mhurhangee/patent-ind-claim-en huggingface dataset:
A method in a first node for adapting a multi-antenna transmission to a second node over an effective channel, the effective channel having multiple inputs and at least one output, the first node and the second node being comprised in a wireless communication system , the method comprising the steps of: obtaining at least one symbol stream, precoding the at least one symbol stream with a precoding matrix having a block diagonal structure, wherein the precoding matrix matches characteristics of the effective channel modelled as an effective channel matrix having a block diagonal structure and wherein the precoding matrix is determined by the first node by selecting, from a codebook, a codebook element corresponding to the precoding matrix, and transmitting the precoded at least one symbol stream over the effective channel to the second node . obtaining at least one symbol stream, precoding the at least one symbol stream with a precoding matrix having a block diagonal structure, wherein the precoding matrix matches characteristics of the effective channel modelled as an effective channel matrix having a block diagonal structure and wherein the precoding matrix is determined by the first node by selecting, from a codebook, a codebook element corresponding to the precoding matrix, and transmitting the precoded at least one symbol stream over the effective channel to the second node .
A vessel gas system for providing an internal combustion engine with gaseous fuel, the vessel gas system comprising: a fuel gas storage unit with a master gas valve ; a double walled fuel supply storage line ; a double walled gas valve unit ; a double walled fuel supply engine line ; and a gaseous fuel system ; wherein the double walled gas valve unit comprises a housing providing an outer wall of the double walled gas valve unit and comprising a fuel gas inlet , a fuel gas outlet , and an inert gas inlet , a fuel line fluidly connected to the fuel gas inlet and the fuel gas outlet and extending within the housing , thereby forming an inner wall of the double walled gas valve unit , wherein the fuel line comprises a flow control valve and a block valve , a flushing line , and a flushing valve system , wherein the flushing line is fluidly connected to the inert gas inlet , the flushing line is fluidly connected via the flushing valve system to a storage side access point of the fuel line and to an engine side access point of the fuel line , and the storage side access point is fluidly positioned between the fuel gas inlet and the block valve and the engine side access point is fluidly positioned between the block valve and the fuel gas outlet ; and the fuel gas inlet of the fuel line of the double walled gas valve unit is fluidly connected with the master gas valve of the fuel gas storage unit via the double walled fuel supply storage line and the fuel gas outlet of the fuel line of the double walled gas valve unit is fluidly connected with the gaseous fuel system via the double walled fuel supply engine line . a fuel gas storage unit with a master gas valve ; a double walled fuel supply storage line ; a double walled gas valve unit ; a double walled fuel supply engine line ; and a gaseous fuel system ; wherein the double walled gas valve unit comprises a housing providing an outer wall of the double walled gas valve unit and comprising a fuel gas inlet , a fuel gas outlet , and an inert gas inlet , a fuel line fluidly connected to the fuel gas inlet and the fuel gas outlet and extending within the housing , thereby forming an inner wall of the double walled gas valve unit , wherein the fuel line comprises a flow control valve and a block valve , a flushing line , and a flushing valve system , wherein the flushing line is fluidly connected to the inert gas inlet , the flushing line is fluidly connected via the flushing valve system to a storage side access point of the fuel line and to an engine side access point of the fuel line , and the storage side access point is fluidly positioned between the fuel gas inlet and the block valve and the engine side access point is fluidly positioned between the block valve and the fuel gas outlet ; and the fuel gas inlet of the fuel line of the double walled gas valve unit is fluidly connected with the master gas valve of the fuel gas storage unit via the double walled fuel supply storage line and the fuel gas outlet of the fuel line of the double walled gas valve unit is fluidly connected with the gaseous fuel system via the double walled fuel supply engine line .
A laser processing head comprising: a housing including an optical path of a processing laser light (LB); a transparent protector configured to be detachably fixed to the housing , to pass the processing laser light (LB), and to suppress dust entering into the housing , the dust being generated from the processed material (W) irradiated with the processing laser light (LB); and a temperature sensor configured to detect a temperature of the transparent protector , wherein the transparent protector has a glass plate having a portion configured to pass the processing laser light (LB), and the temperature sensor includes an infrared radiation thermometer, the infrared radiation thermometer being configured to optically detect a temperature of the glass plate by detecting a peak wavelength of a far-infrared light generated by a black-body radiation from the dust adhering to the glass plate , characterized in that the glass plate includes: an exposure region configured to pass the processing laser light (LB); and a non-exposure region configured not to pass the processing laser light (LB), and the exposure region is connected to the non-exposure region , and the temperature sensor optically detects a temperature of the glass plate in the non-exposure region . a housing including an optical path of a processing laser light (LB); a transparent protector configured to be detachably fixed to the housing , to pass the processing laser light (LB), and to suppress dust entering into the housing , the dust being generated from the processed material (W) irradiated with the processing laser light (LB); and a temperature sensor configured to detect a temperature of the transparent protector , wherein the transparent protector has a glass plate having a portion configured to pass the processing laser light (LB), and the temperature sensor includes an infrared radiation thermometer, the infrared radiation thermometer being configured to optically detect a temperature of the glass plate by detecting a peak wavelength of a far-infrared light generated by a black-body radiation from the dust adhering to the glass plate , characterized in that the glass plate includes: an exposure region configured to pass the processing laser light (LB); and a non-exposure region configured not to pass the processing laser light (LB), and the exposure region is connected to the non-exposure region , and an exposure region configured to pass the processing laser light (LB); and a non-exposure region configured not to pass the processing laser light (LB), and the exposure region is connected to the non-exposure region , and the temperature sensor optically detects a temperature of the glass plate in the non-exposure region .
A spin current magnetization rotational element (10; 100), comprising: a first ferromagnetic metal layer (1; 101) whose magnetization direction is changeable by a spin current; and a spin-orbit torque wiring (2; 120) which extends in a second direction (x), intersecting a first direction (z) that is a plane-orthogonal direction of the first ferromagnetic metal layer, the first ferromagnetic metal layer being located on one surface of the spin-orbit torque wiring, characterised in that the spin-orbit torque wiring has a structure in which a spin conduction layer and an interfacial spin generation layer are alternately laminated in the first direction, a number of a plurality of the interfacial spin generation layers is two or greater, and in the spin-orbit torque wiring, one of the plurality of interfacial spin generation layers is closest to the first ferromagnetic metal layer. a first ferromagnetic metal layer (1; 101) whose magnetization direction is changeable by a spin current; and a spin-orbit torque wiring (2; 120) which extends in a second direction (x), intersecting a first direction (z) that is a plane-orthogonal direction of the first ferromagnetic metal layer, the first ferromagnetic metal layer being located on one surface of the spin-orbit torque wiring, characterised in that the spin-orbit torque wiring has a structure in which a spin conduction layer and an interfacial spin generation layer are alternately laminated in the first direction, a number of a plurality of the interfacial spin generation layers is two or greater, and in the spin-orbit torque wiring, one of the plurality of interfacial spin generation layers is closest to the first ferromagnetic metal layer.
An organic electrochemical transistor, comprising: a channel , wherein the channel comprises one of: a conductive polymer, a conductive inorganic material, and a small-molecule material; and a dynamic gate coupled to the polymer-based channel via a channel electrolyte, wherein the dynamic gate comprises a gate electrode and a counter-electrode separated from the gate electrode by a gate electrolyte, and wherein an electrochemical potential of the dynamic gate is time-varying, thereby resulting in the organic electrochemical transistor having a drain current that is time-varying. a channel , wherein the channel comprises one of: a conductive polymer, a conductive inorganic material, and a small-molecule material; and a dynamic gate coupled to the polymer-based channel via a channel electrolyte, wherein the dynamic gate comprises a gate electrode and a counter-electrode separated from the gate electrode by a gate electrolyte, and wherein an electrochemical potential of the dynamic gate is time-varying, thereby resulting in the organic electrochemical transistor having a drain current that is time-varying.
Electrical connector assembly for an electrical circuit of a motor vehicle, comprising - a first housing part defining at least one cavity extending longitudinally along an insertion direction (I), - a power terminal with a connection portion configured to be inserted, in the insertion direction (I), in said at least one cavity , the power terminal having an external cylindrical surface and an internal cylindrical surface , - a first electrical conductor at least a portion of which being covered by the first housing part , and configured to be connected to the power terminal through said at least one cavity , when said power terminal is inserted in the said at least one cavity , this connector assembly being characterized - in that said cavity has an internal surface from which protrudes at least one protection structure , said at least one protection structure being configured to prevent the insertion, in the insertion direction (I), in said cavity , of a solid cylinder having a diameter equal to or greater than 12 mm, past said at least one protection structure , - in that at least one slot is defined in said external surface , said external cylindrical surface having a diameter greater than 12 mm, each slot extending longitudinally parallel to the insertion direction (I) and extending radially only over a portion of the thickness of the terminal between the external cylindrical surface and the internal cylindrical surface , and - in that said at least one protection structure can slide parallel to the insertion direction (I) in at least one slot . - a first housing part defining at least one cavity extending longitudinally along an insertion direction (I), - a power terminal with a connection portion configured to be inserted, in the insertion direction (I), in said at least one cavity , the power terminal having an external cylindrical surface and an internal cylindrical surface , - a first electrical conductor at least a portion of which being covered by the first housing part , and configured to be connected to the power terminal through said at least one cavity , when said power terminal is inserted in the said at least one cavity , - in that said cavity has an internal surface from which protrudes at least one protection structure , said at least one protection structure being configured to prevent the insertion, in the insertion direction (I), in said cavity , of a solid cylinder having a diameter equal to or greater than 12 mm, past said at least one protection structure , - in that at least one slot is defined in said external surface , said external cylindrical surface having a diameter greater than 12 mm, each slot extending longitudinally parallel to the insertion direction (I) and extending radially only over a portion of the thickness of the terminal between the external cylindrical surface and the internal cylindrical surface , and - in that said at least one protection structure can slide parallel to the insertion direction (I) in at least one slot .
Polyamide moulding composition consisting of the following components (A) 28.0-64.9 wt% of at least one polyamide, (B) 15.0-40.0 wt% of glass fibres, (C) 15.0-35.0 wt% of glass flakes having a particle thickness in the range of 0.3 - 2.0 μm, (D) 0.1-2.0 wt% of heat stabilizer, (E) 0-5.0 wt% of additives with the proviso that the sum of components (B) and (C) is in the range of 35.0 to 65.0 wt%, based on the sum of components (A) to (E), and the sum of components (A) to (E) makes 100 wt%. (A) 28.0-64.9 wt% of at least one polyamide, (B) 15.0-40.0 wt% of glass fibres, (C) 15.0-35.0 wt% of glass flakes having a particle thickness in the range of 0.3 - 2.0 μm, (D) 0.1-2.0 wt% of heat stabilizer, (E) 0-5.0 wt% of additives
Process for preparing a catalyst containing an active cobalt phase, applied on a support comprising alumina, silica or silica-alumina, said support containing a mixed oxide phase containing cobalt and/or nickel, said process comprising at least: a) a step of contacting a support comprising alumina, silica or silica-alumina with at least one solution containing at least one cobalt and/or nickel precursor, followed by drying and calcining at a temperature of between 700 and 1200°C, to give a mixed oxide phase containing cobalt and/or nickel in the support, then b) a step of contacting said support containing said mixed oxide phase with at least one solution containing at least one cobalt precursor, c) a step of contacting said support containing said mixed oxide phase with at least one organic compound comprising at least one ester function, said compound being chosen from y-valerolactone, methyl laurate, dimethyl succinate or propylene carbonate, where steps b) and c) may be carried out separately, in either order, or simultaneously, d) then performing a step of drying at a temperature lower than 200°C. a) a step of contacting a support comprising alumina, silica or silica-alumina with at least one solution containing at least one cobalt and/or nickel precursor, followed by drying and calcining at a temperature of between 700 and 1200°C, to give a mixed oxide phase containing cobalt and/or nickel in the support, then b) a step of contacting said support containing said mixed oxide phase with at least one solution containing at least one cobalt precursor, c) a step of contacting said support containing said mixed oxide phase with at least one organic compound comprising at least one ester function, said compound being chosen from y-valerolactone, methyl laurate, dimethyl succinate or propylene carbonate, where steps b) and c) may be carried out separately, in either order, or simultaneously, d) then performing a step of drying at a temperature lower than 200°C.
A press for granular or powdered material, comprising: an upper pad and a lower pad , movable towards and away from each other between a loading position, in which the two pads are located at a greater distance, and a pressing position, in which the two pads are located at a shorter distance; a conveyor belt , movable along a path that has at least one active stretch parallel to a longitudinal direction (X) and arranged between the two pads ; two lateral walls arranged parallel to the longitudinal direction (X) so as to laterally delimit a pressing compartment (V) together with the two pads ; wherein at least a lateral wall has a plurality of through openings which place the pressing compartment (V) in communication with the external environment; wherein the through openings are connected to a collection manifold; characterised in that: the conveyor belt comprises two lateral edges , parallel to the longitudinal direction (X) and projecting from the conveyor belt by a predefined height, wherein the lateral edges are provided with a plurality of through openings configured to maintain a communication passage between the pressing compartment (V) and the outside, to enable the ejection of air also in the pressing position of the pads , in which the lateral edges are in contact with the upper pad . wherein the through openings are connected to a collection manifold; characterised in that: the conveyor belt comprises two lateral edges , parallel to the longitudinal direction (X) and projecting from the conveyor belt by a predefined height, wherein the lateral edges are provided with a plurality of through openings configured to maintain a communication passage between the pressing compartment (V) and the outside, to enable the ejection of air also in the pressing position of the pads , in which the lateral edges are in contact with the upper pad .
Aircraft comprising at least one hydrogen supply device comprising at least one hydrogen tank attached to the aircraft, at least one hydrogen circuit (32.1 to 32.4), as well as at least one upstream container joined to the hydrogen tank , characterized in that the hydrogen supply device comprises at least one removable downstream container , the upstream and downstream containers being configured to occupy an assembled state, in which the upstream and downstream containers are connected, and a detached state in which the upstream and downstream containers are not joined; the hydrogen circuit (32.1 to 32.4) having an upstream segment positioned in the upstream container , a downstream segment positioned in the downstream container , as well as a first connection system which connects the upstream and downstream segments when the upstream and downstream containers are in the assembled state.
A method for processing instructions to modify a future request for content, the method comprising: at a proxy server, receiving a request for content, the content including executable instructions, wherein the proxy server is configured as a suffix proxy; retrieving the requested content from a server and storing the requested content at the proxy server; parsing the requested content to identify an executable instruction configured for generating a uniform resource locator, URL; modifying the requested content by wrapping the identified instruction to call an alternative instruction, wherein the alternative instruction is configured to append to the URL an identification of the suffix proxy; at the proxy server, storing the modified content including the wrapped instruction; and transmitting the modified content including the wrapped instruction to a client device. at a proxy server, receiving a request for content, the content including executable instructions, wherein the proxy server is configured as a suffix proxy; retrieving the requested content from a server and storing the requested content at the proxy server; parsing the requested content to identify an executable instruction configured for generating a uniform resource locator, URL; modifying the requested content by wrapping the identified instruction to call an alternative instruction, wherein the alternative instruction is configured to append to the URL an identification of the suffix proxy; at the proxy server, storing the modified content including the wrapped instruction; and transmitting the modified content including the wrapped instruction to a client device.
A polysilazane compound comprising recurring units of the general formula and having a number average molecular weight of 1,000 to 200,000 as measured by gel permeation chromatography versus polystyrene standards, wherein R 1 , R 3 and R 5 are each independently a substituted or unsubstituted C 1 -C 20 monovalent hydrocarbon group which may contain a heteroatom, R 2 is a substituted or unsubstituted C 2 -C 20 divalent hydrocarbon group which may contain a heteroatom, R 4 is an organosiloxane-containing group of the general formula : -O-Si(R 6 ) x [(OSi(R 6 ) 2 ) y OSi(R 6 ) 3 ] (3-x) wherein R 6 is each independently a C 1 -C 10 monovalent hydrocarbon group which may be substituted with halogen, x is 0, 1, 2 or 3, a plurality of OSiR 6 3 groups may undergo siloxane-eliminating condensation to form a cyclic siloxane when x is 0 or 1, and y is an integer of 0 to 30, p is 0 or 1, q is 1, 2 or 3, r is 0, 1, 2 or 3, a is a number from more than 0 to 1, b is a number from 0 to 1, and a+b is equal to 1.
A method comprising: receiving, by a wireless device , an activation command indicating activation of a set of at least two transmission configuration indicator, TCI, states for a control resource set, coreset, with a lowest coreset index in an active downlink bandwidth part of a cell; selecting, for transmission of an uplink signal, a TCI state that occurs first in the set of the at least two TCI states in response to the coreset being activated with the at least two TCI states; and transmitting, via an uplink resource, the uplink signal with a transmission parameter determined based on the TCI state. receiving, by a wireless device , an activation command indicating activation of a set of at least two transmission configuration indicator, TCI, states for a control resource set, coreset, with a lowest coreset index in an active downlink bandwidth part of a cell; selecting, for transmission of an uplink signal, a TCI state that occurs first in the set of the at least two TCI states in response to the coreset being activated with the at least two TCI states; and transmitting, via an uplink resource, the uplink signal with a transmission parameter determined based on the TCI state.