mhurhangee/patent-ind-claim-en huggingface dataset:
A gas turbine engine comprising: a nacelle that encloses a fan assembly and at least part of an engine case , the nacelle and engine case defining an annular bypass flow path for air flow that passes through the fan but that bypasses an engine core disposed within the engine case; the nacelle including a fore end and an aft end that defines a fan nozzle with the engine case; the engine case including an inlet connected to a duct that extends to an outlet , the duct accommodating a heat exchanger between the inlet and outlet of the duct; and the heat exchanger transfers heat from oil or lubricant to air passing through the duct ; wherein the outlet is in communication with the ambient atmosphere and/or is in communication with a cowl vent disposed aft of the fan nozzle ; and wherein the inlet forms a scoop between the engine case and the nacelle and the outlet is: flush with the engine case; or flush with the engine case and is disposed at least partially aft of the fan nozzle; or disposed within the engine case. a nacelle that encloses a fan assembly and at least part of an engine case , the nacelle and engine case defining an annular bypass flow path for air flow that passes through the fan but that bypasses an engine core disposed within the engine case; the nacelle including a fore end and an aft end that defines a fan nozzle with the engine case; the engine case including an inlet connected to a duct that extends to an outlet , the duct accommodating a heat exchanger between the inlet and outlet of the duct; and the heat exchanger transfers heat from oil or lubricant to air passing through the duct ; wherein the outlet is in communication with the ambient atmosphere and/or is in communication with a cowl vent disposed aft of the fan nozzle ; and wherein the inlet forms a scoop between the engine case and the nacelle and the outlet is: flush with the engine case; or flush with the engine case and is disposed at least partially aft of the fan nozzle; or disposed within the engine case. flush with the engine case; or flush with the engine case and is disposed at least partially aft of the fan nozzle; or disposed within the engine case.
A tubular fiber structure comprising: a tube ; and a flange located on at least one side of the tube ; wherein the tubular fiber structure is formed by shaping a fabric base material (11; 11, 31) that is rolled; and the fabric base material is formed by threads laid out within the fabric base material to extend at least in two directions; a portion of the fabric base material forming the flange is formed by a woven texture with woven intersections of reinforcement threads laid out within the fabric at 0 degrees and 90 degrees, respectively, characterized in that in the flange auxiliary threads are laid out within the fabric at 90 degrees adjacent to the reinforcement threads to form woven portions with the reinforcement threads , and in that in the flange said reinforcement threads extend continuously over the entire circumference in a circumferential direction and laid out in radial direction, and in that the portion (lib) is bent and the intervals of the reinforcement threads and the auxiliary threads widen toward outer sides in the radial direction of the tube to form the flange , wherein overlapping sections of the portion (lib) are fixed by an adhesive or by stitches. a tube ; and a flange located on at least one side of the tube ; wherein the tubular fiber structure is formed by shaping a fabric base material (11; 11, 31) that is rolled; and the fabric base material is formed by threads laid out within the fabric base material to extend at least in two directions; a portion of the fabric base material forming the flange is formed by a woven texture with woven intersections of reinforcement threads laid out within the fabric at 0 degrees and 90 degrees, respectively, characterized in that in the flange auxiliary threads are laid out within the fabric at 90 degrees adjacent to the reinforcement threads to form woven portions with the reinforcement threads , and in that in the flange said reinforcement threads extend continuously over the entire circumference in a circumferential direction and laid out in radial direction, and in that the portion (lib) is bent and the intervals of the reinforcement threads and the auxiliary threads widen toward outer sides in the radial direction of the tube to form the flange , wherein overlapping sections of the portion (lib) are fixed by an adhesive or by stitches.
A method for roughening a surface of a substrate, comprising: roughening a surface of a ceramic substrate by laser irradiation in an atmospheric air with a laser with continuous oscillation having a power density of 1.0 × 10 7 - 1.0 × 10 9 W/cm 2 for an action time on an irradiation area of 1.0 × 10 -7 - 1.0 × 10 -5 s; and forming an oxide layer at the same time as the roughening of the surface by laser irradiation with the laser with continuous oscillation, which covers over the surface roughened and microcracks generated in the surface roughened , the action time being a time required for a spot of the laser with continuous oscillation to pass through any point, and represented by the ratio of a spot diameter to a scan rate. roughening a surface of a ceramic substrate by laser irradiation in an atmospheric air with a laser with continuous oscillation having a power density of 1.0 × 10 7 - 1.0 × 10 9 W/cm 2 for an action time on an irradiation area of 1.0 × 10 -7 - 1.0 × 10 -5 s; and forming an oxide layer at the same time as the roughening of the surface by laser irradiation with the laser with continuous oscillation, which covers over the surface roughened and microcracks generated in the surface roughened , the action time being a time required for a spot of the laser with continuous oscillation to pass through any point, and represented by the ratio of a spot diameter to a scan rate.
Switchgear , wherein a fastening apparatus for attachment of the switchgear to a supporting rail is arranged on a housing of the switchgear , wherein the fastening apparatus has a stationary first fastening lug and a second fastening lug arranged opposite the first fastening lug , wherein the second fastening lug is configured to be stationary, wherein a spring is arranged in the region of the second fastening lug so as to be preloaded towards the first fastening lug , and wherein some regions of the spring protrude into a groove defined by the second fastening lug , characterised in that the spring is planar and is arranged inside the housing , apart from an actuation projection protruding into the groove through an actuation opening in the housing .
A filter element comprising: a non-woven strip having a selected porosity and being spirally wound upon itself in multiple overlapping layers to form at least one band of a selected radial thickness; an interlaying strip being disposed as multiple overlapping layers circumferentially about the band formed by the non-woven strip or being disposed as one layer circumferentially about the band formed by the non-woven strip, wherein the interlaying strip is more dense that the non-woven strip and has a porosity less permeable than that of the non-woven strip; and a fluid flow pathway defined by the interlaying strip, wherein the filter element is a coreless filter element. a non-woven strip having a selected porosity and being spirally wound upon itself in multiple overlapping layers to form at least one band of a selected radial thickness; an interlaying strip being disposed as multiple overlapping layers circumferentially about the band formed by the non-woven strip or being disposed as one layer circumferentially about the band formed by the non-woven strip, wherein the interlaying strip is more dense that the non-woven strip and has a porosity less permeable than that of the non-woven strip; and a fluid flow pathway defined by the interlaying strip, wherein the filter element is a coreless filter element.
A composition comprising an adenovirus 5 vector comprising a nucleic acid sequence encoding a glycoprotein (GP) from an Ebola virus, wherein the adenovirus 5 vector comprises a deletion in an E1 gene region and a deletion in an E2b gene region and wherein the Ebola virus is Zaire ebolavirus (EBOV), Sudan ebolavirus (SUDV), Tai Forest ebolavirus (TAFV), Bundibugyo ebolavirus (BDBV), Reston ebolavirus (RESTV), or any combination thereof.
An auxiliary contact assembly comprising a casing provided with a plurality of seats; each of said seats being adapted to receive a fixed contact unit , said fixed contact unit having at least one fixed contact pad ; at least one movable member adapted to support one or more moving contacts ; each of said moving contacts supporting a pair of moving contact pads ; said movable member being movable between two positions, a first contact position and a second contact position; said fixed contact unit being mounted in a respective of said seat, wherein said fixed contact pad can be oriented in different positions, said moving contact being mounted in said movable member , wherein said moving contact pads can be oriented in different positions; said movable member being constituted by a slider slidingly mounted in said casing ; said fixed contact unit comprising an electric contact member , a screw , a movable plate and said fixed contact pad fixed to a tab ; said electric contact member being a metallic blade having portions adapted to contain said movable plate and said screw ; said portions being symmetrical and allowing mounting said screw and said movable plate in opposite positions with respect to said fixed contact pad ; said electric contact member having two perforated parallel sides joined by a perpendicular side ; said screw being associated with one of said perforated parallel sides ; said assembly being characterized in that said tab is formed by a portion of said perpendicular side .
An environmental control system for aircraft, comprising: an air cycle machine comprising a compressor , a shaft , and a turbine ; a secondary heat exchanger ; a bleed air inlet ; a high pressure water separator that conditions bleed air before the bleed air is passed to a chamber to be conditioned; a first flow path connecting the bleed air inlet directly to the compressor of the air cycle machine without going through any heat exchanger; and a quench loop connecting an exhaust of the secondary heat exchanger to the first flow path that supplies bleed air directly to the compressor from the bleed air inlet , wherein the quench loop reduces an energy of the bleed air before the bleed air directly enters the compressor , wherein the turbine is in fluid communication with the outlet of the high pressure water separator so as to receive the conditioned bleed air from the high pressure water separator , wherein as the conditioned bleed air expands across the turbine , work is extracted by the air cycle machine to compress the bleed air received directly by the compressor . an air cycle machine comprising a compressor , a shaft , and a turbine ; a secondary heat exchanger ; a bleed air inlet ; a high pressure water separator that conditions bleed air before the bleed air is passed to a chamber to be conditioned; a first flow path connecting the bleed air inlet directly to the compressor of the air cycle machine without going through any heat exchanger; and a quench loop connecting an exhaust of the secondary heat exchanger to the first flow path that supplies bleed air directly to the compressor from the bleed air inlet , wherein the quench loop reduces an energy of the bleed air before the bleed air directly enters the compressor , wherein the turbine is in fluid communication with the outlet of the high pressure water separator so as to receive the conditioned bleed air from the high pressure water separator , wherein as the conditioned bleed air expands across the turbine , work is extracted by the air cycle machine to compress the bleed air received directly by the compressor .
A method for preparing nanofibrillar cellulose, comprising - disintegrating fibrous cellulosic raw material to a first disintegration level to a half-fabricate, wherein the disintegration level corresponds to the degree of fibrillation of the fibrous cellulosic raw material, - transporting the half-fabricate in the first disintegration level in concentrated form, where the dry matter of the half-fabricate is in the range of 20 - 60 wt-%, to a destination, and - at the destination, disintegrating the half-fabricate from the first disintegration level to the second disintegration level to nanofibrillar cellulose having a length exceeding one micrometer and a number-average diameter below 200 nm, wherein the fibrous cellulosic raw material disintegrated to the first disintegration level has a Brookfield viscosity in the range of 1000 - 4000 mPa·s measured with Brookfield RVDV-III measuring apparatus with a vane spindle number 73 at a concentration of 0.8% by weight, 20°C ± 1°C and 10 rpm. - disintegrating fibrous cellulosic raw material to a first disintegration level to a half-fabricate, wherein the disintegration level corresponds to the degree of fibrillation of the fibrous cellulosic raw material, - transporting the half-fabricate in the first disintegration level in concentrated form, where the dry matter of the half-fabricate is in the range of 20 - 60 wt-%, to a destination, and - at the destination, disintegrating the half-fabricate from the first disintegration level to the second disintegration level to nanofibrillar cellulose having a length exceeding one micrometer and a number-average diameter below 200 nm, wherein the fibrous cellulosic raw material disintegrated to the first disintegration level has a Brookfield viscosity in the range of 1000 - 4000 mPa·s measured with Brookfield RVDV-III measuring apparatus with a vane spindle number 73 at a concentration of 0.8% by weight, 20°C ± 1°C and 10 rpm.
Food storage container for a household refrigeration appliance , with a tray for receiving the food, with a lid separate therefrom, which can be placed upon the tray in order to close the tray , and with a ventilation apparatus , with which an exchange of air can take place between the surrounding area and the interior of the food storage container , wherein the ventilation apparatus has a pivotable flap , which, in an open position, releases a ventilation opening of the ventilation apparatus and, in the closed position, closes off the ventilation opening, wherein the flap is mounted on the tray in a pivotable manner, wherein the flap is arranged in a pivotable manner on a positioning apparatus , wherein the positioning apparatus is directly mounted on the tray , characterised in that the positioning apparatus is placed on an upper edge of the tray and rests against an upper side of a roof wall of the upper edge and against a front side of a front wall of the upper edge.
A method of screening for an antagonist of the interaction of a polypeptide comprising residues 25-266 of SEQ ID NO: 2 with NKp30, the method comprising: (a) contacting an agent with a polypeptide comprising residues 25-266 of SEQ ID NO: 2 in the presence of an NKp30 polypeptide; (b) detecting the level of interaction of the polypeptide comprising residues 25-266 of SEQ ID NO: 2 with the NKp30 polypeptide in the presence of the agent; (c) determining whether the level of the interaction measured in step (b) is significantly less than the level of interaction measured for a control polypeptide comprising residues 25-266 of SEQ ID NO: 2 and a control NKp30 polypeptide in the absence of the agent, wherein the agent is identified as an antagonist of the interaction of a polypeptide comprising residues 25-266 of SEQ ID NO: 2 with NKp30 if the level of the interaction is significantly less in the presence of the agent than in its absence. (a) contacting an agent with a polypeptide comprising residues 25-266 of SEQ ID NO: 2 in the presence of an NKp30 polypeptide; (b) detecting the level of interaction of the polypeptide comprising residues 25-266 of SEQ ID NO: 2 with the NKp30 polypeptide in the presence of the agent; (c) determining whether the level of the interaction measured in step (b) is significantly less than the level of interaction measured for a control polypeptide comprising residues 25-266 of SEQ ID NO: 2 and a control NKp30 polypeptide in the absence of the agent, wherein the agent is identified as an antagonist of the interaction of a polypeptide comprising residues 25-266 of SEQ ID NO: 2 with NKp30 if the level of the interaction is significantly less in the presence of the agent than in its absence.
A crystalline form CS1 of NBI-98854, ((S)-2-amino-3-methyl-butyric acid -3-isobutyl-9,10-dimethoxy-1,3,4 6,7,11b-hexahydro-2H-pyrido[2,1-a]isoquinolin-2-yl ester) wherein the X-ray powder diffraction pattern shows characteristic peaks at 2theta values of 9.9°±0.2°, 18.1°±0.2° and 20.3°±0.2° using CuKα r adiation.
A manually operable push button being adapted for installation in a head of a dental handpiece , wherein the push button is double-walled with an outer cover plate and an inner contact element , wherein the push button is hat-shaped such that a circumferential wall extends from the outer cover plate , wherein the push button has an annular stop at the outer cover plate or at the circumferential wall , wherein a thermal insulation layer is formed by a central gap between the outer cover plate and the inner contact plate , such that the thermal insulation layer extends between the outer cover plate and the inner contact element effecting a thermal decoupling of the outer cover plate from the inner contact element , when the inner contact element rests on the annular stop , wherein the inner contact element is made as a separate part from the outer cover plate , wherein the inner contact element loosely lies in the hat-shaped push button , or the inner contact element is pressed in the hat-shaped push button by means of a press-fit, or the inner contact element is joined to the hat-shaped push button by a bonded joint, for example by welding, and such that when frictional heat is generated in the inner contact element it is dissipated in the inner contact element predominantly radially outward. wherein the push button is double-walled with an outer cover plate and an inner contact element , wherein the push button is hat-shaped such that a circumferential wall extends from the outer cover plate , wherein the push button has an annular stop at the outer cover plate or at the circumferential wall , wherein a thermal insulation layer is formed by a central gap between the outer cover plate and the inner contact plate , such that the thermal insulation layer extends between the outer cover plate and the inner contact element effecting a thermal decoupling of the outer cover plate from the inner contact element , when the inner contact element rests on the annular stop , wherein the inner contact element is made as a separate part from the outer cover plate , wherein the inner contact element loosely lies in the hat-shaped push button , or the inner contact element is pressed in the hat-shaped push button by means of a press-fit, or the inner contact element is joined to the hat-shaped push button by a bonded joint, for example by welding, and such that when frictional heat is generated in the inner contact element it is dissipated in the inner contact element predominantly radially outward.
A method for power management for applications having duty-cycled high peak supply currents comprising: charging a buffer capacitor with a first current supplied by a battery, wherein the first current is limited by a current limiter; supplying a load with a second current supplied by the buffer capacitor, wherein the second current comprises a pulsed current; and controlling the current limiter with at least one of a plurality of sensor inputs to limit a capacity degradation of the battery; wherein the current limiter is latched into a conductive bypass mode and a bias circuit of the current limiter is disabled, in response to the load entering a sleep mode and the buffer capacitor being charged above a threshold voltage, wherein the threshold voltage is greater than a minimum voltage. charging a buffer capacitor with a first current supplied by a battery, wherein the first current is limited by a current limiter; supplying a load with a second current supplied by the buffer capacitor, wherein the second current comprises a pulsed current; and controlling the current limiter with at least one of a plurality of sensor inputs to limit a capacity degradation of the battery; wherein the current limiter is latched into a conductive bypass mode and a bias circuit of the current limiter is disabled, in response to the load entering a sleep mode and the buffer capacitor being charged above a threshold voltage, wherein the threshold voltage is greater than a minimum voltage.
A method of fabricating a component comprising the steps of: at least partially melting only a first portion of a first layer of particles of a first material deposited onto a substrate using a first high energy beam to fuse the particles of the first material and thereby form a first component layer of the component, the entirety of the first component layer being formed simultaneously around an unheated portion of the first layer; and at least partially melting only a first portion of a second layer of particles of a second material deposited onto the first component layer using the first high energy beam to fuse the particles of the second material and thereby form a second component layer of the component, the entirety of the second component layer being formed simultaneously around an unheated portion of the second layer, wherein the second component layer is attached to the first component layer. at least partially melting only a first portion of a first layer of particles of a first material deposited onto a substrate using a first high energy beam to fuse the particles of the first material and thereby form a first component layer of the component, the entirety of the first component layer being formed simultaneously around an unheated portion of the first layer; and at least partially melting only a first portion of a second layer of particles of a second material deposited onto the first component layer using the first high energy beam to fuse the particles of the second material and thereby form a second component layer of the component, the entirety of the second component layer being formed simultaneously around an unheated portion of the second layer, wherein the second component layer is attached to the first component layer.
A sealing material, comprising: a low melting point glass powder; a cellulose resin; a solvent; and a functional material comprising an inorganic powder whose surface has a modified layer, wherein the inorganic powder comprises any one or more of aluminum oxide, magnesium oxide, zinc oxide, zirconium oxide, silicon dioxide, titanium dioxide, boron oxide, diiron trioxide, calcium oxide, potassium oxide, sodium oxide and lithium oxide; and the modified layer is generated by a reaction of a dianhydride and a diamine. a low melting point glass powder; a cellulose resin; a solvent; and a functional material comprising an inorganic powder whose surface has a modified layer, wherein the inorganic powder comprises any one or more of aluminum oxide, magnesium oxide, zinc oxide, zirconium oxide, silicon dioxide, titanium dioxide, boron oxide, diiron trioxide, calcium oxide, potassium oxide, sodium oxide and lithium oxide; and the modified layer is generated by a reaction of a dianhydride and a diamine.