 45° with the lengthwise direction of the wire rod in conformity with JIS H 0501-1986 for 50 crystal grains.
A video quantization parameter decoding method for decoding a quantization parameter for a video decoding process, the video quantization parameter decoding method being based on context-based adaptive binary arithmetic encoding and comprising: generating a predicted quantization parameter from a past reconstructed quantization parameter; and binary arithmetic decoding a first bin indicating whether or not a delta quantization parameter is significant, a sign bin indicating whether the delta quantization parameter is positive or negative, and other bins indicating an absolute value of the delta quantization parameter, characterized in that the binary arithmetic decoding is performed using no context for the sign bin and using a context for each of the first bin and the other bins, and in cases where the value of the first bin indicates that the delta quantization parameter is significant, the binary arithmetic decoding of the other bins is performed until a bin whose value is zero is decoded. generating a predicted quantization parameter from a past reconstructed quantization parameter; and binary arithmetic decoding a first bin indicating whether or not a delta quantization parameter is significant, a sign bin indicating whether the delta quantization parameter is positive or negative, and other bins indicating an absolute value of the delta quantization parameter, characterized in that the binary arithmetic decoding is performed using no context for the sign bin and using a context for each of the first bin and the other bins, and in cases where the value of the first bin indicates that the delta quantization parameter is significant, the binary arithmetic decoding of the other bins is performed until a bin whose value is zero is decoded.
An apparatus (20; 20a; 20b; 100) for steering a web (22; 120), comprising: a web path comprising at least one steering roller (24; 40, 42; 60, 62; 114, 116) and an exit roller, each having a mount; wherein the at least one steering roller (24; 40, 42; 60, 62; 114, 116) has an axis of rotation and wherein the mount for the at least one steering roller (24; 40, 42; 60, 62; 114, 116) can pivot and/or translate the axis of rotation with a total of two degrees of freedom; characterized by an array (30; 30') comprising a plurality of position sensors (30a; 140) for monitoring the position of the web (22; 120); a controller connected to the array (30; 30') for determining the lateral position and angular orientation of the web (22; 120); and two actuators (122, 124) operably connected to the at least one steering roller (24; 40, 42; 60, 62; 114, 116) for positioning the steering roller (24; 40, 42; 60, 62; 114, 116) to control the angular orientation and the lateral position of the web (22; 120) at a particular point along the web path. a web path comprising at least one steering roller (24; 40, 42; 60, 62; 114, 116) and an exit roller, each having a mount; wherein the at least one steering roller (24; 40, 42; 60, 62; 114, 116) has an axis of rotation and wherein the mount for the at least one steering roller (24; 40, 42; 60, 62; 114, 116) can pivot and/or translate the axis of rotation with a total of two degrees of freedom; characterized by an array (30; 30') comprising a plurality of position sensors (30a; 140) for monitoring the position of the web (22; 120); a controller connected to the array (30; 30') for determining the lateral position and angular orientation of the web (22; 120); and two actuators (122, 124) operably connected to the at least one steering roller (24; 40, 42; 60, 62; 114, 116) for positioning the steering roller (24; 40, 42; 60, 62; 114, 116) to control the angular orientation and the lateral position of the web (22; 120) at a particular point along the web path.
Electrical arrangement (2, 46) for an aircraft fuselage, having: - a fuselage component, - at least one electrical consumer (8, 8A, 8B), and - a conductive electrical connection element (10, 48), wherein the fuselage component has an inside and an outside, wherein an opening through which the electrical connection element (10, 48) extends is arranged in the fuselage component, characterized in that the electrical connection element has a plate-shaped bearing section (18, 18A, 18B, 50) and a feedthrough section (22, 22A, 22B, 52) extending transverse to the bearing section (18, 18A, 18B, 50), wherein the bearing section (18, 18A, 18B, 50) is attached flush to the outside or the inside of the fuselage component and the feedthrough section (22, 22A, 22B, 52) runs from the bearing section (18, 18A, 18B, 50) through the opening and extends beyond the opening, wherein the electrical connection element (10, 48) is electrically insulated from the opening and the fuselage component and is able to be connected to a voltage supply arranged on the inside, and wherein the at least one electrical consumer (8, 8A, 8B) is arranged on the outside of the fuselage component and is electrically connected to that part of the connection element (10, 48) projecting towards the outside of the fuselage. - a fuselage component, - at least one electrical consumer (8, 8A, 8B), and - a conductive electrical connection element (10, 48), wherein the fuselage component has an inside and an outside, wherein an opening through which the electrical connection element (10, 48) extends is arranged in the fuselage component, characterized in that the electrical connection element has a plate-shaped bearing section (18, 18A, 18B, 50) and a feedthrough section (22, 22A, 22B, 52) extending transverse to the bearing section (18, 18A, 18B, 50), wherein the bearing section (18, 18A, 18B, 50) is attached flush to the outside or the inside of the fuselage component and the feedthrough section (22, 22A, 22B, 52) runs from the bearing section (18, 18A, 18B, 50) through the opening and extends beyond the opening, wherein the electrical connection element (10, 48) is electrically insulated from the opening and the fuselage component and is able to be connected to a voltage supply arranged on the inside, and wherein the at least one electrical consumer (8, 8A, 8B) is arranged on the outside of the fuselage component and is electrically connected to that part of the connection element (10, 48) projecting towards the outside of the fuselage.
A foreign-matter detecting apparatus for detecting a foreign matter in powder stored in a container, the container having a first part causing a most part of a terahertz pulse wave to transmit and a second part causing a terahertz pulse wave not to transmit but to reflect the terahertz pulse wave, the foreign-matter detecting apparatus comprising: an oscillating unit configured to generate a terahertz pulse wave and emit the terahertz pulse wave as irradiation light; a telecentric optical system configured to guide the irradiation light emitted from the oscillating unit to the first part of the container and condense reflected light reflected from the container; a receiving unit configured to output a signal corresponding to the reflected light condensed by the telecentric optical system; a scanning mechanism configured to scan a position of the irradiation light guided by the telecentric optical system on the first part in a two-dimensional manner; and an operating unit configured to detect a foreign matter in the powder in the container based on at least one of a value corresponding to a time waveform signal output from the receiving unit in chronological order, a reflection image having respective pixel values found by time-integrating the time waveform signals, a power spectrum being found by calculating the time waveform signal by Fourier transform, and a frequency image having respective pixel values found by calculating the time waveform signal by Fourier transform, wherein the telecentric optical system includes a half mirror configured to reflect the irradiation light emitted from the oscillating unit and to transmit the reflected light reflected by the container, and wherein the scanning is performed by swinging the half mirror. an oscillating unit configured to generate a terahertz pulse wave and emit the terahertz pulse wave as irradiation light; a telecentric optical system configured to guide the irradiation light emitted from the oscillating unit to the first part of the container and condense reflected light reflected from the container; a receiving unit configured to output a signal corresponding to the reflected light condensed by the telecentric optical system; a scanning mechanism configured to scan a position of the irradiation light guided by the telecentric optical system on the first part in a two-dimensional manner; and an operating unit configured to detect a foreign matter in the powder in the container based on at least one of a value corresponding to a time waveform signal output from the receiving unit in chronological order, a reflection image having respective pixel values found by time-integrating the time waveform signals, a power spectrum being found by calculating the time waveform signal by Fourier transform, and a frequency image having respective pixel values found by calculating the time waveform signal by Fourier transform, wherein the telecentric optical system includes a half mirror configured to reflect the irradiation light emitted from the oscillating unit and to transmit the reflected light reflected by the container, and wherein the scanning is performed by swinging the half mirror.