mhurhangee/patent-ind-claim-en huggingface dataset:
A method for constructing an abstract domain topology, the method comprising: establishing communication between a first parent path computation element, PCE and at least one child PCE of the first parent PCE, wherein each of the at least one child PCE is responsible for a domain, and wherein the at least one child PCE comprises a first child PCE responsible for a first domain; receiving , by the parent PCE, domain connection information, wherein the domain connection information comprising information about connections of the first domain to its adjacent domains and access points within the first domain; constructing , by the parent PCE, the abstract domain topology based on the domain connection information; and wherein the domain connection information is communicated by the first child PCE to the first parent PCE by extending a path computation element communication protocol, PCEP, notification message to include a new notification-type, NT, and notification-value, NV, of a notification object in the PCEP notification message, and the notification-value, NV, indicates whether connections and access points indicated by type-length-values, TLVs, in the notification object within the PCEP notification message are to be updated or withdrawn; wherein the first child PCE is configured as a second parent PCE to multiple second child PCEs, wherein each second child PCE is responsible for a second domain, and wherein the domain connection information does not comprise information about the connections between two adjacent second domains. establishing communication between a first parent path computation element, PCE and at least one child PCE of the first parent PCE, wherein each of the at least one child PCE is responsible for a domain, and wherein the at least one child PCE comprises a first child PCE responsible for a first domain; receiving , by the parent PCE, domain connection information, wherein the domain connection information comprising information about connections of the first domain to its adjacent domains and access points within the first domain; constructing , by the parent PCE, the abstract domain topology based on the domain connection information; and wherein the domain connection information is communicated by the first child PCE to the first parent PCE by extending a path computation element communication protocol, PCEP, notification message to include a new notification-type, NT, and notification-value, NV, of a notification object in the PCEP notification message, and the notification-value, NV, indicates whether connections and access points indicated by type-length-values, TLVs, in the notification object within the PCEP notification message are to be updated or withdrawn; wherein the first child PCE is configured as a second parent PCE to multiple second child PCEs, wherein each second child PCE is responsible for a second domain, and wherein the domain connection information does not comprise information about the connections between two adjacent second domains.
Device for inserting curtain gliders into a guide rail , comprising curtain gliders and a carrier for the curtain gliders which can be arranged in a row one behind the other, can be detached from the carrier and of which the gliding heads can engage in the guide rail , wherein, when the device is in the usage position, the carrier has a receiver , which is open on its side facing towards the guide rail , for the curtain gliders , of which the gliding heads can protrude freely over the receiver , and wherein the receiver forms individual receiver recesses for the curtain gliders , said receiver recesses being open both on the side of the carrier facing towards the guide rail and on the side of the carrier facing away therefrom, characterised in that the receiver recesses have lateral insertion openings for the curtain gliders .
A video playing method, implemented by a terminal device, the method comprising: in response to detecting a video output operation for a recorded video including tagged video frames and at least one untagged video frame, outputting the recorded video based on the video output operation; displaying a video frame and a time axis on a video display interface , and displaying tags respectively corresponding to the tagged video frames on the time axis by clicking a tag control on the video display interface , the tag control being independent from the time axis on the video display interface , wherein one or more tags, which are not shown on the video display interface , are displayed on the video display interface in response to sliding a tag, which is currently shown on the video display interface , among the tags along the time axis ; detecting a target-video-frame output operation for a tag of a target video frame among the tagged video frames; making a skip from the video frame presently displayed on the video display interface to the target video frame according to the target-video-frame output operation; and continuously outputting , starting from the target video frame, video frames corresponding to each recording moment in the recorded video according to a time sequence. in response to detecting a video output operation for a recorded video including tagged video frames and at least one untagged video frame, outputting the recorded video based on the video output operation; displaying a video frame and a time axis on a video display interface , and displaying tags respectively corresponding to the tagged video frames on the time axis by clicking a tag control on the video display interface , the tag control being independent from the time axis on the video display interface , wherein one or more tags, which are not shown on the video display interface , are displayed on the video display interface in response to sliding a tag, which is currently shown on the video display interface , among the tags along the time axis ; detecting a target-video-frame output operation for a tag of a target video frame among the tagged video frames; making a skip from the video frame presently displayed on the video display interface to the target video frame according to the target-video-frame output operation; and continuously outputting , starting from the target video frame, video frames corresponding to each recording moment in the recorded video according to a time sequence.
A method of a wireless communication device of a cellular communication system for mobility from a first radio access network, RAN, operating using a first radio access technology, RAT, to a second RAN operating using a second RAT, wherein the first RAT has synchronisation signals with a first frequency allocation and the second RAT has synchronisation signals with a second frequency allocation, where the frequency allocations are in relation to a network frequency, and where the first frequency allocation and the second frequency allocation are different, the method comprising receiving a radio resource control, RRC, message including allocation information about the synchronisation signals of the second RAT; and performing synchronisation signal detection based on the allocation information; wherein the allocation information comprises specific frequency information for the synchronisation signals; and characterised in that the method comprises determining , upon successful synchronisation on the second RAT, actual allocation information about the synchronisation signals of the second RAT; and transmitting , to a network node or neighbouring network nodes of the network node, information about the second RAT on which the successful synchronisation has been performed including the information about the actual allocation information of the synchronisation signals of the second RAT. receiving a radio resource control, RRC, message including allocation information about the synchronisation signals of the second RAT; and performing synchronisation signal detection based on the allocation information; wherein the allocation information comprises specific frequency information for the synchronisation signals; and characterised in that the method comprises determining , upon successful synchronisation on the second RAT, actual allocation information about the synchronisation signals of the second RAT; and transmitting , to a network node or neighbouring network nodes of the network node, information about the second RAT on which the successful synchronisation has been performed including the information about the actual allocation information of the synchronisation signals of the second RAT.
A lightweight hub made of a steel-aluminum composite material, which is applied in a chassis of a land wheeled vehicle, wherein the hub comprises an aluminum alloy base body , an outer bearing hole steel sleeve, an inner bearing hole steel sleeve, an outer bearing outer race , an inner bearing outer race and a plurality of bolt hole steel inserts ; wherein the outer bearing outer race and the inner bearing outer race are respectively press-fitted into the outer bearing hole steel sleeve and the inner bearing hole steel sleeve in an interference manner, so as to be fixedly connected with the hub; and a plurality of bolt holes in a circumferential side of a flange of the aluminum alloy base body are provided with bolt hole steel inserts , the bolt hole steel inserts being provided around circumferential sides of the bolt holes, and end faces of the steel inserts are exposed on a flange surface of the aluminum alloy base body so as to be in direct contact with bolt heads or other fastening connectors; wherein the outer bearing hole steel sleeve, namely an outer bearing bore bushing , is made of a material with the same thermal expansion coefficient as that of the outer bearing outer race , and the inner bearing hole steel sleeve, namely an inner bearing bore bushing , is made of a material with the same thermal expansion coefficient as that of the inner bearing outer race , wherein both the bushings and the inserts are cast-molded from ductile iron or steel and fixedly connected with the hub body by means of a low-pressure or gravity cast-molding process.
A fitting arrangement for a window shutter or door shutter having a shutter-side fitting part , which is configured for fastening to a shutter hinge of the window shutter or door shutter, and having a wall-side fitting part , which is configured for fastening to a stationary wall section, wherein the shutter-side fitting part and the wall-side fitting part are rotatably connected to one another about a shutter hinge axis (L) and are fixable in at least one rotational position by means of a latching mechanism; wherein the latching mechanism comprises at least one shutter-side latch element , which is non-rotatable with respect to the shutter-side fitting part , and a wall-side latch element which cooperates with said shutter-side latch element and which is non-rotatable with respect to the wall-side fitting part; wherein the shutter-side latch element and the wall-side latch element are displaceable relative to one another between an engagement position and a non-engagement position in a direction of displacement extending in parallel with the shutter hinge axis (L); and wherein at least one spring element is provided for preloading the shutter-side latch element or the wall-side latch element into the engagement position, wherein the shutter-side latch element and/or the wall-side latch element has/have an inclination or a rounding which, on a mutual rotation of the fitting parts in at least one direction of rotation, brings about a displacement of the shutter-side latch element or of the wall-side latch element from the engagement position into the non-engagement position while overcoming the preload force of the spring element , characterized in that the wall-side fitting part comprises an arrangement of a shutter pin sleeve and a shutter pin rod projecting therefrom, with the wall-side latch element being arranged at a retainer sleeve , which engages around the shutter pin sleeve and which is non-rotatable with respect thereto, but is displaceable along the direction of displacement.
A memory comprising: media access circuitry connected to a memory media, wherein the media access circuitry is to: receive a request to perform an in-memory macro operation indicative of a set of multiple in-memory operations; and perform, in response to the request, the in-memory macro operation on data present in the memory media , characterized in that to perform, in response to the request, the in-memory macro operation comprises to provide, to a component of a compute device in which the memory is located, status data indicating that the macro operation is in progress, and wherein the media access circuitry is further to: determine whether performance of the in-memory macro operation is complete; and provide, in response to a determination that performance of the in-memory macro operation is complete, status data indicating that the macro operation is complete. media access circuitry connected to a memory media, wherein the media access circuitry is to: receive a request to perform an in-memory macro operation indicative of a set of multiple in-memory operations; and perform, in response to the request, the in-memory macro operation on data present in the memory media , receive a request to perform an in-memory macro operation indicative of a set of multiple in-memory operations; and perform, in response to the request, the in-memory macro operation on data present in the memory media , characterized in that to perform, in response to the request, the in-memory macro operation comprises to provide, to a component of a compute device in which the memory is located, status data indicating that the macro operation is in progress, and wherein the media access circuitry is further to: determine whether performance of the in-memory macro operation is complete; and provide, in response to a determination that performance of the in-memory macro operation is complete, status data indicating that the macro operation is complete. determine whether performance of the in-memory macro operation is complete; and provide, in response to a determination that performance of the in-memory macro operation is complete, status data indicating that the macro operation is complete.
A peptide composition for treating hair, comprising: at least one peptide having an 11-12 amino acid size, including 2-3 cysteine amino acids; wherein said peptide comprise at least one from the following list of sequences: FCGFPSCSTSG, CTPPSCCQLHHA, or mixtures thereof; and at least one excipient suitable for dermatological use. at least one peptide having an 11-12 amino acid size, including 2-3 cysteine amino acids; wherein said peptide comprise at least one from the following list of sequences: FCGFPSCSTSG, CTPPSCCQLHHA, or mixtures thereof; and at least one excipient suitable for dermatological use.
A random access method, comprising: sending , by a first terminal side device, a random access preamble to a network side device; receiving , by the first terminal side device, a random access response, RAR, corresponding to the random access preamble, wherein the RAR comprises P temporary cell radio network temporary identifiers, TC-RNTIs, and P is an integer greater than 1; and sending , by the first terminal side device to the network side device based on the RAR, a first message and a demodulation reference signal used to demodulate the first message, wherein the demodulation reference signal is generated based on a first TC-RNTI, and the first TC-RNTI is one of the P TC-RNTIs, wherein when the first terminal side device supports sending uplink data by using a single-carrier frequency division multiple access, SC-FDMA, technology, the demodulation reference signal is generated based on a cyclic shift field or a cyclic shift value, and the cyclic shift field or the cyclic shift value is determined based on the first TC-RNTI, wherein the cyclic shift field is an index value of the first TC-RNTI; or each of the P TC-RNTIs has a mapping relationship with a preset value, and the cyclic shift field is a preset value to which the first TC-RNTI is mapped; or the cyclic shift field is mod(the first TC-RNTI, T), T is a quantity of values comprised in a value range of the cyclic shift field, and mod() is a modulo operation, and wherein the cyclic shift value is mod(the first TC-RNTI, Y), and Y is a quantity of values comprised in a value range of the cyclic shift value. sending , by a first terminal side device, a random access preamble to a network side device; receiving , by the first terminal side device, a random access response, RAR, corresponding to the random access preamble, wherein the RAR comprises P temporary cell radio network temporary identifiers, TC-RNTIs, and P is an integer greater than 1; and sending , by the first terminal side device to the network side device based on the RAR, a first message and a demodulation reference signal used to demodulate the first message, wherein the demodulation reference signal is generated based on a first TC-RNTI, and the first TC-RNTI is one of the P TC-RNTIs, wherein when the first terminal side device supports sending uplink data by using a single-carrier frequency division multiple access, SC-FDMA, technology, the demodulation reference signal is generated based on a cyclic shift field or a cyclic shift value, and the cyclic shift field or the cyclic shift value is determined based on the first TC-RNTI, wherein the cyclic shift field is an index value of the first TC-RNTI; or each of the P TC-RNTIs has a mapping relationship with a preset value, and the cyclic shift field is a preset value to which the first TC-RNTI is mapped; or the cyclic shift field is mod(the first TC-RNTI, T), T is a quantity of values comprised in a value range of the cyclic shift field, and mod() is a modulo operation, and wherein the cyclic shift value is mod(the first TC-RNTI, Y), and Y is a quantity of values comprised in a value range of the cyclic shift value.
Method for controlling communication between a recording unit and a speed transmitter of a tachograph system of a motor vehicle , wherein the recording unit in each case repeatedly transmits a command to the speed transmitter and receives response data to the command from the speed transmitter , wherein the recording unit waits in each case for a predetermined waiting time between the transmission of successive commands , characterized in that the recording unit , prior to transmitting the first of the commands , transmits a request command to the speed transmitter , wherein the request command queries the pause duration that the speed transmitter at least requires between two commands , and if the speed transmitter provides duration data relating to the pause duration in response to the request command , the recording unit sets the respective waiting time on the basis of the duration data .
A universal IC tag comprising: a first metal sheet (M 1 ) extending in x and y directions, the x-direction being perpendicular to the y-direction; a slot formed in said first metal sheet (M 1 ) with a length in the y-direction shorter than a width of said first metal sheet (M 1 ); an IC a second metal sheet (M 2 ) arranged in parallel to said first metal sheet (M 1 ) via an insulating sheet , wherein: said slot radiates radio wave; further comprising a third metal sheet (M 3 ) and a fourth metal sheet (M 4 ), wherein said first and second metal sheets (M 1 , M 2 ) are short-circuited by said third and fourth metal sheets (M 3 , M 4 ) at both ends in the x-direction of the first and second metal sheets (M 1 , M 2 ), and a theoretical impedance at said slot in said first metal sheet (M 1 ) toward said second metal sheet (M 2 ) is configured to be infinite, wherein the IC is arranged in said slot a transmission line is formed by said first metal sheet (M 1 ) and said second metal sheet (M 2 ); said first and second metal sheets (M 1 , M 2 ) are short-circuited apart 1/4 wave electric length from the center of said slot . a first metal sheet (M 1 ) extending in x and y directions, the x-direction being perpendicular to the y-direction; a slot formed in said first metal sheet (M 1 ) with a length in the y-direction shorter than a width of said first metal sheet (M 1 ); an IC a second metal sheet (M 2 ) arranged in parallel to said first metal sheet (M 1 ) via an insulating sheet , wherein: said slot radiates radio wave; further comprising a third metal sheet (M 3 ) and a fourth metal sheet (M 4 ), wherein said first and second metal sheets (M 1 , M 2 ) are short-circuited by said third and fourth metal sheets (M 3 , M 4 ) at both ends in the x-direction of the first and second metal sheets (M 1 , M 2 ), and a theoretical impedance at said slot in said first metal sheet (M 1 ) toward said second metal sheet (M 2 ) is configured to be infinite, wherein the IC is arranged in said slot a transmission line is formed by said first metal sheet (M 1 ) and said second metal sheet (M 2 ); said first and second metal sheets (M 1 , M 2 ) are short-circuited apart 1/4 wave electric length from the center of said slot . said slot radiates radio wave; further comprising a third metal sheet (M 3 ) and a fourth metal sheet (M 4 ), wherein said first and second metal sheets (M 1 , M 2 ) are short-circuited by said third and fourth metal sheets (M 3 , M 4 ) at both ends in the x-direction of the first and second metal sheets (M 1 , M 2 ), and a theoretical impedance at said slot in said first metal sheet (M 1 ) toward said second metal sheet (M 2 ) is configured to be infinite, wherein the IC is arranged in said slot a transmission line is formed by said first metal sheet (M 1 ) and said second metal sheet (M 2 ); said first and second metal sheets (M 1 , M 2 ) are short-circuited apart 1/4 wave electric length from the center of said slot .