mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for cooling and compressing a fluid to produce a low-temperature compressed fluid, the apparatus using a Rankine cycle system (RCa, RCb) comprising: a first compression device for adiabatically compressing a heat transfer medium; a first heat exchanger for constant-pressure heating the adiabatically compressed heat transfer medium; at least one expansion device (3,3a,3b) for adiabatically expanding the heated heat transfer medium; a second heat exchanger for constant-pressure cooling the adiabatically expanded heat transfer medium; a first flow passageway for guiding the heat transfer medium from the second heat exchanger to the first compression device; and at least one second compression device (6,6a,6b); wherein, at the second heat exchanger, a low-temperature liquefied natural gas and the heat transfer medium undergo heat transfer, wherein a fed material gas undergoes heat transfer to produce a low-temperature fluid from the material gas and wherein, the low-temperature fluid is thereafter compressed at the at least one second compression device (6,6a,6b) to produce a low-temperature compressed fluid characterized in that the at least one second compression device (6,6a,6b) is coupled to the expansion device or one of the expansion (3,3a,3b), and at the first heat exchanger, the fed material gas and the heat transfer medium undergo heat transfer to produce the low-temperature fluid from the material gas. a first compression device for adiabatically compressing a heat transfer medium; a first heat exchanger for constant-pressure heating the adiabatically compressed heat transfer medium; at least one expansion device (3,3a,3b) for adiabatically expanding the heated heat transfer medium; a second heat exchanger for constant-pressure cooling the adiabatically expanded heat transfer medium; a first flow passageway for guiding the heat transfer medium from the second heat exchanger to the first compression device; and at least one second compression device (6,6a,6b); wherein, at the second heat exchanger, a low-temperature liquefied natural gas and the heat transfer medium undergo heat transfer, wherein a fed material gas undergoes heat transfer to produce a low-temperature fluid from the material gas and wherein, the low-temperature fluid is thereafter compressed at the at least one second compression device (6,6a,6b) to produce a low-temperature compressed fluid characterized in that the at least one second compression device (6,6a,6b) is coupled to the expansion device or one of the expansion (3,3a,3b), and at the first heat exchanger, the fed material gas and the heat transfer medium undergo heat transfer to produce the low-temperature fluid from the material gas.
Device for providing workpieces or webs with glue, wherein it comprises a nozzle plate over which the workpiece or the web may be guided in a transport direction (x) and which comprises at least one glue outlet nozzle, wherein a plurality of glue valves are arranged on or in the nozzle plate, with which a glue flow may be produced and interrupted between at least one glue reservoir and/or at least one glue feed line (21, 22) and the glue outlet nozzle, so that the glue may be applied to the surface of the workpiece or web to be glued in a desired format, wherein at least one fluid outlet nozzle is provided on or in the nozzle plate through which a fluid may be fed, wherein at least one fluid line leads to the at least one fluid outlet nozzle, wherein the fluid line is so oriented that the fluid may reach a rear surface of the nozzle plate, and wherein the axis of the at least one fluid line makes an acute angle of between 10 and 80 degrees with a rear surface (16, 18) of the nozzle plate, characterized in that a plurality of valves are provided, wherein a fluid may be made available to each valve via a supply line, and wherein a connection of at least one fluid line (27, 28) to each valve may be effected, and wherein one or more fluid outlet nozzles may be supplied with fluid via each valve.
A heat conversion device, comprising: a housing; a thermoelectric module received in the housing and including a thermoelectric semiconductor between substrates (140; 150) disposed to face each other; a first temperature conversion portion and a second temperature conversion portion disposed on the substrates (140; 150), respectively; and a heat reduction portion adopted to guide a part of a fluid flowing in the housing and passing through the first temperature conversion portion to the second temperature conversion portion, characterized in the heat reduction portion divided into a first region and a second region in the inner part of the housing, the first region being divided as a region which communicates with the first temperature conversion portion, and the second region being divided as a region which communicates with the second temperature conversion portion. a housing; a thermoelectric module received in the housing and including a thermoelectric semiconductor between substrates (140; 150) disposed to face each other; a first temperature conversion portion and a second temperature conversion portion disposed on the substrates (140; 150), respectively; and a heat reduction portion adopted to guide a part of a fluid flowing in the housing and passing through the first temperature conversion portion to the second temperature conversion portion, characterized in the heat reduction portion divided into a first region and a second region in the inner part of the housing, the first region being divided as a region which communicates with the first temperature conversion portion, and the second region being divided as a region which communicates with the second temperature conversion portion.
Chuck locking device for machine tools, having a distal end where a workpiece or a tool is secured, including an axially mobile member slidable within an axially stationary member, and an expander axially slidable within said mobile member and suitable to push three wedging bodies radially outwards against a distal abutment surface of said stationary member through proper apertures formed in the mobile member, said wedging bodies rolling along races, formed on the external surface of said expander, that have a decreasing slope from their proximal end towards their distal end up to the point of contact with the wedging bodies which corresponds to the minimum working position of the device in which the mobile member least projects from the stationary member, characterized in that in the terminal distal length of the races beyond said point of contact said slope increases from said point of contact up to their distal end so as to obtain a closed profile of the expander suitable to prevent the wedging bodies from leaving through its distal end.
An ultra high strength steel plate having high formability and hole expandability, the ultra high strength steel plate consisting of, by wt%, carbon: 0.04% to 0.17%, silicon (Si): 2% or less, manganese (Mn): 4% to 10%, phosphorous: 0.05% or less excluding 0%, sulfur: 0.02% or less excluding 0%, aluminum (Al): 0.5% or less excluding 0%, nitrogen: 0.02% or less excluding 0%, and a balance of iron (Fe) and inevitable impurities, the steel plate further optionally comprising at least one selected from: titanium (Ti): 0.1% or less excluding 0%, niobium (Nb): 0.1% or less excluding 0%, vanadium: 0.2% or less excluding 0%, and molybdenum (Mo): 0.5% or less excluding 0%; or at least one selected from zirconium (Zr): 0.001% to 0.1%, and tungsten: 0.001% to 0.5%; or at least one selected from nickel (Ni): 1% or less excluding 0%, copper (Cu): 0.5% or less excluding 0%, and chromium (Cr): 1% or less excluding 0%; or at least one selected from antimony (Sb): 0.04% or less excluding 0%, calcium (Ca): 0.01% or less excluding 0%, and boron: 0.01% or less excluding 0%; wherein carbon and manganese (Mn) satisfy Formula 1 below, and the ultra high strength steel plate has a microstructure comprising retained austenite in a volume fraction of 20% or greater and annealed martensite in a volume fraction of 50% or greater, wherein the ultra high strength steel plate has a tensile strength of 980 MPa or greater, and a yield ratio of 0.6 or greater, a product of tensile strength and elongation within a range of 25,000 MPa% or greater, and a hole expansion ratio of 15% or greater, C + Mn / 25 ≤ 0.46 titanium (Ti): 0.1% or less excluding 0%, niobium (Nb): 0.1% or less excluding 0%, vanadium: 0.2% or less excluding 0%, and molybdenum (Mo): 0.5% or less excluding 0%; or at least one selected from zirconium (Zr): 0.001% to 0.1%, and tungsten: 0.001% to 0.5%; or at least one selected from nickel (Ni): 1% or less excluding 0%, copper (Cu): 0.5% or less excluding 0%, and chromium (Cr): 1% or less excluding 0%; or at least one selected from antimony (Sb): 0.04% or less excluding 0%, calcium (Ca): 0.01% or less excluding 0%, and boron: 0.01% or less excluding 0%; wherein carbon and manganese (Mn) satisfy Formula 1 below, and the ultra high strength steel plate has a microstructure comprising retained austenite in a volume fraction of 20% or greater and annealed martensite in a volume fraction of 50% or greater,
A landing gear for an aircraft, the landing gear comprising: a strut tube having a first lug and a second lug thereon; and a first brace coupled to the composite strut tube with a first two-force member via the first lug and a second brace coupled to the composite strut tube with a second two-force member via the second lug, and characterized by said strut tube being a composite strut tube and wherein the second brace comprises a fixed brace and the second two-force member comprises a side strut, and wherein the fixed brace comprises a planar triangular member with an apex thereof coupled to the composite strut tube by the second two-force member comprising the side strut. a strut tube having a first lug and a second lug thereon; and a first brace coupled to the composite strut tube with a first two-force member via the first lug and a second brace coupled to the composite strut tube with a second two-force member via the second lug, and characterized by said strut tube being a composite strut tube and wherein the second brace comprises a fixed brace and the second two-force member comprises a side strut, and wherein the fixed brace comprises a planar triangular member with an apex thereof coupled to the composite strut tube by the second two-force member comprising the side strut.
A self-adhesive balancing weight for balancing a wheel of a vehicle comprising - a bottom surface to be attached to the rim of the wheel, opposed thereto a top surface, - two long sides opposing each other, between the top surface and the bottom surface, - two short sides opposing each other, between the long sides and between the top surface and the bottom surface, characterized in that the balancing weight is an arch segment having a convex bottom surface extending between the short sides, and the short sides having an angle of less than 90° to the bottom surface, and an angle of more than 90° to the top surface, and the short sides are convex-shaped from one long side to the other long side. - a bottom surface to be attached to the rim of the wheel, opposed thereto a top surface, - two long sides opposing each other, between the top surface and the bottom surface, - two short sides opposing each other, between the long sides and between the top surface and the bottom surface,
A method of processing image signals from a first and a second image sensor arranged as staggered linear arrays, both of a document scanner unit, where said first image sensor provides a first image, and said second image sensor provides a second image, said first and second images being two-dimensional images wherein said first and second image sensors record said first and second images of respective areas of a scanned medium, where one of said first and second image sensors also records a portion of the respective area recorded by the other of the respective image sensors, whereby image data from overlapping and non-overlapping areas are present in the first and the second image; the method comprising: - selecting a first sub image at a location in the overlapping area of the first image, and a second sub image at a location in the overlapping area of the second image, wherein the first and the second sub image both comprise image data from the same area of the scanned medium; - correlating said first sub image with said second sub image, creating a first correlation image indicative of correlations at various displacement between said first and second sub images; wherein the method further comprises repeating the above steps with sub images taken from different locations than the first and the second sub image, thus creating a second correlation image, and determining a displacement between the first and the second image resulting from a physical displacement between the first and the second image sensor, by processing the first and the second correlation image; and wherein a plurality of displacements between the first and the second image is determined by processing a plurality of correlation images. - selecting a first sub image at a location in the overlapping area of the first image, and a second sub image at a location in the overlapping area of the second image, wherein the first and the second sub image both comprise image data from the same area of the scanned medium; - correlating said first sub image with said second sub image, creating a first correlation image indicative of correlations at various displacement between said first and second sub images;
A fast coupling for manufacturing a separable connection in a fluid line with a coupling body, an insertion part, a holder and a securing element, wherein the coupling body has a through bore, wherein the holder can be used to preferably reversibly secure the insertion part introduced into the through bore in the through bore, wherein the holder has an annular carcass, wherein the securing element has an annular body, wherein the annular carcass and annular body circle around the insertion part and/or coupling body, and wherein the securing element can be displaced in an axial direction in relation to the through bore from a free position into a securing position when the insertion part is secured in the through bore with the holder, characterized in that a securing element-side coupling element is designed as a coupling projection, wherein a holder-side complementary coupling element is designed as a coupling opening, and wherein the coupling projection is arranged in the coupling opening in the free position of the securing element and interacts with the latter.
An image encoding method for encoding a multi-view image including a plurality of views, the image encoding method characterized by comprising: generating a plurality of pairs of view identification information items, wherein each pair is associated with a screen size used in an image decoding apparatus and at least one view identification information item of a pair is assigned to one of the plurality of views; and encoding the pairs of view identification information items. generating a plurality of pairs of view identification information items, wherein each pair is associated with a screen size used in an image decoding apparatus and at least one view identification information item of a pair is assigned to one of the plurality of views; and encoding the pairs of view identification information items.
A hop oxidation-reaction product for use in a method of suppressing fat accumulation or suppressing weight gain, or for use in a method of preventing or treating obesity, wherein the product is obtainable by subjecting a hop to an oxidation treatment by heating at a temperature between 60°C to 100°C and being characterized by that a proportion of a peak area of iso α acid, α acid and β acid to a total area (mAU•min) of all the peaks of the hop oxidation-reaction product as determined by HPLC analysis is 20% or less, wherein said HPLC is performed under the following conditions: Column: C18 2.1 mm I.D. x 100 mm, particle diameter: 3 μm Flow rate: 0.6 mL/min Elution solvent A: water/phosphoric acid, 1000/0.2 (v/v) + EDTA (free) 0.02% (w/v) Elution solvent B: acetonitrile Elution solvent C: water Injection amount: 3 μL Column temperature: 40°C Detection wavelength: 270nm (oxidation-reaction products, iso α acid, α acid, β acid) Gradient program: [Table 1] Mobile phase composition % Time min A B C 0 90 10 0 26.67 48 52 0 30 25 75 0 32.67 15 85 0 37.67 15 85 0 37.68 0 10 90 41.3 0 10 90 41.31 90 10 0 51 stop (After 37.68 min, the washing and equilibration step) Column: C18 2.1 mm I.D. x 100 mm, particle diameter: 3 μm Flow rate: 0.6 mL/min Elution solvent A: water/phosphoric acid, 1000/0.2 (v/v) + EDTA (free) 0.02% (w/v) Elution solvent B: acetonitrile Elution solvent C: water Injection amount: 3 μL Column temperature: 40°C Detection wavelength: 270nm (oxidation-reaction products, iso α acid, α acid, β acid) Gradient program: [Table 1] Mobile phase composition % Time min A B C 0 90 10 0 26.67 48 52 0 30 25 75 0 32.67 15 85 0 37.67 15 85 0 37.68 0 10 90 41.3 0 10 90 41.31 90 10 0 51 stop (After 37.68 min, the washing and equilibration step)
A bioink composition for a dermis regeneration sheet, the bioink composition comprising: a first liquid comprising an adipose tissue-derived stromal vascular fraction, an adipose tissue-derived extracellular matrix, and fibrinogen, wherein a content of the adipose tissue-derived extracellular matrix in the first liquid is 20 wt% to 60 wt%; and a second liquid comprising thrombin, wherein a concentration of thrombin in the second liquid is 40 IU/ml to 250 IU/ml. a first liquid comprising an adipose tissue-derived stromal vascular fraction, an adipose tissue-derived extracellular matrix, and fibrinogen, wherein a content of the adipose tissue-derived extracellular matrix in the first liquid is 20 wt% to 60 wt%; and a second liquid comprising thrombin, wherein a concentration of thrombin in the second liquid is 40 IU/ml to 250 IU/ml.
Switching system, in particular for a relay or contactor, having a contact bridge arranged between two contact points (4a, 4b) and being able to rotate around an axis of rotation, and having at least one arcing chamber, characterised by a magnetic element which generates a magnetic field parallel to the axis of rotation of the contact bridge for impelling an arc into the arcing chamber, said arc arising when the contact points (4a, 4b) are open.
Process for producing a coated mixed lithium transition metal oxide, characterized in that a mixed lithium transition metal oxide and a pyrogenically produced zirconium dioxide and/or a pyrogenically produced mixed oxide comprising zirconium are subjected to dry mixing by means of an electric mixing unit in the form of intensive mixers with high-speed mixing tools having a specific electrical power of 0.05-1.5 kW per kg of the mixed lithium transition metal oxide.
A lighting apparatus (10; 50; 70) for incorporation into a wall, panel, ceiling, floor or similar structure (38, 40), the apparatus comprising: a reflector unit (12, 14; 52, 54) that has at least one reflective surface (24, 26) for location behind the surface of the structure and an external light-transmissive face (14; 52) for location generally flush with the surface of the structure; and means (28; 80) for coupling an end of a fibre-optic cable having a multiplicity of optical fibres to the reflector unit behind the surface of the structure so that light projecting from the ends of the fibres enters the reflector unit and is reflected by the reflective surface(s) so as to provide substantially uniform illumination across the light-transmissive face; the reflector unit is formed with an external flange generally parallel to the light- transmissive face; the reflector unit (12, 14) comprises: a hollow box, the box having at least one wall (24, 26) providing the reflective surface(s), an opening arranged to receive light from the optical fibres, and an open side; and a unitary light-transmissive plate closing the open side of the box and providing the light-transmissive face, characterised in that the light-transmissive plate has first and second layers (90, 92) of different shapes, the first and second layers adjoining each other. a reflector unit (12, 14; 52, 54) that has at least one reflective surface (24, 26) for location behind the surface of the structure and an external light-transmissive face (14; 52) for location generally flush with the surface of the structure; and means (28; 80) for coupling an end of a fibre-optic cable having a multiplicity of optical fibres to the reflector unit behind the surface of the structure so that light projecting from the ends of the fibres enters the reflector unit and is reflected by the reflective surface(s) so as to provide substantially uniform illumination across the light-transmissive face; the reflector unit is formed with an external flange generally parallel to the light- transmissive face; the reflector unit (12, 14) comprises: a hollow box, the box having at least one wall (24, 26) providing the reflective surface(s), an opening arranged to receive light from the optical fibres, and an open side; and a unitary light-transmissive plate closing the open side of the box and providing the light-transmissive face, characterised in that the light-transmissive plate has first and second layers (90, 92) of different shapes, the first and second layers adjoining each other.
A process which comprises producing fatty acid methyl ester for diesel fuel oil in accordance with transesterification of fat and oil with methanol, whereby glycerol is formed as a by-product, converting said glycerol formed as a by-product into methanol, wherein said converting said glycerol formed as a by-product into methanol includes converting glycerol into a gas comprising carbon monoxide and hydrogen as the main components, and obtaining the methanol from the carbon monoxide and hydrogen, and using said methanol obtained by the conversion as a reactant for further transesterification of fat and oil in producing further fatty acid methyl ester for diesel fuel oil.