mhurhangee/patent-ind-claim-en huggingface dataset:
A method at a user equipment, the method comprising: receiving , at the user equipment, a downlink signal including a plurality of synchronization signal blocks from a network entity; receiving an indication of a plurality of random access channel preambles, where the indication is received in one selected from a physical downlink control channel and a dedicated radio resource control message; detecting at least one synchronization signal block from the plurality of synchronization signal blocks; selecting a synchronization signal block from the detected at least one synchronization signal block; selecting a random access channel preamble from the plurality of random access channel preambles based on the selected synchronization signal block; identifying a subset of random access channel resources associated with the selected synchronization signal block; selecting a random access channel resource from the subset of random access channel resources; transmitting the selected random access channel preamble on the selected random access channel resource in a contention-free random access procedure; determining a random access radio network temporary identifier based on at least the selected random access channel resource; and receiving at least a physical downlink shared channel including a random access response message as a response to the transmitted random access channel preamble, wherein the physical downlink shared channel is based on the selected synchronization signal block and the determined random access radio network temporary identifier. receiving , at the user equipment, a downlink signal including a plurality of synchronization signal blocks from a network entity; receiving an indication of a plurality of random access channel preambles, where the indication is received in one selected from a physical downlink control channel and a dedicated radio resource control message; detecting at least one synchronization signal block from the plurality of synchronization signal blocks; selecting a synchronization signal block from the detected at least one synchronization signal block; selecting a random access channel preamble from the plurality of random access channel preambles based on the selected synchronization signal block; identifying a subset of random access channel resources associated with the selected synchronization signal block; selecting a random access channel resource from the subset of random access channel resources; transmitting the selected random access channel preamble on the selected random access channel resource in a contention-free random access procedure; determining a random access radio network temporary identifier based on at least the selected random access channel resource; and receiving at least a physical downlink shared channel including a random access response message as a response to the transmitted random access channel preamble, wherein the physical downlink shared channel is based on the selected synchronization signal block and the determined random access radio network temporary identifier.
A method for performing a vehicle to X, V2X, communication based on a short transmission time interval, S-TTI, shorter than a legacy transmission time interval, L-TTI, in a wireless communication system, the method performed by a V2X User Equipment, UE, and comprising: measuring (S1310, S1720) a channel busy ratio, CBR, or a channel occupancy ratio, CR, for the V2X communication based on the S-TTI; and performing (S1320, S1730) the V2X communication based on the S-TTI and either the measured CBR or the measured CR, wherein the S-TTI has a variable length, wherein the L-TTI corresponds to a plurality of the S-TTIs, wherein, when the V2X UE measures the CBR or the CR, the measurement is performed in a subchannel unit based on the S-TTI and a duration of the measurement is determined in S-TTI units, and wherein the V2X UE performs the V2X communication on a resource pool on which only V2X communications based on the S-TTI are existed. measuring (S1310, S1720) a channel busy ratio, CBR, or a channel occupancy ratio, CR, for the V2X communication based on the S-TTI; and performing (S1320, S1730) the V2X communication based on the S-TTI and either the measured CBR or the measured CR, wherein the S-TTI has a variable length, wherein the L-TTI corresponds to a plurality of the S-TTIs, wherein, when the V2X UE measures the CBR or the CR, the measurement is performed in a subchannel unit based on the S-TTI and a duration of the measurement is determined in S-TTI units, and wherein the V2X UE performs the V2X communication on a resource pool on which only V2X communications based on the S-TTI are existed.
An attachment body for a blade outer air seal (BOAS) for a gas turbine engine, the attachment body comprising: a leading edge connected to a trailing edge by a radially inner surface and a radially outer surface ; characterised in that least one forward hook extending from the radially outer surface ; at least one aft hook extending from the radially outer surface ; and at least one post extending from the radially outer surface having a blade outer air seal guide surface , the at least one post includes a pair of posts each having the blade outer air seal guide surface and facing respectively one of opposing circumferential sides of the attachment body . a leading edge connected to a trailing edge by a radially inner surface and a radially outer surface ; characterised in that least one forward hook extending from the radially outer surface ; at least one aft hook extending from the radially outer surface ; and at least one post extending from the radially outer surface having a blade outer air seal guide surface , the at least one post includes a pair of posts each having the blade outer air seal guide surface and facing respectively one of opposing circumferential sides of the attachment body .
A card-like object , characterized in that the card-like object has an electrically conductive structure comprising a plurality of individual elements which are arranged on the card-like object , wherein the individual elements of the electrically conductive structure , with respect to size, spacing and shape, are formed so that a time-dependent signal on a capacitive surface sensor , resulting from a relative movement between an input means and the card-like object , is changed relative to a reference input with the input means , which occurs without using the card-like object .
A method for producing hexafluoro-1,3-butadiene, the method comprising: a reaction step of reacting a halogenated butane represented by chemical formula, CF 2 X 1 -CFX 2 -CFX 3 -CF 2 X 4 (X 1 , X 2 , X 3 , and X 4 are each independently a halogen atom other than a fluorine atom) in an organic solvent in the presence of zinc to eliminate the halogen atoms, X 1 , X 2 , X 3 , and X 4 , other than the fluorine atoms to generate hexafluoro-1,3-butadiene, giving a reaction product containing the hexafluoro-1,3-butadiene; and an aftertreatment step of separating the hexafluoro-1,3-butadiene from the reaction product produced in the reaction step, then adding water to a reaction product residue after the separating so that the mass ratio of the reaction product residue to the water, i.e. [amount of reaction product residue]/[amount of water], is in a range of 0.5 or more and 2.0 or less, performing solid-liquid separation when a solution obtained by addition of water to the reaction product residue contains solid substances, and removing the organic solvent, giving an aqueous solution of zinc halide. a reaction step of reacting a halogenated butane represented by chemical formula, CF 2 X 1 -CFX 2 -CFX 3 -CF 2 X 4 (X 1 , X 2 , X 3 , and X 4 are each independently a halogen atom other than a fluorine atom) in an organic solvent in the presence of zinc to eliminate the halogen atoms, X 1 , X 2 , X 3 , and X 4 , other than the fluorine atoms to generate hexafluoro-1,3-butadiene, giving a reaction product containing the hexafluoro-1,3-butadiene; and an aftertreatment step of separating the hexafluoro-1,3-butadiene from the reaction product produced in the reaction step, then adding water to a reaction product residue after the separating so that the mass ratio of the reaction product residue to the water, i.e. [amount of reaction product residue]/[amount of water], is in a range of 0.5 or more and 2.0 or less, performing solid-liquid separation when a solution obtained by addition of water to the reaction product residue contains solid substances, and removing the organic solvent, giving an aqueous solution of zinc halide.
A method for sealing paperboard, the method comprising: a) providing a first paperboard comprising a first surface and a second surface wherein the second surface is coated with a barrier composition comprising ▪ 0-60% by weight platy particles, ▪ 0-60% by weight precipitated calcium carbonate, and ▪ 40-100% by weight a binder comprising 20-95% by weight one or more synthetic polymers and 5-80% by weight one or more biopolymers, b) subjecting a first part of the first surface of the first paperboard to temperature of 120-450 °C, preferably 250-450 °C, more preferably of 350-400 °C, and c) pressing part of the second surface of the first paperboard opposing the first part of the first surface against a paperboard surface wherein the paperboard surface is not coated with the binder composition. a) providing a first paperboard comprising a first surface and a second surface wherein the second surface is coated with a barrier composition comprising ▪ 0-60% by weight platy particles, ▪ 0-60% by weight precipitated calcium carbonate, and ▪ 40-100% by weight a binder comprising 20-95% by weight one or more synthetic polymers and 5-80% by weight one or more biopolymers, ▪ 0-60% by weight platy particles, ▪ 0-60% by weight precipitated calcium carbonate, and ▪ 40-100% by weight a binder comprising 20-95% by weight one or more synthetic polymers and 5-80% by weight one or more biopolymers, b) subjecting a first part of the first surface of the first paperboard to temperature of 120-450 °C, preferably 250-450 °C, more preferably of 350-400 °C, and c) pressing part of the second surface of the first paperboard opposing the first part of the first surface against a paperboard surface wherein the paperboard surface is not coated with the binder composition.
A quantitative transfer pipette structure , comprising: a hollow tubular body containing an opening and a top opening ; a first bulb containing an anti-backflow compartment having an upper edge being equal to or lower than the position of the top opening in height, wherein the first bulb is situated at one of the conditions (a) and (b) as follows: (a) the first bulb interconnects with the top opening via a first channel , and (b) the first bulb encloses the top opening ; a second bulb configured to interconnect with the first bulb via one of the conditions (c) and (d) as follows: (c) a second channel , and (d) the second channel and the first channel sequentially; and a third bulb configured to interconnect with the first bulb via one of the conditions (e), (f), (g) and (h) as follows: (e) a third channel , the second bulb and the second channel sequentially; (f) the third channel and the second channel sequentially; (g) the third channel ; and (h) the third channel and the first channel sequentially; the quantitative transfer pipette structure being characterized in that a capacity of the first bulb is equal to or larger than that of the hollow tubular body , a capacity of the second bulb is smaller than that of the hollow tubular body , and a capacity of the third bulb is equal to or larger than that of the hollow tubular body . a hollow tubular body containing an opening and a top opening ; a first bulb containing an anti-backflow compartment having an upper edge being equal to or lower than the position of the top opening in height, wherein the first bulb is situated at one of the conditions (a) and (b) as follows: (a) the first bulb interconnects with the top opening via a first channel , and (b) the first bulb encloses the top opening ; (a) the first bulb interconnects with the top opening via a first channel , and (b) the first bulb encloses the top opening ; a second bulb configured to interconnect with the first bulb via one of the conditions (c) and (d) as follows: (c) a second channel , and (d) the second channel and the first channel sequentially; and (c) a second channel , and (d) the second channel and the first channel sequentially; and a third bulb configured to interconnect with the first bulb via one of the conditions (e), (f), (g) and (h) as follows: (e) a third channel , the second bulb and the second channel sequentially; (f) the third channel and the second channel sequentially; (g) the third channel ; and (h) the third channel and the first channel sequentially; (e) a third channel , the second bulb and the second channel sequentially; (f) the third channel and the second channel sequentially; (g) the third channel ; and (h) the third channel and the first channel sequentially; the quantitative transfer pipette structure being characterized in that a capacity of the first bulb is equal to or larger than that of the hollow tubular body , a capacity of the second bulb is smaller than that of the hollow tubular body , and a capacity of the third bulb is equal to or larger than that of the hollow tubular body .
A shortwave to midwave infrared SWIR-MWIR optical window comprising: a substrate formed from a nanocomposite optical ceramic material; and a coating disposed on the substrate to provide electromagnetic interference EMI protection, wherein the coating is electrically conductive and SWIR-MWIR transparent and wherein the coating comprises a doped zinc oxide material, characterized in that the nanocomposite optical ceramic material is a multi-phase composite material formed of a mixture of two or more ceramic phases that are mutually insoluble, thereby forming a multi-phase grain structure having distinct phase separation between two or more constituents. a substrate formed from a nanocomposite optical ceramic material; and a coating disposed on the substrate to provide electromagnetic interference EMI protection, wherein the coating is electrically conductive and SWIR-MWIR transparent and wherein the coating comprises a doped zinc oxide material, characterized in that the nanocomposite optical ceramic material is a multi-phase composite material formed of a mixture of two or more ceramic phases that are mutually insoluble, thereby forming a multi-phase grain structure having distinct phase separation between two or more constituents.
A nozzle assembly for a bidet, the nozzle assembly comprising: a nozzle unit making a curved movement and including a water supply hose connected to a water source; and a driving unit having a winding member rotatably driven to adjust a length of the nozzle unit and driving the nozzle unit to make a curved movement, characterized in that the length of the nozzle unit is adjusted by stages, and an exit-out rotation angle (a, b, c) at which the winding member rotates to change the length of the nozzle unit from any one step to an adjacent higher step is different in each step. a nozzle unit making a curved movement and including a water supply hose connected to a water source; and a driving unit having a winding member rotatably driven to adjust a length of the nozzle unit and driving the nozzle unit to make a curved movement, characterized in that the length of the nozzle unit is adjusted by stages, and an exit-out rotation angle (a, b, c) at which the winding member rotates to change the length of the nozzle unit from any one step to an adjacent higher step is different in each step.
A pumping device , including: i. an impeller ; ii. a pump housing at least partially surrounding an inner area , with an inlet and an outlet , wherein the impeller is provided in the inner region of the pump housing ; wherein the pump housing comprises at least one first partial area and at least one further partial area ; wherein the first partial region contains at least 61% by weight, based on the total mass of the first partial region , of a ceramic, wherein the further subregion contains a metal content in a range from 40 to 90% by weight, based on the total mass of the further subregion , wherein at least a part of the first partial region and at least a part of the further partial region are connected to each other. i. an impeller ; ii. a pump housing at least partially surrounding an inner area , with an inlet and an outlet , wherein the impeller is provided in the inner region of the pump housing ; wherein the pump housing comprises at least one first partial area and at least one further partial area ; wherein the first partial region contains at least 61% by weight, based on the total mass of the first partial region , of a ceramic, wherein the further subregion contains a metal content in a range from 40 to 90% by weight, based on the total mass of the further subregion , wherein at least a part of the first partial region and at least a part of the further partial region are connected to each other.
A spool support for supporting a windable material, the spool support comprising: a main body (2; 206), an actuator (50; 202), and a clamp portion (30; 212); wherein the actuator is movable relative to the main body between a first position and a second position; and wherein the clamp portion is pivotably connected to the main body, the actuator actuating the clamp portion such that the clamp portion pivots relative to the main body between a retracted position when the actuator is in the first position and a deployed position when the actuator is in the second position; and wherein the clamp portion defines at least one of a pair of opposed jaws , the other of the pair of opposed jaws being defined by either the main body or clamp portion, the jaws having an open configuration when the clamp portion is in the retracted position, in which insertion or removal of a portion of windable material is permitted, and a closed configuration when the clamp portion is in the deployed position, in which a portion of windable material may be clamped between the jaws. a main body (2; 206), an actuator (50; 202), and a clamp portion (30; 212); wherein the actuator is movable relative to the main body between a first position and a second position; and wherein the clamp portion is pivotably connected to the main body, the actuator actuating the clamp portion such that the clamp portion pivots relative to the main body between a retracted position when the actuator is in the first position and a deployed position when the actuator is in the second position; and wherein the clamp portion defines at least one of a pair of opposed jaws , the other of the pair of opposed jaws being defined by either the main body or clamp portion, the jaws having an open configuration when the clamp portion is in the retracted position, in which insertion or removal of a portion of windable material is permitted, and a closed configuration when the clamp portion is in the deployed position, in which a portion of windable material may be clamped between the jaws.
Device for determining contact between a tool and a workpiece in a machine tool, wherein the tool and the workpiece are able to be moved relative to one another, and the tool or the workpiece is connected to a shaft in a rotationally fixed manner, comprising a measurement arrangement having a measurement graduation arranged on the shaft in a rotationally fixed manner, and at least one position encoder arranged in a stationary manner with respect to the shaft , and a computer , wherein • the at least one position encoder is designed so as to be suitable for scanning the measurement graduation and for generating therefrom position values (P1, P2, P3, P4, P5, P6) which indicate a position of the shaft , • the position values (P1, P2, P3, P4, P5, P6) are supplied to the computer , which comprises means which determine the contact between the tool and the workpiece by evaluating a progression of the position values (P1, P2, P3, P4, P5, P6) and signal the result of the evaluation by way of the status of a displacement signal (VS). • the at least one position encoder is designed so as to be suitable for scanning the measurement graduation and for generating therefrom position values (P1, P2, P3, P4, P5, P6) which indicate a position of the shaft , • the position values (P1, P2, P3, P4, P5, P6) are supplied to the computer , which comprises means which determine the contact between the tool and the workpiece by evaluating a progression of the position values (P1, P2, P3, P4, P5, P6) and signal the result of the evaluation by way of the status of a displacement signal (VS).
An electric vehicle comprising a charging arm accommodated in a side portion of the electric vehicle and having a charging head at a position facing toward a corresponding power line of a power supplying device , the charging arm being configured to extend out in a vehicle widthwise direction (WD) so that a positive electrode power reception unit of the charging head contacts with a corresponding positive electrode power line of the power line and a negative electrode power reception unit of the charging head contacts with a corresponding negative electrode power line of the power line , wherein the power line is provided at a position facing the side portion of the electric vehicle along a running direction (RD) of the electric vehicle to charge an electrical storage device for driving in the electric vehicle , characterized in that the charging head of the charging arm is attached to a front end of an arm member configured to extend in the vehicle widthwise direction (WD), the charging head of the charging arm is joined to the arm member through a UL suspension formed of springs attached respectively to upper and lower sides of the arm member , and wherein the UL suspension is configured retain the charging head in a state of contact with the power supplying device in case of movement in upward and downward directions (UL) of the charging arm , and the charging head comprises a WD suspension elastically deformable in the vehicle widthwise direction (WD). a charging arm accommodated in a side portion of the electric vehicle and having a charging head at a position facing toward a corresponding power line of a power supplying device , the charging arm being configured to extend out in a vehicle widthwise direction (WD) so that a positive electrode power reception unit of the charging head contacts with a corresponding positive electrode power line of the power line and a negative electrode power reception unit of the charging head contacts with a corresponding negative electrode power line of the power line , wherein the power line is provided at a position facing the side portion of the electric vehicle along a running direction (RD) of the electric vehicle to charge an electrical storage device for driving in the electric vehicle , characterized in that the charging head of the charging arm is attached to a front end of an arm member configured to extend in the vehicle widthwise direction (WD), the charging head of the charging arm is joined to the arm member through a UL suspension formed of springs attached respectively to upper and lower sides of the arm member , and wherein the UL suspension is configured retain the charging head in a state of contact with the power supplying device in case of movement in upward and downward directions (UL) of the charging arm , and the charging head comprises a WD suspension elastically deformable in the vehicle widthwise direction (WD).