mhurhangee/patent-ind-claim-en huggingface dataset:
An optical fiber core comprising a primary layer and a secondary layer , which are laminated on a bare optical fiber , wherein the primary layer is formed by curing an ultraviolet-curable resin composition containing: a first silane coupling agent (S1) which can be incorporated into a resin skeleton and which comprises a radical-polymerizable reactive group and one or more methoxy group(s), and a second silane coupling agent (S2) which cannot be incorporated into a resin skeleton and which does not comprise any radical-polymerizable reactive groups, but comprises one or more ethoxy group(s); a content of the first silane coupling agent (S1) is 0.05-10 wt% of the ultraviolet-curable resin composition, which forms the primary layer after curing; a content of the second silane coupling agent (S2) is 0.05-10 wt% of the ultraviolet-curable resin composition, which forms the primary layer after curing; the first silane coupling agent (S1) is represented by the Chemical Formula : Y-Si(R n ) m (OCH 3 ) 3-m ··· wherein Y represents a radical-polymerizable reactive group, m represents integers of 0-2, n represents an integer of 1 or 2, and R n (R 1 and R 2 ) represents a hydrocarbon group; and the second silane coupling agent (S2) is represented by the Chemical Formula : Si(R j ) k (OC 2 H 5 ) 4-k ···· wherein k represents integers of 0-3, j represents integers of 3-5, and R j (R 3 -R 5 ) represents a hydrocarbon group. a first silane coupling agent (S1) which can be incorporated into a resin skeleton and which comprises a radical-polymerizable reactive group and one or more methoxy group(s), and a second silane coupling agent (S2) which cannot be incorporated into a resin skeleton and which does not comprise any radical-polymerizable reactive groups, but comprises one or more ethoxy group(s); a content of the first silane coupling agent (S1) is 0.05-10 wt% of the ultraviolet-curable resin composition, which forms the primary layer after curing; a content of the second silane coupling agent (S2) is 0.05-10 wt% of the ultraviolet-curable resin composition, which forms the primary layer after curing; the first silane coupling agent (S1) is represented by the Chemical Formula : Y-Si(R n ) m (OCH 3 ) 3-m ··· wherein Y represents a radical-polymerizable reactive group, m represents integers of 0-2, n represents an integer of 1 or 2, and R n (R 1 and R 2 ) represents a hydrocarbon group; and the second silane coupling agent (S2) is represented by the Chemical Formula : Si(R j ) k (OC 2 H 5 ) 4-k ···· wherein k represents integers of 0-3, j represents integers of 3-5, and R j (R 3 -R 5 ) represents a hydrocarbon group.
A method for feeding back a decoding result of early stop decoding, characterized by comprising: in a Transmit Time Interval, TTI, adjusting (S302), by a terminal side, encoded Transport Format Combination Indicator, TFCI, bits, and sending, by a terminal side, the adjusted TFCI bits to a Node B, NodeB, side via a TFCI domain of an uplink Dedicated Physical Control Channel, DPCCH, wherein the operation of the terminal side adjusting encoded TFCI bits provides reducing the number of the encoded TFCI bits such that the number of the encoded TFCI bits is less than the number of bits of a TFCI which is obtained by a encoding operation with 10 original TFCI bits and 32 encoded TFCI bits; in the TTI, sending by the terminal side, data on an uplink Dedicated Physical Channel, DPCH, to the NodeB side, the data being encoded according to the TFCI bits; in the TTI, after sending the adjusted TFCI bits to the NodeB side, decoding, by the terminal side, data transmitted on a downlink Dedicated Physical Channel, DPCH, by the NodeB side, and in case of successful decoding, feeding back (S304), by the terminal side, via an idle TFCI domain of the uplink DPCCH, a decoding result of the data transmitted on the downlink DPCH to the NodeB side, wherein the decoding result is used to indicate the NodeB side to stop transmission of data on the downlink DPCH in the TTI, and wherein the idle TFCI domain of the uplink DPCCH is the rest part of TFCI domain which is rendered idle by reducing the encoded TFCI bits. in a Transmit Time Interval, TTI, adjusting (S302), by a terminal side, encoded Transport Format Combination Indicator, TFCI, bits, and sending, by a terminal side, the adjusted TFCI bits to a Node B, NodeB, side via a TFCI domain of an uplink Dedicated Physical Control Channel, DPCCH, wherein the operation of the terminal side adjusting encoded TFCI bits provides reducing the number of the encoded TFCI bits such that the number of the encoded TFCI bits is less than the number of bits of a TFCI which is obtained by a encoding operation with 10 original TFCI bits and 32 encoded TFCI bits; in the TTI, sending by the terminal side, data on an uplink Dedicated Physical Channel, DPCH, to the NodeB side, the data being encoded according to the TFCI bits; in the TTI, after sending the adjusted TFCI bits to the NodeB side, decoding, by the terminal side, data transmitted on a downlink Dedicated Physical Channel, DPCH, by the NodeB side, and in case of successful decoding, feeding back (S304), by the terminal side, via an idle TFCI domain of the uplink DPCCH, a decoding result of the data transmitted on the downlink DPCH to the NodeB side, wherein the decoding result is used to indicate the NodeB side to stop transmission of data on the downlink DPCH in the TTI, and wherein the idle TFCI domain of the uplink DPCCH is the rest part of TFCI domain which is rendered idle by reducing the encoded TFCI bits.
Use in a thermoplastic composition comprising a melt polycarbonate polymer, of 0.01 to 0.04 weight percent of a triacylglyceride release agent based on the total weight of the composition, wherein the triacylglyceride release agent has the formula (I) wherein R 1 , R 2 , and R 3 are the same or different hydrocarbon chains with 8 to 20 carbon atoms and 0 to 6 unsaturations and are each independently selected from C 8 -C 20 alkyl, C 8 -C 20 haloalkyl, C 8 -C 20 polyhaloalkyl, C 8 -C 20 alkene, and C 8 -C 20 alkoxy; and wherein the composition is free of stearyl stearate, glycerol monostearate, and pentaerythrityl tetrastearate, for avoiding surface vibrations during extrusion of said composition into extruded profiles.
Rolling plant, particularly rolling mill , comprising at least one roll stand which is placed on a foundation , characterised in that the roll stand is decoupled from the foundation by at least one spring damping system , the spring damping system comprises an additional inertia mass and the inertia mass is between 100 and 200 t.
An insulated cap for sealing a mouth of a container, comprising: an outer shell ; an insulation block disposed at least partially within the outer shell; a securing element , configured to secure the cap to the container; and a sealing member configured to form a seal between the insulated cap and the container when the insulated cap is secured to the container by the securing element, characterized in that the insulation block defines a plurality of elongate voids , each elongate void having an opening in an upper face of the insulation block, and each elongate void being otherwise enclosed by the insulation block , such that each elongate void is capped by the outer shell . an outer shell ; an insulation block disposed at least partially within the outer shell; a securing element , configured to secure the cap to the container; and a sealing member configured to form a seal between the insulated cap and the container when the insulated cap is secured to the container by the securing element, characterized in that the insulation block defines a plurality of elongate voids , each elongate void having an opening in an upper face of the insulation block, and each elongate void being otherwise enclosed by the insulation block , such that each elongate void is capped by the outer shell .
A computer-implemented method comprising: generating a web syndication feed update document comprising one or more update statuses of one or more resources, and one or more obfuscation identifiers, wherein at least one of the one or more resources is associated with a respective obfuscation identifier that is decodable to provide a resource location for retrieving updated content; dividing the update document into a plurality of pages; archiving the plurality of pages; receiving a request from one or more subscribers for one of the pages of the update document, or for one of the archived pages of the update document based, at least in part, on whether the one or more subscriber's information is up to date; determining pages for transmission based on the received request; and transmitting the determined pages to the one or more subscribers. generating a web syndication feed update document comprising one or more update statuses of one or more resources, and one or more obfuscation identifiers, wherein at least one of the one or more resources is associated with a respective obfuscation identifier that is decodable to provide a resource location for retrieving updated content; dividing the update document into a plurality of pages; archiving the plurality of pages; receiving a request from one or more subscribers for one of the pages of the update document, or for one of the archived pages of the update document based, at least in part, on whether the one or more subscriber's information is up to date; determining pages for transmission based on the received request; and transmitting the determined pages to the one or more subscribers.
An operating method of a reversible refrigeration circuit, in particular for a heat pump with cycle inversion; the circuit comprising: a heat exchanger , in particular a fin heat exchanger , which is installed on the outside of a room (H) to be conditioned, and a utility , which is installed on the inside of the room (H) to be conditioned; wherein the heat exchanger is suited to be flowed through, on the outside, by an air flow in a given direction (W) and, on the inside, by a refrigerant fluid (F); wherein the fluid (F) can selectively flow either in a first direction (R1) or in a second direction (R2); wherein the heat exchanger comprises a heat exchange unit with a plurality of heat exchange pipes parallel to one another; wherein each pipe has at a first inlet end (li) a first inlet (I1) and a second inlet ; wherein the heat exchanger comprises first and second means (30; 21) for feeding the refrigerant fluid (F) into said pipes ; wherein the heat exchanger comprises, as first means for feeding the fluid (F), a manifold which is configured to feed the fluid (F) to each pipe through a respective first inlet (I1); wherein the manifold has a cavity , an inlet and a plurality of openings , each of which establishes communication between a respective heat exchange pipe and said cavity ; wherein the heat exchanger comprises, as second means for feeding the fluid (F), a feed system which in turn comprises a plurality of capillary tubes , each of which is configured to feed the fluid (F) to a respective pipe through a respective second inlet ; wherein the first inlet (I1) is composed of a circular crown delimited between an opening and a respective capillary tube ; wherein, the second inlet is composed of the area through which the capillary tube passes; wherein the refrigerant fluid (F) is always fed through the heat exchanger in a countercurrent flow relative to the direction (W) of the outside air whatever the feeding direction (R1; R2) of the refrigerant fluid (F) on the inside of the refrigeration circuit is; wherein said first means for feeding the fluid (F) feed the fluid (F) to each pipe through a respective first inlet (I1) when the fluid (F) flows in a first direction (R1); said second means for feeding the fluid (F) feed the fluid (F) to a respective pipe through a respective second inlet when the refrigerant fluid (F) flows in a second direction (R2) .
An isolated human monoclonal antibody or antigen-binding fragment thereof that binds specifically to the cat allergen Fel d1, wherein: the antibody or antigen-binding fragment comprises: (i) a HCVR having an amino acid sequence of SEQ ID NO: 18; and (ii) a LCVR having an amino acid sequence of SEQ ID NO: 26; and wherein the antibody or antigen-binding fragment is an isotype other than an IgA isotype. the antibody or antigen-binding fragment comprises: (i) a HCVR having an amino acid sequence of SEQ ID NO: 18; and (ii) a LCVR having an amino acid sequence of SEQ ID NO: 26; and wherein the antibody or antigen-binding fragment is an isotype other than an IgA isotype.
A steering rack (9, 9a-9e) comprising: a rack shaft ; a plurality of rack teeth that is formed on the rack shaft and that has a tooth trace inclined with respect to a first direction perpendicular to an axial direction of the rack shaft; and a dummy tooth (33, 33a-33d) aligned with the rack teeth on the rack shaft, characterized in that the dummy tooth is non-uniformly formed in a second direction parallel to the tooth trace of the rack teeth. a rack shaft ; a plurality of rack teeth that is formed on the rack shaft and that has a tooth trace inclined with respect to a first direction perpendicular to an axial direction of the rack shaft; and a dummy tooth (33, 33a-33d) aligned with the rack teeth on the rack shaft, characterized in that the dummy tooth is non-uniformly formed in a second direction parallel to the tooth trace of the rack teeth.
A method, comprising: establishing a wireless communication connection between an exit device (20; 100) and a management system remote from the exit device (20; 100); receiving, by the exit device (20; 100) and via the wireless communication connection, an instruction from the management system to change a dogging state of the exit device (20; 100) by moving a dogging mechanism of the exit device (20; 100) to one of an undogged state or a dog-on-next-exit state; and moving the dogging mechanism to the one of the undogged state or the dog-on-next-exit state in response to the instruction, wherein a pushbar of the exit device (20; 100) is in an extended position when the dogging mechanism is in the undogged state and is retained in a retracted position when the dogging mechanism is in the dogged state, and wherein the pushbar is positioned to be held in the retracted position by the dogging mechanism upon a next depression of the pushbar by a user when the dogging mechanism is in the dog-on-next-exit state. establishing a wireless communication connection between an exit device (20; 100) and a management system remote from the exit device (20; 100); receiving, by the exit device (20; 100) and via the wireless communication connection, an instruction from the management system to change a dogging state of the exit device (20; 100) by moving a dogging mechanism of the exit device (20; 100) to one of an undogged state or a dog-on-next-exit state; and moving the dogging mechanism to the one of the undogged state or the dog-on-next-exit state in response to the instruction, wherein a pushbar of the exit device (20; 100) is in an extended position when the dogging mechanism is in the undogged state and is retained in a retracted position when the dogging mechanism is in the dogged state, and wherein the pushbar is positioned to be held in the retracted position by the dogging mechanism upon a next depression of the pushbar by a user when the dogging mechanism is in the dog-on-next-exit state.
An assembly of parts for crimping or/and loading a braided stent or braided stent-based prosthesis from an expanded diameter to a compressed symmetrical diameter comprising or consisting of as components a funnel , a tubular structure positioned within a base part , wherein the funnel consists of at least two parts and which parts are connected by a disengageable locking mechanism, a pulling means, as pulling means a rotatable wheel , at least one pulling suture guidance hole useful for passing through a pulling suture .
A method comprising: determining , by a first provider edge PE device of a plurality of PE devices that participate in an Ethernet Virtual Private Network EVPN , that a first multicast traffic flow has started for the first PE device ; in response to determining that the multicast traffic flow has started for the first PE device , sending , by the first PE device , a source-active SA route to the plurality of PE devices to indicate the first multicast traffic flow has started for the first PE device ; receiving , by the first PE device and from a second PE device of the plurality of PE devices , a second SA route that indicates that a second multicast traffic flow has started for the second PE device ; and using an election mechanism, to perform, by the first PE device , an election of a core-facing designated forwarder from among the first PE device and second PE device , wherein the core-facing designated forwarder is configured to forward the multicast traffic into the EVPN . determining , by a first provider edge PE device of a plurality of PE devices that participate in an Ethernet Virtual Private Network EVPN , that a first multicast traffic flow has started for the first PE device ; in response to determining that the multicast traffic flow has started for the first PE device , sending , by the first PE device , a source-active SA route to the plurality of PE devices to indicate the first multicast traffic flow has started for the first PE device ; receiving , by the first PE device and from a second PE device of the plurality of PE devices , a second SA route that indicates that a second multicast traffic flow has started for the second PE device ; and using an election mechanism, to perform, by the first PE device , an election of a core-facing designated forwarder from among the first PE device and second PE device , wherein the core-facing designated forwarder is configured to forward the multicast traffic into the EVPN .
A base station comprising: circuitry adapted to specify backhaul uplink subframes available for backhaul uplink transmission from a relay node to the base station from among a plurality of uplink subframes included in a frame for communication; a transmitter adapted to transmit to the relay node an indicator #TP indicating a number N of Hybrid Automatic Repeat Request, HARQ, processes, the indicator #TP being an explicit signaling parameter for signaling the number of HARQ processes within signaling related to a backhaul subframe configuration; wherein, if a delay between adjacent subframes allocated for the same HARQ process is less than a minimum roundtrip time, the roundtrip time being a time between two consecutive transmissions for a same HARQ process, and the indicator #TP is ignored by the relay node, the circuitry is adapted to determine the number, N, of HARQ processes as a smallest number of HARQ processes leading to a delay between the adjacent subframes of at least the minimum roundtrip time based on positions of the determined backhaul uplink subframes available for the uplink transmission from the relay node to the base station, a mapping of HARQ processes cyclically onto the determined backhaul uplink subframes being assumed; wherein the determined number of HARQ processes are cyclically mapped onto the determined backhaul uplink subframes; and a receiver adapted to receive the backhaul uplink subframes on which the determined number of HARQ processes are mapped, from the relay node in uplink direction. circuitry adapted to specify backhaul uplink subframes available for backhaul uplink transmission from a relay node to the base station from among a plurality of uplink subframes included in a frame for communication; a transmitter adapted to transmit to the relay node an indicator #TP indicating a number N of Hybrid Automatic Repeat Request, HARQ, processes, the indicator #TP being an explicit signaling parameter for signaling the number of HARQ processes within signaling related to a backhaul subframe configuration; wherein, if a delay between adjacent subframes allocated for the same HARQ process is less than a minimum roundtrip time, the roundtrip time being a time between two consecutive transmissions for a same HARQ process, and the indicator #TP is ignored by the relay node, the circuitry is adapted to determine the number, N, of HARQ processes as a smallest number of HARQ processes leading to a delay between the adjacent subframes of at least the minimum roundtrip time based on positions of the determined backhaul uplink subframes available for the uplink transmission from the relay node to the base station, a mapping of HARQ processes cyclically onto the determined backhaul uplink subframes being assumed; wherein the determined number of HARQ processes are cyclically mapped onto the determined backhaul uplink subframes; and a receiver adapted to receive the backhaul uplink subframes on which the determined number of HARQ processes are mapped, from the relay node in uplink direction.
A medical device comprising: a hydrophilic coating disposed on a surface of the medical device, the hydrophilic coating formed from a blend comprising a hydrophilic polymer and polyethylene glycol diacrylate having a number average molecular weight of less than about 1000, and wherein the hydrophilic coating comprises about 80 wt% to about 99.5 wt% hydrophilic polymer and about 0.5 wt% to about 20 wt% polyethylene glycol diacrylate. a hydrophilic coating disposed on a surface of the medical device, the hydrophilic coating formed from a blend comprising a hydrophilic polymer and polyethylene glycol diacrylate having a number average molecular weight of less than about 1000, and wherein the hydrophilic coating comprises about 80 wt% to about 99.5 wt% hydrophilic polymer and about 0.5 wt% to about 20 wt% polyethylene glycol diacrylate.
Apparatus for separating ions according to one or more physico-chemical properties, wherein said apparatus is arranged and adapted to create an ion channel in which ions are confined in use; wherein said apparatus comprises: a first device arranged and adapted to apply or maintain a first electrostatic potential or force, a first DC potential or force, or a first pseudo-potential or force along at least a portion of said apparatus or along an axis of said ion channel or along said ion channel to cause ions to separate according to said one or more physico-chemical properties along said ion channel towards a first end in a first direction with a velocity which is substantially dependent upon said one or more physico-chemical properties; and a second device arranged and adapted to apply or maintain a second moving electrostatic potential barrier, a second moving DC potential barrier or a second moving pseudo-potential barrier along at least a portion of said apparatus in order to drive said ions or said ion channel in a second direction with a velocity which is substantially independent of said one or more physico-chemical properties so as to effectively move said ion channel away from said first end and increase the effective path length along which ions separate according to said one or more physico-chemical properties. a first device arranged and adapted to apply or maintain a first electrostatic potential or force, a first DC potential or force, or a first pseudo-potential or force along at least a portion of said apparatus or along an axis of said ion channel or along said ion channel to cause ions to separate according to said one or more physico-chemical properties along said ion channel towards a first end in a first direction with a velocity which is substantially dependent upon said one or more physico-chemical properties; and a second device arranged and adapted to apply or maintain a second moving electrostatic potential barrier, a second moving DC potential barrier or a second moving pseudo-potential barrier along at least a portion of said apparatus in order to drive said ions or said ion channel in a second direction with a velocity which is substantially independent of said one or more physico-chemical properties so as to effectively move said ion channel away from said first end and increase the effective path length along which ions separate according to said one or more physico-chemical properties.