mhurhangee/ep-ind-claims huggingface dataset:
A rolled steel bar or rolled wire rod for a cold-forged component that has a chemical composition comprising, in mass%: C: 0.24% to 0.36%; Si: less than 0.40%; Mn: 0.20% to 0.45%; S: less than 0.020%; P: less than 0.020%; Cr: 0.70% to 1.45%; Al: 0.005% to 0.060%; Ti: greater than 0.010% to 0.050%; Nb: 0.003% to 0.050%; B: 0.0003% to 0.0040%; N: 0.0020% to 0.0080%; Cu: 0% to 0.50%; Ni: 0% to 0.30%; Mo: 0% to 0.050%; V: 0% to 0.050%; Zr: 0% to 0.050%; Ca: 0% to 0.0050%; and Mg: 0% to 0.0050% with a remainder of Fe and impurities, wherein Y1 and Y2 represented by the following Formulas <1> and <2>, satisfy a relationship represented by the following Formula <3>, a tensile strength is 750 MPa or less, an internal structure that is the structure of a portion, which excludes a surface layer portion ranging up to 100 μm from the surface, is a ferrite-pearlite structure, the ferrite-pearlite structure means a structure in which a total of the area fraction of the ferrite and the area fraction of the pearlite is 95% or greater, and a ferrite fraction is 40% or greater in the internal structure. Y 1 = Mn × Cr Y 2 = 0.134 × D / 25.4 − 0.50 × √ C / 0.50 × √ C and Y 1 > Y 2 where, [Mn], and [Cr] in the formulas represent respective amounts of elements in mass%, and D represents a diameter of the rolled steel bar or rolled wire rod in the unit of mm. C: 0.24% to 0.36%; Si: less than 0.40%; Mn: 0.20% to 0.45%; S: less than 0.020%; P: less than 0.020%; Cr: 0.70% to 1.45%; Al: 0.005% to 0.060%; Ti: greater than 0.010% to 0.050%; Nb: 0.003% to 0.050%; B: 0.0003% to 0.0040%; N: 0.0020% to 0.0080%; Cu: 0% to 0.50%; Ni: 0% to 0.30%; Mo: 0% to 0.050%; V: 0% to 0.050%; Zr: 0% to 0.050%; Ca: 0% to 0.0050%; and Mg: 0% to 0.0050%
A method for obtaining a formate from a reaction mixture, in which a polyoxometallate ion, which acts as a catalyst, of the general formula [PMo x V y O 40] n- is in contact with an organic material at a temperature below 120 °C to produce formic acid in an aqueous solution, wherein 6 ≤ x ≤ 11, 1 ≤ y ≤ 6, x + y = 12 and 3 < n < 10, wherein n, x and y are each a whole number, which method comprises the following steps: a) separating a mixture of formic acid and water from the reaction mixture by reverse osmosis and/or as vapor, the vapor 18 subsequently being condensed and b) reacting the formic acid not separated from the water with a hydroxide in aqueous solution to produce a solution of a formate, wherein the organic material is an alpha-hydroxyaldehyde, an alpha-hydroxycarboxylic acid, a carbohydrate, or a glycoside. a) separating a mixture of formic acid and water from the reaction mixture by reverse osmosis and/or as vapor, the vapor 18 subsequently being condensed and b) reacting the formic acid not separated from the water with a hydroxide in aqueous solution to produce a solution of a formate,
A processor comprising: a plurality of cores to be allocated to form a first plurality of logical processors, LPs, to execute threads, wherein one or more logical processors, LPs, are to be associated with each core of the plurality of cores; a scheduling guide circuitry to: monitor execution characteristics of the first plurality of LPs and the threads; generate a first plurality of LP rankings, each LP ranking including all or a subset of the plurality of LPs in a particular order; and store the first plurality of LP rankings in a memory to be provided to a scheduler, the scheduler to schedule the threads on the plurality of LPs using the first plurality of LP rankings; a power controller to execute power management code to perform power management operations including independently adjusting frequencies and/or voltages of one or more of the plurality of cores; wherein in response to a core configuration command to deactivate a first core of the plurality of cores, the power controller or privileged program code executed on the processor are to update the memory with an indication of deactivation of the first core, wherein responsive to the indication of deactivation of the first core, the scheduler is to modify the scheduling of the threads. a plurality of cores to be allocated to form a first plurality of logical processors, LPs, to execute threads, wherein one or more logical processors, LPs, are to be associated with each core of the plurality of cores; a scheduling guide circuitry to: monitor execution characteristics of the first plurality of LPs and the threads; generate a first plurality of LP rankings, each LP ranking including all or a subset of the plurality of LPs in a particular order; and store the first plurality of LP rankings in a memory to be provided to a scheduler, the scheduler to schedule the threads on the plurality of LPs using the first plurality of LP rankings; monitor execution characteristics of the first plurality of LPs and the threads; generate a first plurality of LP rankings, each LP ranking including all or a subset of the plurality of LPs in a particular order; and store the first plurality of LP rankings in a memory to be provided to a scheduler, the scheduler to schedule the threads on the plurality of LPs using the first plurality of LP rankings; a power controller to execute power management code to perform power management operations including independently adjusting frequencies and/or voltages of one or more of the plurality of cores; wherein in response to a core configuration command to deactivate a first core of the plurality of cores, the power controller or privileged program code executed on the processor are to update the memory with an indication of deactivation of the first core, wherein responsive to the indication of deactivation of the first core, the scheduler is to modify the scheduling of the threads.
A retrofitting device for medium voltage panels comprising a plurality of first horizontal CB contacts (11, 12, 13) aligned in a first horizontal plane, a plurality of second horizontal CB contacts (21, 22, 23) aligned in a second horizontal plane spaced apart from said first horizontal plane, characterized in that it further comprises a plurality of first vertical SWG contacts (31, 32, 33) aligned in a first vertical plane, a plurality of second vertical SWG contacts (41, 42, 43) aligned in a second vertical plane spaced apart from said first vertical plane, a first bar assembly comprising first connection elements (3, 4, 5) for connecting each of said first horizontal CB contacts (11, 12, 13) with a corresponding first vertical SWG contact (31, 32, 33), a second bar assembly comprising second connection elements (7, 8, 9) for connecting each of said second horizontal CB contacts (21, 22, 23) with a corresponding second vertical SWG contact (41, 42, 43), said first connection elements (3, 4, 5) comprising a first portion (311, 411, 511) and a second portion (312, 412, 512) linked to each other and free to change the angular position with respect to each other in a vertical plane coinciding or parallel to said first vertical plane when in an unlocked condition, said second connection elements (7, 8, 9) comprising a third portion (71, 81, 91) and a fourth portion (72, 82, 92) linked to each other and free to change the angular position with respect to each other in a vertical plane coinciding or parallel to said second vertical plane when in an unlocked condition, first locking means being provided to lock the first (311, 411, 511) with the second portions (312, 412, 512) and the third (71, 81, 91) with the fourth (72, 82, 92) portions in a desired position in which said first horizontal CB contacts (11, 12, 13) and said second horizontal CB contacts (21, 22, 23) are positioned on a substantially same vertical plane.
Break-in-resistant intelligent sliding enclosure, intended for enclosures such as windows and doors, consisting of a closed fitting channel or frame that allows the sliding of one or more leaves, which is a frame that is hidden in an insertion face, and which is constituted by an upper profile configured by three profiles joined together, two of which are removable to facilitate the placement of the leaves, reducing the necessary clearances between leaves and frame and preventing the leaves from being leveraged; two vertical lateral profiles and a lower profile, and all of them have a series of longitudinal grooves for the accommodation and guidance of the supporting profiles of the sliding enclosure further consists of one or more leaves in which each the leaves, i leaf is preferably made of plates or glass planes, so that each leaf is configured as at least two continuous plates fully glazed and separated from each other by one or more chambers of air or other technical gases; in which every outer surface is smooth; and in which the enclosure is characterised by the fact that it is constituted by: - a support profile on each leaf, which internally of an interleaved profile, whose ends are extended internally to separate the plates located externally and internally in the support profile and along of the entire perimeter, and in which there is an internal channel that houses, conceals and protects fittings and components; - a blocking motorisation system of the leaves, which is incorporated in the support profile; - a displacement motorisation system, which is also incorporated in the support profile; and - at least two travel carts for each leaf. which are incorporated in the support profile in its lower part. - a support profile on each leaf, which internally of an interleaved profile, whose ends are extended internally to separate the plates located externally and internally in the support profile and along of the entire perimeter, and in which there is an internal channel that houses, conceals and protects fittings and components; - a blocking motorisation system of the leaves, which is incorporated in the support profile; - a displacement motorisation system, which is also incorporated in the support profile; and - at least two travel carts for each leaf. which are incorporated in the support profile in its lower part.
Power generator assembly including a rotating part and a non-rotating part, wherein the rotating part is mounted on an end cap configured to hold a bearing of a train axle, characterized in that the rotating part includes at least one generator unit (18a- 18d) including at least one coil, at least one permanent magnet (22a, 22b) and two pole shoes having pole surfaces (24a, 24b) of opposite polarities facing radially outward, wherein the non-rotating part includes an arc-shaped saddle adaptor in which the axle is mounted via the bearing, the arc-shaped saddle adaptor being made of ferromagnetic material and arranged with a radial distance to the pole surfaces (24a, 24b), wherein the saddle adaptor is configured to close a magnetic circuit passing via the pole shoes, the at least one permanent magnet (22a, 22b) and through the coil in a rotational position where the saddle adaptor overlaps with the pole shoes of the generator unit (18a - 18d), wherein the circumferential lengths of the at least one generator unit (18a - 18d) and of the saddle adaptor are such that at least one rotational position exists where the saddle adaptor does not overlap with the pole shoes of the generator unit (18a - 18d).
A converter motor, comprising an electric motor with a housing part and fan, a fan cowl, a cover part and a converter, wherein the cover part is placed on the housing part of the motor and at least partially covers the fan cowl, wherein the converter has a printed circuit board and a power module electrically connected, in particular connected by soldering, to the printed circuit board, wherein the power module has a plate, in particular copper plate, wherein the plate is embodied to be suitable for dissipating heat from the power module, wherein the fan cowl is connected, in particular screw-connected, to a housing part of the electric motor, characterised in that a spring element supported on the inside of the cover part presses the plate of the power module against the fan cowl, wherein the spring element presses on a frame part which presses on at least one plastics bolt of the power module protruding through at least one cutout in the printed circuit board, which bolt in turn presses the copper plate onto the fan cowl. wherein the cover part is placed on the housing part of the motor and at least partially covers the fan cowl, wherein the converter has a printed circuit board and a power module electrically connected, in particular connected by soldering, to the printed circuit board, wherein the power module has a plate, in particular copper plate, wherein the plate is embodied to be suitable for dissipating heat from the power module, wherein the fan cowl is connected, in particular screw-connected, to a housing part of the electric motor, characterised in that a spring element supported on the inside of the cover part presses the plate of the power module against the fan cowl, wherein the spring element presses on a frame part which presses on at least one plastics bolt of the power module protruding through at least one cutout in the printed circuit board, which bolt in turn presses the copper plate onto the fan cowl.
A system for producing a product gas, comprising: a first separation bed to separate adsorbable components from a gas source; a valving means connected to the first separation bed to selectively direct gas from the gas source to the first separation bed; at least one sensing device associated with the first separation bed to sense the progress of an adsorption zone within the first separation bed and provide an output, wherein the sensing device is coupled to the inside of the first separation bed near the outlet of the first separation bed via a first line (602; 702); a controller, comprising logic to: read the output of the at least one sensing device; and control the valving means based at least in part on stored control parameters, wherein the stored control parameters are based on the output of the at least one sensing device. a first separation bed to separate adsorbable components from a gas source; a valving means connected to the first separation bed to selectively direct gas from the gas source to the first separation bed; at least one sensing device associated with the first separation bed to sense the progress of an adsorption zone within the first separation bed and provide an output, wherein the sensing device is coupled to the inside of the first separation bed near the outlet of the first separation bed via a first line (602; 702); a controller, comprising logic to: read the output of the at least one sensing device; and control the valving means based at least in part on stored control parameters, wherein the stored control parameters are based on the output of the at least one sensing device. read the output of the at least one sensing device; and control the valving means based at least in part on stored control parameters, wherein the stored control parameters are based on the output of the at least one sensing device.
An agrochemical fluid dispersion comprising: an agrochemical active ingredient, as a dispersoid having an average particle diameter of 10 μm to 70 μm, the agrochemical active ingredient being liquid agrochemical active ingredient incompatible with water or a solution obtained by dissolving solid agrochemical active ingredient in organic solvent, wherein a solubility of the liquid agrochemical active ingredient or the solid agrochemical active ingredient is from 0.1 to 100 mg per 100g of water at 20°C water as a dispersion medium, and a dispersing agent comprising a modified-polyvinyl alcohol-based resin, having 95 mol% or more saponification degree and containing a structural unit represented by the formula which has a nonionic hydrophilic group in side chain, wherein Z is nonionic hydrophilic group, R 1, R 2, and R 3 each is independently a hydrogen or an alkyl group having 1 to 5 carbon atoms and optionally having a substituent, and X is single bond or a binding chain, wherein the structural unit represented by the formula has 8 to 10 in HLB value determined by Davies' method. an agrochemical active ingredient, as a dispersoid having an average particle diameter of 10 μm to 70 μm, the agrochemical active ingredient being liquid agrochemical active ingredient incompatible with water or a solution obtained by dissolving solid agrochemical active ingredient in organic solvent, wherein a solubility of the liquid agrochemical active ingredient or the solid agrochemical active ingredient is from 0.1 to 100 mg per 100g of water at 20°C water as a dispersion medium, and a dispersing agent comprising a modified-polyvinyl alcohol-based resin, having 95 mol% or more saponification degree and containing a structural unit represented by the formula which has a nonionic hydrophilic group in side chain, wherein Z is nonionic hydrophilic group, R 1, R 2, and R 3 each is independently a hydrogen or an alkyl group having 1 to 5 carbon atoms and optionally having a substituent, and X is single bond or a binding chain, wherein the structural unit represented by the formula has 8 to 10 in HLB value determined by Davies' method.
A radiological-image acquisition device (100, 200, 300) that acquires a two-dimensional image according to a dose of radiation that has been radiated to a subject, the radiological-image acquisition device (100, 200, 300) comprising: a plurality of pixels disposed two-dimensionally; and a capacitive element in each of the plurality of pixels, the capacitive element, when the radiation is incident on the plurality of pixels, accumulating electric charge corresponding to the dose for the pixel in at least two sequential frames; characterized by a read control unit adapted to perform the initialization of each pixel of the plurality of pixels within an initialization cycle having a time length of a plurality of frames, the initialization of said each pixel being performed such that different pixels are subjected to initialization in each frame of said plurality of frames; and wherein the read control unit is further adapted to read, during the initialization cycle, from at least one of the plurality of pixels, a first output signal and a second output signal which correspond to the accumulated electric charge in each of a first frame and a second frame wherein no initialization of said pixel is performed. a plurality of pixels disposed two-dimensionally; and a capacitive element in each of the plurality of pixels, the capacitive element, when the radiation is incident on the plurality of pixels, accumulating electric charge corresponding to the dose for the pixel in at least two sequential frames; characterized by a read control unit adapted to perform the initialization of each pixel of the plurality of pixels within an initialization cycle having a time length of a plurality of frames, the initialization of said each pixel being performed such that different pixels are subjected to initialization in each frame of said plurality of frames; and wherein
Method for producing a synthesis gas which consists mainly of carbon monoxide and hydrogen and has been freed of acid gases, proceeding from a hydrocarbonaceous fuel, and air and steam, comprising the following steps: a) fractionating air by low-temperature rectification into an oxygen stream, a tail gas stream and a nitrogen stream, wherein the tail gas stream and the nitrogen stream are at ambient temperature and the nitrogen stream has an elevated pressure, b) converting a hydrocarbonaceous fuel at elevated temperature and elevated pressure with the oxygen stream produced in step a) and the steam into a synthesis gas, c) removing the acid gases from the synthesis gas produced in step b) by low-temperature absorption in an absorption column with a liquid absorbent, d) cooling the absorbent used in step c) to the low temperature required for the low-temperature absorption by means of a compression refrigeration installation, wherein the compression refrigeration installation comprises a refrigerant circuit in which the refrigerant is compressed and thus heated and, by subsequent heat exchange with cooling water, cooled and condensed. e) cooling the cooling water prior to its heat exchange with the refrigerant in step d) by evaporative cooling, characterized in that the evaporative cooling in step e) is carried out with the tail gas stream produced in step a) and/or, after its expansion, with the nitrogen stream produced in step a). a) fractionating air by low-temperature rectification into an oxygen stream, a tail gas stream and a nitrogen stream, wherein the tail gas stream and the nitrogen stream are at ambient temperature and the nitrogen stream has an elevated pressure, b) converting a hydrocarbonaceous fuel at elevated temperature and elevated pressure with the oxygen stream produced in step a) and the steam into a synthesis gas, c) removing the acid gases from the synthesis gas produced in step b) by low-temperature absorption in an absorption column with a liquid absorbent, d) cooling the absorbent used in step c) to the low temperature required for the low-temperature absorption by means of a compression refrigeration installation, wherein the compression refrigeration installation comprises a refrigerant circuit in which the refrigerant is compressed and thus heated and, by subsequent heat exchange with cooling water, cooled and condensed. e) cooling the cooling water prior to its heat exchange with the refrigerant in step d) by evaporative cooling, characterized in that the evaporative cooling in step e) is carried out with the tail gas stream produced in step a) and/or, after its expansion, with the nitrogen stream produced in step a).
Method for manufacturing hollow objects, in particular plastic multilayer parisons, which are manufactured in a hollow mold space provided therefor from at least two materials, including a primary base material and a secondary material as a carrier material, wherein the base material, and possibly the secondary material, is formed by a plastic, and wherein both primary base and secondary carrier materials (A, resp. B) are fed to the hollow mold space over primary and secondary feed channels (67, 68) in an injection mold and a hotrunner plate, each of which (67, 68) run into adapted heating elements and their respective primary base and secondary carrier materials (A, resp. B) lead to a common extrusion connection sprue through which the primary base and secondary carrier materials (A, B) are injected separately in the hollow molding space, first with the primary base material which is injected under a relatively high temperature T and pressure p, characterized in that a predetermined amount of tertiary material is further fed as activator material, independently from the other two materials (A, B), externally and outside of said hotrunner plate, to said secondary supply channel into which a tertiary supply duct runs at a predetermined distance of said common extrusion connection, upstream thereof, under conditions of temperature and/or pressure which are significantly lower than for said primary and secondary injection temperature T and/or pressure p, so that said tertiary material is entrained with said secondary material, in order to be injected together in the hollow space in a controlled manner with the formation of an intermediate composite barrier layer; and in that said material is supplied by means of an insert or torpedo which is placed suitably therefor in the secondary feed channel at the edge of the hot runner system just before the gate, wherein an amount of primary material is first injected in said forming mold through said extrusion connection sprue, whereupon said secondary material is supplied individually with respect to said primary material via the secondary channel, wherein a co-operating locking rod is moved from its current primary position in which the secondary channel is blocked, to a further position in which the secondary channel is open and allows a cyclic passage of barrier material (B & C), through a further extrusion connection sprue through which the secondary and the tertiary material, which is incorporated via the bypass channel, are injected, in order to be injected together into the hollow mold space in a controlled way.