mhurhangee/patent-ind-claim-en huggingface dataset:
A high-efficiency reciprocating piston engine , driven by pressurized air or other compressible gases, said engine comprising at least a tank , a turbo-alternator and one or more fluid heaters, at least a cylinder and at least a piston in said cylinder, a motor cylinder head pre-chamber forming a plenum chamber having a size proportional to a displacement of said engine and to a power to be achieved thereby, said engine being characterized in that said engine comprises unidirectional valves , applied either to one or more suction ducts formed in said engine head , thereby allowing said piston to draw, during its downward stroke, supplementary air from an outer environment to convey said air into said chamber, wherein said valves are designed to overcome any resistance generated by a vacuum in said cylinder in a passive mode of operation of said engine, and in that said engine further comprises filter elements arranged in said engine head suction ducts , for filtering supplementary air from the outside environment to said tank and engine, said air, being sucked or drawn by the piston in the piston downward stroke, after drawing and filtering thereon, under a mechanical work by which said air is operatively sent to the engine operating cycle, being reintroduced again, in a filtered condition, into said outside environment in an upward stroke of said piston through an unloading or outlet valve and duct.
A method for network slice configuration, comprising: receiving , by an access-network network element, a request message from a terminal, wherein the request message comprises network slice identification information, and the network slice identification indicates a network slice type or a specific network slice entity; sending , by the access-network network element, a network slice configuration request message to a core-network network element, wherein the network slice configuration request message carries the network slice identification information; receiving , by the access-network network element, a configuration message from the core-network network element, wherein the configuration message carries network slice configuration information, and the network slice configuration information comprises the network slice identification information and a quality of service, QoS, parameter of each network slice; sending , by the access-network network element, a response message to the core-network network element; and sending , by the access-network network element, a network slice configuration notification message to the terminal, wherein the network slice configuration notification message carries the network slice configuration information. receiving , by an access-network network element, a request message from a terminal, wherein the request message comprises network slice identification information, and the network slice identification indicates a network slice type or a specific network slice entity; sending , by the access-network network element, a network slice configuration request message to a core-network network element, wherein the network slice configuration request message carries the network slice identification information; receiving , by the access-network network element, a configuration message from the core-network network element, wherein the configuration message carries network slice configuration information, and the network slice configuration information comprises the network slice identification information and a quality of service, QoS, parameter of each network slice; sending , by the access-network network element, a response message to the core-network network element; and sending , by the access-network network element, a network slice configuration notification message to the terminal, wherein the network slice configuration notification message carries the network slice configuration information.
A computer-implemented method of bulk data ingestion prioritization in a data system comprising: implementing a first Bloom filter on a dataset, wherein the dataset includes a plurality of profile data; receiving an update dataset corresponding to some of the plurality of profile data; implementing a second Bloom filter on the dataset including the update dataset subsequent to implementing the first Bloom filter; determining a set of non-shared profile data of the second Bloom filter based on an intersection of the first Bloom filter and the second Bloom filter ; prioritizing bulk data ingestion of the set of non-shared profile data of the second Bloom filter into a caching system over other profile data of the dataset by rank ordering the profile data of the dataset according to a prioritization schedule wherein non-shared profile data of the second Bloom filter is rank ordered for sending to the caching system sooner than common data to the first Bloom filter and the second Bloom filter or non-shared data of the first Bloom filter; sending for caching the set of non-shared profile data of the second Bloom filter according to the prioritization schedule ; and after caching the rank ordered profile data, renaming the second Bloom filter to become a subsequent first Bloom filter for use in a next iteration of the method. implementing a first Bloom filter on a dataset, wherein the dataset includes a plurality of profile data; receiving an update dataset corresponding to some of the plurality of profile data; implementing a second Bloom filter on the dataset including the update dataset subsequent to implementing the first Bloom filter; determining a set of non-shared profile data of the second Bloom filter based on an intersection of the first Bloom filter and the second Bloom filter ; prioritizing bulk data ingestion of the set of non-shared profile data of the second Bloom filter into a caching system over other profile data of the dataset by rank ordering the profile data of the dataset according to a prioritization schedule wherein non-shared profile data of the second Bloom filter is rank ordered for sending to the caching system sooner than common data to the first Bloom filter and the second Bloom filter or non-shared data of the first Bloom filter; sending for caching the set of non-shared profile data of the second Bloom filter according to the prioritization schedule ; and after caching the rank ordered profile data, renaming the second Bloom filter to become a subsequent first Bloom filter for use in a next iteration of the method.
A thermal ink-jet ink, comprising a polymer encapsulated pigment, wherein the polymer is polymerized at the surface of the pigment using a plurality of monomers, wherein 6 wt% to 8 wt% of the monomers are acidic.
A method of operating a wireless communication device , comprising: - monitoring for signals from a communications network in a connected mode of the wireless communication device with a receive beam configuration , and - storing the receive beam configuration , - monitoring for further signals (4003-4005) from the communications network in a disconnected mode of the wireless communication device with the stored receive beam configuration until occurrence of at least one predefined event (261, 261-1, 261-2), - monitoring for the further signals (4003-4005) in the disconnected mode with a further receive beam configuration after the occurrence of the at least one predefined event (261, 261-1, 261-2), the further receive beam configuration being different from the stored receive beam configuration , wherein the further signals (4003-4005) comprise paging signals, and - using a first paging configuration for monitoring for the paging signals while monitoring for the paging signals using the stored receive beam configuration until the occurrence of the at least one predefined event (261, 261-1, 261-2), and - using a second paging configuration for monitoring for the paging signals while monitoring for the paging signals using the further receive beam configuration after the occurrence of the at least one predefined event (261, 261 - 1, 261-2), the first paging configuration being different from the second paging configuration . - monitoring for signals from a communications network in a connected mode of the wireless communication device with a receive beam configuration , and - storing the receive beam configuration , - monitoring for further signals (4003-4005) from the communications network in a disconnected mode of the wireless communication device with the stored receive beam configuration until occurrence of at least one predefined event (261, 261-1, 261-2), - monitoring for the further signals (4003-4005) in the disconnected mode with a further receive beam configuration after the occurrence of the at least one predefined event (261, 261-1, 261-2), the further receive beam configuration being different from the stored receive beam configuration , wherein the further signals (4003-4005) comprise paging signals, and - using a first paging configuration for monitoring for the paging signals while monitoring for the paging signals using the stored receive beam configuration until the occurrence of the at least one predefined event (261, 261-1, 261-2), and - using a second paging configuration for monitoring for the paging signals while monitoring for the paging signals using the further receive beam configuration after the occurrence of the at least one predefined event (261, 261 - 1, 261-2), the first paging configuration being different from the second paging configuration .
An optical modulator capable of modulating incident laser beam (L) by a compound semiconductor single crystal having a property of generating an electro-optic effect, characterised in the optical modulator comprising: incidence limiting means which is provided on or near an incidence plane, on which the laser beam can be incident, of the compound semiconductor single crystal so as to limit incidence of light other than the laser beam (L) on the incidence plane ; and a shielding member which is formed from a low-permittivity material having a light blocking effect, and covers a surface of the compound semiconductor single crystal that extends along a traveling direction of the laser beam (L) that entered the compound semiconductor single crystal . incidence limiting means which is provided on or near an incidence plane, on which the laser beam can be incident, of the compound semiconductor single crystal so as to limit incidence of light other than the laser beam (L) on the incidence plane ; and a shielding member which is formed from a low-permittivity material having a light blocking effect, and covers a surface of the compound semiconductor single crystal that extends along a traveling direction of the laser beam (L) that entered the compound semiconductor single crystal .
Strip-shaped cuff for measuring blood pressure, having a longitudinal direction and a transverse direction , and having an inner face and an outer face , wherein the strip-shaped cuff comprises a loop element , and having an end portion which can be guided through the loop element , wherein the strip-shaped cuff has a first longitudinal portion , which comprises the loop element , wherein the first longitudinal portion has a first lower edge region and a first upper edge region , and wherein the strip-shaped cuff comprises a bladder region , wherein the bladder region has a bladder , wherein the first longitudinal portion has a positioning aid at the first lower edge region , and wherein the first upper edge region has a first fitting aid with a first tactile means , wherein the first tactile means is configured in the form of a flap, a grip, a hook, a handle or a bow, characterized in that the positioning aid comprises a recess , wherein the positioning aid comprises a first wing and a second wing , and the recess in the longitudinal direction is delimited on both sides by the wings .
An in vitro method of producing a pancreatic progenitor cell that produces insulin, comprising elevating miR-124 expression of a mammalian trophoblast stem cell by contacting it with 0.1 ng/mL to 100 ng/mL of a fibroblast growth factor (FGF) to induce differentiation into the pancreatic progenitor cell.
A method carried out by a control entity for selecting a network slice, the method comprising: receiving a create session request message from a serving gateway, S-GW, in response to a packet data network, PDN, connectivity request message transmitted by a terminal ; transmitting , to a storage entity, a request message for subscriber information including a data type of requested subscribed information and key information via which the data type of the subscribed information is accessible, wherein the key information is included in a Subscription Permanent Identifier, SUPI; receiving , from the storage entity, subscription data of the terminal corresponding to the SUPI, wherein the subscription data include one or more pieces of subscribed Single-Network Slice Selection Assistance Information, S-NSSAls; selecting, from the one or more S-NSSAls, a S-NSSAI that the S-NSSAI is supportable by the control entity; and transmitting a create session response message including the selected S-NSAAI in the form of a protocol configuration option, PCO, to the S-GW, wherein the control entity is a combo node of a session management function, SMF, and a PDN gateway control, PGW-C, and the storage entity is a combo node of a home subscriber server, HSS, and a unified data management, UDM, characterized in that the subscription data further comprises information indicating whether each of the subscribed S-NSSAls is subject to network slice-specific authentication and authorization, NSSAA, and in the selecting, the S-NSSAI is selected based on the additional criterion of not being subject to NSSAA. receiving a create session request message from a serving gateway, S-GW, in response to a packet data network, PDN, connectivity request message transmitted by a terminal ; transmitting , to a storage entity, a request message for subscriber information including a data type of requested subscribed information and key information via which the data type of the subscribed information is accessible, wherein the key information is included in a Subscription Permanent Identifier, SUPI; receiving , from the storage entity, subscription data of the terminal corresponding to the SUPI, wherein the subscription data include one or more pieces of subscribed Single-Network Slice Selection Assistance Information, S-NSSAls; selecting, from the one or more S-NSSAls, a S-NSSAI that the S-NSSAI is supportable by the control entity; and transmitting a create session response message including the selected S-NSAAI in the form of a protocol configuration option, PCO, to the S-GW, wherein the control entity is a combo node of a session management function, SMF, and a PDN gateway control, PGW-C, and the storage entity is a combo node of a home subscriber server, HSS, and a unified data management, UDM, characterized in that the subscription data further comprises information indicating whether each of the subscribed S-NSSAls is subject to network slice-specific authentication and authorization, NSSAA, and in the selecting, the S-NSSAI is selected based on the additional criterion of not being subject to NSSAA.
A method for operating a laser system , comprising: directing inert gas against an object within a cavity of a collection device ; forming an aperture in the object by ablating the object with a laser beam that travels within the cavity and to the object ; removing byproducts of the ablation from the cavity ; and characterised by directing gas into the cavity proximate a lens ; wherein: the laser beam travels from the lens , within the cavity , to the object ; the byproducts are removed from the cavity through an outlet of the collection device; the inert gas is directed into the cavity through a first inlet of the collection device positioned between the object and the outlet ; the gas is directed into the cavity through a second inlet of the collection device positioned between the lens and the outlet ; the laser system further comprises a laser scanner head adapted to receive the laser beam and scan this laser beam over at least a portion of the object ; and the collection device is mated to the scanning head . directing inert gas against an object within a cavity of a collection device ; forming an aperture in the object by ablating the object with a laser beam that travels within the cavity and to the object ; removing byproducts of the ablation from the cavity ; and characterised by directing gas into the cavity proximate a lens ; wherein: the laser beam travels from the lens , within the cavity , to the object ; the byproducts are removed from the cavity through an outlet of the collection device; the inert gas is directed into the cavity through a first inlet of the collection device positioned between the object and the outlet ; the gas is directed into the cavity through a second inlet of the collection device positioned between the lens and the outlet ; the laser system further comprises a laser scanner head adapted to receive the laser beam and scan this laser beam over at least a portion of the object ; and the collection device is mated to the scanning head . the laser beam travels from the lens , within the cavity , to the object ; the byproducts are removed from the cavity through an outlet of the collection device; the inert gas is directed into the cavity through a first inlet of the collection device positioned between the object and the outlet ; the gas is directed into the cavity through a second inlet of the collection device positioned between the lens and the outlet ; the laser system further comprises a laser scanner head adapted to receive the laser beam and scan this laser beam over at least a portion of the object ; and the collection device is mated to the scanning head .
An apparatus comprising: a plurality of phase-change memory, PCM, elements , wherein the plurality of PCM elements include dummy cells and active cells electrically coupled with the dummy cells , wherein each of the dummy cells includes: a bottom electrode layer ; a select device layer disposed on the bottom electrode layer; a middle electrode layer disposed on the select device layer ; a phase-change material layer disposed on the middle electrode layer; and a top electrode layer disposed on the phase-change material layer , characterised in that the phase-change material layer is doped with an impurity to reduce cell leakage of the dummy cells , wherein the active cells are free from doping with the impurity . a bottom electrode layer ; a select device layer disposed on the bottom electrode layer; a middle electrode layer disposed on the select device layer ; a phase-change material layer disposed on the middle electrode layer; and a top electrode layer disposed on the phase-change material layer , characterised in that the phase-change material layer is doped with an impurity to reduce cell leakage of the dummy cells , wherein the active cells are free from doping with the impurity .
A matrix access method, wherein the matrix is stored in an off-chip storage using a matrix storage method comprising dividing a matrix into a plurality of data blocks with a preset block size of N rows × M columns, at least one of N and M is greater than 1, and storing the data in each of the first data blocks continuously in an off-chip storage, and storing the data in each of the second data blocks continuously in the off-chip storage; wherein the plurality of data blocks comprises at least one first data block of N rows × M columns; if the column number of the matrix is not an integer multiple of M, the plurality of data blocks further comprises at least one second data block of N rows × P columns, the second data block is aligned with an adjacent row of first data block, and P is less than M; the matrix access method is characterized by comprising: receiving an access request for the matrix, wherein the access request comprises access parameters of the matrix; if the data block corresponding to the access parameter comprises a complete first data block or a complete second data block, reading the data of the data block from the off-chip storage; if the data block corresponding to the access parameter comprises an incomplete first data block or an incomplete second data block, reading the data of the data block from the off-chip storage is prohibited. receiving an access request for the matrix, wherein the access request comprises access parameters of the matrix; if the data block corresponding to the access parameter comprises a complete first data block or a complete second data block, reading the data of the data block from the off-chip storage; if the data block corresponding to the access parameter comprises an incomplete first data block or an incomplete second data block, reading the data of the data block from the off-chip storage is prohibited.
A protective film for protecting an anode of a lithium battery, the protective film consisting of: a polymeric porous film; and a polymeric material having lithium-ion conductivity per se, which does not contain a lithium electrolyte salt, wherein at least one surface of the polymeric porous film is covered with a layer of the polymeric material having lithium-ion conductivity per se, and wherein the polymeric porous film is completely impregnated with the polymeric material having lithium-ion conductivity per se. a polymeric porous film; and a polymeric material having lithium-ion conductivity per se, which does not contain a lithium electrolyte salt, wherein at least one surface of the polymeric porous film is covered with a layer of the polymeric material having lithium-ion conductivity per se, and wherein the polymeric porous film is completely impregnated with the polymeric material having lithium-ion conductivity per se.
A method for preparing a cyclic carbonate functional polyester, said method comprising reacting glycerine carbonate with an anhydride to form an Adduct (A) having a general structure of Formula (I) in which n is 1, 2 or 3, reacting said Adduct (A) with at least one polyepoxide compound to form an Adduct (B) having a general structure of Formula (II) in which R 1 represents a residue of a dihydric phenol or dihydric alcohol, and n is 1, 2 or 3, and reacting said Adduct (B) with at least one polycarboxylic acid to form said cyclic carbonate functional polyester. reacting glycerine carbonate with an anhydride to form an Adduct (A) having a general structure of Formula (I) in which n is 1, 2 or 3, reacting said Adduct (A) with at least one polyepoxide compound to form an Adduct (B) having a general structure of Formula (II) in which R 1 represents a residue of a dihydric phenol or dihydric alcohol, and n is 1, 2 or 3, and reacting said Adduct (B) with at least one polycarboxylic acid to form said cyclic carbonate functional polyester.