mhurhangee/ep-ind-claims huggingface dataset:
Fracture-splitting apparatus for the fracture-splitting of an engine component, in particular a connecting rod, with a spreader element assembly for separating a first component of the engine component, in particular a connecting rod cover, from a second component of the engine component, in particular a connecting rod big end, wherein the fracture-splitting apparatus has a workpiece holding arrangement with at least one support device for supporting the engine component, and the support device includes a support drive for shifting a support element into a support position which supports the engine component wherein, between the support drive motor (64; 164) of the support drive and the support element there is provided a holding fixture which has an output body, on which the support element is mounted, drivable by the support drive motor (64; 164) towards the engine component into a support position, wherein the output body has a piston, held movably in a movement chamber and dividing the movement chamber into a thrust bearing sub-chamber and a restoring sub-chamber, and wherein it has a valve assembly for filling the thrust bearing sub-chamber with a fluid, in particular hydraulic oil or air, so that the output body is supported in the support position by the fluid, characterised in that the valve assembly is designed to fill the thrust bearing sub-chamber with the fluid at a filling pressure which is lower than a drive pressure needed to drive the piston in the direction of the support position, wherein the output body in the support position is supported with the aid of the fluid present in the thrust bearing sub-chamber, which has a lower pressure than is necessary to drive the piston in the direction of the support position.
A transdermal absorption patch comprising: an adhesive base that contains a styrene-isoprene-styrene block copolymer, one or two or more tackifier resins containing a rosin-based resin, and a softener; and free ropinirole added to the adhesive base, wherein a compounding ratio of the rosin-based resin to the free ropinirole represented as a ratio of a weight of the combined rosin-based resin to a weight of the combined free ropinirole is 3.5 to 8.0. an adhesive base that contains a styrene-isoprene-styrene block copolymer, one or two or more tackifier resins containing a rosin-based resin, and a softener; and free ropinirole added to the adhesive base, wherein a compounding ratio of the rosin-based resin to the free ropinirole represented as a ratio of a weight of the combined rosin-based resin to a weight of the combined free ropinirole is 3.5 to 8.0.
A denture adhesive composition, comprising: a) a denture adhesive component in an amount from about 20.0 % to about 70.0% by weight of the denture adhesive composition; wherein the denture adhesive component consists of a mixture of a partial salt of a copolymer of methyl vinyl ether-maleic acid or anhydride and sodium carboxy methyl cellulose; and b) a cohesion builder component in an amount from about 0.001% to about 10% by weight of the denture adhesive composition; wherein the cohesion builder component is di-basic sodium phosphate. a) a denture adhesive component in an amount from about 20.0 % to about 70.0% by weight of the denture adhesive composition; wherein the denture adhesive component consists of a mixture of a partial salt of a copolymer of methyl vinyl ether-maleic acid or anhydride and sodium carboxy methyl cellulose; and b) a cohesion builder component in an amount from about 0.001% to about 10% by weight of the denture adhesive composition; wherein the cohesion builder component is di-basic sodium phosphate.
Cannula, comprising: - a cannula body having a cannula tube, with a cannula tip at its distal end and with an attachment, attached at the proximal end of the cannula tube, - a control clip, comprising a fixing body which has at least one control element (35, 36), - wherein the control clip is laterally attachable to the attachment in order to form a first assembly step, wherein the attachment comprises proximally a connection, into which the liquid to be injected can be, coaxially to the cannula tube, conducted, characterized in that a contact clip is provided, and in that the contact clip comprises at least one fixing part having at least one electrical contact, and in that the contact clip is laterally attachable to the attachment, in order to form a second assembly step and in that the electrical contact establishes, in the second assembly step, an electrical connection between a stimulation cable and an electrically conductive core of the cannula tube in the region of the attachment. - a cannula body having a cannula tube, with a cannula tip at its distal end and with an attachment, attached at the proximal end of the cannula tube, - a control clip, comprising a fixing body which has at least one control element (35, 36), - wherein the control clip is laterally attachable to the attachment in order to form a first assembly step, wherein the attachment comprises proximally a connection, into which the liquid to be injected can be, coaxially to the cannula tube, conducted,
A stainless-steel surface treatment method for forming a fine structure on a surface of stainless steel comprising: a first step of performing grain refining treatment for refining crystal grains in the surface of stainless steel; and a second step performed, after the first step, for roughening etching the surface of stainless steel with an etching solution, characterized in that the roughening etching treatment of the second step is to preferentially etch grain boundaries in the surface of stainless steel with a roughening etching solution which has a composition which preferably has strong acidity and contains chloride ions and transition metal ions capable of displacement deposition on iron, and in that the stainless-steel surface treatment method further comprises a third step, performed after the second step, for removing a displacement deposition metal deposited on the surface of stainless steel by the etching treatment with a solution, the composition of which does not contain chloride ions or nitrate ions that accelerate the etching of stainless steel and which has a high dissolution rate ratio for stainless steel, wherein the grain refining treatment is any one of peening treatment, machining, and grinding and wherein a fine crystal layer formed in the surface of stainless steel by the grain refining treatment of the first step has a thickness of 1 μm or more, and the crystal grains of the fine crystal layer have grain sizes of 1 μm or less. a first step of performing grain refining treatment for refining crystal grains in the surface of stainless steel; and a second step performed, after the first step, for roughening etching the surface of stainless steel with an etching solution, characterized in that the roughening etching treatment of the second step is to preferentially etch grain boundaries in the surface of stainless steel with a roughening etching solution which has a composition which preferably has strong acidity and contains chloride ions and transition metal ions capable of displacement deposition on iron, and in that the stainless-steel surface treatment method further comprises a third step, performed after the second step, for removing a displacement deposition metal deposited on the surface of stainless steel by the etching treatment with a solution, the composition of which does not contain chloride ions or nitrate ions that accelerate the etching of stainless steel and which has a high dissolution rate ratio for stainless steel, wherein the grain refining treatment is any one of peening treatment, machining, and grinding and wherein a fine crystal layer formed in the surface of stainless steel by the grain refining treatment of the first step has a thickness of 1 μm or more, and the crystal grains of the fine crystal layer have grain sizes of 1 μm or less.
A titanium alloy consisting of: 4 - 8 wt. % Al; 4 - 8 wt. % Nb; 4 - 8 wt. % V; 1 - 5 wt. % Mo; and optionally 2-6 wt. % Cr; the balance being Ti, optional incidental elements, and unavoidable impurities, wherein the optional incidental elements are: up to 1.0 wt. % Si; up to 2.0 wt. % Fe; up to 1.0 wt. % Y; up to 1.0 wt. % Er; up to 0.5 wt. % C; up to 0.5 wt. % O; up to 0.5 wt. % B, wherein the titanium alloy comprises a bcc crystalline structure. 4 - 8 wt. % Al; 4 - 8 wt. % Nb; 4 - 8 wt. % V; 1 - 5 wt. % Mo; and optionally 2-6 wt. % Cr; up to 1.0 wt. % Si; up to 2.0 wt. % Fe; up to 1.0 wt. % Y; up to 1.0 wt. % Er; up to 0.5 wt. % C; up to 0.5 wt. % O; up to 0.5 wt. % B,
Method for converting a ballasted track consisting of a ballast bed resting on a solid underground and of sleepers lying thereon, to which rails are fastened by means of fixtures, into a slab track, characterized by the following method steps - ballast is removed in a section that extends over a plurality of sleepers, - in the section a first number of sleepers are removed after releasing the rail fixtures, - in the section, sleeper blocks are inserted, vertically positioned, and fastened to the rails, - in the section, temporary, vertically adjustable supports are inserted on which the rails are resting and are supported on the underground, - in an area that extends over a number of sleeper blocks as seen in the direction of the rails, infill concrete is filled in from the underground up to at least part of the height of the sleeper blocks, - after the infill concrete has at least partly hardened, at least a part (19, 20) of each of the supports located between two respective sleeper blocks in the direction of the rails is removed. - ballast is removed in a section that extends over a plurality of sleepers, - in the section a first number of sleepers are removed after releasing the rail fixtures, - in the section, sleeper blocks are inserted, vertically positioned, and fastened to the rails, - in the section, temporary, vertically adjustable supports are inserted on which the rails are resting and are supported on the underground, - in an area that extends over a number of sleeper blocks as seen in the direction of the rails, infill concrete is filled in from the underground up to at least part of the height of the sleeper blocks, - after the infill concrete has at least partly hardened, at least a part (19, 20) of each of the supports located between two respective sleeper blocks in the direction of the rails is removed.
Method for actuating an amount control valve, the amount control valve assuming a closed state when actuated with a first actuation value, and the actuation with a second actuation value permitting the amount control valve to assume an opened state, the actuation signal falling from a first signal value at a first time to a second signal value at a second time, that the actuation signal falls from this second signal value at this second time to the second actuation value at a third time, that the amount control valve is in the closed state at the first time, it being made possible at the second time that it begins to open and can open completely shortly before the third time, the amount control valve being in the closed state for actuation signals above the first signal value, that the amount control valve is not in the closed state for actuation signals below the second signal value, with a sufficiently large first time interval between the second time and the first time and/or with a sufficiently large time interval between the second time and the third time, characterized in that the time interval between the third time and the second time is longer by a first factor than the time needed by the amount control valve to change from the closed state to the opened state with an actuation signal below the second actuation value.
A radio frequency identification (RFID) tag device, comprising: a substrate; an integrated circuit, IC, die mounted to said substrate, said IC die having two radio frequency input pads (1004b,d); and two antennas (1010a,b) formed on said substrate, each antenna (1010a,b) being coupled to a corresponding one of the RF input pads (1004b,d); wherein said IC die comprises two modulators (1034a,b) and two charge pumps (1032a,b); wherein each modulator (1034a,b) is coupled to a corresponding RF input pad (1004b,d), wherein said each modulator (1034a,b) is configured to backscatter modulate one or more symbols received from said corresponding RF input pad with a response symbol, wherein said each modulator (1034a,b) is configured to output said backscatter modulated symbol to said corresponding RF input pad (1004b,d); wherein each charge pump (1032a,b is coupled to a corresponding RF input pad (1004b,d), wherein said each charge pump (1032a,b) is configured to convert a high frequency signal from said corresponding RF input pad to a direct current, DC, voltage; and wherein said antennas (1010a,b) are oriented on said substrate such that the average gain over all orientations is increased with respect to each antenna (1010a,b) separately. a substrate; an integrated circuit, IC, die mounted to said substrate, said IC die having two radio frequency input pads (1004b,d); and two antennas (1010a,b) formed on said substrate, each antenna (1010a,b) being coupled to a corresponding one of the RF input pads (1004b,d); wherein said IC die comprises two modulators (1034a,b) and two charge pumps (1032a,b); wherein each modulator (1034a,b) is coupled to a corresponding RF input pad (1004b,d), wherein said each modulator (1034a,b) is configured to backscatter modulate one or more symbols received from said corresponding RF input pad with a response symbol, wherein said each modulator (1034a,b) is configured to output said backscatter modulated symbol to said corresponding RF input pad (1004b,d); wherein each charge pump (1032a,b is coupled to a corresponding RF input pad (1004b,d), wherein said each charge pump (1032a,b) is configured to convert a high frequency signal from said corresponding RF input pad to a direct current, DC, voltage; and wherein said antennas (1010a,b) are oriented on said substrate such that the average gain over all orientations is increased with respect to each antenna (1010a,b) separately.
An edible formulation comprising edible fungal particles of a filamentous fungus and calcium ions, wherein said edible formulation includes 0 wt% of components derived from animals; and wherein said edible formulation includes at least 2,000mg of calcium ions per Kg of filamentous fungus on a dry matter basis; wherein said edible formulation includes at least 20 wt% of said filamentous fungus on a dry matter basis; wherein said edible formulation includes at least 0.100 wt% and less than 1 wt% of calcium ions in total, on a dry weight basis; wherein said edible formulation includes at least 50 wt% of water; wherein said edible formulation includes acetate moieties; wherein said edible fungal particles comprise filaments with an aspect ratio (length/ diameter) of greater than 40; wherein said edible fungal particles have a number average length of greater than 200 μm; and wherein said edible formulation is provided in a package, wherein said package includes at least 50g of said edible formulation. wherein said edible formulation includes at least 20 wt% of said filamentous fungus on a dry matter basis; wherein said edible formulation includes at least 0.100 wt% and less than 1 wt% of calcium ions in total, on a dry weight basis; wherein said edible formulation includes at least 50 wt% of water; wherein said edible formulation includes acetate moieties; wherein said edible fungal particles comprise filaments with an aspect ratio (length/ diameter) of greater than 40; wherein said edible fungal particles have a number average length of greater than 200 μm; and wherein said edible formulation is provided in a package, wherein said package includes at least 50g of said edible formulation.
Arrangement for determining temperatures in the region of an electromagnetic field of at least one induction coil, in which at least one induction coil is connected to an inverter or to a frequency converter and the inverter or the frequency converter are connected to a voltage supply device; or at least one induction coil is connected to a voltage supply device with known output frequency, characterised in that a measuring device (8, 9) for determining the rise or fall of the electric power, impedance, effective resistance or phase displacement, changing temperature-dependently within predeterminable time intervals, is connected to the voltage supply device and/or the at least one induction coil.
A surgical device comprising: a probe; a cylindrical body; and means for generating a shockwave in the probe for separating, adjusting or attaching two or more parts when the probe is applied to one of the parts in vivo, and wherein the means for generating a shockwave comprises spring actuation means and a manually operable actuator to actuate the shockwave generation means upon manual actuation of the device, characterized in that the spring actuation means is contained within the cylindrical body, and the means for generating a shockwave further comprise a striker guided within the cylindrical body, wherein the spring actuation means contained within the cylindrical body is adapted to cause the striker to strike the probe, the arrangement being such as to allow the application of a shockwave that is regulated in amplitude and repeatable. a probe; a cylindrical body; and means for generating a shockwave in the probe for separating, adjusting or attaching two or more parts when the probe is applied to one of the parts in vivo, and wherein the means for generating a shockwave comprises spring actuation means and a manually operable actuator to actuate the shockwave generation means upon manual actuation of the device, characterized in that the spring actuation means is contained within the cylindrical body, and the means for generating a shockwave further comprise a striker guided within the cylindrical body, wherein the spring actuation means contained within the cylindrical body is adapted to cause the striker to strike the probe, the arrangement being such as to allow the application of a shockwave that is regulated in amplitude and repeatable.
A magnetic head device comprising: a magnetic head adapted for reproducing information recorded in a magnetic information recording medium; an amplifier section adapted for amplifying a reproduced signal with a gain, the reproduced signal being reproduced by the magnetic head; an A/D converter section that is adapted to carry out sampling at predetermined intervals with respect to the amplified reproduced signal for converting into a digital signal and is adapted to output the digital signal; a signal comparator section adapted for comparing an output value A of the digital signal with a predetermined output criterion value B; and a gain control section adapted for adjusting the gain in such a way as to increase the gain in the case where the output value A is smaller than the output criterion value B, and to decrease the gain in the case where the output value is greater than the output criterion value B; characterized in that said increase and decrease of the gain is done with a rate of 35 to 60 % in proportion to IA-BI. a magnetic head adapted for reproducing information recorded in a magnetic information recording medium; an amplifier section adapted for amplifying a reproduced signal with a gain, the reproduced signal being reproduced by the magnetic head; an A/D converter section that is adapted to carry out sampling at predetermined intervals with respect to the amplified reproduced signal for converting into a digital signal and is adapted to output the digital signal; a signal comparator section adapted for comparing an output value A of the digital signal with a predetermined output criterion value B; and a gain control section adapted for adjusting the gain in such a way as to increase the gain in the case where the output value A is smaller than the output criterion value B, and to decrease the gain in the case where the output value is greater than the output criterion value B;
A method of forming a root portion of a wind turbine rotor blade, the method comprising: aligning a plurality of alignment pins coupled to an alignment plate with a first set of a plurality of insert cavities defined by a prefabricated panel, the prefabricated panel partially defining the root portion, wherein each alignment pin is positioned within one of a first set of a plurality of installation apertures defined by the alignment plate; coupling the prefabricated panel and the alignment plate such that each alignment pin is positioned within one insert cavity of the first set of the plurality of insert cavities; placing a first adhesive in each insert cavity of a second set of the plurality of insert cavities; placing a first set of inserts into the second set of the plurality of insert cavities; coupling the first set of inserts and the alignment plate; and curing the first adhesive. aligning a plurality of alignment pins coupled to an alignment plate with a first set of a plurality of insert cavities defined by a prefabricated panel, the prefabricated panel partially defining the root portion, wherein each alignment pin is positioned within one of a first set of a plurality of installation apertures defined by the alignment plate; coupling the prefabricated panel and the alignment plate such that each alignment pin is positioned within one insert cavity of the first set of the plurality of insert cavities; placing a first adhesive in each insert cavity of a second set of the plurality of insert cavities; placing a first set of inserts into the second set of the plurality of insert cavities; coupling the first set of inserts and the alignment plate; and curing the first adhesive.
A method of uplink scheduling control in a telecommunication system comprising a node and a plurality of associated user equipment, characterized by identifying scheduling loop output signals, scheduling loop input signals, and scheduling loop system states, wherein the scheduling loop input signals comprise an absolute power grant reference, an absolute power grant control, and a relative power grant control, determining a dynamic space state model representative of a scheduling loop in said system, based on at least a subset of said identified scheduling loop output and input signals and said scheduling loop system states, measuring at least a subset of said identified scheduling loop output signals and said identified scheduling loop input signals, storing said at least a subset of said measured scheduling loop input signals, and said measured scheduling loop output signals, controlling said plurality of user equipment of said scheduling loop based on optimization of a criterion dependent of said determined dynamic space state model, said stored scheduling loop input signal, and said stored scheduling loop output signals.
An insulation material arranged for electrical insulation in a closed loop around a conductor bar for an electric machine comprising polycrystalline glass-ceramic flakes having a low thickness compared to their length made from a heat treated silica glass precursor in the shape of flakes, the thickness of the polycrystalline glass-ceramic flakes being in the range of micrometres, characterised in that the insulation material comprises a proportion of glass in the range smaller than 60% and as a main component the polycrystalline glass-ceramic flakes, and in that the insulation material comprises as the main component polycrystalline glass-ceramic flakes that contain the crystal phase lithium zinc silicate, lithium metasilicate, lithium disilicate, quartz, cristobalite, or tridymite.