mhurhangee/ep-ind-claims huggingface dataset:
A machining station comprising: - an operating base on which there are mounted, - an operating module and an arrangement module, separated by a support structure; Wherein: - the operating base comprises a set of displacement guides; - the operating module comprises an operating table installed on a rotating block, rotating block which is mounted on at least a displacement guide of the operating base; and characterized in that - the arrangement module comprises a curtain which is coupled to the support structure, an arrangement window installed on the curtain, said arrangement window having coupled a drill arm which is installed on a mechanical support which in turn is mounted on at least a displacement guide of the operating base; said drill arm comprising a drive unit which moves inside said arm along an W axis, parallel to an Z axis, wherein the W axis is the drilling axis; - the operation of the drive unit and respective drill arm, as well as the movements of the rotating block, of the curtain and of the mechanical support are controlled by way of a central control unit endowed with processing capacity. - an operating base on which there are mounted, - an operating module and an arrangement module, separated by a support structure; - the operating base comprises a set of displacement guides; - the operating module comprises an operating table installed on a rotating block, rotating block which is mounted on at least a displacement guide of the operating base; - the arrangement module comprises a curtain which is coupled to the support structure, an arrangement window installed on the curtain, said arrangement window having coupled a drill arm which is installed on a mechanical support which in turn is mounted on at least a displacement guide of the operating base; said drill arm comprising a drive unit which moves inside said arm along an W axis, parallel to an Z axis, wherein the W axis is the drilling axis; - the operation of the drive unit and respective drill arm, as well as the movements of the rotating block, of the curtain and of the mechanical support are controlled by way of a central control unit endowed with processing capacity.
An absorbing structure (1, 20) with a sequence of layers, comprising: a first and a second outer surface, a first liquid storing layer (6, 22) comprising fluff pulp, bonding fibers and super absorbing polymer, a second liquid storing layer (9', 24) comprising fluff pulp and bonding fibers, and at least one liquid storage layer (8', 23) arranged between the first liquid storing layer (6, 22) and the second liquid storing layer (9', 24) and in direct contact with these, wherein the layers are disposed on top of one another and form a ply structure, wherein the at least one fluid storage layer (8', 23) comprises a fluff pulp (3, 7), a super absorbing polymer and no binder material, and wherein at least one of the first and second outer surfaces comprises a latex based binder material layer. a first and a second outer surface, a first liquid storing layer (6, 22) comprising fluff pulp, bonding fibers and super absorbing polymer, a second liquid storing layer (9', 24) comprising fluff pulp and bonding fibers, and at least one liquid storage layer (8', 23) arranged between the first liquid storing layer (6, 22) and the second liquid storing layer (9', 24) and in direct contact with these, wherein the layers are disposed on top of one another and form a ply structure, wherein the at least one fluid storage layer (8', 23) comprises a fluff pulp (3, 7), a super absorbing polymer and no binder material, and wherein at least one of the first and second outer surfaces comprises a latex based binder material layer.
A method of reducing the speed of a rotor system from a high speed to a low speed, the rotor system being driven by a first engine via a first multi-ratio transmission and by a second engine (101 a) via a second multi-ratio transmission, the method comprising the subsequent steps: lowering the speed of the rotor system from the high speed to a transitional speed above the low speed by decreasing the speed of the first and second engines (101b, 101a); shifting the first multi-ratio transmission coupled to the first engine (101 b) from a high gear train integrating a high speed clutch to a low gear train integrating a low speed clutch while the speed of the rotor system is maintained at or near the transitional speed by ramping the speed of the first engine to match the transitional speed of the rotor system; shifting the second multi-ratio transmission coupled to the second engine (101 a) from a high gear train integrating a high speed clutch to a low gear train integrating a low speed clutch while the speed of the rotor system is maintained at or near the transitional speed by ramping the speed of the second engine to match the transitional speed of the rotor system; and decreasing the speed of the first engine and second engine to an optimum engine speed, causing the speed of the rotor system to be reduced to the low speed. lowering the speed of the rotor system from the high speed to a transitional speed above the low speed by decreasing the speed of the first and second engines (101b, 101a); shifting the first multi-ratio transmission coupled to the first engine (101 b) from a high gear train integrating a high speed clutch to a low gear train integrating a low speed clutch while the speed of the rotor system is maintained at or near the transitional speed by ramping the speed of the first engine to match the transitional speed of the rotor system; shifting the second multi-ratio transmission coupled to the second engine (101 a) from a high gear train integrating a high speed clutch to a low gear train integrating a low speed clutch while the speed of the rotor system is maintained at or near the transitional speed by ramping the speed of the second engine to match the transitional speed of the rotor system; and decreasing the speed of the first engine and second engine to an optimum engine speed, causing the speed of the rotor system to be reduced to the low speed.
A method of removing fluid from a rock formation (103, 203) using a sampling tool (100, 200), the method comprising: deploying first and second probes (104, 204) of the sampling tool to first and second positions respectively along a wellbore (101, 201) within the rock formation; simultaneously withdrawing fluid from the rock formation through the first and second probes during a first period of time; after the first period of time, disabling the second probe to prevent fluid from being withdrawn from the rock formation through the second probe; while the second probe is disabled, withdrawing fluid from the rock formation through the first probe during a second period of time; after the second period of time, disabling the first probe to prevent fluid from being withdrawn from the rock formation through the first probe; and while the first probe is disabled, withdrawing fluid from the rock formation through the second probe during a third period of time. deploying first and second probes (104, 204) of the sampling tool to first and second positions respectively along a wellbore (101, 201) within the rock formation; simultaneously withdrawing fluid from the rock formation through the first and second probes during a first period of time; after the first period of time, disabling the second probe to prevent fluid from being withdrawn from the rock formation through the second probe; while the second probe is disabled, withdrawing fluid from the rock formation through the first probe during a second period of time; after the second period of time, disabling the first probe to prevent fluid from being withdrawn from the rock formation through the first probe; and while the first probe is disabled, withdrawing fluid from the rock formation through the second probe during a third period of time.
A method for operating a pasteurizing plant, comprising transporting closed containers filled with foods through one or multiple treatment zone(s), treating the containers with a tempered, aqueous treatment liquid in the treatment zone(s) by applying the treatment liquid to an outer surface of the containers, wherein the treatment liquid is fed back to a treatment zone from the treatment zone(s) for reuse in at least one circulation loop, characterized in that a partial quantity of a volume flow of the treatment liquid led through the at least one circulation loop per time unit is continuously diverted in order to create at least one partial flow, which at least one partial flow is filtered by means of a membrane filtration device, and subsequently, dissolved ions are removed from the at least one partial flow by means of an ion exchange device having at least one strongly acidic cation exchanger, and the at least one partial flow is subsequently fed back into a circulation loop or a treatment zone.
A device comprising, at least one processor, a storage component, a power source, a switch, a primary electrode, and a secondary electrode; the at least one processor for directing the power source to charge the storage component, wherein the charging includes building stored energy until a voltage of the storage component reaches a first value; the at least one processor for controlling the switch to provide an electrical pathway from the storage component to a resistive load at the earliest when the voltage reaches the first value, the providing the pathway to the resistive load including delivering the stored energy to the resistive load, wherein the primary electrode and the secondary electrode couple through the resistive load; the at least one processor for controlling the switch to disable the electrical pathway from the storage component to the resistive load; the at least one processor for directing the power source to recharge the storage component, characterized in that: the at least one processor is configured to determine a time of recharge, wherein the time of recharge is the time required to restore the voltage to the first value; the at least one processor configured to compare the time of recharge with at least one time value; and the at least one processor configured to use information of the comparing to adjust the first value. at least one processor, a storage component, a power source, a switch, a primary electrode, and a secondary electrode; the at least one processor for directing the power source to charge the storage component, wherein the charging includes building stored energy until a voltage of the storage component reaches a first value; the at least one processor for controlling the switch to provide an electrical pathway from the storage component to a resistive load at the earliest when the voltage reaches the first value, the providing the pathway to the resistive load including delivering the stored energy to the resistive load, wherein the primary electrode and the secondary electrode couple through the resistive load; the at least one processor for controlling the switch to disable the electrical pathway from the storage component to the resistive load; the at least one processor for directing the power source to recharge the storage component, characterized in that: the at least one processor is configured to determine a time of recharge, wherein the time of recharge is the time required to restore the voltage to the first value; the at least one processor configured to compare the time of recharge with at least one time value; and the at least one processor configured to use information of the comparing to adjust the first value. the at least one processor is configured to determine a time of recharge, wherein the time of recharge is the time required to restore the voltage to the first value; the at least one processor configured to compare the time of recharge with at least one time value; and the at least one processor configured to use information of the comparing to adjust the first value.
An imaging device for capturing an image of a scene comprising: a stabilizing module including a translation cell comprising a lens element; flexible support limbs that support the lens element and extend along an optical axis of the lens element; and characterised in that the stabilizing module further comprises a coupling mechanism (9, 60) and drive means 8, the coupling mechanism (9,60) interposed between the lens element and the drive means for moving the lens element linearly in a direction opposite to that of the drive means when the lens element is subjected to movement; the coupling mechanism (9,60) comprising flexible drive limbs that support the translation cell and couple the translation cell and the drive means, the flexible drive limbs extending in an orthogonal direction to the optical axis of the lens element, the coupling mechanism (9,60) translating movement from the drive means to the lens element via the flexible drive limbs. a stabilizing module including a translation cell comprising a lens element; flexible support limbs that support the lens element and extend along an optical axis of the lens element; and characterised in that the stabilizing module further comprises a coupling mechanism (9, 60) and drive means 8, the coupling mechanism (9,60) interposed between the lens element and the drive means for moving the lens element linearly in a direction opposite to that of the drive means when the lens element is subjected to movement; the coupling mechanism (9,60) comprising flexible drive limbs that support the translation cell and couple the translation cell and the drive means, the flexible drive limbs extending in an orthogonal direction to the optical axis of the lens element, the coupling mechanism (9,60) translating movement from the drive means to the lens element via the flexible drive limbs.
A Receive, RX, supervision method for use in a Time Division Duplex, TDD, radio unit comprising: a Transmit, TX, path; an RX path; a Transmit/Receive, TR, switch; a circulator connected to the TX path and to the TR switch; a termination; a termination port of the TR switch for connecting the TR switch to the termination; and a TX observation module; the RX supervision method comprising: setting the TDD radio unit into an RX supervision status in a TX timeslot, during which the components of the TX path are in a power-on status and the TR switch is connected to the termination via the termination port, wherein the setting comprises: connecting the TX observation module to the termination port of the TR switch; and setting all components in the RX path in a power-on status; detecting a gain of the TX observation module by means of a signal from the TR switch passing through the TX observation module and a gain of the RX path by means of a TX leakage signal passing through the RX path; calculating a gain difference between the TX observation module and the RX path; and comparing the calculated gain difference with a preset gain difference to determine a state of the RX path. a Transmit, TX, path; an RX path; a Transmit/Receive, TR, switch; a circulator connected to the TX path and to the TR switch; a termination; a termination port of the TR switch for connecting the TR switch to the termination; and a TX observation module; the RX supervision method comprising: setting the TDD radio unit into an RX supervision status in a TX timeslot, during which the components of the TX path are in a power-on status and the TR switch is connected to the termination via the termination port, wherein the setting comprises: connecting the TX observation module to the termination port of the TR switch; and setting all components in the RX path in a power-on status; setting the TDD radio unit into an RX supervision status in a TX timeslot, during which the components of the TX path are in a power-on status and the TR switch is connected to the termination via the termination port, wherein the setting comprises: connecting the TX observation module to the termination port of the TR switch; and setting all components in the RX path in a power-on status; connecting the TX observation module to the termination port of the TR switch; and setting all components in the RX path in a power-on status; detecting a gain of the TX observation module by means of a signal from the TR switch passing through the TX observation module and a gain of the RX path by means of a TX leakage signal passing through the RX path; calculating a gain difference between the TX observation module and the RX path; and comparing the calculated gain difference with a preset gain difference to determine a state of the RX path.
A control device to be applied to an internal combustion engine including a fuel reformation device capable of generating reformed fuel through a fuel reforming operation and an output cylinder to which the reformed fuel generated in the fuel reformation device is supplied through a reformed fuel supply path, the output cylinder configured to yield an engine power by combusting the reformed fuel, characterized in that the control device comprises: a reformed fuel processing unit configured to execute a reformed fuel processing operation, upon receiving an engine stop command or after the engine is stopped, for drawing out and processing the reformed fuel from the reformed fuel supply path until a residual amount of reformed fuel in the reformed fuel supply path is equal to or less than a predetermined amount.
Method for storing fault information of a vehicle in at least one vehicle component of the vehicle, wherein the method comprises at least the following steps: reading in a fault signal which represents at least one provided fault information item about at least one vehicle component of the vehicle; and providing a memory signal using the fault signal, wherein the memory signal is designed to store the at least one fault information item in a memory device, constructed as an RFID device, of the vehicle component. reading in a fault signal which represents at least one provided fault information item about at least one vehicle component of the vehicle; and providing a memory signal using the fault signal, wherein the memory signal is designed to store the at least one fault information item in a memory device, constructed as an RFID device, of the vehicle component.
A method for performing beam forming for transmitting a plurality of bit streams output via a plurality of transmission antennas of a base station for a multi-antenna system, the method comprising the steps of: classifying the plurality of transmission antennas into a plurality of transmission antenna groups (418, 420); selecting one of the transmission antenna groups depending on a group selection signal being fed back from a mobile station (20, 22, 24); and outputting each of the plurality of bit streams to the transmission antennas of the selected transmission antenna group, wherein a different weight allocated to each of the plurality of the transmission antenna groups (418, 420) is selected based on the group selection signal, wherein the same weights are allocated to transmission antennas included in the selected transmission antenna group (418, 420), wherein an adaptive modulation and coding, AMC, is applied to the plurality of bit streams, and wherein the group selection signal is represented by either bits indicating the selected transmission antenna group or an index of a weight matrix for maximizing throughput in the multi-antenna system. classifying the plurality of transmission antennas into a plurality of transmission antenna groups (418, 420); selecting one of the transmission antenna groups depending on a group selection signal being fed back from a mobile station (20, 22, 24); and outputting each of the plurality of bit streams to the transmission antennas of the selected transmission antenna group, wherein a different weight allocated to each of the plurality of the transmission antenna groups (418, 420) is selected based on the group selection signal, wherein the same weights are allocated to transmission antennas included in the selected transmission antenna group (418, 420), wherein an adaptive modulation and coding, AMC, is applied to the plurality of bit streams, and wherein the group selection signal is represented by either bits indicating the selected transmission antenna group or an index of a weight matrix for maximizing throughput in the multi-antenna system.
Process for making an electrode active material comprising the steps of: (a) mixing a composite oxide, (oxy)hydroxide, hydroxide or carbonate of nickel and at least one of cobalt and manganese and, optionally, at least one of Mg, Al and Y or a transition metal selected from Ti, Zr, Nb, Ta, Fe, Mo, and W, with at least one source of lithium selected from lithium carbonate, lithium oxide and lithium hydroxide and, optionally, with at least one dopant selected from oxides, hydroxides and oxyhydroxides of Mg, Al, Y, Ti, Zr, Nb, Ta, Fe, Mo, and W, and from fluorides, (b) optionally, transferring said mixture into saggars, crucibles or open cups, (c) calcining said mixture in a pusher kiln or roller hearth kiln or in a rotary kiln at a temperature in the range of from 700 to 1000°C, (d) cooling down the resultant electrode active material, (e) applying a robot to take at least two samples of 10 mg to 10 g per saggar, crucible or open cup to be analyzed, or per defined period of time, respectively, (f) transferring said samples to another robot or to another part of the same robot, where the respective robot makes an electrode material mix from electrode material samples of the same saggar, crucible or open cup, and (g) transferring the electrode material mix to a test unit to perform electrochemical tests, wherein the robot performs steps (f) to (g) with several samples in parallel. (a) mixing a composite oxide, (oxy)hydroxide, hydroxide or carbonate of nickel and at least one of cobalt and manganese and, optionally, at least one of Mg, Al and Y or a transition metal selected from Ti, Zr, Nb, Ta, Fe, Mo, and W, with at least one source of lithium selected from lithium carbonate, lithium oxide and lithium hydroxide and, optionally, with at least one dopant selected from oxides, hydroxides and oxyhydroxides of Mg, Al, Y, Ti, Zr, Nb, Ta, Fe, Mo, and W, and from fluorides, (b) optionally, transferring said mixture into saggars, crucibles or open cups, (c) calcining said mixture in a pusher kiln or roller hearth kiln or in a rotary kiln at a temperature in the range of from 700 to 1000°C, (d) cooling down the resultant electrode active material, (e) applying a robot to take at least two samples of 10 mg to 10 g per saggar, crucible or open cup to be analyzed, or per defined period of time, respectively, (f) transferring said samples to another robot or to another part of the same robot, where the respective robot makes an electrode material mix from electrode material samples of the same saggar, crucible or open cup, and (g) transferring the electrode material mix to a test unit to perform electrochemical tests,
Method for treating turbine blades which have cooling air holes for the discharge of cooling air, wherein a protective layer is provided and then the cooling air holes that are partly or completely closed by the protective layer are opened again, wherein coordinates concerning the position of the cooling air holes are acquired before the protective layer is applied with the aid of an optical measuring sensor based on the optical triangulation method using at least one light source which generates a light beam and at least one light detector, wherein the measuring sensor used is a laser triangulation sensor, the data obtained is used after the application of the protective layer to control a removal device for removing protective layer partly or wholly covering the cooling air holes and wherein each cooling air hole is measured by the light beam being shone into the cooling air hole in different positions in relation to the longitudinal mid-axis of the latter, and wherein the light beam is shone into the respective cooling air hole in a plane at at least three different angles to the longitudinal mid-axis thereof.