mhurhangee/ep-ind-claims huggingface dataset:
Seed drill having a movable coulter carrier on which a multiplicity of sowing coulters are arranged, having a coulter pressure adjustment device for adjusting the coulter pressure of the sowing coulters, and having a coulter lifting device for lifting the sowing coulters out of a working position into a transport position by means of the coulter carrier, wherein the movement of the coulter carrier for setting the coulter pressure and the coulter lifting are brought about by a common assembly of the coulter pressure adjustment device and of the coulter lifting device, wherein the common assembly comprises at least one cylinder that is connected to at least one assembly each of the coulter lifting device and the coulter pressure adjustment device, wherein the cylinder is connected to the coulter lifting device and the coulter pressure adjustment device via a movable joint, comprising an adjustment lever and a distance lever connected movably thereto, wherein the joint and the cylinder form the common assembly, wherein the coulter pressure adjustment device comprises a first, rotatably mounted beam which is arranged transversely to the direction of travel of the seed drill and on which spring elements, connected to the sowing coulters, for changing the coulter pressure of the sowing coulters are arranged, characterized in that the coulter lifting device comprises a second beam, wherein the second beam is mounted in a movable manner and the beam being moved by the common assembly can bring about lifting of the coulter carrier, in that the adjusting lever of the joint is arranged so as to be rotatable about the second beam, wherein the second beam comprises a stop, wherein the joint moving against the stop can bring about lifting of the coulter carrier.
A self-propelled operating machine, in particular a telehandler, equipped with stabilizers which comprise at least a front stabilizing unit, mounted on a chassis of said machine, which is movable on wheels and is fitted with a driver's cab for an operator, wherein said stabilizing unit comprises a supporting frame and two stabilizing arms (21, 22, 23), each of which includes a first segment hinged to said frame by means of a pin located at a lower side of said first segment; wherein the above-mentioned first segment is also hinged at an end of a first linear actuator designed to rotate the first segment about the first pin to allow the lowering or the raising of the respective stabilizing arm (21, 22, 23); wherein each first actuator is connected, by a second hinge, to the supporting structure and, through a third hinge, to the first segment of the respective arm (21, 22, 23); wherein the first and the third hinges (25, 32) are positioned in two distinct points of the length of the first segment, the first hinge being closer to a proximal end of the first segment and the third hinge closer to a distal end thereof; wherein the stabilizing arms (21, 22, 23) are movable between a raised position, in which they are distanced from the ground and lowered position in which they rest on the ground; characterized in that, in said raised position of the stabilizing arms (21, 22, 23), the first actuators are arranged oblique with respect to a plane parallel to the ground, so as to form with said plane an angle greater than zero and less than thirty-five degrees. wherein the above-mentioned first segment is also hinged at an end of a first linear actuator designed to rotate the first segment about the first pin to allow the lowering or the raising of the respective stabilizing arm (21, 22, 23); wherein each first actuator is connected, by a second hinge, to the supporting structure and, through a third hinge, to the first segment of the respective arm (21, 22, 23); wherein the first and the third hinges (25, 32) are positioned in two distinct points of the length of the first segment, the first hinge being closer to a proximal end of the first segment and the third hinge closer to a distal end thereof; wherein the stabilizing arms (21, 22, 23) are movable between a raised position, in which they are distanced from the ground and lowered position in which they rest on the ground; characterized in that, in said raised position of the stabilizing arms (21, 22, 23), the first actuators are arranged oblique with respect to a plane parallel to the ground, so as to form with said plane an angle greater than zero and less than thirty-five degrees.
A state estimation device comprising: a machine controlling unit configured to control a work machine based on a sensor value acquired from a sensor, the sensor value being related to an operation by the work machine among a plurality of operations performed by the work machine; a state estimation unit configured to estimate a state of the sensor based on the sensor value, characterized in that the state estimation unit is further configured to estimate whether the sensor is in an abnormal state based on whether the operation by the work machine related to the sensor value is an abnormal operation. a machine controlling unit configured to control a work machine based on a sensor value acquired from a sensor, the sensor value being related to an operation by the work machine among a plurality of operations performed by the work machine; a state estimation unit configured to estimate a state of the sensor based on the sensor value, characterized in that the state estimation unit is further configured to estimate whether the sensor is in an abnormal state based on whether the operation by the work machine related to the sensor value is an abnormal operation.
A crane for lifting and transporting loads comprising: a base frame, for transferring the loads of the crane onto a support surface by means of a plurality of wheels (34, 35, 36) comprising two steering wheels; and a steering system; wherein the steering system comprises a linear steering actuator, which is hinged, on one side, to the base frame and a bar having two ends, wherein each end of the bar is hinged to a respective rotary element (50, 52) around a respective hinging axis (P1, P2), wherein each rotary element (50, 52) rotates around a respective rotation axis (R1, R2) and is constrained in rotation to the respective steering wheel so as to steer it; characterized in that the linear steering actuator is hinged on the other side to the bar, wherein the distance between the two hinging axes (P1, P2) of the bar is smaller than the distance between the rotation axes (R1, R2) of the rotary elements (50, 52); wherein the distance between the rotation axes (R1, R2) of the rotary elements (50, 52) is smaller than the distance between steering axes (S1, S2) of the steering wheels. wherein the steering system comprises a linear steering actuator, which is hinged, on one side, to the base frame and a bar having two ends, wherein each end of the bar is hinged to a respective rotary element (50, 52) around a respective hinging axis (P1, P2), wherein each rotary element (50, 52) rotates around a respective rotation axis (R1, R2) and is constrained in rotation to the respective steering wheel so as to steer it; characterized in that the linear steering actuator is hinged on the other side to the bar, wherein the distance between the two hinging axes (P1, P2) of the bar is smaller than the distance between the rotation axes (R1, R2) of the rotary elements (50, 52); wherein the distance between the rotation axes (R1, R2) of the rotary elements (50, 52) is smaller than the distance between steering axes (S1, S2) of the steering wheels.
A vehicle control system comprising: a power unit including an electric rotary machine; a high voltage power supply of a M/G driver circuit of the electric rotary machine; an electric coolant pump configured to circulate a coolant that cools the electric rotary machine, wherein a power supply of an EOP driver circuit of the electric coolant pump is a low voltage power supply; and a control unit configured to operate the electric coolant pump based on a condition that a temperature (Θ M) of the electric rotary machine is equal to or higher than a predetermined operation threshold temperature (Θ M0), characterized in that the control unit is configured to operate the electric coolant pump additionally based on a condition that an output (P M) which indicates power, which is expressed by a formula power = torque x rotation speed, of the electric rotary machine is equal to or higher than a predetermined operation threshold output (P M0), wherein the power supply of the OEP driver circuit of the electric coolant pump is independent from the high voltage power supply of the M/ G driver circuit of the electric rotary machine. a power unit including an electric rotary machine; a high voltage power supply of a M/G driver circuit of the electric rotary machine; an electric coolant pump configured to circulate a coolant that cools the electric rotary machine, wherein a power supply of an EOP driver circuit of the electric coolant pump is a low voltage power supply; and a control unit configured to operate the electric coolant pump based on a condition that a temperature (Θ M) of the electric rotary machine is equal to or higher than a predetermined operation threshold temperature (Θ M0), characterized in that the control unit is configured to operate the electric coolant pump additionally based on a condition that an output (P M) which indicates power, which is expressed by a formula power = torque x rotation speed, of the electric rotary machine is equal to or higher than a predetermined operation threshold output (P M0), wherein the power supply of the OEP driver circuit of the electric coolant pump is independent from the high voltage power supply of the M/ G driver circuit of the electric rotary machine.
A method for removing ink from printed paper comprising: (a) pulping printed paper at least 25 wt% of which is old newsprint at a consistency of at least 3% to obtain a pulp slurry; (b) treating the pulp slurry with an ink removing system, which system comprises: (i) a combination of lipase and at least one second enzyme chosen from amylase, xylanase or cellulase, and (ii) a non-ionic surfactant, in amounts effective to release ink from said pulp slurry, wherein the lipase is present in an amount of at least 0.001 wt% based on the dry content of the pulp slurry and the ratio of the at least one second enzyme:lipase is at least 1.2:1; and (c) separating the released ink from the pulp slurry in a deinking step to provide a deinked pulp slurry, wherein the treating step is carried out prior to the deinking step. (a) pulping printed paper at least 25 wt% of which is old newsprint at a consistency of at least 3% to obtain a pulp slurry; (b) treating the pulp slurry with an ink removing system, which system comprises: (i) a combination of lipase and at least one second enzyme chosen from amylase, xylanase or cellulase, and (ii) a non-ionic surfactant, in amounts effective to release ink from said pulp slurry, wherein the lipase is present in an amount of at least 0.001 wt% based on the dry content of the pulp slurry and the ratio of the at least one second enzyme:lipase is at least 1.2:1; and (c) separating the released ink from the pulp slurry in a deinking step to provide a deinked pulp slurry, wherein the treating step is carried out prior to the deinking step.
An adjustable mount for mounting an engine accessory to an aircraft engine at a mounting location (L1, L2, L3) thereon, the adjustable mount comprising: a first bracket adapted to be coupled to the engine accessory, the first bracket having a first bore disposed therethrough with a first annular bushing extending axially through the first bore, the first annular bushing having a radially outer surface rotatable within the first bore and a threaded radially inner surface; a second bracket adapted to be operatively coupled to the engine at the mounting location (L1, L2, L3), the second bracket having a second bore disposed therethrough with a second annular bushing extending through the second bore, the second annular bushing having a radially outer surface rotatable within the second bore and a threaded radially inner surface; a threaded stud extending axially through the first annular bushing and the second annular bushing, the threaded stud threadably engaged with the threaded radially inner surfaces of the first and second annular bushings, wherein rotation of the first annular bushing and/or the second annular bushing varies the relative axial positions of the first and second bushings on the threaded stud, and thereby adjusts an axial gap between the first and second brackets (42,44); and a first nut fastened to a first end of the threaded stud axially outward of the first bracket and a second nut fastened to a second end of the threaded stud axially outward of the second bracket, the first and second nuts axially retaining the adjustable mount together with the axial gap between the first and second brackets (42,44) fixed. a first bracket adapted to be coupled to the engine accessory, the first bracket having a first bore disposed therethrough with a first annular bushing extending axially through the first bore, the first annular bushing having a radially outer surface rotatable within the first bore and a threaded radially inner surface; a second bracket adapted to be operatively coupled to the engine at the mounting location (L1, L2, L3), the second bracket having a second bore disposed therethrough with a second annular bushing extending through the second bore, the second annular bushing having a radially outer surface rotatable within the second bore and a threaded radially inner surface; a threaded stud extending axially through the first annular bushing and the second annular bushing, the threaded stud threadably engaged with the threaded radially inner surfaces of the first and second annular bushings, wherein rotation of the first annular bushing and/or the second annular bushing varies the relative axial positions of the first and second bushings on the threaded stud, and thereby adjusts an axial gap between the first and second brackets (42,44); and a first nut fastened to a first end of the threaded stud axially outward of the first bracket and a second nut fastened to a second end of the threaded stud axially outward of the second bracket, the first and second nuts axially retaining the adjustable mount together with the axial gap between the first and second brackets (42,44) fixed.
A method of determining a distance (d) to a discontinuity within an object using a guided wave, the method comprising: a) generating a continuous, frequency modulated input signal having a predetermined frequency range and a frequency ramping speed using a signal generator and splitting the input signal into at least a test signal and a reference signal; b) generating an input guided wave comprising an acoustic wave based on the test signal using a guided wave transducer, wherein the frequency range is limited to frequencies for which a phase velocity of the input guided wave is constant; c) continuously introducing the input guided wave into the object using the guided wave transducer, and simultaneously receiving a reflected sound wave reflected by a discontinuity within the object and generating a corresponding return signal using a receiver; d) determining a frequency difference value based on a comparison of the reference signal and the return signal using a controller; e) automatically determining a distance (d) from the transmitter to the discontinuity within the object based on at least the frequency difference value and the frequency ramping speed using the controller. a) generating a continuous, frequency modulated input signal having a predetermined frequency range and a frequency ramping speed using a signal generator and splitting the input signal into at least a test signal and a reference signal; b) generating an input guided wave comprising an acoustic wave based on the test signal using a guided wave transducer, wherein the frequency range is limited to frequencies for which a phase velocity of the input guided wave is constant; c) continuously introducing the input guided wave into the object using the guided wave transducer, and simultaneously receiving a reflected sound wave reflected by a discontinuity within the object and generating a corresponding return signal using a receiver; d) determining a frequency difference value based on a comparison of the reference signal and the return signal using a controller; e) automatically determining a distance (d) from the transmitter to the discontinuity within the object based on at least the frequency difference value and the frequency ramping speed using the controller.
A device for mechanically holding a bundle of conductive wires intended to be connected to a connector, comprising: - a first face and a second face opposite to the first one, the device having a shape of a flattened and elongated parallelepiped, with the first and the second face as main faces,- a first fixing portion arranged to hold the bundle of conductive wires against the first face, the first fixing portion being positioned between a first and a second narrowing area of the section of the device, or the first fixing portion comprising two through openings (4c, 4d) between the two faces (2, 3) of the device,- a circular ring adapted to be positioned between the two shrinkage zones (4a, 4b), or being a little narrower than the two through openings (4c, 4d) and adapted to slip inside the two through openings (4c, 4d), to enclose the bundle of conductive wires and hold it against the first face of the device, - a second fixing portion on the second face, arranged to fix a marker, the second fixing portion comprising at least one cavity formed in the first face, - the marker - a third fixing portion arranged to fix the connector against the first face, the device being characterized in that: the second fixing portion comprises at least one fixing element (5a, 5b) positioned on the second face cooperating with at least one complementary fixing element (7a, 7b) on the mark, the at least one fixing element (5a, 5b) comprising at least one through hole opening into the at least one cavity forming a stop zone, in which the cavity is configured to at least partially receive an extension of the at least one complementary fastening element (7a, 7b). - a first face and a second face opposite to the first one, the device having a shape of a flattened and elongated parallelepiped, with the first and the second face as main faces,- a first fixing portion arranged to hold the bundle of conductive wires against the first face, the first fixing portion being positioned between a first and a second narrowing area of the section of the device, or the first fixing portion comprising two through openings (4c, 4d) between the two faces (2, 3) of the device,- a circular ring adapted to be positioned between the two shrinkage zones (4a, 4b), or being a little narrower than the two through openings (4c, 4d) and adapted to slip inside the two through openings (4c, 4d), to enclose the bundle of conductive wires and hold it against the first face of the device, - a second fixing portion on the second face, arranged to fix a marker, the second fixing portion comprising at least one cavity formed in the first face, - the marker - a third fixing portion arranged to fix the connector against the first face, the device being characterized in that:
A method of producing a spot welded joint of overlaid steel sheets (3, 4) characterized in that at one or both of the surfaces of the steel sheets (3, 4) becoming the facing surfaces of said steel sheets (3, 4), a location where the steel sheets (3, 4) contact each other to form a contact part at the time of initial squeezing of the spot welding is worked in advance to form lines of a plurality of line-shaped grooves running through the contact part and connected to the outside of the contact part; and the spot welding is performed at the location of the contact part. at one or both of the surfaces of the steel sheets (3, 4) becoming the facing surfaces of said steel sheets (3, 4), a location where the steel sheets (3, 4) contact each other to form a contact part at the time of initial squeezing of the spot welding is worked in advance to form lines of a plurality of line-shaped grooves running through the contact part and connected to the outside of the contact part; and the spot welding is performed at the location of the contact part.
A mask assembly for use in providing positive pressure respiratory therapy, comprising: a mask seal; and a mask shell; wherein the mask assembly is configured to be fully positioned lower than a bridge of a nose of a face of a user and configured to provide an exposed bridge of the nose of the user, the mask seal being connected to the mask shell, the mask seal comprising a nasal region comprising at least one nasal opening, the mask seal comprising a first paddle on a first side of the nasal region and a second paddle on a second side of the nasal region, the first paddle configured to contact one side of the nose of the user and the second paddle configured to contact the other side of the nose of the user; wherein the mask seal varies in thickness and wherein each of the paddles comprises a support in the form of a suspension member, which assists in maintaining a desired shape of the paddles, each suspension member extending along an upper edge, or a region or ridge that joins a laterally outer surface portion and the laterally inner surface portion along the upper edges, of the first and second paddle respectively. a mask seal; and a mask shell; wherein the mask assembly is configured to be fully positioned lower than a bridge of a nose of a face of a user and configured to provide an exposed bridge of the nose of the user, the mask seal being connected to the mask shell, the mask seal comprising a nasal region comprising at least one nasal opening, the mask seal comprising a first paddle on a first side of the nasal region and a second paddle on a second side of the nasal region, the first paddle configured to contact one side of the nose of the user and the second paddle configured to contact the other side of the nose of the user; wherein the mask seal varies in thickness and wherein each of the paddles comprises a support in the form of a suspension member, which assists in maintaining a desired shape of the paddles, each suspension member extending along an upper edge, or a region or ridge that joins a laterally outer surface portion and the laterally inner surface portion along the upper edges, of the first and second paddle respectively.
A ceramic filter, comprising: a porous substrate having a partition wall that defines and forms a cell extending from one end face to the other end face, the porous substrate being made of ceramic; a separation membrane disposed on a wall face in the cell; and glass seal disposed at the one end face and the other end face so as not to block open frontal areas of the cell, characterized in that the glass seal includes glass and inorganic particles dispersed in the glass, the inorganic particles being made of clay, and a ratio of a coefficient of thermal expansion of the glass seal to a coefficient of thermal expansion of the porous substrate is 90% or less. a porous substrate having a partition wall that defines and forms a cell extending from one end face to the other end face, the porous substrate being made of ceramic; a separation membrane disposed on a wall face in the cell; and glass seal disposed at the one end face and the other end face so as not to block open frontal areas of the cell, characterized in that the glass seal includes glass and inorganic particles dispersed in the glass, the inorganic particles being made of clay, and a ratio of a coefficient of thermal expansion of the glass seal to a coefficient of thermal expansion of the porous substrate is 90% or less.