mhurhangee/ep-ind-claims huggingface dataset:
A rope hoist, which comprises a rope drum for a hoisting rope to be winded thereon and a rope drum cover for partially surrounding the rope drum, the rope hoist is arranged to move along a main girder, the main girder is movable on rails, wherein the main girder is supported by said rails at its ends, wherein visually observable or readable means (9; 91; 92) for detecting winding or unwinding positions of the hoisting rope on the rope drum are arranged on the rope drum cover, and to indicate lifting height of a load attached to the hoisting rope, the visually observable or readable means (9; 91; 92) are arranged on the rope drum cover in axial direction of the rope drum and comprise a scale (9; 91; 92) arranged on the rope drum cover, characterized in that the scale is formed of parallel openings arranged on the rope drum cover, or the scale is formed of parallel alternating toothed structure formed of substantially rectangular protrusions and recesses. the visually observable or readable means (9; 91; 92) are arranged on the rope drum cover in axial direction of the rope drum and comprise a scale (9; 91; 92) arranged on the rope drum cover, characterized in that the scale is formed of parallel openings arranged on the rope drum cover, or the scale is formed of parallel alternating toothed structure formed of substantially rectangular protrusions and recesses.
Method for calculating a four-dimensional DSA dataset from x-ray datasets, comprising the following method steps: - Receiving x-ray datasets relating to an examination volume by means of an interface, wherein each of the x-ray datasets comprises a two-dimensional x-ray projection (501.1, 501.2, 501.3, 501.4) of the examination volume in relation to a direction of projection and a recording time of the x-ray projection (501.1, 501.2, 501.3, 501.4), - First determination (DET-1) of a first three-dimensional DSA dataset of a first reconstruction volume on the basis of the x-ray datasets by means of a calculation unit, wherein the first reconstruction volume is a part of the examination volume or is identical to said volume, - Second determination (DET-2) of a second three-dimensional DSA dataset of a second reconstruction volume on the basis of the x-ray datasets by means of the calculation unit, wherein the second reconstruction volume is a part of the first reconstruction volume, - Segmentation of the second three-dimensional DSA dataset by means of the calculation unit, - Normalization (NORM) of the x-ray datasets on the basis of the first three-dimensional DSA dataset by means of the calculation unit, - Calculation (CALC) of a four-dimensional DSA dataset by back projection of the normalized x-ray datasets onto the segmented second three-dimensional DSA dataset by means of the calculation unit, wherein the four-dimensional DSA dataset comprises a number of third three-dimensional DSA datasets as well as an associated item of time information. - Receiving x-ray datasets relating to an examination volume by means of an interface, wherein each of the x-ray datasets comprises a two-dimensional x-ray projection (501.1, 501.2, 501.3, 501.4) of the examination volume in relation to a direction of projection and a recording time of the x-ray projection (501.1, 501.2, 501.3, 501.4), - First determination (DET-1) of a first three-dimensional DSA dataset of a first reconstruction volume on the basis of the x-ray datasets by means of a calculation unit, wherein the first reconstruction volume is a part of the examination volume or is identical to said volume, - Second determination (DET-2) of a second three-dimensional DSA dataset of a second reconstruction volume on the basis of the x-ray datasets by means of the calculation unit, wherein the second reconstruction volume is a part of the first reconstruction volume, - Segmentation of the second three-dimensional DSA dataset by means of the calculation unit, - Normalization (NORM) of the x-ray datasets on the basis of the first three-dimensional DSA dataset by means of the calculation unit, - Calculation (CALC) of a four-dimensional DSA dataset by back projection of the normalized x-ray datasets onto the segmented second three-dimensional DSA dataset by means of the calculation unit, wherein the four-dimensional DSA dataset comprises a number of third three-dimensional DSA datasets as well as an associated item of time information.
A gas turbine engine including: a core engine, a nacelle surrounding at least a portion of the core engine to define a bypass duct between the nacelle and the core engine, and a thrust reverser assembly including: a cascade element located within the nacelle; a blocker door movable between a stowed position, where the blocker door closes the cascade element to the air flow conduit, and a deployed position, where the blocker door opens the cascade element to the air flow conduit and extends into the air flow conduit to deflect air through the cascade element; a first structure connecting the blocker door to the nacelle when the blocker door is in the deployed position to define a first load path through which aerodynamic loading on the blocker door is transferred to the nacelle; and a second structure connecting the blocker door to the core engine when the blocker door is in the deployed position to define a second load path through which aerodynamic loading on the blocker door is transferred to the core engine; wherein the first structure includes an actuator mechanically coupled between the blocker door and the nacelle and selectively moving the blocker door between the stowed and deployed positions; wherein a second end of the actuator, opposite the first end, is mounted to the nacelle; the thrust reverser assembly further including a stop located on the core engine at a position where the blocker door abuts the stop in the deployed position; wherein the core engine includes a casing and the stop is located on the casing. a cascade element located within the nacelle; a blocker door movable between a stowed position, where the blocker door closes the cascade element to the air flow conduit, and a deployed position, where the blocker door opens the cascade element to the air flow conduit and extends into the air flow conduit to deflect air through the cascade element; a first structure connecting the blocker door to the nacelle when the blocker door is in the deployed position to define a first load path through which aerodynamic loading on the blocker door is transferred to the nacelle; and a second structure connecting the blocker door to the core engine when the blocker door is in the deployed position to define a second load path through which aerodynamic loading on the blocker door is transferred to the core engine; wherein the first structure includes an actuator mechanically coupled between the blocker door and the nacelle and selectively moving the blocker door between the stowed and deployed positions; wherein a second end of the actuator, opposite the first end, is mounted to the nacelle; the thrust reverser assembly further including a stop located on the core engine at a position where the blocker door abuts the stop in the deployed position; wherein the core engine includes a casing and the stop is located on the casing.
One or more devices (100, 130, 131, 200, 201, 1200) for providing a position of an intensity peak (305, 405, 505, 605) in image data produced by an image sensor in response to light sensed by the image sensor after the light has reflected on an object as part of light triangulation performed in a three-dimensional imaging system, wherein said one or more devices (100, 130, 131, 200, 201, 1200) are configured to: obtain the image data; determine which of first and other, second, peak characteristics that the intensity peak is associated with, wherein the first and second peak characteristics are associated with differing first and second surface properties of the object that reflect light differently; and provide the position according to a first computing algorithm operating on the image data if the intensity peak is associated with the first peak characteristics and according to a different, second computing algorithm operating on the image data if the intensity peak is associated with the second peak characteristics, wherein the first and second computing algorithms are associated with said first and second surface properties, respectively, and wherein the respective computing algorithm is predetermined based on its suitability to, for intensity peaks resulting from reflections from a surface according to the algorithm's associated surface property, provide a position that maps to the location on the object's surface that reflected the light that resulted in the intensity peak. obtain the image data; determine which of first and other, second, peak characteristics that the intensity peak is associated with, wherein the first and second peak characteristics are associated with differing first and second surface properties of the object that reflect light differently; and provide the position according to a first computing algorithm operating on the image data if the intensity peak is associated with the first peak characteristics and according to a different, second computing algorithm operating on the image data if the intensity peak is associated with the second peak characteristics, wherein the first and second computing algorithms are associated with said first and second surface properties, respectively, and wherein the respective computing algorithm is predetermined based on its suitability to, for intensity peaks resulting from reflections from a surface according to the algorithm's associated surface property, provide a position that maps to the location on the object's surface that reflected the light that resulted in the intensity peak.
Use of i) a composition comprising guanidinoacetic acid and glycine, wherein the composition comprises glycine as a free acid or in the form of a salt of this acid; and ii) a low protein feed for poultry having a crude protein content in the range of 14.0 to 18.5 wt. % (based on the total weight of the feed) during fattening from the 11th to the 39th day of life of the poultry, for increasing the fattening performance of the poultry and/or for increasing the slaughter weight of the poultry and/or for improving the uniformity of the slaughter weight of the poultry, wherein the guanidinoacetic acid is used in an amount of from 0.01 to 0.20 wt. % based on the low protein feed and wherein the glycine is used in an amount of from 0.01 to 0.20 wt. % based on the low protein feed.
A device to inject a reducing gas into a shaft furnace, said device comprising: a. An external casing having a rear and a front face, 1, said front face being provided with an outlet for gas injection into the shaft furnace, b. An internal casing located inside the external casing and made of a steel able to resist to a temperature up to 1200°C, said internal casing having an opening matching the gas injection outlet of the front face of the external casing, said front face of the external casing having a triangular shape. a. An external casing having a rear and a front face, 1, said front face being provided with an outlet for gas injection into the shaft furnace, b. An internal casing located inside the external casing and made of a steel able to resist to a temperature up to 1200°C, said internal casing having an opening matching the gas injection outlet of the front face of the external casing, said front face of the external casing having a triangular shape.
A non-transitory computer readable medium for repurposing a document, comprising instructions that when read and executed by a processor cause the processor to: read a document having multiple pages; extract three samples of the multiple pages of the document, each sample comprising sample pages of the document; for each of the three samples, compare sequential pages within a respective sample to identify a pattern of markers, wherein a marker is found by splitting a page into smaller regions and wherein each smaller region is searched for the marker and if the marker is not found continuing to split a smaller region into further smaller regions; and remove the markers from the multiple pages of the document, based on identified patterns for each respective sample of the document. read a document having multiple pages; extract three samples of the multiple pages of the document, each sample comprising sample pages of the document; for each of the three samples, compare sequential pages within a respective sample to identify a pattern of markers, wherein a marker is found by splitting a page into smaller regions and wherein each smaller region is searched for the marker and if the marker is not found continuing to split a smaller region into further smaller regions; and remove the markers from the multiple pages of the document, based on identified patterns for each respective sample of the document.
Method for operating a direct thermal printer for printing on direct thermal printing paper, wherein the direct thermal printing paper comprises at least one thermoreactive layer, wherein at least two colours are formable with the at least one thermoreactive layer, wherein a first colour is formed when a first temperature is supplied and a second colour is formed when a second temperature is supplied, wherein the second temperature is higher than the first temperature, wherein the direct thermal printing paper is movable through the direct thermal printer along a paper path from a paper receptacle to a paper outlet, and the direct thermal printer comprises a printhead comprising electrically controllable heat sources which are arranged next to one another transversely with respect to the paper path and at points supply heat to the direct thermal printing paper, and wherein the direct thermal printer comprises a control device which is designed to heat selected heat sources of the printhead to a printing temperature, wherein the method comprises the following steps: - moving, by means of a transport roller, the direct thermal printing paper line by line past the printhead in a printing direction, - in each line of the direct thermal printing paper, electrically heating selected heat sources of the printhead, wherein, at the locations where the second colour is intended to be formed on the direct thermal printing paper, multiple adjacent heat sources are heated to the printing temperature, and at the locations where the first colour is intended to be formed on the direct thermal printing paper, one proportion of multiple adjacent heat sources are heated to the printing temperature and the other proportion of the heat sources are not heated. - moving, by means of a transport roller, the direct thermal printing paper line by line past the printhead in a printing direction, - in each line of the direct thermal printing paper, electrically heating selected heat sources of the printhead, wherein, at the locations where the second colour is intended to be formed on the direct thermal printing paper, multiple adjacent heat sources are heated to the printing temperature, and at the locations where the first colour is intended to be formed on the direct thermal printing paper, one proportion of multiple adjacent heat sources are heated to the printing temperature and the other proportion of the heat sources are not heated.
A collapsible coupling device for roll-off containers, suited for engagement with a loading device installed on a motor vehicle, comprising; a coupling member suitable to be rotatably engaged with respect to a supporting structure of a roll-off container, and movable around a horizontal hinging axis between a rest position in which it is lowered and a work position in which it is raised; characterized by further comprising: a pusher device suitable to be operating between the supporting structure and the coupling member to push the latter towards the work position. a coupling member suitable to be rotatably engaged with respect to a supporting structure of a roll-off container, and movable around a horizontal hinging axis between a rest position in which it is lowered and a work position in which it is raised; characterized by further comprising: a pusher device suitable to be operating between the supporting structure and the coupling member to push the latter towards the work position.
A device (100; 200; 300; 400) for storage and transfer of thermal energy associated with an incident solar radiation, which device comprises: ▪ a containment casing; ▪ a bed of fluidizable solid particles received inside said casing; ▪ fluidization means configured for inputting a fluidization gas, preferably air, into said bed of fluidizable solid particles; ▪ a plurality of thermophotovoltaic cells arranged at or inside said casing and configured to transform thermal energy of said fluidizable solid particles into electric energy, the overall configuration being such that thermal energy is transferred from the solar radiation to the fluidizable solid particles of said bed and from said fluidizable solid particles to said thermophotovoltaic cells. ▪ a containment casing; ▪ a bed of fluidizable solid particles received inside said casing; ▪ fluidization means configured for inputting a fluidization gas, preferably air, into said bed of fluidizable solid particles; ▪ a plurality of thermophotovoltaic cells arranged at or inside said casing and configured to transform thermal energy of said fluidizable solid particles into electric energy,
A rectilinear motion device comprising: a linear rack having a plurality of teeth; a main drive pinion that meshes with the rack; an auxiliary drive pinion that meshes with the rack in a position away from the main drive pinion; a main drive motor that rotationally drives the main drive pinion; an auxiliary drive motor that rotationally drives the auxiliary drive pinion; a carrier to which the main drive motor and the auxiliary drive motor are secured and that linearly moves along the rack with rotational driving of the main drive motor and the auxiliary drive motor; a linear encoder extending in parallel with a rail for identifying a position of the carrier; and a controller for controlling motion and stop of the main drive motor and the auxiliary drive motor based on position information of the carrier obtained from the linear encoder, wherein the auxiliary drive motor is rotationally driven, in stopping the moving carrier, in a reverse direction to a driving direction of the main drive motor in motion, characterized in that the rectilinear motion device further comprises the rail extending in parallel with the rack and being slidably fitted to a slider of the movable carrier, and supporting a load of the movable carrier via the slider. a linear rack having a plurality of teeth; a main drive pinion that meshes with the rack; an auxiliary drive pinion that meshes with the rack in a position away from the main drive pinion; a main drive motor that rotationally drives the main drive pinion; an auxiliary drive motor that rotationally drives the auxiliary drive pinion; a carrier to which the main drive motor and the auxiliary drive motor are secured and that linearly moves along the rack with rotational driving of the main drive motor and the auxiliary drive motor; a linear encoder extending in parallel with a rail for identifying a position of the carrier; and a controller for controlling motion and stop of the main drive motor and the auxiliary drive motor based on position information of the carrier obtained from the linear encoder, wherein the auxiliary drive motor is rotationally driven, in stopping the moving carrier, in a reverse direction to a driving direction of the main drive motor in motion, characterized in that the rectilinear motion device further comprises the rail extending in parallel with the rack and being slidably fitted to a slider of the movable carrier, and supporting a load of the movable carrier via the slider.
Fluid delivery pump having at least one electromagnet, at least one armature, which is arranged such that it is situated in an electromagnetic field, which is able to be generated by the electromagnet, and which is able to be moved by way of the electromagnetic field, and having at least one elastic diaphragm, wherein at least one region of the diaphragm is fastened to the armature, wherein the diaphragm is arranged such that a delivery volume which is able to be varied by way of movement of the diaphragm is formed within the electromagnet, characterized in that the armature is shaped such that, with increasing pressure of the fluid to be delivered, the diaphragm increasingly bears against at least one region of the armature, wherein a central region of the armature is shaped such that the armature projects at least partially into a space between the windings of the electromagnet in which the delivery volume is formed.
A laundry dryer, having a drum and an air duct connected to the drum, comprising: a cavity disposed on a wall of the air duct; and a filter screen that is divided into a first part and a second part, wherein the first part and the second part are respectively located in the air duct and the cavity, and said filter screen moves to exchange spatial positions at which the first part and the second part are located; characterized in that a flushing apparatus is disposed in the cavity; and wherein a baffle plate divides said filter screen into said first and second part and separates said cavity from the air duct. a cavity disposed on a wall of the air duct; and a filter screen that is divided into a first part and a second part, wherein the first part and the second part are respectively located in the air duct and the cavity, and said filter screen moves to exchange spatial positions at which the first part and the second part are located;