mhurhangee/ep-ind-claims huggingface dataset:
Method for degassing hydrogen from a liquid used for hydrogen storage by means of a device, comprising a desorber, a gas connection connected to the desorber, a circulation pump, a vacuum pump, at least one sensor (44a, 44b), and a control unit, having the following method steps: - filling the desorber with the liquid to be degassed, wherein, during a filling process with the liquid, a vacuum can be generated in the desorber by means of the vacuum pump, and this liquid flows through the desorber; - circulating the liquid during a degassing process in the desorber by means of the circulation pump; - removing the hydrogen gas from the desorber during the degassing process by means of the vacuum pump; - measuring the pressure in the desorber and/or measuring the time by means of the respective sensor (44a, 44b); - ending the degassing process when the respective sensor (44a, 44b) measures a predetermined pressure and/or on measuring a predetermined residence time of the liquid in the desorber by means of the control unit; and - feeding a further gas into the desorber via the gas connection during draining of the liquid from the desorber so that pressure equalisation takes place and, in addition to the pressure required for draining, a gas atmosphere is generated in the interior of the desorber which effectively prevents ignition of a residual quantity of the separated hydrogen possibly remaining in the desorber. - filling the desorber with the liquid to be degassed, wherein, during a filling process with the liquid, a vacuum can be generated in the desorber by means of the vacuum pump, and this liquid flows through the desorber; - circulating the liquid during a degassing process in the desorber by means of the circulation pump; - removing the hydrogen gas from the desorber during the degassing process by means of the vacuum pump; - measuring the pressure in the desorber and/or measuring the time by means of the respective sensor (44a, 44b); - ending the degassing process when the respective sensor (44a, 44b) measures a predetermined pressure and/or on measuring a predetermined residence time of the liquid in the desorber by means of the control unit; and - feeding a further gas into the desorber via the gas connection during draining of the liquid from the desorber so that pressure equalisation takes place and, in addition to the pressure required for draining, a gas atmosphere is generated in the interior of the desorber which effectively prevents ignition of a residual quantity of the separated hydrogen possibly remaining in the desorber.
A centrifugal compressor (10; 10B; 10C; 20; 30; 40) comprising: an impeller (12; 32) boosting a fluid by rotation about a rotating shaft; and a diffuser (13; 23; 33; 43) converting a dynamic pressure of a fluid boosted by the impeller (12; 32) into a static pressure, wherein the diffuser (13; 23; 33; 43) has a shroud wall surface (131; 231) extending in a radial direction of the rotating shaft and a hub wall surface (132; 332) extending in the radial direction and opposing the shroud wall surface (131; 231) on a downstream side of a flow in an axial direction of the rotating shaft, having a gap between the hub wall surface (132; 332) and the shroud wall surface (131; 231), and forming an annular diffuser flow path with the gap, the fluid flowing through the diffuser flow path, and a hub-side convex portion is formed over an entire periphery of the hub wall surface (132; 332), the hub-side convex portion protruding toward the shroud wall surface (131; 231) side relative to a straight line (Li) connecting a starting end on an inlet side of the diffuser flow path and a terminating end on an outlet side of the diffuser flow path, characterized in that the hub-side convex portion is formed so as to have a size at which an annular area as a product of a circumferential length (2πr) and a width (b) of the diffuser flow path at any radial position increases as compared with an annular area as a product of a circumferential length (2πr1) and a width of the diffuser flow path at the inlet. an impeller (12; 32) boosting a fluid by rotation about a rotating shaft; and a diffuser (13; 23; 33; 43) converting a dynamic pressure of a fluid boosted by the impeller (12; 32) into a static pressure, wherein the diffuser (13; 23; 33; 43) has a shroud wall surface (131; 231) extending in a radial direction of the rotating shaft and a hub wall surface (132; 332) extending in the radial direction and opposing the shroud wall surface (131; 231) on a downstream side of a flow in an axial direction of the rotating shaft, having a gap between the hub wall surface (132; 332) and the shroud wall surface (131; 231), and forming an annular diffuser flow path with the gap, the fluid flowing through the diffuser flow path, and a hub-side convex portion is formed over an entire periphery of the hub wall surface (132; 332), the hub-side convex portion protruding toward the shroud wall surface (131; 231) side relative to a straight line (Li) connecting a starting end on an inlet side of the diffuser flow path and a terminating end on an outlet side of the diffuser flow path, characterized in that the hub-side convex portion is formed so as to have a size at which an annular area as a product of a circumferential length (2πr) and a width (b) of the diffuser flow path at any radial position increases as compared with an annular area as a product of a circumferential length (2πr1) and a width of the diffuser flow path at the inlet.
A substrate coated on one face with a multilayer of thin films (34, 35, 36) comprising at least one metal functional layer (140, 180, 220) based on silver or made of silver and two antireflective coatings (120, 160, 200, 240), the said antireflective coatings each comprising at least one anti reflective layer (124, 164, 204, 244), a said functional layer being disposed between the two antireflective coatings (120. 160), characterized in that the said, or each, metal functional layer (140, 180, 220) is a discontinuous layer having a surface area occupation factor in the range between 50% and 98%, or even between 53% and 83% and in that the said, or each, discontinuous metal functional layer (140, 180, 220) has a thickness e: - 1.0 ≤ e ≤ 4.5 nm, or even 1.0 ≤ e ≤ 4.0 nm, deposited on a layer based on titanium dioxide TiO 2, or - 1.0 ≤ e ≤ 4.5 nm, or even 1.0 ≤ e ≤ 4.0 nm, deposited on a layer based on zinc and tin oxide SnZnO x, or - 1.0 ≤ e ≤ 5.0 nm, or even 1.0 ≤ e ≤ 4.5 nm, deposited on a layer based on zinc oxide ZnO, or - 1.0 ≤ e ≤ 7.0 nm, or even 1.0 ≤ e ≤ 6.0 nm, deposited on a layer based on silicon nitride Si 3 N 4, or - 1.0 ≤ e ≤ 5.0 nm, or even 1.0 ≤ e ≤ 4.0 nm, deposited on a layer based on nickel. - 1.0 ≤ e ≤ 4.5 nm, or even 1.0 ≤ e ≤ 4.0 nm, deposited on a layer based on titanium dioxide TiO 2, or - 1.0 ≤ e ≤ 4.5 nm, or even 1.0 ≤ e ≤ 4.0 nm, deposited on a layer based on zinc and tin oxide SnZnO x, or - 1.0 ≤ e ≤ 5.0 nm, or even 1.0 ≤ e ≤ 4.5 nm, deposited on a layer based on zinc oxide ZnO, or - 1.0 ≤ e ≤ 7.0 nm, or even 1.0 ≤ e ≤ 6.0 nm, deposited on a layer based on silicon nitride Si 3 N 4, or - 1.0 ≤ e ≤ 5.0 nm, or even 1.0 ≤ e ≤ 4.0 nm, deposited on a layer based on nickel.
Steering wheel comprising: a steering wheel body having a or being connected to a first force transmitting component, a horn actuation element mounted to said steering wheel body, said horn actuation element having a horn actuation surface and said horn actuation element having a or being connected to a second force transmitting component, a load cell comprising a sensitive element that changes at least one of its electrical properties when a compression force is applied to it, said sensitive element being placed between the first force transmitting component and the second force transmitting component, at least one elastically deformable element acting between the steering wheel body and the horn actuation element, such that when a pushing force is applied to the horn actuation surface the mechanical force applied to the sensitive element changes, characterized in that in a resting state of the steering wheel a compression force is applied to the sensitive element by the first and second force transmitting components because of a preload of the at least one elastically deformable element and in that the compression force applied to the sensitive element is reduced when a pushing force is applied to the horn actuation surface. a steering wheel body having a or being connected to a first force transmitting component, a horn actuation element mounted to said steering wheel body, said horn actuation element having a horn actuation surface and said horn actuation element having a or being connected to a second force transmitting component, a load cell comprising a sensitive element that changes at least one of its electrical properties when a compression force is applied to it, said sensitive element being placed between the first force transmitting component and the second force transmitting component, at least one elastically deformable element acting between the steering wheel body and the horn actuation element, such that when a pushing force is applied to the horn actuation surface the mechanical force applied to the sensitive element changes, characterized in that in a resting state of the steering wheel a compression force is applied to the sensitive element by the first and second force transmitting components because of a preload of the at least one elastically deformable element and in that the compression force applied to the sensitive element is reduced when a pushing force is applied to the horn actuation surface.
Method for producing a structural part made of composite material comprising structural plies of fibres in a hardened resin, said structural plies being able to withstand the loads likely to be applied to the part in operation, said structural part having, in at least one zone, a predetermined thickness Enom defined with production tolerances, said method comprising the steps of: a) placement of the structural plies, said structural plies having, when the resin is hardened, a total thickness Es, called structural thickness, in said zone of predetermined thickness; b) placement on at least one face of the structural plies, at least in the zone of predetermined thickness, of one or more plies not necessary to the structural resistance, called gauging plies, such that a thickness ΔE of said gauging plies is at least equal to the minimum value of Enom minus a thickness esm equal to a minimum value that can be obtained and accepted for the structural thickness Es; c) securing together the structural plies and the gauging plies; d) when a total thickness of the part in the zone concerned, corresponding to the thickness Es added to the thickness ΔE, is greater than the maximum value allowed for Enom, gauging of the thickness of the part by machining of the gauging plies in order for the total thickness of said part in said zone to be within a tolerance range accepted for Enom; characterized in that at least one ply, called visual ply, is placed before or during the placement of the gauging plies between the structural plies on the one hand and the gauging plies on the other hand, or between gauging plies, said visual ply comprising characteristics enabling an observer, at least in certain conditions of observation, to distinguish said visual ply from the gauging plies and from the structural plies when said visual ply is or has been machined during the gauging operation. a) placement of the structural plies, said structural plies having, when the resin is hardened, a total thickness Es, called structural thickness, in said zone of predetermined thickness; b) placement on at least one face of the structural plies, at least in the zone of predetermined thickness, of one or more plies not necessary to the structural resistance, called gauging plies, such that a thickness ΔE of said gauging plies is at least equal to the minimum value of Enom minus a thickness esm equal to a minimum value that can be obtained and accepted for the structural thickness Es; c) securing together the structural plies and the gauging plies; d) when a total thickness of the part in the zone concerned, corresponding to the thickness Es added to the thickness ΔE, is greater than the maximum value allowed for Enom, gauging of the thickness of the part by machining of the gauging plies in order for the total thickness of said part in said zone to be within a tolerance range accepted for Enom;
A turbofan engine fan case cartridge comprising: a metallic member; a first honeycomb having an inner diameter liner and encircled by a forward portion of the metallic member; a second honeycomb encircled by the metallic member aft of the first honeycomb; and a rub strip encircled by the second honeycomb; wherein: the metallic member bears, along an outer diameter surface, mounting means (200, 202) for engaging a fan containment case in a radially compliant manner. a metallic member; a first honeycomb having an inner diameter liner and encircled by a forward portion of the metallic member; a second honeycomb encircled by the metallic member aft of the first honeycomb; and a rub strip encircled by the second honeycomb;
A heat transfer passage within a component for a gas turbine engine, said passage being arranged to receive a heat transfer fluid flow during use and comprising: opposing side walls, a base extending between said side walls and one or more turbulators depending from said base between said side walls, wherein each turbulator is arranged to induce separation of a boundary layer portion of said heat transfer fluid flow from the base in use and comprises a first portion which contacts both the opposing side walls and the base, and a projection portion which depends from the first portion and is spaced from the base by the first portion, characterised in that: the projection portion is spaced from at least one of said opposing side walls and spans at least 60% of the passage width. opposing side walls, a base extending between said side walls and one or more turbulators depending from said base between said side walls, wherein each turbulator is arranged to induce separation of a boundary layer portion of said heat transfer fluid flow from the base in use and comprises a first portion which contacts both the opposing side walls and the base, and a projection portion which depends from the first portion and is spaced from the base by the first portion, the projection portion is spaced from at least one of said opposing side walls and spans at least 60% of the passage width.
Apparatus for clutch actuation, with a master cylinder and a slave cylinder which are connected to one another by means of a pressure line through which fluid flows, with a damping device for the damping of undesirable pressure fluctuations in a hydraulic section, using an absorber, arranged in the hydraulic section and coaxial with the pressure line, for vibration reduction in the pressure line, the absorber having a housing (1.1) with a through-orifice (1.3) for the fluid and also a press-in part, and a sound-damping element for the extinguishing of resonances being combined with the absorber, the cylindrically formed sound-damping element being designed to be porous and being integrated into the through-orifice (1.3) of the absorber and also being arranged coaxially to the pressure line, and at least one throughflow duct of the sound-damping element being formed coaxially to the pressure line, and the sound-damping element being arranged in a supporting body or cage, the supporting body or cage encasing the porous region of the sound-damping element at least partially circumferentially, and the sound-damping element being arranged between two stops (13, 14) inside the housing (1.2), and the press-in part adjoining the sound-damping element and having a flow distributor (2.2) for supplying the fluid.
A method, at an apparatus comprising a system information component, a first subscriber identity module, SIM, and a second SIM, of decoding system information, comprising: determining a maximum repetition rate duration based at least in part on a master information block, MIB, wherein the maximum repetition rate duration corresponds to a maximum period between repetitions of a system information block, SIB; generating a distributed SIB decoding scheme for allocating radio frequency resources between the first SIM and the second SIM, wherein the distributed SIB decoding scheme includes a partitioned SIB decoding schedule for the maximum repetition rate duration and based at least in part on a continuous SIB decoding period; and attempting to decode one or more SIBs during the maximum repetition rate duration according to the distributed SIB decoding scheme. determining a maximum repetition rate duration based at least in part on a master information block, MIB, wherein the maximum repetition rate duration corresponds to a maximum period between repetitions of a system information block, SIB; generating a distributed SIB decoding scheme for allocating radio frequency resources between the first SIM and the second SIM, wherein the distributed SIB decoding scheme includes a partitioned SIB decoding schedule for the maximum repetition rate duration and based at least in part on a continuous SIB decoding period; and attempting to decode one or more SIBs during the maximum repetition rate duration according to the distributed SIB decoding scheme.
A high heat-resistant catalyst, comprising: noble metal particles; first compounds which contact the noble metal particles and suppress movement of the noble metal particles; and second compounds which envelop the noble metal particles and the first compounds, suppress the movement of the noble metal particles, and suppress coagulation of the first compounds following mutual contact of the first compounds, wherein the first compounds support the noble metal particles, and single piece or aggregate of the first compounds supporting the noble metal particles are included in a section partitioned by the second compounds, and a coefficient of linear thermal expansion of the second compounds is 1.2×10 -5 [K -1] or less, wherein a porosity of the second compounds, measured by the Archimedean method, is 30% or more. noble metal particles; first compounds which contact the noble metal particles and suppress movement of the noble metal particles; and second compounds which envelop the noble metal particles and the first compounds, suppress the movement of the noble metal particles, and suppress coagulation of the first compounds following mutual contact of the first compounds, wherein the first compounds support the noble metal particles, and single piece or aggregate of the first compounds supporting the noble metal particles are included in a section partitioned by the second compounds, and a coefficient of linear thermal expansion of the second compounds is 1.2×10 -5 [K -1] or less, wherein a porosity of the second compounds, measured by the Archimedean method, is 30% or more.
A computer-implemented method for mapping text phrases to geographical locations, comprising: identifying in a document, an ambiguous entity that represents two or more representative entity types, each comprising a location, person, or time; assigning (43A, 43B) an initial score to each representative entity type and adjusting the initial score based on one or more subroutines; selecting the representative entity type with the highest score for the entity; and applying the representative entity type to all occurrences of the entity in the document, wherein determining the initial scores for a location representative entity type comprises; determining an administrative level comprising one of a region, country, state, county, and city for one such location and assigning a value based on the determined administrative level; assigning a value based on a size of the one such location, wherein where the administrative level comprises one of a region, state, county or city, the value is a relative population measurement; and combining the values for the administrative and size as the initial score for the one such location, wherein the relative population measurement compares the population of the location with the average population of the same administrative level within the same country. identifying in a document, an ambiguous entity that represents two or more representative entity types, each comprising a location, person, or time; assigning (43A, 43B) an initial score to each representative entity type and adjusting the initial score based on one or more subroutines; selecting the representative entity type with the highest score for the entity; and applying the representative entity type to all occurrences of the entity in the document, wherein determining the initial scores for a location representative entity type comprises; determining an administrative level comprising one of a region, country, state, county, and city for one such location and assigning a value based on the determined administrative level; assigning a value based on a size of the one such location, wherein where the administrative level comprises one of a region, state, county or city, the value is a relative population measurement; and combining the values for the administrative and size as the initial score for the one such location, wherein the relative population measurement compares the population of the location with the average population of the same administrative level within the same country.
A respiratory interface comprising: a mask frame, a seal module configured to couple to the mask frame and interface to a user's mouth and/or nose to deliver respiratory gases to the user, and a magnetic coupling system arranged to magnetically couple the seal module to the mask frame, wherein the magnetic coupling system comprises at least one magnet associated with one of the seal module or mask frame and at least one other magnet or ferrous part associated with the other of the seal module or mask frame, and wherein the magnet or magnets and corresponding ferrous part(s) are elastically movably mounted such that they can move relative to the seal module and/or frame, characterized in that the magnet or magnets and corresponding ferrous part(s) are mounted such that the seal module and mask frame will attract only in one predetermined orientation of the seal module relative to the mask frame and repel when the seal module is offered to the mask frame in any orientation other than the one predetermined orientation. a mask frame, a seal module configured to couple to the mask frame and interface to a user's mouth and/or nose to deliver respiratory gases to the user, and a magnetic coupling system arranged to magnetically couple the seal module to the mask frame, wherein the magnetic coupling system comprises at least one magnet associated with one of the seal module or mask frame and at least one other magnet or ferrous part associated with the other of the seal module or mask frame, and wherein the magnet or magnets and corresponding ferrous part(s) are elastically movably mounted such that they can move relative to the seal module and/or frame, characterized in that the magnet or magnets and corresponding ferrous part(s) are mounted such that the seal module and mask frame will attract only in one predetermined orientation of the seal module relative to the mask frame and repel when the seal module is offered to the mask frame in any orientation other than the one predetermined orientation.
An isolated antibody or antigen-binding fragment thereof that binds human leptin receptor (LEPR), wherein the antibody or antigen-binding fragment thereof comprises: (a) a heavy chain variable region (HCVR) comprising the complementarity determining regions (CDRs) of a HCVR comprising the amino acid sequence of SEQ ID NO:2, SEQ ID NO:42, or SEQ ID NO: 58; and (b) a light chain variable region (LCVR) comprising the CDRs of a LCVR comprising the amino acid sequence of SEQ ID NO: 10, wherein the CDRs are identified by the Kabat definition, the Chothia definition or the AbM definition.