mhurhangee/ep-ind-claims huggingface dataset:
A yarn winder including at least one common spindle each configured to support a plurality of bobbins, the yarn winder configured to rotate the spindle to wind yarns onto the bobbins respectively to form packages, the yarn winder comprising: traverse units configured to traverse the yarns respectively; dancer rolls onto which the yarns are respectively wound, each of the dancer rolls configured to be movable from a predetermined reference position toward a relaxation side on which a corresponding one of the yarns is relaxed and toward a tension side on which yarn slack is removed; position detectors configured to detect positions of the dancer rolls, respectively; and a controller configured to control a position of at least one of the dancer rolls based on outputs from the position detectors by adjusting traversal speed of corresponding at least one of the traverse units traversing the yarn wound onto the at least one of the dancer rolls, characterized in that when a difference between positions of freely-selected two of the dancer rolls exceeds a predetermined threshold, the controller performs positional difference eliminating control of reducing the difference between the positions of the two dancer rolls to a level equal to or smaller than the threshold by adjusting the traversal speed of at least one of two traverse units traversing the yarns wound onto the two dancer rolls. traverse units configured to traverse the yarns respectively; dancer rolls onto which the yarns are respectively wound, each of the dancer rolls configured to be movable from a predetermined reference position toward a relaxation side on which a corresponding one of the yarns is relaxed and toward a tension side on which yarn slack is removed; position detectors configured to detect positions of the dancer rolls, respectively; and a controller configured to control a position of at least one of the dancer rolls based on outputs from the position detectors by adjusting traversal speed of corresponding at least one of the traverse units traversing the yarn wound onto the at least one of the dancer rolls, characterized in that when a difference between positions of freely-selected two of the dancer rolls exceeds a predetermined threshold, the controller performs positional difference eliminating control of reducing the difference between the positions of the two dancer rolls to a level equal to or smaller than the threshold by adjusting the traversal speed of at least one of two traverse units traversing the yarns wound onto the two dancer rolls.
Method for determining the load history of a tyre, in which load values applied to the tyre are determined by a sensor attached to the tyre, characterized in that load ranges of a predetermined range width are defined and a counter is provided for each load range and the load values are determined as a continuous series at predetermined time intervals and are assigned to the load ranges while incrementing the associated counter, wherein the counters are stored and provided as a load history and read out as required.
A solar cell, comprising: a crystalline silicon base layer; an electron collector region on a back side of the base layer, the electron collector region comprising a first conductive oxide material electrically coupled to the base layer; and a hole collector region on the back side of the base layer, the hole collector region comprising a second conductive oxide material electrically coupled to the base layer; wherein the electron collector region and hole collector region form an interdigitated pattern; and wherein the first conductive oxide material and second conductive oxide material have different work functions. a crystalline silicon base layer; an electron collector region on a back side of the base layer, the electron collector region comprising a first conductive oxide material electrically coupled to the base layer; and a hole collector region on the back side of the base layer, the hole collector region comprising a second conductive oxide material electrically coupled to the base layer; wherein the electron collector region and hole collector region form an interdigitated pattern; and wherein the first conductive oxide material and second conductive oxide material have different work functions.
A child safety seat comprising: a base, a rear portion of which is formed with a top rod protruding upwardly; a seat connected to the base; and a tether telescopically connected to the base, wherein the tether can be automatically retracted when it is extended relative to the base. a base, a rear portion of which is formed with a top rod protruding upwardly; a seat connected to the base; and a tether telescopically connected to the base, wherein the tether can be automatically retracted when it is extended relative to the base.
A method for graphics processing, the method comprising: determining, with a processor, a viewing angle relative to a display; receiving, with the processor, instructions for a vertex shader for generating a mono view; generating, for the mono view, clipping coordinates for vertices of primitives; modifying, with the processor, the instructions for generating the mono view to include one or more instructions based on the viewing angle to generate a modified vertex shader, wherein execution of a first instance of the modified vertex shader displaces the clipping coordinates generated for the mono view in one direction, based on the viewing angle, and execution of a second instance of the modified vertex shader displaces the clipping coordinates generated for the mono view in another direction, based on the viewing angle, to generate vertex coordinates for vertices of a stereoscopic view; instructing, with the processor, a graphics processing unit to execute the first instance of the modified vertex shader to generate a first image of the stereoscopic view; and instructing, with the processor, the GPU to execute the second instance of the modified vertex shader to generate a second image of the stereoscopic view. determining, with a processor, a viewing angle relative to a display; receiving, with the processor, instructions for a vertex shader for generating a mono view; generating, for the mono view, clipping coordinates for vertices of primitives; modifying, with the processor, the instructions for generating the mono view to include one or more instructions based on the viewing angle to generate a modified vertex shader, wherein execution of a first instance of the modified vertex shader displaces the clipping coordinates generated for the mono view in one direction, based on the viewing angle, and execution of a second instance of the modified vertex shader displaces the clipping coordinates generated for the mono view in another direction, based on the viewing angle, to generate vertex coordinates for vertices of a stereoscopic view; instructing, with the processor, a graphics processing unit to execute the first instance of the modified vertex shader to generate a first image of the stereoscopic view; and instructing, with the processor, the GPU to execute the second instance of the modified vertex shader to generate a second image of the stereoscopic view.
Tool for machining a workpiece, having a fixing means for fixing the tool in a rotary-driven tool spindle of a machine tool, a tool cover which surrounds a tool central axis at least partially, and toothing which surrounds the tool central axis at least partially and is disposed on the side of the tool cover which is orientated away from the fixing means, the tool having a plurality of recesses which extend from the toothing as far as into the tool cover, the tool cover which surrounds the tool central axis not being closed or having a gap, and having a carrier element on which, on a first side, the fixing means is disposed and, on a second side, the tool cover is disposed, characterised in that the tool cover and/or the carrier element has at least one, preferably a plurality of locking devices (34a, 34b) for detachable connection of the tool cover to the carrier element.
A method of preparing alloreactive cytotoxic T cells in vitro from monocytes of a patient comprising: differentiating the monocytes into dendritic cells; maturing the dendritic cells with one or more of a growth factor or a stimulatory molecule; inactivating the matured dendritic cells; and contacting one or more of the inactivated dendritic cells with T cells from a donor to generate cytotoxic T cells, wherein the donor and the patient are partially human leukocyte antigen disparate, whereby alloreactive cytotoxic T cells are prepared. differentiating the monocytes into dendritic cells; maturing the dendritic cells with one or more of a growth factor or a stimulatory molecule; inactivating the matured dendritic cells; and contacting one or more of the inactivated dendritic cells with T cells from a donor to generate cytotoxic T cells, wherein the donor and the patient are partially human leukocyte antigen disparate, whereby alloreactive cytotoxic T cells are prepared.
A method for manufacturing a carbon-ceramic brake disk, the method comprising: forming a first layer in a mold by filling a mixture including long fibers into the mold; inserting a core which has a plurality of through holes into the mold so as to be positioned on the first layer; filling a mixture including short fibers into the through holes of the core; forming a second layer on the core by filling a mixture including long fibers into the mold; and pressure-heating the first layer, the core, and the second layer in the mold, wherein the long fiber has a length of from 11 mm to 50 mm, and the short fiber has a length of from 1 mm to 10 mm, wherein the core comprises a first disk core provided a plurality of through holes, and a second disk core which is lower than the first disk core in strength and melting temperature, wherein the second disk core is formed as the same as shape of the first disk core and is attached to one side of the first disk core, and wherein the core further comprises a third disk core which is lower than the first disk core in strength and melting temperature, wherein the third disk core is formed as the same as shape of the first disk core and is attached to the other side of the first disk core. forming a first layer in a mold by filling a mixture including long fibers into the mold; inserting a core which has a plurality of through holes into the mold so as to be positioned on the first layer; filling a mixture including short fibers into the through holes of the core; forming a second layer on the core by filling a mixture including long fibers into the mold; and pressure-heating the first layer, the core, and the second layer in the mold, wherein the long fiber has a length of from 11 mm to 50 mm, and the short fiber has a length of from 1 mm to 10 mm, wherein the core comprises a first disk core provided a plurality of through holes, and a second disk core which is lower than the first disk core in strength and melting temperature, wherein the second disk core is formed as the same as shape of the first disk core and is attached to one side of the first disk core, and wherein the core further comprises a third disk core which is lower than the first disk core in strength and melting temperature, wherein the third disk core is formed as the same as shape of the first disk core and is attached to the other side of the first disk core.
A method for transporting and installing a subsea structure (10, 104, 114), which subsea structure (10, 104, 114) is a subsea processing centre comprising: a frame; production fluid processing equipment (40, 70, 108, 110) housed within and supported by the frame; and pipework in fluid communication with the production fluid processing equipment (40, 70, 108, 110); wherein the method comprises: with the subsea structure (10, 104, 114) in water at a pre-towing location, ballasting to make the subsea structure (10, 104, 114) neutrally buoyant at or near to the water surface; for towing to an installation location, controlledly flooding at least one ballast tank (52, 100A, 100B, 100C, 100D) attached to the frame or incorporated into the frame, to an extent that the subsea structure (10, 104, 114) becomes negatively buoyant at a pre-determined towing depth; towing the negatively-buoyant subsea structure (10, 104, 114) at the towing depth by the Controlled Depth Towing Method whilst controlling the buoyancy and trim of the frame; and after towing to the installation location: further flooding the or each ballast tank (52, 100A, 100B, 100C, 100D) to lower the subsea structure (10, 104, 114) onto the seabed (64, 106); and coupling at least one fluid transportation pipe to the pipework of the subsea structure (10, 104, 114) when the subsea structure (10, 104, 114) is on the seabed (64, 106). with the subsea structure (10, 104, 114) in water at a pre-towing location, ballasting to make the subsea structure (10, 104, 114) neutrally buoyant at or near to the water surface; for towing to an installation location, controlledly flooding at least one ballast tank (52, 100A, 100B, 100C, 100D) attached to the frame or incorporated into the frame, to an extent that the subsea structure (10, 104, 114) becomes negatively buoyant at a pre-determined towing depth; towing the negatively-buoyant subsea structure (10, 104, 114) at the towing depth by the Controlled Depth Towing Method whilst controlling the buoyancy and trim of the frame; and after towing to the installation location: further flooding the or each ballast tank (52, 100A, 100B, 100C, 100D) to lower the subsea structure (10, 104, 114) onto the seabed (64, 106); and coupling at least one fluid transportation pipe to the pipework of the subsea structure (10, 104, 114) when the subsea structure (10, 104, 114) is on the seabed (64, 106). further flooding the or each ballast tank (52, 100A, 100B, 100C, 100D) to lower the subsea structure (10, 104, 114) onto the seabed (64, 106); and coupling at least one fluid transportation pipe to the pipework of the subsea structure (10, 104, 114) when the subsea structure (10, 104, 114) is on the seabed (64, 106).
A method of protecting an executable program, the method comprising: receiving a copy of the executable program, the executable program comprising executable instructions arranged as a plurality of functional blocks; receiving a debug database associated with the executable program, the debug database storing the locations of the functional blocks within the executable program; identifying from the debug database the location of a functional block within the executable program; and inserting protection code into the executable program, the protection code overwriting at least part of the functional block, characterised in that execution of the functional block causes the protection code to be executed, and execution of the protection code performs an operation and executes a copy of the at least part of the functional block overwritten by the protection code. receiving a copy of the executable program, the executable program comprising executable instructions arranged as a plurality of functional blocks; receiving a debug database associated with the executable program, the debug database storing the locations of the functional blocks within the executable program; identifying from the debug database the location of a functional block within the executable program; and inserting protection code into the executable program, the protection code overwriting at least part of the functional block, characterised in that execution of the functional block causes the protection code to be executed, and execution of the protection code performs an operation and executes a copy of the at least part of the functional block overwritten by the protection code.
A cosmetic composition containing Janus particles, an aqueous phase and an organic phase, wherein the Janus particles are comprised between 0.01% by weight and 99.99% by weight and the sum of aqueous phase and organic phase is between 0.01% by weight and 99.99% by weight, characterized in that the Janus particles are constituted by concave fragments of hollow spherical modified particles with internal surface energy a and external surface energy β.
A flexible sensor comprising a flexible substrate of polymer material, a bottom electrode arranged on the substrate and configured to be a reference electrode, an active layer of piezoelectric material arranged on the bottom electrode, a top electrode arranged on the active layer and configured to be connected to a signal conductor, a flexible coating layer of polymer material cooperating with the substrate to encapsulate said bottom electrode, active layer and top electrode, and an additional layer of metal material arranged on the coating layer and short-circuited to the bottom electrode, said additional layer and bottom electrode acting as electromagnetic shield for the sensor, characterized in that said active layer and top electrode are geometrically congruent. a flexible substrate of polymer material, a bottom electrode arranged on the substrate and configured to be a reference electrode, an active layer of piezoelectric material arranged on the bottom electrode, a top electrode arranged on the active layer and configured to be connected to a signal conductor, a flexible coating layer of polymer material cooperating with the substrate to encapsulate said bottom electrode, active layer and top electrode, and an additional layer of metal material arranged on the coating layer and short-circuited to the bottom electrode, said additional layer and bottom electrode acting as electromagnetic shield for the sensor, characterized in that said active layer and top electrode are geometrically congruent.
A method for optimizing color image reproduction by selecting a reproduction hue angle as a gamut mapping target for a memory color, comprising the steps of: finding preferred hue angles for a memory color as candidate hue angles for reproducing the memory color (step 110); determining a maximum chroma value of a hue slice created for each preferred hue angle (step 120); selecting two chroma points in the hue slice on the gamut boundary having maximum and minimum lightness at a pre-determined percentage of the maximum chroma value (step 130); measuring the area between the point of maximum chroma and a line including the selected two chroma points within the output gamut, wherein the gamut boundary within the hue slice is defined by two functions representing lightness dependent on chroma, one for the gamut boundary towards high lightness, and one for the gamut boundary towards low lightness (step 140); selecting from the preferred hue angles for the selected memory color a hue angle to be used as a gamut mapping target for the memory color based on the result of the area calculation (step 150). finding preferred hue angles for a memory color as candidate hue angles for reproducing the memory color (step 110); determining a maximum chroma value of a hue slice created for each preferred hue angle (step 120); selecting two chroma points in the hue slice on the gamut boundary having maximum and minimum lightness at a pre-determined percentage of the maximum chroma value (step 130); measuring the area between the point of maximum chroma and a line including the selected two chroma points within the output gamut, wherein the gamut boundary within the hue slice is defined by two functions representing lightness dependent on chroma, one for the gamut boundary towards high lightness, and one for the gamut boundary towards low lightness (step 140); selecting from the preferred hue angles for the selected memory color a hue angle to be used as a gamut mapping target for the memory color based on the result of the area calculation (step 150).
Turbine casing of a turbomachine comprising a ventilation device which comprises a plurality of manifolds configured to spray air onto the turbine casing, the manifolds being disposed side by side, each manifold comprising a main ring in which air circulates, the main ring comprising openings configured to spray an air flow toward the turbine casing, each manifold comprising a shield configured to isolate the main ring from an air flow reflected from the turbine casing toward the manifolds after having been sprayed toward the turbine casing, the shield comprising openings aligned on the openings of the main ring characterized in that the shield surrounds the main ring by delimiting a cavity between the main ring and the shield.
A method for receiving a signal, comprising: receiving (S110, S311) a first configuration for a first common signal comprising a primary synchronization signal, PSS, a secondary synchronization signal, SSS, and a physical broadcast channel, PBCH, from a first base station, wherein the first configuration comprises information about a first time-frequency resource for sending the first common signal; receiving a second common signal before receiving the first configuration; and receiving (S120, S320) the first common signal based on the first configuration; wherein a reception of the second common signal uses a third configuration and a sending periodicity of the second common signal is greater than a common signal sending periodicity corresponding to the first configuration. receiving (S110, S311) a first configuration for a first common signal comprising a primary synchronization signal, PSS, a secondary synchronization signal, SSS, and a physical broadcast channel, PBCH, from a first base station, wherein the first configuration comprises information about a first time-frequency resource for sending the first common signal; receiving a second common signal before receiving the first configuration; and receiving (S120, S320) the first common signal based on the first configuration; wherein a reception of the second common signal uses a third configuration and a sending periodicity of the second common signal is greater than a common signal sending periodicity corresponding to the first configuration.
Use of a construction frame comprising elongated frame members defining a central aperture, each frame member having an L- or T-shaped cross section with a base wall having a surface facing the central aperture and an opposed surface from which a second wall protrudes, wherein said frame members are manufactured in a fibre reinforced polymeric material or metal and or a combination of metal and polymeric material, at least one of said frame members having a maximum longitudinal deflection ratio of 1/250 and preferably 1/500 when a load of 1kN/m directed perpendicular on said frame member and parallel to the plane of the central aperture is applied thereon, as a lintel, characterized in that said frame comprises: - a first frame member designed to span an architectural opening; - a second frame member extending parallel to and at a distance of the first frame member; - a least two upright support frame members extending perpendicular to first and second frame members and connecting the first and second frame member, thereby defining the frame; wherein the first frame member is dimensioned longer than the second frame member and larger than the distance between both support frame members. - a first frame member designed to span an architectural opening; - a second frame member extending parallel to and at a distance of the first frame member; - a least two upright support frame members extending perpendicular to first and second frame members and connecting the first and second frame member, thereby defining the frame;