mhurhangee/patent-ind-claim-en huggingface dataset:
A composite semipermeable membrane comprising a fibrous substrate , a porous support provided on the substrate, and a separation functional layer disposed on the porous support, wherein the substrate has a structure comprising press-bonded parts due to partial thermal press bonding having a fiber density of 0.8-1.0 and non-press-bonded parts which have not undergone the partial thermal press bonding having a fiber density of 0.4-0.75, the press-bonded parts being present in a proportion of up to 50% per unit area of the substrate, the fiber density being determined as described in the description, the porous support has been provided on the substrate so that some of the porous support has impregnated into the substrate and said support impregnated into the press-bonded parts of the substrate has a weight, determined as described in the description, of 0.1 g/m 2 - 2 g/m 2 , and the porous support impregnated into the non-press-bonded parts of the substrate has a weight determined as described in the description, of 3 g/m 2 - 20 g/m 2 , wherein a difference in thickness between the press-bonded parts and the non-press-bonded parts of the substrate is 10 μm -95 μm, wherein the thickness between the press-bonded parts and the non-press-bonded parts is determined as described in the description. the substrate has a structure comprising press-bonded parts due to partial thermal press bonding having a fiber density of 0.8-1.0 and non-press-bonded parts which have not undergone the partial thermal press bonding having a fiber density of 0.4-0.75, the press-bonded parts being present in a proportion of up to 50% per unit area of the substrate, the fiber density being determined as described in the description, the porous support has been provided on the substrate so that some of the porous support has impregnated into the substrate and said support impregnated into the press-bonded parts of the substrate has a weight, determined as described in the description, of 0.1 g/m 2 - 2 g/m 2 , and the porous support impregnated into the non-press-bonded parts of the substrate has a weight determined as described in the description, of 3 g/m 2 - 20 g/m 2 , wherein a difference in thickness between the press-bonded parts and the non-press-bonded parts of the substrate is 10 μm -95 μm, wherein the thickness between the press-bonded parts and the non-press-bonded parts is determined as described in the description.
A method of operating an elevator system comprising: identifying one or more components in an elevator hoistway requiring periodic maintenance and/or inspection; programming hoistway component locations of the one or more components into an elevator car control system ; driving the elevator car to a programmed hoistway component location of a selected component of the one or more components utilizing the hoistway component location programmed into the elevator car control system ; and accessing the selected component from inside the elevator car to perform maintenance and/or inspection of the selected component ; characterized in that programming the hoistway component locations of the one or more components comprises: driving the elevator car to the hoistway component location; and recording a sensed hoistway component location into the elevator car control system , the sensed hoistway component location indicative of the hoistway component location. identifying one or more components in an elevator hoistway requiring periodic maintenance and/or inspection; programming hoistway component locations of the one or more components into an elevator car control system ; driving the elevator car to a programmed hoistway component location of a selected component of the one or more components utilizing the hoistway component location programmed into the elevator car control system ; and accessing the selected component from inside the elevator car to perform maintenance and/or inspection of the selected component ; characterized in that programming the hoistway component locations of the one or more components comprises: driving the elevator car to the hoistway component location; and recording a sensed hoistway component location into the elevator car control system , the sensed hoistway component location indicative of the hoistway component location. driving the elevator car to the hoistway component location; and recording a sensed hoistway component location into the elevator car control system , the sensed hoistway component location indicative of the hoistway component location.
A submerged combustion melting system comprising: a submerged combustion melter including: a housing having one or more side walls , a floor , and a ceiling which at least partially define a melt chamber; one or more main burners positioned along the floor of the housing; and the submerged combustion melter further includes an oxygen/gas pre-heat burner system , the preheat burner system arranged such that a flame from the preheat burner system is directed downward into the melt chamber, characterized in that the pre-heat burner system is removably attached to one or more sidewalls or the ceiling, and the preheat burner system includes an inner gas passage extending to a gas outlet on a first side , an outer oxygen passage concentric with the gas passage and a spark igniter within the inner gas passage, the igniter having a tip at or near the first side, wherein the tip includes a central electrode and the igniter is configured to generate a high voltage spark between the central electrode and a wall of the gas passage to provide the ignition source for the preheat burner system . a housing having one or more side walls , a floor , and a ceiling which at least partially define a melt chamber; one or more main burners positioned along the floor of the housing; and the submerged combustion melter further includes an oxygen/gas pre-heat burner system , the preheat burner system arranged such that a flame from the preheat burner system is directed downward into the melt chamber, characterized in that the pre-heat burner system is removably attached to one or more sidewalls or the ceiling, and the preheat burner system includes an inner gas passage extending to a gas outlet on a first side , an outer oxygen passage concentric with the gas passage and a spark igniter within the inner gas passage, the igniter having a tip at or near the first side, wherein the tip includes a central electrode and the igniter is configured to generate a high voltage spark between the central electrode and a wall of the gas passage to provide the ignition source for the preheat burner system .
A knife with a knife body having an accommodation space and with at least one blade with a cutting edge , wherein an additional tool is held releasably on the knife body , the tool has at least two working sections and is provided with a retaining section which, in at least two different relative positions, can be brought into engagement with an accommodating section of a tool seating of the knife body , such that optional either one of the working sections can be arranged in a working position for being able to be used by a user, while the other working section is in a stowed position, characterised in that the tool seating is assigned to a carrier which is movable relative to the knife body , into the accommodation space in an operation position through an opening and out of the accommodation space in a change position, whereby in the change position the tool can be removed from the tool seating and whereby in the operation position of the carrier the working section of the tool being in a working position protrudes the outer contour of the knife.
Austenitic stainless steel sheet for an exhaust component having excellent heat resistance comprising, by mass%, C: 0.005 to 0.2%, Si: 0.1 to 4%, Mn: 0.1 to 10%, Ni: 2 to 25%, Cr: 15 to 30%, N: 0.01 to 0.4%, Al: 0.001 to 1%, Cu: 0.05 to 4%, Mo: 0.02 to 3%, V: 0.02 to 1%, P: 0.05% or less, and S: 0.01% or less, optionally further comprising, by mass%, one or more of Ti: 0.005 to 0.3%, Nb: 0.005 to 0.3%, B: 0.0002 to 0.005%, Ca: 0.0005 to 0.01%, W: 0.1 to 3%, Zr: 0.05 to 0.3%, Sn: 0.01 to 0.5%, Co: 0.03 to 0.3%, Mg: 0.0002 to 0.01%, Sb: 0.005 to 0.3%, REM: 0.002 to 0.2%, Ga: 0.0002 to 0.3%, Ta: 0.01 to 1.0%, Hf: 0.01 to 1.0% and Bi: 0.001 to 0.02% and a balance of Fe and unavoidable impurities, and having an annealing twin frequency of 40% or more which is determined by a method disclosed in the description.
A storage medium management method, applied to a storage system, wherein the method comprises: when detecting that a component in a storage medium fails, recovering , based on a specified redundant array of independent disks, RAID, policy, data stored in the failed component; and saving the recovered data into redundant space of the storage medium, and mapping an address of the failed component into the redundant space, to manage the storage medium, characterized in that the redundant space is preconfigured based on the maintenance-free rate, the maintenance-free period, the AFR of the storage medium, and the total quantity of components included in the storage medium or is configured after a maintenance-free rate, a maintenance-free period, an annualized failure rate, AFR, of the storage medium, and a total quantity of components comprised in the storage medium are determined, wherein the maintenance-free rate is a probability that the redundant space is not all damaged, the maintenance-free period is a period in which the storage medium does not need to be maintained, and the AFR is a probability that the storage medium fails in one year, wherein the maintenance-free rate and the maintenance-free period are carried in a configuration instruction for the storage medium or obtained by querying a user-defined register, and the AFR is obtained by querying or carried in the configuration instruction. when detecting that a component in a storage medium fails, recovering , based on a specified redundant array of independent disks, RAID, policy, data stored in the failed component; and saving the recovered data into redundant space of the storage medium, and mapping an address of the failed component into the redundant space, to manage the storage medium, characterized in that the redundant space is preconfigured based on the maintenance-free rate, the maintenance-free period, the AFR of the storage medium, and the total quantity of components included in the storage medium or is configured after a maintenance-free rate, a maintenance-free period, an annualized failure rate, AFR, of the storage medium, and a total quantity of components comprised in the storage medium are determined, wherein the maintenance-free rate is a probability that the redundant space is not all damaged, the maintenance-free period is a period in which the storage medium does not need to be maintained, and the AFR is a probability that the storage medium fails in one year, wherein the maintenance-free rate and the maintenance-free period are carried in a configuration instruction for the storage medium or obtained by querying a user-defined register, and the AFR is obtained by querying or carried in the configuration instruction.
A method for determining the point in a random transverse plane of a spool where the film releases from the spool during unwinding of film from this spool, wherein the method is characterized in that a wave is emitted radially toward the axis of the spool and is either incident upon film present on the spool or incident upon film which has released from the spool and wherein at least a fraction of the reflected wave is picked up when, and only when, this reflected wave evolves radially away from the axis of the spool.
A target service execution method, wherein the method is performed by an electronic device and comprises: receiving (S101) a first broadcast signal from a first device, wherein the first broadcast signal carries an identifier of the first device; starting (S102) a target application in the electronic device based on the identifier of the first device; and when receiving a second broadcast signal from a second device, establishing (S103) a communication connection between the target application and the second device based on an identifier of the second device that is carried in the second broadcast signal, to execute a target service corresponding to the target application, wherein the first device is one of at least one first device deployed on a moving path of the electronic device, the second device is one of at least one second device deployed on the moving path of the electronic device, and the first device is deployed closer to a start point of the moving path of the electronic device than the second device. receiving (S101) a first broadcast signal from a first device, wherein the first broadcast signal carries an identifier of the first device; starting (S102) a target application in the electronic device based on the identifier of the first device; and when receiving a second broadcast signal from a second device, establishing (S103) a communication connection between the target application and the second device based on an identifier of the second device that is carried in the second broadcast signal, to execute a target service corresponding to the target application, wherein the first device is one of at least one first device deployed on a moving path of the electronic device, the second device is one of at least one second device deployed on the moving path of the electronic device, and the first device is deployed closer to a start point of the moving path of the electronic device than the second device.
An information transmission method, applied to a first network, wherein a convergence gateway is deployed in the first network, the first network is connected to a second network by using the convergence gateway, wherein the first network is configured to function as a cell within the second network, and the method comprises: receiving , by the convergence gateway, a service request sent by first user equipment, wherein the service request comprises identity information of the first user equipment and service information of the first user equipment; obtaining , by the convergence gateway, first user permission information of the first user equipment in the first network according to the identity information of the first user equipment; and determining , by the convergence gateway based on the first user permission information, a forwarding manner for forwarding the service information to second user equipment, wherein the forwarding manner comprises any one of the following manners: directly forwarding the service information to the second user equipment by using the convergence gateway; or forwarding the service information to the second network by using the convergence gateway, and forwarding the service information to the second user equipment by using the second network. receiving , by the convergence gateway, a service request sent by first user equipment, wherein the service request comprises identity information of the first user equipment and service information of the first user equipment; obtaining , by the convergence gateway, first user permission information of the first user equipment in the first network according to the identity information of the first user equipment; and determining , by the convergence gateway based on the first user permission information, a forwarding manner for forwarding the service information to second user equipment, wherein the forwarding manner comprises any one of the following manners: directly forwarding the service information to the second user equipment by using the convergence gateway; or forwarding the service information to the second network by using the convergence gateway, and forwarding the service information to the second user equipment by using the second network. directly forwarding the service information to the second user equipment by using the convergence gateway; or forwarding the service information to the second network by using the convergence gateway, and forwarding the service information to the second user equipment by using the second network.
A method for wireless communication by a user-equipment, UE,, comprising: determining quality of service, QoS, information for communication of data using a vehicle to everything, V2X, communication protocol; reporting the QoS information by transmitting a first message; receiving a second message indicating configuration information corresponding to the communication of the data using the V2X communication protocol, in which the configuration information is determined based on the QoS information reported in the first message; and communicating the data based on the configuration information. determining quality of service, QoS, information for communication of data using a vehicle to everything, V2X, communication protocol; reporting the QoS information by transmitting a first message; receiving a second message indicating configuration information corresponding to the communication of the data using the V2X communication protocol, in which the configuration information is determined based on the QoS information reported in the first message; and communicating the data based on the configuration information.
A silica-based material comprising: silicon; aluminum; at least one fourth period element selected from the group consisting of iron, cobalt, nickel and zinc; and at least one basic element selected from the group consisting of alkali metal elements, alkali earth metal elements and rare earth elements, wherein the silica-based material comprises 42 to 90 mol% of the silicon, 3 to 38 mol% of the aluminum, 0.5 to 20 mol% of the fourth period element and 2 to 38 mol% of the basic element, based on a total mole of the silicon, the aluminum, the fourth period element and the basic element; and wherein the distribution range of measured values of the fourth period element is within 10 %, determined by observing the cross-section of the silica-based material is observed by electron probe microanalysis (EPMA). silicon; aluminum; at least one fourth period element selected from the group consisting of iron, cobalt, nickel and zinc; and at least one basic element selected from the group consisting of alkali metal elements, alkali earth metal elements and rare earth elements, wherein the silica-based material comprises 42 to 90 mol% of the silicon, 3 to 38 mol% of the aluminum, 0.5 to 20 mol% of the fourth period element and 2 to 38 mol% of the basic element, based on a total mole of the silicon, the aluminum, the fourth period element and the basic element; and wherein the distribution range of measured values of the fourth period element is within 10 %, determined by observing the cross-section of the silica-based material is observed by electron probe microanalysis (EPMA).
An impression chamber for a 3D printer , the 3D printer adapted to receive a High Performance Plastic filament and comprising a print head movable for providing successive layers of fused filaments deposited to form a piece , and a printing bed for supporting said deposition of layers, - wherein the impression chamber comprises a thermally insulated plate and at least one first polyimide film attached to the plate for delimiting a closed printing space in which a High Performance Plastic piece is to be printed, - wherein the plate is dimensioned to have a surface at least equal or larger than the major surface of the piece to be printed; - wherein the at least one first polyimide film is dimensioned to surround the printing bed to hold said printing bed within the printing space , - wherein the plate is further provided with at least one first through-hole for allowing the passage of at least part of the print head , so that the plate is moved by the movement of the print head and the polyimide film is dragged by said movement providing a flexible and adaptable impression chamber , whereby the printing bed of the 3D printer has an upper surface on which the piece is to be printed, and a lower surface opposite to the upper surface, and wherein the impression chamber further comprises a second polyimide film sealed to the first polyimide film , wherein the first polyimide film is dimensioned to cover at least the upper surface of the printing bed and the second polyimide film is dimensioned to cover at least the lower surface of the printing bed . - wherein the impression chamber comprises a thermally insulated plate and at least one first polyimide film attached to the plate for delimiting a closed printing space in which a High Performance Plastic piece is to be printed, - wherein the plate is dimensioned to have a surface at least equal or larger than the major surface of the piece to be printed; - wherein the at least one first polyimide film is dimensioned to surround the printing bed to hold said printing bed within the printing space , - wherein the plate is further provided with at least one first through-hole for allowing the passage of at least part of the print head , so that the plate is moved by the movement of the print head and the polyimide film is dragged by said movement providing a flexible and adaptable impression chamber ,
A computer-implemented method for configuring a computer graphical user interface, GUI, for a requesting entity to authorize hybrid operations , wherein the hybrid operation comprises a plurality of sub-operations, each sub-operation having associated at least one type of operation, and wherein each hybrid operation is a software module that returns a list of the types of the sub-operations comprised in that hybrid operation, and wherein each requesting entity is associated in an authorization database with authorization rights specifying whether the requesting entity is authorized or not authorized to execute the type of sub-operation, the method comprising: - associating a GUI functional element with the hybrid operation , wherein the functional element can be in active or inactive mode; - resolving the hybrid operation to the plurality of sub-operations and determining the at least one type for the sub-operations; - determining , in the authorization database , whether the type of each of the sub-operations is authorized for execution by the requesting entity; - if all of the sub operation types are authorized for execution by the requesting entity, setting the functional element in the active mode and otherwise setting the GUI functional element in the inactive mode. - associating a GUI functional element with the hybrid operation , wherein the functional element can be in active or inactive mode; - resolving the hybrid operation to the plurality of sub-operations and determining the at least one type for the sub-operations; - determining , in the authorization database , whether the type of each of the sub-operations is authorized for execution by the requesting entity; - if all of the sub operation types are authorized for execution by the requesting entity, setting the functional element in the active mode and otherwise setting the GUI functional element in the inactive mode.