mhurhangee/ep-ind-claims huggingface dataset:
A method implemented at least in part by a computing system, the method comprising: displaying a user interface depicting a plurality of contact points (1820A, 1820B, 1820N) for a contact and an activatable user interface element for initiating communications with a particular contact point for the contact; determining whether a last name of the contact matches that of a device user; selecting a default SIM card for the contact point based on whether the last name of the contact matches that of the device user comprising, responsive to determining the last name of the contact matches that of the device user, selecting a SIM card associated with personal communication as the default SIM card; receiving an activation of the user interface element; responsive to activation of the user interface element, initiating communications with the particular contact point via the default SIM card; and for another of the contact points of the contact, presenting a different SIM card as a default. displaying a user interface depicting a plurality of contact points (1820A, 1820B, 1820N) for a contact and an activatable user interface element for initiating communications with a particular contact point for the contact; determining whether a last name of the contact matches that of a device user; selecting a default SIM card for the contact point based on whether the last name of the contact matches that of the device user comprising, responsive to determining the last name of the contact matches that of the device user, selecting a SIM card associated with personal communication as the default SIM card; receiving an activation of the user interface element; responsive to activation of the user interface element, initiating communications with the particular contact point via the default SIM card; and for another of the contact points of the contact, presenting a different SIM card as a default.
A pterostilbene:caffeine cocrystal, a pterostilbene:glutaric acid cocrystal, or a pterostilbene:piperazine cocrystal, wherein pterostiblene is viewed as the drug and the second component of each of the cocrystal is viewed as the coformer, wherein the molar ratio of pterostilbene:caffeine is 1:1, wherein the molar ratio of pterostilbene:glutaric acid is 1:1 and wherein the molar ratio of pterostilbene:piperazine is 2:1.
A method for performing x-ray absorption spectroscopy, the method comprising: illuminating an object using an x-ray beam with an energy bandwidth greater than 0.1% and inclusive of the energy corresponding to an absorption edge of an atomic element; acquiring a first x-ray absorption spectrum from the object at a first energy resolution better than 3 eV, using a single crystal spectrometer, over a first energy bandwidth inclusive of the absorption edge; acquiring a second x-ray absorption spectrum from the object using a mosaic crystal spectrometer at a second energy resolution coarser than the first energy resolution and over a second energy bandwidth wider than the first energy bandwidth and inclusive of said absorption edge; and processing the first and second x-ray absorption spectra to produce a third x-ray absorption spectrum in which the second x-ray absorption spectrum within the first energy bandwidth corresponding to the first x-ray absorption spectrum is refined using the first x-ray absorption spectrum. illuminating an object using an x-ray beam with an energy bandwidth greater than 0.1% and inclusive of the energy corresponding to an absorption edge of an atomic element; acquiring a first x-ray absorption spectrum from the object at a first energy resolution better than 3 eV, using a single crystal spectrometer, over a first energy bandwidth inclusive of the absorption edge; acquiring a second x-ray absorption spectrum from the object using a mosaic crystal spectrometer at a second energy resolution coarser than the first energy resolution and over a second energy bandwidth wider than the first energy bandwidth and inclusive of said absorption edge; and processing the first and second x-ray absorption spectra to produce a third x-ray absorption spectrum in which the second x-ray absorption spectrum within the first energy bandwidth corresponding to the first x-ray absorption spectrum is refined using the first x-ray absorption spectrum.
A network interface unit for a node (D, D 1, D 2, D 3, D a, D b, D c) in a wireless multi-hop network comprising a plurality of nodes (D, D 1, D 2, D 3, D a, D b, D c) that can be connected by means of network paths between source nodes and destination nodes, which network interface unit comprises - a multiple route request assembly module for assembling a multiple route request message (MREQ) such that the multiple route request message (MREQ) of a source node includes a plurality of addresses (41, 43, 45) for specific multiple destination nodes (D 1, D 2, D 3) to which network paths are to be established; - which multiple route request assembly module is realised to assemble a multiple route request message (MREQ) to comprise a multiple route request indicator to indicate that network paths are desired between the source node and multiple destinations (D 1, D 2, D 3) in the wireless multi-hop network, which multiple route request indicator comprises a bit of the multiple route request message (MREQ); - a transmit unit for transmitting the multiple route request message (MREQ) to other nodes (D 1, D 2, D 3, D a, D b, D c) in the wireless multi-hop network; and - a decoding unit for, when the multiple route request indicator in the multiple route request (MREQ) is detected, creating a table entry (T 1, T 2, T 3) for each of the multiple destination nodes (D 1, D 2, D 3). - a multiple route request assembly module for assembling a multiple route request message (MREQ) such that the multiple route request message (MREQ) of a source node includes a plurality of addresses (41, 43, 45) for specific multiple destination nodes (D 1, D 2, D 3) to which network paths are to be established; - which multiple route request assembly module is realised to assemble a multiple route request message (MREQ) to comprise a multiple route request indicator to indicate that network paths are desired between the source node and multiple destinations (D 1, D 2, D 3) in the wireless multi-hop network, which multiple route request indicator comprises a bit of the multiple route request message (MREQ); - a transmit unit for transmitting the multiple route request message (MREQ) to other nodes (D 1, D 2, D 3, D a, D b, D c) in the wireless multi-hop network; and - a decoding unit for, when the multiple route request indicator in the multiple route request (MREQ) is detected, creating a table entry (T 1, T 2, T 3) for each of the multiple destination nodes (D 1, D 2, D 3).
Use of an oxidation catalyst for combustion of a light oil component, characterized in that the catalyst comprises an alumina porous body whose pore size distribution profile, as determined by means of a mercury porosimeter, has a peak falling within a range of 30 to 55 nm, and a noble metal supported on the surface of the alumina porous body and/or on the inner walls of pores of the alumina porous body, the alumina porous body being an La-stabilized alumina porous body which has a mass ratio Al 2 O 3 /La 2 O 3 ranging from 99/1 to 95/5.
A wireless transmission method for controlling a plurality of actuators in a wireless network, the method comprising the steps of: providing a commanding node and a plurality of sub-networks, each of the sub-networks including at least one responding node (552a-j), which provides operation of an actuator; assigning one of a plurality of priority levels to the at least one responding node of each of the sub-networks; assigning time slots to the sub-networks such that time slots assigned to at least one said sub-network are interleaved in time with time slots assigned to at least one other said subnetwork having responding nodes with a same priority level of the plurality of priority levels, each time slot having a respective time duration (t j), the time slots being distributed on a minimal number of different frequency channels such that a sum of the time durations (t j) of the respective time slots distributed to each frequency channel is less than or equal to a maximum time; and within each said time slot, transmitting a command packet from the commanding node and at least one acknowledgement packet from the at least one responding node, the command packet including a respective selection bit for each of the responding nodes in the sub-network that is assigned to a current said time slot and is of the same said priority level, each said selection bit indicating whether the respective responding node is to operate, according to its actuator function. providing a commanding node and a plurality of sub-networks, each of the sub-networks including at least one responding node (552a-j), which provides operation of an actuator; assigning one of a plurality of priority levels to the at least one responding node of each of the sub-networks; assigning time slots to the sub-networks such that time slots assigned to at least one said sub-network are interleaved in time with time slots assigned to at least one other said subnetwork having responding nodes with a same priority level of the plurality of priority levels, each time slot having a respective time duration (t j), the time slots being distributed on a minimal number of different frequency channels such that a sum of the time durations (t j) of the respective time slots distributed to each frequency channel is less than or equal to a maximum time; and within each said time slot, transmitting a command packet from the commanding node and at least one acknowledgement packet from the at least one responding node, the command packet including a respective selection bit for each of the responding nodes in the sub-network that is assigned to a current said time slot and is of the same said priority level, each said selection bit indicating whether the respective responding node is to operate, according to its actuator function.
A fuel injection device comprising: a fuel injection valve for injecting fuel, which is distributed from a common rail; a pressure sensor located in a fuel passage, which extends from the common rail to a nozzle hole of the fuel injection valve, and configured to detect pressure of the fuel, the pressure sensor being located closer to the nozzle hole than the common rail; and a storage unit storing individual difference information, which indicates an injection characteristic of the fuel injection valve, the injection characteristic being obtained by an examination consisting in measuring the characteristics for each injector resulting from test-injection, wherein the fuel injection valve is attached with the storage unit, wherein the individual difference information is related to a fluctuation pattern (Pe) of a portion of the fluctuation in detected pressure waveform of the pressure sensor, the fluctuation being attributed to one fuel injection through the nozzle hole, characterized in that the portion of the fluctuation is subsequent to an end of the fuel injection where the injection rate reaches zero. a fuel injection valve for injecting fuel, which is distributed from a common rail; a pressure sensor located in a fuel passage, which extends from the common rail to a nozzle hole of the fuel injection valve, and configured to detect pressure of the fuel, the pressure sensor being located closer to the nozzle hole than the common rail; and a storage unit storing individual difference information, which indicates an injection characteristic of the fuel injection valve, the injection characteristic being obtained by an examination consisting in measuring the characteristics for each injector resulting from test-injection, wherein the fuel injection valve is attached with the storage unit, wherein the individual difference information is related to a fluctuation pattern (Pe) of a portion of the fluctuation in detected pressure waveform of the pressure sensor, the fluctuation being attributed to one fuel injection through the nozzle hole, characterized in that the portion of the fluctuation is subsequent to an end of the fuel injection where the injection rate reaches zero.
A method comprising: obtaining, within a radio access network, a channel state for a data channel associated with a mobile terminal (12a, 12b), wherein the channel state is associated, at least in part, with radio conditions of the data channel; including the channel state in a differentiated services, diffserv, marking within an Internet Protocol, IP, header of at least one IP packet associated with the mobile terminal, wherein the diffserv marking includes one or more bits indicating: whether the channel state is for an uplink data channel or downlink data channel associated with the mobile terminal; the channel state of the data channel associated with the mobile terminal; and at least one of: presence of the channel state for the data channel; and presence of the channel state for the data channel and that a base station serving the mobile terminal is experiencing congestion; and transmitting the at least one IP packet including the IP header having the diffserv marking toward a packet data network (50, 60). obtaining, within a radio access network, a channel state for a data channel associated with a mobile terminal (12a, 12b), wherein the channel state is associated, at least in part, with radio conditions of the data channel; including the channel state in a differentiated services, diffserv, marking within an Internet Protocol, IP, header of at least one IP packet associated with the mobile terminal, wherein the diffserv marking includes one or more bits indicating: whether the channel state is for an uplink data channel or downlink data channel associated with the mobile terminal; the channel state of the data channel associated with the mobile terminal; and at least one of: presence of the channel state for the data channel; and presence of the channel state for the data channel and that a base station serving the mobile terminal is experiencing congestion; and transmitting the at least one IP packet including the IP header having the diffserv marking toward a packet data network (50, 60). whether the channel state is for an uplink data channel or downlink data channel associated with the mobile terminal; the channel state of the data channel associated with the mobile terminal; and at least one of: presence of the channel state for the data channel; and presence of the channel state for the data channel and that a base station serving the mobile terminal is experiencing congestion; and presence of the channel state for the data channel; and presence of the channel state for the data channel and that a base station serving the mobile terminal is experiencing congestion; and transmitting the at least one IP packet including the IP header having the diffserv marking toward a packet data network (50, 60).
Method for separating elemental phosphorus from iron oxide-containing and phosphate-containing materials, in particular from waste materials such as sewage sludge (ash), animal meal, bone meal and/or steelworks slag, preferably together with materials such as apatite, phosphate ores and/or phosphorite, comprising at least the following steps: providing at least one iron oxide- and phosphate-containing material, adding at least one aluminum carrier to the at least one iron oxide- and phosphate-containing material and melting the at least one aluminum carrier together with the at least one iron oxide- and phosphate-containing material to form an aluminum-containing and optionally aluminum oxide-containing phosphate slag melt, reacting the aluminum-containing and optionally aluminum oxide-containing phosphate slag melt to elemental gaseous phosphorus, iron and an Al 2 O 3 -containing slag in a melting vessel, drawing off elemental, gaseous phosphorus and tapping off the iron and the Al 2 O 3 -containing slag, characterized in that a tin bath is arranged as cathode body in the melting vessel under the aluminum-containing and optionally aluminum oxide-containing phosphate slag melt and at least one anode body, preferably of graphite, platinum or magnetite spinel, is arranged to be immersed in the aluminum-containing and optionally aluminum oxide-containing phosphate slag melt and a direct current, preferably a direct current of 3 V to 15 V, preferably of 6 V to 12 V, in particular preferably of 8 V to 10 V, is applied to the cathode body and the anode body or a direct current is taken from the cathode body and from the anode body. providing at least one iron oxide- and phosphate-containing material, adding at least one aluminum carrier to the at least one iron oxide- and phosphate-containing material and melting the at least one aluminum carrier together with the at least one iron oxide- and phosphate-containing material to form an aluminum-containing and optionally aluminum oxide-containing phosphate slag melt, reacting the aluminum-containing and optionally aluminum oxide-containing phosphate slag melt to elemental gaseous phosphorus, iron and an Al 2 O 3 -containing slag in a melting vessel, drawing off elemental, gaseous phosphorus and tapping off the iron and the Al 2 O 3 -containing slag, characterized in that a tin bath is arranged as cathode body in the melting vessel under the aluminum-containing and optionally aluminum oxide-containing phosphate slag melt and at least one anode body, preferably of graphite, platinum or magnetite spinel, is arranged to be immersed in the aluminum-containing and optionally aluminum oxide-containing phosphate slag melt and a direct current, preferably a direct current of 3 V to 15 V, preferably of 6 V to 12 V, in particular preferably of 8 V to 10 V, is applied to the cathode body and the anode body or a direct current is taken from the cathode body and from the anode body.
A method of communication, the method comprising: determining, by an access point capable of transmitting via one or more beam directions, a schedule for receiving and transmitting control communications by dividing an access period into one or more contention free time slots and allocating a first contention free time slot for a station (1A, 1B, 1C, 1D); transmitting the schedule to one or more stations (1A, 1B, 1C, 1D); and receiving, by the access point, during the first contention free time slot, a first control communication from the station (1A, 1B, 1C, 1D), wherein the first control communication comprises a channel time request containing a preferred beam direction for the station. determining, by an access point capable of transmitting via one or more beam directions, a schedule for receiving and transmitting control communications by dividing an access period into one or more contention free time slots and allocating a first contention free time slot for a station (1A, 1B, 1C, 1D); transmitting the schedule to one or more stations (1A, 1B, 1C, 1D); and receiving, by the access point, during the first contention free time slot, a first control communication from the station (1A, 1B, 1C, 1D), wherein the first control communication comprises a channel time request containing a preferred beam direction for the station.
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,