mhurhangee/ep-ind-claims huggingface dataset:
A method for producing an article out of a maraging steel, wherein the article is successively subjected to a solution annealing and aging heat treatment, wherein the steel has the following composition in M-%: C = 0.01-0.05 Si = 0.4-0.8 Mn = 0.1-0.5 Cr = 12.0-13.0 Ni = 9.5-10.5 Mo = 0.5-1.5 Ti = 0.5-1.5 Al = 0.5-1.5 Cu = 0.0-0.05 Residual iron and smelting-induced impurities, wherein the material is formed into a desired shape and then solution annealed at 900-1000°C, wherein the material is solution annealed for 0.5-1.5 hours, wherein the material is aged at 475°C-525°C after solution annealing and wherein the ageing period is two to six hours. the article is successively subjected to a solution annealing and aging heat treatment, wherein the steel has the following composition in M-%: C = 0.01-0.05 Si = 0.4-0.8 Mn = 0.1-0.5 Cr = 12.0-13.0 Ni = 9.5-10.5 Mo = 0.5-1.5 Ti = 0.5-1.5 Al = 0.5-1.5 Cu = 0.0-0.05 C = 0.01-0.05 Si = 0.4-0.8 Mn = 0.1-0.5 Cr = 12.0-13.0 Ni = 9.5-10.5 Mo = 0.5-1.5 Ti = 0.5-1.5 Al = 0.5-1.5 Cu = 0.0-0.05 Residual iron and smelting-induced impurities, wherein the material is formed into a desired shape and then solution annealed at 900-1000°C, wherein the material is solution annealed for 0.5-1.5 hours, wherein the material is aged at 475°C-525°C after solution annealing and wherein the ageing period is two to six hours.
A heat radiation plate suitable for having a circuit board attached to said heat radiation plate and configured to radiate heat of an electronic component (2a-2c) mounted on the circuit board when the circuit board is attached to the heat radiation plate, the heat radiation plate comprising a depressed portion into which thermally-conductive resin is filled, the resin being suitable for transferring the heat of the electronic component (2a-2c) when immersed in the resin to the heat radiation plate, characterized in that: the heat radiation plate comprises a plurality of check portions (3a-3d) configured to be provided to the depressed portion and with an upper surface portion (3a-1, 3a-3, 3a-5) and a lower surface portion (3a-2, 3a-4, 3a-6) stepwise at positions lower than an outer edge portion of the depressed portion and higher than a bottom surface portion of the depressed portion so that a liquid level of the thermally-conductive resin is visually checkable, and when the thermally-conductive resin is normally filled in the depressed portion, each of the lower surface portions (3a-2, 3a-4, 3a-6) of the plurality of check portions (3a-3d) is covered with the thermally-conductive resin and each of the upper surface portions (3a-1, 3a-3, 3a-5) of the plurality of check portions (3a-3d) is exposed without being covered with the thermally-conductive resin. the heat radiation plate comprises a plurality of check portions (3a-3d) configured to be provided to the depressed portion and with an upper surface portion (3a-1, 3a-3, 3a-5) and a lower surface portion (3a-2, 3a-4, 3a-6) stepwise at positions lower than an outer edge portion of the depressed portion and higher than a bottom surface portion of the depressed portion so that a liquid level of the thermally-conductive resin is visually checkable, and when the thermally-conductive resin is normally filled in the depressed portion, each of the lower surface portions (3a-2, 3a-4, 3a-6) of the plurality of check portions (3a-3d) is covered with the thermally-conductive resin and each of the upper surface portions (3a-1, 3a-3, 3a-5) of the plurality of check portions (3a-3d) is exposed without being covered with the thermally-conductive resin.
An optical connector plug configured to be fitted into an LC type adapter (11 or 13) having an opening including a wide width opening (12b or 14b) at a lower part thereof and a narrow width opening (12a or 14a) at an upper part thereof, the optical connector plug comprising: a front housing having a square cylindrical shape, the front housing having a guide portion which is formed at an upper part of the front housing, the guide portion accommodating a spring; a plug frame configured to retain a ferrule and being slidable in the front housing and a locking housing fixedly and integrally connected to the plug frame and configured to be fitted into and locked with the LC type adapter (11 or 13), the optical connector plug being characterized in that the guide portion has side wall surfaces that come in sliding contact with the narrow width opening (12a or 14a) at the upper part of the LC type adapter (11 or 13) and locking projections each formed on each of the side wall surfaces, and each of the locking projections of the guide portion is configured to abut against an edge portion of the opening of the LC type adapter (11 or 13) to move the front housing rearward when the locking housing is fitted into the LC type adapter, so that a distal end portion of the ferrule projects outward from an opening of the front housing. a front housing having a square cylindrical shape, the front housing having a guide portion which is formed at an upper part of the front housing, the guide portion accommodating a spring; a plug frame configured to retain a ferrule and being slidable in the front housing and a locking housing fixedly and integrally connected to the plug frame and configured to be fitted into and locked with the LC type adapter (11 or 13), the optical connector plug being characterized in that the guide portion has side wall surfaces that come in sliding contact with the narrow width opening (12a or 14a) at the upper part of the LC type adapter (11 or 13) and locking projections each formed on each of the side wall surfaces, and each of the locking projections of the guide portion is configured to abut against an edge portion of the opening of the LC type adapter (11 or 13) to move the front housing rearward when the locking housing is fitted into the LC type adapter, so that a distal end portion of the ferrule projects outward from an opening of the front housing.
A driving method applied to a dimmable light-emitting diode, LED, driving circuit (2, 3, 5, 6) comprising an electrolytic capacitor (C', C1, C3, C5), characterized in comprising: charging the electrolytic capacitor (C', C1, C3, C5) by controlling a current loop of the electrolytic capacitor (C', C1, C3, C5) by an auxiliary circuit (22, 32, 52, 62) using a voltage source (Vclp, Vclp1, Vclp2), when a voltage across the electrolytic capacitor (C', C1, C3, C5) is less than a preset value, to reduce time required for the voltage across the electrolytic capacitor (C', C1, C3, C5) rising to a start-up voltage of an LED load; and continuously charging, when the voltage across the electrolytic capacitor (C', C1, C3, C5) rises to the preset value, the electrolytic capacitor (C', C1, C3, C5) by controlling the current loop of the electrolytic capacitor (C', C1, C3, C5) by a current control loop circuit (23, 33, 53, 63) using an error amplifier (GM, GM1, GM2) in accordance with a reference value (Vrefl, Vref2, Vref3), until the voltage across the electrolytic capacitor (C', C1, C3, C5) rises to the start-up voltage. charging the electrolytic capacitor (C', C1, C3, C5) by controlling a current loop of the electrolytic capacitor (C', C1, C3, C5) by an auxiliary circuit (22, 32, 52, 62) using a voltage source (Vclp, Vclp1, Vclp2), when a voltage across the electrolytic capacitor (C', C1, C3, C5) is less than a preset value, to reduce time required for the voltage across the electrolytic capacitor (C', C1, C3, C5) rising to a start-up voltage of an LED load; and continuously charging, when the voltage across the electrolytic capacitor (C', C1, C3, C5) rises to the preset value, the electrolytic capacitor (C', C1, C3, C5) by controlling the current loop of the electrolytic capacitor (C', C1, C3, C5) by a current control loop circuit (23, 33, 53, 63) using an error amplifier (GM, GM1, GM2) in accordance with a reference value (Vrefl, Vref2, Vref3), until the voltage across the electrolytic capacitor (C', C1, C3, C5) rises to the start-up voltage.
A tomosynthesis imaging apparatus comprising: a radiation detector (26, 158) adapted to detect radiation transmitted through an object and has an imaging surface capturing a projection image of the object; a radiation source (25, 157) having a plurality of radiation tubes disposed at a plurality of positions where the radiation is emitted to the imaging surface at different irradiation angles; an acquisition unit adapted to acquire a first coefficient which corresponds to a thickness of the object, indicates a rate of change in an arrival dose of the radiation reaching the radiation detector (26, 158) depending on the irradiation angle, and is registered for each of the plurality of radiation tubes; a correction unit adapted to correct irradiation conditions of the radiation using the first coefficient; and a setting unit adapted to set the irradiation conditions corrected by the correction unit in the radiation source, characterized in that the acquisition unit is adapted to acquire a second coefficient that is related to a dose of the radiation and is registered for each of the plurality of radiation tubes, and the correction unit is adapted to correct the irradiation conditions using the second coefficient in addition to the first coefficient. a radiation detector (26, 158) adapted to detect radiation transmitted through an object and has an imaging surface capturing a projection image of the object; a radiation source (25, 157) having a plurality of radiation tubes disposed at a plurality of positions where the radiation is emitted to the imaging surface at different irradiation angles; an acquisition unit adapted to acquire a first coefficient which corresponds to a thickness of the object, indicates a rate of change in an arrival dose of the radiation reaching the radiation detector (26, 158) depending on the irradiation angle, and is registered for each of the plurality of radiation tubes; a correction unit adapted to correct irradiation conditions of the radiation using the first coefficient; and a setting unit adapted to set the irradiation conditions corrected by the correction unit in the radiation source, characterized in that the acquisition unit is adapted to acquire a second coefficient that is related to a dose of the radiation and is registered for each of the plurality of radiation tubes, and the correction unit is adapted to correct the irradiation conditions using the second coefficient in addition to the first coefficient.
A method for quick quantification assay of 25-hydroxyvitamin D based on fluorescence measurement using lateral flow cartridge comprising: (a) preparing a first reaction product by mixing a biological sample with a releasing buffer followed by reaction for 3 to 7 minutes at 32 to 37°C; (b) preparing a second reaction product by adding a detection buffer to the first reaction product of the step (a) followed by reaction for 13 to 17 minutes at 32 to 37°C; and (c) loading the second reaction product of the step (b) in a lateral flow cartridge followed by reaction for 6 to 10 minutes and measuring fluorescence intensity using a fluorescence meter, wherein the releasing buffer of the step (a) contains 0.4 to 0.6 N sodium hydroxide and 35 to 45% (v/v) DMSO (dimethyl sulfoxide), and wherein the detection buffer of the step (b) contains fluorescent-labeled anti-25-hydroxyvitamin D antibody, and wherein the lateral flow cartridge of the step (c) has test strip form in which a sample injection part to which a sample is injected; a test line placed at a certain distance from the sample injection part, to which a complex of bovine serum albumin and 25-hydroxyvitamin D is immobilized; and a control line to which rabbit IgG is immobilized are provided in order. (a) preparing a first reaction product by mixing a biological sample with a releasing buffer followed by reaction for 3 to 7 minutes at 32 to 37°C; (b) preparing a second reaction product by adding a detection buffer to the first reaction product of the step (a) followed by reaction for 13 to 17 minutes at 32 to 37°C; and (c) loading the second reaction product of the step (b) in a lateral flow cartridge followed by reaction for 6 to 10 minutes and measuring fluorescence intensity using a fluorescence meter, wherein the releasing buffer of the step (a) contains 0.4 to 0.6 N sodium hydroxide and 35 to 45% (v/v) DMSO (dimethyl sulfoxide), and wherein the detection buffer of the step (b) contains fluorescent-labeled anti-25-hydroxyvitamin D antibody, and wherein the lateral flow cartridge of the step (c) has test strip form in which a sample injection part to which a sample is injected; a test line placed at a certain distance from the sample injection part, to which a complex of bovine serum albumin and 25-hydroxyvitamin D is immobilized; and a control line to which rabbit IgG is immobilized are provided in order.
A device for monitoring the load of a patient's leg during use of a crutch, wherein the device comprises a first compression spring that can be connected to a foot region of the crutch and a first capacitive or inductive measuring apparatus, wherein the first capacitive or inductive measuring apparatus measures a compression of the first compression spring during loading of the crutch, wherein a second compression spring that can be connected to the tube portion forming the foot region of the crutch is also provided, characterized in that the second compression spring is designed for a lower load than the first compression spring, and in that a second capacitive or inductive measuring apparatus is provided, wherein the second capacitive or inductive measuring apparatus measures a compression of the second compression spring during loading of the crutch.
Process for preparing ammonia from a synthesis gas under heterogeneous gas catalysis in at least two series-connected reaction apparatuses (1, 3), where each of these reaction apparatuses comprises at least two catalyst beds (1-A, 1-B, 3-A, 3-B) through which the synthesis gas is passed and in which there is at least partial conversion to product gas, where at least one first heat exchanger has been provided in the first reaction apparatus, in which the fresh synthesis gas A is preheated, and where cooling of the synthesis gas comprising product and unconverted reactants that exits from the first catalyst bed (1-A) has been provided prior to entry into the second catalyst bed (1-B), where the preheating is effected in a first heat exchanger disposed between the first catalyst bed (1-A) and the second catalyst bed (1-B) and where an intermediate heat exchanger disposed in the flow pathway between the first reaction apparatus and the second reaction apparatus has been provided and the hot product gas stream exiting from the second catalyst bed (1-B) is utilized without prior cooling for raising of steam and/or for preheating of boiler feed water in the intermediate heat exchanger, characterized in that a product gas stream D is cooled in the intermediate heat exchanger below the entry temperature required for a downstream third catalyst bed (3-A), and optionally also below the temperature of the steam raised for the greatest possible utilization of the energy in stream D, in order, in a subsequent step, with the aid of a further heat exchanger which simultaneously serves as intermediate cooler between the third catalyst bed (3-A) and a fourth catalyst bed (3-B), to bring the process gas stream back to a defined optimal process temperature for the catalyst bed (3-A) that enables optimal temperature control over all catalyst beds.
An operating portion (60, 60') connected with a device wire and a plurality of bending wires and used to operate a treatment instrument and bend a freely bendable, bending treatment instrument, the device wire being connected to the treatment instrument provided at a distal end of the bending treatment instrument and used to operate the treatment instrument and the plurality of bending wires being used to bend the bending treatment instrument, the operating portion (60, 60') comprising: an operating portion body (63, 63'); a guide unit (65, 65') penetrated by the device wire; a bending wire pulling unit (66, 66') connected with the bending wires and swingably assembled onto the guide unit (65, 65'); and a grip portion (67, 67') connected with the device wire and configured to be reciprocable in an axial direction of the bending wire pulling unit (66, 66'), characterised in that the operating portion body (63, 63') is detachably attached to a fixing base via a fixing base connecting portion (62, 62'), and wherein a rotating device (90, 90') adapted to rotatably assemble the operating portion body (63, 63') onto the fixing base connecting portion (62, 62') is attached to the operating portion body (63, 63'), and the rotating device (90, 90') includes a fixing unit fixed to the fixing base connecting portion (62, 62'), a rotating portion rotatably assembled onto the fixing unit; and a rotation controller onto which the rotating portion is assembled. an operating portion body (63, 63'); a guide unit (65, 65') penetrated by the device wire; a bending wire pulling unit (66, 66') connected with the bending wires and swingably assembled onto the guide unit (65, 65'); and a grip portion (67, 67') connected with the device wire and configured to be reciprocable in an axial direction of the bending wire pulling unit (66, 66'), characterised in that the operating portion body (63, 63') is detachably attached to a fixing base via a fixing base connecting portion (62, 62'), and wherein a rotating device (90, 90') adapted to rotatably assemble the operating portion body (63, 63') onto the fixing base connecting portion (62, 62') is attached to the operating portion body (63, 63'), and the rotating device (90, 90') includes a fixing unit fixed to the fixing base connecting portion (62, 62'), a rotating portion rotatably assembled onto the fixing unit; and a rotation controller onto which the rotating portion is assembled.
A method for radiotherapy treatment plan optimization using a scenario-based optimization function to perform optimization based on at least a first and a second scenario, each scenario representing the realization of at least one uncertainty, the method comprising the steps of: a. providing input data for treatment plan optimization; b. defining a first optimization function for the first scenario; c. defining a second optimization function for the second scenario, said second optimization function being different from the first optimization function, such that different optimization functions are used for the first and second scenario, respectively; d. optimizing a radiotherapy treatment plan applying the first optimization function under the first scenario and the second optimization function under the second scenario, thereby obtaining a first optimized radiotherapy treatment plan. a. providing input data for treatment plan optimization; b. defining a first optimization function for the first scenario; c. defining a second optimization function for the second scenario, said second optimization function being different from the first optimization function, such that different optimization functions are used for the first and second scenario, respectively; d. optimizing a radiotherapy treatment plan applying the first optimization function under the first scenario and the second optimization function under the second scenario, thereby obtaining a first optimized radiotherapy treatment plan.
A process for imparting scent to air comprising the steps of: providing a plurality of particles in a reservoir; heating said reservoir to melt said particles to form a melt; and contacting said melt with air; wherein said particles comprise: 40% to 95% by weight polyethylene glycol, wherein said polyethylene glycol has a weight average molecular weight from 5000 to 11000; 0.1% to 20% by weight perfume; and 0.1% to 50% by weight starch granules, wherein said starch granules have a dextrose equivalent from 0 to 40, wherein said starch granules have a grain size of from 1 μm to 500 μm, and wherein said starch granules have a starch perfume load level of said perfume on said starch granules of from 0% to 10% by weight of said starch granules; wherein said particles are substantially homogenously structured particles; and wherein individual particles have a mass between 0.95 mg to 5 grams. providing a plurality of particles in a reservoir; heating said reservoir to melt said particles to form a melt; and contacting said melt with air; wherein said particles comprise: 40% to 95% by weight polyethylene glycol, wherein said polyethylene glycol has a weight average molecular weight from 5000 to 11000; 0.1% to 20% by weight perfume; and 0.1% to 50% by weight starch granules, wherein said starch granules have a dextrose equivalent from 0 to 40, wherein said starch granules have a grain size of from 1 μm to 500 μm, and wherein said starch granules have a starch perfume load level of said perfume on said starch granules of from 0% to 10% by weight of said starch granules; 40% to 95% by weight polyethylene glycol, wherein said polyethylene glycol has a weight average molecular weight from 5000 to 11000; 0.1% to 20% by weight perfume; and 0.1% to 50% by weight starch granules, wherein said starch granules have a dextrose equivalent from 0 to 40, wherein said starch granules have a grain size of from 1 μm to 500 μm, and wherein said starch granules have a starch perfume load level of said perfume on said starch granules of from 0% to 10% by weight of said starch granules; wherein said particles are substantially homogenously structured particles; and wherein individual particles have a mass between 0.95 mg to 5 grams.
A pretreatment composition for removal of heat-adhered soils comprising; one or more alkyl amines, wherein said alkyl amine is a primary fatty amine, and from 70 wt. % to 98 wt. % of an ester solvent based on the total weight of the composition.
A shift fork (12, 12') comprising: a rod that extends from a first end surface to a second end surface that is disposed opposite the first end surface, wherein rod includes: a first prong that extends from the first end surface to a first intermediate segment; a second prong that extends from the second end surface to a second intermediate segment, the second prong being spaced apart from the first prong and cooperating with the first prong to define an opening that is adapted to receive a clutch collar, wherein the first intermediate segment is disposed substantially parallel to the second intermediate segment; and a ring portion that has a generally circular configuration that defines a hole and extends from the first intermediate segment to the second intermediate segment. a first prong that extends from the first end surface to a first intermediate segment; a second prong that extends from the second end surface to a second intermediate segment, the second prong being spaced apart from the first prong and cooperating with the first prong to define an opening that is adapted to receive a clutch collar, wherein the first intermediate segment is disposed substantially parallel to the second intermediate segment; and a ring portion that has a generally circular configuration that defines a hole and extends from the first intermediate segment to the second intermediate segment.
A process for making a composite comprising assembling at least one layer comprising contractive elements and at least one layer comprising non-contractive elements into a non-bonded layered assembly, shaping said layered assembly, including the at least one layer comprising contractive elements and the at least one layer comprising non-contractive elements into a sinuous form, activating said layered assembly so that the at least one layer comprising contractive elements shrinks to form a relatively flat layer, said at least one layer comprising non-contractive elements remaining in an un-shrunken sinuous state, and cooling said assembly to cause said at least one layer comprising contractive fibrous elements and said at least one layer comprising non-contractive fibrous elements to be bonded together into a unitized composite.