mhurhangee/patent-ind-claim-en huggingface dataset:
Pedal for a vehicle, comprising a support , a pedal arm mounted to said support and pivotable around a solid pivot axis for said pedal arm between an idle position and a maximum deflection position of said pedal arm , a rocker mounted to said support and pivotable around a solid pivot axis (2.1) for said rocker , whereat said rocker comprises a central part (8.1) pivotably mounted to said support and a first rocker arm (8.2) and a second rocker arm (8.3), which are located on opposite sides of said central part (8.1), further comprising a return spring for forcing said pedal arm into a direction of said idle position of said pedal arm , whereat said pedal arm and said first rocker arm (8.2) are linked by said return spring in a power transmitting manner, whereat said pedal is built in such a manner, that said second rocker arm (8.3) is being pressed with a friction section (8.3.1) against a friction surface (4.1.1) of said pedal arm , if said pedal arm is forced via an external actuating force into a direction of said maximum deflection position of said pedal arm and said external actuating force necessary to transfer said pedal arm from said idle position to said maximum deflection position along an actuating path is continuously and steadily increasing in a first section (14.1) of said actuating path , wherein said pedal arm , said rocker and said return spring are built and positioned to each other in such a manner, that said external actuating force necessary to transfer said pedal arm from said idle position to said maximum deflection position along an actuating path is continuously and steadily increasing in said first section (14.1) of said actuating path and is continuously and steadily decreasing in a second section (14.3) of said actuating path , until a predefined deflection position (14.4) is reached, whereat said friction section (8.3.1) of said second rocker arm (8.3) and said friction surface (4.1.1) of said pedal arm are built as wedge-shaped parts (4.1.1, 8.3.1) corresponding to each other.
Method for controlling a wind turbine, characterised in that at least one operational setting (a) is varied within predetermined limits (T), wherein the variation is performed in predeterminable time intervals (t1, t2, t3, t4, t5, t6, t7, t8, t9, t10) so that, when an optimal setting has been found, this is maintained for a given period of time.
A coagulation monitoring device for monitoring a treatment state of water to be treated undergoing a coagulation treatment, comprising: a laser light irradiating part configured to irradiate laser light on a measurement region of the water to be treated such that the laser light is emitted at at least predetermined time intervals and subjected to an amplitude modulation at a predetermined frequency; a scattered light receiving part configured to receive scattered light from particles of the water to be treated residing in the measurement region; a signal processing part configured to extract a measurement value indicative of an intensity of the scattered light, from light-reception signal obtained at the scattered light receiving part; and a measurement value arithmetic part configured to continuously or discontinuously capture m sets of plural measurement values, each set consisting of n measurement values, wherein m=2 or more, and n=2 or more, characterized in that the measurement value arithmetic part is configured to extract a plurality of the measurement values in ascending order from a lower value for each set, the measurement value arithmetic part is configured to figure out an average measurement value from the extracted measurement values with a lowest value removed therefrom. a laser light irradiating part configured to irradiate laser light on a measurement region of the water to be treated such that the laser light is emitted at at least predetermined time intervals and subjected to an amplitude modulation at a predetermined frequency; a scattered light receiving part configured to receive scattered light from particles of the water to be treated residing in the measurement region; a signal processing part configured to extract a measurement value indicative of an intensity of the scattered light, from light-reception signal obtained at the scattered light receiving part; and a measurement value arithmetic part configured to continuously or discontinuously capture m sets of plural measurement values, each set consisting of n measurement values, wherein m=2 or more, and n=2 or more, characterized in that the measurement value arithmetic part is configured to extract a plurality of the measurement values in ascending order from a lower value for each set, the measurement value arithmetic part is configured to figure out an average measurement value from the extracted measurement values with a lowest value removed therefrom.
Structured mineral bone substitute moldings having a defined interconnecting pore system and a predetermined structure, made of a anhydrous mineral bone cement containing calcium and/or magnesium compounds and from 0.5 Mol-% to 25 Mol-% strontium ions, based on the total content of divalent cations, wherein the defined interconnecting pore system in at least one dimension has an interconnecting pore system having pores that have an average pore cross section of at least 50,000 μm 2 and an average pore diameter of at least 250 μm, based on a circular cross section, wherein the defined interconnecting pore system in at least one dimension has an interconnecting pore system having pores that have a maximum average pore cross section of 785,000 μm 2 and a maximum average pore diameter of 1000 μm, based on a circular cross-section.
A drainage control method for multi-drum washing machine, which comprises a first washing device , and a second washing device , a drainage pump communicating with outside, a first drainage valve provided between the first washing device and the drainage pump, and a second drainage valve provided between the second washing device and the drainage pump, comprising, the first washing device and the second washing device of the multi-drum washing machine draining water sequentially, after a drainage of the first washing device is completed, the first drainage valve of the first washing device being closed, then the drainage pump being turned off, and detecting whether or not the second washing device requires drainage, if yes, first the second drainage valve being opened, and then the drainage pump is turned on for the second washing device to drain water, and if no, a drainage of the multi-drum washing machine being completed, characterized in that , the operating time sequence of the drainage pump is defined by a single cycle time sequence for the drainage pump to execute a working progress and a stopping progress, after water in the first washing device is drained out, it is determined whether or not the drainage pump is in a working progress, if no, the drainage pump continues to execute a next operating time sequence, then the determination whether or not the drainage pump is in a working progress is performed again; if yes, it is continued to determine a working time for the drainage pump being in the working progress; and if the working time of the drainage pump is within a first 1/3 of a total time of the working progress, the drainage valve of the first washing device is closed, and if no, after a completion of the operating time sequence executed by the drainage pump, the drainage pump continues to execute another operating time sequence, and then it is determined whether or not the drainage pump is in the working progress.
Fuel injector for a fuel injection system, in particular a common-rail injection system, comprising a nozzle needle , which is guided, such that it can perform stroke movements, in a high-pressure bore of a nozzle body and which serves for opening up and closing at least one injection opening, a piezo actuator , which is accommodated in a low-pressure region and which serves for directly controlling the stroke movement of the nozzle needle , and a coupling device , by means of which the piezo actuator is hydraulically couplable to the nozzle needle , wherein the coupling device comprises a coupler volume which is formed within a sleeve-shaped coupler piston , wherein the coupler piston is guided, such that it can perform stroke movements, by means of an inner pin which delimits the coupler volume in an axial direction, and wherein an end portion of the nozzle needle projects into the coupler volume or into a fuel volume connected to the coupler volume , characterized in that a force transmission element is arranged between the piezo actuator and the coupling device , which force transmission element comprises a pin-like portion , which extends through a pressure plate , and a plate-like portion for axially supporting the sleeve-like coupler piston , wherein the pressure plate separates the low-pressure region from a high-pressure region of the fuel injector.
A neuromodulation system, comprising: neuromodulation generator circuitry configured to use electrodes of an electrode arrangement to generate neuromodulation fields including: a therapeutic neuromodulation field to produce a therapeutic effect in therapy-targeted neural tissue; and a priming field to produce a priming effect in priming-targeted neural tissue, wherein the priming effect causes a change in sensitization of the priming-targeted neural tissue to the therapeutic neuromodulation field; and a controller configured to receive testing program configuration instructions including therapeutic neuromodulation field-setting parameters for a testing program, characterised in that the controller is configured to determine a custom priming program in response to the testing program configuration instructions, wherein the custom priming program controls the neuromodulation generator circuitry to generate the priming field as a custom priming field with specific correspondence to the therapeutic neuromodulation field to be produced by the testing program. neuromodulation generator circuitry configured to use electrodes of an electrode arrangement to generate neuromodulation fields including: a therapeutic neuromodulation field to produce a therapeutic effect in therapy-targeted neural tissue; and a priming field to produce a priming effect in priming-targeted neural tissue, wherein the priming effect causes a change in sensitization of the priming-targeted neural tissue to the therapeutic neuromodulation field; and a controller configured to receive testing program configuration instructions including therapeutic neuromodulation field-setting parameters for a testing program, characterised in that the controller is configured to determine a custom priming program in response to the testing program configuration instructions, wherein the custom priming program controls the neuromodulation generator circuitry to generate the priming field as a custom priming field with specific correspondence to the therapeutic neuromodulation field to be produced by the testing program.
Process for pre-treating liquid effluents comprising the following steps: a) filling a single reactor with untreated effluent; b) phased and sequential addition of a coagulating agent, of a neutralizing agent, and of a flocculating agent to the reactor ; whereby the coagulating and neutralizing agents are added to the reactor in a phased and sequential way until a pH probe measures a predefined pH value corresponding to the addition of the coagulating agent and a second pH value corresponding to the addition of the neutralizing agent; c) sedimentation of the effluent resulting from the addition from steps (b); d) formation of a first sludge fraction at the bottom of the reactor , of a second lower extract fraction and of a third upper extract fraction of a supernatant from the treated effluent, resulting from steps (b) and (c); whereby the reactor has two different means of drainage for the upper and lower fractions of the supernatant extract; e) sequential drainage of the third upper extract fraction and of the second lower extract fraction of the supernatant of the treated effluent; whereby opening a valve of the upper supernatant extract'` fraction first allows its draining to a treatment plant, followed by deactivating said valve after the upper supernatant extract fraction is drained off and activating a valve of the lower extract fraction of the supernatant, enabling the draining of the lower extract fraction of the supernatant; f) drainage of the sludge fraction; characterized by step (a) being preceded by the introduction of air into the reactor through an air pump during the period until the beginning of step (c). a) filling a single reactor with untreated effluent; b) phased and sequential addition of a coagulating agent, of a neutralizing agent, and of a flocculating agent to the reactor ; whereby the coagulating and neutralizing agents are added to the reactor in a phased and sequential way until a pH probe measures a predefined pH value corresponding to the addition of the coagulating agent and a second pH value corresponding to the addition of the neutralizing agent; c) sedimentation of the effluent resulting from the addition from steps (b); d) formation of a first sludge fraction at the bottom of the reactor , of a second lower extract fraction and of a third upper extract fraction of a supernatant from the treated effluent, resulting from steps (b) and (c); whereby the reactor has two different means of drainage for the upper and lower fractions of the supernatant extract; e) sequential drainage of the third upper extract fraction and of the second lower extract fraction of the supernatant of the treated effluent; whereby opening a valve of the upper supernatant extract'` fraction first allows its draining to a treatment plant, followed by deactivating said valve after the upper supernatant extract fraction is drained off and activating a valve of the lower extract fraction of the supernatant, enabling the draining of the lower extract fraction of the supernatant; f) drainage of the sludge fraction;
Device for producing concrete blocks, in which a lower mold part is inserted into a frame which is fastened via retaining struts to receptacles of a plurality of guide columns which are oriented along an insertion direction and have, above the lower mold part , a loading means which is movable along the guide columns and which has, on its side facing the lower mold part , an upper mold part in which one or more pressure plates are or can be inserted into one or more recesses of the lower mold part , the loading means being connected to the pressure plates via pressure stamps , an upper guide element being arranged between the loading means and the pressure stamps , characterized in that the upper guide element interacts in such a way with a lower guide element arranged on the support strut that during the production of concrete blocks, comprising filling of the lower mold part , compression and demolding, the loading means is constantly guided relative to the lower mold part in a plane perpendicular to the insertion direction , the upper and lower guide elements being engaged, and the upper guide element interacting with the lower guide element in such a way that when the lower mold part is exposed, the lower mold part can be filled with a concrete mixture, the upper guide element , which has a plurality of guide bolts, being already engaged with the lower guide element , which has a plurality of guide bushes, and the loading means remaining constantly guided with respect to the lower mold part during the production of concrete blocks. the upper guide element interacts in such a way with a lower guide element arranged on the support strut that during the production of concrete blocks, comprising filling of the lower mold part , compression and demolding, the loading means is constantly guided relative to the lower mold part in a plane perpendicular to the insertion direction , the upper and lower guide elements being engaged, and the upper guide element interacting with the lower guide element in such a way that when the lower mold part is exposed, the lower mold part can be filled with a concrete mixture, the upper guide element , which has a plurality of guide bolts, being already engaged with the lower guide element , which has a plurality of guide bushes, and the loading means remaining constantly guided with respect to the lower mold part during the production of concrete blocks.
A reinforced absorbable three-dimensional implant comprising monofilament and/or multifilament fibers, or a porous film, for hernia repair procedures, wherein said fibers or film comprise poly-4-hydroxybutyrate (P4HB) or a copolymer thereof, wherein the outlying border of the implant is reinforced, wherein the reinforced implant is configured to assume its original three-dimensional shape after being temporarily deformed and implanted, and wherein the implant has a suture pullout strength of at least 10 N.
Fastening element for fastening a hollow composite pole for overhead power lines to the ground at a location where a slit-formed opening is present in the ground , wherein the fastening element has a lower cylindrical end portion that is configured for being positioned in the slit-formed opening being circular, wherein the fastening element has a conical upper portion , wherein, in operational use of the fastening element , a conical portion of the composite pole is configured for moving over the conical upper portion of the fastening element until abutment with the fastening element is established.
A jaw crusher comprising: frame side walls ; an eccentric supported by the side walls ; a pitman supported by the eccentric; a rear end connected to the side walls, wherein a cross-section of the rear end consists of a front section, a middle section comprising a cross wall , and an end section; and a toggle plate connected between the pitman and the middle section of the rear end comprising the cross wall ; wherein the front section comprises first side walls extending forwards from upper and lower ends of the cross wall substantially perpendicular to the cross wall and forming a space therebetween for receiving an adjusting apparatus for the toggle plate and a rear end of the toggle plate ; the end section consists of a rear end support for minimizing or preventing any deflection of the cross wall; the rear end support is formed as a beam and integrated to the cross wall ; a front most point of the rear end support resides substantially centrally between the upper and lower ends of the cross wall; and the rear end support is located on a center plane of the cross section of the rear end. frame side walls ; an eccentric supported by the side walls ; a pitman supported by the eccentric; a rear end connected to the side walls, wherein a cross-section of the rear end consists of a front section, a middle section comprising a cross wall , and an end section; and a toggle plate connected between the pitman and the middle section of the rear end comprising the cross wall ; wherein the front section comprises first side walls extending forwards from upper and lower ends of the cross wall substantially perpendicular to the cross wall and forming a space therebetween for receiving an adjusting apparatus for the toggle plate and a rear end of the toggle plate ; the end section consists of a rear end support for minimizing or preventing any deflection of the cross wall; the rear end support is formed as a beam and integrated to the cross wall ; a front most point of the rear end support resides substantially centrally between the upper and lower ends of the cross wall; and the rear end support is located on a center plane of the cross section of the rear end.
Circuit arrangement for operating light sources, comprising: - input terminals (L, N) for inputting a power supply system voltage, - a first rectifying circuit (D1), - a half-bridge arrangement comprising two switches (Q1, Q2), - an inductance (L1), the first terminal of which is coupled to the centre point (M) of the half-bridge arrangement, - a second rectifying circuit (D2), the first input terminal of which is coupled to the second terminal of the inductance (L1), characterized in that the circuit arrangement further comprises: - a boost converter having output terminals to which the half-bridge arrangement is coupled, - a current-compensated inductor (L3), the input terminals of which are coupled to the output terminals of the second rectifying circuit (D2), and - at least one light source which is connected to the output terminals of the current-compensated inductor (L3), wherein - the output terminals of the current-compensated inductor (L3) are coupled to an output terminal of the boost converter via filter capacitors (C6, C7) and the second input terminal of the second rectifying circuit (D2) is coupled to an output terminal of the boost converter. - input terminals (L, N) for inputting a power supply system voltage, - a first rectifying circuit (D1), - a half-bridge arrangement comprising two switches (Q1, Q2), - an inductance (L1), the first terminal of which is coupled to the centre point (M) of the half-bridge arrangement, - a second rectifying circuit (D2), the first input terminal of which is coupled to the second terminal of the inductance (L1), - a boost converter having output terminals to which the half-bridge arrangement is coupled, - a current-compensated inductor (L3), the input terminals of which are coupled to the output terminals of the second rectifying circuit (D2), and - at least one light source which is connected to the output terminals of the current-compensated inductor (L3), wherein - the output terminals of the current-compensated inductor (L3) are coupled to an output terminal of the boost converter via filter capacitors (C6, C7) and the second input terminal of the second rectifying circuit (D2) is coupled to an output terminal of the boost converter.
Holder for a fire protection sleeve , comprising a fastening portion , a support portion , and a holding portion that is provided with an anchoring means which can interact interlockingly with the jacket of a fire protection sleeve and which is designed to be angled twice starting from the support portion so that it forms, together with the support portion , a receiving channel for an edge portion of the fire protection sleeve , the anchoring means being formed by at least one pin, characterized in that the anchoring means is opposite the support portion .
A liquid coating material comprising 0.5 to 50 % by weight polymerizable cyanoacrylate monomer, 1 to 40 % by weight siloxysilane-containing polymer and a solvent system comprising a non-stinging, non-irritating, volatile, non-reactive liquid comprising a volatile liquid siloxane, a volatile alkane or a volatile fluorocarbon; wherein said non-stinging, non-irritating, volatile, non-reactive liquid is present from 10 to 98.5 % by weight and wherein said volatile liquid volatilizes at room or body temperature and said coating material is hemostatic on bloody, moist and non-moist surfaces and is forming an adherent, conformable polymer coating when applied to a surface. wherein said non-stinging, non-irritating, volatile, non-reactive liquid is present from 10 to 98.5 % by weight and wherein said volatile liquid volatilizes at room or body temperature and said coating material is hemostatic on bloody, moist and non-moist surfaces and is forming an adherent, conformable polymer coating when applied to a surface.