mhurhangee/ep-ind-claims huggingface dataset:
A solid freeform object manufacturing system (10; 50) comprising: a manufacturing chamber containing a powder based additive manufacturing device; a first environmental control chamber containing environmental control devices; and an interconnection between the manufacturing chamber and the first environmental control chamber, comprising: a first inlet duct from the first environmental control chamber into the manufacturing chamber; and a first exhaust duct from the manufacturing chamber into the first environmental control chamber; a second environmental control chamber containing environmental control devices, and an interconnection between the second environmental control chamber and the manufacturing chamber comprising: a second inlet duct from the second environmental control chamber into the manufacturing chamber; and a second exhaust duct from the manufacturing chamber into the second environmental control chamber; characterised in that: the environmental control chambers (18, 26) contain at least a blower, filter, control system, and inert gas source. a manufacturing chamber containing a powder based additive manufacturing device; a first environmental control chamber containing environmental control devices; and an interconnection between the manufacturing chamber and the first environmental control chamber, comprising: a first inlet duct from the first environmental control chamber into the manufacturing chamber; and a first exhaust duct from the manufacturing chamber into the first environmental control chamber; a first inlet duct from the first environmental control chamber into the manufacturing chamber; and a first exhaust duct from the manufacturing chamber into the first environmental control chamber; a second environmental control chamber containing environmental control devices, and an interconnection between the second environmental control chamber and the manufacturing chamber comprising: a second inlet duct from the second environmental control chamber into the manufacturing chamber; and a second exhaust duct from the manufacturing chamber into the second environmental control chamber; a second inlet duct from the second environmental control chamber into the manufacturing chamber; and a second exhaust duct from the manufacturing chamber into the second environmental control chamber; characterised in that: the environmental control chambers (18, 26) contain at least a blower, filter, control system, and inert gas source.
A method of making an inorganic membrane comprising α-alumina, the method comprising the steps of: a. providing a coating slip, the coating slip comprising δ-alumina, the δ-alumina having a mean particle size in a range from 10 nm to 100 nm; b. applying the coating slip to a support surface to form a coating layer; c. drying the coating layer; and d. firing the dried coating layer at a temperature of at least 1000°C to convert at least a portion of the δ-alumina to α-alumina and form the inorganic membrane, wherein the membrane has a pore structure having a mean pore size of up to 100 nm and the α-alumina has a mean particle size in a range from 10 nm to 100 nm, wherein the pore structure is stable up to 1400°C. a. providing a coating slip, the coating slip comprising δ-alumina, the δ-alumina having a mean particle size in a range from 10 nm to 100 nm; b. applying the coating slip to a support surface to form a coating layer; c. drying the coating layer; and d. firing the dried coating layer at a temperature of at least 1000°C to convert at least a portion of the δ-alumina to α-alumina and form the inorganic membrane, wherein the membrane has a pore structure having a mean pore size of up to 100 nm and the α-alumina has a mean particle size in a range from 10 nm to 100 nm, wherein the pore structure is stable up to 1400°C.
A composite article, comprising: - a plurality of plies of fibrous reinforcement impregnated with a resin, each ply adjacent at least one other ply; and - at least one nonwoven mat having a continuous layer of metal or metal alloy coated on at least one side thereon and adjoining to at least one ply, wherein said layer of metal or metal alloy has a thickness of between 0.1 μm and 25 μm and an areal weight of less than 50 g/m 2, and wherein said nonwoven mat is comprised of carbon fibers, fiberglass fibers, aramid fibers, para-aramid fibers, thermoplastic fibers, or combination thereof, and wherein the fibrous reinforcement is made from fibers selected from the group consisting of aramid fibers based on poly-paraphenylene terephthalamide, fiberglass, quartz, carbon, and graphite. - a plurality of plies of fibrous reinforcement impregnated with a resin, each ply adjacent at least one other ply; and - at least one nonwoven mat having a continuous layer of metal or metal alloy coated on at least one side thereon and adjoining to at least one ply,
An imaging system, comprising: an optical channel configured to transfer light, a first sensor configured to generate first image data by imaging an object along a first optical path, and a second sensor configured to generate second image data by imaging the object along a second optical path, wherein the first sensor and the second sensor are focus shifted, wherein the first optical path and the second optical path are guided at least partly through the optical channel, and wherein the optical channel is partly rotatable such that a field of view of the first sensor and the second sensor is variable. an optical channel configured to transfer light, a first sensor configured to generate first image data by imaging an object along a first optical path, and a second sensor configured to generate second image data by imaging the object along a second optical path, wherein the first sensor and the second sensor are focus shifted, wherein the first optical path and the second optical path are guided at least partly through the optical channel, and wherein the optical channel is partly rotatable such that a field of view of the first sensor and the second sensor is variable.
Valve bag having side walls and a bottom of a tube-shaped filling device and at least a venting device - wherein the venting device has the form of a bag with an opening which has a connection to the interior of the bag and a side, averted from the opening, which forms a connection permeable to air and/or gas to the exterior of the bag, and the venting device is arranged in the same corner folding as the filling device, characterized in that the bag is made of a rectangular material, permeable to air- and/or gas, with a folding (16,21) of the length of the material parallel to the breadth, with two sides closed perpendicularly to the folding (16,21), so that the bag has three closed edges and an opening at the fourth side parallel to the folding (16,21). - wherein the venting device has the form of a bag with an opening which has a connection to the interior of the bag and a side, averted from the opening, which forms a connection permeable to air and/or gas to the exterior of the bag, and the venting device is arranged in the same corner folding as the filling device, characterized in that the bag is made of a rectangular material, permeable to air- and/or gas, with a folding (16,21) of the length of the material parallel to the breadth, with two sides closed perpendicularly to the folding (16,21), so that the bag has three closed edges and an opening at the fourth side parallel to the folding (16,21).
A device for treating a gas contaminated with pollutants with at least one adsorption module inserted in an adsorption apparatus for adsorbing the pollutants, wherein the adsorption module comprises an inner cylindrical hollow body provided with gas inlet openings and made of an electrically conductive material, an outer cylindrical hollow body provided with gas outlet openings and made of an electrically conductive material, and an electrically conductive activated carbon fibre winding which is arranged around the inner hollow body and enclosed by the outer hollow body, wherein the inner hollow body is closed in pressure- and gas-tight manner at the foot end with a bottom plate which is welded to a jacket of the hollow body at the bottom end face thereof and thus forms a treatment portion in the hollow body, with an electrical circuit for heating the activated carbon fibre winding to desorb the adsorbed pollutants and which is formed between the inner and outer hollow bodies (46, 47), wherein the inner and outer hollow bodies (46, 47) are electrically insulated from one another and connected to a voltage source, and the untreated gas flows from the treatment portion defined by the inner hollow body from the inside to the outside through the activated carbon fibre winding, and with a distribution tube having outlet openings for a purge gas for inerting and purging the activated carbon fibre winding, wherein the distribution tube is guided along the longitudinal axis of the activated carbon fibre module in the treatment portion until close to the bottom plate of the activated carbon fibre module and is closed at its bottom end facing the bottom plate, characterised in that the activated carbon fibre winding is held in a radially compressed, dense electrically conductive state by radial compression, in which the compressed activated carbon fibre winding has current flowing through it transversely of its longitudinal extent, and is connected as a resistor, wherein, for radial compression of the activated carbon fibre winding, the outer hollow body has an internal diameter which is 0.01 to 0.4 times smaller than the external diameter of the activated carbon fibre winding, and in that, for free passage of gas transversely of the longitudinal axis of the inner hollow body, the gas inlet openings are distributed uniformly over the jacket of the inner cylindrical hollow body, wherein the gas inlet openings correspond to a flow cross-section of 5 to 80% of the area of the jacket of the inner hollow body, and in that, for free passage of gas transversely of the longitudinal axis of the outer cylindrical hollow body, the gas outlet openings are distributed uniformly over the jacket of the outer cylindrical hollow body, wherein the gas outlet openings correspond to a flow cross-section of 50 to 95% of the area of the jacket of the outer hollow body.
Turboprop engine or helicopter engine comprising an asymmetrical air intake and a compressor arranged downstream of the air intake, which compressor has an inlet guide baffle formed of guide vanes, characterized in that at least some guide vanes of the inlet guide baffle have a different vane profile and/or a different angle of attack from the rest of the guide vanes, such that a constant outflow angle is created by the inlet guide baffle over the entire circumference.
Anti-splash device for a crankshaft contained in an internal combustion engine having a crankcase joined to an oil sump, said device comprising: - an element for separating an oil sump of the engine into first and second compartments (4a, 4b) that is in the oil sump, shaped so as to surround the lower part of the crankshaft and able to collect oil for lubricating the engine that comes from moving parts of the engine, and - an element for evacuating the oil that allows said collected oil to be conveyed from the first compartment towards the second compartment under the action of said crankshaft, said anti-splash device being defined in the oil sump and also in the crankcase of the engine. - an element for separating an oil sump of the engine into first and second compartments (4a, 4b) that is in the oil sump, shaped so as to surround the lower part of the crankshaft and able to collect oil for lubricating the engine that comes from moving parts of the engine, and - an element for evacuating the oil that allows said collected oil to be conveyed from the first compartment towards the second compartment under the action of said crankshaft,
A noise reduction system comprising: a microjet ring provided at an exhaust side peripheral edge (3 A) of a main nozzle of a jet engine, and has a plurality of injection pipes formed in a circumferential direction thereof at regular intervals; and a supply path configured to take part of compressed air in from a flow path in an upstream side of a combustor in the jet engine, and to guide the part of compressed air to the plurality of injection pipes, wherein the plurality of injection pipes is configured to inject the part of compressed air to a jet flow exhausted from the main nozzle, the microjet ring is formed so as to be gradually reduced in diameter from an upstream side toward a downstream side of the jet flow, characterised in that an arc surface is formed at the tip, in the downstream side of the jet flow, of the microjet ring so that the arc surface connects an inner peripheral surface and an outer peripheral surface of the microjet ring, the whole of the arc surface being increased in diameter from the upstream side toward the downstream side of the jet flow, and openings of the plurality of injection pipes are provided in the arc surface. a microjet ring provided at an exhaust side peripheral edge (3 A) of a main nozzle of a jet engine, and has a plurality of injection pipes formed in a circumferential direction thereof at regular intervals; and a supply path configured to take part of compressed air in from a flow path in an upstream side of a combustor in the jet engine, and to guide the part of compressed air to the plurality of injection pipes, wherein the plurality of injection pipes is configured to inject the part of compressed air to a jet flow exhausted from the main nozzle, the microjet ring is formed so as to be gradually reduced in diameter from an upstream side toward a downstream side of the jet flow, characterised in that an arc surface is formed at the tip, in the downstream side of the jet flow, of the microjet ring so that the arc surface connects an inner peripheral surface and an outer peripheral surface of the microjet ring, the whole of the arc surface being increased in diameter from the upstream side toward the downstream side of the jet flow, and openings of the plurality of injection pipes are provided in the arc surface.
An installation mechanism for LED lighting, comprising: a housing, the housing comprising a mounting slot provided on a side wall along an axial direction thereof, the mounting slot comprising an implantation portion and a catch portion communicating with the implantation portion, the catch portion comprising at least one catching arm provided on one of two opposite side walls thereof; and a mounting plate, the mounting plate comprising two catch edges inserted in the catch portion, the implantation portion being configured for presetting the mounting plate, each of the catch edges having a Z-typed shape in a cross section of the mounting plate along the axial direction of the housing, a free edge of the Z-typed catch edges being inserted into a gap between the catching arm and the bottom of the mounting slot, wherein the implantation portion is arranged side by side with the catch portion, wherein a width of the mounting slot along an arranging direction of the implantation portion and the catch portion is equal to a maximum distance between two catch edges of the mounting plate, and wherein the implantation portion is provided intersecting the catch portion, characterized in that the mounting slot is rectangular in shape, and the mounting plate is also rectangular in shape and received in the mounting slot. a housing, the housing comprising a mounting slot provided on a side wall along an axial direction thereof, the mounting slot comprising an implantation portion and a catch portion communicating with the implantation portion, the catch portion comprising at least one catching arm provided on one of two opposite side walls thereof; and a mounting plate, the mounting plate comprising two catch edges inserted in the catch portion, the implantation portion being configured for presetting the mounting plate, each of the catch edges having a Z-typed shape in a cross section of the mounting plate along the axial direction of the housing, a free edge of the Z-typed catch edges being inserted into a gap between the catching arm and the bottom of the mounting slot, wherein the implantation portion is arranged side by side with the catch portion, wherein a width of the mounting slot along an arranging direction of the implantation portion and the catch portion is equal to a maximum distance between two catch edges of the mounting plate, and wherein the implantation portion is provided intersecting the catch portion, characterized in that the mounting slot is rectangular in shape, and the mounting plate is also rectangular in shape and received in the mounting slot.
A vector comprising a polynucleotide comprising base pairs 8877 to 9353 of SEQ ID NO: 19, which encodes a polypeptide having cytosine deaminase activity.
A method, performed by one or more processors, of interacting with data in a data repository comprising: receiving (3.1), in a data catalogue which comprises a graphical user interface configured to act as a front-end for searching and retrieving items in the data repository, a search request relating to one or more items in the data repository; determining (3.2) an object type from metadata associated with the one or more items and/or one or more properties of the one or more items; loading (3.3) an object template from a library of object templates in dependence on the determined object type, the object template comprising a plurality of elements and wherein the object template comprises definitions of one or more joins between datasets in the data repository for facilitating identification of required additional items to said one or more items; populating (3.4) one or more elements of the template with items from the data repository in dependence on the search request to create an object view; determining (4.1) that the loaded object template can be populated with one or more additional items; retrieving (4.2) the one or more additional items from the data repository based on the one or more join definitions in the loaded object template; populating (4.3) one or more other elements of the loaded object template with the retrieved additional items; and displaying (3.5) the object view within the graphical user interface of the data catalogue, wherein said object view comprises one or more selectable links to linked items as defined by the template. receiving (3.1), in a data catalogue which comprises a graphical user interface configured to act as a front-end for searching and retrieving items in the data repository, a search request relating to one or more items in the data repository; determining (3.2) an object type from metadata associated with the one or more items and/or one or more properties of the one or more items; loading (3.3) an object template from a library of object templates in dependence on the determined object type, the object template comprising a plurality of elements and wherein the object template comprises definitions of one or more joins between datasets in the data repository for facilitating identification of required additional items to said one or more items; populating (3.4) one or more elements of the template with items from the data repository in dependence on the search request to create an object view; determining (4.1) that the loaded object template can be populated with one or more additional items; retrieving (4.2) the one or more additional items from the data repository based on the one or more join definitions in the loaded object template; populating (4.3) one or more other elements of the loaded object template with the retrieved additional items; and displaying (3.5) the object view within the graphical user interface of the data catalogue, wherein said object view comprises one or more selectable links to linked items as defined by the template.
A method for a user equipment, comprising: determining (310, 320, 810), by the user equipment, at least one of measurement rate or measurement availability per time window; and characterized by comprising: adapting (820, 830), by the user equipment, mobility parameters for at least one of an event triggering or a measurement filtering, depending on the determined at least one of the measurement rate or the measurement availability per time window.
A method for cooling a load, the method comprising: compressing a primary refrigerant in a primary compressor of a closed loop primary refrigeration system, the primary compressor taking in a primary refrigerant at a low pressure and discharging the primary refrigerant at a high pressure; transferring the primary refrigerant at the high pressure from the primary compressor to an inlet of an insulated enclosure, and returning the primary refrigerant at the low pressure from the insulated enclosure to the primary compressor; transferring the primary refrigerant at the high pressure to at least one heat exchanger within the insulated enclosure, and cooling the primary refrigerant in the at least one heat exchanger using heat exchange with a secondary refrigerant from a secondary refrigeration system, the secondary refrigeration system comprising at least one secondary cryogenic refrigerator (101, 102, 103); expanding the primary refrigerant using an expansion unit within the insulated enclosure, the expansion unit receiving the primary refrigerant at the high pressure from the at least one heat exchanger and discharging the primary refrigerant at the low pressure; delivering the primary refrigerant at the low pressure to the load and returning the primary refrigerant from the load to the primary refrigeration system; and controlling operation of at least one of the primary refrigeration system and the secondary refrigeration system to provide a variable refrigeration capacity to the load. compressing a primary refrigerant in a primary compressor of a closed loop primary refrigeration system, the primary compressor taking in a primary refrigerant at a low pressure and discharging the primary refrigerant at a high pressure; transferring the primary refrigerant at the high pressure from the primary compressor to an inlet of an insulated enclosure, and returning the primary refrigerant at the low pressure from the insulated enclosure to the primary compressor; transferring the primary refrigerant at the high pressure to at least one heat exchanger within the insulated enclosure, and cooling the primary refrigerant in the at least one heat exchanger using heat exchange with a secondary refrigerant from a secondary refrigeration system, the secondary refrigeration system comprising at least one secondary cryogenic refrigerator (101, 102, 103); expanding the primary refrigerant using an expansion unit within the insulated enclosure, the expansion unit receiving the primary refrigerant at the high pressure from the at least one heat exchanger and discharging the primary refrigerant at the low pressure; delivering the primary refrigerant at the low pressure to the load and returning the primary refrigerant from the load to the primary refrigeration system; and controlling operation of at least one of the primary refrigeration system and the secondary refrigeration system to provide a variable refrigeration capacity to the load.
Apparatus comprising a welding device for welding bags, in particular valve bags, wherein the welding device comprises at least two welding jaws (10, 11) for manufacturing a multiple weld seam, characterized in that the welding device is structured such that at least two weld seams (21, 22) of the multiple weld seam can be manufactured sequentially and spaced apart, to which purpose an adjustment device can move at least one of the welding jaws (10, 11) between at least two spaced-apart welding positions.