mhurhangee/ep-ind-claims huggingface dataset:
A CSI, Channel State Information, transmission method at a CoMP, Coordinated Multi-Point, device being a user equipment, UE, the method comprising steps of: receiving, by the UE, a CSI-RS, Channel State Information Reference Signal, from a plurality of transmission points; determining, by the UE, a maximum rank value from a plurality of rank values of the plurality of transmission points; determining, by the UE, an optimal phase difference value causing an optimal channel quality between the plurality of transmission points based on the determined maximum rank value and the CSI-RS; acquiring, by the UE, a CQI, Channel Quality Indicator, based on the optimal phase difference value; and transmitting, by the UE, the CSI including the CQI. receiving, by the UE, a CSI-RS, Channel State Information Reference Signal, from a plurality of transmission points; determining, by the UE, a maximum rank value from a plurality of rank values of the plurality of transmission points; determining, by the UE, an optimal phase difference value causing an optimal channel quality between the plurality of transmission points based on the determined maximum rank value and the CSI-RS; acquiring, by the UE, a CQI, Channel Quality Indicator, based on the optimal phase difference value; and transmitting, by the UE, the CSI including the CQI.
A process for the formation of a C sp3 -C sp2 bond at the allylic carbon of a cyclic allylic compound, the process comprising the step of: a) reacting a racemic mixture of a cyclic allylic compound having a leaving group attached to the allylic carbon with a compound having a nucleophilic carbon atom, wherein step a) is conducted in the presence of: i) a pre-catalyst based on Rh; and ii) a chiral ligand and wherein the formation of the C sp3 -C sp2 bond results in the generation of a product compound in a stereoisomeric excess. a) reacting a racemic mixture of a cyclic allylic compound having a leaving group attached to the allylic carbon with a compound having a nucleophilic carbon atom, wherein step a) is conducted in the presence of: i) a pre-catalyst based on Rh; and ii) a chiral ligand and wherein the formation of the C sp3 -C sp2 bond results in the generation of a product compound in a stereoisomeric excess. i) a pre-catalyst based on Rh; and ii) a chiral ligand
A transport box system comprising at least one transport box, in particular for partially prepared meals and food, and at least one transport box insert, wherein the transport box comprises at least one receiving space, which is delimited by side walls and at least one base and can be sealed by at least one cover, wherein the transport box insert can be inserted into the receiving space, is designed for positioning crockery units, and in particular plates, and comprises at least two holding elements, which each have at least one receiving section with receiving depressions for at least one edge section of the crockery units and each have at least one insert section for arranging on at least one side wall of the receiving space, wherein, in the receiving space, crockery units are stored either empty or with meals and food located on them, which are in particular located in an outer packaging, and wherein the crockery units with meals and food located on them, which are in particular in an outer packaging, are stored horizontally, characterized in that the empty crockery units in the transport box insert are positioned upright or edgewise in the receiving space.
Method for manufacturing a tampon packaging, comprising the steps of: (a) wrapping a strip of heat-sealable film around a holding means (1, 18), whereby a first transversal end of said strip overlaps with a second transversal end of said strip; (b) heat sealing said first transversal end to said second transversal end, thereby forming a tube of film, (c) removing said tube of film from said holding means, thereby obtaining a tampon packaging, characterized in that said heat sealing step (b) is performed at least partly during a combined movement of said holding means (1, 18) and said strip. (a) wrapping a strip of heat-sealable film around a holding means (1, 18), whereby a first transversal end of said strip overlaps with a second transversal end of said strip; (b) heat sealing said first transversal end to said second transversal end, thereby forming a tube of film, (c) removing said tube of film from said holding means, thereby obtaining a tampon packaging,
A hazard detection system (105, 107, 205, 207, 300, 400, 500), comprising: at least one hazard sensor (221, 424, 425, 426); a non-volatile memory (540, 600) comprising a plurality of code images (608, 610, 1310, 1320, 1410, 1420, 1510, 1520, 1610, 1620), wherein a first code image is active (608, 1310, 1420, 1510, 1620) and a second code image (610, 1320, 1410, 1520, 1610) is inactive; and a plurality of processors (210, 230, 402, 430) each operative to run based on code (630, 632, 634) stored in the active code image (608, 1310, 1420, 1510, 1620), the plurality of processors (210, 230, 402, 430) comprising at least a system processor (210, 402) and a safety processor (230, 430), wherein the system processor (210, 402) is operative to: manage a software update process to replace the inactive code image (610, 1320, 1410, 1520, 1610) with an updated code image, and wherein the safety processor (230, 430) is operative to: monitor the at least one hazard sensor (221, 424, 425, 426) for a hazard event while the system processor (210, 402) is managing the software update process. at least one hazard sensor (221, 424, 425, 426); a non-volatile memory (540, 600) comprising a plurality of code images (608, 610, 1310, 1320, 1410, 1420, 1510, 1520, 1610, 1620), wherein a first code image is active (608, 1310, 1420, 1510, 1620) and a second code image (610, 1320, 1410, 1520, 1610) is inactive; and a plurality of processors (210, 230, 402, 430) each operative to run based on code (630, 632, 634) stored in the active code image (608, 1310, 1420, 1510, 1620), the plurality of processors (210, 230, 402, 430) comprising at least a system processor (210, 402) and a safety processor (230, 430), wherein the system processor (210, 402) is operative to: manage a software update process to replace the inactive code image (610, 1320, 1410, 1520, 1610) with an updated code image, and wherein the safety processor (230, 430) is operative to: monitor the at least one hazard sensor (221, 424, 425, 426) for a hazard event while the system processor (210, 402) is managing the software update process.
A nitrile rubber composition, comprising: a carboxyl group-containing nitrile rubber containing 5 to 30% by weight of an α,β-ethylenically unsaturated nitrile monomer unit, 0.1 to 10% by weight of a carboxyl group-containing monomer unit, 15 to 60% by weight of an α,β-ethylenically unsaturated monocarboxylic acid ester monomer unit, and 20 to 64.9% by weight of a conjugated diene monomer unit and having an iodine value measured in accordance with JIS K 6235 of 120 or less; a reactive silicone oil; and silica. a carboxyl group-containing nitrile rubber containing 5 to 30% by weight of an α,β-ethylenically unsaturated nitrile monomer unit, 0.1 to 10% by weight of a carboxyl group-containing monomer unit, 15 to 60% by weight of an α,β-ethylenically unsaturated monocarboxylic acid ester monomer unit, and 20 to 64.9% by weight of a conjugated diene monomer unit and having an iodine value measured in accordance with JIS K 6235 of 120 or less; a reactive silicone oil; and silica.
Transport system for in-house material flow, comprising a tugger train which has a towing vehicle and at least one tugger train trailer (4a; 4b), and at least one transfer station (5a; 5b) for the transfer of loads between the tugger train trailer (4a; 4b) and the transfer station (5a; 5b), characterized in that the transfer station (5a; 5b) is a component of a driver-less transport vehicle (6a; 6b) and is movable by means of the driver-less transport vehicle (6a; 6b).
Device for the radio communication with MIMO protocol between a plurality of transceiver antennas of radio frequency signals and a single transceiver antenna of said radio frequency signals, the device comprises: - a plurality of input ports operatively connected to said plurality of transceiver antennas; - an output port operatively connected to an output antenna adapted to communicate with said single transceiver antenna; - processing means operatively connected to said input ports and to said output port and configured to process said radio frequency signals coming from said plurality of transceiver antennas to obtain at least one output signal adapted to be transmitted from said output antenna towards said single transceiver antenna, wherein said processing means comprise: - dividing means operatively connected to each of said input ports and adapted to divide each of said radio frequency signals coming from each of said transceiver antennas into a plurality of replicas of said radio frequency signals; - attenuator means operatively connected to said dividing means and adapted to attenuate the intensity of the signal of each of said replicas; - retarding means operatively connected to said attenuator means and adapted to introduce a delay time to the signal of each of said replicas; - recombining means operatively connected to said retarding means and to said output antenna and adapted to recombine said replicas of each of said attenuated and delayed radio frequency signals to obtain said output signal. - a plurality of input ports operatively connected to said plurality of transceiver antennas; - an output port operatively connected to an output antenna adapted to communicate with said single transceiver antenna; - processing means operatively connected to said input ports and to said output port and configured to process said radio frequency signals coming from said plurality of transceiver antennas to obtain at least one output signal adapted to be transmitted from said output antenna towards said single transceiver antenna, wherein said processing means comprise: - dividing means operatively connected to each of said input ports and adapted to divide each of said radio frequency signals coming from each of said transceiver antennas into a plurality of replicas of said radio frequency signals; - attenuator means operatively connected to said dividing means and adapted to attenuate the intensity of the signal of each of said replicas; - retarding means operatively connected to said attenuator means and adapted to introduce a delay time to the signal of each of said replicas; - recombining means operatively connected to said retarding means and to said output antenna and adapted to recombine said replicas of each of said attenuated and delayed radio frequency signals to obtain said output signal.
Capsule for infusion products, particularly for coffee, comprising a cup-shaped body and a lid which closes the cup-shaped body superiorly, wherein the cup-shaped body comprises a side wall and a bottom wall having at least one outlet opening for the infusion to flow out of the capsule, and a retaining wall defining inferiorly an intermediate compartment containing the infusion product, the retaining wall including an impermeable layer, which is firmly secured at a peripheral edge thereof to the cup-shaped body and is configured to tear as a result of the increase in pressure in the intermediate compartment following the introduction of pressurized hot water into the capsule, and being also spaced from the bottom wall so as to define with the latter a lower compartment, and wherein the capsule further comprises filtering means configured to filter the infusion upstream of the outlet opening, characterized in that it further comprises a perforated and elastically defonnable support disc which is arranged beneath the impermeable layer, with a peripheral edge thereof resting on the bottom wall of the capsule or on a support surface placed at a distance from the bottom wall of the capsule, and is configured to deform, by flexing towards the bottom wall of the capsule, as a result of the deformation of the impermeable layer when the pressure inside the intermediate compartment increases due to the introduction of pressurized hot water into the capsule, until the impermeable layer tears as a result of its deformation. wherein the cup-shaped body comprises a side wall and a bottom wall having at least one outlet opening for the infusion to flow out of the capsule, and a retaining wall defining inferiorly an intermediate compartment containing the infusion product, the retaining wall including an impermeable layer, which is firmly secured at a peripheral edge thereof to the cup-shaped body and is configured to tear as a result of the increase in pressure in the intermediate compartment following the introduction of pressurized hot water into the capsule, and being also spaced from the bottom wall so as to define with the latter a lower compartment, and wherein the capsule further comprises filtering means configured to filter the infusion upstream of the outlet opening,
A ship propulsion system, comprising: a propeller; a gas engine including a plurality of cylinders, for rotating the propeller; a plurality of fuel injection valves provided to the gas engine, corresponding to the plurality of cylinders, respectively; and a supercharger including a compressor and a turbine, the compressor being connected with the plurality of cylinders via an intake passage, and the turbine being connected with the plurality of cylinders via an exhaust passage; characterized in that the propeller is a variable pitch propeller including a pitch change mechanism; and in that the ship propulsion system further comprises: a control device for controlling the pitch change mechanism of the propeller, and the plurality of fuel injection valves; and a plurality of pressure gauges for measuring pressures in the plurality of cylinders, respectively, wherein the control device determines per cycle based on the measurements of the pressure gauges whether a misfire occurs in each of the plurality of cylinders, and wherein, when a misfire occurs continuously in any of the plurality of cylinders, the control device suspends an injection of fuel gas from the fuel injection valve corresponding to the misfired cylinder, lowers a limit of a fuel injection amount of other fuel injection valves such that the fuel injection amount is reduced, and reduces a pitch of the propeller to increase an engine speed of the gas engine. a propeller; a gas engine including a plurality of cylinders, for rotating the propeller; a plurality of fuel injection valves provided to the gas engine, corresponding to the plurality of cylinders, respectively; and a supercharger including a compressor and a turbine, the compressor being connected with the plurality of cylinders via an intake passage, and the turbine being connected with the plurality of cylinders via an exhaust passage; characterized in that the propeller is a variable pitch propeller including a pitch change mechanism; and in that the ship propulsion system further comprises: a control device for controlling the pitch change mechanism of the propeller, and the plurality of fuel injection valves; and a plurality of pressure gauges for measuring pressures in the plurality of cylinders, respectively, a control device for controlling the pitch change mechanism of the propeller, and the plurality of fuel injection valves; and a plurality of pressure gauges for measuring pressures in the plurality of cylinders, respectively, wherein the control device determines per cycle based on the measurements of the pressure gauges whether a misfire occurs in each of the plurality of cylinders, and wherein, when a misfire occurs continuously in any of the plurality of cylinders, the control device suspends an injection of fuel gas from the fuel injection valve corresponding to the misfired cylinder, lowers a limit of a fuel injection amount of other fuel injection valves such that the fuel injection amount is reduced, and reduces a pitch of the propeller to increase an engine speed of the gas engine.
A host apparatus (100, 600) capable of sharing terminology information, comprising: a communication module (160, 670) to provide a communication interface between the host apparatus and a peripheral device (200, 500); an information sharing unit (140, 670) to share terminology information related to a plurality of functions of the peripheral device, the terminology information comprising defined terminologies related to each of the plurality of functions of the peripheral device and information to explain the defined terminologies; and a user interface unit (110,130, 610, 630) to operate the plurality of functions of the peripheral device and to display the shared defined terminologies related to each of the plurality of functions; wherein the information sharing unit (140, 670) is configured to load terminology information from the peripheral device when requested by the host apparatus, or transmit terminology information to the peripheral device when requested by the peripheral device, such that, for each of the plurality of functions of the peripheral device, the defined terminologies displayed at the user interface unit are the same as the defined terminologies displayed at a display of the peripheral device. a communication module (160, 670) to provide a communication interface between the host apparatus and a peripheral device (200, 500); an information sharing unit (140, 670) to share terminology information related to a plurality of functions of the peripheral device, the terminology information comprising defined terminologies related to each of the plurality of functions of the peripheral device and information to explain the defined terminologies; and a user interface unit (110,130, 610, 630) to operate the plurality of functions of the peripheral device and to display the shared defined terminologies related to each of the plurality of functions; wherein the information sharing unit (140, 670) is configured to load terminology information from the peripheral device when requested by the host apparatus, or transmit terminology information to the peripheral device when requested by the peripheral device, such that, for each of the plurality of functions of the peripheral device, the defined terminologies displayed at the user interface unit are the same as the defined terminologies displayed at a display of the peripheral device.
Electric household yoghurt maker, comprising a chamber housing at least one container for receiving a preparation based on milk and ferments, heating means associated with the chamber, as well as control means for controlling the supply of the heating means, the control means comprising a sensor for measuring the temperature, a microprocessor having at least one program for producing fermented preparations, and a control device comprising at least one control configuration for producing a type of fermented preparation, the chamber including a heating base comprising a heating plate under which the heating means are arranged, the sensor being mounted under the heating plate away from the heating means, characterised in that the microprocessor has at least one other program for producing fermented preparations and in that the control device in the control configuration implements either the program for producing fermented preparations or the other program or one of the other programs for producing fermented preparations, according to a start temperature measured by the sensor.
A computer-implemented method of modelling the non-linear structural response of a component, the method comprising the steps of: determining one or more intermediate boundary conditions for application to an intermediate mesh, the one or more intermediate boundary conditions being determined on the basis of a linear finite element analysis of a global mesh subject to one or more global boundary conditions; performing a linear finite element analysis of the intermediate mesh subject to the one or more intermediate boundary conditions; determining one or more local boundary conditions (912, 914) for application to a local mesh, the one or more local boundary conditions being determined on the basis of the linear finite element analysis of the intermediate mesh; and performing a non-linear finite element analysis of the local mesh subject to the one or more local boundary conditions; wherein the global mesh is associated with a global domain representing a structure comprising the component, the intermediate mesh is associated with an intermediate domain which is a sub-domain of the global domain, and the local mesh is associated with a local domain which is a sub-domain of the intermediate domain; and wherein the one or more global boundary conditions and the one or more local boundary conditions include an out-of-plane load which is not included in the one or more intermediate boundary conditions. determining one or more intermediate boundary conditions for application to an intermediate mesh, the one or more intermediate boundary conditions being determined on the basis of a linear finite element analysis of a global mesh subject to one or more global boundary conditions; performing a linear finite element analysis of the intermediate mesh subject to the one or more intermediate boundary conditions; determining one or more local boundary conditions (912, 914) for application to a local mesh, the one or more local boundary conditions being determined on the basis of the linear finite element analysis of the intermediate mesh; and performing a non-linear finite element analysis of the local mesh subject to the one or more local boundary conditions; wherein the global mesh is associated with a global domain representing a structure comprising the component, the intermediate mesh is associated with an intermediate domain which is a sub-domain of the global domain, and the local mesh is associated with a local domain which is a sub-domain of the intermediate domain; and wherein the one or more global boundary conditions and the one or more local boundary conditions include an out-of-plane load which is not included in the one or more intermediate boundary conditions.