mhurhangee/patent-ind-claim-en huggingface dataset:
A system comprising: at least one physical memory device to store calibration logic; and one or more processors coupled with the at least one physical memory device to execute the calibration logic to: generate a uniformity compensated halftone design for each of a plurality of pel forming elements , whereby pels are picture elements; generate a missing neighbor corrected halftone design for each of the pel forming elements based on missing neighbor corrected inverse transfer functions, wherein the missing neighbor corrected inverse transfer functions are generated based on second print image measurement data comprising missing neighbor data based on data generated without one or more of the pluralities of pel forming elements ; characterized in that the one or more processors coupled with the at least one physical memory device is configured to execute the calibration logic to: generate a missing neighbor threshold lowering function for each of the pel forming elements by mapping data thresholds associated with a uniformity compensated halftone design for each of the pel forming elements to data thresholds associated with a missing neighbor corrected halftone design for each of the pel forming elements , the missing neighbor threshold lowering function lowering halftone design thresholds for neighbors of a missing pel forming element ; and compute an average of the missing neighbor threshold lowering functions to generate an average missing neighbor threshold lowering function. generate a uniformity compensated halftone design for each of a plurality of pel forming elements , whereby pels are picture elements; generate a missing neighbor corrected halftone design for each of the pel forming elements based on missing neighbor corrected inverse transfer functions, wherein the missing neighbor corrected inverse transfer functions are generated based on second print image measurement data comprising missing neighbor data based on data generated without one or more of the pluralities of pel forming elements ; characterized in that the one or more processors coupled with the at least one physical memory device is configured to execute the calibration logic to: generate a missing neighbor threshold lowering function for each of the pel forming elements by mapping data thresholds associated with a uniformity compensated halftone design for each of the pel forming elements to data thresholds associated with a missing neighbor corrected halftone design for each of the pel forming elements , the missing neighbor threshold lowering function lowering halftone design thresholds for neighbors of a missing pel forming element ; and compute an average of the missing neighbor threshold lowering functions to generate an average missing neighbor threshold lowering function.
A process for the oxidative dehydrogenation of ethane to ethylene comprising: providing a multitubular fixed-bed reactor comprising a reactor inlet, an interior shell space, a perforated partition that divides the interior shell space into an upstream region and a downstream region, and a plurality of reactor tubes, wherein the plurality of reactor tubes comprise a catalyst bed that comprises an oxidative dehydrogenation catalyst; supplying a feed gas comprising ethane and oxygen to the reactor inlet and allowing the ethane and oxygen to react in the presence of the oxidative dehydrogenation catalyst to yield a reactor effluent comprising ethylene; supplying a coolant to the upstream region in a flow pattern that is counter-current with the flow of the feed gas through the plurality of reactor tubes; and withdrawing the coolant from the upstream region and supplying at least a portion of the coolant withdrawn from the upstream region to the downstream region in a flow pattern that is co-current with the flow of the feed gas through the plurality of reactor tubes; and wherein the coolant is supplied to the downstream region at a downstream coolant inlet at a downstream inlet coolant temperature and is withdrawn from the downstream region at a downstream coolant outlet at a downstream outlet coolant temperature, and wherein the downstream outlet coolant temperature exceeds the downstream inlet coolant temperature by 1 to 30 °C. providing a multitubular fixed-bed reactor comprising a reactor inlet, an interior shell space, a perforated partition that divides the interior shell space into an upstream region and a downstream region, and a plurality of reactor tubes, wherein the plurality of reactor tubes comprise a catalyst bed that comprises an oxidative dehydrogenation catalyst; supplying a feed gas comprising ethane and oxygen to the reactor inlet and allowing the ethane and oxygen to react in the presence of the oxidative dehydrogenation catalyst to yield a reactor effluent comprising ethylene; supplying a coolant to the upstream region in a flow pattern that is counter-current with the flow of the feed gas through the plurality of reactor tubes; and withdrawing the coolant from the upstream region and supplying at least a portion of the coolant withdrawn from the upstream region to the downstream region in a flow pattern that is co-current with the flow of the feed gas through the plurality of reactor tubes; and wherein the coolant is supplied to the downstream region at a downstream coolant inlet at a downstream inlet coolant temperature and is withdrawn from the downstream region at a downstream coolant outlet at a downstream outlet coolant temperature, and wherein the downstream outlet coolant temperature exceeds the downstream inlet coolant temperature by 1 to 30 °C.
A process for preparing a -(2-hydroxy-3,5,5-trimethyl-3-cyclopentenyl)methyl carboxylate compound of the following general formula (S,R)- : wherein R 1 represents a monovalent hydrocarbon group having 1 to 6 carbon atoms, and a bold wedged bond represents the absolute configuration, and a -(2-acetoxy-3,5,5-trimethyl-3-cyclopentenyl)methyl carboxylate compound of the following general formula (R,S)- : wherein R 1 is as defined above, a hashed wedged bond represents the absolute configuration, and Ac represents an acetyl group, the process comprising: subjecting a -(2-hydroxy-3,5,5-trimethyl-3-cyclopentenyl)methyl carboxylate compound of the following general formula (RS,SR)- : wherein R 1 is as defined above, and a hashed unwedged bond represents a relative configuration, to a kinetic resolution reaction with a lipase in the presence of vinyl acetate to obtain the -(2-hydroxy-3,5,5-trimethyl-3-cyclopentenyl)methyl carboxylate compound ((S,R)- ) and the -(2-acetoxy-3,5,5-trimethyl-3-cyclopentenyl)methyl carboxylate compound ((R,S)- ). wherein R 1 represents a monovalent hydrocarbon group having 1 to 6 carbon atoms, and a bold wedged bond represents the absolute configuration, and a -(2-acetoxy-3,5,5-trimethyl-3-cyclopentenyl)methyl carboxylate compound of the following general formula (R,S)- : wherein R 1 is as defined above, a hashed wedged bond represents the absolute configuration, and Ac represents an acetyl group, the process comprising: subjecting a -(2-hydroxy-3,5,5-trimethyl-3-cyclopentenyl)methyl carboxylate compound of the following general formula (RS,SR)- : subjecting a -(2-hydroxy-3,5,5-trimethyl-3-cyclopentenyl)methyl carboxylate compound of the following general formula (RS,SR)- : wherein R 1 is as defined above, and a hashed unwedged bond represents a relative configuration, to a kinetic resolution reaction with a lipase in the presence of vinyl acetate to obtain the -(2-hydroxy-3,5,5-trimethyl-3-cyclopentenyl)methyl carboxylate compound ((S,R)- ) and the -(2-acetoxy-3,5,5-trimethyl-3-cyclopentenyl)methyl carboxylate compound ((R,S)- ).
An anti-connexin 43 compound for use in a method of treating a chronic wound in a subject comprising administering to the subject from 0.1 μg to 1 gram of the anti-connexin 43 compound.
A device for air-conditioning at least two adjacent carriages of a railway vehicle, comprising means for emitting a conditioned air flow and a network for circulating conditioned air, wherein the circulation network includes at least one first circuit for circulating conditioned air , intended to fit out a first carriage , said first circulation circuit including: - a first conditioned air inlet , through which passes an incoming airflow from the emission means , - at least one first conduit for distributing conditioned air towards a compartment from of said first carriage , extending from an upstream end , communicating with an air inlet , as far as a closed downstream end , the upstream and downstream ends being both intended for being laid out in said first carriage , - at least one first conduit for transferring conditioned air towards an adjacent second conditioned air circulation circuit , said second circulation circuit being intended to fit out a second carriage adjacent to the first , - first means for distributing conditioned air from the air inlet , able to distribute the incoming airflow among the distribution and transfer conduits, characterized in that the first circulation circuit includes a first central transfer conduit , and two first lateral distribution conduits laid out laterally on either side of the first transfer conduit . - a first conditioned air inlet , through which passes an incoming airflow from the emission means , - at least one first conduit for distributing conditioned air towards a compartment from of said first carriage , extending from an upstream end , communicating with an air inlet , as far as a closed downstream end , the upstream and downstream ends being both intended for being laid out in said first carriage , - at least one first conduit for transferring conditioned air towards an adjacent second conditioned air circulation circuit , said second circulation circuit being intended to fit out a second carriage adjacent to the first , - first means for distributing conditioned air from the air inlet , able to distribute the incoming airflow among the distribution and transfer conduits,
A method of using a metal organic framework (MOF) comprising the coordination product of a metal ion and an at least bidentate organic ligand, where each metal is fully saturated having no open coordination sites, comprising: filling the MOF with an electronic gas selected from the group consisting of arsine, phosphine, diborane and boron trifluoride at pressures below ambient pressures; storing the electronic gas in the MOF at below ambient pressures; wherein the MOF provides a deliverable adsorption capacity of between 70 g/L and 840 g/L for the electronic gas measured between a discharging pressure of 667 Pa (5 torr) and 25 °C and a charging pressure of 86,660 Pa (650 torr) and 25 °C and the MOF has a gravimetric surface area between 1,000 and 14,500 m 2 /g, and a pore size between 2 Å and 25 Å; and discharging the gas under vacuum. filling the MOF with an electronic gas selected from the group consisting of arsine, phosphine, diborane and boron trifluoride at pressures below ambient pressures; storing the electronic gas in the MOF at below ambient pressures; wherein the MOF provides a deliverable adsorption capacity of between 70 g/L and 840 g/L for the electronic gas measured between a discharging pressure of 667 Pa (5 torr) and 25 °C and a charging pressure of 86,660 Pa (650 torr) and 25 °C and the MOF has a gravimetric surface area between 1,000 and 14,500 m 2 /g, and a pore size between 2 Å and 25 Å; and discharging the gas under vacuum.
A mechanism for transferring loads between a racking system and a lift truck and adapted to be mounted on a lift mechanism of the lift truck, the mechanism comprising a frame adapted to be mounted on the lift mechanism of the lift truck, and characterised by a pair of telescopic rails mounted at one end to the frame , the telescopic rails extending parallel to one another, the telescopic rails being extendable laterally of the lift mechanism of the lift truck, in use, between retracted and extended positions, means to move the telescopic rails , a carriage mounted on the telescopic rails for movement there along when the telescopic rails are in their extended positions and the free ends of the telescopic rails are supported, in use, by the racking system, the carriage having a lift mechanism mounted thereon by which a load may be raised and lowered relative to the carriage .
A method for wireless communication, comprising: receiving a contention exempt broadcast paging message comprising partial paging information for a user equipment, UE, over a shared radio frequency spectrum band during a contention exempt transmission, CET, period and concurrent with a reception of a broadcast discovery reference signal, DRS, characterized by : transmitting , in response to the received contention exempt broadcast paging message , a random access request message ; and receiving , based on the transmitted random access request , a unicast paging message comprising complete paging information for the UE. transmitting , in response to the received contention exempt broadcast paging message , a random access request message ; and receiving , based on the transmitted random access request , a unicast paging message comprising complete paging information for the UE.
A method for transmitting uplink demodulation reference signal, performed by a terminal device supporting multiple types of demodulation reference signal, DMRS, sequences, the method comprising: receiving (S110), by the terminal device, first DMRS configuration information sent by a network device, the first DMRS configuration information indicating a type of a DMRS sequence; receiving (S120), by the terminal device, second DMRS configuration information sent by the network device, the second DMRS configuration information indicating at least one of an antenna port configuration of DMRS and a physical resource configuration of DMRS; determining (S130), by the terminal device, a configuration parameter indicated by the second DMRS configuration information according to the first DMRS configuration information; determining (S140), by the terminal device, a transmission parameter of DMRS according to the configuration parameter indicated by the second DMRS configuration information; and transmitting (S150), by the terminal device, DMRS to the network device according to the transmission parameter. receiving (S110), by the terminal device, first DMRS configuration information sent by a network device, the first DMRS configuration information indicating a type of a DMRS sequence; receiving (S120), by the terminal device, second DMRS configuration information sent by the network device, the second DMRS configuration information indicating at least one of an antenna port configuration of DMRS and a physical resource configuration of DMRS; determining (S130), by the terminal device, a configuration parameter indicated by the second DMRS configuration information according to the first DMRS configuration information; determining (S140), by the terminal device, a transmission parameter of DMRS according to the configuration parameter indicated by the second DMRS configuration information; and transmitting (S150), by the terminal device, DMRS to the network device according to the transmission parameter.
A broadcast processing method used for exchanging data between two software processes, comprising: acquiring (S101) a currently-sending broadcast message in an ordered broadcast queue; determining (S102) a type of the broadcast message being a normal broadcast message or an ordered broadcast message; and calling (S103) an interface configured to send the broadcast message and sending the broadcast message to a corresponding broadcast receiver when the broadcast message is a normal broadcast message in type; characterized by that, the calling an interface configured to send the broadcast message and sending the broadcast message to a corresponding broadcast receiver comprises: directly sending the normal broadcast message in the ordered broadcast queue to a next broadcast receiver without waiting for a feedback result of a previous broadcast receiver; wherein the feedback result is configured to indicate the processing to the broadcast message by the corresponding broadcast receiver. acquiring (S101) a currently-sending broadcast message in an ordered broadcast queue; determining (S102) a type of the broadcast message being a normal broadcast message or an ordered broadcast message; and calling (S103) an interface configured to send the broadcast message and sending the broadcast message to a corresponding broadcast receiver when the broadcast message is a normal broadcast message in type; characterized by that, the calling an interface configured to send the broadcast message and sending the broadcast message to a corresponding broadcast receiver comprises: directly sending the normal broadcast message in the ordered broadcast queue to a next broadcast receiver without waiting for a feedback result of a previous broadcast receiver; wherein the feedback result is configured to indicate the processing to the broadcast message by the corresponding broadcast receiver.
A method, comprising: detecting, by a first security agent executing on a first client computer , that a first process is attempting to send, via a network , a message to an external storage provider, wherein the first process is executing on the first client computer , and wherein the message is addressed to the external storage provider, and wherein the message identifies a file; based on the detecting, intercepting, by the first security agent ; responding to the intercepting by at least encrypting, by the first security agent , the file using a first encryption key, resulting in an encrypted file , encrypting, by the first security agent , the first encryption key with a shared key, resulting in an encrypted first encryption key , and providing the encrypted file and the encrypted first encryption key to a location accessible to the first process. detecting, by a first security agent executing on a first client computer , that a first process is attempting to send, via a network , a message to an external storage provider, wherein the first process is executing on the first client computer , and wherein the message is addressed to the external storage provider, and wherein the message identifies a file; based on the detecting, intercepting, by the first security agent ; responding to the intercepting by at least encrypting, by the first security agent , the file using a first encryption key, resulting in an encrypted file ,
A post-accident fission product removal system , comprising: an air mover connected to a filter assembly , the air mover configured to move contaminated air through the filter assembly to produce filtered air ; and an ionization chamber connected to the filter assembly , the ionization chamber including an anode and a cathode , the ionization chamber configured to receive the filtered air from the filter assembly and to ionize and capture radioisotopes from the filtered air to produce clean air ; the ionization chamber configured to permit sealing and detachment from the post-accident fission product removal system prior to excessive accumulation of the radioisotopes in the ionization chamber ; wherein the ionization chamber also has a battery power source configured to maintain a charge on the anode and cathode to prevent escape of the radioisotopes during the sealing and detachment of the ionization chamber . an air mover connected to a filter assembly , the air mover configured to move contaminated air through the filter assembly to produce filtered air ; and an ionization chamber connected to the filter assembly , the ionization chamber including an anode and a cathode , the ionization chamber configured to receive the filtered air from the filter assembly and to ionize and capture radioisotopes from the filtered air to produce clean air ; the ionization chamber configured to permit sealing and detachment from the post-accident fission product removal system prior to excessive accumulation of the radioisotopes in the ionization chamber ; wherein the ionization chamber also has a battery power source configured to maintain a charge on the anode and cathode to prevent escape of the radioisotopes during the sealing and detachment of the ionization chamber .
A nacelle for a jet engine comprising an inner surface defining an opening for air to flow to an engine intake , an outer surface positioned external to the inner surface , and a leading surface circumscribing the opening , the leading surface connecting the inner surface and the outer surface , the leading surface defining a line of stagnation and formed to include a plurality of vortex generators positioned on the leading surface along the line of stagnation ; wherein the vortex generators comprise a plurality of tabs positioned on the leading surface , the tabs positioned along the line of stagnation , each tab includes a body that has a base and converging sides , the converging sides each terminate in a respective leading edge to form two leading edges generally perpendicular to the line of stagnation and extending radially from an axis of rotation of the engine with the tab formed to include a depression between each of the leading edges .
Coated substrate comprising a substrate made of an aluminium-silicon alloy or crystalline silicon to which a polishable layer is applied, which layer consists of amorphous silicon, microcrystalline silicon, silicon carbide, silicon nitride, titanium nitride, aluminium oxide, zirconium oxide, chromium and/or mixtures hereof, wherein an intermediate layer which acts as adhesive- or as barrier layer is disposed between the substrate and the polishable layer , and the intermediate layer consists of aluminium oxide, zirconium oxide, titanium or chromium.
An analyte detection system, comprising: two transducer electrodes separated by a nanogap, the electrodes having a surface for analyte detection, the surface comprising a coating to inhibit direct contact of analyte with the surface of the two transducer electrodes , wherein the coating comprises an organic film, characterised in that the organic film comprises a tetra-DTT phosphate or a tetra-DTT-ferrocene phosphate. two transducer electrodes separated by a nanogap, the electrodes having a surface for analyte detection, the surface comprising a coating to inhibit direct contact of analyte with the surface of the two transducer electrodes , wherein the coating comprises an organic film, characterised in that the organic film comprises a tetra-DTT phosphate or a tetra-DTT-ferrocene phosphate.
A bonding substrate fabrication method for fabricating a bonding substrate (E) on which a bonding surface is formed, the bonding substrate fabrication method comprising: a) a surface treatment step (F03, L02) of surface-treating a surface of a substrate (L01, H6) by irradiation with radiated particles including energetic particles by means of an energetic particle source disposed inside a process chamber; and b) a step of forming (F04) a silicon thin film (L03) on the surface-treated substrate surface to fabricate the bonding substrate (L00) inside the process chamber, the method further comprising a second surface treatment step (F05) of surface-treating the formed silicon thin film by irradiation with radiated particles including metal particles to fabricate the bonding substrate, wherein the surface treatment step includes a process of irradiating the substrate surface with radiated particles including metal particles by means of a metal particle source comprising a metal body generating metal radiated particles by sputtering due to radiated particles from the energetic particle source. a) a surface treatment step (F03, L02) of surface-treating a surface of a substrate (L01, H6) by irradiation with radiated particles including energetic particles by means of an energetic particle source disposed inside a process chamber; and b) a step of forming (F04) a silicon thin film (L03) on the surface-treated substrate surface to fabricate the bonding substrate (L00) inside the process chamber,