mhurhangee/patent-ind-claim-en huggingface dataset:
Traction battery (1, 1 I , 1 II , 101, 101 I , 101 II , 201, 301), in particular for a motor vehicle such as a passenger car, comprising at least one cooling plate (139, 139 I , 139 II ), and comprising secondary cells (3, 3 I , 3 II , 3 III 103, 103 I ), which are part of a module having a module volume , and which have in section a rectangular, elongated basic shape , wherein the basic shape extends in a width to form a conversion volume containing active elements layered parallel to one another, and the conversion volume is part of the module volume of the traction battery (1, 1 I , 1 II , 101, 101 I , 101 II , 201, 301), characterized in that the cooling plate (139, 139 I , 139 II ) is a sandwich-type cooling plate (139, 139 I , 139 II ) which is arranged between two adjacent electrochemical secondary cells (3, 3 I , 3 II , 3 III , 103, 103 I ), and in that the secondary cells (3, 3 I , 3 II , 3 III , 103, 103 I ) are stacked, prismatic electrochemical secondary cells (3, 3 I , 3 II , 3 III , 103, 103 I ), wherein the basic shape has a length , extending along a long side (7, 7 I ), which is at least three times a height , extending along a high side (9, 9 I , 109, 109 I ), of the basic shape , and in that a sectional area produced by the section has an active surface across at least 80% thereof, and/or an active volume , resulting from the active surface times the width , occupies at least 60% of the module volume .
A thrombectomy catheter , the catheter comprising: a tubular catheter shaft comprising: a distal end and a catheter lumen with a longitudinal axis extending therethrough; one or more pull cable guide tubes comprising pull cable lumens disposed about the circumference of the catheter lumen and extending the longitudinal length of the catheter shaft; and one or more pull cables disposed within the pull cable lumens and capable of being operably tensioned by a user of the catheter; an expansile tip having a collapsed delivery configuration and a radially expanded deployed configuration, the tip comprising a plurality of leaflets around the longitudinal axis and configured to assume a funnel profile when the expansile tip is in the expanded deployed configuration; characterized in that the one or more pull cables are configured to actuate the expansile tip from the collapsed delivery configuration to the expanded deployed configuration when a tensile force is applied to the pull cables. a tubular catheter shaft comprising: a distal end and a catheter lumen with a longitudinal axis extending therethrough; one or more pull cable guide tubes comprising pull cable lumens disposed about the circumference of the catheter lumen and extending the longitudinal length of the catheter shaft; and one or more pull cables disposed within the pull cable lumens and capable of being operably tensioned by a user of the catheter; a distal end and a catheter lumen with a longitudinal axis extending therethrough; one or more pull cable guide tubes comprising pull cable lumens disposed about the circumference of the catheter lumen and extending the longitudinal length of the catheter shaft; and one or more pull cables disposed within the pull cable lumens and capable of being operably tensioned by a user of the catheter; an expansile tip having a collapsed delivery configuration and a radially expanded deployed configuration, the tip comprising a plurality of leaflets around the longitudinal axis and configured to assume a funnel profile when the expansile tip is in the expanded deployed configuration; characterized in that the one or more pull cables are configured to actuate the expansile tip from the collapsed delivery configuration to the expanded deployed configuration when a tensile force is applied to the pull cables.
Heat-exchange module comprising a radiator and at least one functional element these being connected to one another via fixing means in such a way that the functional element extends in a plane parallel to the core bundle of the radiator, which defines a plane with axes Y and Z, an axis X being perpendicular to the plane of the core bundle of the radiator , the radiator and the functional element are intended to have a flow of air passed through them, the said fixing means respectively comprising an assembly device for assembling the radiator with the functional element via one of the ends of the core bundle of the radiator, and an indexing and immobilizing device which is situated at the other of the ends of the core bundle, characterized in that the radiator comprises an upper bridge passing around a bottle that stores refrigerant fluid and is assembled to a manifold of a condenser , the functional element being a secondary radiator , the assembly device assembling the functional element to the radiator being produced in part by the upper bridge allowing the radiators to be mechanically connected to one another in order to create a heat-exchanger stack with a radiator , a condenser and a radiator arranged in that order along the axis X, the upper bridge comprising an arm of substantially circular-arc shaped cross section the concave face of which faces the bottle , a free end of the bridge comprising a passage extending transversely through the arm, the passage being delimited by end stops of axes Z and X and configured in such a way as to accept an upper finger projecting out from the radiator .
Expression system for the heterologous expression of a nucleic acid sequence of interest in a mammalian cell, the system comprising: (i) a first genetic entity, comprising: a nucleic acid sequence encoding a functional Epstein Barr virus nuclear antigen 1 (EBNA-1), the nucleic acid sequence being operably linked to regulatory elements that allow for expression of the nucleic acid sequence encoding a functional EBNA-1; (ii) a second genetic entity, comprising: a nucleic acid sequence encoding a functional nucleoside diphosphate kinase A (NDPK-A), the nucleic acid sequence being operably linked to regulatory elements that allow for expression of the nucleic acid sequence encoding a functional NDPK-A; (iii) a third genetic entity, comprising: the nucleic acid sequence of interest being operably linked to regulatory elements that allow for expression of the nucleic acid sequence of interest; and (iv) a fourth genetic entity, comprising: the Epstein Barr virus origin of replication P (OriP) sequence or one or more subsequences thereof, wherein the one or more subsequences comprise at least the 'Family of Repeats' DNA-binding site for EBNA-1 and the 'Dyad Symmetry' DNA-binding site for EBNA-1. (i) a first genetic entity, comprising: a nucleic acid sequence encoding a functional Epstein Barr virus nuclear antigen 1 (EBNA-1), the nucleic acid sequence being operably linked to regulatory elements that allow for expression of the nucleic acid sequence encoding a functional EBNA-1; (ii) a second genetic entity, comprising: a nucleic acid sequence encoding a functional nucleoside diphosphate kinase A (NDPK-A), the nucleic acid sequence being operably linked to regulatory elements that allow for expression of the nucleic acid sequence encoding a functional NDPK-A; (iii) a third genetic entity, comprising: the nucleic acid sequence of interest being operably linked to regulatory elements that allow for expression of the nucleic acid sequence of interest; and (iv) a fourth genetic entity, comprising: the Epstein Barr virus origin of replication P (OriP) sequence or one or more subsequences thereof, wherein the one or more subsequences comprise at least the 'Family of Repeats' DNA-binding site for EBNA-1 and the 'Dyad Symmetry' DNA-binding site for EBNA-1.
A thrust vector control system , comprising: a yaw actuator configured to actuate along a yaw axis; a pitch actuator configured to actuate along a pitch axis; and an anti-stall hydraulic pump configured to provide a hydraulic fluid to the yaw actuator and the pitch actuator , the anti-stall hydraulic pump comprising: a swash plate configured to vary a displacement of the anti-stall hydraulic pump ; and an override piston configured to increase a force against the swash plate to decrease the displacement of the anti-stall hydraulic pump ; wherein the anti-stall hydraulic pump comprises a gerotor pump ; and the system further comprising an anti-stall valve configured to monitor an output pressure of hydraulic fluid discharged from the gerotor pump , wherein the anti-stall valve is in fluid communication with the override piston . a yaw actuator configured to actuate along a yaw axis; a pitch actuator configured to actuate along a pitch axis; and an anti-stall hydraulic pump configured to provide a hydraulic fluid to the yaw actuator and the pitch actuator , the anti-stall hydraulic pump comprising: a swash plate configured to vary a displacement of the anti-stall hydraulic pump ; and an override piston configured to increase a force against the swash plate to decrease the displacement of the anti-stall hydraulic pump ; wherein the anti-stall hydraulic pump comprises a gerotor pump ; and the system further comprising a swash plate configured to vary a displacement of the anti-stall hydraulic pump ; and an override piston configured to increase a force against the swash plate to decrease the displacement of the anti-stall hydraulic pump ; wherein the anti-stall hydraulic pump comprises a gerotor pump ; and the system further comprising an anti-stall valve configured to monitor an output pressure of hydraulic fluid discharged from the gerotor pump , wherein the anti-stall valve is in fluid communication with the override piston .
Wiper blade comprising a resilient support rail and a wiper strip which is fastened to the support rail , wherein the wiper strip has a wiper lip with a substantially rigid cross-sectional structure and the wiper lip is mounted in cross section between a first bending region and a second bending region , wherein the first bending region and/or the second bending region has at least one first support shoulder for supporting the wiper lip , wherein the wiper lip has a substantially triangular shape, characterized in that the wiper lip has in cross section a first incision at the level of the first support shoulder , said incision being intended to receive the first support shoulder during operation.
A portable textile treatment device (1, 1a, 1b, 1c, 1d, 1e, 1f 1g, 1h) comprising: - a heatable soleplate intended to be in contact with a textile (TXT) for treating the textile; - a steam engine for generating steam to be supplied to the textile; - an image sensor for taking an image of the textile to be treated; - a control unit configured for: a) executing an algorithm stored in said portable textile treatment device, using the taken image as an input of said algorithm, to obtain a classification of the textile, wherein said classification is a fabric level of delicateness for treating the textile, said fabric level of delicateness classifying the textile as delicate or tough; and b) controlling, based on said classification, at least one operating parameter of the portable textile treatment device, wherein the image sensor and the control unit are integrated within the portable textile treatment device, wherein the at least one operating parameter comprises an amount of steam applied on the textile by the steam engine, and wherein the amount of steam is set in the range 50-99 g/minute if the fabric level of delicateness is classified as delicate, and set in the range 100-160 g/minute if the fabric level of delicateness is classified as tough. - a heatable soleplate intended to be in contact with a textile (TXT) for treating the textile; - a steam engine for generating steam to be supplied to the textile; - an image sensor for taking an image of the textile to be treated; - a control unit configured for: a) executing an algorithm stored in said portable textile treatment device, using the taken image as an input of said algorithm, to obtain a classification of the textile, wherein said classification is a fabric level of delicateness for treating the textile, said fabric level of delicateness classifying the textile as delicate or tough; and b) controlling, based on said classification, at least one operating parameter of the portable textile treatment device, a) executing an algorithm stored in said portable textile treatment device, using the taken image as an input of said algorithm, to obtain a classification of the textile, wherein said classification is a fabric level of delicateness for treating the textile, said fabric level of delicateness classifying the textile as delicate or tough; and b) controlling, based on said classification, at least one operating parameter of the portable textile treatment device, wherein the image sensor and the control unit are integrated within the portable textile treatment device, wherein the at least one operating parameter comprises an amount of steam applied on the textile by the steam engine, and wherein the amount of steam is set in the range 50-99 g/minute if the fabric level of delicateness is classified as delicate, and set in the range 100-160 g/minute if the fabric level of delicateness is classified as tough.
An automatic analysis apparatus comprising: a plurality of detection sections, each of which has a reaction container installation section in which a reaction container in which a sample and a reagent react is placed; a light source installed at the bottom of the reaction container installation section and projecting light; a first detector installed in the reaction container installation section and detecting the light scattered from the reaction container in the light projected from the light source ; and a reaction container transfer mechanism used commonly for the detection sections and holding, transferring, and placing the reaction containers ; characterized in that the automatic analysis apparatus further comprises: a second detector installed in the reaction container transfer mechanism and detecting the light projected from the light sources . a plurality of detection sections, each of which has a reaction container installation section in which a reaction container in which a sample and a reagent react is placed; a light source installed at the bottom of the reaction container installation section and projecting light; a first detector installed in the reaction container installation section and detecting the light scattered from the reaction container in the light projected from the light source ; and a reaction container transfer mechanism used commonly for the detection sections and holding, transferring, and placing the reaction containers ; characterized in that the automatic analysis apparatus further comprises: a second detector installed in the reaction container transfer mechanism and detecting the light projected from the light sources .
A module , comprising: a cell stack enclosed within a housing, and comprising a plurality of alternating ion depleting compartments and ion concentrating compartments, the cell stack having a bottom plane , a center plane , and a top plane when the cell stack is in a horizontal position; an inlet manifold comprising a bottom face and a top face located on opposite sides of the inlet manifold , wherein the inlet manifold is in fluid communication with an inlet of each of the plurality of alternating ion depleting compartments and ion concentrating compartments; an outlet manifold in fluid communication with an outlet of each of the plurality of alternating ion depleting compartments and ion concentrating compartments; a frame positioned between the housing and the cell stack to provide additional support to the cell stack, wherein the frame comprises the inlet manifold and outlet manifold configured to allow the flow of liquid in and out of the cell stack ; and a first flow distribution system, in fluid communication with the inlet manifold , characterised by the first flow distribution system including a first ramp positioned on the bottom face of the inlet manifold , wherein the tangent of the top of the first ramp is directed towards the center plane of the cell stack such that the first ramp redirects the momentum of the incoming fluid flow away from the bottom plane of the cell stack to the top and center planes of the cell stack , thereby promoting the circulation of the flow of fluid in the inlet manifold and uniform fluid distribution to the cell stack . a cell stack enclosed within a housing, and comprising a plurality of alternating ion depleting compartments and ion concentrating compartments, the cell stack having a bottom plane , a center plane , and a top plane when the cell stack is in a horizontal position; an inlet manifold comprising a bottom face and a top face located on opposite sides of the inlet manifold , wherein the inlet manifold is in fluid communication with an inlet of each of the plurality of alternating ion depleting compartments and ion concentrating compartments; an outlet manifold in fluid communication with an outlet of each of the plurality of alternating ion depleting compartments and ion concentrating compartments; a frame positioned between the housing and the cell stack to provide additional support to the cell stack, wherein the frame comprises the inlet manifold and outlet manifold configured to allow the flow of liquid in and out of the cell stack ; and a first flow distribution system, in fluid communication with the inlet manifold ,
An adaptive interposer assembly comprising an adaptive interposer and first and second electronic devices , wherein the adaptive interposer is operably disposable and disposed between first and second solder materials of the first and second electronic devices , respectively, wherein the adaptive interposer comprises: a plate element formed to define cavities ; and third solder material disposed in the cavities to be electrically communicative with the first and second solder materials ; wherein the third solder material is more compliant and has a higher melting temperature than at least the second solder materials , characterised in that an uppermost plane of the third solder material and a lowermost plane of the first solder materials is flush with an uppermost plane of the plate element , and a lowermost plane of the third solder material and an uppermost plane of the second solder materials is flush with a lowermost plane of the plate element . wherein the adaptive interposer is operably disposable and disposed between first and second solder materials of the first and second electronic devices , respectively, wherein the adaptive interposer comprises: a plate element formed to define cavities ; and third solder material disposed in the cavities to be electrically communicative with the first and second solder materials ; a plate element formed to define cavities ; and third solder material disposed in the cavities to be electrically communicative with the first and second solder materials ; wherein the third solder material is more compliant and has a higher melting temperature than at least the second solder materials , characterised in that an uppermost plane of the third solder material and a lowermost plane of the first solder materials is flush with an uppermost plane of the plate element , and a lowermost plane of the third solder material and an uppermost plane of the second solder materials is flush with a lowermost plane of the plate element .
An isolated polypeptide consisting of an amino acid sequence selected from the group consisting of SEQ ID NO: 1, SEQ ID NO: 2, SEQ ID NO: 3, and SEQ ID NO: 4, for use in treating inflammation in a subject.
A microphone, comprising: a silicon substrate ; a diaphragm disposed over the silicon substrate ; and a backplate disposed over the diaphragm , the backplate having a plurality of through holes formed therein and a barrier structure , and the plurality of through holes being arranged in a through hole pattern on the backplate ; the barrier structure having one or more protruding portions extending from at least one part of edges of the barrier structure , Characterized in that the protruding portion of the barrier structure has a thickness smaller than the thickness of the backplate , thereby the section shape of at least one through hole being a shape with one or more inwardly concave portions. a silicon substrate ; a diaphragm disposed over the silicon substrate ; and a backplate disposed over the diaphragm , the backplate having a plurality of through holes formed therein and a barrier structure , and the plurality of through holes being arranged in a through hole pattern on the backplate ;
A waveguide, comprising: a signal carrying waveguide region configured to propagate one or more modes comprising light having a first wavelength λ 1 and a second wavelength λ 2 ; a sink region arranged for removing any light coupled to it; and an auxiliary waveguide region configured to resonantly couple light of said second wavelength λ 2 from said signal carrying waveguide region to said sink region, wherein said signal carrying waveguide region is doped with a lasing element including a first atomic transition that lases at said first wavelength λ 1 and a second atomic transition that lases at said second wavelength λ 2 , wherein said second atomic transition is the dominant atomic transition of said lasing element. a signal carrying waveguide region configured to propagate one or more modes comprising light having a first wavelength λ 1 and a second wavelength λ 2 ; a sink region arranged for removing any light coupled to it; and an auxiliary waveguide region configured to resonantly couple light of said second wavelength λ 2 from said signal carrying waveguide region to said sink region, wherein said signal carrying waveguide region is doped with a lasing element including a first atomic transition that lases at said first wavelength λ 1 and a second atomic transition that lases at said second wavelength λ 2 , wherein said second atomic transition is the dominant atomic transition of said lasing element.