mhurhangee/ep-ind-claims huggingface dataset:
Recovery machine to recover a cable, comprising at least one hydraulic pump with variable cubic capacity, provided with a system to adjust the cubic capacity, driven by a servo controller, and at least one hydraulic motor fed by said hydraulic pump by means of at least one pipe to deliver a fluid and at least one pipe to return the fluid, said recovery machine being characterized in that it comprises an adjustment device to adjust the pressure of the fluid provided with at least one piloted proportional valve connected to said servo controller by means of a pipe to pilot the servo controller and provided with at least one maximum pressure proportional valve connected to a pipe connected to the hydraulic pump and in which pressurized fluid flows, said piloted proportional valve being connected to a pipe to discharge the fluid from said adjustment device and being able to commutate and put said pilot pipe into communication with said discharge pipe when the pressure of the fluid detected in at least one of either the delivery pipe or the return pipe of the hydraulic pump exceeds a set threshold pressure.
Method of controlling a wind turbine comprising a rotor comprising at least a first blade, the method comprising the step of varying an induction factor of the first blade over time by dynamically changing a pitch angle of the first blade over time between a first pitch angle and a second pitch angle while the first blade is rotating, characterized in that the dynamic change of the pitch angle over time is controlled such that the respective rotational position of the first blade in the rotor plane at which the first blade is at the first pitch angle is displaced from rotation to rotation, and the respective rotational position of the first blade at which the first blade is at the second pitch angle is displaced from rotation to rotation, and the varying of the induction factor of the blade occurs at different angular positions in the rotor plane over time, such that a location and/or direction of a wake formed downstream of the wind turbine is dynamically changing with respect to the rotor of the wind turbine.
A split trailer type of semi-trailer, including: a front trailer part and a complementary rear trailer part which can be interlocked to form a single trailer, or separated to form two individual trailers; each trailer part (2, 3) having a wheeled chassis (7, 8) and a kingpin (11, 12) for attachment to a tractor vehicle; and an axle mounted at a fixed position at a rear end of the front trailer part which is movable between a lowered position wherein wheels on the axle are in a ground-engaging position and a raised position wherein the wheels are lifted clear of the ground; characterised in that the rear trailer part has wheels mounted on a bogie which is slidably mounted on the chassis of the rear trailer part for longitudinal sliding movement between a forward position and a rearward position on the chassis of the rear trailer part. a front trailer part and a complementary rear trailer part which can be interlocked to form a single trailer, or separated to form two individual trailers; each trailer part (2, 3) having a wheeled chassis (7, 8) and a kingpin (11, 12) for attachment to a tractor vehicle; and an axle mounted at a fixed position at a rear end of the front trailer part which is movable between a lowered position wherein wheels on the axle are in a ground-engaging position and a raised position wherein the wheels are lifted clear of the ground; characterised in that the rear trailer part has wheels mounted on a bogie which is slidably mounted on the chassis of the rear trailer part for longitudinal sliding movement between a forward position and a rearward position on the chassis of the rear trailer part.
An apparatus for magnetically supporting a rotor having an apparatus for detecting the position of the at least partly magnetically supported rotor, in particular of an at least partly magnetically supported rotor of a vacuum pump, preferably of a turbomolecular vacuum pump, having a contactless sensor system arranged in the region of a magnetic bearing of the rotor, and having a control and/or evaluation unit associated with said sensor system, wherein, to detect a rotor movement along at least one respective measurement axis (S i), the sensor system comprises a respective at least one sensor coil unit having at least two sensor coils (16, 18) which can each be acted on by a periodic electrical excitation signal (U ext) via the control and/or evaluation unit and which are arranged relative to one another and relative to the magnetic bearing such that, on a respective rotor movement along the respective measurement axis (S i), either an inductance change in an opposite sense occurs in the two sensor coils (16, 18) or the inductance only changes in one of the two sensor coils (16, 18) and remains at least substantially unchanged in the other sensor coil, characterized in that a respective sensor coil unit is configured with sensor coils (16, 18) of different diameters which are concentric relative to one another to form an absolute coil arrangement in which, on a respective axial rotor movement, the inductance only changes in one of the two sensor coils (16, 18) and remains unchanged in the other sensor coil serving as a reference.
A computer-implemented method comprising: receiving an audio signal that corresponds to an utterance recorded by a particular mobile device; determining a particular geographic location associated with the particular mobile device; receiving a set of geotagged audio signals that correspond to environmental audio signals recorded by multiple mobile devices in multiple geographic locations; selecting a subset of geotagged audio signals that are associated with the particular geographic location from the received set of geotagged audio signals that correspond to environmental audio recorded in multiple geographic locations, each geotagged audio signal having associated context data or metadata; generating a noise model for the particular geographic location using the subset of geotagged audio signals, wherein the context data or the metadata associated with the geotagged audio signals is used to adjust a weight or effect that a particular geotagged audio signal is to have upon the generation of the noise model; and performing noise compensation on the audio signal that corresponds to the utterance using the noise model that has been generated for the particular geographic location. receiving an audio signal that corresponds to an utterance recorded by a particular mobile device; determining a particular geographic location associated with the particular mobile device; receiving a set of geotagged audio signals that correspond to environmental audio signals recorded by multiple mobile devices in multiple geographic locations; selecting a subset of geotagged audio signals that are associated with the particular geographic location from the received set of geotagged audio signals that correspond to environmental audio recorded in multiple geographic locations, each geotagged audio signal having associated context data or metadata; generating a noise model for the particular geographic location using the subset of geotagged audio signals, wherein the context data or the metadata associated with the geotagged audio signals is used to adjust a weight or effect that a particular geotagged audio signal is to have upon the generation of the noise model; and performing noise compensation on the audio signal that corresponds to the utterance using the noise model that has been generated for the particular geographic location.
An exhaust gas heat recovery unit comprising: a heat pipe that is provided in an exhaust pipe, and that includes a heater portion which heats a working fluid using heat of exhaust gas discharged from an engine and an evaporator portion which evaporates the working fluid, heated by the heater portion, using the heat of the exhaust gas, wherein fins (28a, 28b) that receive a predetermined amount of heat of the exhaust gas are provided on an outer periphery of the heat pipe, characterized in that: a pitch of the fins on the outer periphery of the heater portion of the heat pipe is set to a pitch smaller than a pitch of the fins on the outer periphery of the evaporator portion of the heat pipe. a heat pipe that is provided in an exhaust pipe, and that includes a heater portion which heats a working fluid using heat of exhaust gas discharged from an engine and an evaporator portion which evaporates the working fluid, heated by the heater portion, using the heat of the exhaust gas, wherein fins (28a, 28b) that receive a predetermined amount of heat of the exhaust gas are provided on an outer periphery of the heat pipe, characterized in that: a pitch of the fins on the outer periphery of the heater portion of the heat pipe is set to a pitch smaller than a pitch of the fins on the outer periphery of the evaporator portion of the heat pipe. a pitch of the fins on the outer periphery of the heater portion of the heat pipe is set to a pitch smaller than a pitch of the fins on the outer periphery of the evaporator portion of the heat pipe.
A method comprising: identifying, at an upstream network device, a set of updated routes that define network paths that have each experienced at least one topology change since the upstream network device last converged with a downstream network device (204, 206, 208); monitoring the amounts of traffic that traverse the network paths defined by the set of updated routes by way of a traffic flow analysis; determining, at the upstream network device, levels of priority for the set of updated routes based at least in part on the amounts of traffic that traverse the network paths defined by the set of updated routes; arranging, at the upstream network device, the set of updated routes in a prioritized order in accordance with the levels of priority determined based at least in part on the amounts of traffic that traverse the network paths; and converging the upstream network device with the downstream network device by sending the set of updated routes in the prioritized order to the downstream network device such that the downstream network device is able to forward traffic by way of higher priority routes within the set of updated routes before lower priority routes within the set of updated routes. identifying, at an upstream network device, a set of updated routes that define network paths that have each experienced at least one topology change since the upstream network device last converged with a downstream network device (204, 206, 208); monitoring the amounts of traffic that traverse the network paths defined by the set of updated routes by way of a traffic flow analysis; determining, at the upstream network device, levels of priority for the set of updated routes based at least in part on the amounts of traffic that traverse the network paths defined by the set of updated routes; arranging, at the upstream network device, the set of updated routes in a prioritized order in accordance with the levels of priority determined based at least in part on the amounts of traffic that traverse the network paths; and converging the upstream network device with the downstream network device by sending the set of updated routes in the prioritized order to the downstream network device such that the downstream network device is able to forward traffic by way of higher priority routes within the set of updated routes before lower priority routes within the set of updated routes.
Steam turbine, comprising a rotor mounted rotatably about an axis of rotation, a housing arranged about the rotor, and a flow duct formed between the rotor and the housing, further comprising an inflow region, which has a single inflow connecting piece and issues into an annular inflow duct, wherein the annular inflow duct substantially has an annular duct cross section A3 and is connected fluidically to the flow duct, wherein the annular inflow duct is formed about the axis of rotation, wherein the inflow connecting piece has an inflow cross section A1, through which a flow medium flows in a flow direction during operation, wherein the inflow cross section increases to a maximum cross section A2 in the flow direction, characterized in that the inflow cross section subsequently reduces to the annular duct cross section A3, wherein the following holds true: 1.1 < A 2 / A 1 < 1.7.
A modified chloride salt composition comprising: 15% to 90% by weight potassium chloride; 10% to 90% by weight sodium chloride; 0.1% to 5% by weight food grade acidulant; and 10% to 40% by weight carrier, wherein the carrier is maltodextrin, and the modified chloride salt comprises at least one homogenous particle comprising potassium, sodium, the food grade acidulant, and the carrier. 15% to 90% by weight potassium chloride; 10% to 90% by weight sodium chloride; 0.1% to 5% by weight food grade acidulant; and 10% to 40% by weight carrier, wherein the carrier is maltodextrin, and the modified chloride salt comprises at least one homogenous particle comprising potassium, sodium, the food grade acidulant, and the carrier.
A rotor for connection to a stationary member for use in an electric machine, comprising: a body defining a center of rotation thereof, said body comprising a disk-shaped outer portion and a rim having a cylindrical outer periphery, a hub side surface and an opposed magnet side surface; and a magnet connected to the said body between the rim and the disk-shaped outer portion; and an adhesive, said adhesive positioned between said magnet and said body and adapted to assist in securing said magnet to said body, characterized in that the hub side surface defines a first surface extending in a direction perpendicular to the center of rotation, and the first surface of said body adapted to permit removal of material therefrom to assist in balancing of said rotor. a body defining a center of rotation thereof, said body comprising a disk-shaped outer portion and a rim having a cylindrical outer periphery, a hub side surface and an opposed magnet side surface; and a magnet connected to the said body between the rim and the disk-shaped outer portion; and an adhesive, said adhesive positioned between said magnet and said body and adapted to assist in securing said magnet to said body, characterized in that the hub side surface defines a first surface extending in a direction perpendicular to the center of rotation, and the first surface of said body adapted to permit removal of material therefrom to assist in balancing of said rotor.
A device for processing material, in particular a forming machine, comprising at least one material processing assembly which is arranged so that it can be displaced linearly along a linear guiding, wherein said material processing assembly can be displaced automatically in a linear direction by means of a drive mechanism which can be controlled by a machine control to position the assembly in a respective desired working position, wherein said drive mechanism comprises a threaded spindle for displacing the material processing assembly, and wherein a spindle nut, through which the threaded spindle passes, is associated to the linearly displaceable material processing assembly, characterized in that the spindle nut can be moved by a coupling device alternatively to an idle operating state and to a coupled operating state, wherein in the idle operating state the latter can be rotated with the threaded spindle so that it cannot carry out a linear movement along the threaded spindle, whereas in the coupled operating state it is coupled to the material processing assembly resistant to rotation, so that when the threaded spindle is rotated, it can carry out a linear movement along the threaded spindle taking with it the material processing assembly along the linear guiding.
Electrochemical cell (100; 200; 300) for generating hydrogen, having the features (a) the cell has an anode (106; 206; 306) comprising an electrochemically oxidizable substance and also an electrode designed for hydrogen generation as a cathode (104; 204; 304) and also an aqueous alkaline electrolyte, (b) the anode (106; 206; 306) and the cathode (104; 204; 304) are designed in such a way that the hydrogen generation starts at the cathode (104; 204; 304) as soon as the anode (106; 206; 306) and the cathode (104; 204; 304) are electrically connected to one another, (c) the cell comprises a housing which encloses an interior in which the anode (106; 206; 306) and the cathode (104; 204; 304) - separated from one another by a separator (105; 205; 305) - are arranged, and (d) the housing has at least one aperture (107a, 107b; 207a, 207b; 307a, 307b) through which hydrogen which is generated at the electrode (104; 204; 304) which is designed for hydrogen generation can escape from the interior, and also the additional feature (e) at least one resistance film (108; 111; 208; 308) is adhesively bonded onto at least one outer side of the housing and, when the cell is operated as a load resistance, is connected between the anode (106; 206; 306) and the cathode (104; 204; 304) and reduces the current flow between the anode (106; 206; 306) and the cathode (104; 204; 304), and therefore also the gas generation rate. (a) the cell has an anode (106; 206; 306) comprising an electrochemically oxidizable substance and also an electrode designed for hydrogen generation as a cathode (104; 204; 304) and also an aqueous alkaline electrolyte, (b) the anode (106; 206; 306) and the cathode (104; 204; 304) are designed in such a way that the hydrogen generation starts at the cathode (104; 204; 304) as soon as the anode (106; 206; 306) and the cathode (104; 204; 304) are electrically connected to one another, (c) the cell comprises a housing which encloses an interior in which the anode (106; 206; 306) and the cathode (104; 204; 304) - separated from one another by a separator (105; 205; 305) - are arranged, and (d) the housing has at least one aperture (107a, 107b; 207a, 207b; 307a, 307b) through which hydrogen which is generated at the electrode (104; 204; 304) which is designed for hydrogen generation can escape from the interior,
A method for producing polyester resin particles, comprising: bringing a first compressive fluid and raw materials containing a pressure plastic material which is a polyester resin into contact with each other to melt the polyester resin; mixing the melt of the polyester resin obtained by contacting with the first compressive fluid and a second compressive fluid containing nitrogen; and jetting the melt of the polyester resin obtained by mixing with the second compressive fluid, to thereby form particles, wherein the pressure plastic material has the characteristic that the glass transition temperature (Tg) reduces as pressure is applied, wherein the first compressive fluid and the second compressive fluid are one of the following: i) a supercritical fluid, ii) a liquefied gas obtained by compressing a substance existing as a gas at a normal temperature of 25°C and a normal pressure of 1 atm, or iii) a high-pressure gas whose pressure is 1/2 Pc or higher, wherein Pc is the pressure of the critical point, wherein the second compressive fluid is a substance having the maximum inversion temperature of 800K or lower, wherein the melt has a viscosity of 500 mPa·s or lower, wherein the viscosity of 500 mPa·s or lower is measured under the condition at the pressure of 30 MPa or lower. bringing a first compressive fluid and raw materials containing a pressure plastic material which is a polyester resin into contact with each other to melt the polyester resin; mixing the melt of the polyester resin obtained by contacting with the first compressive fluid and a second compressive fluid containing nitrogen; and jetting the melt of the polyester resin obtained by mixing with the second compressive fluid, to thereby form particles, wherein the pressure plastic material has the characteristic that the glass transition temperature (Tg) reduces as pressure is applied, wherein the first compressive fluid and the second compressive fluid are one of the following: i) a supercritical fluid, ii) a liquefied gas obtained by compressing a substance existing as a gas at a normal temperature of 25°C and a normal pressure of 1 atm, or iii) a high-pressure gas whose pressure is 1/2 Pc or higher, wherein Pc is the pressure of the critical point, i) a supercritical fluid, ii) a liquefied gas obtained by compressing a substance existing as a gas at a normal temperature of 25°C and a normal pressure of 1 atm, or iii) a high-pressure gas whose pressure is 1/2 Pc or higher, wherein Pc is the pressure of the critical point, wherein the second compressive fluid is a substance having the maximum inversion temperature of 800K or lower, wherein the melt has a viscosity of 500 mPa·s or lower, wherein the viscosity of 500 mPa·s or lower is measured under the condition at the pressure of 30 MPa or lower.
Deburring-tool holder having a front part for fastening a deburring tool, and having a rear part for clamping in a machine tool, wherein the front part is arranged between at least two spring elements, wherein the front part is retained between at least two spring elements, characterized in that the spring elements establish a connection between the front part and the rear part in order to provide for radial displacement of the front part in relation to the rear part, wherein either the fastening location for the deburring tool is arranged eccentrically in relation to the axis of rotation or the radial position of the front part can be altered by means of a rotatable adjustment element and/or setting element.