mhurhangee/ep-ind-claims huggingface dataset:
A method of a wireless device for receiving signals of a narrow band Internet of things, NB-IoT, cell in a wireless communication network, the method comprising: receiving, from a base station operating a Long Term Evolution, LTE, cell and a NB-IoT cell, a master information block, MIB, for the NB-IoT cell, the MIB including information on an operation mode of the NB-IoT cell; identifying an NB-IoT frequency offset from an LTE channel raster, wherein the NB-IoT frequency offset is received in the MIB in case that the information on the operation mode indicates a guard-band deployment or an in-band different physical cell identifier, PCI, deployment where a PCI for the NB-IoT cell is different from a PCI for the LTE cell, and the NB-IoT frequency offset is identified based on information on a physical resource block, PRB, associated with a cell reference signal of the LTE cell in the MIB in case that the information on the operation mode indicates an in-band same PCI deployment where the NB-IoT cell and the LTE cell share a same PCI, and receiving, from the base station, signals of the NB-IoT cell based on the NB-IoT frequency offset. receiving, from a base station operating a Long Term Evolution, LTE, cell and a NB-IoT cell, a master information block, MIB, for the NB-IoT cell, the MIB including information on an operation mode of the NB-IoT cell; identifying an NB-IoT frequency offset from an LTE channel raster, wherein the NB-IoT frequency offset is received in the MIB in case that the information on the operation mode indicates a guard-band deployment or an in-band different physical cell identifier, PCI, deployment where a PCI for the NB-IoT cell is different from a PCI for the LTE cell, and the NB-IoT frequency offset is identified based on information on a physical resource block, PRB, associated with a cell reference signal of the LTE cell in the MIB in case that the information on the operation mode indicates an in-band same PCI deployment where the NB-IoT cell and the LTE cell share a same PCI, and receiving, from the base station, signals of the NB-IoT cell based on the NB-IoT frequency offset.
A lighting device for producing scenographic light effects; the lighting device (1; 21) comprising a frame (2; 22); a light source (3; 23) mounted on the frame (2; 22); a light guide (4; 24) coupled to the light source (3; 23) to define an optical path along a longitudinal axis; a first mirror (5; 25) arranged along the longitudinal axis and facing the light source (2; 23) to reflect the light beam towards the light source (3; 23); a second mirror (6; 26) movable with respect to the frame (2; 22) and facing the first mirror (5; 25) to reflect the light beam reflected by the first mirror (5; 25).
An electrochemical cell comprising: (i) a plurality of electrodes, comprising a fuel electrode that comprises aluminum and an air electrode that absorbs gaseous oxygen, the electrodes being operable in a discharge mode wherein the aluminum is oxidized at the fuel electrode and oxygen is reduced at the air electrode, and (ii) an ionically conductive medium, comprising an organic solvent; wherein the organic solvent promotes formation of a protective interface between the aluminum of the fuel electrode and the ionically conductive medium during non-use of the cell and wherein at an onset of the discharge mode, at least some of the protective interface is removed from the aluminum within the potential difference between the fuel and air electrodes to thereafter permit continued oxidation of the aluminum during the discharge mode. (i) a plurality of electrodes, comprising a fuel electrode that comprises aluminum and an air electrode that absorbs gaseous oxygen, the electrodes being operable in a discharge mode wherein the aluminum is oxidized at the fuel electrode and oxygen is reduced at the air electrode, and (ii) an ionically conductive medium, comprising an organic solvent;
A marine well containment system capable of producing fluids from a marine oil and gas well comprising: a blowout preventer; a subsea containment assembly connected to the blowout preventer; a riser assembly, wherein the riser assembly further comprises a vertical pipe riser and a flexible riser (104, 105, 106) and wherein the riser assembly is connected to the subsea containment assembly; a capture vessel connected to the riser assembly; wherein the capture vessel is capable of receiving fluids produced by the blowout preventer, captured by the subsea containment assembly, piped through the riser assembly to the capture vessel or a combination thereof. a blowout preventer; a subsea containment assembly connected to the blowout preventer; a riser assembly, wherein the riser assembly further comprises a vertical pipe riser and a flexible riser (104, 105, 106) and wherein the riser assembly is connected to the subsea containment assembly; a capture vessel connected to the riser assembly; wherein the capture vessel is capable of receiving fluids produced by the blowout preventer, captured by the subsea containment assembly, piped through the riser assembly to the capture vessel or a combination thereof.
A method for adding hops in beer manufacture, having the following process steps: a) separation of a sub-quantity of water and/or wort and/or beer as an aqueous fluid, b) addition of hop extract in liquid or pasty form to the separated aqueous fluid, c) production of a macroemulsion of the hop extract by emulsifying the hop extract in the aqueous fluid, d) increasing the pressure in the macroemulsion of the hop extract to a feed pressure of higher than 100 bar, e) production of a microemulsion of the hop extract by feeding the pressurized macroemulsion through a gap or a valve or by feeding the pressurized macroemulsion against a baffle plate, f) at least partial return of the microemulsion of the hop extract to the beer manufacturing process, wherein the mixture of aqueous fluid and hop extract and/or the macroemulsion and/or the microemulsion of the hop extract is subjected to an isomerization temperature treatment, wherein during said temperature treatment a conversion of the alpha acids of the hop extract into iso-alpha acids takes place. a) separation of a sub-quantity of water and/or wort and/or beer as an aqueous fluid, b) addition of hop extract in liquid or pasty form to the separated aqueous fluid, c) production of a macroemulsion of the hop extract by emulsifying the hop extract in the aqueous fluid, d) increasing the pressure in the macroemulsion of the hop extract to a feed pressure of higher than 100 bar, e) production of a microemulsion of the hop extract by feeding the pressurized macroemulsion through a gap or a valve or by feeding the pressurized macroemulsion against a baffle plate, f) at least partial return of the microemulsion of the hop extract to the beer manufacturing process,
A plant resistant to one or more PPX-inhibiting herbicides, said plant comprising a mutated protoporphyrinogen IX oxidase gene wherein said gene encodes a protein comprising a tyrosine to phenylalanine substitution at the amino acid position corresponding to position 426 of SEQ ID NO: 1 and a phenylalanine to tyrosine substitution at the amino acid position corresponding to position 145 of SEQ ID NO: 1.
A method, comprising: sending, by one or more processors of a customer premises equipment, CPE, device, a first request message to a domain master, DM, of a network having a plurality of network nodes, the first request message indicating at least one network node of the plurality of network nodes requested to enter a forced probe transmission, FPT, mode, the first request message also indicating a predefined duration during which the indicated at least one network node of the plurality of network nodes is requested to transmit a probe frame when in the FPT mode; receiving, by the DM, the first request message and attempting, by the DM, a best effort allocation of all available resources not currently in use such that the indicated at least one network node has an opportunity to transmit a probe frame during the predefined duration; and measuring one or more parameters related to a signal transmission channel during a time when the at least one network node of the plurality of network nodes is in the FPT mode. sending, by one or more processors of a customer premises equipment, CPE, device, a first request message to a domain master, DM, of a network having a plurality of network nodes, the first request message indicating at least one network node of the plurality of network nodes requested to enter a forced probe transmission, FPT, mode, the first request message also indicating a predefined duration during which the indicated at least one network node of the plurality of network nodes is requested to transmit a probe frame when in the FPT mode; receiving, by the DM, the first request message and attempting, by the DM, a best effort allocation of all available resources not currently in use such that the indicated at least one network node has an opportunity to transmit a probe frame during the predefined duration; and measuring one or more parameters related to a signal transmission channel during a time when the at least one network node of the plurality of network nodes is in the FPT mode.
Sealing device for sealing packagings, wherein the packaging comprises a base film and a cover film, wherein the base film and/or the cover film is/are formed from a water-soluble film web, wherein the device comprises a liquid supply for an aqueous liquid, at least one wetting unit for wetting the water-soluble film web with the liquid, which wetting unit is positioned at a distance (a) from the water-soluble film web, and a pressing-on device for pressing and sealing the cover film to the base film when wetted with the liquid, characterised in that the wetting unit is designed as a spraying device for the contactless spraying of the liquid onto the water-soluble film web, and in that the spraying device comprises an electromechanical spraying system with a row of discharge nozzles for the contactless spraying of the liquid onto the water-soluble film web.
A wireless communication method, comprising: transmitting, by a network device, to a user device, system information comprising a configuration information including an indication indicating that a long radio network temporary identifier having a length greater than that of a short radio network temporary identifier needs to be used, the indication being a 1-bit indication; receiving, by the nework device, after the transmitting of the configuration information, a random access preamble from the user device; and transmitting, by the network device, to the user device, a random access response based on the long radio network temporary identifier, wherein the long radio network temporary identifier is a long random access radio network temporary identifier and the short radio network temporary identifier is a short random access radio network temporary identifier transmitting, by a network device, to a user device, system information comprising a configuration information including an indication indicating that a long radio network temporary identifier having a length greater than that of a short radio network temporary identifier needs to be used, the indication being a 1-bit indication; receiving, by the nework device, after the transmitting of the configuration information, a random access preamble from the user device; and transmitting, by the network device, to the user device, a random access response based on the long radio network temporary identifier, wherein the long radio network temporary identifier is a long random access radio network temporary identifier and the short radio network temporary identifier is a short random access radio network temporary identifier
A method of making a plastic container, which includes the step of: a) providing a plastic container preform, b) placing said plastic container preform in a blow mold, c) blowing said plastic preform within said blow mold to form a hollow plastic container, d) placing an RFID tag on an actuator external to said blow mold, and e) prior to said step c) actuating said actuator and placing said RFID tag within said blow mold so that said RFID tag is molded into an external surface of said container during said step c), wherein said step e) is carried out by mounting said RFID tag to an external surface of said preform, and in that said step e) includes mounting said RFID tag to a closed end of said preform such that said RFID tag is molded into a base of said container following said step c). a) providing a plastic container preform, b) placing said plastic container preform in a blow mold, c) blowing said plastic preform within said blow mold to form a hollow plastic container, d) placing an RFID tag on an actuator external to said blow mold, and e) prior to said step c) actuating said actuator and placing said RFID tag within said blow mold so that said RFID tag is molded into an external surface of said container during said step c), wherein said step e) is carried out by mounting said RFID tag to an external surface of said preform, and in that
A reduced pressure treatment system for applying reduced pressure treatment to a tissue site, the system comprising: a reduced pressure source; a liquid-collection canister comprising: a chamber configured to collect liquid from the tissue site; a canister outlet in fluid communication with the reduced pressure source; a conduit having a gas communication pathway at least partially defined by a wall (402, 406), the conduit being positioned in the chamber such that the gas communication pathway is in fluid communication with the canister outlet, at least a portion of the wall (402, 406) being gas permeable and liquid impermeable, and a planar, liquid-air separator configured for connection to the canister outlet to prevent the liquid from exiting the liquid-collection canister, the planar, liquid-air separator configured to cover the canister outlet and the conduit being connected to the planar, liquid-air separator, wherein the conduit is perpendicular to the liquid-air separator. a reduced pressure source; a liquid-collection canister comprising: a chamber configured to collect liquid from the tissue site; a canister outlet in fluid communication with the reduced pressure source; a conduit having a gas communication pathway at least partially defined by a wall (402, 406), the conduit being positioned in the chamber such that the gas communication pathway is in fluid communication with the canister outlet, at least a portion of the wall (402, 406) being gas permeable and liquid impermeable, and a planar, liquid-air separator configured for connection to the canister outlet to prevent the liquid from exiting the liquid-collection canister, the planar, liquid-air separator configured to cover the canister outlet and the conduit being connected to the planar, liquid-air separator, wherein the conduit is perpendicular to the liquid-air separator. a chamber configured to collect liquid from the tissue site; a canister outlet in fluid communication with the reduced pressure source; a conduit having a gas communication pathway at least partially defined by a wall (402, 406), the conduit being positioned in the chamber such that the gas communication pathway is in fluid communication with the canister outlet, at least a portion of the wall (402, 406) being gas permeable and liquid impermeable, and a planar, liquid-air separator configured for connection to the canister outlet to prevent the liquid from exiting the liquid-collection canister, the planar, liquid-air separator configured to cover the canister outlet and the conduit being connected to the planar, liquid-air separator, wherein the conduit is perpendicular to the liquid-air separator.
A system comprising: a radio frequency identification tag; and an interference suppression apparatus that suppresses electromagnetic field interference produced by the radio frequency identification tag, characterized in that the interference suppression apparatus comprising: a power supply circuit; an antenna that is connected to the power supply circuit; a clock that is connected to the power supply circuit and generates an output in which a time constant is adjusted to be longer than a communication time of the radio frequency identification tag; and a load adjuster that is connected to the power supply circuit and changes a characteristic of the antenna based on the output from the clock. a radio frequency identification tag; and an interference suppression apparatus that suppresses electromagnetic field interference produced by the radio frequency identification tag, characterized in that the interference suppression apparatus comprising: a power supply circuit; an antenna that is connected to the power supply circuit; a clock that is connected to the power supply circuit and generates an output in which a time constant is adjusted to be longer than a communication time of the radio frequency identification tag; and a load adjuster that is connected to the power supply circuit and changes a characteristic of the antenna based on the output from the clock. a power supply circuit; an antenna that is connected to the power supply circuit; a clock that is connected to the power supply circuit and generates an output in which a time constant is adjusted to be longer than a communication time of the radio frequency identification tag; and a load adjuster that is connected to the power supply circuit and changes a characteristic of the antenna based on the output from the clock.
An assembly capable of retraction of soft tissue and distraction of bone during spinal surgery, wherein the assembly comprises: an anchorage including; a first joining member which co operates with a first anchor pin having a distal end which engages vertebral bone and which anchors the first joining member; and a second joining member which co operates with a second anchor pin having distal end which engages vertebral bone and which anchors the second joining member; wherein relative movement between the first and second joining members (113, 114) is allowed during bone distraction distraction through said anchor pins (135, 147); and wherein the first joining member includes a retaining arm which receives and retains a first retraction member having a first free end and a second end, the second end including a formation which allows the first retraction member to be retained on the retaining arm and move along the retaining arm during distraction of bone through the anchor pins (135, 147). an anchorage including; a first joining member which co operates with a first anchor pin having a distal end which engages vertebral bone and which anchors the first joining member; and a second joining member which co operates with a second anchor pin having distal end which engages vertebral bone and which anchors the second joining member; wherein relative movement between the first and second joining members (113, 114) is allowed during bone distraction distraction through said anchor pins (135, 147); and wherein the first joining member includes a retaining arm which receives and retains a first retraction member having a first free end and a second end, the second end including a formation which allows the first retraction member to be retained on the retaining arm and move along the retaining arm during distraction of bone through the anchor pins (135, 147).
A sensor element, comprising: a first surfaces and a second surface, which are opposite surfaces of the sensor element; a sensor section comprising a sensor unit configured to measure a physiological variable or any other signal in a living body and to generate a sensor signal in response to said measurement; wherein said sensor unit comprises a cavity covered by a membrane; a bond section comprising contact members configured to be electrically connected to at least one signal transmitting microcable; wherein the sensor section and the bond section are located at the first suiface of the sensor element; characterised in that substantially an entirety of the bond section is coated with an electrically insulating material, and that the sensor section is not coated with the electrically insulating material, such that the sensor unit will be directly accessible to the fluid medium in the living body. a first surfaces and a second surface, which are opposite surfaces of the sensor element; a sensor section comprising a sensor unit configured to measure a physiological variable or any other signal in a living body and to generate a sensor signal in response to said measurement; wherein said sensor unit comprises a cavity covered by a membrane; a bond section comprising contact members configured to be electrically connected to at least one signal transmitting microcable; wherein the sensor section and the bond section are located at the first suiface of the sensor element; characterised in that substantially an entirety of the bond section is coated with an electrically insulating material, and that the sensor section is not coated with the electrically insulating material, such that the sensor unit will be directly accessible to the fluid medium in the living body.
A subsea pipeline comprising a steel pipe surrounded by a thermally-insulating coating system, wherein the coating system has at least one thermal insulation layer that comprises a thermally-insulating matrix embedding elongate tensile elements of a thermoplastic polymer, characterised in that each elongate tensile element is co-mingled with the matrix in a transition zone surrounding that element.
A non-volatile data storage device, comprising: a controller; and an array of one or more solid-state memory storage devices configured to: store a plurality of logical pages, a size of the logical pages configured to correspond to a size of a tuple of a database; and store said tuple data, said tuple data being indexed based on a plurality of logical addresses corresponding to the plurality of logical pages; a first memory for storing processor executable instructions associated with database operations; and a second memory for storing data related to the database operations; wherein the controller is configured to execute the instructions, the instructions causing the controller to: cause data to be read from the solid-state memory storage devices into the second memory; determine whether the data match a query specified by the instructions; and perform a database operation based on the query match determination. a controller; and an array of one or more solid-state memory storage devices configured to: store a plurality of logical pages, a size of the logical pages configured to correspond to a size of a tuple of a database; and store said tuple data, said tuple data being indexed based on a plurality of logical addresses corresponding to the plurality of logical pages; store a plurality of logical pages, a size of the logical pages configured to correspond to a size of a tuple of a database; and store said tuple data, said tuple data being indexed based on a plurality of logical addresses corresponding to the plurality of logical pages; a first memory for storing processor executable instructions associated with database operations; and a second memory for storing data related to the database operations; wherein the controller is configured to execute the instructions, the instructions causing the controller to: cause data to be read from the solid-state memory storage devices into the second memory; determine whether the data match a query specified by the instructions; and perform a database operation based on the query match determination. cause data to be read from the solid-state memory storage devices into the second memory; determine whether the data match a query specified by the instructions; and perform a database operation based on the query match determination.