mhurhangee/ep-ind-claims huggingface dataset:
Multiple-barrel weapon, having a belt system and belt elements for feeding a munition and having a cluster of barrels comprising multiple barrels and a breech part having at least one firing pin for discharging the munition and also a separate drive for turning at least the cluster of barrels, wherein the belt element forms a substitute cartridge chamber as a cartridge chamber of the weapon between the respective barrel of the cluster of barrels and the breech part, wherein the material of the belt element is chosen such that it can assume the function of a cartridge chamber, characterized in that two stars (12, 13) are responsible for transporting the belt system, wherein shells (12.1, 13.1) of the stars (12, 13) partially chamber the belt element in the firing position.
Method for layer-by-layer production of shaped silicone elastomer articles, comprising the following steps: 1) By means of a spatially independently controllable 3D printing device, in an x,y working plane, two or more print materials are applied in the form of droplets or continuous strands via one or more print nozzles to a spatially independently controllable carrier plate, to an extrinsic component positioned thereon or to a print material layer applied beforehand, wherein at least one of the print materials comprises a silicone elastomer curable by electromagnetic radiation; 2) By means of at least one spatially independently controllable source of electromagnetic radiation, the print materials applied are crosslinked or partly crosslinked, so as to form a layer of the cured or partly cured shaped silicone elastomer article; 3) The print nozzle of the 3D printing device or the carrier plate are moved in z direction in a defined manner, such that the next print material layer can be applied in the x,y working plane; 4) Steps 1) to 3) are repeated until the shaped silicone elastomer article is fully constructed, wherein steps 1), 2) and 3) are effected independently of one another or coupled to one another simultaneously or successively in any sequence, characterized in that the print materials after leaving the print nozzle traverse a discharge region generated by means of an ionization system. 1) By means of a spatially independently controllable 3D printing device, in an x,y working plane, two or more print materials are applied in the form of droplets or continuous strands via one or more print nozzles to a spatially independently controllable carrier plate, to an extrinsic component positioned thereon or to a print material layer applied beforehand, wherein at least one of the print materials comprises a silicone elastomer curable by electromagnetic radiation; 2) By means of at least one spatially independently controllable source of electromagnetic radiation, the print materials applied are crosslinked or partly crosslinked, so as to form a layer of the cured or partly cured shaped silicone elastomer article; 3) The print nozzle of the 3D printing device or the carrier plate are moved in z direction in a defined manner, such that the next print material layer can be applied in the x,y working plane; 4) Steps 1) to 3) are repeated until the shaped silicone elastomer article is fully constructed,
A method of controlling a diesel type high pressure gas injection internal combustion engine, the method comprising - injecting, in a first combustion mode, by means of a first gas injection system, a first gaseous fuel into a cylinder of the engine, the step of injecting the first gaseous fuel comprising injecting the first gaseous fuel after a crankshaft angle of 90 degrees before a top dead centre position at the end of a compression stroke of the cylinder, - accumulating in a container of a second gas injection system excess gaseous fuel from the first fuel system, and - shifting, in the cylinder, from the first combustion mode to a second combustion mode comprising - determining a value of an air flow related parameter indicative of an air mass flow into the cylinder, - wherein the second combustion mode further comprises determining, based on the determined air flow related parameter value, a value of a fuel flow related parameter indicative of a mass flow of the excess gaseous fuel, and - supplying from the container, in accordance with the determined fuel flow related parameter value, the excess gaseous fuel to provide a premix of air and the excess gaseous fuel to the cylinder, - wherein the premix has a lambda value of 1.3-1.7. - injecting, in a first combustion mode, by means of a first gas injection system, a first gaseous fuel into a cylinder of the engine, the step of injecting the first gaseous fuel comprising injecting the first gaseous fuel after a crankshaft angle of 90 degrees before a top dead centre position at the end of a compression stroke of the cylinder, - accumulating in a container of a second gas injection system excess gaseous fuel from the first fuel system, and - shifting, in the cylinder, from the first combustion mode to a second combustion mode comprising - determining a value of an air flow related parameter indicative of an air mass flow into the cylinder, - wherein the second combustion mode further comprises determining, based on the determined air flow related parameter value, a value of a fuel flow related parameter indicative of a mass flow of the excess gaseous fuel, and - supplying from the container, in accordance with the determined fuel flow related parameter value, the excess gaseous fuel to provide a premix of air and the excess gaseous fuel to the cylinder, - wherein the premix has a lambda value of 1.3-1.7.
Optical imaging module having an optical axis and comprising on this optical axis: - a single-pupil head component having a hyper-hemispherical entrance field, quasi-afocal for fields of angular radius in the vicinity of 90°, ∘ having a refractive entrance surface that is a surface of revolution having a straight generator inclined on the optical axis by an angle less than 30° ∘ concave exit face seen from the exterior of the component, having a central refractive zone and reflective peripheral zone designated as primary mirror, ∘ and comprising an aspherical secondary mirror having a predetermined useful zone, - associated with an optical aberrations corrector at the exit of which is located - a focusing objective on - a detector, - with an aperture stop situated between the optical aberrations corrector and the focusing objective, characterised in that: - the head component - and the secondary mirror is for local focus varying spatially over the useful zone with a maximum local power for a part of this zone used by a field of 90° angular radius and a minimum local power lower by at least a factor of 2 for a part of this zone used by a field of angular radius less than 20°, - the optical aberrations corrector comprises at least one aspherical lens. - a single-pupil head component having a hyper-hemispherical entrance field, quasi-afocal for fields of angular radius in the vicinity of 90°, ∘ having a refractive entrance surface that is a surface of revolution having a straight generator inclined on the optical axis by an angle less than 30° ∘ concave exit face seen from the exterior of the component, having a central refractive zone and reflective peripheral zone designated as primary mirror, ∘ and comprising an aspherical secondary mirror having a predetermined useful zone, ∘ having a refractive entrance surface that is a surface of revolution having a straight generator inclined on the optical axis by an angle less than 30° ∘ concave exit face seen from the exterior of the component, having a central refractive zone and reflective peripheral zone designated as primary mirror, ∘ and comprising an aspherical secondary mirror having a predetermined useful zone, - associated with an optical aberrations corrector at the exit of which is located - a focusing objective on - a detector, - with an aperture stop situated between the optical aberrations corrector and the focusing objective, - the head component - and the secondary mirror is for local focus varying spatially over the useful zone with a maximum local power for a part of this zone used by a field of 90° angular radius and a minimum local power lower by at least a factor of 2 for a part of this zone used by a field of angular radius less than 20°, - the optical aberrations corrector comprises at least one aspherical lens.
A system for weighing a moving parcel, the system comprising: an intake conveyor adapted to move a parcel at a first speed; an accelerator conveyor disposed adjacent to the intake conveyor and arranged to receive a moving parcel from the intake conveyor; and a primary drive motor configured to provide a substantially constant first torque input to a transmission (200,300), characterized by: a servo motor arranged to provide a variable second torque input to the transmission (200,300), wherein: the transmission (200,300) is coupled to the primary drive motor, the servo motor, and the accelerator conveyor; the transmission is configured to sum the constant first torque input and the variable second torque input to generate an output torque, and to deliver the output torque to drive the accelerator conveyor at a second speed that is different from the first speed; and the constant first torque is substantially greater than a maximum range of the variable second torque. an intake conveyor adapted to move a parcel at a first speed; an accelerator conveyor disposed adjacent to the intake conveyor and arranged to receive a moving parcel from the intake conveyor; and a primary drive motor configured to provide a substantially constant first torque input to a transmission (200,300), characterized by: a servo motor arranged to provide a variable second torque input to the transmission (200,300), wherein: the transmission (200,300) is coupled to the primary drive motor, the servo motor, and the accelerator conveyor; the transmission is configured to sum the constant first torque input and the variable second torque input to generate an output torque, and to deliver the output torque to drive the accelerator conveyor at a second speed that is different from the first speed; and the constant first torque is substantially greater than a maximum range of the variable second torque. a servo motor arranged to provide a variable second torque input to the transmission (200,300), wherein: the transmission (200,300) is coupled to the primary drive motor, the servo motor, and the accelerator conveyor; the transmission is configured to sum the constant first torque input and the variable second torque input to generate an output torque, and to deliver the output torque to drive the accelerator conveyor at a second speed that is different from the first speed; and the constant first torque is substantially greater than a maximum range of the variable second torque. the transmission (200,300) is coupled to the primary drive motor, the servo motor, and the accelerator conveyor; the transmission is configured to sum the constant first torque input and the variable second torque input to generate an output torque, and to deliver the output torque to drive the accelerator conveyor at a second speed that is different from the first speed; and the constant first torque is substantially greater than a maximum range of the variable second torque.
A high-pressure valve assembly, comprising a valve body, which projects into a flange and is sealed in relation thereto by means of a static ring seal, and which forms a suction valve with a closure member on one side and forms a pressure valve with a tappet on its opposing side, which valves are connected by a channel, wherein the closure member and the tappet are mounted in a spring-loaded manner so they are axially displaceable, characterized in that the channel ports on the pressure side into a pressure chamber, which is provided in the valve body, is formed as a pocket borehole on the side of the valve body accommodating the tappet, and is located upstream of the tappet, and which extends in predominant amounts in the axial direction of the tappet above the lower edge of the ring seal facing away from the tappet.
An in-situ surface controlled sub-surface safety valves control line rectification device configured to mechanically rectify in-situ a control line connected to a surface controlled sub-surface safety valve, and wherein the rectification device comprises; - a rectification line feeder, - a longitudinal first rectification line, wherein the rectification line feeder is arranged to feed the first rectification line longitudinally into the control line, wherein the first rectification line has an elastic modulus larger than 10GPa and the rectification line feeder is configured to feed the longitudinal first rectification line with decreasing speed into the control line. - a rectification line feeder, - a longitudinal first rectification line, wherein the rectification line feeder is arranged to feed the first rectification line longitudinally into the control line, wherein the first rectification line has an elastic modulus larger than 10GPa and the rectification line feeder is configured to feed the longitudinal first rectification line with decreasing speed into the control line.
A sheet-processing machine, in particular a sheet-fed press or sheet die cutting machine, having a sheet infeed, having at least one front edge stop for feeding and aligning sheets (7, 8, 30), and having a device for monitoring sheet travel along a sheet transport path of the sheet infeed, comprising at least one measurement apparatus (10, 17, 29) for detecting a lateral sheet edge of the sheet (7, 8, 30) and at least one sensor that can be associated with the lateral region of the sheet transport path, which is designed for optical detection and determination of the position of a mark on the sheet (7, 8, 30), wherein the measurement apparatus (10, 17, 29) and the sensor are connected to an evaluation unit which evaluates the signals for determining the location of the lateral edge of the one sheet (7, 8, 30) and outputs a control signal to a control element (19, 6).
A method implemented in a wireless device, WD, to mitigate channel quality indication, CQI, saturation in a channel state information, CSI, report to a network node, the method comprising: receiving configuration information comprising a power offset value, a number of channel state information reference signal, CSI-RS, ports and a rank restriction; generating the CSI report, the CSI report comprising a CQI value based at least in part on the received configuration information; and causing transmission of the CSI report. receiving configuration information comprising a power offset value, a number of channel state information reference signal, CSI-RS, ports and a rank restriction; generating the CSI report, the CSI report comprising a CQI value based at least in part on the received configuration information; and causing transmission of the CSI report.
A communication system, including: a receiver; a transmitter; and a serial link comprising a plurality of video channels between the transmitter and the receiver, wherein the transmitter is configured to generate encoded video data and to transmit the encoded video data to the receiver over the plurality of video channels during active video periods, characterized in that the transmitter is further configured to generate encoded auxiliary data and to transmit packets including the encoded auxiliary data to the receiver over the plurality of video channels during data islands, wherein each of the data islands is a time interval that neither coincides with nor overlaps any of the active video periods, the transmitter is configured to transmit control data to the receiver over the video channel during control data periods, that neither coincide with nor overlap any of the data islands and that neither coincide with nor overlap any of the active video periods, each of the packets has a header that includes header data having a one-byte packet type code indicative of the format of the packet and a second byte and a third byte of packet-specific data, and parity bits for the header data; each of the packets further includes sub-packets, each of the sub-packets includes sub-packet data and parity bits for the sub-packet data, wherein the format of the packet is one of at least four predetermined types, which include: • an audio sample packet type, wherein a packet of the audio sample packet type is able to contain one, two, three or four pairs of audio samples, each sample pair contained by a different sub-packet of the packet, each packet of the audio sample packet type contains bits indicating whether each sub-packet does or does not contain an audio sample; • an InfoFrame packet type that includes format information and related information regarding audio data; and • an audio clock regeneration ACR packet type that includes time stamps indicative of an audio clock. • an audio sample packet type, wherein a packet of the audio sample packet type is able to contain one, two, three or four pairs of audio samples, each sample pair contained by a different sub-packet of the packet, each packet of the audio sample packet type contains bits indicating whether each sub-packet does or does not contain an audio sample; • an InfoFrame packet type that includes format information and related information regarding audio data; and • an audio clock regeneration ACR packet type that includes time stamps indicative of an audio clock.
A method of manufacturing a lighter, the method comprising: providing a refillable lighter having a flow restrictor device (12, 26) assembled therein, and wherein the lighter further comprises a fuel tank; disposing a non-combustible fluid into the fuel tank; directing the non-combustible fluid through the flow restrictor device; measuring a flow rate of the non-combustible fluid through the flow restrictor device; extracting the non-combustible fluid from the fuel tank after measuring the flow rate through the flow restrictor device; and drawing a vacuum on the fuel tank. providing a refillable lighter having a flow restrictor device (12, 26) assembled therein, and wherein the lighter further comprises a fuel tank; disposing a non-combustible fluid into the fuel tank; directing the non-combustible fluid through the flow restrictor device; measuring a flow rate of the non-combustible fluid through the flow restrictor device; extracting the non-combustible fluid from the fuel tank after measuring the flow rate through the flow restrictor device; and drawing a vacuum on the fuel tank.
A method for reducing power consumption in a mobile communication terminal, the method comprising: determining a reception time of a paging channel and an expiration time of a predetermined timer in a sleep mode; temporarily replacing the expiration time of the timer with the reception time of the paging channel when a time interval by a time difference between the reception time of the paging channel and the expiration time of the timer is within a preset valid time interval (δ); and ending the sleep mode, receiving a paging channel, and performing an operation relating to the predetermined timer when a current time becomes the reception time of the paging channel; the method further characterized in resetting the predetermined timer to an original time before the expiration time of the predetermined timer is replaced with the reception time of the paging. channel. determining a reception time of a paging channel and an expiration time of a predetermined timer in a sleep mode; temporarily replacing the expiration time of the timer with the reception time of the paging channel when a time interval by a time difference between the reception time of the paging channel and the expiration time of the timer is within a preset valid time interval (δ); and ending the sleep mode, receiving a paging channel, and performing an operation relating to the predetermined timer when a current time becomes the reception time of the paging channel; the method further characterized in resetting the predetermined timer to an original time before the expiration time of the predetermined timer is replaced with the reception time of the paging. channel.
A strain change measurement method comprising: by a strain change measurement apparatus, inputting first chirped pulsed light having a chirp having a frequency changing linearly with time to a measurement target optical fiber branched by a coupler to acquire a signal of first scattered light regarding the first chirped pulsed light; by the strain change measurement apparatus, inputting second chirped pulsed light having a chirp obtained by time axial inversion with respect to the first chirped pulsed light to the measurement target optical fiber to acquire a signal of second scattered light regarding the second chirped pulsed light; and by the strain change measurement apparatus, determining a shift amount allowing for maximization of a correlation between a waveform obtained by inverting the signal of the first scattered light around the time axis and further shifting and a waveform of the signal of the second scattered light, and using the shift amount to calculate a change in a strain amount in the measurement target optical fiber. by a strain change measurement apparatus, inputting first chirped pulsed light having a chirp having a frequency changing linearly with time to a measurement target optical fiber branched by a coupler to acquire a signal of first scattered light regarding the first chirped pulsed light; by the strain change measurement apparatus, inputting second chirped pulsed light having a chirp obtained by time axial inversion with respect to the first chirped pulsed light to the measurement target optical fiber to acquire a signal of second scattered light regarding the second chirped pulsed light; and by the strain change measurement apparatus, determining a shift amount allowing for maximization of a correlation between a waveform obtained by inverting the signal of the first scattered light around the time axis and further shifting and a waveform of the signal of the second scattered light, and using the shift amount to calculate a change in a strain amount in the measurement target optical fiber.
Method for determining a mass and a position of the centre of gravity of an additional load of a movement system, in particular a machine tool which comprises a carrier, which can be rotated about at least a first axis and a second axis, for receiving the additional load, and also electronically controlled drives (22, 24) for rotating the carrier about the first axis and about the second axis, wherein an overall moment of inertia and a holding moment with respect to the first axis are determined in a loaded state; and an overall moment of inertia and a holding moment with respect to the second axis are determined in the loaded state; characterized in that the mass and the position of the centre of gravity of the additional load relative to the carrier are determined from the overall moments of inertia and the holding moments with respect to the first axis and the second axis. an overall moment of inertia and a holding moment with respect to the first axis are determined in a loaded state; and an overall moment of inertia and a holding moment with respect to the second axis are determined in the loaded state; characterized in that the mass and the position of the centre of gravity of the additional load relative to the carrier are determined from the overall moments of inertia and the holding moments with respect to the first axis and the second axis.
A hand mounting tool for at least one balancing weight having the shape of an arc segment with a curved outer side forming a guiding surface for the at least one balancing weight and an inner side having a handle enabling an ergonomic handling for an operator characterized in, that the mounting tool is made out of one piece, and the guiding surface has a first lateral guide and a second lateral guide parallel to the first lateral guide, both protruding from the guiding surface and defining a groove.