mhurhangee/patent-ind-claim-en huggingface dataset:
A trailer frame, comprising a cross beam and side beams fixedly arranged at two ends of the cross beam , and each of the side beams is an U-shaped structural beam, wherein a first brake beam located between the side beams is arranged in front of and above the cross beam , and a second brake beam located between the side beams is arranged in rear of and above the cross beam ; the first brake beam is parallel with the second brake beam , two ends of each of the first brake beam and the second brake beam are fixedly connected to inner sides of the side beams respectively, and the first brake beam and the second brake beam are each provided with a brake seat for mounting a brake device; the first brake beam has a plurality of the brake seats , and the plurality of the brake seats of the first brake beam are located at a front side of the first brake beam and are transversely arranged at intervals on the first brake beam ; the second brake beam has a plurality of the brake seats , and the plurality of brake seats of the second brake beam are located at a rear side of the second brake beam and are transversely arranged at intervals on the second brake beam ; characterized in that, an upper cover plate of the side beam extends inward at a position corresponding to the first brake beam and the second brake beam , to form a connecting plate ; two ends of each of the first brake beam and the second brake beam are each provided with a connecting portion located below the corresponding connecting plate , and the first brake beam and the second brake beam are each connected to a side plate of the side beam and the connecting plate through the respective connecting portion ; and wherein the connecting portion is an U-shaped plate having an opening facing the corresponding connecting plate , an U-shaped end surface of the connecting portion is welded to the side plate of the side beam , and a top end surface of the connecting portion is welded to a lower surface of the connecting plate . an upper cover plate of the side beam extends inward at a position corresponding to the first brake beam and the second brake beam , to form a connecting plate ; two ends of each of the first brake beam and the second brake beam are each provided with a connecting portion located below the corresponding connecting plate , and the first brake beam and the second brake beam are each connected to a side plate of the side beam and the connecting plate through the respective connecting portion ; and wherein the connecting portion is an U-shaped plate having an opening facing the corresponding connecting plate , an U-shaped end surface of the connecting portion is welded to the side plate of the side beam , and a top end surface of the connecting portion is welded to a lower surface of the connecting plate .
Beverage dispensing system comprising a beverage container with a beverage compartment and a pressurizing system , wherein the pressurizing system comprises a gas container comprising pressurized gas, a closure closing the gas container and a pressure regulator operative for opening the closure for allowing gas to enter into the beverage compartment from the gas container , wherein the pressure regulator comprises a regulating chamber having at least a wall part movable and/or deformable based on pressure in the beverage compartment , wherein the closure opens into a space separated from the regulating chamber by the movable and/or deformable wall part , characterized in that at least one opening is provided through a wall of the regulating chamber providing for at least part of a gas passage at or between the regulating chamber and the beverage compartment .
A method for establishing resistance characteristics of a biological indicator in a sterilization process using a sterilant vapor, the method comprising: obtaining differential sterilant vapor pressure values occurring during sterilant vapor injection into a previously evacuated sterilization chamber, and creating a biological indicator inactivation profile by calculating D-values as a function of the differential sterilant vapor pressure values, wherein the differential sterilant vapor pressure is the vapor pressure existing in the sterilization chamber at different times during gradual injection of the sterilant vapor into the sterilization chamber, wherein the sterilant vapor is a liquid biocide which is vaporized. obtaining differential sterilant vapor pressure values occurring during sterilant vapor injection into a previously evacuated sterilization chamber, and creating a biological indicator inactivation profile by calculating D-values as a function of the differential sterilant vapor pressure values, wherein the differential sterilant vapor pressure is the vapor pressure existing in the sterilization chamber at different times during gradual injection of the sterilant vapor into the sterilization chamber, wherein the sterilant vapor is a liquid biocide which is vaporized.
A method for refining a high manganese steel comprising: when refining to a steel containing 5% by mass or more of manganese, a decarburization step of performing a decarburization treatment on a hot metal in a converter to make the hot metal into a molten steel having a low carbon concentration; a reduction step of performing a reduction treatment on the molten steel by adding a manganese source and a silicon source to the molten steel kept in the converter after the decarburization step, wherein the manganese source is at least one of manganese ore, high carbon ferromanganese, medium carbon ferromanganese, low carbon ferromanganese, silicomanganese and metal manganese; and a degassing step of performing a vacuum degassing treatment on the molten steel by a vacuum degassing device after the reduction step, wherein, in the reduction step, the silicon source is added in accordance with an added amount of the manganese source so as to satisfy Formula : 0.013 × W Mn × x Mn x Si ≤ W Si ≤ 0.150 × W Mn × x Mn x Si x Mn : Manganese concentration (% by mass) in manganese source x Si : Silicon concentration (% by mass) in silicon source W Mn : Amount (kg/t) of manganese source added to the molten steel kept in the converter after the decarburization step W Si : Amount (kg/t) of silicon source added to the molten steel kept in the converter after the decarburization step a decarburization step of performing a decarburization treatment on a hot metal in a converter to make the hot metal into a molten steel having a low carbon concentration; a reduction step of performing a reduction treatment on the molten steel by adding a manganese source and a silicon source to the molten steel kept in the converter after the decarburization step, wherein the manganese source is at least one of manganese ore, high carbon ferromanganese, medium carbon ferromanganese, low carbon ferromanganese, silicomanganese and metal manganese; and a degassing step of performing a vacuum degassing treatment on the molten steel by a vacuum degassing device after the reduction step, wherein, in the reduction step, the silicon source is added in accordance with an added amount of the manganese source so as to satisfy Formula : 0.013 × W Mn × x Mn x Si ≤ W Si ≤ 0.150 × W Mn × x Mn x Si x Mn : Manganese concentration (% by mass) in manganese source x Si : Silicon concentration (% by mass) in silicon source W Mn : Amount (kg/t) of manganese source added to the molten steel kept in the converter after the decarburization step W Si : Amount (kg/t) of silicon source added to the molten steel kept in the converter after the decarburization step x Mn : Manganese concentration (% by mass) in manganese source x Si : Silicon concentration (% by mass) in silicon source W Mn : Amount (kg/t) of manganese source added to the molten steel kept in the converter after the decarburization step W Si : Amount (kg/t) of silicon source added to the molten steel kept in the converter after the decarburization step
A catalyst system comprising a solid support material having, on its surface, one or more catalytic transition metal complex having olefin polymerisation catalytic activity, wherein the solid support material comprises SiO 2@ AMO-LDH microspheres having the formula I (SiO 2 ) p @{[M z+ (1-x) M' y+ x (OH) 2 ] a+ (X n- ) a/n •bH 2 O•c(AMO-solvent)} q I) wherein, M z+ and M' y+ are two different charged metal cations; z = 1 or 2; y = 3 or 4; 0 < x < 0.9; b is 0 to 10; c is 0.01 to 10, preferably > 0.01 and < 10; p > 0; q > 0; x n- is an anion with n > 0, preferably 1-5; a = z(1-x) + xy-2; and the AMO-solvent is acetone, ethanol and/or methanol. M z+ and M' y+ are two different charged metal cations; z = 1 or 2; y = 3 or 4; 0 < x < 0.9; b is 0 to 10; c is 0.01 to 10, preferably > 0.01 and < 10; p > 0; q > 0; x n- is an anion with n > 0, preferably 1-5; a = z(1-x) + xy-2; and the AMO-solvent is acetone, ethanol and/or methanol.
A turbine engine comprising: a combustion section ; a gas passage leading from the combustion section and including a turbine section downstream of the combustion section and a nozzle downstream of the turbine section , the gas passage including an article with at least one surface of the article exposed in the gas passage , wherein said article comprises: a substrate comprising a ceramic matrix composite and having a heat-exposure surface ; and a monocoating disposed directly on the heat-exposure surface , the monocoating comprising vitreous glass, wherein the ceramic matrix composite includes a continuous ceramic matrix phase , a fiber phase within the matrix phase and an interface coating comprising boron between the matrix phase and the fiber phase , and the vitreous glass is a discrete phase or region within a continuous matrix of a ceramic material. a combustion section ; a gas passage leading from the combustion section and including a turbine section downstream of the combustion section and a nozzle downstream of the turbine section , the gas passage including an article with at least one surface of the article exposed in the gas passage , wherein said article comprises: a substrate comprising a ceramic matrix composite and having a heat-exposure surface ; and a monocoating disposed directly on the heat-exposure surface , the monocoating comprising vitreous glass, wherein the ceramic matrix composite includes a continuous ceramic matrix phase , a fiber phase within the matrix phase and an interface coating comprising boron between the matrix phase and the fiber phase , and the vitreous glass is a discrete phase or region within a continuous matrix of a ceramic material. a substrate comprising a ceramic matrix composite and having a heat-exposure surface ; and a monocoating disposed directly on the heat-exposure surface , the monocoating comprising vitreous glass, wherein the ceramic matrix composite includes a continuous ceramic matrix phase , a fiber phase within the matrix phase and an interface coating comprising boron between the matrix phase and the fiber phase , and the vitreous glass is a discrete phase or region within a continuous matrix of a ceramic material.
Transparent multi-layer assembly comprising: a transparent carrier structure comprising polymer material, an electrically conductive transparent layer comprising an electrically conductive oxide, characterized in that a silicon carbide layer is arranged as an adhesion promoter between said carrier structure and said electrically conductive transparent layer . a transparent carrier structure comprising polymer material, an electrically conductive transparent layer comprising an electrically conductive oxide, characterized in that a silicon carbide layer is arranged as an adhesion promoter between said carrier structure and said electrically conductive transparent layer .
A time synchronization method, applied to a first network device, comprising: inserting, at a physical layer, a Synchronization Timing block, ST, into a signal to be sent, wherein the signal to be sent is a bit sequence to be sent, the ST comprises a synchronization byte and a timing byte, the synchronization byte is used for positioning the ST, and the timing byte is used for carrying synchronization information for a second network device to perform time synchronization; and sending the signal to be sent, in which the ST is inserted, to a second network device. inserting, at a physical layer, a Synchronization Timing block, ST, into a signal to be sent, wherein the signal to be sent is a bit sequence to be sent, the ST comprises a synchronization byte and a timing byte, the synchronization byte is used for positioning the ST, and the timing byte is used for carrying synchronization information for a second network device to perform time synchronization; and sending the signal to be sent, in which the ST is inserted, to a second network device.
A method for operating a first station configured to transmit data, the method comprising: transmitting , by the first station during a paging window , a first frame to page a second station , the first frame including an identifier associated with the second station; generating, by the first station, a second frame including first timing information for a first time period to be subscribed by the first station for transmitting data to the second station, the first time period occurring after the paging window; and when a third frame is received after a pre-specified short interval after transmitting the first frame, the third frame acknowledging the first frame, transmitting , by the first station, the second frame including the first timing information after the pre-specified short interval after receiving the third frame, and transmitting , by the first station, the data during the first time period; characterized by computing the first timing information, wherein the first timing information includes: a duration of the first time period and a value in a duration field of the second frame, wherein the value in the duration field is equal to a duration spanning an end of the second frame and an end of the first time period, or wherein the value in the duration field is equal to a duration spanning the end of the second frame and a beginning of the first time period. transmitting , by the first station during a paging window , a first frame to page a second station , the first frame including an identifier associated with the second station; generating, by the first station, a second frame including first timing information for a first time period to be subscribed by the first station for transmitting data to the second station, the first time period occurring after the paging window; and when a third frame is received after a pre-specified short interval after transmitting the first frame, the third frame acknowledging the first frame, transmitting , by the first station, the second frame including the first timing information after the pre-specified short interval after receiving the third frame, and transmitting , by the first station, the data during the first time period; transmitting , by the first station, the second frame including the first timing information after the pre-specified short interval after receiving the third frame, and transmitting , by the first station, the data during the first time period; characterized by computing the first timing information, wherein the first timing information includes: a duration of the first time period and a value in a duration field of the second frame, wherein the value in the duration field is equal to a duration spanning an end of the second frame and an end of the first time period, or wherein the value in the duration field is equal to a duration spanning the end of the second frame and a beginning of the first time period.
A method performed by a user equipment, UE , in a wireless communication system, the method comprising: receiving , on a primary cell group of a first base station , first control information for a secondary cell group of a second base station , the first control information including information for adding a plurality of serving cells of the secondary cell group of the second base station and physical uplink control channel, PUCCH, configuration for a first serving cell among the plurality of serving cells of the secondary cell group; acquiring master information block, MIB, on the first serving cell of the secondary cell group, the first serving cell is a secondary cell, SCell, in which a PUCCH is transmitted; identifying system frame number, SFN, of the first serving cell of the secondary cell group based on the MIB acquired on the first serving cell of the secondary cell group; performing a random access procedure on the first serving cell of the secondary cell group; and transmitting the PUCCH on the first serving cell of the secondary cell group based on the identified SFN, in a case where the random access procedure on the first serving cell of the secondary cell group is successfully completed, wherein the identified SFN of the first serving cell of the secondary cell group is used for both the first serving cell and other serving cells in the plurality of serving cells. receiving , on a primary cell group of a first base station , first control information for a secondary cell group of a second base station , the first control information including information for adding a plurality of serving cells of the secondary cell group of the second base station and physical uplink control channel, PUCCH, configuration for a first serving cell among the plurality of serving cells of the secondary cell group; acquiring master information block, MIB, on the first serving cell of the secondary cell group, the first serving cell is a secondary cell, SCell, in which a PUCCH is transmitted; identifying system frame number, SFN, of the first serving cell of the secondary cell group based on the MIB acquired on the first serving cell of the secondary cell group; performing a random access procedure on the first serving cell of the secondary cell group; and transmitting the PUCCH on the first serving cell of the secondary cell group based on the identified SFN, in a case where the random access procedure on the first serving cell of the secondary cell group is successfully completed, wherein the identified SFN of the first serving cell of the secondary cell group is used for both the first serving cell and other serving cells in the plurality of serving cells.
A method for creating an asymmetric flowmeter manifold, comprising the steps of: defining at least two flowmeter application parameters; wherein the at least two flowmeter application parameters comprise a fluid viscosity range of a fluid and a flow rate range of the fluid; determining an area for a first flow path and a second flow path; and forming the asymmetric manifold with the determined flow path areas; wherein the area of the first flow path is greater than the area of the second flow path, and wherein the area of the first flow path and the area of the second flow path are adjusted such that the flow rates of the fluid passing through the first flow path and the second flow path are substantially equal. defining at least two flowmeter application parameters; wherein the at least two flowmeter application parameters comprise a fluid viscosity range of a fluid and a flow rate range of the fluid; determining an area for a first flow path and a second flow path; and forming the asymmetric manifold with the determined flow path areas; wherein the area of the first flow path is greater than the area of the second flow path, and wherein the area of the first flow path and the area of the second flow path are adjusted such that the flow rates of the fluid passing through the first flow path and the second flow path are substantially equal.
A system for a catheterization of the bladder of a patient, comprising a device and a compound, wherein the device comprises a) a shaft-shaped, draining indwelling part that can be placed in the bladder and in the urethra in the manner of a catheter, having a urine draining lumen and at least one drainage opening in the region of the distal tip of the shaft-shaped indwelling part ; and b) a retractable insertion aid that is inserted into the urine draining lumen of the shaft-shaped indwelling part , which facilitates insertion into and passage through the urethra and has a tubular or hose-like construction with an apical opening for terminal release of a substance in the region of the distal tip of the indwelling part ; characterized in that c) the substance which is released through the apical opening has lubricating and/or lumen-straightening properties; and d) the shaft portion of the indwelling part which encompasses the urine draining lumen extends from a retention balloon up to a proximal connector . a) a shaft-shaped, draining indwelling part that can be placed in the bladder and in the urethra in the manner of a catheter, having a urine draining lumen and at least one drainage opening in the region of the distal tip of the shaft-shaped indwelling part ; and b) a retractable insertion aid that is inserted into the urine draining lumen of the shaft-shaped indwelling part , which facilitates insertion into and passage through the urethra and has a tubular or hose-like construction with an apical opening for terminal release of a substance in the region of the distal tip of the indwelling part ; characterized in that c) the substance which is released through the apical opening has lubricating and/or lumen-straightening properties; and d) the shaft portion of the indwelling part which encompasses the urine draining lumen extends from a retention balloon up to a proximal connector .
A method of manufacturing conductive patterns including the steps of: i) UV curable inkjet printing a cured inkjet ink pattern on a metal sheet bonded to a non-conductive substrate; ii) etching the metal sheet not covered by the cured ink pattern to expose the non-conductive substrate; and iii) applying an alkaline solution to dissolve the cured inkjet ink pattern within 5 minutes, wherein the inkjet ink contains a) one or more photoinitiators, b) a colorant decolorizing at a pH of more than 10, c) one or more hydrolyzable polyfunctional monomer or oligomer having at least one alkali hydrolyzable group located in the atomic chain between two polymerizable groups of the polyfunctional monomer or oligomer and d) one or more water absorption controlling monomers being a monofunctional or difunctional monomer containing at least one functional group selected from the group consisting of a hydroxyl group, an ethylene oxide or oligo-ethylene oxide group, a tertiary amine group, an acidic group having a pK a not lower than 3 and a five to seven membered aromatic or non aromatic heterocyclic group, and wherein the at least one alkali hydrolyzable group located in the atomic chain between two polymerizable groups of the polyfunctional monomer or oligomer is selected from the group consisting of Formulas H-1 to H-4: wherein Q represents the necessary atoms to form a five membered aromatic ring group; Z represents the necessary atoms to form a five or six membered ring group; and the dashed lines represents the bonds to the rest of the polyfunctional monomer or oligomer. i) UV curable inkjet printing a cured inkjet ink pattern on a metal sheet bonded to a non-conductive substrate; ii) etching the metal sheet not covered by the cured ink pattern to expose the non-conductive substrate; and iii) applying an alkaline solution to dissolve the cured inkjet ink pattern within 5 minutes,