mhurhangee/patent-ind-claim-en huggingface dataset:
A method for processing a streaming media service, the method comprising: acquiring registration information of an input source, the registration information comprising process information of a streaming media service process of the input source and streaming media address information of the input source, wherein the process information includes a registration ID of the input source and the streaming media address information includes an input address and an output address of the streaming media data of the input source; enabling the streaming media service process according to the process information; and controlling , by using the streaming media address information, a separate streaming media service process to identify the streaming media data of the input source according to a preset image analysis model , so as to obtain identified streaming media data and process streaming media data of the input source, wherein the streaming media service directly performs Artificial Intelligence, AI, analysis and identification on the streaming media data of the input source without interactive transmission with other AI services. acquiring registration information of an input source, the registration information comprising process information of a streaming media service process of the input source and streaming media address information of the input source, wherein the process information includes a registration ID of the input source and the streaming media address information includes an input address and an output address of the streaming media data of the input source; enabling the streaming media service process according to the process information; and controlling , by using the streaming media address information, a separate streaming media service process to identify the streaming media data of the input source according to a preset image analysis model , so as to obtain identified streaming media data and process streaming media data of the input source, wherein the streaming media service directly performs Artificial Intelligence, AI, analysis and identification on the streaming media data of the input source without interactive transmission with other AI services.
A traffic planning method for enabling the controlling of a plurality of vehicles (v1, v2, v3, v4), wherein each vehicle occupies one node in a shared set of planning nodes (wp1, wp2, ..., wp8) and is movable to other nodes along predefined edges between pairs of the nodes in accordance with a finite set of motion commands (v1.a1, vi.a2, v2.a1, v2.a2), the method comprising: obtaining initial node occupancies of the vehicles; and determining a sequence of motion commands by optimizing a state-action value function ( Q ( s, a )) which depends on node occupancies ( s ) and the motion commands ( a ) to be given, characterized in that the state-action value function includes at least one command-independent term ( Q L ( s )) , which penalizes node occupancies with too small inter-vehicle gaps, and at least one command-dependent term ( Q S ( s, a )) . obtaining initial node occupancies of the vehicles; and determining a sequence of motion commands by optimizing a state-action value function ( Q ( s, a )) which depends on node occupancies ( s ) and the motion commands ( a ) to be given, characterized in that the state-action value function includes at least one command-independent term ( Q L ( s )) , which penalizes node occupancies with too small inter-vehicle gaps, and at least one command-dependent term ( Q S ( s, a )) .
A thermal Storage System (TSS) by Phase Change Material (PCM) comprising: - a tank intended to contain a PCM subject to supercooling, - a device for controlling the crystallization of the PCM , comprising a circulation system immersed in the tank , intended for the circulation of a heat transfer fluid and wherein the device for controlling the crystallization of the PCM comprises a gas injection module characterized in that the gas injection module is arranged in the lower portion of the tank and configured to inject a gas, in the PCM , the lower portion being disposed under a median horizontal plane of the tank and the injection module comprising at least one injection conduit comprising an end portion terminating in a through end in the PCM , said end portion has at least one high point, located vertically higher than the through end . - a tank intended to contain a PCM subject to supercooling, - a device for controlling the crystallization of the PCM ,
A composition for generating oxygen, comprising at least one oxygen source selected from alkali metal chlorates, alkali metal perchlorates, alkaline earth metals chlorates, alkaline earth metal perchlorates and mixtures thereof, characterized in that the composition further comprises at least one phyllosilicate compound, the phyllosilicate compound having at least one transition metal ion intercalated between phyllosilicate sheets.
Seal for a door, having a housing , a sealing bar which is displaceable to the housing , and having a trigger with which a displacement of the sealing bar to the housing can be triggered, characterised in that the seal has at least two modules (Ma, Mb), wherein each module has - a module housing which is fastened to the housing , - a displacement part which is displaceable to the module housing , and - a scissor mechanism (Sa, Sb) which is connected to the module housing , to the sealing bar and to the displacement part , - wherein the displacement parts of the modules are connected to one another via connecting rods and - wherein in the non-triggered state of the scissor mechanisms (Sa, Sb) there is no play between the connecting rods and the displacement parts . - a module housing which is fastened to the housing , - a displacement part which is displaceable to the module housing , and - a scissor mechanism (Sa, Sb) which is connected to the module housing , to the sealing bar and to the displacement part , - wherein the displacement parts of the modules are connected to one another via connecting rods and - wherein in the non-triggered state of the scissor mechanisms (Sa, Sb) there is no play between the connecting rods and the displacement parts .
A container for holding a photocurable composition in a stereolithography apparatus comprising a container , an active energy beam irradiation apparatus , and an actuator , wherein the container comprises a bottom and a wall, the bottom comprises a first layer (X) comprising a hard resin, a second layer (Y) comprising a soft resin, and a third layer (Z) comprising a fluorine resin, the second layer (Y) is laminated on the first layer (X) and the third layer (Z) is laminated on the second layer (Y), and the third layer (Z) has a thickness of 0.1 to 5.0 mm; characterized in that the pencil hardness measured according to JIS K 5600-5-4:1999 for the first layer (X) is 3B or harder and the hardness measured for the second layer (Y) using a type A durometer compliant with JIS K 6253-3:2012 is 10 to 90. the container comprises a bottom and a wall, the bottom comprises a first layer (X) comprising a hard resin, a second layer (Y) comprising a soft resin, and a third layer (Z) comprising a fluorine resin, the second layer (Y) is laminated on the first layer (X) and the third layer (Z) is laminated on the second layer (Y), and the third layer (Z) has a thickness of 0.1 to 5.0 mm; characterized in that the pencil hardness measured according to JIS K 5600-5-4:1999 for the first layer (X) is 3B or harder and the hardness measured for the second layer (Y) using a type A durometer compliant with JIS K 6253-3:2012 is 10 to 90.
A method for preparing a soda-lime-silica glass basic formulation, comprising the steps of: a1) pre-desiliconizing silicon-containing powdery industrial waste with a sodium hydroxide solution, and separating, to obtain a pre-desiliconization mother liquor and residues; a2) introducing carbon dioxide to the pre-desiliconization mother liquor for carbonation decomposition, and separating, to obtain a silicic acid precipitate and a sodium carbonate solution; a3) drying the silicic acid precipitate to obtain silicon dioxide; a4) adding lime milk into the sodium carbonate solution for causticization, and separating, to obtain a calcium carbonate precipitate and a sodium hydroxide solution; a5) drying the calcium carbonate precipitate; and a6) according to the requirements on the amounts of respective components in the soda-lime-silica glass, using the silicon dioxide prepared in step a3) and part of the dried calcium carbonate from step a5) and adding sodium oxide thereto, to obtain a soda-lime-silica glass basic formulation. a1) pre-desiliconizing silicon-containing powdery industrial waste with a sodium hydroxide solution, and separating, to obtain a pre-desiliconization mother liquor and residues; a2) introducing carbon dioxide to the pre-desiliconization mother liquor for carbonation decomposition, and separating, to obtain a silicic acid precipitate and a sodium carbonate solution; a3) drying the silicic acid precipitate to obtain silicon dioxide; a4) adding lime milk into the sodium carbonate solution for causticization, and separating, to obtain a calcium carbonate precipitate and a sodium hydroxide solution; a5) drying the calcium carbonate precipitate; and a6) according to the requirements on the amounts of respective components in the soda-lime-silica glass, using the silicon dioxide prepared in step a3) and part of the dried calcium carbonate from step a5) and adding sodium oxide thereto, to obtain a soda-lime-silica glass basic formulation.
A method of operating a first unit in a daisy chain of units (C11, C12, C13, C14) allowing bidirectional communication, in particular in a bus system, each unit (C11, C12, C13, C14) capable to transmit and to receive signals, wherein a plurality of units including said first unit (C11, C12, C13, C14) transmits a respective signal via an interface (TI-L) for coupling to a preceding neighbour unit preceding in said daisy chain and via an interface (TI-R) for coupling to a following neighbour unit following in said daisy chain, characterized in that said first unit (C11, C12, C13, C14) determines whether or not it receives a signal from both of such neighbour units (C11, C12, C13, C14) or not and if so, said first unit (C11, C12, C13, C14) operates so as to put said at least one subunit (SU) into a first state and if not, operates so as to put said at least one subunit (SU) into a second state different from said first state.
Process for the continuous production of fibre-reinforced profiles comprising a foam core , wherein the process has the following steps: a) introduction of foam cores and connecting of the newly introduced foam core to the end of the most recently introduced foam core , b) wrapping a fibre material around the foam core , c) impregnation of the fibre-material wrap with a resin, d) optional moulding of the wrapped foam core in a first mould , e) heating and thereby optional hardening of the resin in a second mould , f) cooling of the wrapped foam core in a third mould and g) separation of individual profiles by means of cutting or sawing and removal of the finished workpiece, characterized in that the second and third mould are moved in respectively mutually opposite direction on carriages. a) introduction of foam cores and connecting of the newly introduced foam core to the end of the most recently introduced foam core , b) wrapping a fibre material around the foam core , c) impregnation of the fibre-material wrap with a resin, d) optional moulding of the wrapped foam core in a first mould , e) heating and thereby optional hardening of the resin in a second mould , f) cooling of the wrapped foam core in a third mould and g) separation of individual profiles by means of cutting or sawing and removal of the finished workpiece,
A method for fabricating a nanostructure, comprising: growing a first nanowire on a substrate ; forming a dielectric layer on said substrate , said dielectric layer surrounding said first nanowire , wherein a thickness (t) of said dielectric layer is smaller than a length of said first nanowire ; and removing said first nanowire from said dielectric layer , thereby exposing an aperture (10; 12 1 - 12 4 ) in said dielectric layer ; characterized by further comprising a step of growing a second nanowire (30; 30 1 - 30 4 ) in said aperture (10; 12 1 - 12 4 ) on said substrate ; wherein growing said second nanowire (30; 30 1 - 30 4 ) comprises growing a support element in said aperture (10; 12 1 - 12 4 ), and extending said support element above said dielectric layer , and growing a body element around at least a portion of said support element that extends above said dielectric layer . growing a first nanowire on a substrate ; forming a dielectric layer on said substrate , said dielectric layer surrounding said first nanowire , wherein a thickness (t) of said dielectric layer is smaller than a length of said first nanowire ; and removing said first nanowire from said dielectric layer , thereby exposing an aperture (10; 12 1 - 12 4 ) in said dielectric layer ; characterized by further comprising a step of growing a second nanowire (30; 30 1 - 30 4 ) in said aperture (10; 12 1 - 12 4 ) on said substrate ; wherein growing said second nanowire (30; 30 1 - 30 4 ) comprises growing a support element in said aperture (10; 12 1 - 12 4 ), and extending said support element above said dielectric layer , and growing a body element around at least a portion of said support element that extends above said dielectric layer .
A method of using a plurality of cells by an evolved nodeb, eNB, in a communication system, the method comprising the steps of: determining , by a first eNB that manages a first cell and is providing a communication service to a UE located in the first cell, to provide the communication service to the UE together with a a second eNB that manages a second cell ; transmitting a cell addition request message, making a request for aggregation of the first cell and the second cell, to the second eNB to provide the communication service; characterized by , when a cell addition response message, accepting the request for aggregation of the first cell and the second cell, is received from the second eNB, transmitting a cell activation request message, making a request for activation of the second cell, to the second eNB, wherein the cell addition response message comprises information indicating a time point when the UE applies an activation of the second cell. determining , by a first eNB that manages a first cell and is providing a communication service to a UE located in the first cell, to provide the communication service to the UE together with a a second eNB that manages a second cell ; transmitting a cell addition request message, making a request for aggregation of the first cell and the second cell, to the second eNB to provide the communication service; characterized by , when a cell addition response message, accepting the request for aggregation of the first cell and the second cell, is received from the second eNB, transmitting a cell activation request message, making a request for activation of the second cell, to the second eNB, wherein the cell addition response message comprises information indicating a time point when the UE applies an activation of the second cell.
A method for producing a sole plate , comprising the following steps: a. providing a mixture of a polymer melt and of a foaming agent, b. injecting the mixture into a mold ; and c. solidifying at least a first portion of the sole plate without foaming and at least a second portion of the sole plate after foaming inside the mold , d. wherein the mixture comprises a polymer having an average molecular mass corresponding to a viscosity number ≥ 130 ml/g, preferably ≥ 170 ml/g, more preferably ≥ 190 ml/g and most preferably ≥225 ml/g, wherein the viscosity number is determined via solution viscometry according to the ISO 307 standard; e. wherein the mold comprises at least a first and a second cavity, wherein foaming inside the second cavity is induced by increasing the volume of the second cavity such that the mixture solidifies inside the first cavity essentially without foaming while the mixture at least partially undergoes foaming inside the second cavity. a. providing a mixture of a polymer melt and of a foaming agent, b. injecting the mixture into a mold ; and c. solidifying at least a first portion of the sole plate without foaming and at least a second portion of the sole plate after foaming inside the mold , d. wherein the mixture comprises a polymer having an average molecular mass corresponding to a viscosity number ≥ 130 ml/g, preferably ≥ 170 ml/g, more preferably ≥ 190 ml/g and most preferably ≥225 ml/g, wherein the viscosity number is determined via solution viscometry according to the ISO 307 standard; e. wherein the mold comprises at least a first and a second cavity, wherein foaming inside the second cavity is induced by increasing the volume of the second cavity such that the mixture solidifies inside the first cavity essentially without foaming while the mixture at least partially undergoes foaming inside the second cavity.
A method in a base station for synchronization in a wireless system comprising: transmitting a Synchronization Signal Block, SSB, comprising a physical broadcast channel, PBCH, including one or more bits, wherein the SSB is one of a set of candidate SSBs within a half frame and a total number of the candidate SSBs within the half frame is L; wherein in response to a frequency of the wireless system being within a frequency range up to a predefined frequency, the one or more bits indicate additional system information; and wherein in response to the frequency of the wireless system being above the predefined frequency, the one or more bits indicate a location of a slot group containing the SSB among the set of candidate SSBs within the half frame. transmitting a Synchronization Signal Block, SSB, comprising a physical broadcast channel, PBCH, including one or more bits, wherein the SSB is one of a set of candidate SSBs within a half frame and a total number of the candidate SSBs within the half frame is L; wherein in response to a frequency of the wireless system being within a frequency range up to a predefined frequency, the one or more bits indicate additional system information; and wherein in response to the frequency of the wireless system being above the predefined frequency, the one or more bits indicate a location of a slot group containing the SSB among the set of candidate SSBs within the half frame.
Spacer for insulating glass panes, comprising a profile body made using a first plastics material, having a main body with a substantially U-shaped cross section with first and second side walls arranged in parallel and an inner wall extending between the first and second side walls, and a vapor diffusion barrier , wherein the first and the second side wall each have a free end which is spaced apart from the inner wall , wherein the vapor diffusion barrier is spaced apart from and extends substantially in parallel to the inner wall from the free end of the first side wall to the free end of the second side wall , and wherein the profile body together with the vapor diffusion barrier enclose a cavity seen in a cross section of the spacer , characterized in that the vapor diffusion barrier is made of a sheet material which is poorly heat conductive.
Arrangement consisting of a receptacle installation for a tool and a tool, wherein the tool has a work bench and at least one pedestal , wherein the receptacle installation has a box which is open towards the top, wherein the tool by way of the at least one pedestal stands in the box , wherein the box forms a chip collection space for chips generated by the tool , and the height (c) of the chip collection space, from the base of the box up to the upper edge of the box , corresponds to at least 30% of the height (f) of the tool measured to the upper side of the work bench , characterized in that the box on the base thereof has at least one opening for emptying chips, wherein the opening extends across more than 25% of the area of the base , in that the receptacle installation is mobile and has rollers for guiding the receptacle installation across the floor, and in that the receptacle installation has at least one guide handle for pushing the receptacle installation , wherein the at least one guide handle is configured as a bracket which is closed towards the top and to which a hook of a crane can be hooked.
A curable composition comprising: a cationic polymerizable compound; a thermal polymerization initiator; and a storage stabilizer, wherein the cationic polymerizable compound includes at least two selected from the group consisting of a glycidyl ether compound, an alicyclic epoxy compound, and an oxetane compound, a content of the thermal polymerization initiator is 0.3 to 3 parts by mass with respect to 100 parts by mass of the cationic polymerizable compound, and chain curing is enabled by thermal energy generated by a polymerization reaction of the cationic polymerizable compound, characterized in that the storage stabilizer is at least one selected from the group consisting of sulfonium salts represented by the following Formula (II): wherein R 6 represents an acetyl group or a methoxycarbonyl group, and A represents CH 3 SO 4 . a cationic polymerizable compound; a thermal polymerization initiator; and a storage stabilizer, wherein the cationic polymerizable compound includes at least two selected from the group consisting of a glycidyl ether compound, an alicyclic epoxy compound, and an oxetane compound, a content of the thermal polymerization initiator is 0.3 to 3 parts by mass with respect to 100 parts by mass of the cationic polymerizable compound, and chain curing is enabled by thermal energy generated by a polymerization reaction of the cationic polymerizable compound, characterized in that the storage stabilizer is at least one selected from the group consisting of sulfonium salts represented by the following Formula (II): wherein R 6 represents an acetyl group or a methoxycarbonyl group, and A represents CH 3 SO 4 .
A chamberless system for particulate detection and monitoring, comprising: at least two light sources , each configured to emit light into a monitored space, wherein at least one of the light sources is configured to emit a respective emission cone having a respective emission cone axis; at least two light sensing devices configured to receive scattered light, wherein at least one of the light sensing devices defines a respective acceptance cone having a respective acceptance cone axis, wherein at least one of the emission cone axis of the emission cone or the acceptance cone axis of the light sensing device is angled toward the other, and wherein at least one of the light sensing devices is positioned between two of the at least two light sources; and a processor operatively connected to the at least one light sensing devices to evaluate the scattered light for presence of particulates in the monitored space. at least two light sources , each configured to emit light into a monitored space, wherein at least one of the light sources is configured to emit a respective emission cone having a respective emission cone axis; at least two light sensing devices configured to receive scattered light, wherein at least one of the light sensing devices defines a respective acceptance cone having a respective acceptance cone axis, wherein at least one of the emission cone axis of the emission cone or the acceptance cone axis of the light sensing device is angled toward the other, and wherein at least one of the light sensing devices is positioned between two of the at least two light sources; and a processor operatively connected to the at least one light sensing devices to evaluate the scattered light for presence of particulates in the monitored space.