mhurhangee/ep-ind-claims huggingface dataset:
A production plant for producing assemblies from individual components, comprising: - a controller and - at least one component provision device comprising a first feed device for feeding components to a provision platform, which is assigned to the first feed device, characterized in that the component provision device comprises a second feed device for feeding components to a provision platform, which is assigned to the second feed device, wherein the feed devices (3, 4) comprise essentially the same conveying direction and the provision platforms (5, 6) are located next to one another, and that the feed devices (3, 4) each comprise a vibratory conveyor with an essentially straightly extending track (13, 14) and a vibratory conveyor drive (15, 16) coupled to the track, wherein the tracks (13, 14) of the feed devices (3, 4) extend next to one another, and that the feed devices (3, 4) each comprise a return device (8, 9), which starts out from the region of the respective provision platform (5, 6) and leads into the associated feed device (3, 4), preferably into the starting region thereof, and that the feed devices (3, 4) are intermittently actuatable, and that the production plant comprises at least one handling device, in particular a gripper device, for removing the components from the provision platforms (5, 6), wherein the provision platforms (5, 6) of the provision device can be approached by said handling device. - a controller and - at least one component provision device comprising a first feed device for feeding components to a provision platform, which is assigned to the first feed device,
A high chair comprising: a seat member having a seat portion and two laterally spaced arm rests, each of which is formed with a longitudinally extending socket; and a tray system including a first tray member formed with two rearwardly extending tray posts that are alignable respectively with said sockets; characterised by at least one anti-friction member corresponding to each of said tray posts and mounted in one of said tray post and said socket of the corresponding one of said arm rests to minimize friction between said tray post and said socket when said tray post is inserted into said socket of the corresponding one of said arm rests to detachably mount said tray system on said seat member. a seat member having a seat portion and two laterally spaced arm rests, each of which is formed with a longitudinally extending socket; and a tray system including a first tray member formed with two rearwardly extending tray posts that are alignable respectively with said sockets; characterised by at least one anti-friction member corresponding to each of said tray posts and mounted in one of said tray post and said socket of the corresponding one of said arm rests to minimize friction between said tray post and said socket when said tray post is inserted into said socket of the corresponding one of said arm rests to detachably mount said tray system on said seat member.
A disc brake for railway vehicles comprising a pad and a disc upon which the pad acts; said pad comprising a base plate and a plurality of friction elements fixed to the base plate; said friction elements being arranged in rows, which have an arcuate shape and, in use, substantially overlap respective concentric lines of said disc; each row having friction elements with one same friction surface; said pad comprising at least two rows and each row comprising at least two friction elements; said friction elements of each row having a total friction surface whose size ranges from 40% to 80% of the total friction surface of friction elements of an immediately following more external row; said disc brake being characterised in that each of the friction elements of the internal row has a friction surface, which is less than the friction surface of each of the friction elements of an immediately following more external row; said friction elements of each row being arranged on said base plate so as to act on one surface portion of the disc, which partially overlaps surface portions of the disc on which friction elements of a possible immediately following more external row and friction elements of a possible immediately following more internal row act.
A fast charging method, wherein the method is executed by a charging system, the charging system comprising a mobile terminal, a power adapter, and a Universal Serial Bus, USB, interface, the mobile terminal is configured to be coupled to the power adapter via the USB interface; a power line located in the USB interface is configured for charging the mobile terminal, a data line located in the USB interface is configured for establishing a communication between the power adapter and the mobile terminal; the mobile terminal is selectively operable under a common charging mode or a fast charging mode, and a charging current under the fast charging mode is greater than a charging current under the common charging mode; the method comprises: sending, by the mobile terminal, a first instruction to the power adapter through the data line in the USB interface, the first instruction being configured for instructing the power adapter to be operable under the fast charging mode; and receiving, by the mobile terminal, a charging current corresponding to the fast charging mode from the power adapter, so as to charge a battery in the mobile terminal; sending, by the mobile terminal, a fourth instruction to the power adapter through the data line in the USB interface during a period of charging the mobile terminal by the power adapter under the fast charging mode, the fourth instruction being configured for indicating a current voltage of the battery in the mobile terminal, the method being characterized by further comprising: the current voltage of the battery is used as a basis for the power adapter to determine that a connection between the power adapter and the mobile terminal is abnormal when an impedance determined based on a voltage drop between an output voltage of the power adaptor and the current voltage of the battery is greater than a predetermined threshold. sending, by the mobile terminal, a first instruction to the power adapter through the data line in the USB interface, the first instruction being configured for instructing the power adapter to be operable under the fast charging mode; and receiving, by the mobile terminal, a charging current corresponding to the fast charging mode from the power adapter, so as to charge a battery in the mobile terminal; sending, by the mobile terminal, a fourth instruction to the power adapter through the data line in the USB interface during a period of charging the mobile terminal by the power adapter under the fast charging mode, the fourth instruction being configured for indicating a current voltage of the battery in the mobile terminal, the method being characterized by further comprising: the current voltage of the battery is used as a basis for the power adapter to determine that a connection between the power adapter and the mobile terminal is abnormal when an impedance determined based on a voltage drop between an output voltage of the power adaptor and the current voltage of the battery is greater than a predetermined threshold.
A vacuum insulation panel comprising a barrier film and core material having a density in the range from 50 to 350 kg/m 3, wherein the core material comprises a mixture comprising A) from 30 to 100 percent by weight of nanoporous polymer particles which have a cell count in the range from 1000 to 100 000 cells/mm, where at least 60 percent by weight of the nanoporous polymer particles have a particle size of less than 100 μm in the sieve analysis in accordance with DIN 66165, and B) from 0 to 70 percent by weight of pyrogenic or precipitated silica. A) from 30 to 100 percent by weight of nanoporous polymer particles which have a cell count in the range from 1000 to 100 000 cells/mm, where at least 60 percent by weight of the nanoporous polymer particles have a particle size of less than 100 μm in the sieve analysis in accordance with DIN 66165, and B) from 0 to 70 percent by weight of pyrogenic or precipitated silica.
A dynamic radiation pattern antenna system comprising: a plurality of antenna units having electronically controllable radiation patterns, wherein the plurality of antenna units consist of a composite right/left handed (CRLH) microstrip leaky-wave transmission line; a control unit adapted to control dynamically the radiation pattern of the plurality of antenna units; and an electronic interface for connecting the plurality of antenna units to the control unit, the electronic interface consisting of a plurality of varactor diodes, wherein each varactor diode is adapted to be independently electrically controlled by the control unit, characterized by a set of K different radiation patterns formed by the plurality of antenna units in transmission and/or reception, wherein the control unit hops the fixed set of K different radiation patterns with a hopping rate slow enough to enable coherent demodulation over each hop but fast enough to send a codeword over the K radiation pattern hops; wherein the hoping rate is slow enough to enable coherent demodulation over a period of several symbols, and wherein the control unit is adapted to synchronize the hopping instant with the symbol transmission. a plurality of antenna units having electronically controllable radiation patterns, wherein the plurality of antenna units consist of a composite right/left handed (CRLH) microstrip leaky-wave transmission line; a control unit adapted to control dynamically the radiation pattern of the plurality of antenna units; and an electronic interface for connecting the plurality of antenna units to the control unit, the electronic interface consisting of a plurality of varactor diodes, wherein each varactor diode is adapted to be independently electrically controlled by the control unit, characterized by a set of K different radiation patterns formed by the plurality of antenna units in transmission and/or reception, wherein the control unit hops the fixed set of K different radiation patterns with a hopping rate slow enough to enable coherent demodulation over each hop but fast enough to send a codeword over the K radiation pattern hops; wherein the hoping rate is slow enough to enable coherent demodulation over a period of several symbols, and wherein the control unit is adapted to synchronize the hopping instant with the symbol transmission.
Apparatus for providing a fluid, in particular water, comprising a central warm fluid provision device, preferably comprising a central heating unit, for providing warm fluid, a cold fluid provision device for providing cold fluid, a local hot fluid provision device, characterised in that there is arranged a control device which is constructed to control the devices (2, 3, 4) in such a manner that, below a warm fluid discharge quantity and/or below a temperature at least at one location of a warm fluid supply line from the warm fluid provision device to an outlet, the warm fluid is provided by mixing hot fluid and, above the predeterminable warm fluid tapping quantity and/or temperature at least at one location of a warm fluid supply line, the warm fluid is provided by the central warm fluid provision device. a central warm fluid provision device, preferably comprising a central heating unit, for providing warm fluid, a cold fluid provision device for providing cold fluid, a local hot fluid provision device, characterised in that there is arranged a control device which is constructed to control the devices (2, 3, 4) in such a manner that, below a warm fluid discharge quantity and/or below a temperature at least at one location of a warm fluid supply line from the warm fluid provision device to an outlet, the warm fluid is provided by mixing hot fluid and, above the predeterminable warm fluid tapping quantity and/or temperature at least at one location of a warm fluid supply line, the warm fluid is provided by the central warm fluid provision device.
A system comprising a substrate and a device for processing the substrate having a substrate cleaning chamber and a substrate drying chamber, wherein the substrate cleaning chamber includes a first table holding and rotating the substrate such that a surface with a pattern of the substrate is directed upward, a cleaning liquid supply unit supplying a cleaning liquid to said upwardly directed surface of the substrate, and a solvent supply unit supplying a volatile solvent to the surface of the substrate supplied with the cleaning liquid to replace the cleaning liquid on the surface of the substrate with the volatile solvent, the substrate drying chamber includes a second table adapted for holding the substrate horizontally such that the surface with the pattern is directed downward, a heating and drying unit configured for heating the surface of the substrate supplied with the volatile solvent in the substrate cleaning chamber and held by the second table, removing the volatile solvent from the surface of the substrate, and drying the surface of the substrate, wherein the heating and drying unit includes a lamp located below the second table, the lamp irradiating upward with light having a peak intensity in wavelengths between 500 nm and 3000 nm, and wherein the substrate drying chamber is provided with a nozzle adapted for ejecting an inert gas toward said downwardly directed surface of the substrate when the substrate is heated by the heating and drying unit.
A battery system, comprising a battery pack including a plurality of cylindrical battery cells arranged in an array with clearances between neighboring battery cells, an electrical conductor element having a main portion extending along an end side of the battery cells, and at least one branch portion branching off of the main portion and comprising at least one temperature sensor for sensing the temperature of at least one of the battery cells, the branch portion with the temperature sensor extending into one of the clearances between neighboring battery cells of the plurality of battery cells, the battery system further comprising a pin element (24, 124) separate from the temperature sensor and from the remaining parts of the battery system, the pin element (24, 124) comprised of an electrically non-conductive material and inserted into the same clearance such that it presses the temperature sensor against at least one of the battery cells, wherein the branch portion is adapted to be bend by the pin element (24, 124) from an initial position in which the branch portion is arranged parallel to the main portion to a branched off position where the branch portion is branched off of the main portion into the clearance at an angle of approximately 90 degrees with respect to the main portion, wherein the pin element (24, 124) comprises a guiding surface to guide the branch portion into the clearance when the pin element (24, 124) is inserted into the clearance. a battery pack including a plurality of cylindrical battery cells arranged in an array with clearances between neighboring battery cells, an electrical conductor element having a main portion extending along an end side of the battery cells, and at least one branch portion branching off of the main portion and comprising at least one temperature sensor for sensing the temperature of at least one of the battery cells, the branch portion with the temperature sensor extending into one of the clearances between neighboring battery cells of the plurality of battery cells, the battery system further comprising a pin element (24, 124) separate from the temperature sensor and from the remaining parts of the battery system, the pin element (24, 124) comprised of an electrically non-conductive material and inserted into the same clearance such that it presses the temperature sensor against at least one of the battery cells, wherein the branch portion is adapted to be bend by the pin element (24, 124) from an initial position in which the branch portion is arranged parallel to the main portion to a branched off position where the branch portion is branched off of the main portion into the clearance at an angle of approximately 90 degrees with respect to the main portion, wherein the pin element (24, 124) comprises a guiding surface to guide the branch portion into the clearance when the pin element (24, 124) is inserted into the clearance.
A fluid discharge event detection apparatus, comprising: a first conduit (142,705); a sensing conduit; a control valve (120,715), coupled between the first conduit and the sensing conduit, configured to activate and fluidly couple the first conduit and the sensing conduit to one another when the control valve detects at least one predetermined condition of a fluid within the first conduit; a sensor (205,720, 820, 920), disposed and positioned about the sensing conduit and entirely outside of an interior of the sensing conduit, configured to generate a sensor output signal; and a controller (210,725,830,930), coupled to the sensor (205,720, 820, 920), configured to periodically: measure a capacitance value of the sensing conduit as a function of the sensor output signal; detect a change in the measured sensing conduit capacitance value; and assert an alarm condition upon detection of the change in the measured sensing conduit capacitance value, wherein the controller is further configured to: detect a rate of change of the measured capacitance value of the sensing conduit; and distinguish between an excess temperature condition and an excess pressure condition as a function of the detected rate of change of the measured capacitance value of the sensing conduit. a first conduit (142,705); a sensing conduit; a control valve (120,715), coupled between the first conduit and the sensing conduit, configured to activate and fluidly couple the first conduit and the sensing conduit to one another when the control valve detects at least one predetermined condition of a fluid within the first conduit; a sensor (205,720, 820, 920), disposed and positioned about the sensing conduit and entirely outside of an interior of the sensing conduit, configured to generate a sensor output signal; and a controller (210,725,830,930), coupled to the sensor (205,720, 820, 920), configured to periodically: measure a capacitance value of the sensing conduit as a function of the sensor output signal; detect a change in the measured sensing conduit capacitance value; and assert an alarm condition upon detection of the change in the measured sensing conduit capacitance value, measure a capacitance value of the sensing conduit as a function of the sensor output signal; detect a change in the measured sensing conduit capacitance value; and assert an alarm condition upon detection of the change in the measured sensing conduit capacitance value, wherein the controller is further configured to: detect a rate of change of the measured capacitance value of the sensing conduit; and distinguish between an excess temperature condition and an excess pressure condition as a function of the detected rate of change of the measured capacitance value of the sensing conduit. detect a rate of change of the measured capacitance value of the sensing conduit; and distinguish between an excess temperature condition and an excess pressure condition as a function of the detected rate of change of the measured capacitance value of the sensing conduit.
A supercharger system (100,200) contained within a housing, the supercharger system having a front end (110,210), a rear end (120,220), an inlet (130,230) and an outlet and comprising: a rotor assembly (140, 240), a supercharger system in an inverted orientation and a plurality of intake runners (150, 250), Characterised by the plurality of intake runners (150, 250) comprising an interlaced cross-runner pattern, and wherein the supercharger system comprises a front drive, front inlet (130, 230) configuration. a rotor assembly (140, 240), a supercharger system in an inverted orientation and a plurality of intake runners (150, 250), Characterised by the plurality of intake runners (150, 250) comprising an interlaced cross-runner pattern, and wherein the supercharger system comprises a front drive, front inlet (130, 230) configuration.
A quality prediction method by a device in a base station for a physical downlink control channel of a long term evolution system, said method comprising: determining a target user equipment UE requiring physical downlink control channel PDCCH quality prediction, and receiving information reported by the target UE; determining a prediction index of the target UE according to the reported information, wherein the prediction index is a signal to interference plus noise ratio SINR of the control channel or an equivalent reception level RP PDCCH of the control channel; and determining PDCCH quality of the target UE according to the SINR or the RP PDCCH; said method characterized in that: determining the target UE requiring the PDCCH quality prediction and receiving the information reported by the target UE comprise: locking the target UE in a target cell and receiving the reported information which is obtained by the target UE through measurement, wherein the reported information comprises: reference signal received power RSRP of each of a plurality of cells comprising said target cell and adjacent cells. determining a target user equipment UE requiring physical downlink control channel PDCCH quality prediction, and receiving information reported by the target UE; determining a prediction index of the target UE according to the reported information, wherein the prediction index is a signal to interference plus noise ratio SINR of the control channel or an equivalent reception level RP PDCCH of the control channel; and determining PDCCH quality of the target UE according to the SINR or the RP PDCCH; said method characterized in that: determining the target UE requiring the PDCCH quality prediction and receiving the information reported by the target UE comprise: locking the target UE in a target cell and receiving the reported information which is obtained by the target UE through measurement, wherein the reported information comprises: reference signal received power RSRP of each of a plurality of cells comprising said target cell and adjacent cells. determining the target UE requiring the PDCCH quality prediction and receiving the information reported by the target UE comprise: locking the target UE in a target cell and receiving the reported information which is obtained by the target UE through measurement, wherein the reported information comprises: reference signal received power RSRP of each of a plurality of cells comprising said target cell and adjacent cells. locking the target UE in a target cell and receiving the reported information which is obtained by the target UE through measurement, wherein the reported information comprises: reference signal received power RSRP of each of a plurality of cells comprising said target cell and adjacent cells.