mhurhangee/patent-ind-claim-en huggingface dataset:
Rubber composition based on at least one elastomer, a reinforcing inorganic filler, an agent for coupling the elastomer to the reinforcing inorganic filler, and a crosslinking system; said reinforcing inorganic filler comprising at least one silica S having: - a CTAB specific surface area S CTAB within a range extending from 40 to 300 m 2 /g; - a difference between the BET specific surface area S BET and the CTAB specific surface area S CTAB of greater than or equal to 35 m 2 /g; - an aluminium content W Al within a range extending from 0.5 to 7.0% by weight relative to the weight of the silica S; - a width of the aggregate size distribution Ld, measured by centrifugal sedimentation, of greater than or equal to 1.5; and - a median aggregate diameter d50, measured by centrifugal sedimentation, such that for a given value of CTAB specific surface area S CTAB and a given aluminium content W Al , a magnitude A is defined by the following equation (I): A = d 50 + 0.782 × S CTAB − 8.524 × W Al in which: [d50] is the numerical value of d50, expressed in nm; [S CTAB ] is the numerical value of S CTAB , expressed in m 2 /g; [W Al ] is the numerical value of W Al , expressed in % by weight relative to the weight of the silica S; and said magnitude A satisfies the relationship (II): A ≥ 253 - a CTAB specific surface area S CTAB within a range extending from 40 to 300 m 2 /g; - a difference between the BET specific surface area S BET and the CTAB specific surface area S CTAB of greater than or equal to 35 m 2 /g; - an aluminium content W Al within a range extending from 0.5 to 7.0% by weight relative to the weight of the silica S; - a width of the aggregate size distribution Ld, measured by centrifugal sedimentation, of greater than or equal to 1.5; and - a median aggregate diameter d50, measured by centrifugal sedimentation, such that for a given value of CTAB specific surface area S CTAB and a given aluminium content W Al , a magnitude A is defined by the following equation (I): A = d 50 + 0.782 × S CTAB − 8.524 × W Al in which: [d50] is the numerical value of d50, expressed in nm; [S CTAB ] is the numerical value of S CTAB , expressed in m 2 /g; [W Al ] is the numerical value of W Al , expressed in % by weight relative to the weight of the silica S; and said magnitude A satisfies the relationship (II): A ≥ 253 [d50] is the numerical value of d50, expressed in nm; [S CTAB ] is the numerical value of S CTAB , expressed in m 2 /g; [W Al ] is the numerical value of W Al , expressed in % by weight relative to the weight of the silica S; and
A walking assistance apparatus comprising: a frame configured to mount on a lower leg of a user; a sole support connected to the frame , the sole support configured to support a sole of a foot of the user; a pusher configured to move relative to the frame to push a ground in response to power transferred thereto; an actuator on the frame , the actuator configured to transfer the power to the pusher ; and a toe support configured to support a toe of the user, characterized in that the pusher is connected to the toe support and configured to move the toe support relative to the sole support . a frame configured to mount on a lower leg of a user; a sole support connected to the frame , the sole support configured to support a sole of a foot of the user; a pusher configured to move relative to the frame to push a ground in response to power transferred thereto; an actuator on the frame , the actuator configured to transfer the power to the pusher ; and a toe support configured to support a toe of the user, characterized in that the pusher is connected to the toe support and configured to move the toe support relative to the sole support .
A pretreatment method of detecting a nucleic acid of a virus, the method comprising: mixing a sample stored in a pretreatment solution with a nucleic acid releasing agent and a qPCR amplification reagent, wherein the pretreatment solution comprises Tris-HCl, EDTA-2Na, sodium chloride, a ribonuclease (RNase) inhibitor, and an antibiotic; wherein the concentration of Tris-HCl is 10 mM to 200 mM, the concentration of EDTA-2Na is 8 mM to 50 mM, the concentration of sodium chloride is 0.5% (w/v) to 2% (w/v), the concentration of the RNase inhibitor is 2 U/mL to 800 U/mL, and the concentration of the antibiotic is 0.005% to 0.05% in the pretreatment solution; and wherein the pretreatment solution has a pH of 6.5-8.0. mixing a sample stored in a pretreatment solution with a nucleic acid releasing agent and a qPCR amplification reagent, wherein the pretreatment solution comprises Tris-HCl, EDTA-2Na, sodium chloride, a ribonuclease (RNase) inhibitor, and an antibiotic; wherein the concentration of Tris-HCl is 10 mM to 200 mM, the concentration of EDTA-2Na is 8 mM to 50 mM, the concentration of sodium chloride is 0.5% (w/v) to 2% (w/v), the concentration of the RNase inhibitor is 2 U/mL to 800 U/mL, and the concentration of the antibiotic is 0.005% to 0.05% in the pretreatment solution; and wherein the pretreatment solution has a pH of 6.5-8.0.
A method for managing roaming information in a communications system, the method comprising receiving , in a first network apparatus from a data collection function, data related to a network transaction; filtering the received data to obtain roaming data; regarding the obtained roaming data, identifying a peer network operator in the corresponding network transaction; forwarding the obtained roaming data to a respective second network apparatus managed by the identified peer network operator, wherein the first network apparatus is managed by a network operator different from the identified peer network operator; wherein the method comprises using roaming data content awareness to route the roaming data to the network operators involved in a roaming scenario; and wherein the peer network operator relates to a home network or to a visited network.
Method for unloading, transporting and installing a railway track, characterized in that it comprises the following steps: a) tying by slings two rails located in a rail-carrying train to a crane of a wagon for unloading and laying the railway tracks , b) pulling said rails with the crane of the unloading wagon , to move them on each of the openings of said unloading wagon , which serve as a guide for the rails, until the most advanced end of the rails reaches the openings furthest away from the rail-carrying train, c) changing the rail ties from the crane of said unloading wagon to 2. a puller machine for unloading and placing railway tracks, d) pulling said rails with the puller machine , and moving the pulling machine longitudinally away from the unloading wagon , and as the rails advance transport elements are moved from said unloading wagon on the already assembled track wherein said transport elements are inserted under the rails supporting their weight and enabling their transport, e) once the assembled track is finished, said rails go through a transfer element located at the end of said assembled track to sliding elements located along the sleepers where the unloaded rails will be placed, f) recovering the sliding elements on which the rails are supported with the help of a crane of said puller machine and leave said rails resting on the sleepers in their final position, and g) returning, said puller machine , to the unloading wagon , where, after passing the transfer element , it pushes the transport elements to said unloading wagon where the steps can be repeated with a next pair of rails. a) tying by slings two rails located in a rail-carrying train to a crane of a wagon for unloading and laying the railway tracks , b) pulling said rails with the crane of the unloading wagon , to move them on each of the openings of said unloading wagon , which serve as a guide for the rails, until the most advanced end of the rails reaches the openings furthest away from the rail-carrying train, c) changing the rail ties from the crane of said unloading wagon to 2. a puller machine for unloading and placing railway tracks, d) pulling said rails with the puller machine , and moving the pulling machine longitudinally away from the unloading wagon , and as the rails advance transport elements are moved from said unloading wagon on the already assembled track wherein said transport elements are inserted under the rails supporting their weight and enabling their transport, e) once the assembled track is finished, said rails go through a transfer element located at the end of said assembled track to sliding elements located along the sleepers where the unloaded rails will be placed, f) recovering the sliding elements on which the rails are supported with the help of a crane of said puller machine and leave said rails resting on the sleepers in their final position, and g) returning, said puller machine , to the unloading wagon , where, after passing the transfer element , it pushes the transport elements to said unloading wagon where the steps can be repeated with a next pair of rails.
Device for transferring products , which comprises, on the one hand, a means for feeding said products , which moves them one behind the other in a feed direction , and, on the other hand, an output conveyor , extending from the feed means , transversely to the feed direction , the transfer device comprising, furthermore, a tool able to rotate about a rotation axis parallel to the feed direction , said tool having collectors distributed radially around said axis and being able to move in translation parallel to the feed direction and said output conveyor extending in an output direction perpendicular to the feed direction , and characterized in that said tool is movable in the output direction .
A method of spreading fibres, the method comprising providing a continuous fibre bundle having an initial width W a and causing the fibre bundle to run, in a running direction, through tensioning means and past or through fluid flow means , the tensioning means intermittently varying the tension in the fibre bundle and the fluid flow means producing a fluid flow through the fibre bundle as the tension varies in the fibre bundle , whereby the width of the fibre bundle increases to a spread width W b , and comprising causing or providing a ratio of spread width W b to the initial width W a of between 6:1 and 20:1, wherein the fluid flow means is located downstream of the tensioning means , the fluid flow means comprises a housing and a retention member located within the housing , wherein the retention member is configured to retain the fibre bundle within the housing as it runs in the running direction.
A system , comprising: a stretching device , the stretching device comprising: an inflatable component affixed to a moveable platform , wherein the inflatable component is configured to apply force against a limb of a user placed thereon; a pressure plate mounted on the moveable platform comprising a plurality of sensors that are configured to measure a force that is applied to the pressure plate ; a support supporting the stretching device , the stretching device being adjustably coupled to the support in such a way that the stretching device can be positionally adjusted along the support and fixed in a desired location; and a first control mechanism enabling a user to control the degree of inflation of the inflatable component ; and a biofeedback component configured to provide contemporaneous biological information to the user, wherein the biofeedback component includes one or more user modules coupled to the user and one or more stretching device modules coupled to the stretching device . a stretching device , the stretching device comprising: an inflatable component affixed to a moveable platform , wherein the inflatable component is configured to apply force against a limb of a user placed thereon; a pressure plate mounted on the moveable platform comprising a plurality of sensors that are configured to measure a force that is applied to the pressure plate ; an inflatable component affixed to a moveable platform , wherein the inflatable component is configured to apply force against a limb of a user placed thereon; a pressure plate mounted on the moveable platform comprising a plurality of sensors that are configured to measure a force that is applied to the pressure plate ; a support supporting the stretching device , the stretching device being adjustably coupled to the support in such a way that the stretching device can be positionally adjusted along the support and fixed in a desired location; and a first control mechanism enabling a user to control the degree of inflation of the inflatable component ; and a biofeedback component configured to provide contemporaneous biological information to the user, wherein the biofeedback component includes one or more user modules coupled to the user and one or more stretching device modules coupled to the stretching device .
A network device in a network comprising a plurality of network devices, the network device comprising: processing circuitry configured to: receive packet data corresponding to a network flow originating at a first device, the packet data destined to a second device; generate an entropy label to add to a label stack of the packet data, wherein the entropy label is generated from one or more attributes corresponding to the network flow that originated at the first device and is destined to the second device; generate a flow record including the entropy label, wherein the entropy label identifies the network flow amongst a plurality of network flows in the network; send , to a controller of the network, the flow record, wherein the flow record is configured to enable the controller to identify the flow record based on the entropy label corresponding to the network flow originating at the first device and is destined to the second device; wherein the processing circuitry is further configured to send, to the controller of the network, the one or more attributes used to generate the entropy label. receive packet data corresponding to a network flow originating at a first device, the packet data destined to a second device; generate an entropy label to add to a label stack of the packet data, wherein the entropy label is generated from one or more attributes corresponding to the network flow that originated at the first device and is destined to the second device; generate a flow record including the entropy label, wherein the entropy label identifies the network flow amongst a plurality of network flows in the network; send , to a controller of the network, the flow record, wherein the flow record is configured to enable the controller to identify the flow record based on the entropy label corresponding to the network flow originating at the first device and is destined to the second device; wherein the processing circuitry is further configured to send, to the controller of the network, the one or more attributes used to generate the entropy label.
A conformable matrix display device, comprising - a conformable carrier; - a matrix of pixel circuits on the conformable carrier, each pixel circuit comprising - a first and second supply voltage input; - a light intensity control circuit coupled between the first and second supply voltage input; - a data signal input ; - a data signal storage element coupled to a control input of the light intensity control circuit ; - a de-multiplexing circuit coupled between the data signal input and the data signal storage element ; - a selection input coupled to a control input of the de-multiplexing circuit ; - row conductors on the conformable carrier, each for a respective row of the matrix of pixel circuits , each row conductor having serpentine trajectories in spaces between the pixel circuits in the respective row, each of said row conductors connected to both the first supply voltage inputs and selection inputs of the pixel circuits in the respective row; wherein - each pixel circuit has a pulse transmission circuit coupled between the selection input and the control input of the de-multiplexing circuit , configured to cause the de-multiplexing circuit to transfer a data signal from the data signal input to the data signal storage element in response to a pulse superimposed on a first supply voltage on the row conductor coupled to the first supply voltage input. - a conformable carrier; - a matrix of pixel circuits on the conformable carrier, each pixel circuit comprising - a first and second supply voltage input; - a light intensity control circuit coupled between the first and second supply voltage input; - a data signal input ; - a data signal storage element coupled to a control input of the light intensity control circuit ; - a de-multiplexing circuit coupled between the data signal input and the data signal storage element ; - a selection input coupled to a control input of the de-multiplexing circuit ; - row conductors on the conformable carrier, each for a respective row of the matrix of pixel circuits , each row conductor having serpentine trajectories in spaces between the pixel circuits in the respective row, each of said row conductors connected to both the first supply voltage inputs and selection inputs of the pixel circuits in the respective row; wherein - each pixel circuit has a pulse transmission circuit coupled between the selection input and the control input of the de-multiplexing circuit , configured to cause the de-multiplexing circuit to transfer a data signal from the data signal input to the data signal storage element in response to a pulse superimposed on a first supply voltage on the row conductor coupled to the first supply voltage input.
Gas cooking oven, comprising at least one cavity with a burner associated therewith for the heating thereof, wherein the burner is of the blown type, wherein a gaseous combustible mixture is fed by fan means , the burner comprising a radiating element ; the gas cooking oven comprising a plate substantially transparent to radiations in the infrared range, which is associated with the burner , thereby allowing irradiation into the cavity , and characterized in that it further comprises an infrared sensor which is located below the plate and near a radiating plate of the burner , in particular near a radiating plate of the radiating element of the burner , and which is positioned so that its radiation is oriented towards the bottom of a pot.
A method, comprising: selecting a plurality of potential destinations of a traffic flow, each of the destinations for accessing an instance of a third party network resource in a second network domain outside of a first network domain ; determining a plurality of paths from an origin of the traffic flow to the destinations, each path of the plurality of paths including a first network domain path through the first network domain and a second network domain path through the second network domain; for each path of the plurality of paths, combining a first performance score for the first network domain path with a second performance score for the second network domain path; selecting a first path of the plurality of paths with a best combined first and second performance score, wherein the first path has a destination of a first server for accessing a first instance of the third party network resource ; selecting a second path of the plurality of paths as a backup path; routing the traffic flow along the first path to the first server for accessing the first instance of the third party network resource ; determining that the combined first and second performance score for the first path is below a threshold; and rerouting the traffic flow along the backup path. selecting a plurality of potential destinations of a traffic flow, each of the destinations for accessing an instance of a third party network resource in a second network domain outside of a first network domain ; determining a plurality of paths from an origin of the traffic flow to the destinations, each path of the plurality of paths including a first network domain path through the first network domain and a second network domain path through the second network domain; for each path of the plurality of paths, combining a first performance score for the first network domain path with a second performance score for the second network domain path; selecting a first path of the plurality of paths with a best combined first and second performance score, wherein the first path has a destination of a first server for accessing a first instance of the third party network resource ; selecting a second path of the plurality of paths as a backup path; routing the traffic flow along the first path to the first server for accessing the first instance of the third party network resource ; determining that the combined first and second performance score for the first path is below a threshold; and rerouting the traffic flow along the backup path.
A vibrating demolition apparatus comprising a frame which can be associated with the movable arm of an excavator, a unidirectional vibrating assembly adapted to impart an alternating translational motion along a work axis (L), related retention means interposed between said frame and said vibrating assembly , and at least one work tool which is associated with said vibrating assembly and protrudes from said frame along said work axis (L), wherein said retention means comprise at least one first connecting assembly adapted to allow an alternating translational motion in a direction that is substantially parallel to said work axis (L) and to hinder translations along directions that are incident to said work axis (L) characterized in that said at least one first connecting assembly comprises at least one sliding guide arranged substantially parallel to said work axis (L) and a movable element associated with alternating sliding along said at least one sliding guide .
A headrest , comprising: an affixed-side member which is arranged at a headrest pillar ; a movable-side member which is connected to the affixed-side member via a moving mechanism and which moves in front and back directions with respect to the affixed-side member ; and a front-back locking mechanism including a to-be-engaged unit and a lock member which engages with the to-be-engaged unit , the front-back locking mechanism locking and unlocking movement of the movable-side member in the front and back directions, wherein the movable-side member includes a front cover which supports a head, and the to-be-engaged unit is attached on a back surface of the front cover , a plurality of the to-be-engaged units are provided, the to-be-engaged units include a plurality of teeth which are arranged in front and back directions, and the to-be-engaged units are projected toward the affixed-side member from the back surface of the front cover . an affixed-side member which is arranged at a headrest pillar ; a movable-side member which is connected to the affixed-side member via a moving mechanism and which moves in front and back directions with respect to the affixed-side member ; and a front-back locking mechanism including a to-be-engaged unit and a lock member which engages with the to-be-engaged unit , the front-back locking mechanism locking and unlocking movement of the movable-side member in the front and back directions, wherein the movable-side member includes a front cover which supports a head, and the to-be-engaged unit is attached on a back surface of the front cover , a plurality of the to-be-engaged units are provided, the to-be-engaged units include a plurality of teeth which are arranged in front and back directions, and the to-be-engaged units are projected toward the affixed-side member from the back surface of the front cover .