mhurhangee/patent-ind-claim-en huggingface dataset:
A plate heat exchanger system comprising a plate heat exchanger with plates welded to one another at connection areas , and a plate heat exchanger erosion protection strip for covering welded connection areas between the plates of the plate heat exchanger, wherein the plate heat exchanger erosion protection strip essentially has two legs which serve to receive the plates that are welded together between them, characterized in that the plates connected to one another together have a three-dimensional shape which is configured to positively correspond to the shape of the plate heat exchanger erosion protection strip at least in partial areas, wherein the plates comprise elevations or depressions which can be positively engaged in elevations or depressions of the plate heat exchanger erosion protection strip , wherein the elevations and/or depressions are linear, wherein the elevations and/or depressions comprise undercuts which can be positively engaged in corresponding elements of the plate heat exchanger erosion protection strip , wherein the plate heat exchanger erosion protection strip has a shape which is configured to positively correspond to the shape of the plates at least in partial areas, wherein the legs of the plate heat exchanger erosion protection strip comprise elevations or depressions , which can be positively engaged in elevations or depressions of the plates , wherein the elevations and/or depressions are configured as to be linear, wherein the elevations and/or depressions are formed far from the edge in the plate heat exchanger erosion protection strip , wherein the elevations and/or depressions comprise undercuts which can be positively engaged in corresponding elements of the plates .
A method for producing a three dimensional surface on a substrate comprising the steps of: A) applying a photocurable resin, or a paint or ink containing it, on the surface of a substrate thus forming a coating; B) applying a water-based embossing liquid on a portion of the coating the deposition of said embossing liquid producing concavities or convexities on the said photocurable resin or paint or ink layer, C) polymerizing the photocurable resin by means of irradiation with UV beams, D) removing the embossing liquid, the embossing liquid consisting of water (H2O), characterised in that the embossing liquid comprises silicones and/or silicone acrylates. A) applying a photocurable resin, or a paint or ink containing it, on the surface of a substrate thus forming a coating; B) applying a water-based embossing liquid on a portion of the coating the deposition of said embossing liquid producing concavities or convexities on the said photocurable resin or paint or ink layer, C) polymerizing the photocurable resin by means of irradiation with UV beams, D) removing the embossing liquid, the embossing liquid consisting of water (H2O),
A method, comprising: obtaining, by a controller, a first flow identifier, a first service identifier, and a first next-hop address, wherein the first flow identifier identifies a packet flow, the first service identifier is allocated to the packet flow, the first service identifier identifies a sequence of a plurality of service node instances that process the packet flow, and the first next-hop address identifies an address of a first service node instance of the plurality of service node instances that processes the packet flow; and sending, by the controller, the first flow identifier, the first service identifier and the first next-hop address to a service distribution node. obtaining, by a controller, a first flow identifier, a first service identifier, and a first next-hop address, wherein the first flow identifier identifies a packet flow, the first service identifier is allocated to the packet flow, the first service identifier identifies a sequence of a plurality of service node instances that process the packet flow, and the first next-hop address identifies an address of a first service node instance of the plurality of service node instances that processes the packet flow; and sending, by the controller, the first flow identifier, the first service identifier and the first next-hop address to a service distribution node.
A computer implemented method comprising: controlling (S402) an active reflected wave detector to measure wave reflections from an environment using a first frame rate to accrue measured wave reflection data for a classifier, after a first amount of time of accruing measured wave reflection data from the active reflected wave detector, determining (S404) whether a predefined criteria based on the measured wave reflection data is satisfied, wherein satisfaction of the predefined criteria is indicative of the classifier being likely to successfully identify a fall status of a person in the environment by a second amount of time of accruing measured wave reflection data from the active reflected wave detector, the second amount of time being greater than the first amount of time; in the event that the predefined criteria is not met, the method comprising controlling (S410) the active reflected wave detector to accrue measured wave reflection data at a lower second frame rate for classifying the fall status based on measured wave reflection data accrued at the lower second frame rate. controlling (S402) an active reflected wave detector to measure wave reflections from an environment using a first frame rate to accrue measured wave reflection data for a classifier, after a first amount of time of accruing measured wave reflection data from the active reflected wave detector, determining (S404) whether a predefined criteria based on the measured wave reflection data is satisfied, wherein satisfaction of the predefined criteria is indicative of the classifier being likely to successfully identify a fall status of a person in the environment by a second amount of time of accruing measured wave reflection data from the active reflected wave detector, the second amount of time being greater than the first amount of time; in the event that the predefined criteria is not met, the method comprising controlling (S410) the active reflected wave detector to accrue measured wave reflection data at a lower second frame rate for classifying the fall status based on measured wave reflection data accrued at the lower second frame rate.
A method for a public warning system, PWS, control node arranged to control a PWS adapted for broadcasting a message in a first wireless access network that is a public safety network, the first wireless access network arranged to, at least partly, overlap one or more further wireless access networks that is a commercial network being separated from the public safety network, the method being performed in the PWS control node comprises: initiating broadcasting a modified support announcement (S104) by the first wireless access network the modified support announcement configured to announce support for the further wireless access networks by comprising network identifiers associated with the further wireless access networks, whereby a wireless device associated with the further wireless access network is prompted to connect to the first wireless access network , and initiating broadcasting (S108) of the message over the first wireless access network , whereby said wireless device may receive the message over the first wireless access network. initiating broadcasting a modified support announcement (S104) by the first wireless access network the modified support announcement configured to announce support for the further wireless access networks by comprising network identifiers associated with the further wireless access networks, whereby a wireless device associated with the further wireless access network is prompted to connect to the first wireless access network , and initiating broadcasting (S108) of the message over the first wireless access network , whereby said wireless device may receive the message over the first wireless access network.
Method for producing polycrystalline silicon, comprising introducing a reaction gas, which in addition to hydrogen contains silane and/or at least one halosilane, into a reaction space of a vapour deposition reactor, wherein the reaction space comprises at least one filament rod which is heated by way of the passage of current and on which by means of deposition silicon is deposited to form a polycrystalline silicon rod, wherein for the determination of the morphology of the silicon rod during the deposition at a rod temperature T S - a first resistance value R 1 of the silicon rod is determined according to R 1 = U I where U = voltage between two ends of the silicon rod, I = current strength - a second resistance value R 2 of the silicon rod is determined according to R 2 = ρ L A where ρ = resistivity of silicon, L = length of the silicon rod, A = cross-sectional area of the silicon rod, and a morphology index M is calculated from the ratio R 1 / R 2 , wherein the deposition is controlled by varying at least one parameter selected from the group comprising U, I, surface temperature T OF , reaction gas composition and standard volume flow rate in such a way that M - for the production of type B polysilicon has a value from 1.2 to 1.4, - for the production of type C polysilicon has a value from 1.4 to 1.7 or - for the production of type D polysilicon has a value greater than 1.7, wherein U is in a range from 50 to 500 V, I is in a range from 500 to 4500 A, T OF is in a range from 950 to 1200°C, the standard volume flow rate of the reaction gas is 1500 to 9000 m 3 /h and the reaction gas prior to entry into the reactor contains hydrogen in a proportion of 50% to 90%, and wherein Ts is the surface temperature T OF of the silicon rod or the arithmetic mean of two or more surface temperatures T OF of the same or different silicon rods. - a first resistance value R 1 of the silicon rod is determined according to R 1 = U I where U = voltage between two ends of the silicon rod, I = current strength U = voltage between two ends of the silicon rod, I = current strength - a second resistance value R 2 of the silicon rod is determined according to R 2 = ρ L A where ρ = resistivity of silicon, L = length of the silicon rod, A = cross-sectional area of the silicon rod, and a morphology index M is calculated from the ratio R 1 / R 2 , wherein the deposition is controlled by varying at least one parameter selected from the group comprising U, I, surface temperature T OF , reaction gas composition and standard volume flow rate in such a way that M ρ = resistivity of silicon, L = length of the silicon rod, A = cross-sectional area of the silicon rod, - for the production of type B polysilicon has a value from 1.2 to 1.4, - for the production of type C polysilicon has a value from 1.4 to 1.7 or - for the production of type D polysilicon has a value greater than 1.7,
A power converter configured to transfer power from an input to an output, the power converter comprising: a maximum power point tracking, MPPT, loop configured to perform maximum power point tracking of a solar panel connected to the input; and a monitoring module configured to perform the steps of: initializing a timer when the solar panel starts to receive sun light and generate output power, collecting performance data of the solar panel, monitoring a passage of a time period of the timer, and transmitting the performance data at a set up time from when the timer is initialized, the monitoring module comprising a randomizer for varying time increments for controlling transmission events, wherein the randomizer varies time increments for transmitting the performance data. a maximum power point tracking, MPPT, loop configured to perform maximum power point tracking of a solar panel connected to the input; and a monitoring module configured to perform the steps of: initializing a timer when the solar panel starts to receive sun light and generate output power, collecting performance data of the solar panel, monitoring a passage of a time period of the timer, and transmitting the performance data at a set up time from when the timer is initialized, the monitoring module comprising a randomizer for varying time increments for controlling transmission events, wherein the randomizer varies time increments for transmitting the performance data.
An electronic device comprising: a housing; a radio communication circuit arranged in the housing and configured to support radio communication with a neighboring electronic device ; a processor arranged in the housing and electrically connected to the radio communication circuit; and a memory arranged in the housing and electrically connected to the processor, the memory storing instructions that, when executed by the processor, cause the processor to: perform a radio communication with the neighboring electronic device using the radio communication circuit at a first symbol rate, change, when detecting an event triggering a change from the first symbol rate to a second symbol rate, from the first symbol rate to the second symbol rate, determine a compensation value based on a coverage range defined by data propagation distance at the second symbol rate, and adjust a transmit power of the radio communication circuit based on the compensation value, wherein the first and second symbol rates have the units sym/s. a housing; a radio communication circuit arranged in the housing and configured to support radio communication with a neighboring electronic device ; a processor arranged in the housing and electrically connected to the radio communication circuit; and a memory arranged in the housing and electrically connected to the processor, the memory storing instructions that, when executed by the processor, cause the processor to: perform a radio communication with the neighboring electronic device using the radio communication circuit at a first symbol rate, change, when detecting an event triggering a change from the first symbol rate to a second symbol rate, from the first symbol rate to the second symbol rate, determine a compensation value based on a coverage range defined by data propagation distance at the second symbol rate, and adjust a transmit power of the radio communication circuit based on the compensation value, perform a radio communication with the neighboring electronic device using the radio communication circuit at a first symbol rate, change, when detecting an event triggering a change from the first symbol rate to a second symbol rate, from the first symbol rate to the second symbol rate, determine a compensation value based on a coverage range defined by data propagation distance at the second symbol rate, and adjust a transmit power of the radio communication circuit based on the compensation value, wherein the first and second symbol rates have the units sym/s.
A process for manufacturing a polyurethane-based solid-solid type, organic phase-change material, the process comprising: - a single step (i) of synthesising by mixing and reacting a liquid polyethylene glycol, a cross-linking agent and a liquid polyisocyanate, placed together, by mechanical stirring, at a first controlled temperature, into an enclosure, to obtain the liquid polyurethane, - a step (ii) of curing the liquid polyurethane, at a second controlled temperature, to make the polyurethane solid, the synthesis step (i) being performed in the absence of a solvent. - a single step (i) of synthesising by mixing and reacting a liquid polyethylene glycol, a cross-linking agent and a liquid polyisocyanate, placed together, by mechanical stirring, at a first controlled temperature, into an enclosure, to obtain the liquid polyurethane, - a step (ii) of curing the liquid polyurethane, at a second controlled temperature, to make the polyurethane solid,
A production line for building panels for interior construction of residential and industrial premises, comprises a glass flour production line, which including receiving hopper connected to hammer mill which is connected by means of a conveyor to roll mill with sieve , which in turn is connected by means of a conveyor to glass flour container , wherein the glass flour container is connected by a conveyor to hopper with glass flour dispenser connected by means of a conveyor with homogenizer , such as water dispensing pump , characterized in that the production line comprises and a textile noil production line, which including station of baled or packaged textile waste , which is sequentially and functionally connected by means of conveyors with drying chamber , UV decontamination drum , shredder , feathering machine and container for textile noil , wherein the container for textile noil by means of a conveyor is connected to hopper with textile noil dispenser connected by a conveyor to the homogenizer , wherein hopper with gypsum dispenser and hopper for granular silicone are connected to the homogenizer , wherein the homogenizer by conveyors is connected to at least three vibratory sieves with an upper press connected to the dryer ,
A method for wireless communication at a user equipment, UE, comprising: receiving a synchronization signal, SS, block comprising a physical broadcast channel, PBCH; identifying , from the PBCH, a control resource set, coreset, configuration indication which indicates a coreset configuration for a coreset that includes control information; identifying , from the PBCH, a multiplexing indication which indicates whether the coreset and the SS block are time division multiplexed, frequency division multiplexed, or both; determining the coreset based at least in part on the coreset configuration indication and the multiplexing indication; and monitoring for the control information in the coreset; and determining a location of remaining minimum system information, RMSI, in a data channel based at least in part on the control information. receiving a synchronization signal, SS, block comprising a physical broadcast channel, PBCH; identifying , from the PBCH, a control resource set, coreset, configuration indication which indicates a coreset configuration for a coreset that includes control information; identifying , from the PBCH, a multiplexing indication which indicates whether the coreset and the SS block are time division multiplexed, frequency division multiplexed, or both; determining the coreset based at least in part on the coreset configuration indication and the multiplexing indication; and monitoring for the control information in the coreset; and determining a location of remaining minimum system information, RMSI, in a data channel based at least in part on the control information.
An apparatus for transmitting sidelink information, the apparatus configured to be used in a second device and comprising: a memory that stores a plurality of instructions; and a processor coupled to the memory and configured to execute the instructions to: receive first sidelink data information and/or a reference signal transmitted by at least one first device ; indicate sidelink feedback information for the first sidelink data information and/or reference signal by using an identifier; and transmit to the at least one first device the indicated sidelink feedback information, wherein indicating the sidelink feedback information by using an identifier includes: determining, according to the identifier, at least one of a sequence, an orthogonal cover code, a root sequence and a cyclic shift, that is used to indicate the sidelink feedback information. a memory that stores a plurality of instructions; and a processor coupled to the memory and configured to execute the instructions to: receive first sidelink data information and/or a reference signal transmitted by at least one first device ; indicate sidelink feedback information for the first sidelink data information and/or reference signal by using an identifier; and transmit to the at least one first device the indicated sidelink feedback information, wherein indicating the sidelink feedback information by using an identifier includes: determining, according to the identifier, at least one of a sequence, an orthogonal cover code, a root sequence and a cyclic shift, that is used to indicate the sidelink feedback information. receive first sidelink data information and/or a reference signal transmitted by at least one first device ; indicate sidelink feedback information for the first sidelink data information and/or reference signal by using an identifier; and transmit to the at least one first device the indicated sidelink feedback information, wherein indicating the sidelink feedback information by using an identifier includes: determining, according to the identifier, at least one of a sequence, an orthogonal cover code, a root sequence and a cyclic shift, that is used to indicate the sidelink feedback information.
A server apparatus comprising a data communication interface , one or more processors , and one or more memories including computer program code , the one or more memories and the computer program code configured to, with the one or more processors , cause the server apparatus at least to: receive , with the data communication interface , from a plurality of mobile apparatuses usage data about wireless communication networks as utilized by the plurality of mobile apparatuses each associated with a set of subscriber identity modules performing subscriber identification and authentication in the wireless communication networks , wherein the usage data comprises information on at least one of the following relating to the utilization of the wireless communication networks : connectivity , connection performance , connection quality ; update subscriber identity module-specific preferred roaming lists based on the usage data ; and transmit , with the data communication interface , the updated preferred roaming lists for use by the sets of the subscriber identity modules in the plurality of the mobile apparatuses . receive , with the data communication interface , from a plurality of mobile apparatuses usage data about wireless communication networks as utilized by the plurality of mobile apparatuses each associated with a set of subscriber identity modules performing subscriber identification and authentication in the wireless communication networks , wherein the usage data comprises information on at least one of the following relating to the utilization of the wireless communication networks : connectivity , connection performance , connection quality ; update subscriber identity module-specific preferred roaming lists based on the usage data ; and transmit , with the data communication interface , the updated preferred roaming lists for use by the sets of the subscriber identity modules in the plurality of the mobile apparatuses .
An information generation device comprising: a noise amount calculation unit that calculates, for each of a plurality of polarization directions, an amount of noise on a basis of a luminance value by using a noise variance model showing a relationship between luminance values and variances of luminance values and setting a variance of luminance values depending on the luminance value as the amount of noise on a basis of the noise variance model; and a polarization model estimation unit that estimates a polarization model by using the luminance value and the amount of noise calculated for each of the plurality of polarization directions by the noise amount calculation unit. a noise amount calculation unit that calculates, for each of a plurality of polarization directions, an amount of noise on a basis of a luminance value by using a noise variance model showing a relationship between luminance values and variances of luminance values and setting a variance of luminance values depending on the luminance value as the amount of noise on a basis of the noise variance model; and a polarization model estimation unit that estimates a polarization model by using the luminance value and the amount of noise calculated for each of the plurality of polarization directions by the noise amount calculation unit.