mhurhangee/ep-ind-claims huggingface dataset:
Firearm comprising a housing, a magazine that can be inserted into a receiving arrangement of the housing, wherein the cartridges that are located in the magazine are pre-stressed by means of a magazine feeder in the direction of a transferring aperture, a slide that moves with respect to the housing so as to convey cartridges from the transferring aperture of the magazine into a cartridge chamber that is located in the housing or so as to convey the cartridge casings from the cartridge chamber to an ejection window, and also a slide catching lever that is arranged on the housing in such a manner that said slide catching lever can pivot or slide and by means of said slide catching lever in cooperation with the magazine feeder the slide is held in a rear retracted position in the event of an empty magazine, characterized in that a release element is provided for automatically releasing the slide into the closed forward position only when inserting a new loaded magazine, and that the release element protrudes in a forward starting position with an engagement surface into the movement path of a control surface of the magazine into the magazine receiving arrangement and when inserting the magazine can be brought into engagement with said control surface, and that moreover in the case of a movement of the release element from the front starting position into a rear end position the release element, at least for a part of this movement is coupled in a kinematic manner to the slide by way of an operating surface, wherein on the end of the coupled part of the movement the slide is offset rearwards with respect to its rear retracted position by a further section along the movement path of said slide, as a result of which the slide catch lever is released and that furthermore the operating surface of the release element is out of engagement with the slide when said release element is in its rear end position.
A method comprising: sharing a radio frequency, RF, interface (112, 212) between a first subscriber identity module, SIM, related to a first radio access technology, and a second SIM related to a second radio access technology, wherein both SIMs (102, 104) are provided in a user equipment (100, 200); while in idle mode on both the first SIM and the second SIM, monitoring for incoming calls in accordance with a first radio access technology; and while in idle mode on both the first SIM and the second SIM, suppressing network connection transitions to a different radio access technology; entering a connected mode by establishing a network connection for the first SIM using the first radio access technology; while in the connected mode with the established network connection for the first SIM, communicating to a network controller that a second radio access technology providing a higher data rate connection than the first radio access technology is supported; and while in said connected mode, suppressing network connections using the second radio access technology until one or more predetermined transition conditions (130, 230, 312) providing a higher performance characteristic are met. sharing a radio frequency, RF, interface (112, 212) between a first subscriber identity module, SIM, related to a first radio access technology, and a second SIM related to a second radio access technology, wherein both SIMs (102, 104) are provided in a user equipment (100, 200); while in idle mode on both the first SIM and the second SIM, monitoring for incoming calls in accordance with a first radio access technology; and while in idle mode on both the first SIM and the second SIM, suppressing network connection transitions to a different radio access technology; entering a connected mode by establishing a network connection for the first SIM using the first radio access technology; while in the connected mode with the established network connection for the first SIM, communicating to a network controller that a second radio access technology providing a higher data rate connection than the first radio access technology is supported; and while in said connected mode, suppressing network connections using the second radio access technology until one or more predetermined transition conditions (130, 230, 312) providing a higher performance characteristic are met.
A method of additive manufacturing, comprising: providing a first spool of a build material filament in a chamber, the build material filament comprising a first binder and more than 50% by volume of sinterable powdered metal; providing a second spool of a release material filament in the chamber, the release material filament comprising a second binder and a powdered ceramic; dropping the build material filament, over a drop height from a first spool to a print head assembly; dropping the release material filament over the drop height from a second spool to the print head assembly; heating, with heated air from a heater in the chamber, the build material filament on the first spool and along the drop height to a temperature lower than a glass transition temperature of a softening component of the first binder to flex the build material filament; depositing layers of the build material filament and the release material filament above a build plate, the drop height being substantially equal to or longer than a diagonal of the build plate; debinding the first binder and the second binder with a common solvent to form a brown part assembly including each of the build material filament and the release material filament; and sintering the brown part assembly while decomposing the release material to a release powder. providing a first spool of a build material filament in a chamber, the build material filament comprising a first binder and more than 50% by volume of sinterable powdered metal; providing a second spool of a release material filament in the chamber, the release material filament comprising a second binder and a powdered ceramic; dropping the build material filament, over a drop height from a first spool to a print head assembly; dropping the release material filament over the drop height from a second spool to the print head assembly; heating, with heated air from a heater in the chamber, the build material filament on the first spool and along the drop height to a temperature lower than a glass transition temperature of a softening component of the first binder to flex the build material filament; depositing layers of the build material filament and the release material filament above a build plate, the drop height being substantially equal to or longer than a diagonal of the build plate; debinding the first binder and the second binder with a common solvent to form a brown part assembly including each of the build material filament and the release material filament; and sintering the brown part assembly while decomposing the release material to a release powder.
Material feed lock for a distributing machine, in particular a seed drill, single-grain seed drill and/or fertilizer distributing machine, for pneumatically conveying granular material in a conveying line () adjoining the material feed lock, the material feed lock comprising an air inlet, a material conveying element and a material introduction element, it being possible for a pneumatic conveying flow to be supplied to the material conveying element via the air inlet, the material introduction element being arranged between the material conveying element and the conveying line such that granular material in the conveying line, which material can be loaded via the material introduction element, can be conveyed in the conveying line by means of the pneumatic conveying flow supplied by the material conveying element, characterized in that the material introduction element comprises at least one flushing nozzle element connected to the air inlet, which flushing nozzle element generates an air film enclosing the material introduction element from the inside, that, by means of the air film, the flushing nozzle element is configured to reduce contact between the granular material and the material introduction element.
A push-button switching structure for a hand-held shower head, comprising a water route upper cover, a pre-compressed spring, a water-dividing disc, a driver, a separation spring, a worm, a positioning pin, a water route lower cover, and a push button; the water route upper cover and the water route lower cover being fastened together to form a switching space, the switching space being formed with a water inlet and a multi-sectioned water outlet and a switching hole; the water-dividing disc being mounted between the water inlet and the multi-sectioned water outlet in the switching space, the water-dividing disc being formed with a multi-sectioned water dividing hole corresponding to the multi-sectioned water outlet, a center of the water-dividing disc being formed with first bevel teeth, an edge of the water-dividing disc being formed with a ratchet; the pre-compressed spring being disposed between an inner wall of the switching space close to the water inlet and an end face of the water-dividing disc; the driver being mounted on the water-dividing disc, an end face of the driver being formed with second bevel teeth to mate with the first bevel teeth, a center of the driver being formed with a bevelled groove; an end of the worm being formed with a bevelled reinforcing fillet inserted in the beveled groove of the driver to mate with the driver, another end of the worm being a stopping part extending out of the switching hole of the switching space; the separation spring being disposed between the driver and the worm; an end of the positioning pin being pivoted in the switching space, another end of the positioning pin being a pawl to mate with the ratchet; the push button corresponding to the switching hole and the stopping part of the worm and being mounted outside the switching space; a sealing member being provided between the components.
Method for operating a multi-phase modular multi-level power converter having a load connected to the AC voltage terminals (U,V,W) thereof, wherein a plurality of power converter cells connected in series and a choke (L Z) are connected between an AC voltage terminal (U,V,W) and one of its two DC voltage terminals (6,8) in each case, and wherein the turn-off semiconductor switches (S R,S F) of each power converter cell are controlled by means of a control device as a function of a plurality of setpoint values, characterised in that these setpoint values are generated such that the energies stored ( w Ci,j) in the capacitors (C SM) of the power converter cells, averaged over time, are predefined by the operating point of the load and/or the operating mode of the modular multi-level power converter.
A method of estimating a parameter relating to an upgrade of a wind turbine software, the method comprising: - toggling the wind turbine (step 1) alternatingly between two modes: ∘ a first mode where the upgrade is not implemented and ∘ a second mode where the upgrade is implemented - during toggling, collecting data (step 2) relating to a performance of the wind turbine, wherein the data is a power production of the wind turbine, - deriving pairs of data parts (step 4), where a first part of a pair corresponds to the data collected during the first mode and derived during one period of time and a second part of the pair corresponds to the data collected during the second mode and collected through a second period of time, wherein data parts not taking part in a pair of data is discarded, and - estimating (step 7) the parameter from the pairs of data parts, the estimating step comprising: ∘ ordering the first parts in relation to the data parts thereof, ∘ ordering the second parts in relation to the data parts thereof and ∘ comparing (step 5a) the data part of a first part at a first position in the ordered first parts and the data part of a second part at the first position in the ordered second parts. - toggling the wind turbine (step 1) alternatingly between two modes: ∘ a first mode where the upgrade is not implemented and ∘ a second mode where the upgrade is implemented ∘ a first mode where the upgrade is not implemented and ∘ a second mode where the upgrade is implemented - during toggling, collecting data (step 2) relating to a performance of the wind turbine, wherein the data is a power production of the wind turbine, - deriving pairs of data parts (step 4), where a first part of a pair corresponds to the data collected during the first mode and derived during one period of time and a second part of the pair corresponds to the data collected during the second mode and collected through a second period of time, wherein data parts not taking part in a pair of data is discarded, and - estimating (step 7) the parameter from the pairs of data parts, ∘ ordering the first parts in relation to the data parts thereof, ∘ ordering the second parts in relation to the data parts thereof and ∘ comparing (step 5a) the data part of a first part at a first position in the ordered first parts and the data part of a second part at the first position in the ordered second parts.
A cell voltage measuring apparatus of a battery pack, comprising: a plurality of multiplexers (MUX1,..., MUXn) connectable corresponding to each cell group of the battery pack and adapted to output a voltage signal of each cell included in each cell group; a plurality of floating capacitors (M1C1,..., M1C4, M2C1,..., MnC1,..., MnC4), each floating capacitor connectable to one single cell and on which the voltage of the corresponding single cell is charged and held when connected thereto; a switching means adapted for enabling the voltage of each cell to be charged and held on each corresponding floating capacitor; and a controller adapted for controlling the switching means per each cell group to enable the voltage of each cell to be charged and held on each corresponding floating capacitor and controlling each multiplexer to measure the cell voltage held on each floating capacitor of each cell group connected to each corresponding multiplexer, wherein each of the multiplexers has a buffer adapted to output the cell voltages held in each floating capacitors, and a reference potential input terminal to which a reference potential, which is a lowest potential of a corresponding cell group, is applied from the corresponding cell group and the multiplexers are adapted to output a voltage difference between both terminals of each floating capacitor as a voltage signal of each corresponding cell based on the reference potential by use of the buffer. a plurality of multiplexers (MUX1,..., MUXn) connectable corresponding to each cell group of the battery pack and adapted to output a voltage signal of each cell included in each cell group; a plurality of floating capacitors (M1C1,..., M1C4, M2C1,..., MnC1,..., MnC4), each floating capacitor connectable to one single cell and on which the voltage of the corresponding single cell is charged and held when connected thereto; a switching means adapted for enabling the voltage of each cell to be charged and held on each corresponding floating capacitor; and a controller adapted for controlling the switching means per each cell group to enable the voltage of each cell to be charged and held on each corresponding floating capacitor and controlling each multiplexer to measure the cell voltage held on each floating capacitor of each cell group connected to each corresponding multiplexer, wherein each of the multiplexers has a buffer adapted to output the cell voltages held in each floating capacitors, and a reference potential input terminal to which a reference potential, which is a lowest potential of a corresponding cell group, is applied from the corresponding cell group and the multiplexers are adapted to output a voltage difference between both terminals of each floating capacitor as a voltage signal of each corresponding cell based on the reference potential by use of the buffer.
A method for dynamic range control, DRC, of an audio signal, the method comprising: gathering multi-band DRC configuration information, wherein the multi-band DRC configuration information indicates i) the number of independent DRC gain sequences in a received bitstream, ii) the number of DRC channel groups in the bitstream, and (iii) the number of DRC bands in a group for multiple DRC sub-bands; parsing the bitstream to retrieve quantized data values representing DRC gain data for each DRC gain frame; decoding the quantized data values using code tables to generate the DRC gain data; decoding the DRC gain data to generate DRC gain values to be applied to corresponding audio frames of an audio signal; and applying the DRC gain values to the multiple sub-bands of each audio frame. gathering multi-band DRC configuration information, wherein the multi-band DRC configuration information indicates i) the number of independent DRC gain sequences in a received bitstream, ii) the number of DRC channel groups in the bitstream, and (iii) the number of DRC bands in a group for multiple DRC sub-bands; parsing the bitstream to retrieve quantized data values representing DRC gain data for each DRC gain frame; decoding the quantized data values using code tables to generate the DRC gain data; decoding the DRC gain data to generate DRC gain values to be applied to corresponding audio frames of an audio signal; and applying the DRC gain values to the multiple sub-bands of each audio frame.
A chemical vapor infiltration method comprising flowing ceramic precursors through a preform in a reactor and depositing a matrix material on the preform at a first gas infiltration pressure of the reactor, increasing the gas infiltration pressure to a second gas infiltration pressure, and lowering the gas infiltration pressure to a third gas infiltration pressure which is intermediate to the first and second gas infiltration pressures, wherein: the first pressure is less than or equal to 1 torr; the second pressure is greater than 1 torr and is maintained until the infiltration gas diffusion rate controls the matrix densification rate; the third pressure is 25 to 75% of the second pressure and maintains matrix densification under reaction control; and the preform is porous. the first pressure is less than or equal to 1 torr; the second pressure is greater than 1 torr and is maintained until the infiltration gas diffusion rate controls the matrix densification rate; the third pressure is 25 to 75% of the second pressure and maintains matrix densification under reaction control; and the preform is porous.
Double oscillation drive comprising a) a drive motor operated for oscillating, b) two output shafts (7, 8) and c) a driving connection which couples the drive motor to the two output shafts (7, 8) in a way such that the output shafts (7, 8) execute oscillating rotational movements having an orientation opposite to each other, d) the driving connection or the drive motor being designed such that a driving element is driven with a translational oscillating movement and the driving element is coupled to each of the output shafts (7, 8) by a respective toggle lever drive (11, 12). a) a drive motor operated for oscillating, b) two output shafts (7, 8) and c) a driving connection which couples the drive motor to the two output shafts (7, 8) in a way such that the output shafts (7, 8) execute oscillating rotational movements having an orientation opposite to each other, d) the driving connection or the drive motor being designed such that a driving element is driven with a translational oscillating movement and the driving element is coupled to each of the output shafts (7, 8) by a respective toggle lever drive (11, 12).
A device for the gravimetric volume determination of liquid volumes, characterized in that said device comprises (a) a housing having the shape and dimensions of a standard rack used in a clinical diagnostic analyzer system for holding sample or reagent containers, (b) the following components being contained in said housing: a load cell for gravimetric volume determination, a weighing container for receiving a liquid to be weighed with said load cell, a windbreak which shields said weighing container from air flow, an evaporation trap which prevents evaporation of liquid loaded into said weighing container, a temperature sensor, an air-pressure sensor and a humidness sensor for sensing temperature, air pressure and humidness respectively at predetermined points within said housing, and an electronic processing unit for processing electrical output signals delivered by said load cell and by said sensors (21, 31, 41). (a) a housing having the shape and dimensions of a standard rack used in a clinical diagnostic analyzer system for holding sample or reagent containers, (b) the following components being contained in said housing: a load cell for gravimetric volume determination, a weighing container for receiving a liquid to be weighed with said load cell, a windbreak which shields said weighing container from air flow, an evaporation trap which prevents evaporation of liquid loaded into said weighing container, a temperature sensor, an air-pressure sensor and a humidness sensor for sensing temperature, air pressure and humidness respectively at predetermined points within said housing, and an electronic processing unit for processing electrical output signals delivered by said load cell and by said sensors (21, 31, 41). a load cell for gravimetric volume determination, a weighing container for receiving a liquid to be weighed with said load cell, a windbreak which shields said weighing container from air flow, an evaporation trap which prevents evaporation of liquid loaded into said weighing container, a temperature sensor, an air-pressure sensor and a humidness sensor for sensing temperature, air pressure and humidness respectively at predetermined points within said housing, and an electronic processing unit for processing electrical output signals delivered by said load cell and by said sensors (21, 31, 41).
A fiber bundle affixing device having an affixing head that affixes fiber bundles that have been cut in advance to a predetermined length, one by one to an affixing surface under heating and/or pressure, wherein the affixing head has at least a heating means for heating the fiber bundles and/or the affixing surface, and a holding and conveyance means for holding and conveying just one fiber bundle, wherein the affixing head is configured to, during the operation of affixing the fiber bundle by the affixing head, hold and convey only the fiber bundle being affixed by the holding and conveyance means.