mhurhangee/patent-ind-claim-en huggingface dataset:
A rolling element bearing assembly for an electrically-assisted turbocharger, the bearing assembly comprising: an inner race having an outer diameter defining an inner raceway ; an outer race having an outer diameter and an inner diameter , the outer-race inner diameter defining an outer raceway ; a single row of rolling elements between the inner raceway and the outer raceway ; a housing ; and a squeeze-film damper integrated with the outer race to form a single component, the squeeze-film damper providing a squeeze-film damper surface between the outer-race outer diameter and the housing , wherein the outer race has a circumferentially arranged integral end-stop flange forming a single component therewith, characterized in that the end-stop flange defines a radially extending contiguous boundary of the squeeze-film damper surface . an inner race having an outer diameter defining an inner raceway ; an outer race having an outer diameter and an inner diameter , the outer-race inner diameter defining an outer raceway ; a single row of rolling elements between the inner raceway and the outer raceway ; a housing ; and a squeeze-film damper integrated with the outer race to form a single component, the squeeze-film damper providing a squeeze-film damper surface between the outer-race outer diameter and the housing , wherein the outer race has a circumferentially arranged integral end-stop flange forming a single component therewith, characterized in that the end-stop flange defines a radially extending contiguous boundary of the squeeze-film damper surface .
A method of processing an observation information, comprising: obtaining (S210) a plurality of observation information generated by a retrieval system in a process of processing each of a plurality of query requests in different scenes, wherein each observation information is used to record a processing result of various processing units for a respective one of the plurality of query requests characterized by : determining (S220) a scene identification corresponding to each observation information based on a mapping relationship between the scene identification and the observation information, wherein the scene identification is a first scene identification indicating that the scene corresponding to the observation information is a first scene, or a second scene identification indicating that the scene corresponding to the observation information is a second scene, wherein the observation information in the first scene has smaller amount of data than the observation information in the second scene; appending respective scene identification to each observation information; clustering the plurality of observation information by scene according to the scene identifications of the plurality of observation information; and in response of determining that the scene identification is the first scene identification, outputting the observation information to a local position ; in response of determining that the scene identification is the second scene identification, outputting the observation information to a remote data storage area . determining (S220) a scene identification corresponding to each observation information based on a mapping relationship between the scene identification and the observation information, wherein the scene identification is a first scene identification indicating that the scene corresponding to the observation information is a first scene, or a second scene identification indicating that the scene corresponding to the observation information is a second scene, wherein the observation information in the first scene has smaller amount of data than the observation information in the second scene; appending respective scene identification to each observation information; clustering the plurality of observation information by scene according to the scene identifications of the plurality of observation information; and in response of determining that the scene identification is the first scene identification, outputting the observation information to a local position ; in response of determining that the scene identification is the second scene identification, outputting the observation information to a remote data storage area .
A set of points, having a slide chair , a fixed rail , a point blade lying inward of the fixed rail , and, underneath in the installed condition, a sleeper or ballastless track, wherein the slide chair has a baseplate that, in the installed condition, lies on the sleeper or ballastless track and, in the moved-away position, extends under the fixed rail from outward of the fixed rail to inward of the point blade , the fixed rail is held on the outside by a guide fin that projects from the baseplate , and the slide chair has a slide plate , which is inward of the fixed rail and on the upper side whereof, as the sliding face , the point blade lies such that it can be displaced, characterised in that the guide fin is provided on a fin part that is detachably secured to the baseplate such that, for the purpose of replacement where necessary, once the fin part has been detached the slide chair can be displaced, together with its baseplate , inwards towards the track centre on the sleeper or ballastless track underneath and can be removed.
A closure for a liquid container comprising a. a base portion comprising i. a top deck with a spout extending in an upper direction (z) away from the top deck and ii. an outer skirt extending from an outer end of the top deck in a lower direction away from the top deck , said outer skirt comprising a fastening means to interconnect the closure to a neck of the container; b. a top portion comprising i. an annular base interconnectable to the base portion and ii. a cover with an outer wall interconnected to the annular base , and iii. at least one tamper element extending from the annular base in the upper direction (z) above the annular base characterised in the tamper element extending along the outer wall spaced a distance apart from the outer wall and being interconnected to the outer wall by a predetermined breaking linkage , wherein the tamper element is interconnected to the annular base by a hinge arrangement , said hinge arrangement being arranged between the annular base and the at least one predetermined breaking linkage , such that the tamper element can be bent away from the outer wall after tearing the predetermined breaking linkage . a. a base portion comprising i. a top deck with a spout extending in an upper direction (z) away from the top deck and ii. an outer skirt extending from an outer end of the top deck in a lower direction away from the top deck , said outer skirt comprising a fastening means to interconnect the closure to a neck of the container; i. a top deck with a spout extending in an upper direction (z) away from the top deck and ii. an outer skirt extending from an outer end of the top deck in a lower direction away from the top deck , said outer skirt comprising a fastening means to interconnect the closure to a neck of the container; b. a top portion comprising i. an annular base interconnectable to the base portion and ii. a cover with an outer wall interconnected to the annular base , and iii. at least one tamper element extending from the annular base in the upper direction (z) above the annular base i. an annular base interconnectable to the base portion and ii. a cover with an outer wall interconnected to the annular base , and iii. at least one tamper element extending from the annular base in the upper direction (z) above the annular base
A temperature sensor for a rotating electric machine , comprising: a thermal sensing element that has a thermal sensing body and a conductive wire drawn from the thermal sensing body ; an external cable that has a core wire and an insulating film with which the core wire is coated; a connecting portion that electrically connects the conductive wire and the core wire ; and an insulating tube in which the conductive wire , the connecting portion , and a part of the external cable are inserted, wherein the insulating tube is formed from a resin material, by which the insulating tube is shrunken in a radial direction of the insulating tube and elongated in an axial direction of the insulating tube when heated, the insulating tube has an external cable side end portion that is fixed to the insulating film by thermal shrinkage in the radial direction, and the insulating tube has a thermal sensing body side end portion that presses the thermal sensing body by thermal elongation in the axial direction. a thermal sensing element that has a thermal sensing body and a conductive wire drawn from the thermal sensing body ; an external cable that has a core wire and an insulating film with which the core wire is coated; a connecting portion that electrically connects the conductive wire and the core wire ; and an insulating tube in which the conductive wire , the connecting portion , and a part of the external cable are inserted, wherein the insulating tube is formed from a resin material, by which the insulating tube is shrunken in a radial direction of the insulating tube and elongated in an axial direction of the insulating tube when heated, the insulating tube has an external cable side end portion that is fixed to the insulating film by thermal shrinkage in the radial direction, and the insulating tube has a thermal sensing body side end portion that presses the thermal sensing body by thermal elongation in the axial direction.
Device for measuring the concentration of an analyte in the blood or tissue of an animal or a human, which analyte passively diffused through the skin of said animal or human, particularly a premature infant, wherein for measuring said concentration the device comprises a means comprising at least a first and a second permeability with respect to said analyte, wherein the first permeability for said analyte differs from the second permeability for said analyte, a probe head for contacting the skin of said animal or said human, wherein the probe head comprises a membrane that is designed to be switched between a first state, in which said membrane comprises said first permeability with respect to said analyte, and a second state, in which said membrane comprises said second permeability with respect to said analyte; or the probe head comprising a membrane and a further membrane, wherein the membrane comprises said first permeability with respect to said analyte, and wherein the further membrane comprises said second permeability with respect to said analyte,. and wherein the device comprises an analyzing means for measuring the concentration of said analyte in the blood or tissue of said animal or said human, wherein said analyzing means is designed to measure a first concentration of the analyte diffused through the membrane residing in the first state or diffused through the membrane comprising the first permeability, and wherein said analyzing means is designed to measure a second concentration of the analyte diffused through the membrane residing in the second state or diffused through the further membrane comprising the second permeability, and wherein the analyzing means is designed to measure the concentration of the analyte in the blood or tissue using said first and second concentration. at least a first and a second permeability with respect to said analyte, wherein the first permeability for said analyte differs from the second permeability for said analyte, a probe head for contacting the skin of said animal or said human, wherein the probe head comprises a membrane that is designed to be switched between a first state, in which said membrane comprises said first permeability with respect to said analyte, and a second state, in which said membrane comprises said second permeability with respect to said analyte; or the probe head comprising a membrane and a further membrane, wherein the membrane comprises said first permeability with respect to said analyte, and wherein the further membrane comprises said second permeability with respect to said analyte,.
A lithium-ion battery, comprising a positive electrode plate, a negative electrode plate, a separator, and a non-aqueous electrolyte, wherein the positive electrode plate comprises Li 1+x Ni a Co b Me (1-a-b) O 2-c Y c , wherein -0.1≤x≤0.2, 0.8≤a<1, 0<b<1, 0<(1-a-b)<1, 0≤c<1, Me is selected from one or more of Mn, Al, Mg, Zn, Ga, Ba, Fe, Cr, Sn, V, Sc, Ti, and Zr, and Y is selected from one or more of F, Cl, and Br; the non-aqueous electrolyte comprises a non-aqueous solvent and a lithium salt, wherein the non-aqueous solvent comprises a carbonate solvent and a high oxidation potential solvent, the high oxidation potential solvent comprising a compound represented by Formula I and also comprising a compound represented by Formula (II); in formula I, R 1 and R 2 are independently selected from unsubstituted, partially halogenated, or fully halogenated alkyl groups having 1 to 5 carbon atoms, and at least one of R 1 and R 2 is a partially halogenated or fully halogenated alkyl group having 1 to 5 carbon atoms; and in formula II, R 3 is selected from partially halogenated or fully alkylene groups having 2 to 6 carbon atoms, wherein a halogen atom is selected from one or more of F, Cl, Br, and I. the positive electrode plate comprises Li 1+x Ni a Co b Me (1-a-b) O 2-c Y c , wherein -0.1≤x≤0.2, 0.8≤a<1, 0<b<1, 0<(1-a-b)<1, 0≤c<1, Me is selected from one or more of Mn, Al, Mg, Zn, Ga, Ba, Fe, Cr, Sn, V, Sc, Ti, and Zr, and Y is selected from one or more of F, Cl, and Br; the non-aqueous electrolyte comprises a non-aqueous solvent and a lithium salt, wherein the non-aqueous solvent comprises a carbonate solvent and a high oxidation potential solvent, the high oxidation potential solvent comprising a compound represented by Formula I and also comprising a compound represented by Formula (II); in formula I, R 1 and R 2 are independently selected from unsubstituted, partially halogenated, or fully halogenated alkyl groups having 1 to 5 carbon atoms, and at least one of R 1 and R 2 is a partially halogenated or fully halogenated alkyl group having 1 to 5 carbon atoms; and in formula II, R 3 is selected from partially halogenated or fully alkylene groups having 2 to 6 carbon atoms, wherein a halogen atom is selected from one or more of F, Cl, Br, and I.
A system comprising: an irrigation fluid source ; an inflow line that provides a fluid pathway to the irrigation fluid source ; and a multilayered dressing system, the multilayered dressing system comprising a hub having a manifold connected with the inflow line that provides the fluid pathway to the irrigation fluid source; a sealing layer having a first surface and a second surface, the first surface being coupled to the hub; a netting layer coupled to the second surface of the sealing layer, the netting layer defining multiple openings for fluid flow toward the hub; and an irrigation network coupled to the netting layer, the irrigation network including a plurality of tubes in fluid communication with the fluid pathway to the irrigation fluid source, characterized in that each tube defines a lumen that adjusts from a collapsed condition when subjected to a zero pressure and sub-atmospheric negative pressure to an expanded condition when subjected to positive pressure. an irrigation fluid source ; an inflow line that provides a fluid pathway to the irrigation fluid source ; and a multilayered dressing system, the multilayered dressing system comprising a hub having a manifold connected with the inflow line that provides the fluid pathway to the irrigation fluid source; a sealing layer having a first surface and a second surface, the first surface being coupled to the hub; a netting layer coupled to the second surface of the sealing layer, the netting layer defining multiple openings for fluid flow toward the hub; and an irrigation network coupled to the netting layer, the irrigation network including a plurality of tubes in fluid communication with the fluid pathway to the irrigation fluid source, characterized in that each tube defines a lumen that adjusts from a collapsed condition when subjected to a zero pressure and sub-atmospheric negative pressure to an expanded condition when subjected to positive pressure. a hub having a manifold connected with the inflow line that provides the fluid pathway to the irrigation fluid source; a sealing layer having a first surface and a second surface, the first surface being coupled to the hub; a netting layer coupled to the second surface of the sealing layer, the netting layer defining multiple openings for fluid flow toward the hub; and an irrigation network coupled to the netting layer, the irrigation network including a plurality of tubes in fluid communication with the fluid pathway to the irrigation fluid source, characterized in that each tube defines a lumen that adjusts from a collapsed condition when subjected to a zero pressure and sub-atmospheric negative pressure to an expanded condition when subjected to positive pressure.
A compound selected from the group consisting of tocotrienol quinones and tocotrienol hydroquinones for use in a method of treating or suppressing methylmalonic aciduria, isovaleric aciduria, or another organic aciduria in an individual.
Method for cleaning a vibratory membrane of a membrane aerosol generator of an inhalation therapy device , wherein a cleaning liquid is fed to the membrane , and the membrane is caused to vibrate in such a way that the cleaning liquid is transported through the openings in the membrane , characterised in that the cleaning liquid contains at least one surfactant and at least one enzyme, and the at least one enzyme is an enzyme for splitting proteins and/or peptides.
Vehicle having a braking device (21; 21') which has at least - a friction brake unit (22; 22') with at least brake components (31; 31') made of a composite material, - an electrical brake unit (24; 24') and - a brake control device (26; 26') with a monitoring device (50; 50') for monitoring a braking operation performed by the electrical brake unit (24; 24'), wherein, in a normal braking mode, the brake control device (26; 26') is provided to perform a braking operation with the electrical brake unit as a priority and, in a safety mode with a limitation of the electrical brake unit (24; 24') detected by the monitoring device (50; 50'), to perform the braking operation with the friction brake unit (22; 22') as a priority, and wherein the brake components (31; 31') of the friction brake unit (22; 22') are designed such that in the normal operating mode an oxidation limit temperature of the composite material is not exceeded, and in the safety mode the composite material can be operated in a temperature range which lies above the oxidation limit temperature. - a friction brake unit (22; 22') with at least brake components (31; 31') made of a composite material, - an electrical brake unit (24; 24') and - a brake control device (26; 26') with a monitoring device (50; 50') for monitoring a braking operation performed by the electrical brake unit (24; 24'),
Method for starting a combustion engine (VM) in a drive train with a hybridized dual clutch transmission with two clutches (K1, K2) and two sub-transmissions (TG1, TG2), an electric machine (EM) being attached to the electrified sub-transmission, and it being possible for the combustion engine (VM) to be connected via a separating clutch (K0) and via two clutches (K1, K2) to the two sub-transmissions (TG1, TG2), the combustion engine (VM) being started proceeding from purely electric driving operation via the electrified sub-transmission and a first gear stage in the electrified sub-transmission, the drive power of the electric machine (EM) being transmitted via the two clutches (K1, K2) to the non-electrified sub-transmission, the electrified sub-transmission being shifted into neutral while the non-electrified sub-transmission is operated in a second gear stage, characterized in that the separating clutch (K0) is closed after the two clutches (K1, K2) for the sub-transmissions (TG1, TG2) have been closed at least partially and the separating clutch (K0) is operated with slip until the idling rotational speed of the combustion engine (VM) is reached.
Vehicle comprising an internal combustion engine and an electric motor for driving the vehicle and comprising a hybrid drive transmission unit which has an output shaft , a power-split transmission which is interconnected between the internal combustion engine and the output shaft and has component transmissions and has component transmission clutches which are associated with the component transmissions , wherein the electric motor is coupled to one of the component transmissions which is close to the electric motor in order to be able to drive the output shaft by means of said component transmission, characterized by a torsion damping unit which is interconnected between the internal combustion engine and the power-split transmission and has an oscillating mass, and by a clutch which is interconnected between the internal combustion engine and the torsion damping unit .
A Cooling system of an internal combustion engine comprising a cooling fan and a driving shaft , said fan being connected to said driving shaft by means of a coupling system; said coupling system comprising: - a clutch comprising: ∘ a first clutch member axially movable and torsionally connected to the driving shaft or to the fan ; ∘ a second axially fixed clutch member connected to the fan or to the driving shaft ; - a magnetic element disposed on said first clutch member ; - an electromagnet placed at an intake aperture so as to project towards the fan and configured to attract said magnetic element when electrically powered to engage the fan on the driving shaft if the internal engine temperature is above a reference value; characterized in that said electromagnet is connected to a container of the fan comprising said intake aperture . - a clutch comprising: ∘ a first clutch member axially movable and torsionally connected to the driving shaft or to the fan ; ∘ a second axially fixed clutch member connected to the fan or to the driving shaft ; ∘ a first clutch member axially movable and torsionally connected to the driving shaft or to the fan ; ∘ a second axially fixed clutch member connected to the fan or to the driving shaft ; - a magnetic element disposed on said first clutch member ; - an electromagnet placed at an intake aperture so as to project towards the fan and configured to attract said magnetic element when electrically powered to engage the fan on the driving shaft if the internal engine temperature is above a reference value; characterized in that said electromagnet is connected to a container of the fan comprising said intake aperture .
Packaging apparatus for automatically packaging smoking articles each comprising a casing having at least one rear zone (Z3) configured to be closed, said apparatus comprising, disposed in sequence in a direction of working (X), a first closing assembly which can be selectively activated to close said rear zone (Z3) of said casing in accordance with a first closing mode, and a cutting assembly configured to selectively cut said rear zone (Z3) of said casing , characterized in that it also comprises a second closing assembly which can be selectively activated to close said rear zone (Z3) of said casing in accordance with a second closing mode different from said first closing mode, said second closing assembly being disposed downstream of the cutting assembly in said direction of working (X).