mhurhangee/ep-ind-claims huggingface dataset:
A nacelle assembly for a gas turbine engine comprising: a core nacelle defined about an engine centerline axis of rotation; a fan nacelle mounted at least partially around said core nacelle to define a fan bypass flow path; and a variable area nozzle in communication with said fan bypass flow path, said variable area nozzle having a first fan nacelle section and a second fan nacelle section, said second fan nacelle section axially movable relative said first fan nacelle section to define an auxiliary port to vary a fan nozzle exit area and adjust fan bypass airflow, said second fan nacelle section including a leading edge region that defines a concave external contour and said first fan nacelle section including a trailing edge region that defines a convex internal contour; characterised in that the shape of the leading edge region and the shape of the trailing edge region are shape decoupled and wherein the leading edge region and/or the trailing edge region includes a flexible surface (70, 70-1, 70-2), the flexible surface (70, 70-1, 70-2) included on one of the leading edge region or trailing edge region being mechanically compressed by engagement with the other of the leading edge region or trailing edge region. a core nacelle defined about an engine centerline axis of rotation; a fan nacelle mounted at least partially around said core nacelle to define a fan bypass flow path; and a variable area nozzle in communication with said fan bypass flow path, said variable area nozzle having a first fan nacelle section and a second fan nacelle section, said second fan nacelle section axially movable relative said first fan nacelle section to define an auxiliary port to vary a fan nozzle exit area and adjust fan bypass airflow, said second fan nacelle section including a leading edge region that defines a concave external contour and said first fan nacelle section including a trailing edge region that defines a convex internal contour; characterised in that the shape of the leading edge region and the shape of the trailing edge region are shape decoupled and wherein the leading edge region and/or the trailing edge region includes a flexible surface (70, 70-1, 70-2), the flexible surface (70, 70-1, 70-2) included on one of the leading edge region or trailing edge region being mechanically compressed by engagement with the other of the leading edge region or trailing edge region.
Method for freshening the air of the cabin of a motor vehicle, involving an air-freshening system comprising an ultrasonic nebuliser placed in a reservoir and immersed in a nebulisation liquid from which the nebuliser generates fine droplets, and means (5, 6) for entraining said fine droplets towards the cabin of the vehicle; the air-freshening system being activated in operation if at least the condition according to which the level of the nebulisation liquid in the reservoir is sufficient to ensure the functioning of the ultrasonic nebuliser is fulfilled, characterised in that the air-freshening system is able to provide the freshening of the rear passengers of the motor vehicle and is activated in operation if at least one condition according to which the ventilators situated at the rear seats of the motor vehicle are in the open position, is fulfilled.
Refrigeration device having a first refrigeration compartment for storing refrigerated goods at a first temperature, said first refrigeration compartment comprising a first evaporator with a first controllable expansion valve at the refrigerant inlet of the first evaporator, and a second refrigeration compartment for storing refrigerated goods at a second temperature, said second refrigeration compartment comprising a second evaporator with a second controllable expansion valve at the refrigerant inlet of the second evaporator, wherein a refrigerant outlet of the first evaporator is connected to the second controllable expansion valve at the refrigerant inlet of the second evaporator, characterised in that the refrigeration device comprises a compressor with a regulatable speed, wherein the compressor is in continuous operation in order to keep the temperatures in the refrigeration compartments (101-1, 101-2) constant.
Use of a culture system for quantitative functional assays for measuring the effects of substances on neural cells comprising: (a) a solid substrate with an extracellular matrix deposited thereon, wherein the extracellular matrix is deposited by: (i) a mesenchymal stem cell, or (ii) a MSC that has been transfected with a nucleic acid, wherein the nucleic acid encodes a Notch intracellular domain but does not encode full-length Notch protein; (b) embryonic cortical cells; and (c) a test substance, wherein the test substance is a chemical compound, a polypeptide, a test cell, a test cell culture or test conditioned medium from a cell culture. (a) a solid substrate with an extracellular matrix deposited thereon, wherein the extracellular matrix is deposited by: (i) a mesenchymal stem cell, or (ii) a MSC that has been transfected with a nucleic acid, wherein the nucleic acid encodes a Notch intracellular domain but does not encode full-length Notch protein; (i) a mesenchymal stem cell, or (ii) a MSC that has been transfected with a nucleic acid, wherein the nucleic acid encodes a Notch intracellular domain but does not encode full-length Notch protein; (b) embryonic cortical cells; and (c) a test substance,
An abrasive for jet cutting comprising particles of a stainless steel, the stainless steel consisting of a microstructure, wherein the microstructure comprises at least: - martensite, in particular in a range from ≥ 20 wt% to < 100 wt%, - austenite in a range from ≥ 5 wt% to ≤ 50 wt%, and - chromium carbide, chromium nitride and/or mixtures thereof, together in a range from ≥ 0 wt% to ≤ 45 wt%, relative to the microstructure, the proportions being selected such that together they amount to 100 wt% relative to the microstructure; wherein the stainless steel consists of an alloy, comprising: - chromium in a range from ≥ 10 wt% to ≤ 35 wt%, - molybdenum in a range from ≥ 0 wt% to ≤ 3 wt%, - nickel in a range from ≥ 0 wt% to ≤ 1 wt%, - carbon in a range from ≥ 0 wt% to ≤ 2.5 wt%, - nitrogen in a range from ≥ 0 wt% to ≤ 2.5 wt%, - trace elements in a range from ≥ 0 wt% to ≤ 1 wt%, and - remainder: iron, based on the alloy, wherein the alloy contains carbon and nitrogen together in a range from ≥ 0.2 wt% to ≤ 2.5 wt% based on the alloy. - martensite, in particular in a range from ≥ 20 wt% to < 100 wt%, - austenite in a range from ≥ 5 wt% to ≤ 50 wt%, and - chromium carbide, chromium nitride and/or mixtures thereof, together in a range from ≥ 0 wt% to ≤ 45 wt%, relative to the microstructure, the proportions being selected such that together they amount to 100 wt% relative to the microstructure; wherein the stainless steel consists of an alloy, comprising: - chromium in a range from ≥ 10 wt% to ≤ 35 wt%, - molybdenum in a range from ≥ 0 wt% to ≤ 3 wt%, - nickel in a range from ≥ 0 wt% to ≤ 1 wt%, - carbon in a range from ≥ 0 wt% to ≤ 2.5 wt%, - nitrogen in a range from ≥ 0 wt% to ≤ 2.5 wt%, - trace elements in a range from ≥ 0 wt% to ≤ 1 wt%, and - remainder: iron, based on the alloy, wherein the alloy contains carbon and nitrogen together in a range from ≥ 0.2 wt% to ≤ 2.5 wt% based on the alloy. relative to the microstructure, the proportions being selected such that together they amount to 100 wt% relative to the microstructure; wherein the stainless steel consists of an alloy, comprising: - chromium in a range from ≥ 10 wt% to ≤ 35 wt%, - molybdenum in a range from ≥ 0 wt% to ≤ 3 wt%, - nickel in a range from ≥ 0 wt% to ≤ 1 wt%, - carbon in a range from ≥ 0 wt% to ≤ 2.5 wt%, - nitrogen in a range from ≥ 0 wt% to ≤ 2.5 wt%, - trace elements in a range from ≥ 0 wt% to ≤ 1 wt%, and - remainder: iron, - chromium in a range from ≥ 10 wt% to ≤ 35 wt%, - molybdenum in a range from ≥ 0 wt% to ≤ 3 wt%, - nickel in a range from ≥ 0 wt% to ≤ 1 wt%, - carbon in a range from ≥ 0 wt% to ≤ 2.5 wt%, - nitrogen in a range from ≥ 0 wt% to ≤ 2.5 wt%, - trace elements in a range from ≥ 0 wt% to ≤ 1 wt%, and - remainder: iron, based on the alloy, wherein the alloy contains carbon and nitrogen together in a range from ≥ 0.2 wt% to ≤ 2.5 wt% based on the alloy.
A roller bar for a suction nozzle, that rotates about a longitudinal axis, comprises a body having an outer lateral surface which is with a distance from the axis by a radius of a length, and at least one element of a height for dust pickup that substantially radially outwardly extending from the body characterized in that the length of the radius and the height of the element for dust pickup change along the longitudinal axis with respect to at least a portion of the body, and in that the sum of the length of the radius and the height of the element along the longitudinal axis of the body adopts a fixed value.
A crystalline form of (1r,4r)-6'-fluoro-N,N-dimethyl-4-phenyl-4',9'-dihydro-3'H-spiro-[cyclohexane-1,1'-pyrano[3,4,b]indol]-4-amine, which is an alcohol solvate.
An additive manufacturing method, the method comprising: (a) positioning multiple foil drums (14A-14C) of an ultrasonic consolidation system so as to place a first selected foil on top of a build platform; and characterised by the following steps: (b) welding the first selected foil onto the build platform or a previously processed layer; (c) selectively cutting a portion of the welded foil with a laser beam emitted from a laser source in accordance with a computer aided design file containing data that defines an object; (d) retracting the multiple foil drums (14A-14C) away from the build platform; (e) ultrasonically consolidating the portion of the welded foil to the object; (f) incrementally lowering the build platform; (g) repositioning the multiple foil drums (14A-14C) so as to place a second selected foil over the build platform; (h) repeating steps (b)-(e); and wherein the build platform is capable of vertical movement in a direction orthogonal to a plane of the build platform, and wherein the build platform is capable of rotational movement. (a) positioning multiple foil drums (14A-14C) of an ultrasonic consolidation system so as to place a first selected foil on top of a build platform; and characterised by the following steps: (b) welding the first selected foil onto the build platform or a previously processed layer; (c) selectively cutting a portion of the welded foil with a laser beam emitted from a laser source in accordance with a computer aided design file containing data that defines an object; (d) retracting the multiple foil drums (14A-14C) away from the build platform; (e) ultrasonically consolidating the portion of the welded foil to the object; (f) incrementally lowering the build platform; (g) repositioning the multiple foil drums (14A-14C) so as to place a second selected foil over the build platform; (h) repeating steps (b)-(e); and wherein the build platform is capable of vertical movement in a direction orthogonal to a plane of the build platform, and wherein the build platform is capable of rotational movement.
Method for printing a three-dimensional structure by depositing droplets of printing ink at least partially side by side and one above the other, comprising the following steps: - depositing droplets of printing ink in a first printing step in order to build up an intermediate first pre-structure, - depositing droplets of printing ink in a second printing step in order to build up an intermediate second pre-structure on at least one side of the first pre-structure, - rotating the first pre-structure and arranging the first pre-structure on a support structure in a rearrangement step between the first and the second printing step, - wherein the support structure comprises a carrier substructure, characterized in that the support structure further comprises a deformation-control substructure, wherein the deformation-control substructure comprises a pressure chamber, wherein the pressure in the pressure chamber is dynamically adjusted to cancel the forces deforming the first pre-structure and/or the second pre-structure. - depositing droplets of printing ink in a first printing step in order to build up an intermediate first pre-structure, - depositing droplets of printing ink in a second printing step in order to build up an intermediate second pre-structure on at least one side of the first pre-structure, - rotating the first pre-structure and arranging the first pre-structure on a support structure in a rearrangement step between the first and the second printing step, - wherein the support structure comprises a carrier substructure,
A radiography system comprising: a mammography apparatus that includes a compression member which compresses a breast placed between a radiation source and a radiation detector and has a first surface irradiated with radiation from the radiation source and a second surface opposite to the first surface and coming into contact with the breast and in which first position identification information for identifying an in-plane position of the first surface or the second surface is given to any one of the first surface or the second surface and that captures a radiographic image of the breast in the compressed state using the radiation detector; a first display control unit that performs control to display the radiographic image captured by the mammography apparatus on a display device; and a second display control unit that performs control to display second position identification information which indicates a position on the radiographic image corresponding to the in-plane position of the compression member and corresponds to the first position identification information on the radiographic image displayed on the display device; characterised in that the second display control unit performs control to display the second position identification information in a case in which continuous imaging is performed by capturing an ultrasound image of the breast while maintaining the compressed state after capturing the radiographic image. a mammography apparatus that includes a compression member which compresses a breast placed between a radiation source and a radiation detector and has a first surface irradiated with radiation from the radiation source and a second surface opposite to the first surface and coming into contact with the breast and in which first position identification information for identifying an in-plane position of the first surface or the second surface is given to any one of the first surface or the second surface and that captures a radiographic image of the breast in the compressed state using the radiation detector; a first display control unit that performs control to display the radiographic image captured by the mammography apparatus on a display device; and a second display control unit that performs control to display second position identification information which indicates a position on the radiographic image corresponding to the in-plane position of the compression member and corresponds to the first position identification information on the radiographic image displayed on the display device; characterised in that the second display control unit performs control to display the second position identification information in a case in which continuous imaging is performed by capturing an ultrasound image of the breast while maintaining the compressed state after capturing the radiographic image.
A method of drilling by means of a drill head with an end portion, wherein at least two electrodes are arranged at the end portion, the method comprising: moving, by means of an actuation system, the drill head adjacent to a surface to be broken up, applying, by means of a voltage generator, a voltage between the electrodes resulting in one or more electric discharges between the electrodes, the one or more discharges resulting in one or more electric arcs for breaking up the surface, and wherein a minimum gap distance is provided between the at least two electrodes of the drill head and the surface during generation of the one or more electric arcs, measuring, by means of a sensor measurement system, at least one value indicative of a property of the generated one or more electric arcs, and controlling, by means of a control system, one or more operational parameters of the actuation system such as to adjust the minimum gap distance between the drill head and the surface based on the at least one value. moving, by means of an actuation system, the drill head adjacent to a surface to be broken up, applying, by means of a voltage generator, a voltage between the electrodes resulting in one or more electric discharges between the electrodes, the one or more discharges resulting in one or more electric arcs for breaking up the surface, and wherein a minimum gap distance is provided between the at least two electrodes of the drill head and the surface during generation of the one or more electric arcs, measuring, by means of a sensor measurement system, at least one value indicative of a property of the generated one or more electric arcs, and controlling, by means of a control system, one or more operational parameters of the actuation system such as to adjust the minimum gap distance between the drill head and the surface based on the at least one value.
A method for producing a high-purity polycrystalline silicon containing carbon of lower than 0.05 ppma using chlorosilanes by CVD method, wherein a quality determination is performed by analyzing a content of methyldichlorosilane and isopentane by GC/MS-SIM method, and trichlorosilane satisfying conditions based on quality determination criteria of 0.01 ppmw or lower and 0.05 ppmw or lower, respectively, for the contents of methyldichlorosilane and isopentane is used as the chlorosilanes, and wherein the analysis of the impurities is performed according to the GC/MS-SIM method by using, as a separation column, a column having a non-polar column and a medium-polar column connected in series with each other.
A device, comprising: a display; a processor configured to cause a graphical user interface to be presented on the display, wherein the graphical user interface is configured to simultaneously interact with multiple different users (104, 104) on a shared space of the graphical user interface and is further configured to allow individual identified users to be presented with respective personal spaces on portions of the shared space via which secondary functionality can be accessed; and sensors (1702, 1704, 1808) configured to detect and identify the multiple different users when the individual users perform user commands to interact with the graphical user interface, wherein each user identification is associated with a confidence level; wherein the processor is further configured to provide access to individual features of secondary functionality, at least one feature comprising personal data of an individual identified user on the graphical user interface via the personal space of the individual identified user; and wherein the confidence level associated with the user identification is above a threshold specified for the individual feature being accessed. a display; a processor configured to cause a graphical user interface to be presented on the display, wherein the graphical user interface is configured to simultaneously interact with multiple different users (104, 104) on a shared space of the graphical user interface and is further configured to allow individual identified users to be presented with respective personal spaces on portions of the shared space via which secondary functionality can be accessed; and sensors (1702, 1704, 1808) configured to detect and identify the multiple different users when the individual users perform user commands to interact with the graphical user interface, wherein each user identification is associated with a confidence level; wherein the processor is further configured to provide access to individual features of secondary functionality, at least one feature comprising personal data of an individual identified user on the graphical user interface via the personal space of the individual identified user; and wherein the confidence level associated with the user identification is above a threshold specified for the individual feature being accessed.
Apparatus for loading using a telescopic loading device, in particular a loading vehicle, comprising at least one telescopic boom which is equipped with a telescopic drive and whose rear boom end on the vehicle side is articulated so as to be pivotable on a frame and whose free boom end can be coupled to a loading tool, wherein the boom can additionally be moved between a lower operating position and an upper operating position by means of a pivot drive, wherein the boom length in conjunction with the boom pivot position is limited by a control unit, which is allocated to the telescopic drive and the pivot drive, to a range which does not, or does not substantially, pass through a virtual, perpendicular plane, which is positioned perpendicularly on the boom pivot axis, in the region of the free boom end, wherein the normal spacing between the plane and the boom pivot axis is smaller than the longest boom length (Lg), characterised in that the lifting function can be manually superimposed upon the control unit of the telescopic drive and the pivot drive, wherein the normal spacing between the plane, which limits the permitted lifting range, and the boom pivot axis can be specified by the control unit as a function of the load, taking into account corresponding safety measures to prevent the vehicle from tipping over.