mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for tying a wire around one or more objects comprising means (38a, 38b, 38c, 8) for passing said wire in a loop around the objects and means for twisting the ends of said loop together, said twisting means comprising at least one gripping means (32, 32a, 36) for gripping the wire so that the wire does not slip therethrough characterised in that the apparatus comprises means (52, 54) for applying a biasing force between the twisting means and an object being tied such that as said wire is twisted the twisting means is drawn towards the object against said biasing force.
A compound comprising a modified oligonucleotide consisting of 18 to 24 linked nucleosides and comprising a nucleobase sequence comprising a portion of at least 8 contiguous nucleobases 100% complementary to an equal length portion of nucleobases 1275 to 1318 of SEQ ID NO: 1, wherein the nucleobase sequence of the modified oligonucleotide is 100% complementary to an equal length portion of SEQ ID NO: 1, and wherein the compound is capable of inhibiting the expression of human Factor 11.
A turbine blade sealing structure for a ceramic matrix composite turbine blade with a shank comprising: at least one top ply abutting a top portion of the shank, the at least one top ply extending out over the top portion of the shank; and at least one side ply abutting a side portion of the shank, the at least one side ply extending along a side portion of the shank, wherein the at least one top ply and at least one side ply form an angel wing on the shank and wherein the at least one side ply forms a skirt on the shank of the ceramic matrix composite turbine blade, characterized in that the angel wing of the turbine blade sealing structure further comprises at least one of a spacer or insert pack of plies between the at least one top ply and the at least one side ply. at least one top ply abutting a top portion of the shank, the at least one top ply extending out over the top portion of the shank; and at least one side ply abutting a side portion of the shank, the at least one side ply extending along a side portion of the shank, wherein the at least one top ply and at least one side ply form an angel wing on the shank and wherein the at least one side ply forms a skirt on the shank of the ceramic matrix composite turbine blade, characterized in that the angel wing of the turbine blade sealing structure further comprises at least one of a spacer or insert pack of plies between the at least one top ply and the at least one side ply.
A system for remote powering at least one sensor or actuator (20, 20') from a RF power source, comprising a flexible waveguide comprising: a flexible dielectric layer and at least one flexible conductive layer (1; 2) connected to said flexible dielectric layer, said at least one sensor or actuator (20, 20'), arranged to be coupled to said flexible waveguide, said RF power source, arranged to be wirelessly coupled to said flexible waveguide and to generate RF power, the flexible waveguide guiding the propagation of said RF power from said RF power source to said at least one sensor or actuator (20, 20') in order to wirelessly power said at least one sensor or actuator (20, 20'), characterized in that the RF power source is placed in the flexible dielectric layer, such that it is inside the flexible waveguide. a flexible dielectric layer and at least one flexible conductive layer (1; 2) connected to said flexible dielectric layer, said at least one sensor or actuator (20, 20'), arranged to be coupled to said flexible waveguide, said RF power source, arranged to be wirelessly coupled to said flexible waveguide and to generate RF power, the flexible waveguide guiding the propagation of said RF power from said RF power source to said at least one sensor or actuator (20, 20') in order to wirelessly power said at least one sensor or actuator (20, 20'), characterized in that the RF power source is placed in the flexible dielectric layer, such that it is inside the flexible waveguide.
A type of multifunctional moxibustion box, comprising: a casing, wherein an upper portion and a lower portion of the casing are respectively provided with an opening, the upper opening extends to a rim of the casing and the lower opening extends to a base; a double-sided tape, which is set under the base of the casing; a moxibustion mesh sleeve, wherein the length of the sleeve is shorter than the length of the casing, an upper portion and a bottom portion of the moxibustion mesh sleeve are respectively provided with an upper opening and a bottom opening, and the rest of the moxibustion mesh sleeve has a mesh structure; characterized in that an upper part of an outer edge of the moxibustion mesh sleeve is provided with a flange, the moxibustion mesh sleeve is nested on the upper rim of the casing, and the flange is blocked on the upper rim of the casing; and wherein a hollow column is formed from the bottom of the moxibustion mesh sleeve, extending from the periphery of the bottom opening towards the direction of the upper opening; allowing a moxibustion roll to be fitted on the hollow column. a casing, wherein an upper portion and a lower portion of the casing are respectively provided with an opening, the upper opening extends to a rim of the casing and the lower opening extends to a base; a double-sided tape, which is set under the base of the casing; a moxibustion mesh sleeve, wherein the length of the sleeve is shorter than the length of the casing, an upper portion and a bottom portion of the moxibustion mesh sleeve are respectively provided with an upper opening and a bottom opening, and the rest of the moxibustion mesh sleeve has a mesh structure; characterized in that an upper part of an outer edge of the moxibustion mesh sleeve is provided with a flange, the moxibustion mesh sleeve is nested on the upper rim of the casing, and the flange is blocked on the upper rim of the casing; and wherein a hollow column is formed from the bottom of the moxibustion mesh sleeve, extending from the periphery of the bottom opening towards the direction of the upper opening; allowing a moxibustion roll to be fitted on the hollow column.
An electrode plate (130, 230, 330, 430, 530, 630, 730, 830, 930) comprising: a composite current collector comprising a first metal layer (132, 232, 332, 432, 532, 632, 732, 832, 932), a second metal layer (135, 235, 335, 435, 535, 635, 735, 835, 935), and an insulation layer directly sandwiched between the first metal layer (132, 232, 332, 432, 532, 632, 732, 832, 932) and the second metal layer (135, 235, 335, 435, 535, 635, 735, 835, 935); a first electrode tab (133, 233, 333, 433, 533, 633, 733, 833, 933) disposed on an edge of the first metal layer (132, 232, 332, 432, 532, 632, 732, 832, 932), attached to a surface of the first metal layer (132, 232, 332, 432, 532, 632, 732, 832, 932) away from the insulation layer, and extending beyond the insulation layer; a second electrode tab (134, 234, 334, 434, 534, 634, 734, 834, 934) disposed on an edge of the second metal layer (135, 235, 335, 435, 535, 635, 735, 835, 935), attached to a surface of the second metal layer (135, 235, 335, 435, 535, 635, 735, 835, 935) away from the insulation layer, and extending beyond the insulation layer, and the first electrode tab (133, 233, 333, 433, 533, 633, 733, 833, 933) and the second electrode tab (134, 234, 334, 434, 534, 634, 734, 834, 934) extending from a same side, characterized in that the insulation layer includes a coated area and a non-coated area connected to the coated area, the coated area being configured to carry the first metal layer and the second metal layer, the first electrode tab and the second electrode tab extending to cover the non-coated area beyond the insulation layer a composite current collector comprising a first metal layer (132, 232, 332, 432, 532, 632, 732, 832, 932), a second metal layer (135, 235, 335, 435, 535, 635, 735, 835, 935), and an insulation layer directly sandwiched between the first metal layer (132, 232, 332, 432, 532, 632, 732, 832, 932) and the second metal layer (135, 235, 335, 435, 535, 635, 735, 835, 935); a first electrode tab (133, 233, 333, 433, 533, 633, 733, 833, 933) disposed on an edge of the first metal layer (132, 232, 332, 432, 532, 632, 732, 832, 932), attached to a surface of the first metal layer (132, 232, 332, 432, 532, 632, 732, 832, 932) away from the insulation layer, and extending beyond the insulation layer; a second electrode tab (134, 234, 334, 434, 534, 634, 734, 834, 934) disposed on an edge of the second metal layer (135, 235, 335, 435, 535, 635, 735, 835, 935), attached to a surface of the second metal layer (135, 235, 335, 435, 535, 635, 735, 835, 935) away from the insulation layer, and extending beyond the insulation layer, and the first electrode tab (133, 233, 333, 433, 533, 633, 733, 833, 933) and the second electrode tab (134, 234, 334, 434, 534, 634, 734, 834, 934) extending from a same side, characterized in that the insulation layer includes a coated area and a non-coated area connected to the coated area, the coated area being configured to carry the first metal layer and the second metal layer, the first electrode tab and the second electrode tab extending to cover the non-coated area beyond the insulation layer
A semiconductor device, comprising: a field effect transistor having a gate terminal to turn on and off a channel region within a body region, the body region being disposed between first and second regions, the body region and the first and second regions being disposed within a layer of a first semiconductor material having a band-gap, the first region of the field effect transistor being coupled to a source contact; an electrode having first and second ends (361, 362), the first end of the electrode being coupled to the second region of the field effect transistor; a voltage-support structure including a second semiconductor material having a band-gap that is larger than the band-gap of the first semiconductor material, the voltage-support structure being in contact with the second end of the electrode; and a drain contact coupled to the voltage-support structure. a field effect transistor having a gate terminal to turn on and off a channel region within a body region, the body region being disposed between first and second regions, the body region and the first and second regions being disposed within a layer of a first semiconductor material having a band-gap, the first region of the field effect transistor being coupled to a source contact; an electrode having first and second ends (361, 362), the first end of the electrode being coupled to the second region of the field effect transistor; a voltage-support structure including a second semiconductor material having a band-gap that is larger than the band-gap of the first semiconductor material, the voltage-support structure being in contact with the second end of the electrode; and a drain contact coupled to the voltage-support structure.
A method of preserving a lung ex vivo for transplant, the method comprising: perfusing a lung with a perfusion fluid comprising nitric oxide and/or a NO donor and red blood cells; the perfusion fluid being in contact with a gas, wherein NO concentration in the gas delivered to the perfusion fluid is in a range from 0.1 ppm to 300 ppm; monitoring methemoglobin in the perfusion fluid; and adjusting the amount of NO and/or NO donor provided to the lung by the perfusion fluid if the methemoglobin levels meet or exceed 12% as a percentage of methemoglobin relative to the red blood cells, wherein adjusting the amount of NO provided to the lung by the perfusion fluid comprises decreasing a NO concentration in the gas delivered to the perfusion fluid. perfusing a lung with a perfusion fluid comprising nitric oxide and/or a NO donor and red blood cells; the perfusion fluid being in contact with a gas, wherein NO concentration in the gas delivered to the perfusion fluid is in a range from 0.1 ppm to 300 ppm; monitoring methemoglobin in the perfusion fluid; and adjusting the amount of NO and/or NO donor provided to the lung by the perfusion fluid if the methemoglobin levels meet or exceed 12% as a percentage of methemoglobin relative to the red blood cells, wherein adjusting the amount of NO provided to the lung by the perfusion fluid comprises decreasing a NO concentration in the gas delivered to the perfusion fluid.
A method for continuous flow production of nanometric or sub-micrometric powders by the action of a pyrolytic laser in at least one area of interaction (15, 15') between a beam emitted by a laser and a flow of reagents (13, 13') delivered by an injector (14, 14'), characterized in that the energy of the beam emitted by the laser is spread over along an axis perpendicular to the axis of each flow of reactants, so as to get a beam the section of which is elongated with adjustable dimensions at said at least one area of interaction.
A coinjection molding apparatus comprising: an injection molding nozzle having a skin material melt channel for carrying a skin material melt stream and a core material melt channel for carrying a core material melt stream; and a nozzle tip coupled to a downstream end of the nozzle that defines, a central skin material melt passage for receiving the skin material melt stream from the skin material melt channel of the nozzle, an annular core material melt passage for receiving the core material melt stream from the core material melt channel of the nozzle, and an annular outer layer melt passage, characterised by that the annular outer layer melt passage is fluidly connected to the central skin material melt passage via one or more radially extending tunnel channels, wherein a portion of the skin material melt stream received by the central skin material melt passage is directed to the annular outer layer melt passage via the one or more tunnel channels, and wherein the one or more tunnel channels cross the annular core material melt passage receiving the core material melt stream, and wherein the skin material melt stream from the central skin material melt passage, the core material melt stream from the core material melt passage, and the skin material melt stream from the annular outer layer melt passage combine either within the nozzle tip or within a gate area prior to entering a mold gate. an injection molding nozzle having a skin material melt channel for carrying a skin material melt stream and a core material melt channel for carrying a core material melt stream; and a nozzle tip coupled to a downstream end of the nozzle that defines, a central skin material melt passage for receiving the skin material melt stream from the skin material melt channel of the nozzle, an annular core material melt passage for receiving the core material melt stream from the core material melt channel of the nozzle, and an annular outer layer melt passage, characterised by that the annular outer layer melt passage is fluidly connected to the central skin material melt passage via one or more radially extending tunnel channels, wherein a portion of the skin material melt stream received by the central skin material melt passage is directed to the annular outer layer melt passage via the one or more tunnel channels, and wherein the one or more tunnel channels cross the annular core material melt passage receiving the core material melt stream, and wherein the skin material melt stream from the central skin material melt passage, the core material melt stream from the core material melt passage, and the skin material melt stream from the annular outer layer melt passage combine either within the nozzle tip or within a gate area prior to entering a mold gate.
Method for operating a heat meter for a medium, wherein the heat meter is operated in a measuring mode for measuring a quantity of heat and, in particular alternately, the heat meter is operated in an analysis mode for determining a composition of the medium, the heat meter comprising a pipeline section, a processor unit and a sensor that reaches into an interior of the pipeline section, and an energy supply device, wherein the sensor is able to measure a temperature of the medium and a flow velocity at which the medium is flowing through the pipeline section, wherein the sensor is designed as a CTA sensor which comprises a measuring resistor around which the medium flows in the pipeline section, wherein the measuring resistor is connected to the energy supply device in such a way that the measuring resistor is supplied by the energy supply device in a heating mode, characterized in that the steps mentioned below are carried out in the analysis mode of the heat meter, - wherein a first resistance value of the measuring resistor located in the medium is measured at a defined temperature of the medium and this resistance value is defined as minimum value, - wherein a defined heating power is subsequently applied to the measuring resistor, - wherein the resistance value of the measuring resistor is simultaneously measured until a maximum value is reached and the heating power is then switched off, - wherein a time difference (Δt) between a first increase in the resistance value of the measuring resistor and a last increase in the resistance value of the measuring resistor is ascertained as settling time, - wherein the composition of the medium is ascertained on the basis of this settling time, wherein this is done with the help of a data set which assigns compositions of media to settling times with regard to the applied heating power and the predefined temperature of the medium, and - wherein the method is carried out when the medium is stationary. - wherein a first resistance value of the measuring resistor located in the medium is measured at a defined temperature of the medium and this resistance value is defined as minimum value, - wherein a defined heating power is subsequently applied to the measuring resistor, - wherein the resistance value of the measuring resistor is simultaneously measured until a maximum value is reached and the heating power is then switched off, - wherein a time difference (Δt) between a first increase in the resistance value of the measuring resistor and a last increase in the resistance value of the measuring resistor is ascertained as settling time, - wherein the composition of the medium is ascertained on the basis of this settling time, wherein this is done with the help of a data set which assigns compositions of media to settling times with regard to the applied heating power and the predefined temperature of the medium, and - wherein the method is carried out when the medium is stationary.
A method for manufacturing an image display device, wherein an image display member and a light-transmitting cover member having a light-shielding layer formed in a peripheral portion of one of its major surfaces are stacked through a light-transmitting cured resin layer formed from a liquid photocurable resin composition so that the light-shielding layer-forming surface of the light-transmitting cover member is disposed on the image display member side, the method comprising the following subsequent steps: a step of applying the liquid photocurable resin composition to the light-shielding layer-forming surface of the light-transmitting cover member or the display surface of the image display member to form a liquid photocurable resin composition layer; a step of irradiating the photocurable resin composition layer with ultraviolet rays under reduced pressure or an inert gas atmosphere so that the cure rate of the entire layer is 90% or more, and the photocurable resin composition is not in contact with oxygen, to form the light-transmitting cured resin layer; and a step of bonding the light-transmitting cover member to the image display member so that the light-transmitting cured resin layer is placed between the light-transmitting cover member and the image display member. a step of applying the liquid photocurable resin composition to the light-shielding layer-forming surface of the light-transmitting cover member or the display surface of the image display member to form a liquid photocurable resin composition layer; a step of irradiating the photocurable resin composition layer with ultraviolet rays under reduced pressure or an inert gas atmosphere so that the cure rate of the entire layer is 90% or more, and the photocurable resin composition is not in contact with oxygen, to form the light-transmitting cured resin layer; and a step of bonding the light-transmitting cover member to the image display member so that the light-transmitting cured resin layer is placed between the light-transmitting cover member and the image display member.
A hydraulic set board, comprising: a. a hydraulic set material layer having a first and a second face; said hydraulic set material is a material capable of hardening to form a cementitious compound in the presence of water, and b. first and second facers affixed to said first and second faces, said first facer being a fibrous mat comprising a non-woven web bonded together with a resinous binder, and said web comprising a blend of a major portion of chopped continuous glass fibers having an average fiber diameter of 11 ± 1.5 μm and a minor portion of fine staple fibers having an average fiber diameter of less than 5.5 μm, said fine staple fibers being 1-30 percent of the dry weight of the web and said fine staple fibers comprise at least one member selected from the group consisting of glass, mineral, and polymer microfibers. a. a hydraulic set material layer having a first and a second face; said hydraulic set material is a material capable of hardening to form a cementitious compound in the presence of water, and b. first and second facers affixed to said first and second faces, said first facer being a fibrous mat comprising a non-woven web bonded together with a resinous binder, and said web comprising a blend of a major portion of chopped continuous glass fibers having an average fiber diameter of 11 ± 1.5 μm and a minor portion of fine staple fibers having an average fiber diameter of less than 5.5 μm, said fine staple fibers being 1-30 percent of the dry weight of the web and said fine staple fibers comprise at least one member selected from the group consisting of glass, mineral, and polymer microfibers.
Electromechanical power-assisted steering system for a motor vehicle, comprising a worm which can be driven in rotation about a drive axle by an electric motor, cooperates with a worm wheel coupled to a steering shaft, and is mounted rotatably about the drive axle in a bearing which is held in a mounting which can be displaced relative to the worm wheel, wherein the mounting has a core element made of a core material which is connected to at least one contact element made of a soft material which is softer relative to the core material and is elastically easier to deform, and a contact element forms a damping body projecting outwards from the mounting, characterized in that the bearing has a bearing ring which is mounted in the mounting in a bearing receptacle and contacts a contact element arranged in the bearing receptacle.