mhurhangee/ep-ind-claims huggingface dataset:
A urea solution pump unit comprising: a urea solution tank having a mounting hole opened downward; a mounting flange mounted to close the mounting hole; a motor pump disposed in a horizontal direction on the mounting flange in the urea solution tank, and configured to draw a urea solution at one side using a pump, and discharge the urea solution to another side through a space formed between a rotor and a stator of a motor; and a filter installed at an inlet side of the motor pump at an outside of the motor pump. a urea solution tank having a mounting hole opened downward; a mounting flange mounted to close the mounting hole; a motor pump disposed in a horizontal direction on the mounting flange in the urea solution tank, and configured to draw a urea solution at one side using a pump, and discharge the urea solution to another side through a space formed between a rotor and a stator of a motor; and a filter installed at an inlet side of the motor pump at an outside of the motor pump.
A microvesicle secreted by a eukaryotic cell, wherein said micro vesicle comprises a viral membrane fusion protein VSV-G and a protein of interest, wherein said microvesicle does not contain any viral structural protein, and wherein said protein of interest is not covalently bonded to said viral membrane fusion protein VSV-G.
An automatic dishwashing composition, comprising: 0.5 to 15 wt% of a dispersant polymer blend, comprising: an acrylic acid homopolymer; and a copolymer of acrylic acid and a sulfonated monomer; wherein the dispersant polymer blend has a blend ratio of the acrylic acid homopolymer to the copolymer of 3:1 to 1:3, based on weight; 0.5 to 15 wt% of a surfactant, wherein the surfactant is a glycidyl ether-capped ethoxylated alcohol of formula I: wherein R 1 is a linear, saturated C 8-24 alkyl group, R 2 is a branched saturated C 6-10 alkyl group, m has an average value of 10 to 50, and n has an average value of > 1 to 2; 1 to 75 wt% of a builder 0 to 75 wt% of an additive; and less than 0.1 wt% methylglycinediacetic acid (MGDA). 0.5 to 15 wt% of a dispersant polymer blend, comprising: an acrylic acid homopolymer; and a copolymer of acrylic acid and a sulfonated monomer; wherein the dispersant polymer blend has a blend ratio of the acrylic acid homopolymer to the copolymer of 3:1 to 1:3, based on weight; an acrylic acid homopolymer; and a copolymer of acrylic acid and a sulfonated monomer; wherein the dispersant polymer blend has a blend ratio of the acrylic acid homopolymer to the copolymer of 3:1 to 1:3, based on weight; 0.5 to 15 wt% of a surfactant, wherein the surfactant is a glycidyl ether-capped ethoxylated alcohol of formula I: wherein R 1 is a linear, saturated C 8-24 alkyl group, R 2 is a branched saturated C 6-10 alkyl group, m has an average value of 10 to 50, and n has an average value of > 1 to 2; 1 to 75 wt% of a builder 0 to 75 wt% of an additive; and less than 0.1 wt% methylglycinediacetic acid (MGDA).
A lighting system (100A, 100B) comprising: a light source configured to provide a light beam stripe in the visible spectral range with a low divergence in a longitudinal direction and a high divergence in a transversal direction orthogonal to the longitudinal direction; a reflector unit comprising a support structure and a reflective surface with an essentially linear extension in the longitudinal direction and a curved extension around a focal line extending in the transverse direction, wherein the light source is positioned to emit light from the area of the focal line onto the reflective surface such that the emitted light is at least partly reflected to form a reflected light beam of directed non-diffused light with comparable divergences in the longitudinal direction and the transverse direction due to a collimating effect of the reflective surface in the transverse direction, and the light source is positioned at the side of the reflected light beam; and a chromatic diffusing layer comprising a plurality of nanoparticles embedded in a matrix, wherein the chromatic diffusing layer is positioned such that at least a portion of the reflected light beam passes through the chromatic diffusing layer, thereby generating diffuse light by scattering more efficiently the short-wavelengths components of the light in the visible spectral range than the long-wavelength components of the light in the visible spectral range. a light source configured to provide a light beam stripe in the visible spectral range with a low divergence in a longitudinal direction and a high divergence in a transversal direction orthogonal to the longitudinal direction; a reflector unit comprising a support structure and a reflective surface with an essentially linear extension in the longitudinal direction and a curved extension around a focal line extending in the transverse direction, wherein the light source is positioned to emit light from the area of the focal line onto the reflective surface such that the emitted light is at least partly reflected to form a reflected light beam of directed non-diffused light with comparable divergences in the longitudinal direction and the transverse direction due to a collimating effect of the reflective surface in the transverse direction, and the light source is positioned at the side of the reflected light beam; and a chromatic diffusing layer comprising a plurality of nanoparticles embedded in a matrix, wherein the chromatic diffusing layer is positioned such that at least a portion of the reflected light beam passes through the chromatic diffusing layer, thereby generating diffuse light by scattering more efficiently the short-wavelengths components of the light in the visible spectral range than the long-wavelength components of the light in the visible spectral range.
A starter for a combustion engine of an automotive vehicle comprising: - an electric motor comprising a shaft, - an output shaft, on which a drive pinion is mounted which is intended to engage with a starting ring gear of the combustion engine, - a reduction gear unit having a ring gear, the reduction gear unit being installed between the shaft of the electric motor and the output shaft in order to connect the shaft of the electric motor to the output shaft in a rotational manner, - a casing, - at least one shock absorber installed between the ring gear and the casing connecting the ring gear to the casing in a rotational manner, characterised in that the shock absorber is capable of absorbing by shear shocks experienced by the ring gear during a start-up of the combustion engine giving rise to a relative angular displacement of the ring gear with respect to the casing of the starter. - an electric motor comprising a shaft, - an output shaft, on which a drive pinion is mounted which is intended to engage with a starting ring gear of the combustion engine, - a reduction gear unit having a ring gear, the reduction gear unit being installed between the shaft of the electric motor and the output shaft in order to connect the shaft of the electric motor to the output shaft in a rotational manner, - a casing, - at least one shock absorber installed between the ring gear and the casing connecting the ring gear to the casing in a rotational manner, characterised in that the shock absorber is capable of absorbing by shear shocks experienced by the ring gear during a start-up of the combustion engine giving rise to a relative angular displacement of the ring gear with respect to the casing of the starter.
Spindle rail (2, 2', 2") for accommodating a spindle unit (3, 3', 3") for a spinning machine, comprising a spindle unit (3, 3', 3"), wherein the spindle unit (3, 3', 3") has - a spindle having a holding section for releasably connecting to a spinning tube and - an electric motor having a rotor connected to a spindle shaft of the spindle in a rotationally fixed arrangement, wherein the spindle rail (2, 2', 2") has a mounting opening, wherein the spindle unit (3, 3', 3") does not have a housing separate from the spindle rail (2, 2', 2"), but rather said housing is formed by the mounting opening of the spindle rail (2, 2', 2"), and wherein a bearing (13, 15), which guides the spindle shaft, and a stator of the electric motor are positioned in the mounting opening, characterised in that the guiding bearing (13, 15) is integrated into a flange unit having a passage for the spindle shaft to be supported, the flange unit being exchangeably inserted into the mounting opening, and in that the guiding bearing (13, 15) comprises an upper bearing and a lower bearing, which are arranged on the same side of the stator in the direction of the longitudinal axis of the spindle shaft. - a spindle having a holding section for releasably connecting to a spinning tube and - an electric motor having a rotor connected to a spindle shaft of the spindle in a rotationally fixed arrangement, wherein the spindle unit (3, 3', 3") does not have a housing separate from the spindle rail (2, 2', 2"), but rather said housing is formed by the mounting opening of the spindle rail (2, 2', 2"), and wherein a bearing (13, 15), which guides the spindle shaft, and a stator of the electric motor are positioned in the mounting opening, characterised in that the guiding bearing (13, 15) is integrated into a flange unit having a passage for the spindle shaft to be supported, the flange unit being exchangeably inserted into the mounting opening, and in that the guiding bearing (13, 15) comprises an upper bearing and a lower bearing, which are arranged on the same side of the stator in the direction of the longitudinal axis of the spindle shaft.
A method in a radio node (110, 210, 220, 601, 602) for handling mobility, between a first access network and a second access network of a different type, of a wireless terminal (120, 121, 701), comprising - collecting information of an on-going application or service for the wireless terminal (120, 121, 701), and being characterized by further comprising: - retrieving from a network database or from the terminal (120, 900) information whether the on-going application or service supports application or service mobility comprising an Internet Protocol address change of the wireless terminal; and - deciding to initiate or allow a mobility process, between the first access network and the second access network, of the wireless terminal (120, 121, 701) based on the retrieved information. - collecting information of an on-going application or service for the wireless terminal (120, 121, 701), and being characterized by further comprising: - retrieving from a network database or from the terminal (120, 900) information whether the on-going application or service supports application or service mobility comprising an Internet Protocol address change of the wireless terminal; and - deciding to initiate or allow a mobility process, between the first access network and the second access network, of the wireless terminal (120, 121, 701) based on the retrieved information.
An isolated peptide consisting of an amino acid sequence that is at least 70% identical to the amino acid sequence: YAIGYSCKDYK (SEQ ID NO: 1); wherein the peptide is capable of stimulating production of one or more extracellular matrix proteins in fibroblast cells.
A digital signal recording/reproducing apparatus for recording an inputted digital signal into a recording medium and reproducing said digital signal from said recording medium, wherein the inputted digital signal includes: copy control information, for instructing at least copy-enable or copy-disable; the apparatus comprising: a recording circuit for recording said digital signal into said recording medium; a reproducing circuit for reproducing said digital signal from said recording medium; and a detecting/controlling circuit (27, 29, 13, 14) for detecting said copy control information and controlling said recording circuit and said reproducing circuit; characterised in that: the inputted digital signal includes: a control flag indicating temporary copy permission in relation to the inputted digital signal, a recording medium flag indicating information as to a type of a recording medium into which a recording is permitted, and a reproducing time-period flag indicating information as to a time-period during which a reproduction is permitted; the detecting/controlling circuit is capable of detecting said control flag, said recording medium flag and said reproducing time-period flag; in accordance with a condition of said control flag, and if said recording medium is,a recording medium specified by said recording medium flag, the detecting/controlling circuit can temporarily record said digital signal into said recording medium even if said copy control information states copy-disable and can permit reproduction of a temporarily recorded digital signal within a predetermined period indicated by the reproducing time-period flag after the temporarily recorded digital signal has been recorded. a recording circuit for recording said digital signal into said recording medium; a reproducing circuit for reproducing said digital signal from said recording medium; and a detecting/controlling circuit (27, 29, 13, 14) for detecting said copy control information and controlling said recording circuit and said reproducing circuit; the inputted digital signal includes: a control flag indicating temporary copy permission in relation to the inputted digital signal, a recording medium flag indicating information as to a type of a recording medium into which a recording is permitted, and a reproducing time-period flag indicating information as to a time-period during which a reproduction is permitted; the detecting/controlling circuit is capable of detecting said control flag, said recording medium flag and said reproducing time-period flag; in accordance with a condition of said control flag, and if said recording medium is,a recording medium specified by said recording medium flag, the detecting/controlling circuit can temporarily record said digital signal into said recording medium even if said copy control information states copy-disable and can permit reproduction of a temporarily recorded digital signal within a predetermined period indicated by the reproducing time-period flag after the temporarily recorded digital signal has been recorded.
A wing for an aircraft, comprising a lift assisting device of a leading edge of said wing and an actuation system for deploying and retracting said lift assisting device, the actuation system comprising: a track pivotally coupled to the lift assisting device, the track having first and second outer surfaces and side surfaces; a shaft (90, 124) rotationally coupled within the wing of the aircraft and operable, in response to flight control signals, to deploy or retract the lift assisting device; means for actuating the lift assisting device, coupled to the shaft, between a retracted position to a deployed position along an arcuate path; a plurality of track roller bearings (100, 102, 104, 106, 108, 200, 500) rotatably contacting the first and second outer surfaces of the track to guide the track along the arcuate path; and the plurality of track roller bearings (100, 102, 104, 106, 108, 200, 500) including at least one lined track roller assembly; each of the at least one lined track roller assemblies comprises an inner ring having an outer bearing surface and an outer ring having an inner bearing surface the inner ring being disposed at least partially in the outer ring, characterized in that the inner ring has a continuous body portion that extends continuously from a first end to a second end of the inner ring and a self-lubricating liner is disposed on at least one of the outer bearing surface and the inner bearing surface. a track pivotally coupled to the lift assisting device, the track having first and second outer surfaces and side surfaces; a shaft (90, 124) rotationally coupled within the wing of the aircraft and operable, in response to flight control signals, to deploy or retract the lift assisting device; means for actuating the lift assisting device, coupled to the shaft, between a retracted position to a deployed position along an arcuate path; a plurality of track roller bearings (100, 102, 104, 106, 108, 200, 500) rotatably contacting the first and second outer surfaces of the track to guide the track along the arcuate path; and the plurality of track roller bearings (100, 102, 104, 106, 108, 200, 500) including at least one lined track roller assembly; each of the at least one lined track roller assemblies comprises an inner ring having an outer bearing surface and an outer ring having an inner bearing surface the inner ring being disposed at least partially in the outer ring, characterized in that the inner ring has a continuous body portion that extends continuously from a first end to a second end of the inner ring and a self-lubricating liner is disposed on at least one of the outer bearing surface and the inner bearing surface.
A positive electrode active material that is used for a positive electrode for a lithium ion secondary battery, the positive electrode active material comprising: positive electrode active material particles A represented by Formula: Li α Ni x Co y M 1 (1-x-y) O 2 (where 0<α≤1.15, 0.90<x≤0.98, 0<y≤0.10, and 0<(1-x-y)); and positive electrode active material particles B represented by Formula: Li β Ni a Co b M 2 (1-a-b) O 2 (where 0<β≤1.15, 0.70≤a≤0.90, 0<b≤0.20, and 0<(1-a-b)), wherein M 1 and M 2 each independently represent one element or two or more elements selected from the group consisting of Li, B, Mg, Al, Fe, and Mn, and characterized in that, in a case where a total amount of the positive electrode active material particles A and the positive electrode active material particles B is represented by 100 parts by mass, a mixing amount of the positive electrode active material particles A is equal to or more than 40 parts by mass and equal to or less than 97 parts by mass, and a mixing amount of the positive electrode active material particles B is equal to or more than 3 parts by mass and equal to or less than 60 parts by mass. positive electrode active material particles A represented by Formula: Li α Ni x Co y M 1 (1-x-y) O 2 (where 0<α≤1.15, 0.90<x≤0.98, 0<y≤0.10, and 0<(1-x-y)); and positive electrode active material particles B represented by Formula: Li β Ni a Co b M 2 (1-a-b) O 2 (where 0<β≤1.15, 0.70≤a≤0.90, 0<b≤0.20, and 0<(1-a-b)), wherein M 1 and M 2 each independently represent one element or two or more elements selected from the group consisting of Li, B, Mg, Al, Fe, and Mn, and characterized in that, in a case where a total amount of the positive electrode active material particles A and the positive electrode active material particles B is represented by 100 parts by mass, a mixing amount of the positive electrode active material particles A is equal to or more than 40 parts by mass and equal to or less than 97 parts by mass, and a mixing amount of the positive electrode active material particles B is equal to or more than 3 parts by mass and equal to or less than 60 parts by mass.
A well torpedo system comprising: a torpedo configured to be advanced in a wellbore of a subterranean well, the torpedo comprising: an integrated spool configured to hold a fiber-optic umbilical comprising a FO line (900, 1000) configured to couple to a surface component; and a jet-pump engine configured to combust solid propellant to generate thrust to propel advancement of the torpedo in the wellbore, the jet-pump engine comprising: the solid propellant; an igniter (510, 610) configured to ignite the solid propellant to generate gas; a mixing chamber; a well fluid inlet that is configured to route well fluid from the wellbore into the mixing chamber; and an exhaust port (506, 606); wherein the gas is routed into the mixing chamber to mix with the well fluid in the mixing chamber, and a resultant mixture of the gas and the well fluid is expelled from the exhaust port to generate the thrust to propel advancement of the torpedo in the wellbore. an integrated spool configured to hold a fiber-optic umbilical comprising a FO line (900, 1000) configured to couple to a surface component; and a jet-pump engine configured to combust solid propellant to generate thrust to propel advancement of the torpedo in the wellbore, the jet-pump engine comprising: the solid propellant; an igniter (510, 610) configured to ignite the solid propellant to generate gas; a mixing chamber; a well fluid inlet that is configured to route well fluid from the wellbore into the mixing chamber; and an exhaust port (506, 606); the solid propellant; an igniter (510, 610) configured to ignite the solid propellant to generate gas; a mixing chamber; a well fluid inlet that is configured to route well fluid from the wellbore into the mixing chamber; and an exhaust port (506, 606);
A passive safety system for removing heat from a nuclear power system, comprising: a shroud structure including a body portion and an upper portion, the upper portion including an outlet opening; a steam generator within the body portion of the shroud structure, an inner surface of the body portion of the shroud structure and an outer surface of the steam generator defining a coolant passage therebetween, the coolant passage being in fluidic communication with the outlet opening; a thermoelectric device disposed in the coolant passage and in thermal contact with the steam generator, the thermoelectric device configured to generate a voltage based on a temperature difference between opposite parts of the thermoelectric device, the thermoelectric device being a sheet-like article having a heat absorption side and an opposing heat rejection side, the heat absorption side facing the outer surface of the steam generator, the heat rejection side facing the inner surface of the body portion of the shroud structure; and a fan arrangement disposed above the steam generator and in electrical connection with the thermoelectric device, the fan arrangement configured to increase a coolant flow through the coolant passage to the outlet opening based on the voltage from the thermoelectric device. a shroud structure including a body portion and an upper portion, the upper portion including an outlet opening; a steam generator within the body portion of the shroud structure, an inner surface of the body portion of the shroud structure and an outer surface of the steam generator defining a coolant passage therebetween, the coolant passage being in fluidic communication with the outlet opening; a thermoelectric device disposed in the coolant passage and in thermal contact with the steam generator, the thermoelectric device configured to generate a voltage based on a temperature difference between opposite parts of the thermoelectric device, the thermoelectric device being a sheet-like article having a heat absorption side and an opposing heat rejection side, the heat absorption side facing the outer surface of the steam generator, the heat rejection side facing the inner surface of the body portion of the shroud structure; and a fan arrangement disposed above the steam generator and in electrical connection with the thermoelectric device, the fan arrangement configured to increase a coolant flow through the coolant passage to the outlet opening based on the voltage from the thermoelectric device.