mhurhangee/ep-ind-claims huggingface dataset:
User equipment, UE, comprising: means for determining if the UE is attempting to establish circuit switched, CS, signalling; means for generating a connection request wherein: when said UE supports a High Speed Downlink Packet Access channel and an Enhanced Uplink Dedicated Channel, said connection request includes information which identifies support for the High Speed Downlink Packet Access channel and the Enhanced Uplink Dedicated Channel; and when said UE is attempting to establish CS signalling, said connection request further includes a circuit switched signalling indication with said information identifying support for the High Speed Downlink Packet Access channel and the Enhanced Uplink Dedicated Channel; and means for sending the connection request to a network controller. means for determining if the UE is attempting to establish circuit switched, CS, signalling; means for generating a connection request wherein: when said UE supports a High Speed Downlink Packet Access channel and an Enhanced Uplink Dedicated Channel, said connection request includes information which identifies support for the High Speed Downlink Packet Access channel and the Enhanced Uplink Dedicated Channel; and when said UE is attempting to establish CS signalling, said connection request further includes a circuit switched signalling indication with said information identifying support for the High Speed Downlink Packet Access channel and the Enhanced Uplink Dedicated Channel; and when said UE supports a High Speed Downlink Packet Access channel and an Enhanced Uplink Dedicated Channel, said connection request includes information which identifies support for the High Speed Downlink Packet Access channel and the Enhanced Uplink Dedicated Channel; and when said UE is attempting to establish CS signalling, said connection request further includes a circuit switched signalling indication with said information identifying support for the High Speed Downlink Packet Access channel and the Enhanced Uplink Dedicated Channel; and means for sending the connection request to a network controller.
A method to facilitate providing an image of an object, characterised by: providing N pulsed sampling chains that comprise a pulsed high-energy source and a corresponding detector, wherein N is an integer greater than 1, where the sampling chains are in planes substantially parallel to each other and substantially equidistant from each other by a given distance, wherein a ratio of the given distance between adjacent sampling chains to a desired final sample pitch is approximately an integer that is relatively prime to N, capturing by the sampling chains a complete set of samples of the object in a single pass in chronological order, whilst the object is moving past the sampling chains; reordering the set of samples in other than the chronological order of capture to provide reordered samples; and using the reordered samples to provide an image of the object; wherein said desired final sample pitch corresponds to the distance between adjacent reordered samples. providing N pulsed sampling chains that comprise a pulsed high-energy source and a corresponding detector, wherein N is an integer greater than 1, where the sampling chains are in planes substantially parallel to each other and substantially equidistant from each other by a given distance, wherein a ratio of the given distance between adjacent sampling chains to a desired final sample pitch is approximately an integer that is relatively prime to N, capturing by the sampling chains a complete set of samples of the object in a single pass in chronological order, whilst the object is moving past the sampling chains; reordering the set of samples in other than the chronological order of capture to provide reordered samples; and using the reordered samples to provide an image of the object; wherein said desired final sample pitch corresponds to the distance between adjacent reordered samples.
Compression article produced from an elastic textile material, in particular a knitted fabric, and provided with at least one elastic retaining band as an anti-slip means on the body part, wherein the retaining band is produced using a friction thread situated at some points on the surface of the band on the inner face of the band, characterised in that the total area of the points at which the friction thread is situated on the surface of the inner face of the band is less than 25 %, preferably less than 15 %, of the surface of the inner face of the band.
A color register edging method for an aluminum alloy hub, wherein including the following steps: a first pretreatment and drying step, including washing, degreasing, acid pickling and passivation; a body powder spraying and curing step, and a subsequent paint spraying and curing step; a second pretreatment and drying step, including washing, degreasing, acid pickling and passivation; an edging color register applying and curing step, wherein a color register paint is squeezed onto a surface that needs color register by using an injection needle; a third pretreatment and drying step, including washing, degreasing, acid pickling and passivation; and a high-gloss transparent powder spraying and curing step.
Composition, comprising (a) omeprazole and/or pantoprazole and (b) eriodictyol and homoeriodictyol. (a) omeprazole and/or pantoprazole and (b) eriodictyol and homoeriodictyol.
A synthetic DNA sequence for expressing a protein of interest in maize cells which comprises: a) a codon-optimized DNA sequence encoding the protein of interest, b) at least one polyadenylation signal sequence chosen from the group consisting of Class I and Class II wherein; Class I is chosen from the group consisting of AATAAA, AATAAT, AACCAA, ATATAA, AATCAA, ATACTA, ATAAAA, ATGAAA, AAGCAT, ATTAAT, ATACAT, AAAATA, ATTAAA, AATTAA, AATACA, and CATAAA; and Class II is chosen from the group consisting of ATATAT, TTGTTT, TTTTGT, TGTTTT, TATATA, TATTTT, TTTTTT, ATTTTT, TTATTT, TTTATT, TAATAA, ATTTAT, TATATT, TTTTAT, ATATTT, TATTAT, TGTTTG, TTATAT, TGTAAT, and AAATAA; and wherein said codon-optimized DNA sequence contains at least one polyadenylation signal sequence from Class II and wherein said synthetic DNA sequence contains fewer Class II polyadenylation signal sequences than the protein's native DNA sequence and contains the same number of class I polyadenylation signal sequences compared to said native DNA sequence. a) a codon-optimized DNA sequence encoding the protein of interest, b) at least one polyadenylation signal sequence chosen from the group consisting of Class I and Class II wherein;
A clothes dryer having a fragrance supplying module comprising: - a body that forms appearance of the clothes dryer, - a front cover that forms appearance thereof, - a rear cover, - a top cover, - a drum rotatably installed in the body and into which laundry is introduced, - a front supporter of the clothes dryer mounted at a rear side of the front cover for supporting the drum at a front side and supporting a front opening of the drum; characterized in that the fragrance supplying module is provided at the front supporter for supplying fragrance into the drum. - a body that forms appearance of the clothes dryer, - a front cover that forms appearance thereof, - a rear cover, - a top cover, - a drum rotatably installed in the body and into which laundry is introduced, - a front supporter of the clothes dryer mounted at a rear side of the front cover for supporting the drum at a front side and supporting a front opening of the drum;
A fluid reservoir adapted to enclose a fluid therewithin, the fluid reservoir comprising: a reservoir body forming a reservoir volume and a header opening that is fluidly open to the reservoir volume; a header connected to the reservoir body and disposed to seal the header opening; a fluid draw conduit connected to the header and extending through the header between a sump and a fluid draw port disposed external to the reservoir body, the sump being located within the reservoir volume; a heater connected to the header, disposed within the reservoir volume, and adapted to be immersed in the fluid and adjacent to the sump; characterized by a bag filter connected to the header, the bag filter completely enclosing the heater and the sump of the fluid draw conduit within the reservoir volume such that, when fluid is drawn from the reservoir volume through the sump, said fluid is first filtered by the bag filter. a reservoir body forming a reservoir volume and a header opening that is fluidly open to the reservoir volume; a header connected to the reservoir body and disposed to seal the header opening; a fluid draw conduit connected to the header and extending through the header between a sump and a fluid draw port disposed external to the reservoir body, the sump being located within the reservoir volume; a heater connected to the header, disposed within the reservoir volume, and adapted to be immersed in the fluid and adjacent to the sump; characterized by a bag filter connected to the header, the bag filter completely enclosing the heater and the sump of the fluid draw conduit within the reservoir volume such that, when fluid is drawn from the reservoir volume through the sump, said fluid is first filtered by the bag filter.
Cardboard or corrugated cardboard blank including a series of four flaps (3, 4, 5, 6) joined together in pairs by first fold-lines (7, 8, 9), namely two end flaps (3, 6), separated by two intermediate flaps (4, 5) and including on each side a set of rectangular tabs (10, 11), characterised in that an intermediate flap comprises at least one opening adjacent to a first joining fold-line to an end flap, said end flap including along its peripheral edge opposite to said first fold-line, at least one tongue of complementary shape to the opening situated in line with said opening and joined to said flap by a second fold-line parallel with the first fold lines.
Component comprising - a steel substrate whose structure can be transformed into a martensite structure, - a metallic intermediate layer which covers the steel substrate and whose main constituent is titanium and - an anticorrosion coating covering the intermediate layer, wherein the anticorrosion coating comprises one or more layers and the one layer or at least the layer of the anticorrosion coating adjoining the metallic intermediate layer is metallic and differs in terms of material from the intermediate layer, and wherein the proportion of titanium in the metallic intermediate layer covering the steel substrate is greater than or equal to 90% by weight, based on the total mass of the intermediate layer, and wherein the metallic intermediate layer whose main constituent is titanium has a thickness of at least 100 mm. - a steel substrate whose structure can be transformed into a martensite structure, - a metallic intermediate layer which covers the steel substrate and whose main constituent is titanium and - an anticorrosion coating covering the intermediate layer, wherein the anticorrosion coating comprises one or more layers and the one layer or at least the layer of the anticorrosion coating adjoining the metallic intermediate layer is metallic and differs in terms of material from the intermediate layer, and wherein the proportion of titanium in the metallic intermediate layer covering the steel substrate is greater than or equal to 90% by weight, based on the total mass of the intermediate layer, and wherein the metallic intermediate layer whose main constituent is titanium has a thickness of at least 100 mm.
A system comprising: a tire; a bridge circuit comprising a plurality of branches (104, 106) having a plurality of resistors (108, 110, 112, 114) and configured to generate an output voltage (V out) at output terminals (118, 122), wherein the output voltage (V out) at the output terminals (118, 122) is a function of parameters comprising a voltage applied to the bridge circuit; and a sensor configured to monitor for the change in the output voltage (V out) at the output terminals (118, 122) of the bridge circuit, characterized in that the tire has a conductive material layer, wherein the conductive material layer of the tire corresponds to one of the plurality of resistors (108, 110, 112, 114) of a branch of the plurality of branches (104, 106); and the output voltage (V out) at the output terminals (118, 122) further is a function of a resistance of the conductive material layer and a change in the output voltage (V out) is indicative of a change in the resistance of the conductive material layer. a tire; a bridge circuit comprising a plurality of branches (104, 106) having a plurality of resistors (108, 110, 112, 114) and configured to generate an output voltage (V out) at output terminals (118, 122), wherein the output voltage (V out) at the output terminals (118, 122) is a function of parameters comprising a voltage applied to the bridge circuit; and a sensor configured to monitor for the change in the output voltage (V out) at the output terminals (118, 122) of the bridge circuit, characterized in that the tire has a conductive material layer, wherein the conductive material layer of the tire corresponds to one of the plurality of resistors (108, 110, 112, 114) of a branch of the plurality of branches (104, 106); and the output voltage (V out) at the output terminals (118, 122) further is a function of a resistance of the conductive material layer and a change in the output voltage (V out) is indicative of a change in the resistance of the conductive material layer.
A computer-implemented method, comprising: providing a transaction processing layer comprising a set of one or more transaction handlers; providing an Unspent Transaction Output (UTXO) handling layer distinct from the transaction processing layer, the UTXO handling layer comprising a set of UTXO handlers; the one or more transaction handlers receiving messages and processing those messages into one or more blocks of a blockchain, wherein a message is associated with a transaction to be included in the blockchain, and wherein the transaction has associated therewith a set of Unspent Transaction Outputs (UTXOs); wherein during processing of a given segment of a block in the blockchain, a given transaction handler interacts with first and second UTXO handlers concurrently; and the first UTXO handler identifying and reversing a first UTXO operation associated with a first part of the transaction that completes successfully at the first UTXO handler upon receipt from the given transaction handler of a message to undo an associated spend operation for the transaction, wherein the given transaction handler issues the message upon receiving a response from the second UTXO handler indicating that a second UTXO operation associated with a second part of the transaction fails at the second UTXO handler. providing a transaction processing layer comprising a set of one or more transaction handlers; providing an Unspent Transaction Output (UTXO) handling layer distinct from the transaction processing layer, the UTXO handling layer comprising a set of UTXO handlers; the one or more transaction handlers receiving messages and processing those messages into one or more blocks of a blockchain, wherein a message is associated with a transaction to be included in the blockchain, and wherein the transaction has associated therewith a set of Unspent Transaction Outputs (UTXOs); wherein during processing of a given segment of a block in the blockchain, a given transaction handler interacts with first and second UTXO handlers concurrently; and the first UTXO handler identifying and reversing a first UTXO operation associated with a first part of the transaction that completes successfully at the first UTXO handler upon receipt from the given transaction handler of a message to undo an associated spend operation for the transaction, wherein the given transaction handler issues the message upon receiving a response from the second UTXO handler indicating that a second UTXO operation associated with a second part of the transaction fails at the second UTXO handler.
An airfoil comprising: a suction surface and a pressure surface both extending axially between a leading edge and a trailing edge region, as well as radially from a root section of the airfoil to a tip section of the airfoil; a first protuberance and a second protuberance both extending axially along the pressure surface at the trailing edge region, the first protuberance and the second protuberance spaced apart by a trough; and a primary cooling outlet located in the trough; characterised in that: the airfoil further comprises a first secondary cooling outlet located on the first protuberance and a second secondary cooling outlet located on the second protuberance, wherein the first secondary cooling outlet and the second secondary cooling outlet are located upstream of the primary cooling outlet. a suction surface and a pressure surface both extending axially between a leading edge and a trailing edge region, as well as radially from a root section of the airfoil to a tip section of the airfoil; a first protuberance and a second protuberance both extending axially along the pressure surface at the trailing edge region, the first protuberance and the second protuberance spaced apart by a trough; and a primary cooling outlet located in the trough; characterised in that: the airfoil further comprises a first secondary cooling outlet located on the first protuberance and a second secondary cooling outlet located on the second protuberance, wherein the first secondary cooling outlet and the second secondary cooling outlet are located upstream of the primary cooling outlet. the airfoil further comprises a first secondary cooling outlet located on the first protuberance and a second secondary cooling outlet located on the second protuberance, wherein the first secondary cooling outlet and the second secondary cooling outlet are located upstream of the primary cooling outlet.
An isolated antibody that specifically binds to a human IGFBP7 protein, wherein the antibody comprises: (i) a light chain variable region having an amino acid sequence of SEQ ID NO: 11 and a heavy chain variable region having an amino acid sequence of SEQ ID NO: 12, or (ii) a light chain variable region having an amino acid sequence of SEQ ID NO: 9 and a heavy chain variable region having an amino acid sequence of SEQ ID NO: 10. (i) a light chain variable region having an amino acid sequence of SEQ ID NO: 11 and a heavy chain variable region having an amino acid sequence of SEQ ID NO: 12, or (ii) a light chain variable region having an amino acid sequence of SEQ ID NO: 9 and a heavy chain variable region having an amino acid sequence of SEQ ID NO: 10.
A steam generation apparatus (6;6A;6B;6C;6D;6F) comprising: a heat medium flow passage through which a heat medium flows, in operation; a primary economizer disposed in the heat medium flow passage; a secondary economizer disposed in the heat medium flow passage at an upstream side of the primary economizer with respect to a flow direction of the heat medium; a primary evaporator disposed in the heat medium flow passage at an upstream side of the secondary economizer with respect to the flow direction of the heat medium, wherein the primary evaporator is configured to evaporate water supplied from the secondary economizer through heat exchange with the heat medium; a first feed water line configured to supply water heated by the primary economizer to the secondary economizer; and a second feed water line (53, 77) disposed so as to branch from the first feed water line and configured to supply the water heated by the primary economizer to a heat utilization facility, wherein a plurality of evaporators including the primary evaporator are disposed in the heat medium flow passage, and wherein the primary evaporator is positioned most downstream among the plurality of evaporators with respect to the flow direction of the heat medium flow passage. a heat medium flow passage through which a heat medium flows, in operation; a primary economizer disposed in the heat medium flow passage; a secondary economizer disposed in the heat medium flow passage at an upstream side of the primary economizer with respect to a flow direction of the heat medium; a primary evaporator disposed in the heat medium flow passage at an upstream side of the secondary economizer with respect to the flow direction of the heat medium, wherein the primary evaporator is configured to evaporate water supplied from the secondary economizer through heat exchange with the heat medium; a first feed water line configured to supply water heated by the primary economizer to the secondary economizer; and a second feed water line (53, 77) disposed so as to branch from the first feed water line and configured to supply the water heated by the primary economizer to a heat utilization facility, wherein a plurality of evaporators including the primary evaporator are disposed in the heat medium flow passage, and wherein the primary evaporator is positioned most downstream among the plurality of evaporators with respect to the flow direction of the heat medium flow passage.
A method performed by a device of a mesh distribution network and for reducing power consumed in the mesh distribution network, the method comprising: receiving from communicatively coupled mesh nodes of the mesh distribution network, data indicating which respective mesh nodes of the mesh nodes are currently active gateways ingressing or egressing traffic from the mesh distribution network, and an amount of traffic being served by the mesh nodes; determining based on the received data, a first mesh node of the mesh nodes to put into an inactive state; and providing a communication to the first mesh node that causes the first mesh node to enter the inactive state. receiving from communicatively coupled mesh nodes of the mesh distribution network, data indicating which respective mesh nodes of the mesh nodes are currently active gateways ingressing or egressing traffic from the mesh distribution network, and an amount of traffic being served by the mesh nodes; determining based on the received data, a first mesh node of the mesh nodes to put into an inactive state; and providing a communication to the first mesh node that causes the first mesh node to enter the inactive state.