mhurhangee/patent-ind-claim-en huggingface dataset:
A method at a user equipment , comprising: determining a cell of a network node to connect with; determining capabilities of the user equipment in relation to carrier aggregation comprising a carrier of the cell ; receiving, from the network node , a measurement indication identifying a plurality of carriers to be measured in idle mode, wherein the plurality of carriers comprise carriers that the user equipment can aggregate with the carrier of the cell and carriers that the user equipment cannot aggregate with the carrier of the cell ; performing , for early measurement reporting and based on the determined capabilities of the user equipment in relation to carrier aggregation, idle mode measurements of only those carriers from the plurality of carriers which the user equipment can aggregate with the carrier of the cell ; and indicating results of the idle mode measurements to the network node of the cell upon connection establishment with the cell . determining a cell of a network node to connect with; determining capabilities of the user equipment in relation to carrier aggregation comprising a carrier of the cell ; receiving, from the network node , a measurement indication identifying a plurality of carriers to be measured in idle mode, wherein the plurality of carriers comprise carriers that the user equipment can aggregate with the carrier of the cell and carriers that the user equipment cannot aggregate with the carrier of the cell ; performing , for early measurement reporting and based on the determined capabilities of the user equipment in relation to carrier aggregation, idle mode measurements of only those carriers from the plurality of carriers which the user equipment can aggregate with the carrier of the cell ; and indicating results of the idle mode measurements to the network node of the cell upon connection establishment with the cell .
A sensor system for monitoring a motor in an aircraft , the sensor system comprising: a wireless sensor arranged to measure a parameter of the motor, said wireless sensor being further arranged to transmit said parameter to an external wireless receiver ; an energy harvesting unit comprising a mass-spring unit arranged to be mechanically coupled to the aircraft; wherein the energy harvesting unit is arranged to convert mechanical energy arising from motion of the mass-spring unit to electrical energy using magnetic, piezoelectric, and/or electrostatic methods, and to supply said electrical energy to the wireless sensor; characterised in that the energy harvesting unit is arranged to be mechanically coupled to a component of the aircraft, wherein the component comprises one or more of the following: a wing; a blade; a landing gear; and/or a flight control surface of the aircraft. a wireless sensor arranged to measure a parameter of the motor, said wireless sensor being further arranged to transmit said parameter to an external wireless receiver ; an energy harvesting unit comprising a mass-spring unit arranged to be mechanically coupled to the aircraft; wherein the energy harvesting unit is arranged to convert mechanical energy arising from motion of the mass-spring unit to electrical energy using magnetic, piezoelectric, and/or electrostatic methods, and to supply said electrical energy to the wireless sensor; characterised in that the energy harvesting unit is arranged to be mechanically coupled to a component of the aircraft, wherein the component comprises one or more of the following: a wing; a blade; a landing gear; and/or a flight control surface of the aircraft.
A repeater system located within a coverage area , the repeater system comprising: a host unit configured to combine multiple downlink signals from multiple communication sources located outside the coverage area into a combined downlink signal; at least one remote unit coupled to the host unit and configured to transmit the combined downlink signal as a downlink RF communication signal into the coverage area ; wherein the at least one remote unit is further configured to produce a combined uplink signal from multiple uplink signals received through multiple communication links between terminals located in the coverage area and the at least one remote unit , and further configured to forward the combined uplink signal to the host unit ; wherein the host unit is configured to produce multiple signals from the combined uplink signal for transmission to the multiple communication sources , wherein the host unit is configured to communicate with the multiple downlink signals from multiple communication sources via outside communication links of different operators that are combined to an RF communication signal common to all operators to form the combined downlink signal. a host unit configured to combine multiple downlink signals from multiple communication sources located outside the coverage area into a combined downlink signal; at least one remote unit coupled to the host unit and configured to transmit the combined downlink signal as a downlink RF communication signal into the coverage area ; wherein the at least one remote unit is further configured to produce a combined uplink signal from multiple uplink signals received through multiple communication links between terminals located in the coverage area and the at least one remote unit , and further configured to forward the combined uplink signal to the host unit ; wherein the host unit is configured to produce multiple signals from the combined uplink signal for transmission to the multiple communication sources , wherein the host unit is configured to communicate with the multiple downlink signals from multiple communication sources via outside communication links of different operators that are combined to an RF communication signal common to all operators to form the combined downlink signal.
A computerized memory management method, comprising: receiving a video stream in a main thread of a multimedia browsing application; launching a child thread by a specified interface of a multimedia browsing application; and decoding the video frame data by the child thread; allocating a first memory address to video frame data based on a memory multiplexing queue, wherein the memory multiplexing queue records a memory address of video frame data that has been rendered; storing the video frame data in a memory space indicated by the first memory address; rendering the video frame data by the main thread of a multimedia browsing application; and passing the first memory address to the child thread of the multimedia browsing application by the main thread, and adding the first memory address to the memory multiplexing queue by the child thread; or adding the first memory address to the memory multiplexing queue by the main thread. receiving a video stream in a main thread of a multimedia browsing application; launching a child thread by a specified interface of a multimedia browsing application; and decoding the video frame data by the child thread; allocating a first memory address to video frame data based on a memory multiplexing queue, wherein the memory multiplexing queue records a memory address of video frame data that has been rendered; storing the video frame data in a memory space indicated by the first memory address; rendering the video frame data by the main thread of a multimedia browsing application; and passing the first memory address to the child thread of the multimedia browsing application by the main thread, and adding the first memory address to the memory multiplexing queue by the child thread; or adding the first memory address to the memory multiplexing queue by the main thread.
A foil for a secondary battery negative electrode collector comprising, in the following order: a first Cu layer made of Cu or a Cu-based alloy; a stainless steel layer made of martensitic stainless steel containing Ni of more than 0.6% by mass and 3.0% by mass or less, Cr of 10.5% by mass or more and C of 1.2% by mass or less, and exhibiting a two-phase structure of a ferrite phase and a martensite phase; and a second Cu layer made of Cu or a Cu-based alloy, wherein a total thickness is 200 um or less and a 0.01% proof stress is 500 MPa or more, the 0.01% proof stress being measured according to the method disclosed in the description, and a ratio of the ferrite phase and the martensite phase is 50% or less for the ferrite phase and 50% or more for the martensite phase. a first Cu layer made of Cu or a Cu-based alloy; a stainless steel layer made of martensitic stainless steel containing Ni of more than 0.6% by mass and 3.0% by mass or less, Cr of 10.5% by mass or more and C of 1.2% by mass or less, and exhibiting a two-phase structure of a ferrite phase and a martensite phase; and a second Cu layer made of Cu or a Cu-based alloy, wherein a total thickness is 200 um or less and a 0.01% proof stress is 500 MPa or more, the 0.01% proof stress being measured according to the method disclosed in the description, and a ratio of the ferrite phase and the martensite phase is 50% or less for the ferrite phase and 50% or more for the martensite phase.
Method for working a workpiece (P) made of wood, plastic, glass, fiberglass, metal, ceramic, comprising the following steps: a. providing a workpiece (P) to be worked in a working plant (I, I'), according to a forward direction (X); b. carrying out the decoration of the workpiece (P), by means of a decoration unit , according to a predetermined decoration program, along a working direction (Y), orthogonal to said forward direction (X), while said workpiece (P) moves along said forward direction (X), wherein said decoration is a removal of material by means of a laser source, or a print by means of a print head or a painting; and c. after said step b., carrying out the pressing of a layer of noble material (N) on said decorated workpiece (P), by means of a pressing or laminating unit (L). a. providing a workpiece (P) to be worked in a working plant (I, I'), according to a forward direction (X); b. carrying out the decoration of the workpiece (P), by means of a decoration unit , according to a predetermined decoration program, along a working direction (Y), orthogonal to said forward direction (X), while said workpiece (P) moves along said forward direction (X), wherein said decoration is a removal of material by means of a laser source, or a print by means of a print head or a painting; and c. after said step b., carrying out the pressing of a layer of noble material (N) on said decorated workpiece (P), by means of a pressing or laminating unit (L).
A system for dispensing a fluid, the system comprising: a dispenser comprising: a dispenser body comprising a refill cavity ; a dispenser lid detachably coupled to the dispenser body ; and a pump sub-system mounted to the dispenser lid , the pump sub-system comprising a first dip tube , a dispensing orifice , and a pump ; a refill cartridge positioned, at least in part, within the refill cavity of the dispenser , the refill cartridge comprising: a cartridge body comprising a fluid cavity containing a store of the fluid; and a second dip tube located in the fluid cavity and extending into the store of the fluid; and wherein the refill cartridge is coupled to the pump sub-system of the dispenser so that moving the pump sub-system away from the dispenser body removes the refill cartridge from the refill cavity of the dispenser body . a dispenser comprising: a dispenser body comprising a refill cavity ; a dispenser lid detachably coupled to the dispenser body ; and a pump sub-system mounted to the dispenser lid , the pump sub-system comprising a first dip tube , a dispensing orifice , and a pump ; a dispenser body comprising a refill cavity ; a dispenser lid detachably coupled to the dispenser body ; and a pump sub-system mounted to the dispenser lid , the pump sub-system comprising a first dip tube , a dispensing orifice , and a pump ; a refill cartridge positioned, at least in part, within the refill cavity of the dispenser , the refill cartridge comprising: a cartridge body comprising a fluid cavity containing a store of the fluid; and a second dip tube located in the fluid cavity and extending into the store of the fluid; and a cartridge body comprising a fluid cavity containing a store of the fluid; and a second dip tube located in the fluid cavity and extending into the store of the fluid; and wherein the refill cartridge is coupled to the pump sub-system of the dispenser so that moving the pump sub-system away from the dispenser body removes the refill cartridge from the refill cavity of the dispenser body .
A device for providing a quality of service, QoS, function for at least one communication service of at least one application entity in a communication network comprising a plurality of network entities , the device configured to: activate, in response to a subscription request of the at least one application entity , a subscription of the at least one application entity to the QoS function; transmit a monitoring request to one or more of the at least one application entity , at least one network entity , and at least one user equipment ; obtain a monitoring response from one or more of the at least one application entity , the at least one network entity , and the at least one user equipment ; predict a change in QoS of the at least one communication service of the at least one application entity , based on the obtained monitoring response ; and transmit information based on the predicted change in the QoS to the at least one application entity and/or at least one of the plurality of network entities in the communication network , wherein the subscription of the at least one application entity to the QoS function is activated based on a subscription parameter provided from the at least one application entity to the communication network , and wherein the subscription parameter includes a predefined geographical area for the prediction of the change in the QoS of the at least one communication service. activate, in response to a subscription request of the at least one application entity , a subscription of the at least one application entity to the QoS function; transmit a monitoring request to one or more of the at least one application entity , at least one network entity , and at least one user equipment ; obtain a monitoring response from one or more of the at least one application entity , the at least one network entity , and the at least one user equipment ; predict a change in QoS of the at least one communication service of the at least one application entity , based on the obtained monitoring response ; and transmit information based on the predicted change in the QoS to the at least one application entity and/or at least one of the plurality of network entities in the communication network , wherein the subscription of the at least one application entity to the QoS function is activated based on a subscription parameter provided from the at least one application entity to the communication network , and wherein the subscription parameter includes a predefined geographical area for the prediction of the change in the QoS of the at least one communication service.
A device for coaptation of bone parts or bone fragments, comprising a one-piece molded plate comprising a support portion produced from a first biocompatible polymer and comprising at least one zone or insert provided with a through hole , said at least one zone or insert being produced from a second biocompatible polymer which is more malleable that the first polymer, said at least one zone or insert having mechanical properties enabling self-tapping of the inside surface of the holes, by means of screws usable for fastening said plate to bone tissues, the device being characterized in that the second polymer has a melting point that is lower than that of the first polymer, and in that the support portion and the at least one zone or insert present a rheological continuity therebetween resulting in a partial molecular melting together, which is achieved through a solely superficial melting of the at least one zone or insert upon molding of the support portion.
A personal care composition comprising: a) from 0.25% to 80% of a pre-emulsified emulsion comprising from 0.005% to 80% of one or more materials selected from the group consisting of metathesized unsaturated polyol esters with a molecular weight greater than or equal to 1500, by weight of said personal care composition; wherein said metathesized unsaturated polyol esters are oligomers, wherein said one or more oligomers is a triglyceride oligomer, wherein the triglyceride oligomer is a soy oligomer; wherein an emulsifier is selected from the group consisting of anionic emulsifier, non-ionic emulsifier, cationic emulsifier, amphoteric emulsifier, and mixtures thereof; wherein the average particle size of the pre-emulsified emulsion is from 20 nanometers to 20 microns; b) from 5% to 50% of one or more anionic surfactants, by weight of said personal care composition; c) at least 20% of an aqueous carrier, preferably a water-miscible solvent, by weight of said personal care composition; wherein the composition is stable with respect to one of the following measures selected from emulsion particle size, viscosity or visual phase separation and mixtures thereof. a) from 0.25% to 80% of a pre-emulsified emulsion comprising from 0.005% to 80% of one or more materials selected from the group consisting of metathesized unsaturated polyol esters with a molecular weight greater than or equal to 1500, by weight of said personal care composition; wherein said metathesized unsaturated polyol esters are oligomers, wherein said one or more oligomers is a triglyceride oligomer, wherein the triglyceride oligomer is a soy oligomer; wherein an emulsifier is selected from the group consisting of anionic emulsifier, non-ionic emulsifier, cationic emulsifier, amphoteric emulsifier, and mixtures thereof; wherein the average particle size of the pre-emulsified emulsion is from 20 nanometers to 20 microns; b) from 5% to 50% of one or more anionic surfactants, by weight of said personal care composition; c) at least 20% of an aqueous carrier, preferably a water-miscible solvent, by weight of said personal care composition;
A binder composition for a non-aqueous secondary battery electrode comprising a polymer A and a polymer B, wherein the polymer A includes an aliphatic conjugated diene monomer unit in a proportion of at least 86 mass% and not more than 95 mass% and a nitrile group-containing monomer unit in a proportion of at least 1 mass% and not more than 14 mass%, and the polymer B includes an aliphatic conjugated diene monomer unit in a proportion of at least 20 mass% and not more than 80 mass% and an aromatic vinyl monomer unit. the polymer A includes an aliphatic conjugated diene monomer unit in a proportion of at least 86 mass% and not more than 95 mass% and a nitrile group-containing monomer unit in a proportion of at least 1 mass% and not more than 14 mass%, and the polymer B includes an aliphatic conjugated diene monomer unit in a proportion of at least 20 mass% and not more than 80 mass% and an aromatic vinyl monomer unit.
A composition comprising: - a polyvinylidene fluoride (A) comprising, based on all monomer units of the polyvinylidene fluoride (A), 97.0-99.99 mol% of vinylidene fluoride (VdF) units; and 0.01-3.0 mol% of units of a compound of the formula CH 2 =CH-(CH 2 ) 2 -COOY wherein Y is at least one of an inorganic cation and an organic cation; and - a VdF polymer (B) different from the polyvinylidene fluoride (A). - a polyvinylidene fluoride (A) comprising, based on all monomer units of the polyvinylidene fluoride (A), 97.0-99.99 mol% of vinylidene fluoride (VdF) units; and 0.01-3.0 mol% of units of a compound of the formula CH 2 =CH-(CH 2 ) 2 -COOY wherein Y is at least one of an inorganic cation and an organic cation; and - a VdF polymer (B) different from the polyvinylidene fluoride (A).
A method for controlling a refrigeration system of a vehicle, the refrigeration system comprising a circuit containing a refrigerant, a compressor , and a first evaporator and a second evaporator which are connected in parallel to the compressor, and a first expansion valve arranged upstream the first evaporator, which first expansion valve regulates a pressure drop of the refrigerant before the first evaporator, and a second expansion valve arranged upstream the second evaporator, which second expansion valve regulates a pressure drop of the refrigerant before the second evaporator, and a condenser arranged downstream the compressor between the compressor and the first and second expansion valves, the circuit having a main circuit , a first subcircuit for the first evaporator and a second subcircuit for the second evaporator , characterized by controlling a total opening of the first expansion valve and the second expansion valve , based on a temperature (T m ) and a pressure (p m ) of the refrigerant which refrigerant temperature and refrigerant pressure are measured downstream the first and second evaporators at a position between the first and second evaporators and the compressor in the main circuit , the measuring position being situated between a point , where the first subcircuit and the second subcircuit merge into the main circuit 6, and an inlet of the compressor.
An electronic device , comprising: a covering substrate having an outer major surface and an inner major surface , the covering substrate having a contact region; an acoustic port extending through the covering substrate between the outer and inner major surfaces of the covering substrate; an acoustic transducer rigidly secured to and carried by the inner major surface of the covering substrate via a conductive coupler , wherein an acoustic path extends between an exterior of the device and the transducer via the acoustic port; a touch sensor carried by the covering substrate; a transducer lead carried by the covering substrate, wherein the transducer lead is electrically connected to the transducer; processing circuitry operably associated with the touch sensor and with the transducer; an array of electrodes through which the touch sensor and the transducer lead are electrically connected to the processing circuitry; and a flexible interconnect substrate carrying the array of electrodes; wherein the transducer lead extends from the acoustic transducer to the contact region; and wherein the array of electrodes connects to the touch sensor and the transducer lead at the contact region. a covering substrate having an outer major surface and an inner major surface , the covering substrate having a contact region; an acoustic port extending through the covering substrate between the outer and inner major surfaces of the covering substrate; an acoustic transducer rigidly secured to and carried by the inner major surface of the covering substrate via a conductive coupler , wherein an acoustic path extends between an exterior of the device and the transducer via the acoustic port; a touch sensor carried by the covering substrate; a transducer lead carried by the covering substrate, wherein the transducer lead is electrically connected to the transducer; processing circuitry operably associated with the touch sensor and with the transducer; an array of electrodes through which the touch sensor and the transducer lead are electrically connected to the processing circuitry; and a flexible interconnect substrate carrying the array of electrodes; wherein the transducer lead extends from the acoustic transducer to the contact region; and wherein the array of electrodes connects to the touch sensor and the transducer lead at the contact region.