mhurhangee/patent-ind-claim-en huggingface dataset:
A method for scheduling a service, comprising: obtaining a current configuration status of a network resource in a whole content delivery network CDN when a preset scheduling trigger event is detected, where the current configuration status of the network resource in the whole CDN is referred to as a first configuration status; generating a first substitute resource list according to the first configuration status using a trained service scheduling model, wherein at least one substitute resource and a weight corresponding to each of the at least one substitute resource are recorded in the first substitute resource list; selecting a first substitute resource in the first substitute resource list according to the weight corresponding to each of the at least one substitute resource and a preset first selection policy; and performing service scheduling in the whole CDN based on the first substitute resource. obtaining a current configuration status of a network resource in a whole content delivery network CDN when a preset scheduling trigger event is detected, where the current configuration status of the network resource in the whole CDN is referred to as a first configuration status; generating a first substitute resource list according to the first configuration status using a trained service scheduling model, wherein at least one substitute resource and a weight corresponding to each of the at least one substitute resource are recorded in the first substitute resource list; selecting a first substitute resource in the first substitute resource list according to the weight corresponding to each of the at least one substitute resource and a preset first selection policy; and performing service scheduling in the whole CDN based on the first substitute resource.
A process for producing synthesis gas comprising the endothermic reaction between CO 2 and H 2 S, according to the following overall theoretical reaction scheme R1: CO 2 + 2 H 2 S → CO + H 2 + S 2 + H 2 O; wherein: i) the energetic supply is provided by the exothermic oxidation of a portion of H 2 S to SO 2 according to the following reaction scheme: R2: H 2 S + 1.5 O 2 → SO 2 + H 2 O ii) the amount of fed oxygen for carrying out R2 is comprised between 5% and 25% by volume over the total volume of fed reactants gaseous mixture; iii) said process is carried out at a temperature comprised between 800 and 1550°C in a production unit comprising: • a regenerative thermal flow reactor or a thermal reactor (NEW), • at least one separation section (Sep.1-Sep4, CC1-CC2, COND, ABSORBER, STRIPPER) of the various components of the gaseous mixture leaving said thermal reactor or regenerative thermal flow reactor, and • at least one section for recycling the unconverted H 2 S and CO 2 . i) the energetic supply is provided by the exothermic oxidation of a portion of H 2 S to SO 2 according to the following reaction scheme: R2: H 2 S + 1.5 O 2 → SO 2 + H 2 O ii) the amount of fed oxygen for carrying out R2 is comprised between 5% and 25% by volume over the total volume of fed reactants gaseous mixture; iii) said process is carried out at a temperature comprised between 800 and 1550°C • a regenerative thermal flow reactor or a thermal reactor (NEW), • at least one separation section (Sep.1-Sep4, CC1-CC2, COND, ABSORBER, STRIPPER) of the various components of the gaseous mixture leaving said thermal reactor or regenerative thermal flow reactor, and • at least one section for recycling the unconverted H 2 S and CO 2 .
Arrangement designed for a microphone system , wherein the microphone system is used for concerts or performances, having a transmission unit , wherein the transmission unit comprises at least two input interfaces (6a-d) connected to two different audio sources, wherein the input interfaces (6a-d) supply at least two audio channels (A-X) with audio information, having at least one first and a second microphone module as the at least two audio sources, wherein the first microphone module is arranged in the region of a head of a user to pick up speech or singing and a second microphone module is arranged on or against an instrument to pick up audio signals, wherein one of the at least two audio channels (A-X) is designed to provide at least some of the audio information , wherein the audio channels (A-X) are in the form of digital audio channels, wherein the transmission unit is mounted wear-ably on a body of the user and is designed to wirelessly transmit audio information from the transmission unit to a base station in a data stream, characterized by a multiplexer , wherein the multiplexer is designed to convert the audio information from the at least two parallel audio channels (A-X) into a serial data stream as the audio information to be transmitted, wherein the transmission unit has an audio compression module designed to compress audio information of the digital audio channels (A-X) differently depending on the channel.
A method of allocating resources in a mobile telecommunications system, the system comprising a base station configured to communicate via a wireless interface with one or more terminals and one or more infrastructure nodes configured to communicate via the wireless interface with the one or more terminals, wherein resources of the wireless interface are allocated for successive periods of time, the method comprising: obtaining (S1301) measurements wherein a measurement relates to a link between a first terminal of the one or more terminals and one of the one or more infrastructure nodes; identifying (S1302) the communications between the first terminal and the one or more infrastructure nodes as delay-sensitive communications by obtaining one or both of: a delay-sensitive terminal indicator associated with the first terminal; a delay-sensitive infrastructure node indicator associated with the one or more infrastructure nodes and identifying the communications as delay sensitive communications based on the obtained one or both of the delay-sensitive terminal indicator and the delay-sensitive infrastructure node indicator; identifying (S1303), based on the obtained measurements and on an identification of the communications between the first terminal and the one or more infrastructure nodes as delay-sensitive communications, resources to allocate for the first terminal to communicate with one or more of the infrastructure nodes wherein the identified resources are selected from two or more of the periods of time; and allocating (S1304) the identified resources for the first terminal to communicate with the one or more of the infrastructure nodes during the two or more periods of time. obtaining (S1301) measurements wherein a measurement relates to a link between a first terminal of the one or more terminals and one of the one or more infrastructure nodes; identifying (S1302) the communications between the first terminal and the one or more infrastructure nodes as delay-sensitive communications by obtaining one or both of: a delay-sensitive terminal indicator associated with the first terminal; a delay-sensitive infrastructure node indicator associated with the one or more infrastructure nodes and identifying the communications as delay sensitive communications based on the obtained one or both of the delay-sensitive terminal indicator and the delay-sensitive infrastructure node indicator; identifying (S1303), based on the obtained measurements and on an identification of the communications between the first terminal and the one or more infrastructure nodes as delay-sensitive communications, resources to allocate for the first terminal to communicate with one or more of the infrastructure nodes wherein the identified resources are selected from two or more of the periods of time; and allocating (S1304) the identified resources for the first terminal to communicate with the one or more of the infrastructure nodes during the two or more periods of time.
A method for viewing panoramic images, comprising: providing for display, by one or more computing devices, a viewport including a portion of a first panoramic image and a three-dimensional overlay rendered with the first panoramic image, wherein the three-dimensional overlay includes a navigational icon used to navigate between panoramic images; providing for display, by the one or more computing devices, a second panoramic image in response to user input indicating a selection of the navigation icon, wherein the second panoramic image is located at a direction relative to a location of the first panoramic image, the direction corresponding to a position of the navigation icon in the three-dimensional overlay; and providing, by the one or more computing devices, instructions to display a transition between the portion of the first panoramic image and a portion of the second panoramic image by: zooming into the first panoramic image, and fading between the first and second panoramic images such that the zooming and fading presents a smooth transition between the first and second panoramic images to the user. providing for display, by one or more computing devices, a viewport including a portion of a first panoramic image and a three-dimensional overlay rendered with the first panoramic image, wherein the three-dimensional overlay includes a navigational icon used to navigate between panoramic images; providing for display, by the one or more computing devices, a second panoramic image in response to user input indicating a selection of the navigation icon, wherein the second panoramic image is located at a direction relative to a location of the first panoramic image, the direction corresponding to a position of the navigation icon in the three-dimensional overlay; and providing, by the one or more computing devices, instructions to display a transition between the portion of the first panoramic image and a portion of the second panoramic image by: zooming into the first panoramic image, and fading between the first and second panoramic images such that the zooming and fading presents a smooth transition between the first and second panoramic images to the user. zooming into the first panoramic image, and fading between the first and second panoramic images such that the zooming and fading presents a smooth transition between the first and second panoramic images to the user.
A protein having Toxoplasma gondii immunogenicity, wherein the protein is a cyclophilin mutant protein consisting of the amino acid sequence represented by SEQ ID NO. 2.
A system for detecting behaviour of a mobile telecommunications device in a telecommunications network, the system comprising: a telecommunications network configured to identify at least one mobile telecommunications device, the telecommunications network comprising a base station , wherein the base station is configured to receive signals from the mobile telecommunications device and further to process the received signals into signaling transmitted within the telecommunications network, the telecommunications network is arranged to monitor in the signalling transmitted within the telecommunications network an occurrence of a predetermined signal associated with the mobile telecommunications device and representing an interaction between network devices, and is arranged to register when the occurrence exceeds a level indicating acceptable behaviour of the mobile telecommunications device in the telecommunications network, characterized in that the telecommunications network is further configured to register that the occurrence exceeds a level indicating acceptable behaviour of the mobile telecommunications device in the telecommunications network in detecting when the occurrence exceeds a predetermined temporal rate by measuring if the time elapsed between successive occurrences is less than a predetermined time interval. a telecommunications network configured to identify at least one mobile telecommunications device, the telecommunications network comprising a base station , wherein the base station is configured to receive signals from the mobile telecommunications device and further to process the received signals into signaling transmitted within the telecommunications network, the telecommunications network is arranged to monitor in the signalling transmitted within the telecommunications network an occurrence of a predetermined signal associated with the mobile telecommunications device and representing an interaction between network devices, and is arranged to register when the occurrence exceeds a level indicating acceptable behaviour of the mobile telecommunications device in the telecommunications network, characterized in that the telecommunications network is further configured to register that the occurrence exceeds a level indicating acceptable behaviour of the mobile telecommunications device in the telecommunications network in detecting when the occurrence exceeds a predetermined temporal rate by measuring if the time elapsed between successive occurrences is less than a predetermined time interval.
Method for inspecting a weld of plastic pipes by means of a data processing device, comprising: • capturing and storing documents; • monitoring and recording the installation and the implementation of the weld of the j oint; • producing a welding report, or adopting a welding report from the welding machine; • testing the weld ultrasonically, wherein the test detects and stores the defects that are in the weld; characterized in that software is used to capture and store the documents, the welding report and the defects, more specifically the data on said defects, wherein an algorithm of the software is used to evaluate the stored documents, reports, defects and data on said defects, and to classify the welded joint as compliant or non-compliant with the requirements. • capturing and storing documents; • monitoring and recording the installation and the implementation of the weld of the j oint; • producing a welding report, or adopting a welding report from the welding machine; • testing the weld ultrasonically, wherein the test detects and stores the defects that are in the weld;
A fuel-air premixer for a gas turbine , comprising: a dual counter-rotating swirler comprising an outer rotor , which includes first blades configured to move the outer rotor in a first direction , and an inner rotor , which includes second blades configures to move the inner rotor in a second direction , opposite to the first direction , wherein the outer rotor and the inner rotor are configured to spin about a shaft and the dual counter-rotating swirler is configured to create a turbulent flow of compressed air and to direct the flow of air in a downstream direction ; and a centerbody arranged entirely downstream of the dual counter-rotating swirler and coupled to the dual counter-rotating swirler via the shaft , wherein the centerbody comprises an airfoil shape, wherein the airfoil shape comprises a leading edge and a trailing edge , wherein the leading edge is upstream of the trailing edge , and wherein a diameter of the centerbody increases and then decreases when moving from the leading edge to the trailing egdge , and wherein the centerbody further comprises first fuel orifices on a surface of the centerbody , the first fuel orifices are configured to inject fuel into the flow of air to create a fuel-air mixture , and the airfoil shape of the centerbody being configured to reduce or eliminate formation of a recirculation pocket when in use. a dual counter-rotating swirler comprising an outer rotor , which includes first blades configured to move the outer rotor in a first direction , and an inner rotor , which includes second blades configures to move the inner rotor in a second direction , opposite to the first direction , wherein the outer rotor and the inner rotor are configured to spin about a shaft and the dual counter-rotating swirler is configured to create a turbulent flow of compressed air and to direct the flow of air in a downstream direction ; and a centerbody arranged entirely downstream of the dual counter-rotating swirler and coupled to the dual counter-rotating swirler via the shaft , wherein the centerbody comprises an airfoil shape, wherein the airfoil shape comprises a leading edge and a trailing edge , wherein the leading edge is upstream of the trailing edge , and wherein a diameter of the centerbody increases and then decreases when moving from the leading edge to the trailing egdge , and wherein the centerbody further comprises first fuel orifices on a surface of the centerbody , the first fuel orifices are configured to inject fuel into the flow of air to create a fuel-air mixture , and the airfoil shape of the centerbody being configured to reduce or eliminate formation of a recirculation pocket when in use.
Method for increasing the flexibility of a thermal power plant, involving the interim storage of the heat of condensation of the process steam of the power plant in at least one heat store which operates at constant temperature, characterized in that the at least one heat store which operates at constant temperature is connected to the power plant via at least one steam thermocompressor such that the store discharge steam can be provided at the pressure level of the process steam at which the heat store was charged.
A component for a turbine comprising: an airfoil having an internal surface , an external surface , a leading edge , a trailing edge , a pressure side , a suction side , and an internal impingement cavity defined by the internal surface ; and an impingement insert secured within the internal impingement cavity , comprising: a plurality of impingement cooling holes spaced along a first face of the impingement insert ; and a plurality of impingement fins , each impingement fin having a base and a tip opposite the base , spaced along the first face of the impingement insert ; wherein each impingement fin is spaced apart from the impingement cooling holes ; and each impingement fin is tapered from the base to the tip and wherein the base of each impingement fin has a rectangular cross-section. an airfoil having an internal surface , an external surface , a leading edge , a trailing edge , a pressure side , a suction side , and an internal impingement cavity defined by the internal surface ; and an impingement insert secured within the internal impingement cavity , comprising: a plurality of impingement cooling holes spaced along a first face of the impingement insert ; and a plurality of impingement fins , each impingement fin having a base and a tip opposite the base , spaced along the first face of the impingement insert ; wherein a plurality of impingement cooling holes spaced along a first face of the impingement insert ; and a plurality of impingement fins , each impingement fin having a base and a tip opposite the base , spaced along the first face of the impingement insert ; wherein each impingement fin is spaced apart from the impingement cooling holes ; and each impingement fin is tapered from the base to the tip and wherein the base of each impingement fin has a rectangular cross-section.
A method for controlling the temperature of a cooling fluid in a cooling system arranged in fluid connection with an internal combustion engine of a vehicle , the cooling system comprising a cooling circuit connected to a condenser of a waste heat recovery system , a cooling pump arranged to circulate a cooling fluid (CF) through the cooling circuit and a radiator arranged for cooling the cooling fluid (CF), a bypass circuit , a first valve unit and a second valve unit , wherein the first valve unit is arranged to control the flow of cooling fluid (CF) through the radiator and the bypass circuit respectively, and the second valve unit is arranged to control the flow of cooling fluid (CF) passing through the condenser , characterized by the steps of: - determining (s101) a condenser-in cooling fluid (CF) temperature by means of a first temperature sensor arranged upstream of the condenser and downstream of a first mixing point , where the cooling fluid (CF) from the radiator and bypass circuit are mixed, and an engine-in cooling fluid temperature by means of a second temperature sensor arranged upstream of the internal combustion engine and downstream of a second mixing point , where the cooling fluid from the condenser and bypass circuit are mixed; and - controlling (s102) the flow of the cooling fluid (CF) in the cooling system by means of the first valve unit and/or the second valve unit based on the determined condenser-in and engine-in fluid temperatures. - determining (s101) a condenser-in cooling fluid (CF) temperature by means of a first temperature sensor arranged upstream of the condenser and downstream of a first mixing point , where the cooling fluid (CF) from the radiator and bypass circuit are mixed, and an engine-in cooling fluid temperature by means of a second temperature sensor arranged upstream of the internal combustion engine and downstream of a second mixing point , where the cooling fluid from the condenser and bypass circuit are mixed; and - controlling (s102) the flow of the cooling fluid (CF) in the cooling system by means of the first valve unit and/or the second valve unit based on the determined condenser-in and engine-in fluid temperatures.
A method of indicating to a receiver node in a network that the receiver node should begin tracking signal to noise ratio, SNR, of a received signal for a new power and rate, PAR, interval for data sent from a transmitter node, wherein the PAR interval is a tracking interval for the tracking of the SNR, the method comprising: determining that a new PAR interval is beginning; adding an identifier to a data block, the identifier corresponding to the new PAR interval; and sending the data block from the transmitter node to the receiver node, where the receiver node will use the identifier to determine that a new tracking interval of SNR should be performed for the data block and subsequent data blocks having the identifier. determining that a new PAR interval is beginning; adding an identifier to a data block, the identifier corresponding to the new PAR interval; and sending the data block from the transmitter node to the receiver node, where the receiver node will use the identifier to determine that a new tracking interval of SNR should be performed for the data block and subsequent data blocks having the identifier.
A process comprising the steps: a) contacting a mixture comprising furandicarboxylic acid dialkyl ester, 1,3-propanediol, a zinc compound, and optionally a poly(alkylene ether) diol, at a temperature in the range of from about 120°C to about 220°C to form prepolymer, wherein the mole ratio of the furandicarboxylic acid dialkyl ester to the 1,3-propanediol is in the range of from 1:1.3 to 1:2.2; and b) heating the prepolymer under reduced pressure to a temperature in the range of from about 220°C to about 260°C to form a polymer. a) contacting a mixture comprising furandicarboxylic acid dialkyl ester, 1,3-propanediol, a zinc compound, and optionally a poly(alkylene ether) diol, at a temperature in the range of from about 120°C to about 220°C to form prepolymer, wherein the mole ratio of the furandicarboxylic acid dialkyl ester to the 1,3-propanediol is in the range of from 1:1.3 to 1:2.2; and b) heating the prepolymer under reduced pressure to a temperature in the range of from about 220°C to about 260°C to form a polymer.