mhurhangee/patent-ind-claim-en huggingface dataset:
A Multiprotocol Label Switching traffic engineering, MPLS TE, tunnel establishing method, comprising: receiving, by a second routing device, a path message including first path information and a first identifier, wherein the path message is used to establish a first MPLS TE tunnel, wherein the first path information is path information of the first MPLS TE tunnel; acquiring, by the second routing device, a correspondence between the first path information and the first identifier; receiving , by the second routing device, the first identifier sent by a first routing device, wherein the first identifier is an identifier of the first MPLS TE tunnel, and the first MPLS TE tunnel is an MPLS TE tunnel from a first virtual private network, VPN, instance on the first routing device to a second VPN instance on the second routing device; querying, by the second routing device, the correspondence between the first identifier and first path information according to the first identifier, to acquire the first path information according to the correspondence between the first identifier and the first path information; and reversing , by the second routing device, the first path information to acquire second path information, and establishing a second MPLS TE tunnel according to the second path information, wherein the second MPLS TE tunnel is an MPLS TE tunnel from the second VPN instance to the first VPN instance; wherein the second path information includes a same nodes and links of the first path information, a path direction of the second path information is opposite with a path direction of the first path information. receiving, by a second routing device, a path message including first path information and a first identifier, wherein the path message is used to establish a first MPLS TE tunnel, wherein the first path information is path information of the first MPLS TE tunnel; acquiring, by the second routing device, a correspondence between the first path information and the first identifier; receiving , by the second routing device, the first identifier sent by a first routing device, wherein the first identifier is an identifier of the first MPLS TE tunnel, and the first MPLS TE tunnel is an MPLS TE tunnel from a first virtual private network, VPN, instance on the first routing device to a second VPN instance on the second routing device; querying, by the second routing device, the correspondence between the first identifier and first path information according to the first identifier, to acquire the first path information according to the correspondence between the first identifier and the first path information; and reversing , by the second routing device, the first path information to acquire second path information, and establishing a second MPLS TE tunnel according to the second path information, wherein the second MPLS TE tunnel is an MPLS TE tunnel from the second VPN instance to the first VPN instance; wherein the second path information includes a same nodes and links of the first path information, a path direction of the second path information is opposite with a path direction of the first path information.
A temperature control system comprising: a fluid chiller configured to generate a chilled liquid stream and provide the chilled liquid stream to a fluid chiller main line forming a closed loop with the fluid chiller; and an air dryer configured to generate a dry air stream and provide the dry air stream to an air dryer main line ; characterized in that the temperature control system further comprises: a plurality of test stations (102a - f) positioned at remote locations from the fluid chiller and the air dryer, each test station comprising: a heat exchanger having a liquid side and an air side, the liquid side connected to the fluid chiller to receive the chilled liquid stream, the air side connected to the air dryer to receive the dry air stream, the heat exchanger configured to cool the dry air stream with the chilled liquid stream and generate a cooled air stream; and a thermal control unit configured to control distribution of the cooled air stream to a local test site. a fluid chiller configured to generate a chilled liquid stream and provide the chilled liquid stream to a fluid chiller main line forming a closed loop with the fluid chiller; and an air dryer configured to generate a dry air stream and provide the dry air stream to an air dryer main line ; characterized in that the temperature control system further comprises: a plurality of test stations (102a - f) positioned at remote locations from the fluid chiller and the air dryer, each test station comprising: a heat exchanger having a liquid side and an air side, the liquid side connected to the fluid chiller to receive the chilled liquid stream, the air side connected to the air dryer to receive the dry air stream, the heat exchanger configured to cool the dry air stream with the chilled liquid stream and generate a cooled air stream; and a thermal control unit configured to control distribution of the cooled air stream to a local test site. a heat exchanger having a liquid side and an air side, the liquid side connected to the fluid chiller to receive the chilled liquid stream, the air side connected to the air dryer to receive the dry air stream, the heat exchanger configured to cool the dry air stream with the chilled liquid stream and generate a cooled air stream; and a thermal control unit configured to control distribution of the cooled air stream to a local test site.
A curable composition comprising (A) at least one (meth)acrylate ester polymer containing at least one reactive silyl group of the general formula (I) -Si(R a ) k (R b ) 3-k (I), wherein each R a is, independently of one another, selected from hydrocarbon residues containing 1 to 20 carbon atoms; each R b is, independently of one another, selected from a hydroxyl group or hydrolysable groups; and, k is 0, 1, or 2; (B) at least one tertiary aminosilane; (C) at least one fumed silica; and, (D) at least one curing catalyst. (A) at least one (meth)acrylate ester polymer containing at least one reactive silyl group of the general formula (I) -Si(R a ) k (R b ) 3-k (I), wherein each R a is, independently of one another, selected from hydrocarbon residues containing 1 to 20 carbon atoms; each R b is, independently of one another, selected from a hydroxyl group or hydrolysable groups; and, k is 0, 1, or 2; each R a is, independently of one another, selected from hydrocarbon residues containing 1 to 20 carbon atoms; each R b is, independently of one another, selected from a hydroxyl group or hydrolysable groups; and, k is 0, 1, or 2; (B) at least one tertiary aminosilane; (C) at least one fumed silica; and, (D) at least one curing catalyst.
A user equipment, UE , comprising: a processor ; and a memory in electronic communication with the processor , wherein instructions stored in the memory are executable to: receive a radio resource control, RRC, configuration including a configuration of a licensed-assisted access, LAA, for an LAA secondary serving cell, SCell, from an evolved node B, eNB ; determine a synchronization signal structure of the LAA SCell based on a primary synchronization signal, PSS, and a secondary synchronization signal, SSS, structure and relative PSS/SSS location of a frequency-division duplexing, FDD, serving cell; and receive a PSS and a SSS of the LAA SCell, based on the synchronization signal structure and the configuration of an LAA for an LAA SCell, wherein the PSS and the SSS are mapped according to a frame structure of FDD, wherein the LAA is applicable to downlink only transmissions, and the LAA is performed in unlicensed band; and perform subframe synchronization, slot synchronization and frequency synchronization for the LAA SCell based on the received PSS and SSS. a processor ; and a memory in electronic communication with the processor , wherein instructions stored in the memory are executable to: receive a radio resource control, RRC, configuration including a configuration of a licensed-assisted access, LAA, for an LAA secondary serving cell, SCell, from an evolved node B, eNB ; determine a synchronization signal structure of the LAA SCell based on a primary synchronization signal, PSS, and a secondary synchronization signal, SSS, structure and relative PSS/SSS location of a frequency-division duplexing, FDD, serving cell; and receive a PSS and a SSS of the LAA SCell, based on the synchronization signal structure and the configuration of an LAA for an LAA SCell, wherein the PSS and the SSS are mapped according to a frame structure of FDD, wherein the LAA is applicable to downlink only transmissions, and the LAA is performed in unlicensed band; and perform subframe synchronization, slot synchronization and frequency synchronization for the LAA SCell based on the received PSS and SSS. receive a radio resource control, RRC, configuration including a configuration of a licensed-assisted access, LAA, for an LAA secondary serving cell, SCell, from an evolved node B, eNB ; determine a synchronization signal structure of the LAA SCell based on a primary synchronization signal, PSS, and a secondary synchronization signal, SSS, structure and relative PSS/SSS location of a frequency-division duplexing, FDD, serving cell; and receive a PSS and a SSS of the LAA SCell, based on the synchronization signal structure and the configuration of an LAA for an LAA SCell, wherein the PSS and the SSS are mapped according to a frame structure of FDD, wherein the LAA is applicable to downlink only transmissions, and the LAA is performed in unlicensed band; and the LAA is applicable to downlink only transmissions, and the LAA is performed in unlicensed band; and perform subframe synchronization, slot synchronization and frequency synchronization for the LAA SCell based on the received PSS and SSS.
A method comprising: forming a heat shield surrounding a fluid conduit and a fluid nozzle in an additive manufacturing process, the fluid nozzle being at a downstream end of the fluid conduit; removing powder from interior passages of the fluid conduit and the fluid nozzle and from gaps defined between the heat shield and the fluid conduit and between the heat shield and the fluid nozzle; separating the heat shield from the fluid conduit; separating the heat shield from the fluid nozzle; separating the heat shield from a build platform : separating the fluid conduit from the build platform; separating the fluid nozzle from the build platform; shifting the fluid conduit and the fluid nozzle to a shifted position relative to the heat shield, wherein the shift is in a direction lateral to a longitudinal axis (A) defined along the fluid conduit; and securing the fluid conduit and the fluid nozzle to the heat shield in the shifted position. forming a heat shield surrounding a fluid conduit and a fluid nozzle in an additive manufacturing process, the fluid nozzle being at a downstream end of the fluid conduit; removing powder from interior passages of the fluid conduit and the fluid nozzle and from gaps defined between the heat shield and the fluid conduit and between the heat shield and the fluid nozzle; separating the heat shield from the fluid conduit; separating the heat shield from the fluid nozzle; separating the heat shield from a build platform : separating the fluid conduit from the build platform; separating the fluid nozzle from the build platform; shifting the fluid conduit and the fluid nozzle to a shifted position relative to the heat shield, wherein the shift is in a direction lateral to a longitudinal axis (A) defined along the fluid conduit; and securing the fluid conduit and the fluid nozzle to the heat shield in the shifted position. separating the fluid conduit from the build platform; separating the fluid nozzle from the build platform; shifting the fluid conduit and the fluid nozzle to a shifted position relative to the heat shield, wherein the shift is in a direction lateral to a longitudinal axis (A) defined along the fluid conduit; and securing the fluid conduit and the fluid nozzle to the heat shield in the shifted position.
A packaging product, comprising a composition containing a plurality of pluripotent cells and a CO 2 independent medium, and a container holding the composition and comprising a substrate, wherein the substrate comprises a polymer, wherein the container is sealed.
A prosthetic valve comprising: a leaflet structure comprising a plurality of leaflets ; a sealing device in the form of a skirt ; and a collapsible and expandable annular frame , configured to be collapsed to a radially collapsed state for mounting on a delivery apparatus and expanded to a radially expanded state inside the body; wherein each leaflet has a scalloped lower edge portion , secured to the frame and/or the skirt by sutures, and a tab portion adjacent an upper free edge of the leaflet which is placed against another tab portion of an adjacent leaflet to form a commissure ; and wherein the frame comprises a plurality of rows of angled struts , the angled struts joined to each other so as to form a plurality of rows of hexagonal cells, wherein each of the hexagonal cells is defined by six struts , including: two opposing side struts extending parallel to a flow axis of the valve , a pair of lower angled struts , extending downwardly from respective lower ends of the side struts and converging to intersect with each other, and a pair of upper angled struts extending upwardly from respective upper ends of the side struts and converging to intersect with each other. a leaflet structure comprising a plurality of leaflets ; a sealing device in the form of a skirt ; and a collapsible and expandable annular frame , configured to be collapsed to a radially collapsed state for mounting on a delivery apparatus and expanded to a radially expanded state inside the body; wherein each leaflet has a scalloped lower edge portion , secured to the frame and/or the skirt by sutures, and a tab portion adjacent an upper free edge of the leaflet which is placed against another tab portion of an adjacent leaflet to form a commissure ; and wherein the frame comprises a plurality of rows of angled struts , the angled struts joined to each other so as to form a plurality of rows of hexagonal cells, wherein each of the hexagonal cells is defined by six struts , including: two opposing side struts extending parallel to a flow axis of the valve , a pair of lower angled struts , extending downwardly from respective lower ends of the side struts and converging to intersect with each other, and a pair of upper angled struts extending upwardly from respective upper ends of the side struts and converging to intersect with each other. two opposing side struts extending parallel to a flow axis of the valve , a pair of lower angled struts , extending downwardly from respective lower ends of the side struts and converging to intersect with each other, and a pair of upper angled struts extending upwardly from respective upper ends of the side struts and converging to intersect with each other.
A positive pressure exhale valve for a breathing apparatus (A) that opens when internal pressure of a face piece (B) of the breathing apparatus (A) reaches predetermined positive level, which pressure exhale valve comprising a valve body , and a first spring for always contacting the valve body so as to force the valve body in closing direction, characterized by a braking body disposed coaxially with the first spring so as to oppose the valve body across a gap, without contacting the valve body during normal operation of the positive pressure exhale valve so as not to obstruct the normal operation of the positive pressure exhale valve , and contacting the valve body when a vibration body formed by the valve body and first spring experiences self-excited vibration, thereby suppressing the self-excited vibration.
A container comprising a. a plastic handle comprising a strap having two ends, a first tab located near one end of the strap and a second tab located near the other end of the strap , each of the tabs being of unitary construction and having in cross section a major axis and a minor axis, and b. a first and a second slot on opposite sides of the container , each of the slots having a major axis slightly smaller than the major axis of the tabs , and a minor axis slightly smaller than the minor axis of the tabs , so that when the major axis of each of the tabs is aligned with the major axis of each of the slots the tabs can be inserted into or removed from the slots and the handle can pivot when the tabs are inserted into the slots , wherein the shape of the slots is selected from the group consisting of a rectangle with rounded corners, an oval, a squoval, a spheroid and a rectangle. a. a plastic handle comprising a strap having two ends, a first tab located near one end of the strap and a second tab located near the other end of the strap , each of the tabs being of unitary construction and having in cross section a major axis and a minor axis, and b. a first and a second slot on opposite sides of the container , each of the slots having a major axis slightly smaller than the major axis of the tabs , and a minor axis slightly smaller than the minor axis of the tabs ,
An oral care composition comprising a naringin:Zn complex, wherein said naringin:Zn complex has a 2:1 naringin to zinc molar ratio.
A system comprising: a processor circuit configured to be plugged into an on board diagnostic connector of a vehicle ; an auxiliary device (530a-530n) comprising a built-in GPS/GNSS capability to internally generate GPS/GNSS positional data, and enabled to establish a link with said processor circuit ; and a computer readable storage medium embodying computer executable instructions, wherein said computer executable instructions, when executed by said processor circuit , enable said processor circuit to (i) communicate with one or more buses of said vehicle , (ii) generate navigational information using motion-related information pulled from said one or more buses of said vehicle , (iii) convert said navigational information to a format usable by said auxiliary device (530a-n), and (iv) communicate said navigational information to said auxiliary device (530a-n) via said link; characterized in that , upon establishing said link between said auxiliary device (530a-530n) and said processor circuit , the built in GPS/GNSS capability of the auxiliary device is disabled and location services provided by an operating system of said auxiliary device (530a-n) respond to applications running on said auxiliary device (530a-n) with externally provided navigational information from said processor circuit instead of the internally generated GPS/GNSS positional data. a processor circuit configured to be plugged into an on board diagnostic connector of a vehicle ; an auxiliary device (530a-530n) comprising a built-in GPS/GNSS capability to internally generate GPS/GNSS positional data, and enabled to establish a link with said processor circuit ; and a computer readable storage medium embodying computer executable instructions, wherein said computer executable instructions, when executed by said processor circuit , enable said processor circuit to (i) communicate with one or more buses of said vehicle , (ii) generate navigational information using motion-related information pulled from said one or more buses of said vehicle , (iii) convert said navigational information to a format usable by said auxiliary device (530a-n), and (iv) communicate said navigational information to said auxiliary device (530a-n) via said link; characterized in that , upon establishing said link between said auxiliary device (530a-530n) and said processor circuit , the built in GPS/GNSS capability of the auxiliary device is disabled and location services provided by an operating system of said auxiliary device (530a-n) respond to applications running on said auxiliary device (530a-n) with externally provided navigational information from said processor circuit instead of the internally generated GPS/GNSS positional data.
Radome for vehicles, comprising a frontal layer and a rear layer , both made from thermoplastic material, the radome also comprising a heating element placed on the frontal layer , on its face opposed to the rear layer ,the heating element being a foil with conductive wires, wherein both frontal and rear layers have indentations and protrusions complementary to each other, characterized in that the radome comprises at least one conductive element that is connected with the conductive wires of said foil, and wherein said conductive element is placed in a recess made on the foil rear surface. wherein both frontal and rear layers have indentations and protrusions complementary to each other, characterized in that the radome comprises at least one conductive element that is connected with the conductive wires of said foil, and wherein said conductive element is placed in a recess made on the foil rear surface.
A method for sending system information, the method comprising: determining system information to be sent by a cell (S110); sending the determined system information on a common sub-frame (S120), wherein the common sub-frame is used for sending the determined system information and a Discovery Reference Signal, DRS, or sending an extended DRS comprising the determined system information, and the common sub-frame comprises one or more sub-frames, characterised in that , wherein the common sub-frame comprises at least one of the following: a) a DRS sub-frame; b) the DRS sub-frame and an adjacent sub-frame of the DRS sub-frame; or c) a DRS Measurement Timing Configuration, DMTC, sub-frame, wherein the determined system information to be sent by the cell comprises at least one of the following information: a) part or all of information in a Master Information Block, MIB, or in a Physical Broadcast Channel, PBCH; b) part or all of information in a System Information Block, SIB; or c) at least one of the following information: a sub-frame number, an operator ID, sub-frame structure information, frame structure information, an occupied duration of the system information, or a number of occupied symbols of the system information. determining system information to be sent by a cell (S110); sending the determined system information on a common sub-frame (S120), wherein the common sub-frame is used for sending the determined system information and a Discovery Reference Signal, DRS, or sending an extended DRS comprising the determined system information, and the common sub-frame comprises one or more sub-frames, characterised in that , wherein the common sub-frame comprises at least one of the following: a) a DRS sub-frame; b) the DRS sub-frame and an adjacent sub-frame of the DRS sub-frame; or c) a DRS Measurement Timing Configuration, DMTC, sub-frame, wherein the determined system information to be sent by the cell comprises at least one of the following information: a) part or all of information in a Master Information Block, MIB, or in a Physical Broadcast Channel, PBCH; b) part or all of information in a System Information Block, SIB; or c) at least one of the following information: a sub-frame number, an operator ID, sub-frame structure information, frame structure information, an occupied duration of the system information, or a number of occupied symbols of the system information. a) part or all of information in a Master Information Block, MIB, or in a Physical Broadcast Channel, PBCH; b) part or all of information in a System Information Block, SIB; or c) at least one of the following information: a sub-frame number, an operator ID, sub-frame structure information, frame structure information, an occupied duration of the system information, or a number of occupied symbols of the system information.