mhurhangee/patent-ind-claim-en huggingface dataset:
A terminal comprising: a reception unit configured to receive, from a base station, information related to a Random access channel, RACH, configuration indicating an allocation of RACH resources in the time domain and one or more Synchronization Signal, SS, blocks; a processor configured to identify available RACH resources based on the RACH resources indicated by the information related to the RACH configuration; and a transmission unit configured to transmit, to the base station, a preamble by using the available RACH resources, wherein the information related to the RACH configuration comprising an index specifying a RACH configuration table, and wherein the processor is configured to identify, as an available RACH resource in a slot from among the RACH resources indicated by the information related to the RACH configuration, a RACH resource located after an SS block in the time domain in the slot. a reception unit configured to receive, from a base station, information related to a Random access channel, RACH, configuration indicating an allocation of RACH resources in the time domain and one or more Synchronization Signal, SS, blocks; a processor configured to identify available RACH resources based on the RACH resources indicated by the information related to the RACH configuration; and a transmission unit configured to transmit, to the base station, a preamble by using the available RACH resources, wherein the information related to the RACH configuration comprising an index specifying a RACH configuration table, and wherein the processor is configured to identify, as an available RACH resource in a slot from among the RACH resources indicated by the information related to the RACH configuration, a RACH resource located after an SS block in the time domain in the slot.
Endpiece for a coupling rod , the endpiece being suitable to be used as part of a draft gear for a coupling rod , the endpiece comprising • a housing , • a rod , the rod having a longitudinal axis (B) and a housing part that is arranged inside the housing , • an elastic connection that connects the housing part of the rod to the housing , the elasticity of the elastic connection allowing the rod to swivel about its longitudinal axis (B) relative to the housing , characterized by an element arranged separately from the elastic connection , wherein the element is suitable to create a spreading force (F) between the rod and the housing in a plane perpendicular to the longitudinal axis (B) of the rod so as to counteract twisting forces applied to the rod , the element having • a first end that is in contact with a part of the rod and • a second end that is in contact with a part of the housing , • a spring element being arranged between the first end and the second end , the spring element generating a spreading force (F) that is directed to increasing the distance between the first end and the second end , if the first end is moved towards the second end . • a housing , • a rod , the rod having a longitudinal axis (B) and a housing part that is arranged inside the housing , • an elastic connection that connects the housing part of the rod to the housing , the elasticity of the elastic connection allowing the rod to swivel about its longitudinal axis (B) relative to the housing , • a first end that is in contact with a part of the rod and • a second end that is in contact with a part of the housing , • a spring element being arranged between the first end and the second end , the spring element generating a spreading force (F) that is directed to increasing the distance between the first end and the second end , if the first end is moved towards the second end .
A polymerization unit comprising an improved manhole mounted on an opening in a wall of said polymerization unit, said manhole comprising a hollow body (14; 50) mounted in said opening and projecting from said wall of said polymerization unit, said hollow body (14; 50) comprising a cylindrical hole aligned with said opening of said polymerization unit, and a closure member provided with a cover plate , wherein: - said cylindrical hole of said hollow body (14; 50) comprises a first hole portion (22; 52) and a second hole portion (24; 54) in communication with the inside of said polymerization unit, said first hole portion (22; 52) having a diameter (D h ) and said second hole portion (24; 54) having a diameter (d h ), said diameter (D h ) of said first hole portion (22; 52) being larger than the diameter (d h ) of said second hole portion (24; 54), whereby a shoulder (28; 58) is formed between said first (22; 52) and second (24; 54) hole portions of said hollow body (14; 50); - said closure member comprises a cylindrical plug operatively inserted in said cylindrical hole of said hollow body (14; 50), said cylindrical plug comprising a first plug portion having a diameter (D p ), and a second plug portion having a diameter (d p ), said diameter (D p ) of said first plug portion being larger than diameter (d p ) of said second plug portion , said first and second plug portions forming a shoulder operatively abutting against said shoulder (28; 58) formed in said hollow body (14; 50), said second plug portion having an end wall matching the shape of the inner wall of said polymerization unit, whereby said wall of said polymerization unit is continuous when said closure member is inserted in said flange. - said cylindrical hole of said hollow body (14; 50) comprises a first hole portion (22; 52) and a second hole portion (24; 54) in communication with the inside of said polymerization unit, said first hole portion (22; 52) having a diameter (D h ) and said second hole portion (24; 54) having a diameter (d h ), said diameter (D h ) of said first hole portion (22; 52) being larger than the diameter (d h ) of said second hole portion (24; 54), whereby a shoulder (28; 58) is formed between said first (22; 52) and second (24; 54) hole portions of said hollow body (14; 50); - said closure member comprises a cylindrical plug operatively inserted in said cylindrical hole of said hollow body (14; 50), said cylindrical plug comprising a first plug portion having a diameter (D p ), and a second plug portion having a diameter (d p ), said diameter (D p ) of said first plug portion being larger than diameter (d p ) of said second plug portion , said first and second plug portions forming a shoulder operatively abutting against said shoulder (28; 58) formed in said hollow body (14; 50), said second plug portion having an end wall matching the shape of the inner wall of said polymerization unit, whereby said wall of said polymerization unit is continuous when said closure member is inserted in said flange.
A neutralization and circulation module comprising: an intake port and an output port, each in fluid communication with a chamber that substantially encloses a system of lithium-based chemical energy storage units capable of emitting combustible gases into the chamber; and, a reactor, the reactor in fluid communication between the intake port and the output port, the reactor comprising a catalyst and being further in controlled communication with an oxygen source, independent from the chamber, such that the reactor, in response to receiving an intake stream via the intake port, selectively applies an oxygen-containing stream from the independent oxygen source to the intake stream to neutralize the combustible gases and generate a combustion suppressant gas stream that is discharged through the output port into the chamber such that an upper flammability limit approaches a lower flammability limit in the chamber. an intake port and an output port, each in fluid communication with a chamber that substantially encloses a system of lithium-based chemical energy storage units capable of emitting combustible gases into the chamber; and, a reactor, the reactor in fluid communication between the intake port and the output port, the reactor comprising a catalyst and being further in controlled communication with an oxygen source, independent from the chamber, such that the reactor, in response to receiving an intake stream via the intake port, selectively applies an oxygen-containing stream from the independent oxygen source to the intake stream to neutralize the combustible gases and generate a combustion suppressant gas stream that is discharged through the output port into the chamber such that an upper flammability limit approaches a lower flammability limit in the chamber.
A method for wireless communication using digital Quadrature Amplitude Modulation (QAM), the method comprising: translating between constellation symbols and bit sequences using a controller of a wireless communication device, in accordance with a 64-point constellation, the constellation symbols used in modulating a signal for transmission or detected in a received signal, or both, characterized wherein normalized magnitudes of the constellation symbols in a first quadrant of the 64-point constellation are defined by the following coordinate pairs to at least three decimal places of precision: first coordinate second coordinate 0.101262 0.405033 0.713385 0.700766 0.267652 0.512970 0.526309 0.582497 0.131415 0.991327 0.416090 0.909320 0.114535 0.739941 0.356084 0.758285 0.250852 0.180521 0.895785 0.441473 0.425891 0.315992 0.670632 0.370101 0.099375 0.097472 0.986926 0.160648 0.519688 0.099539 0.755082 0.146951 translating between constellation symbols and bit sequences using a controller of a wireless communication device, in accordance with a 64-point constellation, the constellation symbols used in modulating a signal for transmission or detected in a received signal, or both, characterized wherein normalized magnitudes of the constellation symbols in a first quadrant of the 64-point constellation are defined by the following coordinate pairs to at least three decimal places of precision: first coordinate second coordinate 0.101262 0.405033 0.713385 0.700766 0.267652 0.512970 0.526309 0.582497 0.131415 0.991327 0.416090 0.909320 0.114535 0.739941 0.356084 0.758285 0.250852 0.180521 0.895785 0.441473 0.425891 0.315992 0.670632 0.370101 0.099375 0.097472 0.986926 0.160648 0.519688 0.099539 0.755082 0.146951
A dispersion preparation containing colloidal bismuth pectin, wherein 1 g of the preparation comprises: 44.0-900.0mg of colloidal bismuth pectin; 1.0-500mg of a penetration enhancer, wherein the penetration enhancer is a material capable of promoting penetration of moisture into dispersible tablet; 2.0-312.5mg of acid-source pore forming agent; 2.0-250.0mg of alkali-source pore forming agent; and 1.0-400.0mg of a disintegrating agent; wherein the penetration enhancer comprises calcium sulphate dihydrate; the acid-source pore-forming agent is selected from at least one member from anhydrous citric acid, monohydrate citric acid, tartaric acid, fumaric acid, monopotassium phosphate, sodium dihydrogen phosphate, glycine and EDTA; and the alkali-source pore-forming agent is sodium bicarbonate. 44.0-900.0mg of colloidal bismuth pectin; 1.0-500mg of a penetration enhancer, wherein the penetration enhancer is a material capable of promoting penetration of moisture into dispersible tablet; 2.0-312.5mg of acid-source pore forming agent; 2.0-250.0mg of alkali-source pore forming agent; and 1.0-400.0mg of a disintegrating agent; wherein the penetration enhancer comprises calcium sulphate dihydrate; the acid-source pore-forming agent is selected from at least one member from anhydrous citric acid, monohydrate citric acid, tartaric acid, fumaric acid, monopotassium phosphate, sodium dihydrogen phosphate, glycine and EDTA; and the alkali-source pore-forming agent is sodium bicarbonate.
A structure adapted to traverse a fluid environment at an ambient fluid pressure, the structure comprising: an elongate rotating body extending from a central axis to a further radial position and encapsulating at least one interior volume containing an interior fluid exerting an interior fluid pressure that is different from the ambient fluid pressure, whereby this interior fluid is encapsulated and contained by way of sealing the interior root end of the elongate body characterized by a processing structure programmed to generate alerts and control actions in the event that an interior fluid pressure drops below, or rises above, a threshold level, the control actions controlling a pressure regulation system to instruct a hydraulic injector pump to inject more interior fluid or a valve to release the interior fluid to cause the interior fluid pressure to be brought towards the threshold level; wherein the alerts are an early warning indicative of damage to the elongate rotating body where a rapid pressure change indicates that a crack or a hole has developed in the elongate rotating body. an elongate rotating body extending from a central axis to a further radial position and encapsulating at least one interior volume containing an interior fluid exerting an interior fluid pressure that is different from the ambient fluid pressure, whereby this interior fluid is encapsulated and contained by way of sealing the interior root end of the elongate body characterized by a processing structure programmed to generate alerts and control actions in the event that an interior fluid pressure drops below, or rises above, a threshold level, the control actions controlling a pressure regulation system to instruct a hydraulic injector pump to inject more interior fluid or a valve to release the interior fluid to cause the interior fluid pressure to be brought towards the threshold level; wherein the alerts are an early warning indicative of damage to the elongate rotating body where a rapid pressure change indicates that a crack or a hole has developed in the elongate rotating body.
A method of dynamical adjustment for manufacturing a thermally treated steel sheet having a chemical steel composition and a microstructure m target comprising from 0 to 100% of at least one phase chosen among: ferrite, martensite, bainite, pearlite, cementite and austenite, in a heat treatment line wherein a predefined thermal treatment TT is performed on the steel sheet, such method comprising: A. a control step wherein at least one sensor detects any deviation happening during the thermal treatment, B. a calculation step performed when a deviation is detected during the thermal treatment such that a new thermal path TP target is determined to reach m target taking the deviation into account, such calculation step comprising: 1) a calculation sub step wherein at least two thermal path, TP x corresponding to one microstructure m x obtained at the end of TP x , are calculated based on TT and the microstructure m i of the steel sheet to reach m target , 2) a selection sub step wherein one new thermal path TPtarget to reach m target is selected, TP target being chosen from TPx and being selected such that m x is the closest to m target , C. a new thermal treatment step wherein TPtarget is performed online on the steel sheet. A. a control step wherein at least one sensor detects any deviation happening during the thermal treatment, B. a calculation step performed when a deviation is detected during the thermal treatment such that a new thermal path TP target is determined to reach m target taking the deviation into account, such calculation step comprising: 1) a calculation sub step wherein at least two thermal path, TP x corresponding to one microstructure m x obtained at the end of TP x , are calculated based on TT and the microstructure m i of the steel sheet to reach m target , 2) a selection sub step wherein one new thermal path TPtarget to reach m target is selected, TP target being chosen from TPx and being selected such that m x is the closest to m target , 1) a calculation sub step wherein at least two thermal path, TP x corresponding to one microstructure m x obtained at the end of TP x , are calculated based on TT and the microstructure m i of the steel sheet to reach m target , 2) a selection sub step wherein one new thermal path TPtarget to reach m target is selected, TP target being chosen from TPx and being selected such that m x is the closest to m target , C. a new thermal treatment step wherein TPtarget is performed online on the steel sheet.
A process, comprising reacting a compound of Formula XVI: with formamidine acetate to form a compound of Formula I: optionally, wherein: (a) said reacting of the compound of Formula XVI with formamidine acetate is conducted in a solvent component comprising 1,2-ethanediol; and/or (b) said reacting of the compound of Formula XVI with formamidine acetate is performed at a temperature of from about 100 °C to about 105 °C; and/or (c) about 8 to about 10 equivalents of formamidine acetate is used based on 1 equivalent of the compound of Formula XVI. (a) said reacting of the compound of Formula XVI with formamidine acetate is conducted in a solvent component comprising 1,2-ethanediol; and/or (b) said reacting of the compound of Formula XVI with formamidine acetate is performed at a temperature of from about 100 °C to about 105 °C; and/or (c) about 8 to about 10 equivalents of formamidine acetate is used based on 1 equivalent of the compound of Formula XVI.
A process for preparing a stabilized additive concentrate suitable for use in condensation curable organosiloxane compositions by mixing (i) A solid additive in an amount of from 25 to 80wt. % of the composition with (ii) a liquid carrier comprising a dialkylsilanol terminated polydiorganosiloxane polymer in an amount of from 20 to 75wt. % of the composition with (iii) a stabilizer comprising or consisting of a polydialkylsiloxane having the general formula: R 3 3 -Si-O-((R 2 ) 2 SiO) d -Si-R 3 3 where R 2 is an alkyl or phenyl group, each R 3 group may be the same or different and are selected from R 2 alkenyl or alkynyl groups and the average value of d is between 7 and 20, in an amount of from 0.5 to 5wt. % of the composition. (i) A solid additive in an amount of from 25 to 80wt. % of the composition with (ii) a liquid carrier comprising a dialkylsilanol terminated polydiorganosiloxane polymer in an amount of from 20 to 75wt. % of the composition with (iii) a stabilizer comprising or consisting of a polydialkylsiloxane having the general formula: R 3 3 -Si-O-((R 2 ) 2 SiO) d -Si-R 3 3 where R 2 is an alkyl or phenyl group, each R 3 group may be the same or different and are selected from R 2 alkenyl or alkynyl groups and the average value of d is between 7 and 20, in an amount of from 0.5 to 5wt. % of the composition.
A method by a user equipment, UE, for redefining a time alignment timer of a wireless communication network, the method comprising: determining that a Radio Resource Control, RRC, connection from the UE to a network node is operating in Connected Discontinuous Reception, CDRX, mode; transmitting , to the network node , in response to the determining that the RRC connection is operating in CDRX mode, an initial message comprising a Protocol Feature Type, PFT, and a User Equipment Type and Software Version Number, UE-TSVN; and receiving , from the network node , in response to the initial message, a handshake message comprising the PFT, a downlink Protocol Message Type, PMT, indicating a Time Alignment Timer Definition, TATDEF, message type, and a Protocol Message Body, PMB, associated with the TATDEF message type that comprises one or more values for redefining a time alignment timer. determining that a Radio Resource Control, RRC, connection from the UE to a network node is operating in Connected Discontinuous Reception, CDRX, mode; transmitting , to the network node , in response to the determining that the RRC connection is operating in CDRX mode, an initial message comprising a Protocol Feature Type, PFT, and a User Equipment Type and Software Version Number, UE-TSVN; and receiving , from the network node , in response to the initial message, a handshake message comprising the PFT, a downlink Protocol Message Type, PMT, indicating a Time Alignment Timer Definition, TATDEF, message type, and a Protocol Message Body, PMB, associated with the TATDEF message type that comprises one or more values for redefining a time alignment timer.
A switchable window , comprising: first and second transparent substrates supporting first and second transparent conductive electrodes, respectively; an electro-optical layer comprising a plurality of microcells dispersed in a connective polymer based matrix , each said microcell comprising a core of polymer stabilized liquid crystal and being encapsulated in a polymer inclusive shell , and wherein the liquid crystal forms a double twist cylinder structure ; wherein the electro-optical layer is sandwiched between the first and second substrates, and between the first and second transparent conductive electrodes.
An electrochemical cell comprising: a first oxidant electrode for absorbing gaseous oxidant and comprising one or more active materials for reducing the gaseous oxidant; a fuel electrode for receiving a metal fuel; and a liquid ionically conductive medium, that is contained by the first oxidant electrode, for conducting ions for supporting electrochemical reactions at the fuel electrode and the first oxidant electrode, wherein the first oxidant electrode and the fuel electrode are each configured in annular form, and wherein the fuel electrode and the oxidant electrode are nested; characterized in that the cell further comprises a second oxidant electrode, the second oxidant electrode being in annular form and nested within the fuel electrode, and wherein the liquid ionically conductive medium is contained between the first oxidant electrode and the second oxidant electrode. a first oxidant electrode for absorbing gaseous oxidant and comprising one or more active materials for reducing the gaseous oxidant; a fuel electrode for receiving a metal fuel; and a liquid ionically conductive medium, that is contained by the first oxidant electrode, for conducting ions for supporting electrochemical reactions at the fuel electrode and the first oxidant electrode, wherein the first oxidant electrode and the fuel electrode are each configured in annular form, and wherein the fuel electrode and the oxidant electrode are nested; characterized in that the cell further comprises a second oxidant electrode, the second oxidant electrode being in annular form and nested within the fuel electrode, and wherein the liquid ionically conductive medium is contained between the first oxidant electrode and the second oxidant electrode.