mhurhangee/patent-ind-claim-en huggingface dataset:
A jet pump for a fluid supply system of a turbomachine, comprising: an active fluid inlet conduit comprising a tube , extending along a longitudinal axis (X-X), and delimiting the inlet conduit , a passive fluid inlet conduit fluidly separated from the active fluid inlet conduit by the tube , wherein the active fluid inlet conduit comprises at least two twisted vanes located inside the tube and configured to rotatably drive the active fluid with respect to the longitudinal axis (X-X) of the tube, each of the vanes comprising a wall element which includes an inner side edge (BI) and an outer side edge (BE) opposite to the inner side edge (BI), characterized in that the vanes are connected to each other at their inner side edge (BI) which is substantially parallel to the longitudinal axis (X-X) of the tube and which extends in the centre of the internal tube . an active fluid inlet conduit comprising a tube , extending along a longitudinal axis (X-X), and delimiting the inlet conduit , a passive fluid inlet conduit fluidly separated from the active fluid inlet conduit by the tube , wherein the active fluid inlet conduit comprises at least two twisted vanes located inside the tube and configured to rotatably drive the active fluid with respect to the longitudinal axis (X-X) of the tube, each of the vanes comprising a wall element which includes an inner side edge (BI) and an outer side edge (BE) opposite to the inner side edge (BI), characterized in that the vanes are connected to each other at their inner side edge (BI) which is substantially parallel to the longitudinal axis (X-X) of the tube and which extends in the centre of the internal tube . wherein the active fluid inlet conduit comprises at least two twisted vanes located inside the tube and configured to rotatably drive the active fluid with respect to the longitudinal axis (X-X) of the tube, each of the vanes comprising a wall element which includes an inner side edge (BI) and an outer side edge (BE) opposite to the inner side edge (BI), characterized in that the vanes are connected to each other at their inner side edge (BI) which is substantially parallel to the longitudinal axis (X-X) of the tube and which extends in the centre of the internal tube .
A method for transmitting a broadcast signal, the method comprising: generating at least one first link layer packet including input packets, the input packets including service data for a broadcast service; generating at least one second link layer packet including link layer signaling information; physical processing the at least one first link layer packet and the at least one second link layer packet; and transmitting the broadcast signal including the at least one physical processed first link layer packet and the physical processed at least one second link layer packet, wherein generating the at least one first link layer packet comprises performing selective header compression on the input packets, wherein when the input packets are Transport Stream, TS, packets, the at least one first link layer packet includes a header (t107010, t107020; t108010, t108020; t109010, t109020) and a payload having TS packets, wherein the header includes a packet type field (Type) for identifying that the input packets included in the payload are TS packets, a number field (Count) for identifying a number of TS packets included in the payload and a flag field (NDPI; OP) for identifying whether an additional header is present in the at least one first link layer packet, wherein the additional header includes information (HCI) to identifying whether the header compression is performed on the TS packets when the flag field (NDPI; OP) identifies that the additional header is present, and wherein said header compression comprises a header deletion process. generating at least one first link layer packet including input packets, the input packets including service data for a broadcast service; generating at least one second link layer packet including link layer signaling information; physical processing the at least one first link layer packet and the at least one second link layer packet; and transmitting the broadcast signal including the at least one physical processed first link layer packet and the physical processed at least one second link layer packet, wherein generating the at least one first link layer packet comprises performing selective header compression on the input packets, wherein when the input packets are Transport Stream, TS, packets, the at least one first link layer packet includes a header (t107010, t107020; t108010, t108020; t109010, t109020) and a payload having TS packets, wherein the header includes a packet type field (Type) for identifying that the input packets included in the payload are TS packets, a number field (Count) for identifying a number of TS packets included in the payload and a flag field (NDPI; OP) for identifying whether an additional header is present in the at least one first link layer packet, wherein the additional header includes information (HCI) to identifying whether the header compression is performed on the TS packets when the flag field (NDPI; OP) identifies that the additional header is present, and wherein said header compression comprises a header deletion process.
Industrial network comprising a plurality of network nodes being interconnected and configured to: - host a blockchain , wherein the blockchain is a distributed permissionless trusted database configured to store a plurality of confirmed transactions , - exchange an unconfirmed transaction among each other, - add the unconfirmed transaction to the blockchain as a confirmed transaction of the plurality of confirmed transactions only on the condition that a consensus determined by a consensus protocol of the blockchain is reached between the plurality of network nodes , wherein the plurality of network nodes include a plurality of trusted network nodes forming a trusted backbone of the industrial network , wherein trusted network nodes forming the trusted backbone are located in one or more areas such as one or more safe room that can be secured with physical access controls, and/or are nodes only accessible to trusted operators of the industrial network, wherein the confirmed transactions stored by the blockchain comprise a confirmed connection transaction that is authorized by the trusted backbone , is indicative of a connecting device and is descriptive of a right of the connecting device to access the industrial network . - host a blockchain , wherein the blockchain is a distributed permissionless trusted database configured to store a plurality of confirmed transactions , - exchange an unconfirmed transaction among each other, - add the unconfirmed transaction to the blockchain as a confirmed transaction of the plurality of confirmed transactions only on the condition that a consensus determined by a consensus protocol of the blockchain is reached between the plurality of network nodes ,
A method performed by a wireless device that does not support non-terrestrial network, NTN, communication, the method comprising: receiving , from a network node, information configured to cause wireless devices that do not support NTN communication to avoid cell selection or re-selection to a candidate cell in an NTN, wherein the information comprises a subcarrier offset value associated with a cell-defining synchronization block, CD-SSB, for the NTN communication, the subcarrier offset value formatted to be used when received by wireless devices that support the NTN communication and to be ignored when received by the wireless devices that do not support the NTN communication; in response to receiving the information, avoiding cell selection or re-selection to the candidate cell in the NTN; and ignoring the subcarrier offset value. receiving , from a network node, information configured to cause wireless devices that do not support NTN communication to avoid cell selection or re-selection to a candidate cell in an NTN, wherein the information comprises a subcarrier offset value associated with a cell-defining synchronization block, CD-SSB, for the NTN communication, the subcarrier offset value formatted to be used when received by wireless devices that support the NTN communication and to be ignored when received by the wireless devices that do not support the NTN communication; in response to receiving the information, avoiding cell selection or re-selection to the candidate cell in the NTN; and ignoring the subcarrier offset value.
A lossless coding method comprising: obtaining an energy, in units of a band, from transform coefficients of an audio signal; selecting one of a first coding method and a second coding method for a differential quantization index of the energy; and coding the differential quantization index by using the selected coding method, wherein the selecting comprises: selecting the first coding method when at least one differential quantization index of all bands excepting a first differential quantization index included in a current frame is not represented in [-32, 31] or when the first differential quantization index is not represented in [-46, 17]; and selecting a coding method where a smaller number of bits is consumed, from the first coding method and the second coding method, when the first coding method is not required, wherein the first coding method includes a pulse mode and a scale mode using Huffman coding, wherein the pulse mode is selected when no quantization index exceeds a range of [-4, 3]. obtaining an energy, in units of a band, from transform coefficients of an audio signal; selecting one of a first coding method and a second coding method for a differential quantization index of the energy; and coding the differential quantization index by using the selected coding method, wherein the selecting comprises: selecting the first coding method when at least one differential quantization index of all bands excepting a first differential quantization index included in a current frame is not represented in [-32, 31] or when the first differential quantization index is not represented in [-46, 17]; and selecting a coding method where a smaller number of bits is consumed, from the first coding method and the second coding method, when the first coding method is not required, selecting the first coding method when at least one differential quantization index of all bands excepting a first differential quantization index included in a current frame is not represented in [-32, 31] or when the first differential quantization index is not represented in [-46, 17]; and selecting a coding method where a smaller number of bits is consumed, from the first coding method and the second coding method, when the first coding method is not required, wherein the first coding method includes a pulse mode and a scale mode using Huffman coding, wherein the pulse mode is selected when no quantization index exceeds a range of [-4, 3].
A valve rocker arm assembly, comprising an oil inlet hose ; a rocker arm shaft , wherein an oil drain channel , an oil return groove and a first oil path are provided in the rocker arm shaft, and the oil drain channel is in communication with the oil return groove through the first oil path; a first rocker arm , which is rotatably connected to the rocker arm shaft; a second rocker arm , which is rotatably connected to the rocker arm shaft, wherein the first rocker arm and the second rocker arm are located in a same rotation plane, the second rocker arm is provided with a piston chamber , an oil inlet path , an oil drain path and a piston , the piston is slidably arranged in the piston chamber, an extension end of the piston is configured to extend out of the piston chamber and push the first rocker arm, one end of the oil inlet path and one end of the oil drain path both are in communication with a space of the piston chamber located at a bottom of the piston, another end of the oil inlet path is connected to the oil inlet hose, and another end of the oil drain path is alternately connected or disconnected with the oil return groove as the second rocker arm swings; a unidirectional communication device , which is provided in the oil inlet path and/or the oil inlet hose, and an oil-guiding direction thereof is toward the piston chamber; and a control valve, which is connected with the oil drain channel and is configured to control on-off of the oil drain channel. a rocker arm shaft , wherein an oil drain channel , an oil return groove and a first oil path are provided in the rocker arm shaft, and the oil drain channel is in communication with the oil return groove through the first oil path; a first rocker arm , which is rotatably connected to the rocker arm shaft; a second rocker arm , which is rotatably connected to the rocker arm shaft, wherein the first rocker arm and the second rocker arm are located in a same rotation plane, the second rocker arm is provided with a piston chamber , an oil inlet path , an oil drain path and a piston , the piston is slidably arranged in the piston chamber, an extension end of the piston is configured to extend out of the piston chamber and push the first rocker arm, one end of the oil inlet path and one end of the oil drain path both are in communication with a space of the piston chamber located at a bottom of the piston, another end of the oil inlet path is connected to the oil inlet hose, and another end of the oil drain path is alternately connected or disconnected with the oil return groove as the second rocker arm swings; a unidirectional communication device , which is provided in the oil inlet path and/or the oil inlet hose, and an oil-guiding direction thereof is toward the piston chamber; and a control valve, which is connected with the oil drain channel and is configured to control on-off of the oil drain channel.
A handheld watercraft, comprising a battery compartment and propellers, wherein there are at least two propellers, which are symmetrically arranged with respect to the battery compartment , and are connected to the battery compartment ; and an axis of each of the propellers and an axis of the battery compartment form an included angle different from zero; there are two propellers, and the two propellers are connected by a buoyancy block ; the propellers and the battery compartment are connected by a buoyancy bridge, and handles are arranged on the buoyancy bridge, the buoyancy bridge comprises an upper buoyancy plate and a lower buoyancy plate , which are arranged in parallel, wherein the buoyancy block , the upper buoyancy plate , the lower buoyancy plate , and the handles each have a hollow structure. there are two propellers, and the two propellers are connected by a buoyancy block ; the propellers and the battery compartment are connected by a buoyancy bridge, and handles are arranged on the buoyancy bridge, the buoyancy bridge comprises an upper buoyancy plate and a lower buoyancy plate , which are arranged in parallel, wherein the buoyancy block , the upper buoyancy plate , the lower buoyancy plate , and the handles each have a hollow structure.
A containerized seismic source system , comprising: a plurality of shipping containers (211, 213, 215, 217-219, 221, 231, 241, 401-411) located on a back deck of a marine vessel ; and a seismic source handling system comprising a plurality of source handling rails (223a-f, 300, 421-426) located within a first group (221, 401-409) of the plurality of shipping containers (211, 213, 215, 217-219, 221, 231, 241, 401-411), wherein the seismic source handling system is configured to deploy and retrieve a plurality of seismic source arrays (491-496) from the back deck of the marine vessel to a body of water across each of the first group of the plurality of shipping containers (211, 213, 215, 217-219, 221, 231, 241, 401-411); wherein the first group of the plurality of containers (211, 213, 215, 217-219, 221, 231, 241, 401-411) is arranged transverse on the back deck of the marine vessel ; and the plurality of source handling rails (223a-f, 421-426) is located in each of the first group of the plurality of containers (211, 213, 215, 217-219, 221, 231, 241, 401-411). a plurality of shipping containers (211, 213, 215, 217-219, 221, 231, 241, 401-411) located on a back deck of a marine vessel ; and a seismic source handling system comprising a plurality of source handling rails (223a-f, 300, 421-426) located within a first group (221, 401-409) of the plurality of shipping containers (211, 213, 215, 217-219, 221, 231, 241, 401-411), wherein the seismic source handling system is configured to deploy and retrieve a plurality of seismic source arrays (491-496) from the back deck of the marine vessel to a body of water across each of the first group of the plurality of shipping containers (211, 213, 215, 217-219, 221, 231, 241, 401-411); wherein the first group of the plurality of containers (211, 213, 215, 217-219, 221, 231, 241, 401-411) is arranged transverse on the back deck of the marine vessel ; and the plurality of source handling rails (223a-f, 421-426) is located in each of the first group of the plurality of containers (211, 213, 215, 217-219, 221, 231, 241, 401-411).
A method performed by a user equipment, UE, (13; 37; 1900; 2100) in a wireless communication system, the method comprising: receiving, from a base station (11; 31; 2000; 2200), information associated with an uplink resource being allocated by the base station (11; 31; 2000; 2200); identifying a number of padding bits filling a remaining portion of the uplink resource except a number of data to be transmitted, based on the information associated with the uplink resource being allocated; in case that the number of padding bits is smaller than a number of bits for a transmission of a long buffer status report, BSR, identifying whether the number of padding bits is enough to include a long truncated BSR; transmitting, to the base station (11; 31; 2000; 2200), a short truncated BSR based on the padding bit, in case that the number of padding bits is not enough to include the long truncated BSR; and transmitting, to the base station (11; 31; 2000; 2200), a long truncated BSR based on the padding bit, in case that the number of padding bits is enough to include the long truncated BSR, wherein the short truncated BSR includes information on a identifier for a logical channel group, LCG, and information on a buffer size for the LCG, wherein a size of the short truncated BSR is 8 bits and a size of the information on the identifier for the LCG is 3bits, wherein the long truncated BSR includes a bit map for a plurality of LCGs and information on a buffer size for at least one LCG among the plurality of LCGs, and wherein a number of the information on the buffer size for the at least one LCG is determined based on the number of padding bits. receiving, from a base station (11; 31; 2000; 2200), information associated with an uplink resource being allocated by the base station (11; 31; 2000; 2200); identifying a number of padding bits filling a remaining portion of the uplink resource except a number of data to be transmitted, based on the information associated with the uplink resource being allocated; in case that the number of padding bits is smaller than a number of bits for a transmission of a long buffer status report, BSR, identifying whether the number of padding bits is enough to include a long truncated BSR; transmitting, to the base station (11; 31; 2000; 2200), a short truncated BSR based on the padding bit, in case that the number of padding bits is not enough to include the long truncated BSR; and transmitting, to the base station (11; 31; 2000; 2200), a long truncated BSR based on the padding bit, in case that the number of padding bits is enough to include the long truncated BSR, wherein the short truncated BSR includes information on a identifier for a logical channel group, LCG, and information on a buffer size for the LCG, wherein a size of the short truncated BSR is 8 bits and a size of the information on the identifier for the LCG is 3bits, wherein the long truncated BSR includes a bit map for a plurality of LCGs and information on a buffer size for at least one LCG among the plurality of LCGs, and wherein a number of the information on the buffer size for the at least one LCG is determined based on the number of padding bits.
A method of packaging an object , comprising: placing an object inside of heat-shrinkable film ; sealing the heat-shrinkable film around the object to form a heat-shrinkable package ; coupling a first portion of a label to the heat-shrinkable package , the label including an identifier on a second portion of the label ; and causing the heat-shrinkable film to shrink into heat-shrunk film and the heat-shrinkable package to form into a heat-shrunk package ; wherein the label remains coupled to the heat-shrunk film after the heat-shrinkable film is caused to shrink into heat-shrunk film ; and wherein the second portion of the label remains substantially undeformed after the heat-shrinkable film is caused to shrink into heat-shrunk film ; optionally wherein the heat-shrunk film is opaque. placing an object inside of heat-shrinkable film ; sealing the heat-shrinkable film around the object to form a heat-shrinkable package ; coupling a first portion of a label to the heat-shrinkable package , the label including an identifier on a second portion of the label ; and causing the heat-shrinkable film to shrink into heat-shrunk film and the heat-shrinkable package to form into a heat-shrunk package ; wherein the label remains coupled to the heat-shrunk film after the heat-shrinkable film is caused to shrink into heat-shrunk film ; and wherein the second portion of the label remains substantially undeformed after the heat-shrinkable film is caused to shrink into heat-shrunk film ; optionally wherein the heat-shrunk film is opaque.
A method performed by a wireless communication device for controlling setup of a radio resource control, RRC, connection in a cellular wireless network , said wireless communication device being associated with a serving cell , the method comprising: - obtaining , a first timer value, T 1 , that specifies a maximum time for waiting for an RRC connection setup message from the serving cell and a second timer value, T 2 , that specifies a maximum time for waiting for an RRC connection setup message from a neighbour cell , - calculating a timer value difference, DT 12 , by subtracting the second timer value from the first timer value, - if said timer value difference is greater than a first threshold value, TH 1 : - reselecting the neighbour cell as serving cell, and - transmitting an RRC connection request message in the serving cell. - obtaining , a first timer value, T 1 , that specifies a maximum time for waiting for an RRC connection setup message from the serving cell and a second timer value, T 2 , that specifies a maximum time for waiting for an RRC connection setup message from a neighbour cell , - calculating a timer value difference, DT 12 , by subtracting the second timer value from the first timer value, - if said timer value difference is greater than a first threshold value, TH 1 : - reselecting the neighbour cell as serving cell, and - transmitting an RRC connection request message in the serving cell. - reselecting the neighbour cell as serving cell, and - transmitting an RRC connection request message in the serving cell.