mhurhangee/patent-ind-claim-en huggingface dataset:
Method for changing mobile network, comprising the following steps: - detecting that it becomes necessary to hand over a communication in which a terminal participates from a first mobile network connected to an IP, Internet Protocol, network, to a second mobile network connected to the same IP network, - a first management centre belonging to said first mobile network transmitting, to a second management centre belonging to said second mobile network, the IMSI, International Mobile Subscriber Identity, identifier of said terminal, - said second management centre sending said IMSI identifier to the IP network, and - an access transfer control entity of the IP network receiving a request to change mobile network relating to said terminal and containing said IMSI identifier, the method further comprising a step of said access transfer control entity identifying the contact address of the terminal by means of the IMSI identifier, the method being characterized in that , during the registration of said terminal with said IP network, a registration server in charge of executing the session control services for the terminal obtained said IMSI identifier and forwarded it to said access transfer control entity. - detecting that it becomes necessary to hand over a communication in which a terminal participates from a first mobile network connected to an IP, Internet Protocol, network, to a second mobile network connected to the same IP network, - a first management centre belonging to said first mobile network transmitting, to a second management centre belonging to said second mobile network, the IMSI, International Mobile Subscriber Identity, identifier of said terminal, - said second management centre sending said IMSI identifier to the IP network, and - an access transfer control entity of the IP network receiving a request to change mobile network relating to said terminal and containing said IMSI identifier, the method further comprising a step of said access transfer control entity identifying the contact address of the terminal by means of the IMSI identifier, the method being characterized in that , during the registration of said terminal with said IP network, a registration server in charge of executing the session control services for the terminal obtained said IMSI identifier and forwarded it to said access transfer control entity.
A combined machining apparatus, wherein the combined machining apparatus comprises: a machining platform configured to place a workpiece ; a machining device including a body and a spindle mounted on the body , wherein the spindle is configured to selectively assemble a tool head or a feeding head ; and a laser spectroscopic device disposed at a side of the spindle and comprising: a laser splitting module configured to split a main laser into at least two laser beams ; and at least two laser outlets configured to output the laser beams to the workpiece , respectively; characterized in that the laser splitting module includes an incident lens configured to introduce the main laser, a laser splitting box configured to split the main laser into the laser beams , and at least two transmitting channels configured to guide the laser beams to the laser outlets , respectively; the laser spectroscopic device further includes two positioning modules connected to the transmitting channels , respectively, and configured to adjust a heat affected zone of each of the laser outlets ; wherein each of the positioning modules includes a telescopic portion and a rotating portion ; the telescopic portion is disposed on the corresponding transmitting channel , reciprocally moved, and configured to linearly adjust the heat affected zone of one of the laser outlets ; the rotating portion is pivoted on the telescopic portion , reciprocally rotated, and configured to rotatably adjust the heat affected zone of one of the laser outlets . a machining platform configured to place a workpiece ; a machining device including a body and a spindle mounted on the body , wherein the spindle is configured to selectively assemble a tool head or a feeding head ; and a laser spectroscopic device disposed at a side of the spindle and comprising: a laser splitting module configured to split a main laser into at least two laser beams ; and at least two laser outlets configured to output the laser beams to the workpiece , respectively; characterized in that the laser splitting module includes an incident lens configured to introduce the main laser, a laser splitting box configured to split the main laser into the laser beams , and at least two transmitting channels configured to guide the laser beams to the laser outlets , respectively; the laser spectroscopic device further includes two positioning modules connected to the transmitting channels , respectively, and configured to adjust a heat affected zone of each of the laser outlets ; wherein each of the positioning modules includes a telescopic portion and a rotating portion ; the telescopic portion is disposed on the corresponding transmitting channel , reciprocally moved, and configured to linearly adjust the heat affected zone of one of the laser outlets ; the rotating portion is pivoted on the telescopic portion , reciprocally rotated, and configured to rotatably adjust the heat affected zone of one of the laser outlets .
A supercontinuum source , comprising: a pump source ; and a supercontinuum generator configured for receiving electromagnetic radiation derived from the pump source and for generating supercontinuum radiation, the supercontinuum generator comprising a nonlinear microstructured optical fibre, wherein the nonlinear microstructured optical fibre comprises a core region and a cladding region, wherein the core region comprises silica and is loaded with hydrogen and/or deuterium, characterised in that at least a part of the core region of the microstructured optical fiber is co-doped with aluminium and fluorine, wherein the aluminium reduces light-induced non-bridging oxygen hole centre loss in the nonlinear microstructured optical fibre, and the fluorine compensates for at least part of the change in refractive index that would otherwise be caused by the presence of the aluminium. a pump source ; and a supercontinuum generator configured for receiving electromagnetic radiation derived from the pump source and for generating supercontinuum radiation, the supercontinuum generator comprising a nonlinear microstructured optical fibre, wherein the nonlinear microstructured optical fibre comprises a core region and a cladding region, wherein the core region comprises silica and is loaded with hydrogen and/or deuterium, characterised in that at least a part of the core region of the microstructured optical fiber is co-doped with aluminium and fluorine, wherein the aluminium reduces light-induced non-bridging oxygen hole centre loss in the nonlinear microstructured optical fibre, and the fluorine compensates for at least part of the change in refractive index that would otherwise be caused by the presence of the aluminium.
A system for resecting soft and osseous tissues, comprising: a device comprising: a first member , a motor drive unit , a motor shaft, and a second member arranged to move relative to the first member to treat tissue; wherein the second member is coupled to the motor shaft, wherein moving the motor shaft moves the second member relative to the first member , characterised in that the system further comprises a processor configured to run a position control algorithm, the position control algorithm configured to receive as an input shaft position of the motor drive unit and to control position of the second member relative to the first member , wherein controlling the position comprises computing acceleration and deceleration of the motor drive unit to move the second member between specified positions of a position profile in specified periods of time. a first member , a motor drive unit , a motor shaft, and a second member arranged to move relative to the first member to treat tissue; wherein the second member is coupled to the motor shaft, wherein moving the motor shaft moves the second member relative to the first member , characterised in that the system further comprises a processor configured to run a position control algorithm, the position control algorithm configured to receive as an input shaft position of the motor drive unit and to control position of the second member relative to the first member , wherein controlling the position comprises computing acceleration and deceleration of the motor drive unit to move the second member between specified positions of a position profile in specified periods of time.
A deflector sheave for an elevator system comprising: an outer sheave surface having a distance from a sheave axis that varies along a width of the deflector sheave and including a crown, the outer surface including: a first portion having a first coefficient of friction; characterized in the outer surface further including: one or more second portions having a second coefficient of friction less than the first coefficient of friction, the first portion configured to guide an elevator belt toward a lateral center of the outer surface; wherein the first portion is positioned at a center area of the outer sheave surface relative to the width of the deflector sheave. one or more second portions having a second coefficient of friction less than the first coefficient of friction, the first portion configured to guide an elevator belt toward a lateral center of the outer surface; wherein the first portion is positioned at a center area of the outer sheave surface relative to the width of the deflector sheave.
A method, comprising: receiving, at a network entity, a data flow packet from a packet data convergence protocol layer ; detecting, at the network entity, a requested quality of service level of a new data flow or an existing data flow ; wherein the detecting comprises receiving embedded in the data flow packet an indication of the quality of service level requested for the new or existing data flow retrieving, at the network entity, a parameter from a table, the parameter being linked to the requested quality of service level ; and using, at the network entity, the parameter to create a new radio link layer processing instance for the new data flow or to update an existing radio link layer processing instance for the existing data flow . receiving, at a network entity, a data flow packet from a packet data convergence protocol layer ; detecting, at the network entity, a requested quality of service level of a new data flow or an existing data flow ; wherein the detecting comprises receiving embedded in the data flow packet an indication of the quality of service level requested for the new or existing data flow retrieving, at the network entity, a parameter from a table, the parameter being linked to the requested quality of service level ; and using, at the network entity, the parameter to create a new radio link layer processing instance for the new data flow or to update an existing radio link layer processing instance for the existing data flow .
Execution environment for executing program code on a controller, having: - a function memory that is designed to store check functions; - a configuration memory that is designed to store execution requirements for check regions, wherein the configuration memory is protected by way of a manipulation detection module, and wherein the execution requirements are able to be configured in a configuration mode of the execution environment; - an execution unit , - wherein the check regions are at least one of - the program code, - at least a first portion of the program commands of the program code, - the execution environment and/or - the execution unit ; - wherein the check functions are assigned to the check regions by way of the execution requirements, - wherein the execution unit is designed to use the check functions to determine a test result that indicates whether the respective check region meets the execution requirements, - wherein the execution unit is designed to execute the respective program command and/or program code depending on the test result. - a function memory that is designed to store check functions; - a configuration memory that is designed to store execution requirements for check regions, wherein the configuration memory is protected by way of a manipulation detection module, and wherein the execution requirements are able to be configured in a configuration mode of the execution environment; wherein the configuration memory is protected by way of a manipulation detection module, and wherein the execution requirements are able to be configured in a configuration mode of the execution environment; - an execution unit , - wherein the check regions are at least one of - the program code, - at least a first portion of the program commands of the program code, - the execution environment and/or - the execution unit ; - the program code, - at least a first portion of the program commands of the program code, - the execution environment and/or - the execution unit ; - wherein the check functions are assigned to the check regions by way of the execution requirements, - wherein the execution unit is designed to use the check functions to determine a test result that indicates whether the respective check region meets the execution requirements, - wherein the execution unit is designed to execute the respective program command and/or program code depending on the test result.
A compound having the formula or a pharmaceutically acceptable salt thereof for use in the treatment of cancer.
A CRISPR/Cas9 recombinant vector for targeted knockout of S-RNase protein genes, characterized in that the nucleotide sequence of the S-RNase protein targeted by the CRISPR/Cas9 recombinant vector is the sequence shown in SEQ ID NO:2 (S p3 ), or a complementary sequence, a degenerate sequence, or a homologous sequence thereof; and/or the sequence shown in SEQ ID NO:3 (S p4 ), or a complement sequence, a degenerate sequence, or a homologous sequence thereof; wherein the nucleotide sequence in the CRISPR/Cas9 recombinant vector comprises: S-RNase P3 (i.e., Seq ID No:4): xxxxACGATTCACGGGCTTTGGC, and S-RNase P4 (i.e., Seq ID No:5): xxxxGCCAAAGCCCGTGAATCGT; wherein, in Seq ID No.4 and Seq ID No.5, xxxx is a cohesive end for ligation of the vector. S-RNase P3 (i.e., Seq ID No:4): xxxxACGATTCACGGGCTTTGGC, and S-RNase P4 (i.e., Seq ID No:5): xxxxGCCAAAGCCCGTGAATCGT; wherein, in Seq ID No.4 and Seq ID No.5, xxxx is a cohesive end for ligation of the vector.
An information processing apparatus comprising: an acquisition unit that acquires information related to a result of recognizing a real object in a real space; a buffer control unit that associates each of a plurality of mutually different buffers (105, B111, B113, B115) with one of a plurality of regions (R111, R113, R115) along a depth direction of a real space according to a distance of the regions to a position of a viewpoint as a point of origin; a drawing unit that draws, in each of the plurality of buffers, display information directly or indirectly associated with the buffer from among a plurality of pieces of display information; and a display control unit that corrects a display of the display information drawn in each of the plurality of buffers and to be presented positioned in the associated region on a basis of the result of recognizing the real object, and causes a predetermined output unit to present each piece of the display information whose display has been corrected according to a positional relationship with the real object. an acquisition unit that acquires information related to a result of recognizing a real object in a real space; a buffer control unit that associates each of a plurality of mutually different buffers (105, B111, B113, B115) with one of a plurality of regions (R111, R113, R115) along a depth direction of a real space according to a distance of the regions to a position of a viewpoint as a point of origin; a drawing unit that draws, in each of the plurality of buffers, display information directly or indirectly associated with the buffer from among a plurality of pieces of display information; and a display control unit that corrects a display of the display information drawn in each of the plurality of buffers and to be presented positioned in the associated region on a basis of the result of recognizing the real object, and causes a predetermined output unit to present each piece of the display information whose display has been corrected according to a positional relationship with the real object.
An absorbent core composite for a disposable absorbent article, comprising: a first fabric; a body side second fabric; and a plurality of aggregates of superabsorbent particles (SAP) situated between said first and second fabric, wherein said SAP aggregates are free of an absorbent matrix; wherein, about each of a plurality of said SAP aggregates, an arrangement of spaced apart bond sites secure the second fabric to the first fabric and form a pocket in which the SAP aggregate is secured between the first fabric and the second fabric; wherein spaced apart bond sites about said SAP aggregates provide gaps between bond sites that communicate one of said pockets with an adjacent said pocket; wherein said body side second fabric is a bulky nonwoven, wherein the bulky nonwoven is an open fibrous network including fibers entangling at least some particles in said SAP aggregate; and wherein said bulky nonwoven second fabric has a thickness between 1,000μm to 5,000μm, basis weight between 20g/m2 and 80g/m2, density between 0.01g/cc and 0.08g/cc, and effective pore diameter greater than 300μm as determined in accordance with the equation: effective pore diameter = 4 x (1 - solid volume fraction) / (solid volume fraction x solid density x solid specific surface area, and the method provided in the description. a first fabric; a body side second fabric; and a plurality of aggregates of superabsorbent particles (SAP) situated between said first and second fabric, wherein said SAP aggregates are free of an absorbent matrix; wherein, about each of a plurality of said SAP aggregates, an arrangement of spaced apart bond sites secure the second fabric to the first fabric and form a pocket in which the SAP aggregate is secured between the first fabric and the second fabric; wherein spaced apart bond sites about said SAP aggregates provide gaps between bond sites that communicate one of said pockets with an adjacent said pocket; wherein said body side second fabric is a bulky nonwoven, wherein the bulky nonwoven is an open fibrous network including fibers entangling at least some particles in said SAP aggregate; and wherein said bulky nonwoven second fabric has a thickness between 1,000μm to 5,000μm, basis weight between 20g/m2 and 80g/m2, density between 0.01g/cc and 0.08g/cc, and effective pore diameter greater than 300μm as determined in accordance with the equation: effective pore diameter = 4 x (1 - solid volume fraction) / (solid volume fraction x solid density x solid specific surface area, and the method provided in the description.
A gas turbine engine comprising: a propulsor assembly including at least a fan module comprising a fan and a fan drive turbine module comprising a low pressure turbine ; a gas generator assembly including at least a compressor section comprising a high pressure compressor driven by an outer shaft and a low pressure compressor driven by an inner shaft , a combustor in fluid communication with the compressor section , a high pressure turbine in fluid communication with the combustor and driving said outer shaft , a diffuser case, a mid-turbine frame , bearing systems , said inner shaft connecting the fan and low pressure compressor to the low pressure turbine , a tower shaft and external components; and a geared architecture driven by the fan drive turbine module for rotating the fan , the geared architecture having a bearing compartment front wall supporting the fan , the fan module including the bearing compartment front wall but no other portions of the geared architecture , characterised in that : a weight of the fan module and the fan drive turbine module is from 28 to 34 percent of a total weight of the gas turbine engine . a propulsor assembly including at least a fan module comprising a fan and a fan drive turbine module comprising a low pressure turbine ; a gas generator assembly including at least a compressor section comprising a high pressure compressor driven by an outer shaft and a low pressure compressor driven by an inner shaft , a combustor in fluid communication with the compressor section , a high pressure turbine in fluid communication with the combustor and driving said outer shaft , a diffuser case, a mid-turbine frame , bearing systems , said inner shaft connecting the fan and low pressure compressor to the low pressure turbine , a tower shaft and external components; and a geared architecture driven by the fan drive turbine module for rotating the fan , the geared architecture having a bearing compartment front wall supporting the fan , the fan module including the bearing compartment front wall but no other portions of the geared architecture ,
A gas turbine engine comprising a plurality of outlet guide vanes each having a length extending across a bypass duct of the gas turbine engine , wherein: for each outlet guide vane a minimum thickness to chord ratio is less than 80% of a maximum thickness to chord ratio; characterised in that : the thickness to chord ratio at a root of each guide vane, at an inner surface of the bypass duct, is between 0.06 and 0.08
A containment assembly (I) intended to equip a risky room , in order to allow safe interventions in this room, this containment assembly comprising • an airlock equipped with two passages , as well as two closures, in particular of the slide type , movable between a closing position of each passage as well as an opening position of each passage; • a skirt secured to the airlock, this skirt defining a contained tunnel emerging into one of the two passages; • bearing means of the skirt on a partition of the room, in particular on the periphery of a frame of an access door to this room; this assembly being characterized in that it further comprises • means for extracting contaminated air, present in said room, through a lateral wall of the skirt, so as to place the volume of the room in depression relative to the tunnel; • means for controlled admission of air into said room, which are capable of admitting air into this room when the value of said depression is greater than a predetermined threshold. • an airlock equipped with two passages , as well as two closures, in particular of the slide type , movable between a closing position of each passage as well as an opening position of each passage; • a skirt secured to the airlock, this skirt defining a contained tunnel emerging into one of the two passages; • bearing means of the skirt on a partition of the room, in particular on the periphery of a frame of an access door to this room; this assembly being characterized in that it further comprises • means for extracting contaminated air, present in said room, through a lateral wall of the skirt, so as to place the volume of the room in depression relative to the tunnel; • means for controlled admission of air into said room, which are capable of admitting air into this room when the value of said depression is greater than a predetermined threshold.