mhurhangee/ep-ind-claims huggingface dataset:
A frame profile for a frame rack of a switch cabinet, wherein the frame profile has: - a first and a second profile web (2, 3), wherein a free end of the first profile web has a first sealing edge, and a free end of the second profile web has a second sealing edge, wherein at least one of the profile webs (2, 3) has an undercut, - a first mounting side with fixing receptacles, which first mounting side is spaced apart from the first sealing edge by a first dimension of a first connecting side of the first profile web, which connects the first mounting side to the first sealing edge, - a second mounting side with fixing receptacles, which second mounting side is spaced apart from the second sealing edge by a second dimension of a second connecting side of the second profile web, which connects the second mounting side to the second sealing edge, characterized in that the connecting side (8, 10) of the profile web (2, 3) having the undercut transitions at the sealing edge (4, 5) via a continuous folded edge of more than 180° into an additional profile side of the profile web (2, 3) having the undercut. - a first and a second profile web (2, 3), wherein a free end of the first profile web has a first sealing edge, and a free end of the second profile web has a second sealing edge, wherein at least one of the profile webs (2, 3) has an undercut, - a first mounting side with fixing receptacles, which first mounting side is spaced apart from the first sealing edge by a first dimension of a first connecting side of the first profile web, which connects the first mounting side to the first sealing edge, - a second mounting side with fixing receptacles, which second mounting side is spaced apart from the second sealing edge by a second dimension of a second connecting side of the second profile web, which connects the second mounting side to the second sealing edge,
Procedure for making pots comprising the following phases: preparing at least one pot body made from a non ferromagnetic material, for example from an aluminium alloy; preparing at least one essentially planar bottom made from ferromagnetic material, for example steel AISI 430, in particular the bottom has an essentially planar shape or at least it does not have a concave or convex profile at the centre of the bottom with respect to its edges; joining said at least one bottom to said at least one pot body, wherein said phase of joining said at least one pot body to said at least one bottom comprises a braze welding phase by means of a brazing alloy; making a plurality of cuts by removing material and/or by laser cutting and/or making a plurality of ribs in said bottom; wherein said cuts are continuous through said bottom, and wherein said cuts are through cuts or non-through cuts. preparing at least one pot body made from a non ferromagnetic material, for example from an aluminium alloy; preparing at least one essentially planar bottom made from ferromagnetic material, for example steel AISI 430, in particular the bottom has an essentially planar shape or at least it does not have a concave or convex profile at the centre of the bottom with respect to its edges; joining said at least one bottom to said at least one pot body, wherein said phase of joining said at least one pot body to said at least one bottom comprises a braze welding phase by means of a brazing alloy; making a plurality of cuts by removing material and/or by laser cutting and/or making a plurality of ribs in said bottom; wherein said cuts are continuous through said bottom, and wherein said cuts are through cuts or non-through cuts.
A method comprising: selecting, by a corresponding access point within a corresponding cell of a wireless network, a spectrum to use for transmission of signals within the corresponding cell, wherein the spectrum that is selected is one of a spectrum licensed for wireless communication, and a spectrum that is unlicensed; transmitting, by the corresponding access point via the spectrum that is selected, signals to one or more user devices located within the corresponding cell; receiving, by the corresponding access point via the spectrum that is selected, signals from the one or more user devices located within the corresponding cell; determining, by the corresponding access point, that at least one of the one or more user devices within the corresponding cell should only operate on a licensed spectrum; and in response to the spectrum that is selected being an unlicensed spectrum, handing off the at least one of the one or more user devices to a corresponding base station of the wireless network operating on the licensed spectrum. selecting, by a corresponding access point within a corresponding cell of a wireless network, a spectrum to use for transmission of signals within the corresponding cell, wherein the spectrum that is selected is one of a spectrum licensed for wireless communication, and a spectrum that is unlicensed; transmitting, by the corresponding access point via the spectrum that is selected, signals to one or more user devices located within the corresponding cell; receiving, by the corresponding access point via the spectrum that is selected, signals from the one or more user devices located within the corresponding cell; determining, by the corresponding access point, that at least one of the one or more user devices within the corresponding cell should only operate on a licensed spectrum; and in response to the spectrum that is selected being an unlicensed spectrum, handing off the at least one of the one or more user devices to a corresponding base station of the wireless network operating on the licensed spectrum.
A traffic redirecting method, comprising following steps: redirecting a traffic to a proxy service module of a first proxy server; and pre-filtering, by the proxy service module, the traffic to match on a pre-redirecting rule; if the match is successful, redirecting, by the proxy service module, the traffic based on a traffic redirecting rule corresponding to the matched pre-redirecting rule, and if the match is not successful, recognizing, by the proxy service module, a type of the traffic, and based on a recognition result, selecting, by the proxy service module, a corresponding redirecting rule to redirect the traffic, wherein the redirecting rule includes redirecting the traffic back to a source, or redirecting the traffic to a traffic processing server, or redirecting the traffic to a second proxy server, or discarding the traffic. redirecting a traffic to a proxy service module of a first proxy server; and pre-filtering, by the proxy service module, the traffic to match on a pre-redirecting rule; if the match is successful, redirecting, by the proxy service module, the traffic based on a traffic redirecting rule corresponding to the matched pre-redirecting rule, and if the match is not successful, recognizing, by the proxy service module, a type of the traffic, and based on a recognition result, selecting, by the proxy service module, a corresponding redirecting rule to redirect the traffic, wherein the redirecting rule includes redirecting the traffic back to a source, or redirecting the traffic to a traffic processing server, or redirecting the traffic to a second proxy server, or discarding the traffic.
A method for generating a synchronization signal, the method comprising: using a number other than 63 as an N zc value, being a prime number equal to 67, in a Zadoff-Chu sequence used in generating a primary synchronization signal for a wireless communication system and wherein the primary synchronization signal occupies 66 resource elements out of a total available 72 resource elements and is given by the following equation: d u n = { e − j πun n + 1 67 n = 0,1,..., 32 e − j πu n + 1 n + 2 67 n = 33,34,..., 65 characterised in that the Zadoff-Chu root sequence index u is given by at least a portion of the following table: N ID 2 Root index u 0 1 1 2 2 3 3 4...... 65 66 and where N ID represents the physical layer identity of a cell within the physical layer cell identity group. using a number other than 63 as an N zc value, being a prime number equal to 67, in a Zadoff-Chu sequence used in generating a primary synchronization signal for a wireless communication system and wherein the primary synchronization signal occupies 66 resource elements out of a total available 72 resource elements and is given by the following equation: d u n = { e − j πun n + 1 67 n = 0,1,..., 32 e − j πu n + 1 n + 2 67 n = 33,34,..., 65 characterised in that the Zadoff-Chu root sequence index u is given by at least a portion of the following table: N ID 2 Root index u 0 1 1 2 2 3 3 4...... 65 66 and where N ID represents the physical layer identity of a cell within the physical layer cell identity group.
Process for producing of a capacitor film comprising the steps of (a) polymerizing propylene and optionally ethylene and/or at least one C 4 to C 10 α-olefin in the presence of a catalyst comprising a self-supported, solid catalyst system obtaining a polypropylene, (b) subjecting said polypropylene to a film forming process obtaining a capacitor film, wherein during the polymerization step (a) said catalyst comprising the solid catalyst system fragments into nanosized catalyst fragments being distributed in said polypropylene, said solid catalyst system comprises (i) a compound of a transition metal which metal is preferably selected from one of the groups 4 to 6, in particular of group 4, like Ti, of the periodic table (IUPAC), (ii) a compound of a metal which metal is selected from one of the groups 1 to 3 of the periodic table (IUPAC), and (iii) an electron donor. (a) polymerizing propylene and optionally ethylene and/or at least one C 4 to C 10 α-olefin in the presence of a catalyst comprising a self-supported, solid catalyst system obtaining a polypropylene, (b) subjecting said polypropylene to a film forming process obtaining a capacitor film, wherein during the polymerization step (a) said catalyst comprising the solid catalyst system fragments into nanosized catalyst fragments being distributed in said polypropylene, said solid catalyst system comprises (i) a compound of a transition metal which metal is preferably selected from one of the groups 4 to 6, in particular of group 4, like Ti, of the periodic table (IUPAC), (ii) a compound of a metal which metal is selected from one of the groups 1 to 3 of the periodic table (IUPAC), and (iii) an electron donor. (i) a compound of a transition metal which metal is preferably selected from one of the groups 4 to 6, in particular of group 4, like Ti, of the periodic table (IUPAC), (ii) a compound of a metal which metal is selected from one of the groups 1 to 3 of the periodic table (IUPAC), and (iii) an electron donor.
Network equipment for connection to a local network, said network comprising at least one software server, said equipment comprising a persistent memory for storing software (5, 6, 7), communication means (8, 9) for connection to said network, and means for monitoring the start up of the equipment in order to detect a software start up failure; - the equipment being characterized in that it further comprises means for, in response to the detection of a start up failure by the monitoring means, sending a software start up failure notification on the network to said at least one software server, wherein said start up failure notification can be interpreted by another device connected to said network, and wherein the start up failure notification comprises information specifying the nature of the failure. - the equipment being characterized in that it further comprises means for, in response to the detection of a start up failure by the monitoring means, sending a software start up failure notification on the network to said at least one software server, wherein said start up failure notification can be interpreted by another device connected to said network, and wherein the start up failure notification comprises information specifying the nature of the failure.
A method of operating an electrostatic ink jet printhead, the printhead comprising: one or more ejection tips from which, in use, ink is ejected, the one or more ejection tips defining a tip region; a printhead housing, the printhead housing defining a cavity in which the one or more ejection tips are located; the method comprising the steps of, during a printing operation, passing a vapour into the cavity to reduce evaporation of ink in the tip region. one or more ejection tips from which, in use, ink is ejected, the one or more ejection tips defining a tip region; a printhead housing, the printhead housing defining a cavity in which the one or more ejection tips are located; the method comprising the steps of, during a printing operation, passing a vapour into the cavity to reduce evaporation of ink in the tip region.
An RFID tag (1100; 1200) comprising: a base; an antenna for communication that extends on the base; a circuit chip that is electrically connected to the antenna and that performs radio communication through the antenna; a chip reinforcement member that covers at least upper portions both of at least a periphery of the circuit chip and at least a portion of the antenna when the base is arranged as a bottom of the RFID tag; and a rubber covering member (1120; 1220) that covers the base, the antenna, the circuit chip and the chip reinforcement member, and that is more flexible than the chip reinforcement member; wherein the covering member (1120; 1220) forms an outermost layer of the RFID tag (1100; 1200); and wherein the chip reinforcement member is embedded in the covering member (1110; 1210) without contacting the base, the antenna and the circuit chip. a base; an antenna for communication that extends on the base; a circuit chip that is electrically connected to the antenna and that performs radio communication through the antenna; a chip reinforcement member that covers at least upper portions both of at least a periphery of the circuit chip and at least a portion of the antenna when the base is arranged as a bottom of the RFID tag; and a rubber covering member (1120; 1220) that covers the base, the antenna, the circuit chip and the chip reinforcement member, and that is more flexible than the chip reinforcement member; wherein the covering member (1120; 1220) forms an outermost layer of the RFID tag (1100; 1200); and wherein the chip reinforcement member is embedded in the covering member (1110; 1210) without contacting the base, the antenna and the circuit chip.
A method of wireless communication in a wireless communication network for a scheduled entity to communicate with a scheduling entity, the method comprising: receiving downlink control information, DCI, comprising a DCI format, the DCI format comprising scheduling information that lacks at least a portion of demodulation reference signal, DMRS, scheduling information for a DMRS; determining one or more parameters, wherein the one or more parameters comprise at least one of semi-static parameters or dynamic parameters; identifying a DMRS configuration of the DMRS, wherein the DMRS configuration comprises at least antenna port information and DMRS sequence initialization information identified based on the one or more parameters, characterized in that identifying the DMRS configuration of the DMRS further comprises: calculating a modular of a DMRS scrambling identifier or a cell identifier to determine the antenna port information, wherein the modular is selected based on at least one of a DMRS configuration type or a DMRS maximum length; and communicating the DMRS associated with an uplink transmission or a downlink transmission between the scheduled entity and the scheduling entity using the DMRS configuration. receiving downlink control information, DCI, comprising a DCI format, the DCI format comprising scheduling information that lacks at least a portion of demodulation reference signal, DMRS, scheduling information for a DMRS; determining one or more parameters, wherein the one or more parameters comprise at least one of semi-static parameters or dynamic parameters; identifying a DMRS configuration of the DMRS, wherein the DMRS configuration comprises at least antenna port information and DMRS sequence initialization information identified based on the one or more parameters, characterized in that identifying the DMRS configuration of the DMRS further comprises: calculating a modular of a DMRS scrambling identifier or a cell identifier to determine the antenna port information, wherein the modular is selected based on at least one of a DMRS configuration type or a DMRS maximum length; and communicating the DMRS associated with an uplink transmission or a downlink transmission between the scheduled entity and the scheduling entity using the DMRS configuration. calculating a modular of a DMRS scrambling identifier or a cell identifier to determine the antenna port information, wherein the modular is selected based on at least one of a DMRS configuration type or a DMRS maximum length; and communicating the DMRS associated with an uplink transmission or a downlink transmission between the scheduled entity and the scheduling entity using the DMRS configuration.
A method of producing methanol, the method comprising: reacting carbon dioxide (CO 2) and/or carbon monoxide with hydrogen (H 2) in a reactor to produce crude methanol; adding an alkali to the crude methanol to produce a crude methanol/alkali mixture; separating, in a separation unit comprising a first distillation column and a second distillation column, the crude methanol/alkali mixture into a plurality of streams comprising: an overhead stream comprising primarily methanol, a bottoms stream comprising primarily water and alkali, collectively, and a vapor side draw stream comprising primarily fusel oil, wherein the vapor side draw stream comprises less than 100 ppb alkali, a minimum of 89 wt.% fusel oil, and a maximum of 10 wt.% water; and recycling the vapor side draw stream to one or more of: (a) a reformer adapted to produce synthesis gas and (b) a methyl tertiary butyl ether (MTBE) synthesis reactor. reacting carbon dioxide (CO 2) and/or carbon monoxide with hydrogen (H 2) in a reactor to produce crude methanol; adding an alkali to the crude methanol to produce a crude methanol/alkali mixture; separating, in a separation unit comprising a first distillation column and a second distillation column, the crude methanol/alkali mixture into a plurality of streams comprising: an overhead stream comprising primarily methanol, a bottoms stream comprising primarily water and alkali, collectively, and a vapor side draw stream comprising primarily fusel oil, wherein the vapor side draw stream comprises less than 100 ppb alkali, a minimum of 89 wt.% fusel oil, and a maximum of 10 wt.% water; and recycling the vapor side draw stream to one or more of: (a) a reformer adapted to produce synthesis gas and (b) a methyl tertiary butyl ether (MTBE) synthesis reactor.
A method for an in vitro culture and mass micropropagation of Deschampsia antarctica (D. antarctica) plant material, further inducing generation or biosynthesis of antioxidant and photoprotective metabolites characteristic of said plant material, such as scopoletin, chlorogenic acid, rutin, and quercetin, comprising the following steps: a) collecting parent plant material consisting of Deschampsia antarctica; b) recovering said plant material from the collected parent material; c) inoculating said plant material shoots; d) in vitro culturing and micropropagating said plant material by temporary immersion in MS Basal Medium ( PhytoTech Lab TM) that further comprises sugars, hormones, vitamins and cytokines and is at a pH between 5-6, under temperature conditions that simulate those of D. antarctica natural habitat; e) inducing the plant material of secondary compounds production by applying UV-B lighting pulses, wherein the following are used in step d): sugars selected from saccharose, glucose or fructose; hormones selected from benzyl amino purine, isopentenyl adenine, indole butyric acid, GA3 or a mixture thereof; vitamins selected from biotin and citokines; further, in step d), a specific nutrient dose is supplied to the plant material, controlling the plant material immersion time in the nutrients or in the culture medium; and step e) comprises the application of 30-minute UV-B lighting every 6hours for a culture period of 7-21days. a) collecting parent plant material consisting of Deschampsia antarctica; b) recovering said plant material from the collected parent material; c) inoculating said plant material shoots; d) in vitro culturing and micropropagating said plant material by temporary immersion in MS Basal Medium ( PhytoTech Lab TM) that further comprises sugars, hormones, vitamins and cytokines and is at a pH between 5-6, under temperature conditions that simulate those of D. antarctica natural habitat; e) inducing the plant material of secondary compounds production by applying UV-B lighting pulses,
A method for multi-carrier OFDM duplex transmission, comprising: simultaneously performing, by a near-end device, on at least one OFDM subcarrier channel, sending of a near-end OFDM signal and receiving of a far-end OFDM signal sent from a far-end device; and obtaining a carrier phase difference between a near-end echo OFDM signal and the far-end OFDM signal according to the near-end echo OFDM signal generated from the sent near-end OFDM signal and according to the received far-end OFDM signal; characterized by further comprising: sending the carrier phase difference to the far-end device by using a carrier phase difference notification message; and performing, by the far-end device, a phase adjustment for the far-end OFDM signal according to the carrier phase difference to make the carrier phase difference between the near-end echo OFDM signal and the far-end OFDM signal to be zero or an integral multiple of π/2, so that the carrier phases of the near-end echo OFDM signal and the far-end OFDM signal are synchronous. simultaneously performing, by a near-end device, on at least one OFDM subcarrier channel, sending of a near-end OFDM signal and receiving of a far-end OFDM signal sent from a far-end device; and obtaining a carrier phase difference between a near-end echo OFDM signal and the far-end OFDM signal according to the near-end echo OFDM signal generated from the sent near-end OFDM signal and according to the received far-end OFDM signal; characterized by further comprising: sending the carrier phase difference to the far-end device by using a carrier phase difference notification message; and performing, by the far-end device, a phase adjustment for the far-end OFDM signal according to the carrier phase difference to make the carrier phase difference between the near-end echo OFDM signal and the far-end OFDM signal to be zero or an integral multiple of π/2, so that the carrier phases of the near-end echo OFDM signal and the far-end OFDM signal are synchronous. sending the carrier phase difference to the far-end device by using a carrier phase difference notification message; and performing, by the far-end device, a phase adjustment for the far-end OFDM signal according to the carrier phase difference to make the carrier phase difference between the near-end echo OFDM signal and the far-end OFDM signal to be zero or an integral multiple of π/2, so that the carrier phases of the near-end echo OFDM signal and the far-end OFDM signal are synchronous.