mhurhangee/ep-ind-claims huggingface dataset:
A method of automatically distributing and configuring a Service Instance Identifier, I-SID, in the data plane of a Generalized Multiprotocol Label Switching, GMPLS, controlled Provider Backbone Bridged Network, PBBN, the method comprising the steps of: identifying a specific I-SID for a specific service in the data plane of the GMPLS controlled PBBN; automatically distributing and configuring the identified I-SID within a Backbone Edge Bridge, BEB, with a Resource Reservation Protocol-Traffic Engineering, RSVP-TE, extension, wherein the step of automatically configuring the identified I-SID includes carrying the I-SID in an Endpoint ID Type-Length-Value, TLV (240, 250), of a session object or in a new TLV in a LSP_ATTRIBUTES or CALL_ATTRIBUTES object; and mapping the I-SID to a Short Call ID field (212, 302) in a session object, wherein the I-SID is mapped to a 16 bit Short Call ID field, and wherein the I-SID is split into an originator BEB ID and a Service Differentiator. identifying a specific I-SID for a specific service in the data plane of the GMPLS controlled PBBN; automatically distributing and configuring the identified I-SID within a Backbone Edge Bridge, BEB, with a Resource Reservation Protocol-Traffic Engineering, RSVP-TE, extension, wherein the step of automatically configuring the identified I-SID includes carrying the I-SID in an Endpoint ID Type-Length-Value, TLV (240, 250), of a session object or in a new TLV in a LSP_ATTRIBUTES or CALL_ATTRIBUTES object; and mapping the I-SID to a Short Call ID field (212, 302) in a session object, wherein the I-SID is mapped to a 16 bit Short Call ID field, and wherein the I-SID is split into an originator BEB ID and a Service Differentiator.
An oral care composition comprising: a) from 5 to 80% by weight of calcium silicate; b) from 0.4% to 2% by weight of xanthan gum; c) a benefit agent; and d) a physiologically acceptable carrier; wherein the benefit agent is selected from coloring agents, biomineralization agents, antibacterial agents or mixtures thereof and wherein the biomineralization agents is amorphous calcium phosphate, α-tricalcium phosphate, β-tricalcium phosphate; calcium carbonate, calcium deficient hydroxyapatite (Ca 9 (HPO 4)(PO 4) 5 OH), dicalcium phosphate (CaHPO 4), dicalcium phosphate dehydrate (CaHPO 4 ·2H 2 O), hydroxyapatite (Ca 10 (PO 4) 6 2), monocalcium phosphate monohydrate (Ca(H 2 PO 4) 2 ·H 2 O), octacalcium phosphate (Ca 8 H 2 (PO 4) 6 ·5H 2 O) and tetracalcium phosphate (Ca 4 (PO 4) 2 O) or mixtures thereof. a) from 5 to 80% by weight of calcium silicate; b) from 0.4% to 2% by weight of xanthan gum; c) a benefit agent; and d) a physiologically acceptable carrier; wherein the benefit agent is selected from coloring agents, biomineralization agents, antibacterial agents or mixtures thereof and wherein the biomineralization agents is amorphous calcium phosphate, α-tricalcium phosphate, β-tricalcium phosphate; calcium carbonate, calcium deficient hydroxyapatite (Ca 9 (HPO 4)(PO 4) 5 OH), dicalcium phosphate (CaHPO 4), dicalcium phosphate dehydrate (CaHPO 4 ·2H 2 O), hydroxyapatite (Ca 10 (PO 4) 6 2), monocalcium phosphate monohydrate (Ca(H 2 PO 4) 2 ·H 2 O), octacalcium phosphate (Ca 8 H 2 (PO 4) 6 ·5H 2 O) and tetracalcium phosphate (Ca 4 (PO 4) 2 O) or mixtures thereof.
A bearing assembly, comprising: an inner ring comprising an inner ring raceway; an outer ring comprising an outer ring raceway; rolling elements configured to roll or rotate between the inner ring raceway and the outer ring raceway; and at least one electrically conductive part with a first end and a second end, a seal between the at least one electrically conductive part and the rolling elements, wherein; the first end comprises first electrically conductive brush filaments configured to electrically contact the inner ring, and the second end comprises second electrically conductive brush filaments configured to electrically contact the outer ring. an inner ring comprising an inner ring raceway; an outer ring comprising an outer ring raceway; rolling elements configured to roll or rotate between the inner ring raceway and the outer ring raceway; and at least one electrically conductive part with a first end and a second end, a seal between the at least one electrically conductive part and the rolling elements, wherein; the first end comprises first electrically conductive brush filaments configured to electrically contact the inner ring, and the second end comprises second electrically conductive brush filaments configured to electrically contact the outer ring.
A hydrogel comprising a particle physically entrapped within a hydrogel matrix, the particle comprising an active material and a plurality of chains of a first polymeric material, each of the chains of the first polymeric material having a first end and a second end, wherein: • the active material and the first ends of the chains form a core; • the second ends of the chains extend outwardly away from the core to form a shell; and • the hydrogel matrix comprises chains of a second polymeric material in the form of a three dimensional cross-linked network, and wherein the active material comprises a luminescent metal complex or a non-protein organic fluorophore. • the active material and the first ends of the chains form a core; • the second ends of the chains extend outwardly away from the core to form a shell; and • the hydrogel matrix comprises chains of a second polymeric material in the form of a three dimensional cross-linked network, and
An actuation device comprising: a plurality of spatially distributed actuators, each actuator configured for interacting with a biological skin surface; a wireless power system to power the plurality of spatially distributed actuators; and characterized by a wireless controller configured to receive operative command signals to control each of the plurality of spatially distributed actuators by electrically energizing a single actuator at a time with the other actuators in an off-state and cycling through all of the plurality of spatially distributed actuators, wherein the wireless controller is a near field communication, NFC, chip having a plurality of outputs, with each output electronically connected to an individual actuator; switches independently controlled by the wireless controller, each switch electronically positioned between the NFC chip output and the individual actuator to provide the individual actuator with electrical energization at a switching frequency, wherein the switching frequency between actuators is faster than a mechanoreceptor reaction time for a mechanoreceptor that is positioned beneath the actuators during use, so that a simultaneous actuation of all the plurality of spatially distributed actuators is experienced by a user to whom the actuation device interfaces. a plurality of spatially distributed actuators, each actuator configured for interacting with a biological skin surface; a wireless power system to power the plurality of spatially distributed actuators; and characterized by a wireless controller configured to receive operative command signals to control each of the plurality of spatially distributed actuators by electrically energizing a single actuator at a time with the other actuators in an off-state and cycling through all of the plurality of spatially distributed actuators, wherein the wireless controller is a near field communication, NFC, chip having a plurality of outputs, with each output electronically connected to an individual actuator; switches independently controlled by the wireless controller, each switch electronically positioned between the NFC chip output and the individual actuator to provide the individual actuator with electrical energization at a switching frequency, wherein the switching frequency between actuators is faster than a mechanoreceptor reaction time for a mechanoreceptor that is positioned beneath the actuators during use, so that a simultaneous actuation of all the plurality of spatially distributed actuators is experienced by a user to whom the actuation device interfaces.
A process for generating a metal sulfate, the process comprising: crystallizing (106, 206) a metal sulfate from an aqueous solution to form a crystallized metal sulfate in a mother liquor, the mother liquor comprising an uncrystallized metal sulfate; separating the crystallized metal sulfate from the mother liquor; basifying (110, 210) a portion of the mother liquor to convert the uncrystallized metal sulfate to a basic metal salt; and using the basic metal salt upstream of crystallizing the metal sulfate, further comprising isolating the basic metal salt from the mother liquor. crystallizing (106, 206) a metal sulfate from an aqueous solution to form a crystallized metal sulfate in a mother liquor, the mother liquor comprising an uncrystallized metal sulfate; separating the crystallized metal sulfate from the mother liquor; basifying (110, 210) a portion of the mother liquor to convert the uncrystallized metal sulfate to a basic metal salt; and using the basic metal salt upstream of crystallizing the metal sulfate, further comprising isolating the basic metal salt from the mother liquor.
Computer implemented method for rendering at least partially an image of a three-dimensional scene on an image plane by encoding at least a luminosity in the image plane by a luminosity function defined on the image plane, wherein the value of the luminosity can be computed at substantially each point of the image plane by using a set of stored input data describing the scene at least in part, wherein said method comprises at least the steps of: a) constructing the luminosity function in at least a region of the image plane as equivalent to a first linear combination involving the functions of at least a subset of a first set of functions defined on the image plane; b) computing the value of the coefficients of the first linear combination, by solving a first linear system obtained by imposing the value of a second linear combination at each point of at least a subset of the first subset of the image plane to be substantially equal to the value of the luminosity at said point, wherein the second linear combination involves at least the terms of the first linear combination; c) storing the value of the coefficients of the second linear combination, which are comprised in the first linear combination and at least the information needed to associate each coefficient of the first linear combination to a corresponding function of the first set of functions, which is the function multiplying said coefficient in the first linear combination, wherein the first set comprises each function of a second set of functions satisfying a selection condition associated to said function, wherein the selection condition associated to said function depends at least on said function and on the set of stored input data; and wherein the points of the first subset are distributed according to a first distribution criterion, wherein the first distribution criterion depends on at least the location of the support of at least some of the elements of the first set of functions on the image plane. a) constructing the luminosity function in at least a region of the image plane as equivalent to a first linear combination involving the functions of at least a subset of a first set of functions defined on the image plane; b) computing the value of the coefficients of the first linear combination, by solving a first linear system obtained by imposing the value of a second linear combination at each point of at least a subset of the first subset of the image plane to be substantially equal to the value of the luminosity at said point, wherein the second linear combination involves at least the terms of the first linear combination; c) storing the value of the coefficients of the second linear combination, which are comprised in the first linear combination and at least the information needed to associate each coefficient of the first linear combination to a corresponding function of the first set of functions, which is the function multiplying said coefficient in the first linear combination,
A bar of noble metal or an alloy containing a noble metal, having a mass mB, characterized in that said bar is subdivided into n x m miniature bars (2, 3) each having a specified mass mk, n and m each denoting an integer ≥ 2, and that an interconnection of solid material is provided between the directly adjacent miniature bars (2, 3) said interconnection of solid material being part of a tapered depression formed in said bar and that said interconnection of solid material has a break point in the deepest region of said depression(5,5') and has a thickness enabling manual break-off thereof, the said break point having in the region of said solid material an aperture angle of 10° to 60°.
An apparatus comprising: means for receiving, from a network node, a configuration for a plurality of uplink resources and a set of uplink transmit, Tx, beams and for multiple periodic or semi-persistent sounding reference signal resources; means for determining autonomously an uplink transmit, Tx, beam from the set of uplink Tx beams; means for determining an uplink data resource from the plurality of uplink resources and an uplink sounding reference signal resource; and means for transmitting a sounding reference signal on the determined uplink sounding reference signal resource of said multiple periodic or semi-persistent sounding reference signal resources to indicate, to the network node, the uplink Tx beam and/or the determined uplink data resource that the apparatus intends to use for uplink data transmission. means for receiving, from a network node, a configuration for a plurality of uplink resources and a set of uplink transmit, Tx, beams and for multiple periodic or semi-persistent sounding reference signal resources; means for determining autonomously an uplink transmit, Tx, beam from the set of uplink Tx beams; means for determining an uplink data resource from the plurality of uplink resources and an uplink sounding reference signal resource; and means for transmitting a sounding reference signal on the determined uplink sounding reference signal resource of said multiple periodic or semi-persistent sounding reference signal resources to indicate, to the network node, the uplink Tx beam and/or the determined uplink data resource that the apparatus intends to use for uplink data transmission.
A method for acquiring a service by a portable device, characterised in that the method comprises: receiving, by a portable device, a checking application from a User Interface which sends the checking application after identifying the portable device, wherein the checking application contains information of a file to be checked, and the file to be checked is a digital certificate file or an interface program file; acquiring, by the portable device, the file according to the information of the file; sending, by the portable device, identification information of at least one random slice of the file which saved in the portable device to the UI; receiving, by the portable device, data information of the at least one random slice from the UI, wherein the data information of the at least one random slice is computed by the UI according to a first algorithm stored in the UI and the received identification information; matching, by the portable device, the received data information with corresponding data information of the at least one random slice saved in the portable device, wherein the portable device computes the corresponding data information of the at least one random slice according to the first algorithm saved in the portable device itself and identification information of the at least one random slice after sending the identification information of the at least one random slice to the UI; when they are successfully matched, determining, by the portable device, that the UI is legal, and acquiring, by the portable device, the service through the UI; otherwise, refusing, by the portable device, to use the UI. receiving, by a portable device, a checking application from a User Interface which sends the checking application after identifying the portable device, wherein the checking application contains information of a file to be checked, and the file to be checked is a digital certificate file or an interface program file; acquiring, by the portable device, the file according to the information of the file; sending, by the portable device, identification information of at least one random slice of the file which saved in the portable device to the UI; receiving, by the portable device, data information of the at least one random slice from the UI, wherein the data information of the at least one random slice is computed by the UI according to a first algorithm stored in the UI and the received identification information; matching, by the portable device, the received data information with corresponding data information of the at least one random slice saved in the portable device, wherein the portable device computes the corresponding data information of the at least one random slice according to the first algorithm saved in the portable device itself and identification information of the at least one random slice after sending the identification information of the at least one random slice to the UI; when they are successfully matched, determining, by the portable device, that the UI is legal, and acquiring, by the portable device, the service through the UI; otherwise, refusing, by the portable device, to use the UI.
Socket arrangement for an electromedical device for the connection of an electromedical, preferably surgical instrument, comprising at least one plug connector socket arranged in a housing part, the plug connector socket having an electrical first contact element and an electrical second contact element configured to move relative to the first contact element, wherein the contact elements (35, 36) are arranged on opposite sides of a receiving region for a plug contact pin, a spring arrangement, configured to apply a pretensioning force to the second contact element of the plug connector socket, the pretensioning force being directed toward the first contact element, wherein the first contact holder of the first contact element and/or the second contact holder of the second contact element are supported on the housing part so as to be movable in the direction B transverse to a plug-in direction of the plug contact pin, the two contact holders (44, 45) comprise a guide arrangement and are supported so as to be movable back and forth directly adjacent to each other, characterized, in that the first contact element is arranged on an electrically non-conductive first contact holder and/or the second contact element is arranged on an electrically non-conductive second contact holder, in that the control device in the housing part has a slit, extending in the movement direction B, or a groove-like recess, in which the associate in that to prevent a twisting of the respective contact holder (44, 45) this has two flat areas with which it abuts in a sliding manner against the slit walls of the slit.
An automatic wire pickup method for a built-in antenna of a dual-interface card for picking up an antenna end of the built-in antenna from a card with a milled chip slot, wherein the built-in antenna comes out from the milled chip slot, the method comprising: S1, placing the card on a delivery mechanism so that the antenna end of the card is substantially perpendicular to an open-close direction of a wire pickup clamp (4011,4021); S2, scanning the antenna end with an optical scanner so as to form location data of the antenna end when the card has been delivered to the optical scanner position and positioned therein, wherein the location data is stored in a main control system; S3, controlling a preheated wire pickup clamp to perform an automatic wire pickup operation when the card has been delivered to a wire pickup position, wherein the wire pickup clamp is controlled to move to a position right above the antenna end by the main control system according to the location data, wherein, the wire pickup clamp is opened and moved downward against a card portion beside the antenna end, the wire pickup clamp melts the card portion beside the antenna end so that the antenna end is separated from the card, and then the wire pickup clamp clamps and lifts the antenna end so that the antenna end stands on the card. S1, placing the card on a delivery mechanism so that the antenna end of the card is substantially perpendicular to an open-close direction of a wire pickup clamp (4011,4021); S2, scanning the antenna end with an optical scanner so as to form location data of the antenna end when the card has been delivered to the optical scanner position and positioned therein, wherein the location data is stored in a main control system; S3, controlling a preheated wire pickup clamp to perform an automatic wire pickup operation when the card has been delivered to a wire pickup position, wherein the wire pickup clamp is controlled to move to a position right above the antenna end by the main control system according to the location data, wherein, the wire pickup clamp is opened and moved downward against a card portion beside the antenna end, the wire pickup clamp melts the card portion beside the antenna end so that the antenna end is separated from the card, and then the wire pickup clamp clamps and lifts the antenna end so that the antenna end stands on the card.
An electrosurgical system for performing surgical procedures on body tissue of a patient comprising: an electrosurgical generator; and an electrosurgical tool comprising a memory module storing tool data; and wherein the electrosurgical generator is configured to receive the tool data from the memory module and apply an electrosurgical signal profile to the electrosurgical tool based on the tool data; the electrosurgical generator comprises an analysis module configured: to monitor operational data from the electrosurgical tool, the operational data comprising a phase angle between voltage and current; the electrosurgical tool comprises at least two electrodes (2302, 2303, 2304, 2037, 2307', 2308) configurable to operate in a coagulation state and a cutting state, wherein the memory module further comprises a tool script configured to modify electrosurgical tool performance to switch from coagulation to cut by reconfiguring the at least two electrodes and the electrosurgical generator output and wherein the tool script is arranged to: first setup the system for tissue fusion; measure the tissue phase angle to determine expected phase angle end-point data indicative of an expected fusion of that tissue; then turn radio frequency power on until the predetermined expected phase angle endpoint is reached; then turn off the radio frequency power; then switch the electrodes to the cut configuration; set the radio frequency output for cut; and restart the radio frequency power. an electrosurgical generator; and an electrosurgical tool comprising a memory module storing tool data; and wherein the electrosurgical generator is configured to receive the tool data from the memory module and apply an electrosurgical signal profile to the electrosurgical tool based on the tool data; the electrosurgical generator comprises an analysis module configured: to monitor operational data from the electrosurgical tool, the operational data comprising a phase angle between voltage and current;