mhurhangee/patent-ind-claim-en huggingface dataset:
A method for allocating a radio resource, comprising, at a Macrocell: receiving a radio resource request message from a terminal via a Physical Random Access Channel, PRACH, or a Physical Uplink Control Channel, PUCCH, wherein a movement speed of the terminal is carried in the request message (S102); determining a radio resource allocated to the terminal according to the movement speed (S104); and sending instruction information to the terminal, wherein the instruction information indicates the terminal to access the determined radio resource allocated to the terminal (S106); wherein determining a radio resource allocated to the terminal according to the movement speed (S104) comprises: judging whether the movement speed is greater than a first preset value, and if the movement speed is greater than the first preset value, then allocating a radio resource of the Macrocell to the terminal; judging whether the movement speed is smaller than a second preset value, and if the movement speed is smaller than the second preset value, then sending an instruction signal to a Smallcell, wherein the instruction signal indicates the Smallcell to allocate, according to the movement speed, the radio resource to the terminal. receiving a radio resource request message from a terminal via a Physical Random Access Channel, PRACH, or a Physical Uplink Control Channel, PUCCH, wherein a movement speed of the terminal is carried in the request message (S102); determining a radio resource allocated to the terminal according to the movement speed (S104); and sending instruction information to the terminal, wherein the instruction information indicates the terminal to access the determined radio resource allocated to the terminal (S106); wherein determining a radio resource allocated to the terminal according to the movement speed (S104) comprises: judging whether the movement speed is greater than a first preset value, and if the movement speed is greater than the first preset value, then allocating a radio resource of the Macrocell to the terminal; judging whether the movement speed is smaller than a second preset value, and if the movement speed is smaller than the second preset value, then sending an instruction signal to a Smallcell, wherein the instruction signal indicates the Smallcell to allocate, according to the movement speed, the radio resource to the terminal. judging whether the movement speed is greater than a first preset value, and if the movement speed is greater than the first preset value, then allocating a radio resource of the Macrocell to the terminal; judging whether the movement speed is smaller than a second preset value, and if the movement speed is smaller than the second preset value, then sending an instruction signal to a Smallcell, wherein the instruction signal indicates the Smallcell to allocate, according to the movement speed, the radio resource to the terminal.
Monitoring system (60; 70) for the operation of an energy chain for guiding at least one line, e.g. a cable, hose or the like, between a first connection point for the connection to a base , and a second connection point, relatively moveable thereto, for the connection to a driver , including an energy chain , which is displaceable along a displacement path while forming a moveable strand , a stationary strand and a deflection arc therebetween; an arrangement with multiple sensors on the energy chain, which include measurand detectors in order to detect a parameter by measurement; and an evaluation unit , which interacts with the sensors in order to monitor whether an error condition occurs in operation of the energy chain; wherein a plurality of sensor modules (65-i; 75-i) are distributed as sensors along the length of the energy chain and are attached to the energy chain or inside the energy chain; characterized in - that each sensor module (65-i; 75-i) comprises a communication unit for the transmission of outputs to the evaluation unit , which depend on the parameter detected by measurement; and - that each of the sensor modules (65-i; 75-i) includes at least one integrated circuit (651; 652) that comprises an acceleration sensor , in particular a 3-axis acceleration sensor, as measurand detector for the quantitative detection of a kinematic parameter, and transmits corresponding outputs to the evaluation unit . an energy chain , which is displaceable along a displacement path while forming a moveable strand , a stationary strand and a deflection arc therebetween; an arrangement with multiple sensors on the energy chain, which include measurand detectors in order to detect a parameter by measurement; and an evaluation unit , which interacts with the sensors in order to monitor whether an error condition occurs in operation of the energy chain; wherein a plurality of sensor modules (65-i; 75-i) are distributed as sensors along the length of the energy chain and are attached to the energy chain or inside the energy chain; characterized in - that each sensor module (65-i; 75-i) comprises a communication unit for the transmission of outputs to the evaluation unit , which depend on the parameter detected by measurement; and - that each of the sensor modules (65-i; 75-i) includes at least one integrated circuit (651; 652) that comprises an acceleration sensor , in particular a 3-axis acceleration sensor, as measurand detector for the quantitative detection of a kinematic parameter, and transmits corresponding outputs to the evaluation unit . - that each sensor module (65-i; 75-i) comprises a communication unit for the transmission of outputs to the evaluation unit , which depend on the parameter detected by measurement; and - that each of the sensor modules (65-i; 75-i) includes at least one integrated circuit (651; 652) that comprises an acceleration sensor , in particular a 3-axis acceleration sensor, as measurand detector for the quantitative detection of a kinematic parameter, and transmits corresponding outputs to the evaluation unit .
A substantially anhydrous oral care composition having a water content of less than 5% by weight, comprising: a peroxide source comprising cPVP-hydrogen peroxide complex in an amount to provide from 0.01% to 5.5% of hydrogen peroxide by weight of the composition; a hydrophobic component comprising a silicone polymer; sodium tripolyphosphate (STPP); in an amount of from 0.05 to 3% by weight of the composition; wherein the composition optionally comprises a dental surface adhesion agent. a peroxide source comprising cPVP-hydrogen peroxide complex in an amount to provide from 0.01% to 5.5% of hydrogen peroxide by weight of the composition; a hydrophobic component comprising a silicone polymer; sodium tripolyphosphate (STPP); in an amount of from 0.05 to 3% by weight of the composition; wherein the composition optionally comprises a dental surface adhesion agent.
Power tool , for example a power drill, comprising - a receiving device having at least a first and a second power consuming element ; and - an energy supply unit , for example a rechargeable battery, which can be connected to the power tool and has a connecting device , the connecting device comprising at least a first and a second power output element ; the receiving device being designed to receive and hold the connecting device , so that the power consuming elements and the power output elements can be connected to one another to establish an electrical connection, characterized in that both the first and the second power consuming element comprise a positive terminal and a negative terminal and both the first and the second power output element comprise a positive terminal and a negative terminal , so that in each case a positive terminal is in connection with a positive terminal and a negative terminal is in connection with a negative terminal when the receiving device and the connecting device are connected to one another, the positive terminal of the first power output element and the positive terminal of the second power output element , the positive terminal of the first power consuming element and the positive terminal of the second power consuming element, the negative terminal of the first power output element and the negative terminal of the second power output element and also the negative terminal of the first power consuming element and the negative terminal of the second power consuming element being positioned at a distance from one another in at least a first and a second direction (X, Y). - a receiving device having at least a first and a second power consuming element ; and - an energy supply unit , for example a rechargeable battery, which can be connected to the power tool and has a connecting device , the connecting device comprising at least a first and a second power output element ;
A terminal apparatus comprising at least one processor and a memory coupled to the at least one processor, the processor configured to: receive at least one physical downlink control channel, PDCCH, with a downlink control information, DCI, format; and receive a physical downlink shared channel, PDSCH, corresponding to a resource indication value, RIV, that is configured in a "frequency domain resource assignment" field of the DCI format and that is given at least based on a type of search space in which the PDCCH is detected; wherein in a case where the terminal apparatus is configured to monitor a first PDCCH candidate in a common search space, CSS, and a second PDCCH candidate in a user equipment specific search space, USS, according to the DCI format with a cell radio network temporary identifier, C-RNTI, a set of control channel elements, CCEs, constituting the first PDCCH candidate is the same as a set of CCEs constituting the second PDCCH candidate, a scrambling sequence for the first PDCCH candidate is the same as a scrambling sequence for the second PDCCH candidate, and the size of the DCI format corresponding to the first PDCCH candidate is the same as the size of the DCI format corresponding to the second PDCCH candidate, the processor is further configured to: monitor the PDCCH with the DCI format only on the first PDCCH candidate in the CSS among the first PDCCH candidate in the CSS and the second PDCCH candidate in the USS. receive at least one physical downlink control channel, PDCCH, with a downlink control information, DCI, format; and receive a physical downlink shared channel, PDSCH, corresponding to a resource indication value, RIV, that is configured in a "frequency domain resource assignment" field of the DCI format and that is given at least based on a type of search space in which the PDCCH is detected; wherein in a case where the terminal apparatus is configured to monitor a first PDCCH candidate in a common search space, CSS, and a second PDCCH candidate in a user equipment specific search space, USS, according to the DCI format with a cell radio network temporary identifier, C-RNTI, a set of control channel elements, CCEs, constituting the first PDCCH candidate is the same as a set of CCEs constituting the second PDCCH candidate, a scrambling sequence for the first PDCCH candidate is the same as a scrambling sequence for the second PDCCH candidate, and the size of the DCI format corresponding to the first PDCCH candidate is the same as the size of the DCI format corresponding to the second PDCCH candidate, the processor is further configured to: monitor the PDCCH with the DCI format only on the first PDCCH candidate in the CSS among the first PDCCH candidate in the CSS and the second PDCCH candidate in the USS.
Method for controlling an air-conditioning device used to generate supply air conditioned by cooling and heating devices for the interior of a vehicle, the control being designed as interference variable control, characterized in that the control is based on a predetermined characteristic map, in which a thermal output requirement to be supplied by the air-conditioning device is determined on the basis of external thermal conditions of the vehicle, a target temperature assigned to the interior and the occupancy of the vehicle by persons.
A device for the sampling and extraction of at least one granular solid in a pack of granular solids, said device comprising a sampling probe , a sample collector connected to said sampling probe , and a control means , said sampling probe comprising a sampling tube which is capable of extracting said granular solid from said pack, said sampling tube being connected to at least one transfer tube which is capable of transferring said extracted granular solid via said sampling tube to the sample collector , said sampling tube and said transfer tube each comprising at least one central conduit and at least two lateral conduits, said central conduit and said lateral conduits of said sampling tube being respectively connected to the central conduit and to the lateral conduits of said transfer tube , said central conduit of said sampling tube additionally being connected to the lateral conduits of said sampling tube ; characterized in that said central conduit of said sampling tube comprises a collection chamber comprising a system for retaining said granular solid, and in that said lateral conduits of said sampling tube and transfer tube are connected to a source of gaseous fluid which is capable of extracting said granular solid retained in the collection chamber via the lateral conduits of said sampling tube and transfer tube , and characterized in that said system for retaining the sampling tube is in the form of a system with two flaps disposed either side of the collection chamber .
A flame resistant composite article comprising: a. a facial layer; b. a meltable layer, wherein the meltable layer is meltable according to the Melting and Thermal Stability test disclosed herein; c. a heat reactive material comprising a polymer resin and an expandable graphite; and d. an inner layer; wherein the facial layer is attached to the meltable layer and the heat reactive material is disposed between the meltable layer and the inner layer, wherein a combination of the meltable layer and the heat reactive material is configured to form a char when exposed to a temperature of greater than or equal to 280°C. a. a facial layer; b. a meltable layer, wherein the meltable layer is meltable according to the Melting and Thermal Stability test disclosed herein; c. a heat reactive material comprising a polymer resin and an expandable graphite; and d. an inner layer;
A mouse whose genome comprises: (a) a humanized immunoglobulin heavy chain variable locus comprising at least one unrearranged human V H , at least one unrearranged human D H , and at least one unrearranged human J H segment operably linked to an endogenous heavy chain constant region gene; (b) a humanized immunoglobulin light chain variable locus comprising no more than one, or no more than two, rearranged human light chain V/J sequences operably linked to an endogenous light chain constant region gene; and, (c) an ectopic nucleic acid sequence that expresses a functional mouse ADAM6a protein or functional ortholog or functional homolog or functional fragment thereof and an ectopic nucleic acid sequence that expresses a functional mouse ADAM6b protein or functional ortholog or functional homolog or functional fragment thereof, the ADAM6 proteins, orthologs, homologs, or fragments being functional in a male mouse, wherein said function is associated with male fertility, said mouse having eliminated or reduced endogenous ADAM6 function and further characterized in that its germline lacks an unrearranged endogenous immunoglobulin Vκ gene segment and an unrearranged endogenous immunoglobulin Jκ gene segment. (a) a humanized immunoglobulin heavy chain variable locus comprising at least one unrearranged human V H , at least one unrearranged human D H , and at least one unrearranged human J H segment operably linked to an endogenous heavy chain constant region gene; (b) a humanized immunoglobulin light chain variable locus comprising no more than one, or no more than two, rearranged human light chain V/J sequences operably linked to an endogenous light chain constant region gene; and, (c) an ectopic nucleic acid sequence that expresses a functional mouse ADAM6a protein or functional ortholog or functional homolog or functional fragment thereof and an ectopic nucleic acid sequence that expresses a functional mouse ADAM6b protein or functional ortholog or functional homolog or functional fragment thereof, the ADAM6 proteins, orthologs, homologs, or fragments being functional in a male mouse, wherein said function is associated with male fertility,
An apparatus comprising: a circuit board configured to propagate an electromagnetic signal; a waveguide configured to propagate the electromagnetic signal; a coupling port configured to couple the electromagnetic signal between the circuit board and the waveguide, wherein the circuit board is proximate to the coupling port; and a radiating structure (442, 444; 412, 414) disposed on the circuit board, wherein the radiating structure comprises an electric field radiating component and a magnetic field radiating component , wherein the electric field radiating component is configured to couple an electric field between the circuit board and the coupling port, and wherein the magnetic field radiating component is configured to couple a magnetic field between the circuit board and the coupling port, wherein the magnetic field radiating component is physically separate from the electric field radiating component, characterized in that the radiating structure is configured such that a signal radiated by the electric field radiating component couples to the magnetic field radiating component, which in turn reradiates a signal, thereby to increase an operating bandwidth of the radiating structure. a circuit board configured to propagate an electromagnetic signal; a waveguide configured to propagate the electromagnetic signal; a coupling port configured to couple the electromagnetic signal between the circuit board and the waveguide, wherein the circuit board is proximate to the coupling port; and a radiating structure (442, 444; 412, 414) disposed on the circuit board, wherein the radiating structure comprises an electric field radiating component and a magnetic field radiating component , wherein the electric field radiating component is configured to couple an electric field between the circuit board and the coupling port, and wherein the magnetic field radiating component is configured to couple a magnetic field between the circuit board and the coupling port, wherein the magnetic field radiating component is physically separate from the electric field radiating component, characterized in that the radiating structure is configured such that a signal radiated by the electric field radiating component couples to the magnetic field radiating component, which in turn reradiates a signal, thereby to increase an operating bandwidth of the radiating structure.
A method for thermally insulating a household oven muffle, comprising the steps of: i) providing a muffle body made of metal material defining a cooking chamber ; ii) providing a thermally insulating material ; and iii) applying the insulating material to outer surfaces of the muffle body , wherein step ii) comprises providing a particulate compound including at least one light aggregate of mineral origin having a volumic mass of the granular/laminar particles dried in a stove ≤ 2000 kg/m 3 or else a volumic mass dried in an oven ≤ 1200 kg/m 3 and at least one binder and wherein step iii) comprises mixing the particulate compound with the binder and spraying the corresponding mixture on said outer surfaces of the muffle body , characterised in that - slide guides for supports present inside the cooking chamber are defined in the side walls of the muffle body , said guides being obtained substantially by deep drawing, extending in the direction of the depth of the muffle and giving rise on the inside and on the outside of the walls to an alternation of projecting parts and parts that are plane and/or recessed, wherein the recessed parts present on the outside of the muffle body are completely filled with the sprayed material, and - said method gives rise to a monolithic body , wherein different thicknesses of the monolithic body are obtained in different areas of the outside of the muffle body . i) providing a muffle body made of metal material defining a cooking chamber ; ii) providing a thermally insulating material ; and iii) applying the insulating material to outer surfaces of the muffle body , - slide guides for supports present inside the cooking chamber are defined in the side walls of the muffle body , said guides being obtained substantially by deep drawing, extending in the direction of the depth of the muffle and giving rise on the inside and on the outside of the walls to an alternation of projecting parts and parts that are plane and/or recessed, wherein the recessed parts present on the outside of the muffle body are completely filled with the sprayed material, and - said method gives rise to a monolithic body , wherein different thicknesses of the monolithic body are obtained in different areas of the outside of the muffle body .
A method of making a spray-dried Ziegler-Natta procatalyst system, the method comprising: mixing a spray-dried particulate solid, consisting essentially of a hydrophobic fumed silica, MgCl 2 , and THF, with a hydrocarbon liquid and one of titanium tetraisopropoxide (Ti(OiPr) 4 ) and ethylaluminum dichloride (EADC), but not both Ti(OiPr) 4 and EADC, to give an intermediate mixture consisting essentially of, or being a reaction product made from, the spray-dried particulate solid, hydrocarbon liquid, and either Ti(OiPr) 4 or EADC, but not both Ti(OiPr) 4 and EADC; and combining the intermediate mixture with the other one of the Ti(OiPr) 4 or EADC that was not used in the mixing step to give the spray-dried Ziegler-Natta procatalyst system. mixing a spray-dried particulate solid, consisting essentially of a hydrophobic fumed silica, MgCl 2 , and THF, with a hydrocarbon liquid and one of titanium tetraisopropoxide (Ti(OiPr) 4 ) and ethylaluminum dichloride (EADC), but not both Ti(OiPr) 4 and EADC, to give an intermediate mixture consisting essentially of, or being a reaction product made from, the spray-dried particulate solid, hydrocarbon liquid, and either Ti(OiPr) 4 or EADC, but not both Ti(OiPr) 4 and EADC; and combining the intermediate mixture with the other one of the Ti(OiPr) 4 or EADC that was not used in the mixing step to give the spray-dried Ziegler-Natta procatalyst system.