mhurhangee/ep-ind-claims huggingface dataset:
A load-sensing strut comprising: a main body having a longitudinal loading axis along which an applied load is transmitted; a load sensing member arranged to carry at least a portion of the applied load when the applied load is within a predetermined loading range, wherein the load sensing member includes at least one load sensor generating a load signal; and a load alleviation member arranged to reduce the portion of the applied load carried by the load sensing member when the applied load is outside the predetermined loading range; wherein the at least one load sensor exhibits greater sensitivity to incremental changes in the applied load when the applied load is within the predetermined loading range than when the applied load is outside the predetermined loading range. a main body having a longitudinal loading axis along which an applied load is transmitted; a load sensing member arranged to carry at least a portion of the applied load when the applied load is within a predetermined loading range, wherein the load sensing member includes at least one load sensor generating a load signal; and a load alleviation member arranged to reduce the portion of the applied load carried by the load sensing member when the applied load is outside the predetermined loading range; wherein the at least one load sensor exhibits greater sensitivity to incremental changes in the applied load when the applied load is within the predetermined loading range than when the applied load is outside the predetermined loading range.
A method for isomerizing 4,4'-diaminodicyclohexylmethane, comprising a step of: isomerizing the 4,4'-diaminodicyclohexylmethane in a presence of an imine compound represented by following general formula and/or an imine compound represented by following general formula, and at least one selected from the group consisting of an alkali metal, an alkali metal hydride, an alkali metal amide, an alkali metal basic oxide, an alkali metal alkoxide, an alkaline earth metal and an alkaline earth metal hydride: wherein, in formulae and, R 1 and R 2 each independently represent a hydrogen atom or an unsubstituted hydrocarbon group having 1 to 20 carbon atoms. isomerizing the 4,4'-diaminodicyclohexylmethane in a presence of an imine compound represented by following general formula and/or an imine compound represented by following general formula, and at least one selected from the group consisting of an alkali metal, an alkali metal hydride, an alkali metal amide, an alkali metal basic oxide, an alkali metal alkoxide, an alkaline earth metal and an alkaline earth metal hydride:
A height-adjustable bed, in particular a sick bed and/or care bed, comprising a bed frame and two bed end parts (5, 6) which receive the bed frame therebetween, as well as comprising two telescopic lifting columns (11, 12) which each cooperate with one of the two bed end parts (5, 6) and comprise a support section and a displacement section, wherein the lifting columns (11, 12) are each arranged on the associated bed end part (5, 6) with their respective support sections on the outside of the bed, and wherein the displacement section of a lifting column (11, 12) comprises a lifting column foot, on which a load-bearing roller that can be rotated around the vertical axis thereof is arranged, characterized in that the distance between the pivot point of the load-bearing roller and the associated bed end part (5, 6) exceeds the rotation radius (r) definable by the load-bearing roller when rotating around the vertical axis thereof, wherein the lifting column foot comprises a base holm as well as two support bars (18, 19) which are each arranged thereon on the end side and which each provide a load-bearing roller, wherein each support bar (18, 19) is oriented in an angled manner at an angle (α) in a direction that points away from the associated bed end part (5, 6).
Method for controlling a fryer comprising a vat, a logic unit and a manual validation interface (70, 72), the method comprising the following steps: S.1) carrying out a learning frying run comprising the following steps: S.1.1) placing a first batch of food to be fried in a cooking medium contained in the vat, the food to be fried being of a predetermined kind; S.1.2) when the food to be fried reaches a desired frying condition, communicating to the logic unit through the manual validation interface (70, 72) that the food has reached said desired frying condition; S.2) carrying out a successive frying run comprising the following steps: S.2.1) placing a second batch of food to be fried in the cooking medium contained in the vat, the food of the second batch being substantially of the same kind as of the food of the first batch; S.2.2) frying the second batch of food for a frying time determined by the logic unit depending on the desired frying condition signalled through the manual validation interface (70, 72) during the learning frying run. S.1.1) placing a first batch of food to be fried in a cooking medium contained in the vat, the food to be fried being of a predetermined kind; S.1.2) when the food to be fried reaches a desired frying condition, communicating to the logic unit through the manual validation interface (70, 72) that the food has reached said desired frying condition; S.2) carrying out a successive frying run comprising the following steps: S.2.1) placing a second batch of food to be fried in the cooking medium contained in the vat, the food of the second batch being substantially of the same kind as of the food of the first batch; S.2.2) frying the second batch of food for a frying time determined by the logic unit depending on the desired frying condition signalled through the manual validation interface (70, 72) during the learning frying run. S.2.1) placing a second batch of food to be fried in the cooking medium contained in the vat, the food of the second batch being substantially of the same kind as of the food of the first batch; S.2.2) frying the second batch of food for a frying time determined by the logic unit depending on the desired frying condition signalled through the manual validation interface (70, 72) during the learning frying run.
A clock circuit for dividing a clock frequency by an odd integer comprising: a plurality of inputs for a plurality of respective clock signals (C1, C2, C3, C4), the clock signals alternating with a common frequency between a first and a second state and having phases that are evenly distributed; at least one divider circuit (1000; 1010-1013) arranged to take an input clock signal and provide an output that is in the first state for a first fixed multiple of the duration the clock signal is in the first state, and in the second state for a second fixed multiple of the duration the clock signal is in the second state; a plurality of delay circuits arranged to take the output of the divider circuit (1000; 1010-1013) or circuits and provide a set of outputs (D1-D12), each delayed by a fixed duration with respect to the input signals (C1-C4) and said plurality of delay circuits arranged so that the output phases thereof are equally distributed; a selection circuit arranged to select the outputs (D1-D12) of the delay circuits in sequence; characterized in that the selection circuit is arranged to select the next output (D1-D12) in the sequence at or after the time when the selected output (D1-D12) changes from the first state to the second state. a plurality of inputs for a plurality of respective clock signals (C1, C2, C3, C4), the clock signals alternating with a common frequency between a first and a second state and having phases that are evenly distributed; at least one divider circuit (1000; 1010-1013) arranged to take an input clock signal and provide an output that is in the first state for a first fixed multiple of the duration the clock signal is in the first state, and in the second state for a second fixed multiple of the duration the clock signal is in the second state; a plurality of delay circuits arranged to take the output of the divider circuit (1000; 1010-1013) or circuits and provide a set of outputs (D1-D12), each delayed by a fixed duration with respect to the input signals (C1-C4) and said plurality of delay circuits arranged so that the output phases thereof are equally distributed; a selection circuit arranged to select the outputs (D1-D12) of the delay circuits in sequence; characterized in that the selection circuit is arranged to select the next output (D1-D12) in the sequence at or after the time when the selected output (D1-D12) changes from the first state to the second state.
A three-dimensional fabrication method comprising: (a) depositing a first polymer layer; (b) printing a first ink layer on to the first polymer layer; (c) depositing a second polymer layer on to the first ink layer; (d) printing a second ink layer on to the second polymer layer; and (e) repeating steps (a)-(d) to form a three-dimensional object, characterized in that at least one of the first and second ink layers includes an ink comprising electroless metallization catalysts. (a) depositing a first polymer layer; (b) printing a first ink layer on to the first polymer layer; (c) depositing a second polymer layer on to the first ink layer; (d) printing a second ink layer on to the second polymer layer; and (e) repeating steps (a)-(d) to form a three-dimensional object, characterized in that at least one of the first and second ink layers includes an ink comprising electroless metallization catalysts.
Tilting-pad bearing (104, 105; 106) having tilting pads (1-3; 41-48) and a housing body (108, 109; 110), wherein the tilting pads (1-3; 41-48) are tiltable relative to the housing body (108, 109; 110) so as to generate bearing gaps between the tilting pads (1-3; 41-48) and a rotor body (11, 112; 113), wherein the tilting pads (1-3; 41-48) are integrally connected to a planar, flexural support structure (10; 20; 30; 50; 60; 70), characterized in that at least one of the tilting pads (1-3; 41-48) is integrally connected to the planar, flexural support structure (10; 30; 50) at more than one connection point (14, 15; 51, 52).
A method of producing a polymeric matrix adhesive, said method comprising: a) providing a silane end-capped polymeric mixture; b) adding an aliphatic quencher; c) adding reinforcing extender; and d) adding a thixotropic agent; wherein the silane end-capped polymeric mixture comprises a silane end-capped prepolymer urethane, wherein the silane end-capped prepolymer urethane is produced by combining a silane and a prepolymer urethane, and wherein the prepolymer urethane comprises a slow-cure urethane prepolymer having a functionality (Fn) between about 2.5 and 2.55, an NCO content between about 15 and 18%, a viscosity between 3000 and 8000 cps (between 3000 and 8000 mPas) at 25°C, and an equivalent weight between 250 and 270; a flexible binder urethane prepolymer having a functionality (Fn) of about 2.00, an NCO content between about 7 and 10%, a viscosity between 1500 and 3500 cps (between 1500 and 3500 mPas) at 25°C, and an equivalent weight between 425 and 550, or a combination of both, wherein the slow-cure urethane prepolymer and the flexible binder urethane prepolymer are polyisocyantate prepolymers based on diphenylmethane diisocyanate. a) providing a silane end-capped polymeric mixture; b) adding an aliphatic quencher; c) adding reinforcing extender; and d) adding a thixotropic agent;
A vascular occlusion device, which comprises: an embolisation element having a longitudinal axis and comprising a thin film of shape memory alloy having a plurality of pores extending through the thin film, the embolisation element having a collapsed state and an expanded state in which the embolisation element assumes a generally hemispherically shaped configuration in the expanded state, the generally hemispherically shaped configuration of the embolisation element in the expanded state having a distal end portion and a closed proximal end portion that is sized and shaped to plug the neck of an aneurysm, an anchor element, having a wall and a rim, and a longitudinal axis, for securing the embolisation element within a blood vessel of a patient, and a plurality of connector elements (16f,16g,16h,16i) connecting the embolisation device to the anchor element, each connector element having a proximal end portion and a distal end portion, curved so that the longitudinal axis of the embolisation element is generally aligned with the longitudinal axis of the anchor element, the proximal end portion being connected to the rim of the anchor element such that the proximal end portion substantially remains in the same plane as the wall of the anchor element, and the distal end being connected to the embolization element. an embolisation element having a longitudinal axis and comprising a thin film of shape memory alloy having a plurality of pores extending through the thin film, the embolisation element having a collapsed state and an expanded state in which the embolisation element assumes a generally hemispherically shaped configuration in the expanded state, the generally hemispherically shaped configuration of the embolisation element in the expanded state having a distal end portion and a closed proximal end portion that is sized and shaped to plug the neck of an aneurysm, an anchor element, having a wall and a rim, and a longitudinal axis, for securing the embolisation element within a blood vessel of a patient, and a plurality of connector elements (16f,16g,16h,16i) connecting the embolisation device to the anchor element, each connector element having a proximal end portion and a distal end portion, curved so that the longitudinal axis of the embolisation element is generally aligned with the longitudinal axis of the anchor element, the proximal end portion being connected to the rim of the anchor element such that the proximal end portion substantially remains in the same plane as the wall of the anchor element, and the distal end being connected to the embolization element.
Hydraulic motor integrated in a vehicular wheel comprising - a hub having a cylindrical symmetry supported by an articulated stub axle and defining a development axis of the hub and of the hydraulic motor, - a motor body, rotatably integral with the articulated stub axle, having an annular shape and being equipped with radial pistons, - a shaped ring integral with a hub and on which radial pistons act, - a hydraulic oil distributor, wherein the hydraulic oil distributor is housed in the hub characterized in comprising a first and a second bearing placed between the articulated stub axle and the hub, the bearings being spaced between each other by means of spacers means (19, 202,203), wherein said first bearing is directly in contact with said hydraulic oil distributor, so that an axial displacement of the hydraulic oil distributor causes an axial displacement of the bearings (18, 20), and in comprising a single ring nut threading on a free end of the articulated stub axle blocking in a sequence: said motor body, said hydraulic oil distributor, said first bearing, said spacer, said second bearing, so that said single ring nut allows both to assemble the engine and to adjust the axial displacement thereof. - a hub having a cylindrical symmetry supported by an articulated stub axle and defining a development axis of the hub and of the hydraulic motor, - a motor body, rotatably integral with the articulated stub axle, having an annular shape and being equipped with radial pistons, - a shaped ring integral with a hub and on which radial pistons act, - a hydraulic oil distributor,
Device for optimizing the dispensing quantity of content substances contained in liquid manure which is extracted from a storage container (6; 63), onto ground which is to be fertilized, using a liquid manure tanker (1; 13), - wherein there is a sensor (8; 83) for analysing the quantity of liquid manure to be dispensed with respect to its content substances, - wherein there is an evaluation device (10; 103) for comparing the content substance actual data acquired analytically by the sensor (8; 83) with predefined content substance data, - wherein there is a connection (9; 93) between the evaluation device (10; 103) and an adjustable device (11; 113) with which the quantity of liquid manure to be dispensed can be changed, - wherein the adjustable device (11; 113) receives comparison data of the content substance data from the evaluation device (10; 103) via the connection (9; 93), - and wherein the adjustable device (11; 113) is connected to a distributor device (7; 73) and regulates it in such a way that the quantity of liquid manure to be dispensed per unit surface area can be adjusted, characterized - in that in order to extract the liquid manure from the storage container (6; 63) for the liquid manure tanker (1; 13) a removal line system (5; 53) is present, - and in that the sensor (8; 83) is arranged in the removal line system (5; 53). - wherein there is a sensor (8; 83) for analysing the quantity of liquid manure to be dispensed with respect to its content substances, - wherein there is an evaluation device (10; 103) for comparing the content substance actual data acquired analytically by the sensor (8; 83) with predefined content substance data, - wherein there is a connection (9; 93) between the evaluation device (10; 103) and an adjustable device (11; 113) with which the quantity of liquid manure to be dispensed can be changed, - wherein the adjustable device (11; 113) receives comparison data of the content substance data from the evaluation device (10; 103) via the connection (9; 93), - and wherein the adjustable device (11; 113) is connected to a distributor device (7; 73) and regulates it in such a way that the quantity of liquid manure to be dispensed per unit surface area can be adjusted, - in that in order to extract the liquid manure from the storage container (6; 63) for the liquid manure tanker (1; 13) a removal line system (5; 53) is present, - and in that the sensor (8; 83) is arranged in the removal line system (5; 53).
A gas turbine engine comprising at least one drum pack (48, 50, 52, 60) surrounding a shaft and having two or more annular discs (62a-c), where adjacent discs are connected by drive arms, and where further the drum pack is provided with a tubular sealing body positioned radially inwards of the drive arms and extending from a first disc to a last disc in the drum pack, the first and last discs having the greatest axial separation of all discs in the drum pack, the sealing body engaging the first and last discs and the engagement being arranged to limit or prevent the ingress of liquid into a drum cavity defined between the first and last discs, the drive arms and the sealing body, characterised in that the sealing body comprises a radially outwardly extending rim at its end adjacent the first disc which abuts an upstream face of the first disc.
A method comprising: delivering a workpiece with a delivery device by: loading the workpiece at an intake position of the delivery device; separating the workpiece by moving the workpiece from the intake position; accelerating the workpiece; and presenting the workpiece at a predetermined delivery time, delivery position, delivery speed and moving along a delivery trajectory; receiving the workpiece with a receiving device moving along a receiving trajectory configured to permit transfer of the workpiece at the delivery position from the delivery device to the receiving device, the delivering of the workpiece and the receiving of the workpiece being electronically synchronized; processing the workpiece with a processing tool while the workpiece is on the receiving device; presenting the workpiece at a predetermined ejection time, ejection position, ejection speed and moving along an ejection trajectory, wherein the workpiece comprises: a platform with mounts supporting a first component in a selected orientation; and a locating surface; transferring the workpiece to a completion device moving along a completion trajectory configured to permit transfer of the workpiece at the ejection position from the receiving device to the completion device, the ejection of the workpiece and the transferring of the workpiece being electronically synchronized; and engaging and disengaging the locating surface of the workpiece with releasable grippers on the delivery device, on the receiving device and on the completion device. delivering a workpiece with a delivery device by: loading the workpiece at an intake position of the delivery device; separating the workpiece by moving the workpiece from the intake position; accelerating the workpiece; and presenting the workpiece at a predetermined delivery time, delivery position, delivery speed and moving along a delivery trajectory; receiving the workpiece with a receiving device moving along a receiving trajectory configured to permit transfer of the workpiece at the delivery position from the delivery device to the receiving device, the delivering of the workpiece and the receiving of the workpiece being electronically synchronized; processing the workpiece with a processing tool while the workpiece is on the receiving device; presenting the workpiece at a predetermined ejection time, ejection position, ejection speed and moving along an ejection trajectory, wherein the workpiece comprises: a platform with mounts supporting a first component in a selected orientation; and a locating surface; transferring the workpiece to a completion device moving along a completion trajectory configured to permit transfer of the workpiece at the ejection position from the receiving device to the completion device, the ejection of the workpiece and the transferring of the workpiece being electronically synchronized; and engaging and disengaging the locating surface of the workpiece with releasable grippers on the delivery device, on the receiving device and on the completion device.
A support block with individual hollow sections, for an IS machine for forming glass articles of the type comprising: a hollow single-piece support body, formed by a front wall, a rear wall and side walls (32, 34); at least one intermediate wall and a plurality of cross walls located within the inner periphery of the support body, in a grid relationship, forming a first plurality of hollow sections aligned along the entire length of the front wall, at which would locate the mechanisms corresponding to the final forming station of the glass article, and, a second plurality of hollow sections aligned along the entire length of the rear wall, in which the mechanisms corresponding to the parison forming station would be located, each first hollow section and each second hollow section being aligned and positioned in a relationship one behind the other; a support section (70, 72) for each first hollow section and each second hollow section, said support section (70, 72) being connected near the bottom of each of the walls that form each first and second hollow section, to support the various mechanisms of the machine for forming glass articles; tubular cavities located in a vertical position by each of the plurality of cross walls, for the introduction of lubrication conduits or cables, said tubular cavities being formed between each of the cross walls that are located within the periphery of the support body; and, alignment means located in a lower part of the support body for aligning the support block itself with respect to a defined installation zone.
A storage system comprising a holding device (13, 15), at least two vertical carrier elements, at least two brackets, each of which is adapted to be releasably attached to one of the carrier elements, and a shelf that is devised to be suspended between said two brackets characterized by the holding device (13, 15) has a connecting part and a holding part, wherein the connecting part is bent, along a line to form, in cross-section, a U-shape having a first and a second leg, wherein the first leg is inserted into said one of said brackets and the second leg is connected to the holding part having a holding feature.