mhurhangee/patent-ind-claim-en huggingface dataset:
A method of preparing a confined metallic nanocatalyst within a mesoporous material (MPM) which comprises: (a) impregnating at least one or more organic compound(s) [A x (L -x )], comprising one or more multidentate ligand(s), selected from the group consisting of terephthalate, benzene-1,3,5-tricarboxylate, 2,5-dioxibenzene dicarboxylate, biphenyl-4,4'-dicarboxylate, imidazolate, pyrimidine-azolate, triazolate and tetrazolate, capable of forming coordination bonds with at least one metal ion, on the mesoporous material to form a first intermediate [A x (L -x )]/MPM)]; (b) exposing the first intermediate [A x (L -x )]/MPM)] to an acid in gas phase to form a second intermediate [H x (L -x )]/MPM)]; (c) adding to the second intermediate [H x (L -x )]/MPM)] a solvent solution of one or more metal ions M 1 +y , M 2 +y , M 3 +y selected from the group consisting of Al, Au, Ce, Co, Fe, Ir, Mo, Ni, Pd, Rh, Ru, Ti, V, and Zr so as to form coordination bonds with the one or more multidentate ligand(s) so as to produce a metal organic framework (MOF) precursor confined within a mesoporous material [MOF/MPM], and characterized by (d) treating the precursor of step (c) [MOF/MPM] under controlled transformation conditions selected from (i) pyrolysis at a temperature of 300°C to 1000°C in an inert gas atmosphere, (ii) calcination at a temperature of 300°C to 600°C in an atmosphere containing oxygen gas, or (iii) reduction with hydrogen at a temperature of 25°C to 300°C, wherein the controlled transformation conditions cause either greater than 90% of the carbon in the MOF to be released from the [MOF/MPM], or 50% ± 10% of the carbon in the MOF to be released from the [MOF/MPM], to form the metallic nanocatalyst confined within the mesoporous material. (i) pyrolysis at a temperature of 300°C to 1000°C in an inert gas atmosphere, (ii) calcination at a temperature of 300°C to 600°C in an atmosphere containing oxygen gas, or (iii) reduction with hydrogen at a temperature of 25°C to 300°C,
Brake device for a hydraulic motor vehicle brake system, comprising at least one brake device housing which, after being mounted in the vehicle, has a front side oriented substantially in the direction of travel (Rf) and a rear side oriented counter to the direction of travel, and also comprising at least one pressure medium container which is arranged on the brake device housing and has a container housing , characterized in that the pressure medium container has at least one first connection piece for supplying the brake device with a hydraulic pressure medium, which is oriented substantially parallel or at an acute angle (W) to the direction of travel (Rf) and plugged in a receiving seat formed in the brake device housing .
A system for securing a nasal tube, the system comprising: a bridle ; a first magnetic portion integrally attached to the bridle ; a delivery probe including: a first elongated member having a first proximal end and a first distal end , the first distal end being configured to deliver the first magnetic portion , a bridle lock including an actuator coupled to the first proximal end , the bridle lock configured to release the bridle upon actuation of the actuator , wherein the first magnetic portion is releasable from the distal end of the first elongated member upon actuation of the actuator ; a retrieval probe including: a second elongated member having a second proximal end and a second distal end , the second distal end including a second magnetic portion configured to magnetically couple with the first magnetic portion ; and a magnetic coupling indicator configured to provide an indication in response to the first magnetic portion and the second magnetic portion being magnetically coupled; and a clamp including a channel portion with an inside diameter larger than an outside diameter of the nasal tube, the clamp configured to secure the nasal tube by exerting pressure on the nasal tube. a bridle ; a first magnetic portion integrally attached to the bridle ; a delivery probe including: a first elongated member having a first proximal end and a first distal end , the first distal end being configured to deliver the first magnetic portion , a bridle lock including an actuator coupled to the first proximal end , the bridle lock configured to release the bridle upon actuation of the actuator , wherein the first magnetic portion is releasable from the distal end of the first elongated member upon actuation of the actuator ; a first elongated member having a first proximal end and a first distal end , the first distal end being configured to deliver the first magnetic portion , a bridle lock including an actuator coupled to the first proximal end , the bridle lock configured to release the bridle upon actuation of the actuator , wherein the first magnetic portion is releasable from the distal end of the first elongated member upon actuation of the actuator ; a retrieval probe including: a second elongated member having a second proximal end and a second distal end , the second distal end including a second magnetic portion configured to magnetically couple with the first magnetic portion ; and a magnetic coupling indicator configured to provide an indication in response to the first magnetic portion and the second magnetic portion being magnetically coupled; and a second elongated member having a second proximal end and a second distal end , the second distal end including a second magnetic portion configured to magnetically couple with the first magnetic portion ; and a magnetic coupling indicator configured to provide an indication in response to the first magnetic portion and the second magnetic portion being magnetically coupled; and a clamp including a channel portion with an inside diameter larger than an outside diameter of the nasal tube, the clamp configured to secure the nasal tube by exerting pressure on the nasal tube.
Method for automatically picking metal elements of elongated shape, in particular bar-shaped metal profiles, by means of a gripping device mobile along a picking direction (B) and comprising a magnetic source , characterized in that it comprises the steps of: (a). prearranging said gripping device comprising said magnetic source , predisposed to exert a force of attraction on said elements and further comprising a structure of containment of said magnetic source , having an open end and shaping at said open end an adjustable spacer , predisposed for modulating said force of attraction, said magnetic source being mobile inside said structure along a longitudinal adjustment direction (A), alternately between a condition of minimum grip, backed, and a condition of maximum grip, close to or outwardly protruding, from said spacer shaped by said structure through said open end ; (b). adjusting said gripping device through said spacer to a desired degree of grip, by varying the distance along said longitudinal adjustment direction (A) between said magnetic source and said adjustable spacer shaped by said structure ; (c). operating along said longitudinal gripping direction (B) said gripping device , placing it at a picking area in which said elements to be picked are arranged; (d). picking a number of said elements through said gripping device adjusted to said desired degree of grip, by approaching said gripping device to said elements ; (e) handling said elements held by said gripping device towards a discharge zone ; (f) discharging said handled elements at said discharge zone , by performing the adjustment of said gripping device to said condition of minimum grip or discharge. (a). prearranging said gripping device comprising said magnetic source , predisposed to exert a force of attraction on said elements and further comprising a structure of containment of said magnetic source , having an open end and shaping at said open end an adjustable spacer , predisposed for modulating said force of attraction, said magnetic source being mobile inside said structure along a longitudinal adjustment direction (A), alternately between a condition of minimum grip, backed, and a condition of maximum grip, close to or outwardly protruding, from said spacer shaped by said structure through said open end ; (b). adjusting said gripping device through said spacer to a desired degree of grip, by varying the distance along said longitudinal adjustment direction (A) between said magnetic source and said adjustable spacer shaped by said structure ; (c). operating along said longitudinal gripping direction (B) said gripping device , placing it at a picking area in which said elements to be picked are arranged; (d). picking a number of said elements through said gripping device adjusted to said desired degree of grip, by approaching said gripping device to said elements ; (e) handling said elements held by said gripping device towards a discharge zone ; (f) discharging said handled elements at said discharge zone , by performing the adjustment of said gripping device to said condition of minimum grip or discharge.
A lubricating composition comprising: (a) an oil of lubricating viscosity; (b) 0.1 wt % to 1 wt %, optionally 0.1 wt % to 0.5 wt%, of an ethylene-α-olefin copolymer, wherein the ethylene-α-olefin copolymer is grafted with a polar moiety; and (c) 0.25 wt % to 15 wt %, optionally 0.5 wt % to 5 wt %, of a poly(meth)acrylate polymer wherein the poly(meth)acrylate polymer comprises a block or tapered block copolymer (P) comprising: a first block (B 1 ) which is substantially insoluble in the base oil, wherein B 1 has a Hildebrand solubility parameter greater than 18 (J/m 3 ) 1⁄2 ; and a second block (B 2 ) which is substantially soluble in the base oil, wherein B 2 has a Hildebrand solubility parameter of 14-18 (J/m 3 ) 1⁄2 . (a) an oil of lubricating viscosity; (b) 0.1 wt % to 1 wt %, optionally 0.1 wt % to 0.5 wt%, of an ethylene-α-olefin copolymer, wherein the ethylene-α-olefin copolymer is grafted with a polar moiety; and (c) 0.25 wt % to 15 wt %, optionally 0.5 wt % to 5 wt %, of a poly(meth)acrylate polymer wherein the poly(meth)acrylate polymer comprises a block or tapered block copolymer (P) comprising: a first block (B 1 ) which is substantially insoluble in the base oil, wherein B 1 has a Hildebrand solubility parameter greater than 18 (J/m 3 ) 1⁄2 ; and a second block (B 2 ) which is substantially soluble in the base oil, wherein B 2 has a Hildebrand solubility parameter of 14-18 (J/m 3 ) 1⁄2 .
A manmade cellulosic textile fibre having - a linear density of 0.8-1.8 dtex, measured according to ISO 1973:2021; - a tenacity of 2.0-2.9 cN/dtex, measured according to ISO 5079:2020; and - an initial modulus of 50-120 cN/dtex, measured according to ISO 5079:2020; wherein at least 50 wt-% of the raw material of the textile fibre is cellulose-containing waste, and at least 50 wt-% of the cellulose-containing waste is textile waste. - a linear density of 0.8-1.8 dtex, measured according to ISO 1973:2021; - a tenacity of 2.0-2.9 cN/dtex, measured according to ISO 5079:2020; and - an initial modulus of 50-120 cN/dtex, measured according to ISO 5079:2020;
A method for hybrid automatic repeat request HARQ signalling in a communications system, characterized in that the method comprises defining , in a communications apparatus , a hybrid automatic repeat request (HARQ) entity for a time-division duplex (TDD)frame structure having a flexible forward link/reverse link ratio, wherein the defined entity comprises: a resource allocation for one or more of forward link and reverse link data, the resource allocation comprising at least one link-direction wise hybrid automatic repeat request (HARQ) process having a process identification, each hybrid automatic repeat request (HARQ) process having a unique hybrid automatic repeat request (HARQ) identification, at least one link-direction wise data allocation having a predetermined timing offset with respect to the resource allocation, and at least one link-direction wise hybrid automatic repeat request (HARQ) acknowledgement allocation having a predetermined timing offset with respect to the data allocation, wherein the timing offset of the hybrid automatic repeat request (HARQ) acknowledgement with respect to the data allocation is determined in terms of time division duplex (TDD) frames and independently of the forward link/reverse link ratio in a frame-based manner, the forward link/reverse link resource allocation being adjustable, and performing hybrid automatic repeat request (HARQ) signalling in a communications system using the defined entity. a resource allocation for one or more of forward link and reverse link data, the resource allocation comprising at least one link-direction wise hybrid automatic repeat request (HARQ) process having a process identification, each hybrid automatic repeat request (HARQ) process having a unique hybrid automatic repeat request (HARQ) identification, at least one link-direction wise data allocation having a predetermined timing offset with respect to the resource allocation, and at least one link-direction wise hybrid automatic repeat request (HARQ) acknowledgement allocation having a predetermined timing offset with respect to the data allocation, wherein the timing offset of the hybrid automatic repeat request (HARQ) acknowledgement with respect to the data allocation is determined in terms of time division duplex (TDD) frames and independently of the forward link/reverse link ratio in a frame-based manner, the forward link/reverse link resource allocation being adjustable, and performing hybrid automatic repeat request (HARQ) signalling in a communications system using the defined entity.
A method of passing information in a Peripheral Component Interconnect, PCI, express, PCIe, system , comprising: receiving at a host , from a PCIe endpoint , a signal comprising: a header ; and a body , wherein the body comprises a first sixteen reserved bits , and further comprising extended message signaled interrupt, MSI message data in at least one of the first sixteen reserved bits; extracting, at a root complex of the host, the body from the signal to form an MSI vector with the extended MSI message data still in the body of the MSI vector; and passing, over a System Network on a Chip, SNoC , the MSI vector to an interrupt controller in the host with the extended MSI message data still in the body of the MSI vector . receiving at a host , from a PCIe endpoint , a signal comprising: a header ; and a body , wherein the body comprises a first sixteen reserved bits , and further comprising extended message signaled interrupt, MSI message data in at least one of the first sixteen reserved bits; a header ; and a body , wherein the body comprises a first sixteen reserved bits , and further comprising extended message signaled interrupt, MSI message data in at least one of the first sixteen reserved bits; extracting, at a root complex of the host, the body from the signal to form an MSI vector with the extended MSI message data still in the body of the MSI vector; and passing, over a System Network on a Chip, SNoC , the MSI vector to an interrupt controller in the host with the extended MSI message data still in the body of the MSI vector .
Battery module , comprising a housing with several compartments , intermediate walls separating adjacent compartments and electrode assemblies arranged in the compartments , characterised in that the intermediate walls comprise at least a first layer made of copper and a second layer made of aluminium, the intermediate walls are inserted into the material of the housing such that edges of the intermediate walls are surrounded by the material of the housing , and edges of the first layer comprise a structured surface.
Travel plug adapter , which has a housing, a plug receptacle and at least one first plug of a first standard and one second plug of a second standard, each plug being assigned an actuating slide which is guided outwards through a sliding slot of the housing and is designed for displacing the plug between a standby position, in which the plug is located essentially inside the housing, and a usage position, in which the plug is located usably outside the housing, the first plug having a plug body in the form of an earthed plug, in which the plug is located essentially inside the housing, and a position of use in which the plug is located usably outside the housing, the first plug comprising a plug body in the form of an earthed plug body and a first contact pin and a second contact pin , wherein in the use position both the plug body and the first contact pin and the second contact pin are usably located outside the housing and in the standby position both the plug body and the first contact pin and the second contact pin are located inside the housing, wherein the second plug comprises a third contact pin and a fourth contact pin and the third contact pin and the fourth contact pin are also guided in the plug body of the first plug and in which the second plug is transferred into the position of use, in which only the third contact pin and the fourth contact pin are transferred into the position of use.
A system for securely determining a location of a user, the system comprising: a situated device dock associated with an application, the situated device dock comprising: a proximity sensor arranged to detect a user portable device in proximity to the situated device dock; and a communication module arranged to communicate a session key to the user portable device in proximity to the situated device dock, the session key enabling authentication between the user portable device and the application; and a server comprising an input arranged to receive the session key from the user portable device and the server being further arranged to check that the received session key is correct, and in response to determining that the session key is correct to associate the user portable device with a known location of the situated device dock and to enable functionality within the application for the user portable device based on the known location of the situated device dock. a situated device dock associated with an application, the situated device dock comprising: a proximity sensor arranged to detect a user portable device in proximity to the situated device dock; and a communication module arranged to communicate a session key to the user portable device in proximity to the situated device dock, the session key enabling authentication between the user portable device and the application; and a proximity sensor arranged to detect a user portable device in proximity to the situated device dock; and a communication module arranged to communicate a session key to the user portable device in proximity to the situated device dock, the session key enabling authentication between the user portable device and the application; and a server comprising an input arranged to receive the session key from the user portable device and the server being further arranged to check that the received session key is correct, and in response to determining that the session key is correct to associate the user portable device with a known location of the situated device dock and to enable functionality within the application for the user portable device based on the known location of the situated device dock.
An arteriovenous access valve system , comprising: a first valve configured to be positioned at or adjacent to an end of an arteriovenous graft ; a second valve configured to be positioned at or adjacent to an opposite end of the arteriovenous graft ; an actuator assembly in fluid communication with the first and second valves , the actuator assembly including a housing and a driver assembly positioned within the housing , the actuator assembly further including a drive magnet positioned within the housing , characterized in that the drive magnet being rotatably coupled to the driver assembly such that, when the drive magnet is rotated, the driver assembly is configured to be rotatably driven so as to supply fluid to the first and second valves or to draw fluid out of the first and second valves depending on a rotational direction of the driver assembly , wherein the driver assembly further includes first and second gears rotatably coupled to the drive magnet , the first and second gears being configured to mesh with one another so as to pump the fluid into or draw the fluid out of the first and second valves depending on the rotational direction of the driver assembly . a first valve configured to be positioned at or adjacent to an end of an arteriovenous graft ; a second valve configured to be positioned at or adjacent to an opposite end of the arteriovenous graft ; an actuator assembly in fluid communication with the first and second valves , the actuator assembly including a housing and a driver assembly positioned within the housing , the actuator assembly further including a drive magnet positioned within the housing , characterized in that the drive magnet being rotatably coupled to the driver assembly such that, when the drive magnet is rotated, the driver assembly is configured to be rotatably driven so as to supply fluid to the first and second valves or to draw fluid out of the first and second valves depending on a rotational direction of the driver assembly , wherein the driver assembly further includes first and second gears rotatably coupled to the drive magnet , the first and second gears being configured to mesh with one another so as to pump the fluid into or draw the fluid out of the first and second valves depending on the rotational direction of the driver assembly .
A side rail comprising: a plurality of base members extending in a longitudinal direction of a vehicle body of a vehicle, the base members having a closed-section structure in a polygonal shape having a plurality of corner portions ; characterised in that the side rail comprises reinforcement plate members having a greater plate thickness than a plate thickness of the base members , wherein a part of a region in the longitudinal direction of the vehicle body of the side rail includes a reinforcement region (D) having the closed-section structure in the polygonal shape constituted by the base members and the reinforcement plate members , and the reinforcement region (D) includes joined parts where in a state in which the reinforcement plate members are fitted in fitting portions provided at positions corresponding to at least the respective corner portions in the base members , the base members and the reinforcement plate members are joined to each other. a plurality of base members extending in a longitudinal direction of a vehicle body of a vehicle, the base members having a closed-section structure in a polygonal shape having a plurality of corner portions ; characterised in that the side rail comprises reinforcement plate members having a greater plate thickness than a plate thickness of the base members , wherein a part of a region in the longitudinal direction of the vehicle body of the side rail includes a reinforcement region (D) having the closed-section structure in the polygonal shape constituted by the base members and the reinforcement plate members , and the reinforcement region (D) includes joined parts where in a state in which the reinforcement plate members are fitted in fitting portions provided at positions corresponding to at least the respective corner portions in the base members , the base members and the reinforcement plate members are joined to each other.