mhurhangee/patent-ind-claim-en huggingface dataset:
A method of wireless communication of a user equipment, UE , comprising: selecting a second wideband component W 1 of a second precoding matrix indicator, PMI, the second PMI comprising the second wideband component W 1 and a second subband component W 2 , wherein the selecting of the second wideband component W 1 is based at least on a determining of whether to reuse for the second wideband component W 1 a first wideband component of a first PMI previously determined based on received first channel state information reference signals, CSI-RS, , wherein the first PMI comprises a first wideband component and a first subband component, and wherein the determining of whether to reuse the first wideband component for the second wideband component W 1 is based on whether properties of a second CSI-RS and the first CSI-RS are the same and whether a quality of the determination of the first PMI is greater than a threshold quality; determining the second PMI based on the received second CSI-RS , the second wideband component W 1 , and the second subband component W 2 ; and reporting the determined second PMI to a base station . selecting a second wideband component W 1 of a second precoding matrix indicator, PMI, the second PMI comprising the second wideband component W 1 and a second subband component W 2 , wherein the selecting of the second wideband component W 1 is based at least on a determining of whether to reuse for the second wideband component W 1 a first wideband component of a first PMI previously determined based on received first channel state information reference signals, CSI-RS, , wherein the first PMI comprises a first wideband component and a first subband component, and wherein the determining of whether to reuse the first wideband component for the second wideband component W 1 is based on whether properties of a second CSI-RS and the first CSI-RS are the same and whether a quality of the determination of the first PMI is greater than a threshold quality; wherein the selecting of the second wideband component W 1 is based at least on a determining of whether to reuse for the second wideband component W 1 a first wideband component of a first PMI previously determined based on received first channel state information reference signals, CSI-RS, , wherein the first PMI comprises a first wideband component and a first subband component, and wherein the determining of whether to reuse the first wideband component for the second wideband component W 1 is based on whether properties of a second CSI-RS and the first CSI-RS are the same and whether a quality of the determination of the first PMI is greater than a threshold quality; determining the second PMI based on the received second CSI-RS , the second wideband component W 1 , and the second subband component W 2 ; and reporting the determined second PMI to a base station .
Method for the manufacture of a sporting goods component , wherein the sporting goods component is a shoe upper , the method comprising the steps of: - Selecting a first textile , wherein the first textile comprises a first shrinkage ratio under a predetermined shrinking condition; - Forming a first portion of the component using the first textile ; - Selecting a second textile , wherein the second textile comprises a second shrinkage ratio under the predetermined shrinking condition, wherein the second shrinkage ratio is higher than the first shrinkage ratio; - Forming a second portion of the component using the second textile ; - Attaching the first textile and the second textile together; and - Applying the shrinking condition, wherein the application of the shrinking condition provides the sporting goods component with a three-dimensional shape, characterised in that the three-dimensional shape is provided by the shrinking condition from a flat two-dimensional shape. - Selecting a first textile , wherein the first textile comprises a first shrinkage ratio under a predetermined shrinking condition; - Forming a first portion of the component using the first textile ; - Selecting a second textile , wherein the second textile comprises a second shrinkage ratio under the predetermined shrinking condition, wherein the second shrinkage ratio is higher than the first shrinkage ratio; - Forming a second portion of the component using the second textile ; - Attaching the first textile and the second textile together; and - Applying the shrinking condition, wherein the application of the shrinking condition provides the sporting goods component with a three-dimensional shape, characterised in that the three-dimensional shape is provided by the shrinking condition from a flat two-dimensional shape.
A copolymer comprising a polyphenylene ether component and a dicyclopentadiene copolymer component comprising a structure of Formulas D1, D2, D3-1, D3-2, or D3-3 wherein: each occurrence of Z 1 and Z 3 independently comprises halogen, unsubstituted or substituted C 1 -C 12 hydrocarbyl provided that the hydrocarbyl group is not tertiary hydrocarbyl, C 1 -C 12 hydrocarbylthio, C 1 -C 12 hydrocarbyloxy, or C 2 -C 12 halohydrocarbyloxy wherein at least two carbon atoms separate the halogen and oxygen atoms; each occurrence of Z 2 and Z 4 independently comprises hydrogen, halogen, unsubstituted or substituted C 1 -C 12 hydrocarbyl provided that the hydrocarbyl group is not tertiary hydrocarbyl, C 1 -C 12 hydrocarbylthio, C 1 -C 12 hydrocarbyloxy, or C 2 -C 12 halohydrocarbyloxy wherein at least two carbon atoms separate the halogen and oxygen atoms; each occurrence of R 1 to R 4 independently comprises hydrogen, C 1 -C 12 hydrocarbyl, or C 1 -C 12 hydrocarbyloxy; x is at least one 1 to 50; y is at least one 1 to 50; n at least one 1 to 100; and Q 1 comprises a single bond, hydrogen, or a terminal functional group. each occurrence of Z 1 and Z 3 independently comprises halogen, unsubstituted or substituted C 1 -C 12 hydrocarbyl provided that the hydrocarbyl group is not tertiary hydrocarbyl, C 1 -C 12 hydrocarbylthio, C 1 -C 12 hydrocarbyloxy, or C 2 -C 12 halohydrocarbyloxy wherein at least two carbon atoms separate the halogen and oxygen atoms; each occurrence of Z 2 and Z 4 independently comprises hydrogen, halogen, unsubstituted or substituted C 1 -C 12 hydrocarbyl provided that the hydrocarbyl group is not tertiary hydrocarbyl, C 1 -C 12 hydrocarbylthio, C 1 -C 12 hydrocarbyloxy, or C 2 -C 12 halohydrocarbyloxy wherein at least two carbon atoms separate the halogen and oxygen atoms; each occurrence of R 1 to R 4 independently comprises hydrogen, C 1 -C 12 hydrocarbyl, or C 1 -C 12 hydrocarbyloxy; x is at least one 1 to 50; y is at least one 1 to 50; n at least one 1 to 100; and Q 1 comprises a single bond, hydrogen, or a terminal functional group.
Arrangement comprising at least two receiving elements and at least one pouch cell, the receiving elements each comprising a base body , the base body being designed as a profile with a bearing surface for bearing against a sealing seam of a pouch cell, a sealing seam of the pouch cell being placed in a profile or between two adjacent profiles, characterized in that the profile is at least partially made of an elastomer, a thermoplastic elastomer or a closed-pore foam or comprises these materials, and in that the profile or two adjacent profiles elastically press the sealing seam of the pouch cell on both sides.
A system for at least partially oxidizing an oxidizable compound by contacting at least a portion of said oxidizable compound with a gas-phase oxidant, said system comprising: a first oxidation reactor ; a second oxidation reactor in downstream fluid-flow communication with said first oxidation reactor ; a bubble column reactor in downstream fluid-flow communication with said second oxidation reactor and defining a reaction zone ; and a sparger disposed within said reaction zone and configured to discharge at least a portion of said gas-phase oxidant into said reaction zone , wherein said sparger comprises one or more fluid distribution conduits defining a plurality of fluid discharge openings, wherein when said sparger is theoretically partitioned into four annular regions of equal area, the cumulative discharge opening area of the fluid discharge openings located in one of said annular regions is within 25 percent of the cumulative discharge opening area of the fluid discharge openings located in at least one other of said annular regions, wherein said sparger has a total flow-through open area of at least 25 percent, wherein said sparger has a maximum diameter that is at least 90 percent of the diameter of said reaction zone at the elevation where said sparger is disposed: wherein said bubble column reactor is configured to receive a slurry from said second oxidation reactor within the normally-uppermost 50 percent region of said reaction zone , wherein said sparger is disposed within the normally-lowermost 30 percent region of said reaction zone . a first oxidation reactor ; a second oxidation reactor in downstream fluid-flow communication with said first oxidation reactor ; a bubble column reactor in downstream fluid-flow communication with said second oxidation reactor and defining a reaction zone ; and a sparger disposed within said reaction zone and configured to discharge at least a portion of said gas-phase oxidant into said reaction zone , wherein said sparger comprises one or more fluid distribution conduits defining a plurality of fluid discharge openings, wherein when said sparger is theoretically partitioned into four annular regions of equal area, the cumulative discharge opening area of the fluid discharge openings located in one of said annular regions is within 25 percent of the cumulative discharge opening area of the fluid discharge openings located in at least one other of said annular regions, wherein said sparger has a total flow-through open area of at least 25 percent, wherein said sparger has a maximum diameter that is at least 90 percent of the diameter of said reaction zone at the elevation where said sparger is disposed: wherein said bubble column reactor is configured to receive a slurry from said second oxidation reactor within the normally-uppermost 50 percent region of said reaction zone , wherein said sparger is disposed within the normally-lowermost 30 percent region of said reaction zone .
A method of scheduling field devices in a wireless network of an industrial process system , the method being performed in a scheduling device and comprising: - scheduling one or more field devices on uplink resources and on downlink resources, such that, for at least one of the field devices , a periodicity of uplink resources is different than a periodicity of downlink resources, characterized in that in the scheduling the uplink and downlink are handled as separate disjoint tasks, whereby the resources are assigned separately in uplink and downlink, and the scheduling comprises adapting one or more of: number of uplink resources and number of downlink resources based on one or both of type of field device and application requirements of the field device to be scheduled. - scheduling one or more field devices on uplink resources and on downlink resources, such that, for at least one of the field devices , a periodicity of uplink resources is different than a periodicity of downlink resources, characterized in that in the scheduling the uplink and downlink are handled as separate disjoint tasks, whereby the resources are assigned separately in uplink and downlink, and the scheduling comprises adapting one or more of: number of uplink resources and number of downlink resources based on one or both of type of field device and application requirements of the field device to be scheduled.
A watch glass of a watch comprising an interior with a dial , hands and at least one black light LED, wherein the watch glass comprises - a cover glass , - a carrier glass , which is connected to the cover glass to form a glass unit , and - luminizing elements , which are accommodated in the glass unit , - wherein recesses are formed in the cover glass and/or in the carrier glass , in which the luminizing elements are arranged, - wherein the luminizing elements are configured, on the one hand, to output their light beams directly to an observer and, on the other hand, to also output their light into the interior and thereby illuminate the dial and the hands , and - wherein the luminizing elements are fluorescing gemstones and are configured to be illuminated from below by at least one black light LED attached in the interior of the watch and to be made to fluoresce. - a cover glass , - a carrier glass , which is connected to the cover glass to form a glass unit , and - luminizing elements , which are accommodated in the glass unit , - wherein recesses are formed in the cover glass and/or in the carrier glass , in which the luminizing elements are arranged, - wherein the luminizing elements are configured, on the one hand, to output their light beams directly to an observer and, on the other hand, to also output their light into the interior and thereby illuminate the dial and the hands , and - wherein the luminizing elements are fluorescing gemstones and are configured to be illuminated from below by at least one black light LED attached in the interior of the watch and to be made to fluoresce.
Method for roll-to-roll imprinting of components, in which method an imprint resist material layer is applied on a substrate material layer before imprinting the resist layer with a roll mold , characterized in that the imprint resist material is applied on the substrate material layer so, that the imprint resist material layer extends over the side edges of the substrate material layer and on the opposite side of the substrate material layer in relation to the imprinting surface of the substrate material layer in the cross-section of the substrate material layer together with the applied imprint resist material layer.
A sensing / control / identification device (68A; 500) of a machine, the device comprising: a shielding defining a shielded volume; a rectification and power conditioning module within the shielded volume configured to receive electromagnetic, EM, transmissions from an EM transmitting source and convert said EM transmissions to electrical power; a communication interface module within the shielded volume configured to receive power from the rectification and power conditioning module and at least one of receive the EM transmissions or transmit EM communications; and a control module within the shielded volume configured to at least one of (i) receive the EM transmissions from the communication interface for processing or prepare the EM communications for transmission from the communication interface module and (ii) communicate with a remote sensor of the machine; wherein a power output module is configured to distribute the electrical power from the rectification and power conditioning module to an electromechanical device . a shielding defining a shielded volume; a rectification and power conditioning module within the shielded volume configured to receive electromagnetic, EM, transmissions from an EM transmitting source and convert said EM transmissions to electrical power; a communication interface module within the shielded volume configured to receive power from the rectification and power conditioning module and at least one of receive the EM transmissions or transmit EM communications; and a control module within the shielded volume configured to at least one of (i) receive the EM transmissions from the communication interface for processing or prepare the EM communications for transmission from the communication interface module and (ii) communicate with a remote sensor of the machine; wherein a power output module is configured to distribute the electrical power from the rectification and power conditioning module to an electromechanical device .
A method for wireless communication at a user equipment, UE, comprising identifying a first plurality of control resources associated with a first transceiver node and a second plurality of control resources associated with a second transceiver node; selecting , based at least in part on a decoding limit for the UE, a decoding configuration to use for decoding one or more control resources from the first plurality of control resources and one or more resources from the second plurality of control resources; and decoding received control signals received over control resources from the first plurality of control resources and the second plurality of control resources according to the decoding configuration. identifying a first plurality of control resources associated with a first transceiver node and a second plurality of control resources associated with a second transceiver node; selecting , based at least in part on a decoding limit for the UE, a decoding configuration to use for decoding one or more control resources from the first plurality of control resources and one or more resources from the second plurality of control resources; and decoding received control signals received over control resources from the first plurality of control resources and the second plurality of control resources according to the decoding configuration.
A system to identify content relevant to an occupant of a vehicle, the system comprising: at least one sensor rotatably-mounted in the vehicle in a field of view of the occupant , the rotatably-mounted sensor is configured to collect information and data from at least one source in the rotatably-mounted sensor's surroundings; a system controller configured to process data from the at least one rotatably-mounted sensor and identify content that is relevant to the occupant ; and an output signal from the system controller , the output signal is configured to rotate the rotatably-mounted sensor in a manner that prompts the occupant to direct their gaze towards the relevant content, characterized in that the output signal from the system controller is configured to first rotate the rotatably-mounted sensor towards the occupant to capture a gaze of the occupant and second to rotate the rotatably-mounted sensor towards the relevant content. at least one sensor rotatably-mounted in the vehicle in a field of view of the occupant , the rotatably-mounted sensor is configured to collect information and data from at least one source in the rotatably-mounted sensor's surroundings; a system controller configured to process data from the at least one rotatably-mounted sensor and identify content that is relevant to the occupant ; and an output signal from the system controller , the output signal is configured to rotate the rotatably-mounted sensor in a manner that prompts the occupant to direct their gaze towards the relevant content, characterized in that the output signal from the system controller is configured to first rotate the rotatably-mounted sensor towards the occupant to capture a gaze of the occupant and second to rotate the rotatably-mounted sensor towards the relevant content.
An irrigation connector for tapping into a water supply hose , the connector comprising a retaining portion for holding a supply hose in a hose receiving region of the retaining portion and a hollow needle mounted for movement relative to the retaining portion between a retracted position in which the distal end of the needle is concealed and an extended position in which the needle extends into the hose receiving region for penetrating a supply hose held in the retaining portion to create a fluid communication path between an interior of the needle and an interior of a supply hose held in the retaining portion, wherein the hose receiving region is bounded by an encircling hose supporting surface and the retaining portion comprises a door portion moveable between a closed position and an open position which creates an opening in the hose supporting surface for allowing introduction and removal of a length of supply hose, wherein the irrigation connector further comprises a needle drive arrangement for driving the needle towards the extended position, a needle housing portion for housing the needle in the retracted position, and the drive arrangement comprises a drive collar for driving the needle relative to the needle housing portion; characterized by the drive arrangement being arranged so that whilst axial drive is transferred to the needle , the drive collar is arranged to rotate freely relative to the needle.
A recombinant vector for plant expression, which comprises: (a) a Gle1 protein variant-encoding nucleic acid molecule; (b) a promoter operatively linked to the nucleic acid molecule, and forming RNA molecules in plant cells; and (c) a poly A signal sequence acting in plant cells to cause polyadenylation at the 3' end of RNA molecules, wherein the Gle1 protein comprises a phytic acid-binding pocket represented by General Formula 1; [General Formula 1] Leu-Leu-Ala-Glu-Xaa1-Xaa2-Xaa3 -Xaa4-Cys-Xaa5-Tyr-Thr-Val-Pro, wherein Xaa1 is Leu or Phe, Xaa2 is His or Asn, Xaa3 is Lys or Arg, Xaa4 is Ala or Val, and Xaa5 is Ile or Met; wherein the Gle1 protein variant comprises the phytic acid-binding pocket of General Formula 1 in which the Xaa4 residue is substituted with a basic amino acid residue; or the Xaa4 residue and the Glu residue are substituted with a basic amino acid residue. (a) a Gle1 protein variant-encoding nucleic acid molecule; (b) a promoter operatively linked to the nucleic acid molecule, and forming RNA molecules in plant cells; and (c) a poly A signal sequence acting in plant cells to cause polyadenylation at the 3' end of RNA molecules, wherein the Gle1 protein comprises a phytic acid-binding pocket represented by General Formula 1; [General Formula 1] Leu-Leu-Ala-Glu-Xaa1-Xaa2-Xaa3 -Xaa4-Cys-Xaa5-Tyr-Thr-Val-Pro, wherein Xaa1 is Leu or Phe, Xaa2 is His or Asn, Xaa3 is Lys or Arg, Xaa4 is Ala or Val, and Xaa5 is Ile or Met; wherein the Gle1 protein variant comprises the phytic acid-binding pocket of General Formula 1 in which the Xaa4 residue is substituted with a basic amino acid residue; or the Xaa4 residue and the Glu residue are substituted with a basic amino acid residue.