mhurhangee/ep-ind-claims huggingface dataset:
A self-cleaning sump for an agricultural harvester, the self-cleaning sump including: a collection chamber defining a top end and a bottom end; a sump door positioned at the bottom end of the collection chamber, the sump door being movable between an opened position and a closed position; and a cleaning device movable within the collection chamber between a raised position and a lowered position; and the self-cleaning sump being characterized by: a first actuator coupled to the cleaning device, the first actuator being configured to actuate the cleaning device between the raised and lowered positions independently of the sump door, wherein the cleaning device is configured to contact collected material contained within the collection chamber as the first actuator is activated to move the cleaning device within the collection chamber between the top and bottom ends of the collection chamber. a collection chamber defining a top end and a bottom end; a sump door positioned at the bottom end of the collection chamber, the sump door being movable between an opened position and a closed position; and a cleaning device movable within the collection chamber between a raised position and a lowered position; and the self-cleaning sump being characterized by: a first actuator coupled to the cleaning device, the first actuator being configured to actuate the cleaning device between the raised and lowered positions independently of the sump door, wherein the cleaning device is configured to contact collected material contained within the collection chamber as the first actuator is activated to move the cleaning device within the collection chamber between the top and bottom ends of the collection chamber. a first actuator coupled to the cleaning device, the first actuator being configured to actuate the cleaning device between the raised and lowered positions independently of the sump door, wherein the cleaning device is configured to contact collected material contained within the collection chamber as the first actuator is activated to move the cleaning device within the collection chamber between the top and bottom ends of the collection chamber.
Connection set comprising a first channel section for the conveying a fluid and a second channel section running parallel to the first one for conveying the same fluid, wherein both channel sections (1, 2) comprise connection flanges (1.1, 2.1) at their respective ends and an additional connection (1.2, 2.2) on their wall, wherein, in addition to the connection flanges (1.1, 2.1) and the additional connections (1.2, 2.2), a connection (3.1, 3.2) to a third channel section designed to convey the fluid from one channel section to the other channel section (1, 2) is provided on the walls of the two channel sections (1, 2), wherein the channel sections (1, 2, 3) extend horizontally, characterized in that the third channel section is arranged between the first and second channel sections (1, 2), that the third channel section is arranged above the first channel section and below the second channel section, that the first, lower channel section is provided for conveying a comparatively cold fluid, and the second upper channel section is provided for conveying a comparatively warm fluid. in addition to the connection flanges (1.1, 2.1) and the additional connections (1.2, 2.2), a connection (3.1, 3.2) to a third channel section designed to convey the fluid from one channel section to the other channel section (1, 2) is provided on the walls of the two channel sections (1, 2), wherein the channel sections (1, 2, 3) extend horizontally, characterized in that the third channel section is arranged between the first and second channel sections (1, 2), that the third channel section is arranged above the first channel section and below the second channel section, that the first, lower channel section is provided for conveying a comparatively cold fluid, and the second upper channel section is provided for conveying a comparatively warm fluid.
Device for gripping pericardium comprising - at least one inner tube and at least one outer tube, - wherein the outer tube has at least one outer diameter and an inner outer tube diameter, and - said inner tube having at least one inner diameter and an outer inner tube diameter, wherein - the outer diameter is larger than the inner diameter and the inner outer tube diameter being larger than the outer inner tube diameter, and - the inner tube has at least one inner tube end surface on at least one inner tube end, - and wherein the outer tube has at least one outer tube end surface on at least one outer tube end, and wherein the outer tube end surface has at least a second surface structure, characterized in that the inner tube is movably arranged in the outer tube and wherein the inner tube end surface has at least a first surface structure and the first surface structure and the second surface structure are formed differently, wherein the inner tube is rotatably arranged in the outer tube. - at least one inner tube and at least one outer tube, - wherein the outer tube has at least one outer diameter and an inner outer tube diameter, and - said inner tube having at least one inner diameter and an outer inner tube diameter, wherein - the outer diameter is larger than the inner diameter and the inner outer tube diameter being larger than the outer inner tube diameter, and - the inner tube has at least one inner tube end surface on at least one inner tube end, - and wherein the outer tube has at least one outer tube end surface on at least one outer tube end,
Engine device of a rocket engine, comprising: a secondary combustion chamber comprising a gas inlet opening for admitting a gas into the secondary combustion chamber and a gas outlet opening for expelling the gas; a compensation chamber fillable with gas; a control chamber fillable with gas; and a jet needle, which is arranged axially displaceably in such a way that a first end region of the jet needle can be introduced at least in part into the gas outlet opening; wherein the jet needle has a piston means on a second end region, a first portion of the piston means being arranged in the compensation chamber and being loadable with pressure by way of a gas located in the compensation chamber in such a way that the jet needle experiences an axial force in the direction of the gas outlet opening, a second portion of the piston means being arranged in the control chamber and being loadable with pressure by filling a gas into the control chamber in such a way that the jet needle experiences an axial force in the direction away from the gas outlet opening; wherein the secondary combustion chamber is separated from the control chamber by a bulkhead; wherein the secondary combustion chamber has a gas opening via which gas can be passed into and out of the control chamber; wherein the piston means is displaceable in an intermediate chamber arranged between the control chamber and the compensation chamber, the intermediate chamber being fluidically connected to an ambient air. a secondary combustion chamber comprising a gas inlet opening for admitting a gas into the secondary combustion chamber and a gas outlet opening for expelling the gas; a compensation chamber fillable with gas; a control chamber fillable with gas; and a jet needle, which is arranged axially displaceably in such a way that a first end region of the jet needle can be introduced at least in part into the gas outlet opening; wherein the jet needle has a piston means on a second end region, a first portion of the piston means being arranged in the compensation chamber and being loadable with pressure by way of a gas located in the compensation chamber in such a way that the jet needle experiences an axial force in the direction of the gas outlet opening, a second portion of the piston means being arranged in the control chamber and being loadable with pressure by filling a gas into the control chamber in such a way that the jet needle experiences an axial force in the direction away from the gas outlet opening; wherein the secondary combustion chamber is separated from the control chamber by a bulkhead; wherein the secondary combustion chamber has a gas opening via which gas can be passed into and out of the control chamber; wherein the piston means is displaceable in an intermediate chamber arranged between the control chamber and the compensation chamber, the intermediate chamber being fluidically connected to an ambient air.
A reciprocating compressor, comprising: a cylinder having a cylinder side bearing surface on an inner circumferential surface thereof, and a compression space defined by part of the cylinder side bearing surface at a front end side of the cylinder; a piston having a piston side bearing surface on an outer circumferential surface thereof, a suction valve configured to open and close a suction side of the compression space; a discharge valve configured to open and close a discharge side of the compression space; and a plurality of rows of bearing holes penetratingly-formed at the cylinder side bearing surface such that gas discharged from the compression space is supplied to a space between the cylinder side bearing surface and the piston side bearing surface, wherein an interval from the front end of the cylinder to the bearing holes of a row closest to the front end of the cylinder is greater than an interval from a rear end of the cylinder to the bearing holes of a row closest to the rear end of the cylinder, characterised in that the number of rows of the bearing holes disposed at one side of the piston, based on a central part of the piston side bearing surface in a lengthwise direction, is the same as the number of rows of the bearing holes disposed at the other side of the piston. a cylinder having a cylinder side bearing surface on an inner circumferential surface thereof, and a compression space defined by part of the cylinder side bearing surface at a front end side of the cylinder; a piston having a piston side bearing surface on an outer circumferential surface thereof, a suction valve configured to open and close a suction side of the compression space; a discharge valve configured to open and close a discharge side of the compression space; and a plurality of rows of bearing holes penetratingly-formed at the cylinder side bearing surface such that gas discharged from the compression space is supplied to a space between the cylinder side bearing surface and the piston side bearing surface, wherein an interval from the front end of the cylinder to the bearing holes of a row closest to the front end of the cylinder is greater than an interval from a rear end of the cylinder to the bearing holes of a row closest to the rear end of the cylinder, characterised in that the number of rows of the bearing holes disposed at one side of the piston, based on a central part of the piston side bearing surface in a lengthwise direction, is the same as the number of rows of the bearing holes disposed at the other side of the piston.
A fire protection system, comprising: a fire extinguisher including: a housing, the housing including: an extinguisher outlet; and a burst disk, the burst disk configured to retain a volume of fire suppressant material in the housing; a firing cartridge operably connected to the housing, the firing cartridge including: an output charge; and an ignition charge that, when detonated, causes release of the output charge to rupture the burst disk and release the volume of fire suppressant material through the extinguisher outlet; an optical fiber configured to transmit a light signal toward the ignition charge to heat and detonate the ignition charge; and a light source operably connected to the optical fiber to transmit the light signal along the optical fiber. a housing, the housing including: an extinguisher outlet; and a burst disk, the burst disk configured to retain a volume of fire suppressant material in the housing; an extinguisher outlet; and a burst disk, the burst disk configured to retain a volume of fire suppressant material in the housing; a firing cartridge operably connected to the housing, the firing cartridge including: an output charge; and an ignition charge that, when detonated, causes release of the output charge to rupture the burst disk and release the volume of fire suppressant material through the extinguisher outlet; an output charge; and an ignition charge that, when detonated, causes release of the output charge to rupture the burst disk and release the volume of fire suppressant material through the extinguisher outlet; an optical fiber configured to transmit a light signal toward the ignition charge to heat and detonate the ignition charge; and a light source operably connected to the optical fiber to transmit the light signal along the optical fiber.
A method for reading data from sensors, comprising: determining a time sequence of measured data by means of a sensor, wherein the time sequence of measured data is generated by step-by-step changes in the measured data at read-in times, which are determined by a read-in frequency f a and have a time interval of a period duration 1/f a of the read-in frequency; reading output data from the sensor at read-out times, which are determined by a read-out frequency f s and have a time interval of a period duration 1/f s of the read-out frequency, with the read-out frequency f s being smaller than the read-in frequency f a; determining, by means of a low-pass filter of the sensor, the ratio N between the read-in frequency f a and the read-out frequency f s from the time sequence of the numbers of read-in times lying between two adjacent read-out times; wherein the output data to be read at the read-out times is generated in the sensor by extrapolation of elements of the time sequence of measured data generated before the particular read-out times based on the ratio N between the read-in frequency f a and the read-out frequency f s. determining a time sequence of measured data by means of a sensor, wherein the time sequence of measured data is generated by step-by-step changes in the measured data at read-in times, which are determined by a read-in frequency f a and have a time interval of a period duration 1/f a of the read-in frequency; reading output data from the sensor at read-out times, which are determined by a read-out frequency f s and have a time interval of a period duration 1/f s of the read-out frequency, with the read-out frequency f s being smaller than the read-in frequency f a; determining, by means of a low-pass filter of the sensor, the ratio N between the read-in frequency f a and the read-out frequency f s from the time sequence of the numbers of read-in times lying between two adjacent read-out times; wherein the output data to be read at the read-out times is generated in the sensor by extrapolation of elements of the time sequence of measured data generated before the particular read-out times based on the ratio N between the read-in frequency f a and the read-out frequency f s.
A method for transmitting secure data packets through a node network, the method comprising: receiving unsecure data packets at a set of unsecure inputs and secure data packets at a number of secure inputs in a node in the node network, characterized in that: the secure data packets are authorized to be sent to a number of secure destination devices; and the unsecure data packets are not authorized to be sent to the number of secure destination devices; and the steps of: integrating the secure data packets and the unsecure data packets to form a number of output data streams based on a predetermined schedule; and sending the number of output data streams to a number of next nodes in the node network. receiving unsecure data packets at a set of unsecure inputs and secure data packets at a number of secure inputs in a node in the node network, characterized in that: the secure data packets are authorized to be sent to a number of secure destination devices; and the unsecure data packets are not authorized to be sent to the number of secure destination devices; and the steps of: the secure data packets are authorized to be sent to a number of secure destination devices; and the unsecure data packets are not authorized to be sent to the number of secure destination devices; and the steps of: integrating the secure data packets and the unsecure data packets to form a number of output data streams based on a predetermined schedule; and sending the number of output data streams to a number of next nodes in the node network.
Use of a lubricating oil for preventing or reducing low speed pre-ignition in an internal combustion engine lubricated with a lubricating oil wherein the lubricating oil is a formulated oil comprising a lubricating oil base stock as a major component; and at least one boron-containing compound and at least one detergent, as a minor component; wherein said at least one boron-containing compound is present in an amount from 0.1 to 20 weight percent based on the total weight of the lubricating oil and comprises at least one borated dispersant, or a mixture of a boron-containing compound and a non-borated dispersant and said detergent is present in an amount from 1.0 to 6.0 weight percent based on the total weight of the lubricating oil and comprises at least one alkaline earth metal salt of an organic acid, and said at least one alkaline earth metal salt of an organic acid comprises at least one magnesium salt of an organic acid; and wherein the engine exhibits greater than 50% reduced low speed pre-ignition, based on normalized low speed pre-ignition (LSPI) counts per 25,000 engine cycles, engine operation at 2000 revolutions per minute and brake mean effective pressure (BMEP) at 18 bar, as compared to low speed pre-ignition performance achieved in an engine using a lubricating oil that does not comprise at least one borated dispersant, or a mixture of a boron-containing compound and a non-borated dispersant.
Process for producing silicon-based anodes for secondary batteries where the secondary batteries consist of at least the anode, at least one electrolyte (31a, 31b) and a counterelectrode, characterized by the following steps: - deposition of a silicon layer on a metal substrate composed of nickel or copper, where the silicon layer has a first interface directed towards the metal substrate, - heating of the metal substrate by means of a heating unit to a temperature in the range from 200°C to 1000°C, - heat treatment of the region of the second interface of the silicon layer facing away from the metal substrate by means of irradiation during heating, where the irradiation and the procedure for healing are carried out at least using an energy source in the form of a flash lamp which has a flash duration in the range from 0.2 ms to 20 ms and an energy density of from 0.6 J/cm 2 to 160 J/cm 2, as a result of which multiple phases (10, 11) consisting of amorphous silicon and/or crystalline silicon of the silicon of the silicon layer and crystalline metal of the metal substrate are produced in the region of the silicon layer and of the metal substrate. - deposition of a silicon layer on a metal substrate composed of nickel or copper, where the silicon layer has a first interface directed towards the metal substrate, - heating of the metal substrate by means of a heating unit to a temperature in the range from 200°C to 1000°C, - heat treatment of the region of the second interface of the silicon layer facing away from the metal substrate by means of irradiation during heating, where the irradiation and the procedure for healing are carried out at least using an energy source in the form of a flash lamp which has a flash duration in the range from 0.2 ms to 20 ms and an energy density of from 0.6 J/cm 2 to 160 J/cm 2, as a result of which multiple phases (10, 11) consisting of amorphous silicon and/or crystalline silicon of the silicon of the silicon layer and crystalline metal of the metal substrate are produced in the region of the silicon layer and of the metal substrate.
A multi-channel signal encoding method performed by an encoder, the method comprising the steps of: • determining (step 310) a downmixed signal of a first channel signal and a second channel signal in a multi-channel signal, and determining an initial reverberation gain parameter of the first channel signal and the second channel signal; • determining (step 320) a target reverberation gain parameter of the first channel signal and the second channel signal based on a correlation between the first channel signal and the downmixed signal, a correlation between the second channel signal and the downmixed signal, and the initial reverberation gain parameter; and • quantizing (step 330) the first channel signal and the second channel signal based on the downmixed signal and the target reverberation gain parameter, and writing a quantized first channel signal and a quantized second channel signal into a bitstream. • determining (step 310) a downmixed signal of a first channel signal and a second channel signal in a multi-channel signal, and determining an initial reverberation gain parameter of the first channel signal and the second channel signal; • determining (step 320) a target reverberation gain parameter of the first channel signal and the second channel signal based on a correlation between the first channel signal and the downmixed signal, a correlation between the second channel signal and the downmixed signal, and the initial reverberation gain parameter; and • quantizing (step 330) the first channel signal and the second channel signal based on the downmixed signal and the target reverberation gain parameter, and writing a quantized first channel signal and a quantized second channel signal into a bitstream.
Method for printing at least one packaging element, which comprises at least one printing operation, wherein in one step a position of the at least one packaging element is sensed, in a further step at least one piece of information (14, 16, 18, 20) is oriented on the basis of the sensed position of the at least one packaging element in order to compensate for a deviation of the position of the packaging element from a predefined target position and to achieve a precise printing result, wherein a position of at least one reference element of the packaging element is determined and the at least one piece of information (14, 16, 18, 20) is oriented at least substantially by using the determined position of the at least one reference element, wherein the at least one piece of information (14, 16, 18, 20) is stored in at least one file, and in at least one further step the at least one piece of information (14, 16, 18, 20) is printed onto the packaging element.