mhurhangee/ep-ind-claims huggingface dataset:
An apparatus comprising: a vehicle comprising a gas turbine engine having a fluid flow path, an intake, a compressor, a combustion chamber, a turbine, and an exhaust, the fluid flow path leading from the intake to the compressor, the combustion chamber, the turbine, and to the exhaust; a cooling system having a heat exchange member structured to cool air in a passage, the passage in communication with the turbine, and the air including water vapor; a liquid flow path in communication with the fluid flow path of the gas turbine engine and structured to convey water condensed from the air via the heat exchange member and route the water into the fluid flow path of gas turbine engine, wherein the passage is configured to extract the air from a compressor flow path, wherein the passage is configured to route the air, subsequent to the heat exchange member, to a turbine thereby cooling the turbine, and wherein the liquid flow path is configured to route water to the compressor flow path upstream of a bladed rotor of a compressor. a vehicle comprising a gas turbine engine having a fluid flow path, an intake, a compressor, a combustion chamber, a turbine, and an exhaust, the fluid flow path leading from the intake to the compressor, the combustion chamber, the turbine, and to the exhaust; a cooling system having a heat exchange member structured to cool air in a passage, the passage in communication with the turbine, and the air including water vapor; a liquid flow path in communication with the fluid flow path of the gas turbine engine and structured to convey water condensed from the air via the heat exchange member and route the water into the fluid flow path of gas turbine engine, wherein the passage is configured to extract the air from a compressor flow path, wherein the passage is configured to route the air, subsequent to the heat exchange member, to a turbine thereby cooling the turbine, and wherein the liquid flow path is configured to route water to the compressor flow path upstream of a bladed rotor of a compressor.
Active ingredient combinations comprising (I-1) N-{2-[3-chloro-5-(trifluoromethyl)-2-pyridinyl]ethyl}-2-trifluoromethylbenzamide of formula and also its N-oxides and the active insecticidal or nematicidal ingredient pyrethrum (II-21). (I-1) N-{2-[3-chloro-5-(trifluoromethyl)-2-pyridinyl]ethyl}-2-trifluoromethylbenzamide of formula and also its N-oxides and the active insecticidal or nematicidal ingredient pyrethrum (II-21).
A method comprising, (a) adjusting the water content of a M n+1 X n (T s) composition to form a compressible paste wherein the ratio of water to M n+1 X n (T s) is in a range of from 0.3 to 0.65 on a mass basis; and (b) compressing the M n+1 X n (T s) composition with a pressure of at least 34.5 kPa gauge (5 psig) to form a solid body; said M n+1 X n (T s) composition having multiple layers, each layer having a first and second surface, each layer comprising a substantially two-dimensional array of crystal cells. each crystal cell having an empirical formula of M n+1 X n, such that each X is positioned within an octahedral array of M, wherein M is at least one Group 3, 4, 5, 6, or 7 metal, wherein each X is C, N, or a combination thereof and n = 1, 2, or 3; wherein at least one of said surfaces of the layers has surface terminations, T s, independently comprising alkoxide, alkyl, carboxylate, halide, hydroxide, hydride, oxide, sub-oxide, nitride, sub-nitride, sulfide, sulfonate, thiol, or a combination thereof; said solid body being electrically conductive and exhibiting a volumetric capacity of at least 500 F/cm 3 when tested with a 1 M H 2 SO 4 electrolyte at a scan rate of 20 mV/s. (a) adjusting the water content of a M n+1 X n (T s) composition to form a compressible paste wherein the ratio of water to M n+1 X n (T s) is in a range of from 0.3 to 0.65 on a mass basis; and (b) compressing the M n+1 X n (T s) composition with a pressure of at least 34.5 kPa gauge (5 psig) to form a solid body; a substantially two-dimensional array of crystal cells. each crystal cell having an empirical formula of M n+1 X n, such that each X is positioned within an octahedral array of M, wherein M is at least one Group 3, 4, 5, 6, or 7 metal, wherein each X is C, N, or a combination thereof and n = 1, 2, or 3; wherein at least one of said surfaces of the layers has surface terminations, T s, independently comprising alkoxide, alkyl, carboxylate, halide, hydroxide, hydride, oxide, sub-oxide, nitride, sub-nitride, sulfide, sulfonate, thiol, or a combination thereof; said solid body being electrically conductive and exhibiting a volumetric capacity of at least 500 F/cm 3 when tested with a 1 M H 2 SO 4 electrolyte at a scan rate of 20 mV/s.
An application starting method performed by a terminal device, wherein the method comprises: • detecting (S 101) ∘ a magnetic field strength, ∘ a motion acceleration; ∘ a light intensity; ∘ a distance from an obstacle to the terminal device; ∘ motion acceleration of the terminal device; ∘ a motion speed of the terminal device; ∘ a change rate of the motion acceleration of the terminal device; ∘ whether a Bluetooth device connected to the terminal device is an in-vehicle Bluetooth device; and • starting, when the magnetic field strength is greater than a magnetic field strength threshold and at least two of the following conditions are met: the light intensity is not less than a light intensity threshold, the distance is greater than a distance threshold, the acceleration is not less than an acceleration threshold, the speed is not less than a speed threshold, the change rate is not less than a change rate threshold, and the Bluetooth device connected to the terminal device is an in-vehicle Bluetooth device, an application corresponding to the magnetic field strength threshold. • detecting (S 101) ∘ a magnetic field strength, ∘ a motion acceleration; ∘ a light intensity; ∘ a distance from an obstacle to the terminal device; ∘ motion acceleration of the terminal device; ∘ a motion speed of the terminal device; ∘ a change rate of the motion acceleration of the terminal device; ∘ whether a Bluetooth device connected to the terminal device is an in-vehicle Bluetooth device; and ∘ a magnetic field strength, ∘ a motion acceleration; ∘ a light intensity; ∘ a distance from an obstacle to the terminal device; ∘ motion acceleration of the terminal device; ∘ a motion speed of the terminal device; ∘ a change rate of the motion acceleration of the terminal device; ∘ whether a Bluetooth device connected to the terminal device is an in-vehicle Bluetooth device; and • starting, when the magnetic field strength is greater than a magnetic field strength threshold and at least two of the following conditions are met: the light intensity is not less than a light intensity threshold, the distance is greater than a distance threshold, the acceleration is not less than an acceleration threshold, the speed is not less than a speed threshold, the change rate is not less than a change rate threshold, and the Bluetooth device connected to the terminal device is an in-vehicle Bluetooth device, an application corresponding to the magnetic field strength threshold.
Multi-pass optical cell with an internal space for laser spectroscopy, characterized in that the multi-pass optical cell comprises an absorption mask which is permanently or removable mountable in the internal space in a rotatably fixed manner, where in a mask wall a plurality of m apertures is formed, in which the position of each aperture is adapted to a predefinable propagation path of a main optical beam and/or the resulting reflection spot pattern defined by the geometry of the multi-pass optical cell and the used angle of incidence of an initial beam, so that each aperture is traversable by the main optical beam from a first side to a second side.
A thermoelectric cooler, TEC, control circuit (110, 310) configured to control a temperature of a TEC device by driving the TEC device differentially, the TEC control circuit comprising: a linear regulator circuit (226, 326) connected to a first reference voltage (240A, 340D) and configured to receive power from a shared power supply voltage (PVIN), the linear regulator circuit comprising an output stage, the output stage comprising an output configured to drive a TEC device first input node (270, 270A); a switched-mode regulator circuit (228, 328) connected to a second reference voltage and configured to receive power from the shared power supply voltage (PVIN), the switched-mode regulator circuit comprising an output configured to drive a TEC device second input node; a current sensing circuit configured to provide a signal indicative of a current sourced or sunk by the TEC device through the output of the output stage of the linear regulator circuit; and a back-drive compensation circuit (230, 330, 430A, 430B) comprising a difference amplifier (U1, U2) having a first input coupled to the TEC device first input node, a second input coupled to a reference potential (440, CONTROL), and an output coupled to a clamp circuit (342, 342', 344, 344', M1, M2), wherein the difference amplifier is configured to drive the clamp circuit to inhibit the TEC device first input node from being driven beyond a specified reference voltage at or near a transition between heating and cooling operational modes of the TEC device. a linear regulator circuit (226, 326) connected to a first reference voltage (240A, 340D) and configured to receive power from a shared power supply voltage (PVIN), the linear regulator circuit comprising an output stage, the output stage comprising an output configured to drive a TEC device first input node (270, 270A); a switched-mode regulator circuit (228, 328) connected to a second reference voltage and configured to receive power from the shared power supply voltage (PVIN), the switched-mode regulator circuit comprising an output configured to drive a TEC device second input node; a current sensing circuit configured to provide a signal indicative of a current sourced or sunk by the TEC device through the output of the output stage of the linear regulator circuit; and a back-drive compensation circuit (230, 330, 430A, 430B) comprising a difference amplifier (U1, U2) having a first input coupled to the TEC device first input node, a second input coupled to a reference potential (440, CONTROL), and an output coupled to a clamp circuit (342, 342', 344, 344', M1, M2), wherein the difference amplifier is configured to drive the clamp circuit to inhibit the TEC device first input node from being driven beyond a specified reference voltage at or near a transition between heating and cooling operational modes of the TEC device.
A medical imaging apparatus comprising: a table, on which a subject lies and that is configured to carry the subject; a gantry, that forms an internal space and is configured to scan the subject carried into the internal space; a screen unit, mounted on the gantry or outside the gantry; and an image projector, that is configured to project an image onto the screen unit, wherein the screen unit is configured to reflect and display the projected image, CHARACTERISED IN THAT the screen unit comprises a push/pull screen unit mounted on the gantry and configured to to be pushed into the gantry or pulled out of the gantry. a table, on which a subject lies and that is configured to carry the subject; a gantry, that forms an internal space and is configured to scan the subject carried into the internal space; a screen unit, mounted on the gantry or outside the gantry; and an image projector, that is configured to project an image onto the screen unit, wherein the screen unit is configured to reflect and display the projected image, CHARACTERISED IN THAT the screen unit comprises a push/pull screen unit mounted on the gantry and configured to to be pushed into the gantry or pulled out of the gantry.
A plastic pallet, comprising a hollow lower part provided with ribs and runners, and an upper part welded thereto and provided with ribs, wherein the lower part comprises an edging with a protruding shoulder which is set back in relation to the upper part, and the upper part comprises an edge which is bent downwards and engages around the edging of the lower part, characterized in that the bent edge is supported with its front end on the protruding shoulder and is welded together with said shoulder, and the upper edge of the edging is welded together with the bottom side of the upper part, so that a crush zone is formed between the edge and the edging.
A labelling machine for applying at least one first label (10a; 10b) onto a first article (11, 11a; 11, 11b) and a second label (10b; 10a) onto a second article (11, 11b; 11, 11a) respectively, comprising: - feeding means (150; 3) controllable to advance a succession of said first article (11, 11a; 11, 11b) and second article (11, 11b; 11, 11a) along a path and with a first speed; - a first labelling group (4; 5), which comprises, in turn, a first tool configured for applying a first label onto said first article (11, 11a; 11, 11b) and which can be operated, in use, with a second speed associated to said first speed; - gap creating means (110; 111, 112) selectively controllable to create a first gap, which is arranged inside said succession and is bounded between said first article (11, 11a; 11, 11b) and said second article (11, 11b; 11, 11a); and - a second labelling group (5; 4), which comprises, in turn, a second tool configured for applying said second label (10b; 10a) at said second speed onto said second article (11, 11b); characterized in that the labelling machine comprises a control unit programmed for decelerating, in use, said first labelling group (4; 5) from said second speed and for accelerating, in use, said second labelling group (5; 4) up to said second speed, when said gap creating means (110; 111, 112) creates, in use, said first gap in said succession of first articles (11, 11a; 11, 11b) and subsequent second articles (11, 11b; 11, 11a). - feeding means (150; 3) controllable to advance a succession of said first article (11, 11a; 11, 11b) and second article (11, 11b; 11, 11a) along a path and with a first speed; - a first labelling group (4; 5), which comprises, in turn, a first tool configured for applying a first label onto said first article (11, 11a; 11, 11b) and which can be operated, in use, with a second speed associated to said first speed; - gap creating means (110; 111, 112) selectively controllable to create a first gap, which is arranged inside said succession and is bounded between said first article (11, 11a; 11, 11b) and said second article (11, 11b; 11, 11a); and - a second labelling group (5; 4), which comprises, in turn, a second tool configured for applying said second label (10b; 10a) at said second speed onto said second article (11, 11b);
A method of selectively etching silicon dioxide (SiO 2) from silicon nitride (Si 3 N 4) in a process chamber so as to produce one or more microstructures, the method comprising: providing the process chamber with an etching vapour comprising hydrogen fluoride; and characterised in that an etch operating temperature is set to below 20°C. providing the process chamber with an etching vapour comprising hydrogen fluoride; and characterised in that an etch operating temperature is set to below 20°C.
Top-gripping beverage can carrier, comprising a main panel of cardboard sheet material having at least one can receiving aperture, wherein the main panel is provided with a series of locking tabs hingedly connected to the main panel by means of a respective fold line, and disposed around the can receiving aperture, wherein each locking tab extends from the respective fold line towards a retaining edge for engaging an underside of a radially protruding portion of a beverage can to be received in the can receiving aperture, wherein said retaining edge is located more inwardly with respect to the can receiving aperture than said fold line, wherein each locking tab can pivot about the respective fold line from an initial position of the respective locking tab, in which said respective locking tab lies substantially in line with the main panel, towards a folded up position in which said locking tab is under an angle with the main panel, characterized in that the main panel includes a series of neck support sections being integral parts of the main panel, wherein said neck support sections are thus not formed as tabs hingedly connected to the main panel, but are integral parts of said main panel, and wherein said neck support sections define neck support edges being located more inwardly with respect to the can receiving aperture than the fold lines of the locking tabs, and in that, at least in the initial position of the locking tabs, the retaining edges of the locking tabs extend more inwardly with respect to the can receiving aperture than the neck support edges. wherein the main panel is provided with a series of locking tabs hingedly connected to the main panel by means of a respective fold line, and disposed around the can receiving aperture, wherein each locking tab extends from the respective fold line towards a retaining edge for engaging an underside of a radially protruding portion of a beverage can to be received in the can receiving aperture, wherein said retaining edge is located more inwardly with respect to the can receiving aperture than said fold line, wherein each locking tab can pivot about the respective fold line from an initial position of the respective locking tab, in which said respective locking tab lies substantially in line with the main panel, towards a folded up position in which said locking tab is under an angle with the main panel, characterized in that the main panel includes a series of neck support sections being integral parts of the main panel, wherein said neck support sections are thus not formed as tabs hingedly connected to the main panel, but are integral parts of said main panel, and wherein said neck support sections define neck support edges being located more inwardly with respect to the can receiving aperture than the fold lines of the locking tabs, and in that, at least in the initial position of the locking tabs, the retaining edges of the locking tabs extend more inwardly with respect to the can receiving aperture than the neck support edges.
Device for handling valuable documents, having a box receiving region for receiving cash boxes, a first transporting unit for transporting valuable documents between a header module of the device and the cash boxes that are receivable in the box receiving region, a first diverter arranged at the header-module-side end of the first transporting unit, a stacking unit for stacking the valuable documents removed from the cash boxes into a valuable-document bundle to be dispensed, a depositing and/or dispensing compartment for dispensing and/or depositing valuable documents, a reject and retract container for receiving rejected valuable documents and valuable documents that have not been removed, and having a second transporting unit for transporting valuable documents between the stacking unit, the depositing and/or dispensing compartment and the reject and retract container, wherein the first diverter, in a first diverter position, feeds a valuable document removed from a cash box to the stacking unit and, in a second diverter position, feeds a valuable document removed from a cash box to the second transporting unit.
A stretchable antenna, comprising: a flexible support structure comprising a lateral spring section having a proximal end and a distal end; a metallic antenna disposed on at least a portion of the lateral spring section, the metallic antenna extending along the lateral spring section from the proximal end; and a metallic feed coupled to the metallic antenna at the proximal end of the lateral spring section, wherein the lateral spring section has a width w in a plane defined by the proximal end and the distal end, and wherein the lateral spring section elongates along a direction from the proximal end to the distal end, and the width w rotates out of the plane. a flexible support structure comprising a lateral spring section having a proximal end and a distal end; a metallic antenna disposed on at least a portion of the lateral spring section, the metallic antenna extending along the lateral spring section from the proximal end; and a metallic feed coupled to the metallic antenna at the proximal end of the lateral spring section, wherein the lateral spring section has a width w in a plane defined by the proximal end and the distal end, and wherein the lateral spring section elongates along a direction from the proximal end to the distal end, and the width w rotates out of the plane.
Metal reinforcement sheet of a B-pillar of a vehicle bodywork, which sheet comprises a hot-formed tailor rolled blank, extends over the entire height of the B-pillar and has different sheet thicknesses at different heights of the B-pillar, characterized in that the regions of different sheet thicknesses are arranged symmetrically over the height of the B-pillar with respect to the region of the greatest sheet thickness, wherein the metal reinforcement sheet, in the lower portion in which the B-pillar adjoins the door sill, is not part of the symmetrical arrangement of the sheet thicknesses.
A method of producing a nonwoven fabric, comprising the steps of: supplying a first sheet-forming material comprising fiber and water onto a belt moving in one direction, to form a first sheet layer on the belt, spraying a high-pressure water jet onto the first sheet layer to form grooves extending in the machine direction on the surface of the first sheet layer, forming a second sheet-forming material comprising fibers, heat-expanding particles and water into a sheet to form a second sheet layer, layering the first sheet layer and the second sheet layer to form a third sheet layer, drying the third sheet layer, and spraying high-pressure steam onto the third sheet layer from a steam nozzle to expand the heat-expanding particles. supplying a first sheet-forming material comprising fiber and water onto a belt moving in one direction, to form a first sheet layer on the belt, spraying a high-pressure water jet onto the first sheet layer to form grooves extending in the machine direction on the surface of the first sheet layer, forming a second sheet-forming material comprising fibers, heat-expanding particles and water into a sheet to form a second sheet layer, layering the first sheet layer and the second sheet layer to form a third sheet layer, drying the third sheet layer, and spraying high-pressure steam onto the third sheet layer from a steam nozzle to expand the heat-expanding particles.
A glass article, the glass article having a surface (110;112) and a layer (120;122) under compressive stress extending from the surface (110;112) to a depth of layer, wherein the compressive stress is at least 900 MPa and the depth of layer is at least 30 μm, and wherein the glass article comprises: at least 50 mol% SiO 2; from 7 mol% to 26 mol% Al 2 O 3; from 0 mol% to 9 mol% B 2 O 3; from 11 mol% to 25 mol% Na 2 O; from 0 mol% to 2.5 mol% K 2 O; from 0 mol% to 8.5 mol% MgO; from 0 mol% to 1.5 mol% CaO; and at least one of B 2 O 3, K 2 O, MgO and ZnO, wherein -340 + 27.1·Al 2 O 3 - 28.7·B 2 O 3 + 15.6·Na 2 O - 61.4·K 2 O + 8.1·(MgO + ZnO) ≥ 0 mol%; wherein 0 mol% < Na 2 O + K 2 O - Al 2 O 3 - MgO - ZnO ≤ 4 mol%; and wherein the glass article is ion exchanged. at least 50 mol% SiO 2; from 7 mol% to 26 mol% Al 2 O 3; from 0 mol% to 9 mol% B 2 O 3; from 11 mol% to 25 mol% Na 2 O; from 0 mol% to 2.5 mol% K 2 O; from 0 mol% to 8.5 mol% MgO; from 0 mol% to 1.5 mol% CaO; and at least one of B 2 O 3, K 2 O, MgO and ZnO, wherein -340 + 27.1·Al 2 O 3 - 28.7·B 2 O 3 + 15.6·Na 2 O - 61.4·K 2 O + 8.1·(MgO + ZnO) ≥ 0 mol%; wherein 0 mol% < Na 2 O + K 2 O - Al 2 O 3 - MgO - ZnO ≤ 4 mol%; and wherein the glass article is ion exchanged.