mhurhangee/patent-ind-claim-en huggingface dataset:
A method of controlling transmission from a user equipment, UE, supporting multiple sidelink processes in a wireless communication system, the method comprising: allocating transmission resources to a plurality of sidelink processes having data available for transmission based on priorities of the plurality of sidelink processes, wherein the plurality of sidelink processes include a first sidelink process having a first priority; and controlling transmission related to the allocated transmission resources, characterized in that a sum of resources utilizations for the sidelink processes having equal or lower priority than a priority level of the first priority is constrained to be equal to or less than a threshold corresponding to the priority level of the first priority, wherein the threshold corresponding to the priority level of the first priority is determined based on a channel busy ratio, CBR, measured by the terminal. allocating transmission resources to a plurality of sidelink processes having data available for transmission based on priorities of the plurality of sidelink processes, wherein the plurality of sidelink processes include a first sidelink process having a first priority; and controlling transmission related to the allocated transmission resources, characterized in that a sum of resources utilizations for the sidelink processes having equal or lower priority than a priority level of the first priority is constrained to be equal to or less than a threshold corresponding to the priority level of the first priority, wherein the threshold corresponding to the priority level of the first priority is determined based on a channel busy ratio, CBR, measured by the terminal.
Archimedes' screw device for a hydraulic power plant, including an assembly comprising two concentric tubes made integral with each other by a helix arranged helically between said two tubes , and positioned inclined below a waterfall, the water, by passing by gravity between the two tubes , causing said assembly to rotate, said assembly being carried on the one hand, in its upper portion, by a bearing , in which the end of the inner tube can journal, and on the other hand, in its lower portion, through a cradle , in which the outer tube rests, wherein the helical helix is formed of two threads (P, S), one (P) radial and the other one (S) oblique with respect to the axis of the screw.
Assistance device for assisting with putting on an item of clothing which is to hug tightly a limb of the body of a user, said device comprising a sole part comprising a first longitudinal end and a second longitudinal end , a first pocket part extending to the first longitudinal end and defining with the sole part a first cavity for receiving the end of the limb of the body, said first cavity facing in a longitudinal direction towards the second longitudinal end of the sole part , and a gripping element , said element extending starting from the first longitudinal end of the sole part in the longitudinal direction outside the sole part , characterised in that the device further comprises a second pocket part extending to the second longitudinal end and defining with the sole part a second cavity for receiving the end of the limb of the body, said second cavity facing in the longitudinal direction towards the first longitudinal end of the sole part .
Radar system for detecting the environment of a motor vehicle, comprising - a plastic-based antenna, wherein the plastic antenna (4.2, 5.2) has one or more individual antennas for transmitting and/or receiving radar signals, and - a circuit board (4.3, 5.3) comprising at least one high-frequency chip (4.6, 5.6) having at least one element (4.7, 5.7) for direct emission or reception, wherein - the plastic antenna (4.2, 5.2) is arranged on the side of the circuit board (4.3, 5.3) opposite the at least one high-frequency chip (4.6, 5.6), - the at least one emitting or receiving element (4.7, 5.7) is designed such that it emits in the direction of the circuit board (4.3, 5.3) or receives from the direction of the circuit board (4.3, 5.3), - the circuit board (4.3, 5.3) is permeable to radar waves in the region of the at least one emitting or receiving element (4.7, 5.7), and - a coupling or decoupling point on the plastic antenna (4.2, 5.2) is located at the at least one permeable point of the circuit board (4.3, 5.3). - a plastic-based antenna, wherein the plastic antenna (4.2, 5.2) has one or more individual antennas for transmitting and/or receiving radar signals, and - a circuit board (4.3, 5.3) comprising at least one high-frequency chip (4.6, 5.6) having at least one element (4.7, 5.7) for direct emission or reception, wherein - the plastic antenna (4.2, 5.2) is arranged on the side of the circuit board (4.3, 5.3) opposite the at least one high-frequency chip (4.6, 5.6), - the at least one emitting or receiving element (4.7, 5.7) is designed such that it emits in the direction of the circuit board (4.3, 5.3) or receives from the direction of the circuit board (4.3, 5.3), - the circuit board (4.3, 5.3) is permeable to radar waves in the region of the at least one emitting or receiving element (4.7, 5.7), and - a coupling or decoupling point on the plastic antenna (4.2, 5.2) is located at the at least one permeable point of the circuit board (4.3, 5.3).
A composition comprising methylated zebrafish DNA or a synthetic methylated DNA comprising zebrafish DNA having no significant homology to mammalian DNA, wherein said methylated zebrafish DNA or synthetic methylated DNA comprising zebrafish DNA is in a mixture with mammalian DNA, wherein said mammalian DNA is preferably human DNA, and said composition further comprising one of the following features: i) said zebrafish DNA comprises at least a portion of the zebrafish rassf1 gene; ii) said zebrafish DNA comprises at least a portion of SEQ ID NO: 1 or its complement; iii) said zebrafish DNA comprises at least a portion of SEQ ID NO:2 or a complement thereof or SEQ ID NO:3 or a complement thereof; iv) said synthetic zebrafish DNA comprises an oligonucleotide having the sequence of SEQ ID NO: 11 and/or an oligonucleotide having the sequence of SEQ ID NO: 12. i) said zebrafish DNA comprises at least a portion of the zebrafish rassf1 gene; ii) said zebrafish DNA comprises at least a portion of SEQ ID NO: 1 or its complement; iii) said zebrafish DNA comprises at least a portion of SEQ ID NO:2 or a complement thereof or SEQ ID NO:3 or a complement thereof; iv) said synthetic zebrafish DNA comprises an oligonucleotide having the sequence of SEQ ID NO: 11 and/or an oligonucleotide having the sequence of SEQ ID NO: 12.
A filling device for an operating fluid tank, comprising a tubular outer part and an inner part which is received in the outer part and which is designed to receive an operating fluid nozzle, wherein the inner part is formed in one piece and comprises a first end wall having a first opening and a second end wall having a second opening, the end walls being connected to one another via a shell and the shell being provided over the entire length between the end walls with a shell opening , whose width corresponds to the corresponding maximum inner width of the shell , wherein a second shell opening is provided in a portion adjoining the first end wall , such that the shell is reduced in this portion to two diagonally opposite webs extending in parallel.
A method of wireless communication, comprising: detecting that a reception of a first sidelink packet at a device using a first Radio Access Technology, RAT, will overlap in time with reception of a second sidelink packet at the device using a second RAT; determining a priority level of the second sidelink packet based on a prior reception of at least one prior sidelink packet using the second RAT; and prioritizing the reception of the second sidelink packet over reception of the first sidelink packet if the second sidelink packet has a higher priority level than the first sidelink packet. detecting that a reception of a first sidelink packet at a device using a first Radio Access Technology, RAT, will overlap in time with reception of a second sidelink packet at the device using a second RAT; determining a priority level of the second sidelink packet based on a prior reception of at least one prior sidelink packet using the second RAT; and prioritizing the reception of the second sidelink packet over reception of the first sidelink packet if the second sidelink packet has a higher priority level than the first sidelink packet.
Corrugated tube made of plastic for sheathing wires , comprising corrugations distributed over its length and alternately following one another, and comprising a longitudinal slot running along a circumferential longitudinal line (M-M), wherein the corrugated tube is transferable into an open position for insertion of the wires , with release of the longitudinal slot , and also into a closed position in which edge regions of the corrugated tube lying on both sides of the longitudinal slot overlap, wherein the corrugated tube is elastically prestressed in the direction of taking its closed position, and the edge region of the corrugated tube lying radially below the other edge region of the corrugated tube in the closed position within a predetermined circumferential region (a) is provided on its circumference with corrugations which are offset radially towards an interior of the corrugated tube by a distance in comparison with the corrugations outside the predetermined circumferential region (a), so that a radial underside of corrugation valleys of the corrugations within a specific circumferential region (a') projects somewhat towards the interior of the corrugated tube , and wherein the corrugations are formed such that, in the closed position, they engage the radial underside of the corrugations of the other edge region , by which they are overlapped in a circumferentially displaceable manner relative to one another.
Wheel for rail vehicles, which wheel has a first wheel hub and a first wheel body with a wheel web, a wheel flange and a running surface, wherein, in at least one contact region between the first wheel hub and the wheel web , there is provided at least one toothing , characterized in that a first toothed ring is arranged on a first face surface of the first wheel hub and a second toothed ring is arranged on a second face surface of the wheel web .
A vehicle drive force control method, comprising: - calculating an estimated friction coefficient of a road surface on the basis of longitudinal and lateral accelerations of a vehicle; and - limiting a drive force depending on a magnitude of the estimated friction coefficient; characterized by limiting a change rate of a magnitude of the estimated friction coefficient during vehicle traveling on the basis of the magnitude of the estimated friction coefficient such that a limited change rate of the magnitude of the estimated friction coefficient during vehicle traveling increases as the estimated friction coefficient increases. - calculating an estimated friction coefficient of a road surface on the basis of longitudinal and lateral accelerations of a vehicle; and - limiting a drive force depending on a magnitude of the estimated friction coefficient;
A method for producing alkali metal cyanides as a solid matter, comprising at least the steps: i) an absorption step in the form of absorbing hydrogen cyanide from a hydrogen cyanide-containing synthesis gas in an aqueous alkali metal hydroxide solution for producing an aqueous alkali metal cyanide solution; iii) a crystallization step in the form of introducing the alkali metal cyanide solution into an evaporative crystallizer which is heated by heating, in particular by vapor heating, and in which a pressure is below the atmospheric pressure (below 1013 mbar); iv) a step of condensing the cyanide-containing exhaust vapors arising in step iii) to a cyanide-containing exhaust vapor condensate, wherein the step of condensing iv) is performed using a multi-stage steam jet compressor which extracts the exhaust vapors from the crystallizer. i) an absorption step in the form of absorbing hydrogen cyanide from a hydrogen cyanide-containing synthesis gas in an aqueous alkali metal hydroxide solution for producing an aqueous alkali metal cyanide solution; iii) a crystallization step in the form of introducing the alkali metal cyanide solution into an evaporative crystallizer which is heated by heating, in particular by vapor heating, and in which a pressure is below the atmospheric pressure (below 1013 mbar); iv) a step of condensing the cyanide-containing exhaust vapors arising in step iii) to a cyanide-containing exhaust vapor condensate, wherein the step of condensing iv) is performed using a multi-stage steam jet compressor which extracts the exhaust vapors from the crystallizer.
A nucleated propylene-butylene-copolymer which i) has been produced in the presence of a Ziegler-Natta catalyst and is ii) free of phthalic acid esters as well as their respective decomposition products, and comprises - based on the total weight of the propylene-butylene copolymer - A. 88.0 -96.0 wt.-% of propylene B. 4.0 - 12.0 wt.-% of 1-butylene, wherein the nucleated propylene-butylene copolymer is further characterised by a) a molecular weight distribution (MWD) of at least 5.0 when measured according to ISO16014 b) and fulfils the following requirements: c1) Flexural Modulus of at least 1000 MPa when measured according to ISO178 and c2) Notched Impact strength of at least 3.0 kJ/m 2 when measured according to ISO 179/1eA +23 °C. i) has been produced in the presence of a Ziegler-Natta catalyst and is ii) free of phthalic acid esters as well as their respective decomposition products, and comprises - based on the total weight of the propylene-butylene copolymer - A. 88.0 -96.0 wt.-% of propylene B. 4.0 - 12.0 wt.-% of 1-butylene, A. 88.0 -96.0 wt.-% of propylene B. 4.0 - 12.0 wt.-% of 1-butylene, a) a molecular weight distribution (MWD) of at least 5.0 when measured according to ISO16014 b) and fulfils the following requirements: c1) Flexural Modulus of at least 1000 MPa when measured according to ISO178 and c2) Notched Impact strength of at least 3.0 kJ/m 2 when measured according to ISO 179/1eA +23 °C. c1) Flexural Modulus of at least 1000 MPa when measured according to ISO178 and c2) Notched Impact strength of at least 3.0 kJ/m 2 when measured according to ISO 179/1eA +23 °C.
A method of controlling data communication in a communications network having a plurality of remote input units, RIUs, providing data and a plurality of subscriber units utilizing at least some of the data, the method comprising: receiving the data at a central data server, CDS, ; generating a custom message derived from the data in the CDS ; and sending the custom message over the communications network to the at least one of the subscriber units ; characterized in that the method further comprises: receiving the data at an ingress port scheduler ; generating in the ingress port scheduler, a flow index based on a port number and selected bits of the data; forming a current value table, CVT, in the CDS , generated from the most recently received data; forming at least two circular buffers in the CDS , wherein the at least two circular buffers are defined by the data rate at which each operates; and writing the data in the CVT or in one of the circular buffers , where the flow index is used to determine where data is stored in the CDS ; wherein the step of generating a custom message comprises generating a custom message derived from the data in the CVT for at least one of the subscriber units based on format requirements of the at least one of the subscriber units, or generating a custom message derived from the data in one of the circular buffers for at least one of the subscriber units . receiving the data at a central data server, CDS, ; generating a custom message derived from the data in the CDS ; and sending the custom message over the communications network to the at least one of the subscriber units ; receiving the data at an ingress port scheduler ; generating in the ingress port scheduler, a flow index based on a port number and selected bits of the data; forming a current value table, CVT, in the CDS , generated from the most recently received data; forming at least two circular buffers in the CDS , wherein the at least two circular buffers are defined by the data rate at which each operates; and writing the data in the CVT or in one of the circular buffers , where the flow index is used to determine where data is stored in the CDS ; wherein the step of generating a custom message comprises generating a custom message derived from the data in the CVT for at least one of the subscriber units based on format requirements of the at least one of the subscriber units, or generating a custom message derived from the data in one of the circular buffers for at least one of the subscriber units .
A plant for automated packaging of items (O) in cardboard boxes (B) wherein each box (B) comprises a bottom wall (P F ), two pairs of side walls (P L1 , P L2 ) and a top closing wall (P S ), which plant comprises: - a forming station for forming open sheet boxes (B) from a continuous-feed web (M); - introduction means for introducing items (O) into the open boxes (B); - a closing station for closing the open boxes (B) with the items (O) therein; - feeding means for feeding the open boxes (B) from said forming station to said closing station ; wherein said forming station comprises cutting and creasing means for cutting and creasing the continuous-feed web (M), which are adapted to provide a longitudinal elongate element (E 1 ) defining the bottom wall (P F ), the top closing wall (P S ) and the first pair of side walls (P L1 ) of the box (B), and a pair of transverse panels (E 2 , E 3 ) adapted to form the second pair of side walls (P L2 ) of the box (B); wherein said closing station comprises folding and automatic gluing means for folding and gluing the side walls (P L1 , P L2 ) of the box (B) and the top wall (P S ), such that finished packages are formed, that are ready for storage or shipment; characterized in that said forming station comprises first gluing means for gluing the transverse panels (E 2 , E 3 ) to the elongate element (E 1 ), in such a manner to provide a substantially cross-shaped one-piece deployed blank (H), said first gluing means comprising a first applicator for applying hotmelt glue strips on side edges of the elongate element (E 1 ), said forming station comprising a pair of suction-cup manipulators for picking up the transverse panels (E 2 , E 3 ) and applying them on the elongate element (E 1 ) at the glue strips to obtain the cross-shaped blank (H). - a forming station for forming open sheet boxes (B) from a continuous-feed web (M); - introduction means for introducing items (O) into the open boxes (B); - a closing station for closing the open boxes (B) with the items (O) therein; - feeding means for feeding the open boxes (B) from said forming station to said closing station ;
Device for fixing at least one agricultural implement to a support element , or for fixing a support element, to which an agricultural implement is fastened, to a supporting structure, characterized in that • the device has a main body having a guide receptacle for receiving the support element and for guiding the main body along the support element , wherein at least one agricultural implement is fastenable to the main body, or the main body forms a part of the supporting structure, • the device comprises a clamping lever with a clamping hole , wherein the clamping lever can be arranged such that the clamping hole is aligned with the guide receptacle, with the result that the device is connectable to the support element such that said support element extends both through the clamping hole and through the guide receptacle, • wherein the clamping hole has a first non-circular shape and a cross section of the guide receptacle has a second non-circular shape, such that torque can be transmitted firstly from the clamping lever to the support element , which has a cross section with a third non-circular shape, and secondly from the support element to the guide receptacle and thus to the main body , and • the device comprises an actuating mechanism that is arranged on the main body , wherein a clamping torque can be applied to the clamping lever by the actuating mechanism such that said clamping lever rotates relative to the main body from a release position, in which the device is movable relative to the support element , into a clamping position, in which the device is frictionally fixed on the support element owing to the torque transmission action. • the device has a main body having a guide receptacle for receiving the support element and for guiding the main body along the support element , wherein at least one agricultural implement is fastenable to the main body, or the main body forms a part of the supporting structure, • the device comprises a clamping lever with a clamping hole , wherein the clamping lever can be arranged such that the clamping hole is aligned with the guide receptacle, with the result that the device is connectable to the support element such that said support element extends both through the clamping hole and through the guide receptacle, • wherein the clamping hole has a first non-circular shape and a cross section of the guide receptacle has a second non-circular shape, such that torque can be transmitted firstly from the clamping lever to the support element , which has a cross section with a third non-circular shape, and secondly from the support element to the guide receptacle and thus to the main body , and • the device comprises an actuating mechanism that is arranged on the main body , wherein a clamping torque can be applied to the clamping lever by the actuating mechanism such that said clamping lever rotates relative to the main body from a release position, in which the device is movable relative to the support element , into a clamping position, in which the device is frictionally fixed on the support element owing to the torque transmission action.