mhurhangee/ep-ind-claims huggingface dataset:
A method for updating a data carrier used in a telecommunication end device, comprising updating (S1-S11) or installing (S2-S9, S10a-S10e, S11) a data-carrier application executable on a secure data carrier, characterized by the steps of: - integrating update data (418; 110, 111, 418) for the data-carrier application into an end-device application certificate of an end-device application to be installed in the end device; - installing the end-device application in the telecommunication end device and extracting the update data (418; 110, 111, 418) from the end-device application certificate; and - configuring (S10; S10a, S10e) the data-carrier application according to the update data (418; 110, 111,418). - integrating update data (418; 110, 111, 418) for the data-carrier application into an end-device application certificate of an end-device application to be installed in the end device; - installing the end-device application in the telecommunication end device and extracting the update data (418; 110, 111, 418) from the end-device application certificate; and - configuring (S10; S10a, S10e) the data-carrier application according to the update data (418; 110, 111,418).
A treatment process for treating a structure of lignocellulosic material, the lignocellulosic material being preferably wood, said process comprising the following steps: at least one step of soaking the structure of lignocellulosic material with at least one fluid to partially dissolve the lignin present in the material; at least one step of washing the structure resulting from step with at least one organic fluid so as to discharge the dissolved lignin resulting from the soaking step, so as to produce a partially delignified structure; at least one step of filling the partially delignified structure resulting from the washing step with at least one filling compound, so as to produce a filled partially delignified structure; and at least one step of finishing the filled partially delignified structure resulting from the filling step, so as to obtain a composite material structure formed of a three-dimensional network of transformed filling compound incorporated in a network of cellulose and lignin, the density of the composite material structure obtained being higher than that of the lignocellulosic material structure before treatment. at least one step of soaking the structure of lignocellulosic material with at least one fluid to partially dissolve the lignin present in the material; at least one step of washing the structure resulting from step with at least one organic fluid so as to discharge the dissolved lignin resulting from the soaking step, so as to produce a partially delignified structure; at least one step of filling the partially delignified structure resulting from the washing step with at least one filling compound, so as to produce a filled partially delignified structure; and at least one step of finishing the filled partially delignified structure resulting from the filling step, so as to obtain a composite material structure formed of a three-dimensional network of transformed filling compound incorporated in a network of cellulose and lignin, the density of the composite material structure obtained being higher than that of the lignocellulosic material structure before treatment.
A method for managing graphics processing unit, GPU, allocation for a virtual machine, VM, comprising: intercepting, with a plurality of shadow libraries of the VM, a plurality of GPU API commands sent by applications; retransmitting, with the plurality of shadow libraries, the plurality of GPU API commands to a first GPU driver; wherein the first GPU driver comprises a plurality of native libraries for providing graphic APIs for the applications; recording a plurality of GPU command logs for a first GPU by logging the at least one GPU API commands with the plurality of shadow libraries; wherein a respective shadow library of the plurality of shadow libraries corresponds to a respective GPU API library of a plurality of GPU API libraries compatible with an operating system, OS, of the VM, and the respective shadow library has a respective GPU command log of the plurality of GPU command logs; offloading the first GPU driver, associated with the first GPU, from the OS of the VM; wherein by offloading the first GPU driver, the OS and the VM can no longer send commands to the first GPU; deallocating the first GPU from the VM; migrating the VM from a first host to a second host; allocating a second GPU to the VM; wherein the first GPU is associated with the first host and the second GPU is associated with the second host; loading a second GPU driver, associated with the second GPU, in the OS of the VM; and replaying the GPU command logs from the first GPU to the second GPU to restore a GPU context from the first GPU within the second GPU. intercepting, with a plurality of shadow libraries of the VM, a plurality of GPU API commands sent by applications; retransmitting, with the plurality of shadow libraries, the plurality of GPU API commands to a first GPU driver; wherein the first GPU driver comprises a plurality of native libraries for providing graphic APIs for the applications; recording a plurality of GPU command logs for a first GPU by logging the at least one GPU API commands with the plurality of shadow libraries; wherein a respective shadow library of the plurality of shadow libraries corresponds to a respective GPU API library of a plurality of GPU API libraries compatible with an operating system, OS, of the VM, and the respective shadow library has a respective GPU command log of the plurality of GPU command logs; offloading the first GPU driver, associated with the first GPU, from the OS of the VM; wherein by offloading the first GPU driver, the OS and the VM can no longer send commands to the first GPU; deallocating the first GPU from the VM; migrating the VM from a first host to a second host; allocating a second GPU to the VM; wherein the first GPU is associated with the first host and the second GPU is associated with the second host; loading a second GPU driver, associated with the second GPU, in the OS of the VM; and replaying the GPU command logs from the first GPU to the second GPU to restore a GPU context from the first GPU within the second GPU.
A device comprising at least one electromechanical system having an input and at least one output, and an electronic control unit comprising both a servo control loop connecting together the input and the output of the electromechanical system, and also a digital corrector, the device being characterized in that it includes a software module having an input connected to the output of the electromechanical system and an output connected to an input of electromechanical system, and in that, for each frequency in a set of frequencies that are to be analyzed, the software module is programmed: · to generate at least one sinusoidal excitation signal; · to issue the sinusoidal excitation signal on its output and to recover a response signal on its input; · to model the response signal by means of a Fresnel representation and to filter it about the excitation frequency by means of at least one Kalman filter in order to obtain a state vector of the filtered response signal; · to multiply the state vector by a rotation matrix in order to obtain a real part and an imaginary part; and · to perform complex number division to obtain at least one transfer function for the system from the model, from the excitation signal, and from the input signal. · to generate at least one sinusoidal excitation signal; · to issue the sinusoidal excitation signal on its output and to recover a response signal on its input; · to model the response signal by means of a Fresnel representation and to filter it about the excitation frequency by means of at least one Kalman filter in order to obtain a state vector of the filtered response signal; · to multiply the state vector by a rotation matrix in order to obtain a real part and an imaginary part; and · to perform complex number division to obtain at least one transfer function for the system from the model, from the excitation signal, and from the input signal.
An absorbent article for pet animals, the absorbent article having a longitudinal direction and a width direction crossing each other, said absorbent article comprising: a body-facing surface and a non-body-facing surface opposite to each other; a first edge and a second edge opposite to each other in the longitudinal direction; a tail facing area configured to face a tail of a pet; a first section extending from the tail facing area toward the first edge and being configured to cover one of buttocks of the pet; a second section extending from the tail facing area toward the second edge and being configured to cover another one of the buttocks of the pet; an absorbent core positioned between the first section and the second section and an attachment positioned on the first section and configured to be attached to an attachment target part on the second section; said absorbent article being characterized in that the tail facing area includes a notch through which the tail of the pet is insertable. a body-facing surface and a non-body-facing surface opposite to each other; a first edge and a second edge opposite to each other in the longitudinal direction; a tail facing area configured to face a tail of a pet; a first section extending from the tail facing area toward the first edge and being configured to cover one of buttocks of the pet; a second section extending from the tail facing area toward the second edge and being configured to cover another one of the buttocks of the pet; an absorbent core positioned between the first section and the second section and an attachment positioned on the first section and configured to be attached to an attachment target part on the second section; said absorbent article being characterized in that the tail facing area includes a notch through which the tail of the pet is insertable.
A device (100; 100A; 1000; 1000'), configured for use in a screwed rail fastening system according to any of claims 7 to 10 with a railway rail fastening clip (2B; 2C; 20), together with a screwbolt according to claim 3 or 4 or a screwbolt assembly (30; 3A') according to claim 5 or 6 which comprises a screwbolt, in each case the screwbolt (30'; 3) being for securing the railway rail fastening clip (2B; 2C; 20) at a desired location adjacent to a railway rail and having an elongate shank with a screw-threaded lower portion (31; 31') and an upper washer portion, the screwbolt assembly (30; 3A') further comprising a component (35") located on the screwbolt between a head of the screwbolt and the screw-threaded lower portion by means of a mechanical joining, whereby the component (35") is constrained to rotate with the screwbolt, the device having: a base (110; 1010); clip contact surfaces (114; 1014) provided on upwardly-extending side faces of spaced-apart guide walls (111A, 111B; 1011A, 1011B) projecting from the base, the clip contact surfaces defining therebetween a clip receiving region (115; 1015) for receiving the railway rail fastening clip, the clip receiving region having a centre line (CL1; CL21) which extends in a first direction, and the clip contact surfaces being configured to contact the railway rail fastening clip so as to guide the railway rail fastening clip whilst the railway rail fastening clip is being driven in the first direction; and a hole (116; 1016) which extends through the base of the device between the guide walls for receiving the screw-threaded lower portion of the screwbolt (30'; 3); characterised in that the hole has a centre line (CL2; CL22) which is offset with respect to the centre line of the clip receiving region in a second direction which is transverse to the first direction such that the clip contact surfaces are asymmetrically disposed relative to the hole. a base (110; 1010); clip contact surfaces (114; 1014) provided on upwardly-extending side faces of spaced-apart guide walls (111A, 111B; 1011A, 1011B) projecting from the base, the clip contact surfaces defining therebetween a clip receiving region (115; 1015) for receiving the railway rail fastening clip, the clip receiving region having a centre line (CL1; CL21) which extends in a first direction, and the clip contact surfaces being configured to contact the railway rail fastening clip so as to guide the railway rail fastening clip whilst the railway rail fastening clip is being driven in the first direction; and a hole (116; 1016) which extends through the base of the device between the guide walls for receiving the screw-threaded lower portion of the screwbolt (30'; 3); characterised in that the hole has a centre line (CL2; CL22) which is offset with respect to the centre line of the clip receiving region in a second direction which is transverse to the first direction such that the clip contact surfaces are asymmetrically disposed relative to the hole.
Electric switchboard terminal block having a body extending in a lengthwise longitudinal direction (X-X), widthwise transverse direction (Y-Y) and heightwise vertical direction (Z-Z), and comprising a front face and side flanks situated opposite each other in the longitudinal direction (X-X), each flank having a first seat for housing a label, and further comprising a recess suitable for insertion of one or more connecting jumpers, the recess being arranged in a central position in the longitudinal direction (X-X), open in the vertical direction (Z-Z) on the front face of the terminal block and open, on the opposite side, towards the inside of the terminal block, characterized in that said recess has at least one further seat (331;333) for housing at least one additional label, and in that said recess has a substantially trapezium-like vertical cross-section with a larger base open towards the front face and a smaller base open towards the inside of the terminal block; the recess also having opposite inclined faces (330a,330b) slanting from the outside toward the inside and from the flanks towards a central vertical axis (Z-Z).
A gas turbine engine seat system comprising a rotating member having an abrasive tip surface disposed in rub relationship to a stationary abradable seal surface, wherein said abrasive tip surface comprises an abrasive coating deposited onto at least a portion of the tip surface, wherein said abrasive coating comprises a metallic alloy matrix having ceramic abrasive particles at least partially embedded in said matrix and at least some of the ceramic abrasive particles projecting from said matrix; wherein said abradable seal surface comprises an abradable ceramic coating deposited onto at least a portion of the seal surface, wherein said ceramic coating is made from a ceramic powder comprising ceramic powder macroparticles, said ceramic powder macroparticles comprising a zirconia-based component and an (alumina + silica)-based component, wherein said ceramic powder macroparticles contain from 10 to 95 percent by weight of the zirconia-based component and 5 to 90 percent by weight of the (alumina + silica)-based component, and wherein the average particle size (diameter) of the ceramic powder macroparticles is from 10 to 150 microns; and wherein said gas turbine engine seal system has a tip-to-seal wear ratio of at least 1:10, preferably at least 1:20.
A biopolymer analysis method using a first thin membrane with multiple nanopores, the method comprising: a trap step of trapping a plurality of pieces of a biological polymer in the multiple nanopores; a trap information acquisition step of acquiring trap information by detecting whether or not a piece of the biological polymer has been trapped in each of the multiple nanopores and recording a result of the detection in the form of the trap information being true or false; a trap rate comparison step of comparing a trap rate that is the ratio of nanopores in which the plurality of pieces of the biological polymer have been trapped to the total number of the multiple nanopores with a preset threshold and, if the trap rate is not greater than the threshold, carrying out again the trap step; and an analysis step of analyzing characteristics of the biological polymer trapped in a nanopore where the trap information is true. a trap step of trapping a plurality of pieces of a biological polymer in the multiple nanopores; a trap information acquisition step of acquiring trap information by detecting whether or not a piece of the biological polymer has been trapped in each of the multiple nanopores and recording a result of the detection in the form of the trap information being true or false; a trap rate comparison step of comparing a trap rate that is the ratio of nanopores in which the plurality of pieces of the biological polymer have been trapped to the total number of the multiple nanopores with a preset threshold and, if the trap rate is not greater than the threshold, carrying out again the trap step; and an analysis step of analyzing characteristics of the biological polymer trapped in a nanopore where the trap information is true.
A method for use in a user equipment, UE, of managing a listen-before-talk, LBT, contention window size, the method comprising: receiving scheduling for a current burst of contiguous uplink subframes, the scheduling comprising, for each subframe of the burst of contiguous uplink subframes, an associated hybrid automatic repeat request, HARQ, process identifier and an associated new data indicator, NDI; determining a reference subframe based on a previously-scheduled burst of contiguous uplink subframes, the reference subframe associated with a reference HARQ process identifier; when the UE determines the HARQ process identifier associated with at least one of the subframes of the current scheduled burst of contiguous uplink subframes matches the reference HARQ process identifier and the associated NDI indicates new data, resetting the LBT contention window size to a minimum value; when the UE determines none of the HARQ process identifiers associated with the current scheduled burst of contiguous uplink subframes matches the reference HARQ process identifier, incrementing the LBT contention window size to a next value in a set of values associated with a priority class used by the UE to perform LBT prior to the determined reference subframe, wherein the priority class is chosen by the UE based on a type of traffic the UE intends to transmit in the current burst of contiguous uplink subframes; and performing an LBT procedure for the current scheduled burst of contiguous uplink subframes using the contention window size. receiving scheduling for a current burst of contiguous uplink subframes, the scheduling comprising, for each subframe of the burst of contiguous uplink subframes, an associated hybrid automatic repeat request, HARQ, process identifier and an associated new data indicator, NDI; determining a reference subframe based on a previously-scheduled burst of contiguous uplink subframes, the reference subframe associated with a reference HARQ process identifier; when the UE determines the HARQ process identifier associated with at least one of the subframes of the current scheduled burst of contiguous uplink subframes matches the reference HARQ process identifier and the associated NDI indicates new data, resetting the LBT contention window size to a minimum value; when the UE determines none of the HARQ process identifiers associated with the current scheduled burst of contiguous uplink subframes matches the reference HARQ process identifier, incrementing the LBT contention window size to a next value in a set of values associated with a priority class used by the UE to perform LBT prior to the determined reference subframe, wherein the priority class is chosen by the UE based on a type of traffic the UE intends to transmit in the current burst of contiguous uplink subframes; and performing an LBT procedure for the current scheduled burst of contiguous uplink subframes using the contention window size.
A method of making a catalyst for use in oligomerizing an olefin comprising a chromium-containing compound, a pyrrole-containing compound, a metal alkyl, a halide-containing compound, and optionally a solvent, the method comprising contacting a composition comprising the chromium-containing compound and a composition comprising the metal alkyl, wherein the composition comprising the chromium-containing compound is added to the composition comprising the metal alkyl, further comprising forming a pyrrole-chromium mixture by contacting the composition comprising the pyrrole-containing compound and the composition comprising the chromium-containing compound, wherein the composition comprising the pyrrole-containing compound and the composition comprising the chromium-containing compound are contacted at a variable pyrrole:Cr molar ratio to form the pyrrole-chromium mixture.
A method for manufacturing a piezoelectric transducer, comprising subsequent steps of: - forming, on a semiconductor body, a bottom electrode of conductive material; - forming, on the bottom electrode, a piezoelectric element; - forming, on the bottom electrode and the piezoelectric element, a first protective layer having a first opening through which a portion of said piezoelectric element is exposed, and a second opening through which a portion of said bottom electrode is exposed; - forming, on the first protective layer and within the first and second openings (44, 45), a conductive layer (48, 51, 52); and - patterning said conductive layer (48, 51, 52) to contextually form: a top electrode in electrical contact with the piezoelectric element at said first opening, a first biasing stripe in electrical contact with the top electrode, and a second biasing stripe in electrical contact with the bottom electrode at said second opening, wherein the piezoelectric element is of doped or undoped PZT, or of lead-free perovskite material. - forming, on a semiconductor body, a bottom electrode of conductive material; - forming, on the bottom electrode, a piezoelectric element; - forming, on the bottom electrode and the piezoelectric element, a first protective layer having a first opening through which a portion of said piezoelectric element is exposed, and a second opening through which a portion of said bottom electrode is exposed; - forming, on the first protective layer and within the first and second openings (44, 45), a conductive layer (48, 51, 52); and - patterning said conductive layer (48, 51, 52) to contextually form: a top electrode in electrical contact with the piezoelectric element at said first opening, a first biasing stripe in electrical contact with the top electrode, and a second biasing stripe in electrical contact with the bottom electrode at said second opening, wherein the piezoelectric element is of doped or undoped PZT, or of lead-free perovskite material. a top electrode in electrical contact with the piezoelectric element at said first opening, a first biasing stripe in electrical contact with the top electrode, and a second biasing stripe in electrical contact with the bottom electrode at said second opening, wherein the piezoelectric element is of doped or undoped PZT, or of lead-free perovskite material.