mhurhangee/patent-ind-claim-en huggingface dataset:
An information transmission method, comprising: determining (S210), by a terminal device, a target buffer status report - BSR- format in at least three BSR formats according to a first logical channel groups - LCG- set having data to be transmitted in a plurality of LCG, wherein the first LCG set comprises at least one LCG; and reporting (S220), by the terminal device, BSRs of some or all LCGs in the first LCG set by using the target BSR format; the method being characterized in that the at least three BSR formats comprise: a short BSR, a truncated BSR and a flexible long BSR, wherein the short BSR is used to report a BSR of one LCG, the truncated BSR is used to report a BSR of one LCG, the flexible long BSR is used to report BSRs of at least one LCG, wherein the number of the at least one LCG is within a first numerical range, a minimum value of the first numerical range is 1 and a maximum value of the first numerical range is 8. determining (S210), by a terminal device, a target buffer status report - BSR- format in at least three BSR formats according to a first logical channel groups - LCG- set having data to be transmitted in a plurality of LCG, wherein the first LCG set comprises at least one LCG; and reporting (S220), by the terminal device, BSRs of some or all LCGs in the first LCG set by using the target BSR format; the method being characterized in that the at least three BSR formats comprise: a short BSR, a truncated BSR and a flexible long BSR, wherein the short BSR is used to report a BSR of one LCG, the truncated BSR is used to report a BSR of one LCG, the flexible long BSR is used to report BSRs of at least one LCG, wherein the number of the at least one LCG is within a first numerical range, a minimum value of the first numerical range is 1 and a maximum value of the first numerical range is 8.
A data transmission method, comprising: determining , by a transmit end, a first data packet to be sent to a first receive end; generating , by the transmit end, a second data packet based on the first data packet, wherein a length of the second data packet is greater than a length of the first data packet; and encoding, by the transmit end, the second data packet, and sending an encoded second data packet, and the method being characterized in that: the generating, by the transmit end, a second data packet based on the first data packet comprises: generating the second data packet by repeating the first data packet; wherein the first data packet is repeated, so that a resulting data packet can reach a specified length; wherein after obtaining, by the transmit end, the first data packet of the first receive end, the method further comprises: determining, by the transmit end, the length of the first data packet, and when the length of the first data packet is less than a preset length threshold, executing the operation of generating the second data packet based on the first data packet. determining , by a transmit end, a first data packet to be sent to a first receive end; generating , by the transmit end, a second data packet based on the first data packet, wherein a length of the second data packet is greater than a length of the first data packet; and encoding, by the transmit end, the second data packet, and sending an encoded second data packet, and the method being characterized in that: the generating, by the transmit end, a second data packet based on the first data packet comprises: generating the second data packet by repeating the first data packet; wherein the first data packet is repeated, so that a resulting data packet can reach a specified length; generating the second data packet by repeating the first data packet; wherein the first data packet is repeated, so that a resulting data packet can reach a specified length;
A switch device , comprising: a first three-position switch ; a second three-position switch disposed below the first three-position switch ; a circuit breaker disposed between and coupled to the first three-position switch and the second three-position switch ; a first interlock unit disposed above the circuit breaker and coupled to the circuit breaker and the first three-position switch , and configured to block a manual operation of the first three-position switch in a closed state of the circuit breaker , and configured to block a manual closing operation of the circuit breaker while the first three-position switch is manually operated in an open state of the circuit breaker ; and a second interlock unit disposed below the circuit breaker and coupled to the circuit breaker and the second three-position switch , and configured to block a manual operation of the second three-position switch in the closed state of the circuit breaker , and configured to block a manual closing operation of the circuit breaker while the second three-position switch is manually operated in the open state of the circuit breaker . a first three-position switch ; a second three-position switch disposed below the first three-position switch ; a circuit breaker disposed between and coupled to the first three-position switch and the second three-position switch ; a first interlock unit disposed above the circuit breaker and coupled to the circuit breaker and the first three-position switch , and configured to block a manual operation of the first three-position switch in a closed state of the circuit breaker , and configured to block a manual closing operation of the circuit breaker while the first three-position switch is manually operated in an open state of the circuit breaker ; and a second interlock unit disposed below the circuit breaker and coupled to the circuit breaker and the second three-position switch , and configured to block a manual operation of the second three-position switch in the closed state of the circuit breaker , and configured to block a manual closing operation of the circuit breaker while the second three-position switch is manually operated in the open state of the circuit breaker .
A method for manufacturing a cylindrical structure having an axial direction, comprising: winding a first layer around a mandrel , the first layer including a plurality of fabrics each made of fibers, the fabrics forming a first join line (J) extending in a circumferential direction with edges of the fabrics in contact with each other; winding a second layer around the first layer, the second layer including a plurality of fabrics each made of the fibers, the fabrics forming a second join line (J) extending in the circumferential direction with edges of the fabrics in contact with each other, in such a manner as to displace the second join line from the first join line in the axial direction; winding a third layer around the second layer, the third layer including a plurality of fabrics each made of the fibers, the fabrics forming a third join line (J) extending in the circumferential direction with edges of the fabrics in contact with each other, in such a manner as to displace the third join line from both of the first join line and the second join line in the axial direction; and joining the layers together by using a resin. winding a first layer around a mandrel , the first layer including a plurality of fabrics each made of fibers, the fabrics forming a first join line (J) extending in a circumferential direction with edges of the fabrics in contact with each other; winding a second layer around the first layer, the second layer including a plurality of fabrics each made of the fibers, the fabrics forming a second join line (J) extending in the circumferential direction with edges of the fabrics in contact with each other, in such a manner as to displace the second join line from the first join line in the axial direction; winding a third layer around the second layer, the third layer including a plurality of fabrics each made of the fibers, the fabrics forming a third join line (J) extending in the circumferential direction with edges of the fabrics in contact with each other, in such a manner as to displace the third join line from both of the first join line and the second join line in the axial direction; and joining the layers together by using a resin.
A channel feedback method, comprising: generating, by a terminal device, first information, wherein the first information comprises parameters q, m 1 , m 2 , ..., m L , and indication information of a vector V; q is an integer, and q < Q; Q is an integer, and Q > 1; 0 ≤ m l ≤ N - 1 , and 1 ≤ / ≤ L; L>1, N, L, and l are integers, and N is a quantity of subbands in a frequency domain bandwidth; the vector V comprises L elements and satisfies V=F q × C, wherein C is a vector formed by N elements c 1 , ..., c N , C = [ c 1 c 2 ··· c N ] T , c k is used to indicate channel state information on a k th frequency domain subband, c k is a complex number, a modulus of c k is | c k | ≤ 1, and 1 ≤ k ≤ N ; and an l th row vector in a matrix F q satisfies: F q l = 1 e j 2 π m l × Q + q N × Q ⋯ e j 2 π m l × Q + q N × Q N − 1 ; or F q l = 1 e − j 2 π m l × Q + q N × Q ⋯ e − j 2 π m l × Q + q N × Q N − 1 ; and sending, by the terminal device, the first information to a network device. generating, by a terminal device, first information, wherein the first information comprises parameters q, m 1 , m 2 , ..., m L , and indication information of a vector V; q is an integer, and q < Q; Q is an integer, and Q > 1; 0 ≤ m l ≤ N - 1 , and 1 ≤ / ≤ L; L>1, N, L, and l are integers, and N is a quantity of subbands in a frequency domain bandwidth; the vector V comprises L elements and satisfies V=F q × C, wherein C is a vector formed by N elements c 1 , ..., c N , C = [ c 1 c 2 ··· c N ] T , c k is used to indicate channel state information on a k th frequency domain subband, c k is a complex number, a modulus of c k is | c k | ≤ 1, and 1 ≤ k ≤ N ; and an l th row vector in a matrix F q satisfies: F q l = 1 e j 2 π m l × Q + q N × Q ⋯ e j 2 π m l × Q + q N × Q N − 1 ; or F q l = 1 e − j 2 π m l × Q + q N × Q ⋯ e − j 2 π m l × Q + q N × Q N − 1 ; and sending, by the terminal device, the first information to a network device.
A method of diagnosing an engine system including a continuous variable valve duration (CVVD) apparatus , the method comprising: detecting data for diagnosing the engine system; the method being characterized in that it comprises: determining whether a fuel cut condition is satisfied based on the data; when the fuel cut condition is satisfied, operating the CVVD apparatus so that a duration of an intake valve is a first target duration; determining whether a decrease amount of an intake pressure by operation of the CVVD apparatus is within a first predetermined range; and determining that the CVVD apparatus is in a failure state when the decrease amount of the intake pressure by operation of the CVVD apparatus is not within the first predetermined range. determining whether a fuel cut condition is satisfied based on the data; when the fuel cut condition is satisfied, operating the CVVD apparatus so that a duration of an intake valve is a first target duration; determining whether a decrease amount of an intake pressure by operation of the CVVD apparatus is within a first predetermined range; and determining that the CVVD apparatus is in a failure state when the decrease amount of the intake pressure by operation of the CVVD apparatus is not within the first predetermined range.
A computer-implemented method enabling selection of an application window for presentation in an available region of a multi-application environment, the multi-application environment having multiple regions in which to present application windows, wherein the multi-application environment enables management or manipulation of a position, size, and front-to-back ordering of overlapping or non-overlapping application windows and includes a z-stack maintaining the ordering or depth of each application window in a workspace of the multi-application environment, and wherein the multi-application environment includes one or more primary application windows that reside at the top of the z-stack and one or more non-primary application windows that reside at positions deeper in the z-stack, the method comprising: presenting a first application window as primary window in a first region of the multi-application environment in response to an operation; identifying a region that does not include a primary application window as an available region of the multi-application environment in response to the presentation of the first application window, as a primary window, in the first region of the multi-application environment; presenting , in the available region, visual representations of the application windows that are selectable for presentation in the available region; receiving , via one of the visual representations, selection of a corresponding application window for presentation in the available region to be a selected application window; and presenting , responsive to the selection, the selected application window in the available region of the multi-application environment, including altering a size or a position of the selected application window to fully occupy the available region of the multi-application environment. presenting a first application window as primary window in a first region of the multi-application environment in response to an operation; identifying a region that does not include a primary application window as an available region of the multi-application environment in response to the presentation of the first application window, as a primary window, in the first region of the multi-application environment; presenting , in the available region, visual representations of the application windows that are selectable for presentation in the available region; receiving , via one of the visual representations, selection of a corresponding application window for presentation in the available region to be a selected application window; and presenting , responsive to the selection, the selected application window in the available region of the multi-application environment, including altering a size or a position of the selected application window to fully occupy the available region of the multi-application environment.
Shifting device for selecting different driving positions of a motor vehicle, having an activation element which is guided so as to be movable in at least one activation direction along at least one shifting gate between at least two shifting positions that are assigned to the driving positions, wherein the activation element is coupled to a tactile installation by means of which a restoring force (R) which acts on the activation element and is at least temporarily directed counter to an activation force (F) acting via a user on the activation element is able to be generated, wherein the tactile installation has at least one first magnet and at least one first counterpart which is able to be magnetically coupled to the first magnet , wherein the at least one first magnet and the at least one first counterpart are movable relative to one another, wherein a restoring installation for restoring the activation element in a self-acting manner to a shifting position is furthermore provided, characterized in that the restoring installation has at least one second magnet and at least one counterpart which for restoring the activation element in a self-acting manner to this shifting position is able to be magnetically coupled to the, or the second, magnet , wherein at least a first and a second set of second magnets which in the assembled position are in each case disposed so as to be substantially next to one another are provided for said restoring installation, wherein said second set represents the magnetically couplable counterpart , and wherein the at least first and the at least second set in said assembled position are disposed on top of one another and the magnetic fields of the two sets mutually interact in such a manner that the one set for restoring the activation element in a self-acting manner to this shifting position is magnetically displaceable in relation to the other set .
A silicon device, comprising: a silicon wafer bounded by a first surface and a second opposite said first surface, said silicon wafer having a device fabricated on said second surface; said silicon wafer having a doping profile situated adjacent on said first surface, said doping profile having a plurality of M doped layers; each of plurality of M doped layers having a thickness of less than 1.0 nm, and a dopant sheet density of at least 10 14 cm -2 , where M is an integer greater than 1; said plurality of M doped layers separated from each other by a respective one of M-1 interleaved layers of silicon, at least one of said M-1 interleaved layers of silicon having a dopant sheet density lower than 10 13 cm -2 and a thickness in the range of 1.0 nm to 3.0 nm; so that said silicon wafer has said first surface electronically passivated. a silicon wafer bounded by a first surface and a second opposite said first surface, said silicon wafer having a device fabricated on said second surface; said silicon wafer having a doping profile situated adjacent on said first surface, said doping profile having a plurality of M doped layers; each of plurality of M doped layers having a thickness of less than 1.0 nm, and a dopant sheet density of at least 10 14 cm -2 , where M is an integer greater than 1; said plurality of M doped layers separated from each other by a respective one of M-1 interleaved layers of silicon, at least one of said M-1 interleaved layers of silicon having a dopant sheet density lower than 10 13 cm -2 and a thickness in the range of 1.0 nm to 3.0 nm; so that said silicon wafer has said first surface electronically passivated.
A method of setting profiles for a profile server, the method comprising: receiving , from a first terminal , a first message that requests transfer of a portion or a whole of a first profile from a first secure element of the first terminal to a second secure element of a second terminal , the first message including an identifier of the first secure element and an identifier of the second secure element; transmitting , to the first terminal, a second message requesting the portion or the whole of the first profile; receiving , from the first terminal, the portion or the whole of the first profile; and generating a second profile using the portion or the whole of the first profile and using a Universal Subscriber Identity Module authentication key of the second profile, which is different from an authentication key of the first profile, the second profile including a signature which is obtained based on the identifier of the second secure element; transmitting , to the second terminal, the generated second profile; and transmitting , if the second profile is successfully installed in the second secure element, a third message requesting update of the authentication key of the first profile with that of the second profile to an authentication center. receiving , from a first terminal , a first message that requests transfer of a portion or a whole of a first profile from a first secure element of the first terminal to a second secure element of a second terminal , the first message including an identifier of the first secure element and an identifier of the second secure element; transmitting , to the first terminal, a second message requesting the portion or the whole of the first profile; receiving , from the first terminal, the portion or the whole of the first profile; and generating a second profile using the portion or the whole of the first profile and using a Universal Subscriber Identity Module authentication key of the second profile, which is different from an authentication key of the first profile, the second profile including a signature which is obtained based on the identifier of the second secure element; transmitting , to the second terminal, the generated second profile; and transmitting , if the second profile is successfully installed in the second secure element, a third message requesting update of the authentication key of the first profile with that of the second profile to an authentication center.
An exhaust after treatment system provided in an exhaust passage of an internal combustion engine , the exhaust after treatment system comprising: an adsorption layer having the function of adsorbing hydrocarbons in the exhaust; a catalyst layer arranged at the same position as the adsorption layer in the direction of flow of exhaust and having an oxidation function of oxidizing the hydrocarbons; a thermal energy generator generating thermal energy; a control device configured to control the thermal energy generated by the thermal energy generator such that the thermal energy supplied to the catalyst layer is made larger than the thermal energy supplied to the adsorption layer ; characterised by a microwave irradiation device configured to irradiate microwaves toward the catalyst layer , wherein the thermal energy generator is a microwave absorber contained in the catalyst layer and generating heat by being irradiated by microwaves. the exhaust after treatment system comprising: an adsorption layer having the function of adsorbing hydrocarbons in the exhaust; a catalyst layer arranged at the same position as the adsorption layer in the direction of flow of exhaust and having an oxidation function of oxidizing the hydrocarbons; a thermal energy generator generating thermal energy; a control device configured to control the thermal energy generated by the thermal energy generator such that the thermal energy supplied to the catalyst layer is made larger than the thermal energy supplied to the adsorption layer ; an adsorption layer having the function of adsorbing hydrocarbons in the exhaust; a catalyst layer arranged at the same position as the adsorption layer in the direction of flow of exhaust and having an oxidation function of oxidizing the hydrocarbons; a thermal energy generator generating thermal energy; a control device configured to control the thermal energy generated by the thermal energy generator such that the thermal energy supplied to the catalyst layer is made larger than the thermal energy supplied to the adsorption layer ; characterised by a microwave irradiation device configured to irradiate microwaves toward the catalyst layer , wherein the thermal energy generator is a microwave absorber contained in the catalyst layer and generating heat by being irradiated by microwaves. a microwave irradiation device configured to irradiate microwaves toward the catalyst layer , wherein the thermal energy generator is a microwave absorber contained in the catalyst layer and generating heat by being irradiated by microwaves.
A sample analysis kit comprising: a. a sample receptacle including a plurality of receptacle wells , each receptacle well having a mouth for receiving liquid at one end and one or more apertures (24; 26) in its base, the sample receptacle further including a receptacle wall surrounding and extending above the plurality of receptacle wells ; b. a sample container including one or more container wells each having a mouth dimensioned to mate with the base of a respective receptacle well ; and c. a plunger assembly including one or more pistons , wherein each of the one or more pistons is dimensioned to locate snugly in and advance within a respective receptacle well so as to eject liquid within the receptacle well out of each aperture (24; 26). a. a sample receptacle including a plurality of receptacle wells , each receptacle well having a mouth for receiving liquid at one end and one or more apertures (24; 26) in its base, the sample receptacle further including a receptacle wall surrounding and extending above the plurality of receptacle wells ; b. a sample container including one or more container wells each having a mouth dimensioned to mate with the base of a respective receptacle well ; and c. a plunger assembly including one or more pistons , wherein each of the one or more pistons is dimensioned to locate snugly in and advance within a respective receptacle well so as to eject liquid within the receptacle well out of each aperture (24; 26).