mhurhangee/ep-ind-claims huggingface dataset:
Heating, ventilation and/or air conditioning system for a motor vehicle, comprising a heating, ventilation and/or air conditioning housing able to allow heat treatment of a flow of air conditioning air intended to maintain a desired temperature inside the vehicle interior, the heating, ventilation and/or air conditioning housing comprising main distribution means (132a, 132b, 133a, 133b, 134a, 134b) for distributing the air conditioning air inside the vehicle interior so as to define a limited number of distribution configurations, the heating, ventilation and/or air conditioning system comprising an additional module comprising additional distribution means (212a, 212b, 213a, 213b) for distributing the flow of air conditioning air outside the vehicle interior and the additional module comprising at least one additional outlet pipe letting the air conditioning air out of the vehicle interior, the heating, ventilation and/or air conditioning housing comprising at least one main outlet section (112a, 112b, 113a, 113b, 114a, 114b) for letting air conditioning air out into the vehicle interior, the additional outlet pipe communicating with the main outlet section (112a, 112b, 113a, 113b, 114a, 114b) letting air conditioning air out into the vehicle interior, characterized in that the additional distribution means (212a, 212b, 213a, 213b) are able to direct the flow of air conditioning air leaving through the main outlet section (112a, 112b, 113a, 113b, 114a, 114b) towards the additional pipe and/or towards at least one diffuser (122a, 122b, 123a, 123b, 124a, 124b) opening into the vehicle interior.
A bilateral hearing prosthesis system, comprising: a first hearing prosthesis including: at least a first sound input element configured to receive sound signals, and a first automatic gain control system configured to attenuate levels of the sound signals received at the at least first sound input element; and a second hearing prosthesis including: at least a second sound input element configured to receive sound signals, and a second AGC system configured to attenuate levels of the sound signals received at the at least second sound input element, wherein the first and second hearing prostheses (102R, 102L) are configured to exchange AGC updates with one another at an AGC update rate selected based on a operational timing of one or more of the first or second AGC systems (220R, 220L), characterized in that the first and second AGC systems (220R, 220L) each comprise a plurality of AGC blocks (422, 424, 426), wherein the plurality of AGC blocks (422, 424, 426) each have different associated kneepoints and time constants, and wherein the AGC update rate is a function of a time constant associated with one of the plurality of AGC blocks of the first or second AGC systems (220R, 220L). a first hearing prosthesis including: at least a first sound input element configured to receive sound signals, and a first automatic gain control system configured to attenuate levels of the sound signals received at the at least first sound input element; and at least a first sound input element configured to receive sound signals, and a first automatic gain control system configured to attenuate levels of the sound signals received at the at least first sound input element; and a second hearing prosthesis including: at least a second sound input element configured to receive sound signals, and a second AGC system configured to attenuate levels of the sound signals received at the at least second sound input element, at least a second sound input element configured to receive sound signals, and a second AGC system configured to attenuate levels of the sound signals received at the at least second sound input element, wherein the first and second hearing prostheses (102R, 102L) are configured to exchange AGC updates with one another at an AGC update rate selected based on a operational timing of one or more of the first or second AGC systems (220R, 220L), characterized in that the first and second AGC systems (220R, 220L) each comprise a plurality of AGC blocks (422, 424, 426), wherein the plurality of AGC blocks (422, 424, 426) each have different associated kneepoints and time constants, and wherein the AGC update rate is a function of a time constant associated with one of the plurality of AGC blocks of the first or second AGC systems (220R, 220L).
Microfluidic system for assembling and subsequently cultivating complex cell arrangements, comprising - a three-dimensional microstructure in which the cell arrangement is assembled and cultivated, - at least two microchannel segments (16, 17) running in the microstructure and defining a flow direction (18, 19), through which the microstructure can be perfused from outside with a medium (21, 22), whereby the microchannel segments (16, 17) run approximately parallel or equidistant to one another at least in sections, - a wall structure which separates the at least two microchannel segments (16, 17) and in which at least one aperture connecting the at least two microchannel segments (16, 17) is provided, and - an electrode arrangement provided in or on the microstructure in order to generate an inhomogeneous electric field in the region of the at least one aperture, - the electrode arrangement comprising at least one channel electrode (39, 40) provided in the first microchannel segment and at least one further channel electrode provided in the second microchannel segment, with channel electrodes being provided in the vicinity of the at least one aperture or further apertures. - a three-dimensional microstructure in which the cell arrangement is assembled and cultivated, - at least two microchannel segments (16, 17) running in the microstructure and defining a flow direction (18, 19), through which the microstructure can be perfused from outside with a medium (21, 22), whereby the microchannel segments (16, 17) run approximately parallel or equidistant to one another at least in sections, - a wall structure which separates the at least two microchannel segments (16, 17) and in which at least one aperture connecting the at least two microchannel segments (16, 17) is provided, and - an electrode arrangement provided in or on the microstructure in order to generate an inhomogeneous electric field in the region of the at least one aperture, - the electrode arrangement comprising at least one channel electrode (39, 40) provided in the first microchannel segment and at least one further channel electrode provided in the second microchannel segment, with channel electrodes being provided in the vicinity of the at least one aperture or further apertures.
A composite article having increased peel strength and comprising: A. a first layer comprising a low surface energy polymer; B. a poly(meth)acrylate layer disposed on and in direct contact with said first layer, wherein said poly(meth)acrylate layer comprises a poly(meth)acrylate that comprises the reaction product of at least one (meth)acrylate polymerized in the presence of an organoborane initiator; C. an epoxide layer disposed on and in direct contact with said poly(meth)acrylate layer, wherein said epoxide layer comprises an epoxide; and D. a polyurethane elastomer layer disposed on and in direct contact with said epoxide, wherein said polyurethane elastomer layer comprises a polyurethane elastomer, wherein said composite article has a 90° peel strength of at least 8.756 N/mm (50 pli) measured between the polyurethane elastomer layer and the epoxide layer and using ASTM D6862 A. a first layer comprising a low surface energy polymer; B. a poly(meth)acrylate layer disposed on and in direct contact with said first layer, wherein said poly(meth)acrylate layer comprises a poly(meth)acrylate that comprises the reaction product of at least one (meth)acrylate polymerized in the presence of an organoborane initiator; C. an epoxide layer disposed on and in direct contact with said poly(meth)acrylate layer, wherein said epoxide layer comprises an epoxide; and D. a polyurethane elastomer layer disposed on and in direct contact with said epoxide, wherein said polyurethane elastomer layer comprises a polyurethane elastomer,
A filter device for fluids, with a connection member with fluid input for unfiltrate and fluid output for filtrate, with a first and a second filter element and with a switching device located in the connection member, by means of which a fluid connection between fluid input and fluid output can be selectively established via the first or via the second filter element, wherein one of the filter elements is integrated into the interior of the connection member as an auxiliary filter, wherein the switching device has a ball valve, characterised in that the auxiliary filter and the ball valve have a shared functional element, with the result that ball valve and filter form an assembly.
Arrangement of a bar and a seal for sealing an underside of a door, with an actuation element (3, 44) for actuating the seal, wherein the seal has a seal strip that can be lowered when the seal is actuated, and a mechanism which comprises a coupling element, wherein the mechanism is able and set up to convert, when the seal is actuated, a movement of the coupling element in the direction parallel to the seal strip into a movement of the seal strip perpendicular thereto, and wherein the bar extends essentially perpendicular to the seal strip, characterized in that the bar can be displaced in order to actuate the seal and either the actuation element for actuating the seal can be acted upon with a force by the bar or the actuation element consists of the bar, in that by means of the coupling element of the mechanism of the seal it is possible to take up a movement of the actuation element (3, 44) with a direction of movement with an angle of greater than 0°, in particular perpendicular to the direction of movement of the coupling element, and to convert by means of the mechanism the movement of the coupling element into a lowering movement of the sealing strip over the entire length of the sealing strip, and in that the coupling element has, at an end oriented toward the actuation element (3, 44), a surface that is angled with respect to the direction of movement of the coupling element for the purpose of introducing force from the actuation element (3, 44). in that the bar can be displaced in order to actuate the seal and either the actuation element for actuating the seal can be acted upon with a force by the bar or the actuation element consists of the bar, in that by means of the coupling element of the mechanism of the seal it is possible to take up a movement of the actuation element (3, 44) with a direction of movement with an angle of greater than 0°, in particular perpendicular to the direction of movement of the coupling element, and to convert by means of the mechanism the movement of the coupling element into a lowering movement of the sealing strip over the entire length of the sealing strip, and in that the coupling element has, at an end oriented toward the actuation element (3, 44), a surface that is angled with respect to the direction of movement of the coupling element for the purpose of introducing force from the actuation element (3, 44).
A sorting table with an adjustable screen, for fruit, comprising a succession of conveyor-sorter rollers arranged according to a sorting plan, and parallel to each other, the conveyor-sorter rollers each having at least one sorter section, a spacing being formed respectively between opposite sorter sections, of successive conveyor-sorter rollers, for a selective passage of fruit through the table, via said spacing, the sorting table comprising conveyor-sorter rollers provided with sorter sections with an adjustable diameter, characterised in that it comprises a device (76, 100, 102) for controlling the diameter of the adjustable-diameter sorter sections.
Inner ring system comprising at least one inner ring which is held on at least one guide vane of a turbomachine, which guide vane is rotatably mounted about an adjustment axis, the inner ring being fixed to a radially inner pin of the at least one guide vane so as to be immovable with respect to the at least one guide vane in the direction of the adjustment axis, a radially inner end region of the pin of the at least one guide vane being formed as a disc-shaped fastening element which is arranged in a corresponding recess in the inner ring, the inner ring system comprising at least one bushing which surrounds the disc-shaped fastening element at least in regions, and the inner ring system comprising at least one seal support arranged on the inner ring at least partially radially on the inside, the inner ring being radially inwardly supported on the bushing and radially outwardly supported on the seal support, characterized in that an axially acting spring force is applied to the inner ring by means of a spring element arranged on a side of the seal support that faces the inner ring and/or the bushing.
A non-aqueous electrolyte solution for a lithium secondary battery, the non-aqueous electrolyte solution comprising: a lithium salt, an organic solvent, and an additive, wherein the additive is a mixed additive which includes lithium difluorophosphate, fluorobenzene, tetravinylsilane, and a compound containing one sulfonate group or sulfate group in a weight ratio of 1:2:0.05:0.5 to 1:8:0.3:2. a lithium salt, an organic solvent, and an additive, wherein the additive is a mixed additive which includes lithium difluorophosphate, fluorobenzene, tetravinylsilane, and a compound containing one sulfonate group or sulfate group in a weight ratio of 1:2:0.05:0.5 to 1:8:0.3:2.
100% Solids polycarbamate comprising less than 5 wt% total of biuret, cyanuric acid, and polyallophanate obtainable by a process comprising: adding urea to a polyol selected in the group consisting of oligomers or polymers derived from hydroxyl-containing acrylic monomeric units in the presence of at least one catalyst selected from the group consisting of: Calcium tri-fluoromethanesulfonate, Calcium acetylacetonate, Calcium Stearate, Zinc trifluoro acetate hydrate, Zinc acetylacetonate, Zinc Bis(2,2,6,6-tetramethyl-3,5-hetanedionate), Zinc dibutyldithiocarbamate, Zinc hexafluoroacetylacetonate, Zn toluenesulfonate, Zn 2-Mercaptopyridine N-Oxide, Magnesium acetylacetonate, Magnesium Stearate, Magnesium bis(trifluoromethanesulfonate)
A method of controlling an axle assembly that includes a housing assembly, a drive pinion that is selectively connectable to a torque source, and a differential assembly that is received in the housing assembly and has a ring gear that meshes with the drive pinion, wherein the differential assembly is selectively connectable to a wheel hub that supports a wheel, the method comprising: operatively connecting the wheel hub to the differential assembly when the ring gear does not receive torque from the torque source such that torque from the wheel hub rotates the ring gear and the ring gear splashes lubricant in the housing assembly.
A process for preparing Form A crystals of 3-[5-(2-fluorophenyl)-[1,2,4]oxadiazol-3-yl]-benzoic acid characterized by: an X-ray powder diffraction pattern comprising at least three peak positions (°2θ±0.2), when measured using Cu Kα radiation, selected from the group consisting of 4.96, 6.39, 10.10, 11.54, 12.62, 12.81, 13.92, 14.16, 14.55, 14.88, 15.07, 15.58, 16.27, 16.61, 18.74, 18.94, 19.28, 19.94, 20.27, 20.74, 20.97, 21.22, 21.93, 22.58, 22.80, 23.00, 23.79, 24.14, 24.46, 25.44, 25.64, 26.07, 26.34, 26.74, 27.06, 27.79, 28.42, 29.09, 30.48; wherein the process comprises: exposing a Form B crystal to a relative humidity of 79% at 60 °C; or milling a Form B crystal at ambient or sub-ambient temperature; or slurrying a Form B crystal in methyl isobutyl ketone, or a 1:1 mixture of dioxane and water; or subliming or heating a Form B crystal; wherein the Form B crystal of 3-[5-(2-fluorophenyl)-[1,2,4]oxadiazol-3-yl]-benzoic acid has a representative X-ray powder diffraction pattern as provided in FIG. 5. an X-ray powder diffraction pattern comprising at least three peak positions (°2θ±0.2), when measured using Cu Kα radiation, selected from the group consisting of 4.96, 6.39, 10.10, 11.54, 12.62, 12.81, 13.92, 14.16, 14.55, 14.88, 15.07, 15.58, 16.27, 16.61, 18.74, 18.94, 19.28, 19.94, 20.27, 20.74, 20.97, 21.22, 21.93, 22.58, 22.80, 23.00, 23.79, 24.14, 24.46, 25.44, 25.64, 26.07, 26.34, 26.74, 27.06, 27.79, 28.42, 29.09, 30.48; exposing a Form B crystal to a relative humidity of 79% at 60 °C; or milling a Form B crystal at ambient or sub-ambient temperature; or slurrying a Form B crystal in methyl isobutyl ketone, or a 1:1 mixture of dioxane and water; or subliming or heating a Form B crystal;
Mobile frame for at least one seat, comprising: - a load-bearing structure suitable for supporting the seat on a support surface, and - an anchoring element coupled with the load-bearing structure to selectively constrain the mobile frame to the support surface, wherein the anchoring element comprises: - a fixing mechanism that can go from a non-anchored configuration, where at least one fixing element is retracted inside the load-bearing structure (31,77), to an anchored configuration, where the fixing element protrudes beyond the load-bearing structure to constrain the mobile frame to the support surface; characterized in that the fixing mechanism comprises a slide that is articulatedly coupled with the fixing element, and at least one guide plate provided with guide grooves (771, 773), wherein the slide and the fixing element are slidingly joined with a first guide groove and a second guide groove, respectively, in such a way that a sliding movement of the slide along the first guide groove makes the fixing element slide along the second guide groove, moving the fixing mechanism from the anchored configuration to the non-anchored configuration and vice versa. - a load-bearing structure suitable for supporting the seat on a support surface, and - an anchoring element coupled with the load-bearing structure to selectively constrain the mobile frame to the support surface, - a fixing mechanism that can go from a non-anchored configuration, where at least one fixing element is retracted inside the load-bearing structure (31,77), to an anchored configuration, where the fixing element protrudes beyond the load-bearing structure to constrain the mobile frame to the support surface;
A method, comprising: reducing crosstalk of a plurality of lines in a vectored group by vectoring, and modifying the crosstalk reduction based on previous crosstalk reduction in case of a change of composition of the vectored group, characterized in that modifying the crosstalk reduction comprises performing the crosstalk reduction in a case where only a subset of lines from a set of lines are active, based on crosstalk reduction coefficients for a case where all lines of the set of lines are active. reducing crosstalk of a plurality of lines in a vectored group by vectoring, and modifying the crosstalk reduction based on previous crosstalk reduction in case of a change of composition of the vectored group, characterized in that modifying the crosstalk reduction comprises performing the crosstalk reduction in a case where only a subset of lines from a set of lines are active, based on crosstalk reduction coefficients for a case where all lines of the set of lines are active.
A method for obtaining routing information of an electro-optical multi-layer network, comprising: determining ports on which an optical transmitter and an optical receiver are located; characterized by adding electro-optical conversion information to the routing information on a port of an optical layer node side or an electro layer node side on which the optical transmitter and the optical receiver are located. determining ports on which an optical transmitter and an optical receiver are located; characterized by adding electro-optical conversion information to the routing information on a port of an optical layer node side or an electro layer node side on which the optical transmitter and the optical receiver are located.
A rotor (10, 100) for an integrated electricity generator of a pneumatic tool, said rotor comprising: a shaft (12, 102) comprising means for rotatably mounting said rotor within a tool housing of said pneumatic tool such that said rotor (10, 100) rotates in response to a flow of pressurized fluid through said tool; a rotor body of iron bearing material capable of ferromagnetic influences integral with said shaft (12, 102) and having a plurality of recesses formed on a front face of said rotor body, each of said recesses receiving a corresponding insulated subassembly that comprises a magnet received by a nonmagnetic insulator; wherein each of said recesses is positioned within said rotor body to enable the magnet of said corresponding insulated subassembly to cooperate with a stator (70, 112) of said integrated electricity generator to generate electrical current in said stator upon rotation of said rotor within said tool housing; characterized in that said nonmagnetic insulator isolates the magnet from direct contact with the surrounding iron bearing material of the rotor body. a shaft (12, 102) comprising means for rotatably mounting said rotor within a tool housing of said pneumatic tool such that said rotor (10, 100) rotates in response to a flow of pressurized fluid through said tool; a rotor body of iron bearing material capable of ferromagnetic influences integral with said shaft (12, 102) and having a plurality of recesses formed on a front face of said rotor body, each of said recesses receiving a corresponding insulated subassembly that comprises a magnet received by a nonmagnetic insulator; wherein each of said recesses is positioned within said rotor body to enable the magnet of said corresponding insulated subassembly to cooperate with a stator (70, 112) of said integrated electricity generator to generate electrical current in said stator upon rotation of said rotor within said tool housing; characterized in that said nonmagnetic insulator isolates the magnet from direct contact with the surrounding iron bearing material of the rotor body.