mhurhangee/ep-ind-claims huggingface dataset:
An exhaust purification apparatus for an internal combustion engine comprising: an NOx catalyst provided in an exhaust system of the internal combustion engine to selectively reduce NOx; reducing agent adding means provided upstream of NOx catalyst to supply the NOx catalyst with a urea aqueous solution or ammonia as a reducing agent; a first NOx sensor provided upstream of the reducing agent adding means and a second NOx sensor provided at an outlet of the NOx catalyst, each of the NOx sensors reacting both to NOx and to ammonia; the exhaust purification apparatus being characterized in that it further comprises addition amount correcting means for, when a bed temperature of the NOx catalyst is in a predetermined high-temperature region in which the amount of ammonia converted into NOx increases relatively and an NOx purification rate decreases relatively, performing correction using outputs from the first and second NOx sensors so that the actual amount of reducing agent added by the reducing agent adding means follows a target addition amount. an NOx catalyst provided in an exhaust system of the internal combustion engine to selectively reduce NOx; reducing agent adding means provided upstream of NOx catalyst to supply the NOx catalyst with a urea aqueous solution or ammonia as a reducing agent; a first NOx sensor provided upstream of the reducing agent adding means and a second NOx sensor provided at an outlet of the NOx catalyst, each of the NOx sensors reacting both to NOx and to ammonia; the exhaust purification apparatus being characterized in that it further comprises addition amount correcting means for, when a bed temperature of the NOx catalyst is in a predetermined high-temperature region in which the amount of ammonia converted into NOx increases relatively and an NOx purification rate decreases relatively, performing correction using outputs from the first and second NOx sensors so that the actual amount of reducing agent added by the reducing agent adding means follows a target addition amount.
Device for automatically unlocking shipping containers wherein the device incorporates a load-bearing structure that can be moved up through a port crane into the belly of a ship, wherein the device comprises several pairs of side frames (5-5') emerging from the ends of structure, characterized in that the load-bearing structure is telescopic, wherein on a lower side of the pairs of side frames, which is suitable for unlocking containers simultaneously, there is provided on an inner face a robotic mechanism with at least three degrees of movement; a vertical, a transverse, and an axial displacement for a grasping tool, such as a capture claw for opening handles for different types of securing mechanisms for a container, wherein the a claw has at least one degree of freedom of movement; wherein the robotic mechanism is assisted by artificial vision and movement systems, which are remote operated, assisted, or fully automatic.
Animal tissue sampling device configured to cooperate with a sampling and/or tagging tool, including sampling means intended to be placed on a rod-forming element of said tool, said sampling means comprising a cutting element configured to collect a sample of said tissues, characterized in that said sampling means also comprises a removable protection element for protection of said rod, designed to cover at least a substantial portion of said rod, including means for assembly on said rod, said cutting element being arranged in the extension of said protection element.
A charging apparatus for charging a power tool or a battery pack adapted to the power tool, comprising: a housing formed with an accommodating space; and a circuit board assembly disposed in the accommodating space and comprising a printed circuit board provided with a plurality of electronic elements; wherein output power of the charging apparatus is greater than or equal to 500 W and less than or equal to 2000 W, and a ratio of the output power of the charging apparatus to a volume of the charging apparatus is higher than or equal to 1.22 W/cm 3 and lower than or equal to 1.83 W/cm 3. characterized in that the charging apparatus further includes first elements disposed between the printed circuit board and the lower housing, wherein the first element is a sealant with a heat-conducting function and is used for transferring the heat on the circuit board assembly to the housing, and the thermal conductivity of the first element is greater than or equal to 1 W/(m·K). a housing formed with an accommodating space; and a circuit board assembly disposed in the accommodating space and comprising a printed circuit board provided with a plurality of electronic elements; wherein output power of the charging apparatus is greater than or equal to 500 W and less than or equal to 2000 W, and a ratio of the output power of the charging apparatus to a volume of the charging apparatus is higher than or equal to 1.22 W/cm 3 and lower than or equal to 1.83 W/cm 3. characterized in that the charging apparatus further includes first elements disposed between the printed circuit board and the lower housing, wherein the first element is a sealant with a heat-conducting function and is used for transferring the heat on the circuit board assembly to the housing, and the thermal conductivity of the first element is greater than or equal to 1 W/(m·K).
An electrical and magnetic tissue stimulation device comprising: a multi-source distribution circuit,: - a control unit connected to the multi-source distribution circuit; the multi-source distribution circuit comprising: - a source output selector; - a voltage regulator circuit; - a current limiter, - a capacitor, - a V. Out output; - a capacitor bank, which has "n" switchable capacitors connected in parallel through the source output selector, wherein n is a natural number; wherein said voltage regulator circuit is connected to said current limiter, and said current limiter is connected to: said capacitor; said capacitor bank; and the source output selector; wherein the control unit is connected to and is configured to control the source output selector by means of an output control signal through an output control signal bus, wherein the source output selector is configured to connect or disconnect one or more capacitors from the capacitor bank, wherein when one or more capacitors of the capacitor bank is connected or disconnected, said V. Out output output load changes; a decoupled output stage circuit with a first output (PE, 12) and a second output (Out, 13) connected to the multi-source distribution circuit and to said control unit; and wherein the control unit is configured to generate the first output (PE, 12) and second output (Out, 13), for electrically and magnetically stimulating said tissue. a multi-source distribution circuit,: - a control unit connected to the multi-source distribution circuit; - a control unit connected to the multi-source distribution circuit; the multi-source distribution circuit comprising: - a source output selector; - a voltage regulator circuit; - a current limiter, - a capacitor, - a V. Out output; - a capacitor bank, which has "n" switchable capacitors connected in parallel through the source output selector, wherein n is a natural number; - a source output selector; - a voltage regulator circuit; - a current limiter, - a capacitor, - a V. Out output; - a capacitor bank, which has "n" switchable capacitors connected in parallel through the source output selector, wherein n is a natural number; wherein said voltage regulator circuit is connected to said current limiter, and said current limiter is connected to: said capacitor; said capacitor bank; and the source output selector; said capacitor; said capacitor bank; and the source output selector; wherein the control unit is connected to and is configured to control the source output selector by means of an output control signal through an output control signal bus, wherein the source output selector is configured to connect or disconnect one or more capacitors from the capacitor bank, wherein when one or more capacitors of the capacitor bank is connected or disconnected, said V. Out output output load changes; a decoupled output stage circuit with a first output (PE, 12) and a second output (Out, 13) connected to the multi-source distribution circuit and to said control unit; and wherein the control unit is configured to generate the first output (PE, 12) and second output (Out, 13), for electrically and magnetically stimulating said tissue.
An assembly for a gas turbine engine, comprising: a rotating structure extending axially along and rotatable about a centerline; a stationary structure extending circumferentially about the rotating structure, the stationary structure comprising stationary structure material; and a bushing radially between the rotating structure and the stationary structure, the bushing including a mount and a bearing within the mount, the mount comprising mount material, the mount material contacting the stationary structure material, the bearing comprising bearing material engaged with and rotatably supporting the rotating structure, and the bearing material comprising copper, characterised in that: the stationary structure material has a coefficient of thermal expansion, measured at 204°C, between 18 μm/m-°C and 27 μm/m-°C; the mount material has a coefficient of thermal expansion, measured at 204°C, between 16.2 μm/m-°C and 18 μm/m-°C; and the mount material comprises stainless steel. a rotating structure extending axially along and rotatable about a centerline; a stationary structure extending circumferentially about the rotating structure, the stationary structure comprising stationary structure material; and a bushing radially between the rotating structure and the stationary structure, the bushing including a mount and a bearing within the mount, the mount comprising mount material, the mount material contacting the stationary structure material, the bearing comprising bearing material engaged with and rotatably supporting the rotating structure, and the bearing material comprising copper, the stationary structure material has a coefficient of thermal expansion, measured at 204°C, between 18 μm/m-°C and 27 μm/m-°C; the mount material has a coefficient of thermal expansion, measured at 204°C, between 16.2 μm/m-°C and 18 μm/m-°C; and the mount material comprises stainless steel.
Method for producing a drive-cable holder for a vehicle roof, comprising: - providing a component for the vehicle roof, - positioning the component in a moulding tool, - providing a guide tube for a drive cable, - positioning the guide tube in the moulding tool, - introducing a plastic into the moulding tool such that the plastic radially completely surrounds the guide tube at least sectionally and such that the plastic comes into contact with a surface of the component, and consequently - forming the drive-cable holder, which is fastened to the component, characterized by: - providing a holding element for holding the guide tube in the moulding tool, - removing the holding element after the introduction of the plastic, and consequently - forming a free access to the guide tube at a position of the drive-cable holder that corresponds to the holding element. - providing a component for the vehicle roof, - positioning the component in a moulding tool, - providing a guide tube for a drive cable, - positioning the guide tube in the moulding tool, - introducing a plastic into the moulding tool such that the plastic radially completely surrounds the guide tube at least sectionally and such that the plastic comes into contact with a surface of the component, and consequently - forming the drive-cable holder, which is fastened to the component, characterized by: - providing a holding element for holding the guide tube in the moulding tool, - removing the holding element after the introduction of the plastic, and consequently - forming a free access to the guide tube at a position of the drive-cable holder that corresponds to the holding element. - providing a holding element for holding the guide tube in the moulding tool, - removing the holding element after the introduction of the plastic, and consequently - forming a free access to the guide tube at a position of the drive-cable holder that corresponds to the holding element.
A crystalline form A of a compound represented by the following Formula 1 having an X-ray powder diffraction pattern using Cu-Kα radiation with peaks at diffraction angles of 8.1°, 10.0°, 12.6°, 14.9°, 15.6°, 16.5°, 17.2°, 19.6°, 23.1°, 24.2°, 28.1°, 30.2°, and 31.6° (2θ±0.2°):
A system (100, 200) for diagnosing a sleep disorder in a subject, the system comprising: a plurality of skin electrodes (104, 204) configured to sense electrical signals corresponding to a skin nerve activity in the subject; a signal detector configured to sample the electrical signals sensed by the plurality of skin electrodes (104, 204), and generate signal data using the electrical signals; a processor configured to: receive the signal data from the signal detector; assemble a time-series of data indicating the skin nerve activity using the signal data, including applying a bandpass filter that extends over a frequency range between approximately 500 Hz and approximately 1000 Hz to the signal data; identify a sleep disorder using the time-series of data; and generate a report indicative of the sleep disorder. a plurality of skin electrodes (104, 204) configured to sense electrical signals corresponding to a skin nerve activity in the subject; a signal detector configured to sample the electrical signals sensed by the plurality of skin electrodes (104, 204), and generate signal data using the electrical signals; a processor configured to: receive the signal data from the signal detector; assemble a time-series of data indicating the skin nerve activity using the signal data, including applying a bandpass filter that extends over a frequency range between approximately 500 Hz and approximately 1000 Hz to the signal data; identify a sleep disorder using the time-series of data; and generate a report indicative of the sleep disorder. receive the signal data from the signal detector; assemble a time-series of data indicating the skin nerve activity using the signal data, including applying a bandpass filter that extends over a frequency range between approximately 500 Hz and approximately 1000 Hz to the signal data; identify a sleep disorder using the time-series of data; and generate a report indicative of the sleep disorder.
A washing machine comprising: a cabinet for forming an appearance of a washing machine; a tub for storing washing water; a drum rotatably arranged in the tub for washing and dehydrating laundry; and a driving motor positioned at a rear side of the drum for generating a driving force by which the drum is rotated; characterized in that the tub is composed of a first partition wall fixed to or integrally formed with an upper inner wall of the cabinet and a second partition wall fixed to or integrally formed with a lower inner wall of the cabinet, wherein the first partition wall having a flat plate shape is formed at an upper side of the cabinet, wherein the front side and both sides of the first partition wall are fixed to or integrally formed with the inner wall of the cabinet wherein the second partition wall having a semi-circle shape is formed at a lower side of the cabinet, wherein a front side and both sides of the second partition wall are fixed to or integrally formed with the inner wall of the cabinet, and a supporting unit positioned at the rear side of the tub and arranged between a supporting plate to which the driving motor is fixed and the cabinet for supporting the drum with buffering. a cabinet for forming an appearance of a washing machine; a tub for storing washing water; a drum rotatably arranged in the tub for washing and dehydrating laundry; and a driving motor positioned at a rear side of the drum for generating a driving force by which the drum is rotated; characterized in that the tub is composed of a first partition wall fixed to or integrally formed with an upper inner wall of the cabinet and a second partition wall fixed to or integrally formed with a lower inner wall of the cabinet, wherein the first partition wall having a flat plate shape is formed at an upper side of the cabinet, wherein the front side and both sides of the first partition wall are fixed to or integrally formed with the inner wall of the cabinet wherein the second partition wall having a semi-circle shape is formed at a lower side of the cabinet, wherein a front side and both sides of the second partition wall are fixed to or integrally formed with the inner wall of the cabinet, and a supporting unit positioned at the rear side of the tub and arranged between a supporting plate to which the driving motor is fixed and the cabinet for supporting the drum with buffering.
A gas turbine rotor with a principal axis and a rotational axis (51, 61), comprising: a rotor sealing component (56, 60) extending circumferentially around the rotor for sealing between the rotor and a stator, characterised in that: the principal axis of the rotor is collinear with the rotational axis; and material of the rotor sealing component is unevenly distributed around the circumference of the rotor sealing component. the principal axis of the rotor is collinear with the rotational axis; and material of the rotor sealing component is unevenly distributed around the circumference of the rotor sealing component.
A method for avoiding accidents with following traffic during an automated parking procedure into a transverse parking space for a motor vehicle equipped with a parking assistance system having at least automatic transverse guidance, wherein the automated parking procedure comprises a parking movement into the transverse parking space in a reverse or forward direction, characterised in that, when required, the automated parking procedure then comprises at least one corrective movement in a forward or reverse direction, the method comprising the following steps: - by means of the parking assistance system, determining that there is a need for a corrective movement in a forward or reverse direction within the scope of the automated parking procedure; and - in response thereto and by means of the parking assistance system, preventing (145, 150) the vehicle from entering the transverse parking space to such a depth during the parking movement within the scope of the automated parking procedure that the driver would subsequently, at the beginning of the corrective movement in a forward or reverse direction, no longer have a clear view of the following traffic on account of a visual obstruction by a vehicle bounding the transverse parking space. - by means of the parking assistance system, determining that there is a need for a corrective movement in a forward or reverse direction within the scope of the automated parking procedure; and - in response thereto and by means of the parking assistance system, preventing (145, 150) the vehicle from entering the transverse parking space to such a depth during the parking movement within the scope of the automated parking procedure that the driver would subsequently, at the beginning of the corrective movement in a forward or reverse direction, no longer have a clear view of the following traffic on account of a visual obstruction by a vehicle bounding the transverse parking space.
A method for producing a fibre composite component made of at least two long-fibre plies, wherein the method has the following method steps: a) making available a long-fibre ply; b) applying short fibres to the long-fibre ply; and c) applying a further long-fibre ply to the long-fibre ply which is provided with the short fibres, wherein the short fibres have a length which is small compared with a length of the long fibres of the long-fibre plies, wherein a major part of the short fibres have a length of between 0.5 mm and 30 mm, and wherein the short fibres are applied to the long-fibre ply as a textile sheet, namely as a non-woven fabric or laid fabric, wherein the short fibres in step b) are applied such that the short fibres penetrate at least partially into the long-fibre ply, and wherein the further long-fibre ply in step c) is applied such that the short fibres penetrate at least partially into the further long-fibre ply. a) making available a long-fibre ply; b) applying short fibres to the long-fibre ply; and c) applying a further long-fibre ply to the long-fibre ply which is provided with the short fibres,
An autoclave sample-extracting device for extracting a sample at a sample extraction location of a geological formation, said device comprising a self-closing pressure chamber module for receiving the sample, wherein the pressure chamber module is connected to a lifting module (HMB1, HBM2) in order to lift the sample into the pressure chamber module in one sampling stroke (Δz2), characterized by - a triggering module (AM1, AM2, AM3) and a pressure regulating module (AK1, AK2) arranged in a connecting element, wherein the connecting element is arranged between the triggering module (AM1, AM2, AM3) and the lifting module (HBM1, HBM2) and the sample, wherein the triggering module (AM1, AM2, AM3) acts on the lifting module (HMB1, HBM2) arranged in a non-triggering position in order to trigger the sampling stroke (Δz2), and - after the sampling stroke (Δz2), the sample is lifted by the lifting module (HBM1, HBM2) and arranged in a pressure-tight manner in a housing within a self-closing pressure chamber of the pressure chamber module, as soon as the lifting module (HBM1, HBM2) is released by the triggering module (AM1, AM2, AM3), as a result of which the lifting module (HBM1, HBM2) assumes its triggering position, and - the pressure regulating module (AK1, AK2) is coupled to the pressure chamber module at least on the pressure side after the sampling stroke (Δz2) in order to influence the pressure in the pressure chamber module. - a triggering module (AM1, AM2, AM3) and a pressure regulating module (AK1, AK2) arranged in a connecting element, wherein the connecting element is arranged between the triggering module (AM1, AM2, AM3) and the lifting module (HBM1, HBM2) and the sample, wherein the triggering module (AM1, AM2, AM3) acts on the lifting module (HMB1, HBM2) arranged in a non-triggering position in order to trigger the sampling stroke (Δz2), and - after the sampling stroke (Δz2), the sample is lifted by the lifting module (HBM1, HBM2) and arranged in a pressure-tight manner in a housing within a self-closing pressure chamber of the pressure chamber module, as soon as the lifting module (HBM1, HBM2) is released by the triggering module (AM1, AM2, AM3), as a result of which the lifting module (HBM1, HBM2) assumes its triggering position, and - the pressure regulating module (AK1, AK2) is coupled to the pressure chamber module at least on the pressure side after the sampling stroke (Δz2) in order to influence the pressure in the pressure chamber module.