mhurhangee/ep-ind-claims huggingface dataset:
A method for determining and/or monitoring at least two different process variables (P1, P2) of a medium, wherein - a sensor unit comprising a mechanically vibratable unit and at least one piezoelectric element is excited to mechanically vibrate by means of an excitation signal, wherein the excitation signal is an electric signal with at least one predefinable frequency, - the mechanical vibrations are received by the sensor unit and converted into a first reception signal (E A) representing the mechanical vibrations, wherein - a transmission signal is emitted and a second reception signal (Es) is received by the same sensor unit, wherein the transmission signal is an ultrasonic signal, and - a first process variable (P 1) is ascertained by reference to the first reception signal (E A) and a second process variable (P 2) is ascertained by reference to the second reception signal (Es). - a sensor unit comprising a mechanically vibratable unit and at least one piezoelectric element is excited to mechanically vibrate by means of an excitation signal, wherein the excitation signal is an electric signal with at least one predefinable frequency, - the mechanical vibrations are received by the sensor unit and converted into a first reception signal (E A) representing the mechanical vibrations, wherein - a transmission signal is emitted and a second reception signal (Es) is received by the same sensor unit, wherein the transmission signal is an ultrasonic signal, and - a first process variable (P 1) is ascertained by reference to the first reception signal (E A) and a second process variable (P 2) is ascertained by reference to the second reception signal (Es).
A method in a radio access node, the method comprising: transmitting, to a radio device, a configuration message for configuring a phase tracking reference signal, PT-RS, on a radio channel, wherein the radio channel comprises a plurality of subcarriers in a physical resource block, PRB, wherein a subset of the subcarriers in the PRB is allocated for reception of a demodulation reference signal, DM-RS, transmitted through a DM-RS port of the radio device, wherein the configuration message comprises a bit field comprising n bits that are indicative of a subcarrier allocated for reception of the PT-RS among the subset of subcarriers allocated for reception of the DM-RS transmitted though the DM-RS port, wherein a number of the plurality of subcarriers in the PRB is greater than 2 n, and receiving, from the radio device, the PT-RS on the subcarrier that is allocated for reception of the PT-RS according to the bit field among the subset of subcarriers allocated for reception of the DM-RS transmitted through the DM-RS port. transmitting, to a radio device, a configuration message for configuring a phase tracking reference signal, PT-RS, on a radio channel, wherein the radio channel comprises a plurality of subcarriers in a physical resource block, PRB, wherein a subset of the subcarriers in the PRB is allocated for reception of a demodulation reference signal, DM-RS, transmitted through a DM-RS port of the radio device, wherein the configuration message comprises a bit field comprising n bits that are indicative of a subcarrier allocated for reception of the PT-RS among the subset of subcarriers allocated for reception of the DM-RS transmitted though the DM-RS port, wherein a number of the plurality of subcarriers in the PRB is greater than 2 n, and receiving, from the radio device, the PT-RS on the subcarrier that is allocated for reception of the PT-RS according to the bit field among the subset of subcarriers allocated for reception of the DM-RS transmitted through the DM-RS port.
Hydraulic composition comprising: - from 220 to 500 kg, per cubic metre of the hydraulic composition in the fresh state, of a hydraulic binder comprising Portland cement; - from 400 to 1800 kg, per cubic metre of the hydraulic composition in the fresh state, of a sand having a D10 which is greater than 0.1 mm and a D90 which is less than 4 mm; - from 0.1 to 5 % by weight of dry extract, relative to the weight of the hydraulic binder, of a retardant comprising a carboxylic acid, a phosphonic acid or the salts thereof; - from 0.05 to 5 % by weight of dry extract, relative to the weight of the hydraulic binder, of a superplasticiser comprising an alkylene polyoxide polyphosphate polymer, an alkylene polyoxide polyphosphonate polymer, an alkylene polyoxide polysulphonate polymer or an alkylene polyoxide polycarboxylate polymer; and - from 0.01 to 2 % by weight of dry extract, relative to the weight of the hydraulic binder, of a rheology modifier comprising a cellulose or a cellulose derivative, with the result that the setting time for the hydraulic composition is greater than or equal to 12 hours in the absence of any initiation of the setting of the hydraulic composition and where the variation in the slump of the hydraulic composition measured according to the EN standard 12350-2 is less than 50 mm, or the variation in spread of the hydraulic composition measured with a cone according to EN standard 12350-2 is less than 100 mm for at least 12 hours in the absence of any initiation of the setting of the hydraulic composition. - from 220 to 500 kg, per cubic metre of the hydraulic composition in the fresh state, of a hydraulic binder comprising Portland cement; - from 400 to 1800 kg, per cubic metre of the hydraulic composition in the fresh state, of a sand having a D10 which is greater than 0.1 mm and a D90 which is less than 4 mm; - from 0.1 to 5 % by weight of dry extract, relative to the weight of the hydraulic binder, of a retardant comprising a carboxylic acid, a phosphonic acid or the salts thereof; - from 0.05 to 5 % by weight of dry extract, relative to the weight of the hydraulic binder, of a superplasticiser comprising an alkylene polyoxide polyphosphate polymer, an alkylene polyoxide polyphosphonate polymer, an alkylene polyoxide polysulphonate polymer or an alkylene polyoxide polycarboxylate polymer; and - from 0.01 to 2 % by weight of dry extract, relative to the weight of the hydraulic binder, of a rheology modifier comprising a cellulose or a cellulose derivative, with the result that the setting time for the hydraulic composition is greater than or equal to 12 hours in the absence of any initiation of the setting of the hydraulic composition and where the variation in the slump of the hydraulic composition measured according to the EN standard 12350-2 is less than 50 mm, or the variation in spread of the hydraulic composition measured with a cone according to EN standard 12350-2 is less than 100 mm for at least 12 hours in the absence of any initiation of the setting of the hydraulic composition.
A method for manufacturing a crystalline silicon ingot comprising: providing a mold (10, 20) formed for melting and cooling a silicon feedstock (16, 26) using a directional solidification process; disposing silicon crystal seeding material inside the mold (10, 20); disposing a barrier layer (12, 222) inside the mold (10, 20); wherein the silicon crystal seeding material is disposed as one or more silicon crystal seeds on the barrier layer (12, 222) inside the mold (10, 20), and the barrier layer (12, 222) is disposed in-between the silicon crystal seeding material and the mold (10, 20); loading the silicon feedstock (16, 26) on the silicon crystal seeding material; obtaining a silicon melt by heating the mold (10, 20) until the silicon feedstock (16, 26) is fully melted and the silicon crystal seeding material is at least partially melted; and cooling the mold (10, 20) by the directional solidification process to solidify the silicon melt into a silicon ingot, characterised in that the barrier layer (12, 222) is made from a material selected from a group consisting of silicon, high purity graphite, aluminum oxide, silicon carbide, silicon nitride, aluminum nitride, silicon oxide, carbide, nitride, oxide, or a combination thereof, the barrier layer (12, 222) being constructed in scraps and being partially disposed on the bottom of the mold 10, the barrier layer 12 including significant gaps between the scraps, the gaps between the scraps of the barrier layer 12 being filled with an inert gas. providing a mold (10, 20) formed for melting and cooling a silicon feedstock (16, 26) using a directional solidification process; disposing silicon crystal seeding material inside the mold (10, 20); disposing a barrier layer (12, 222) inside the mold (10, 20); wherein the silicon crystal seeding material is disposed as one or more silicon crystal seeds on the barrier layer (12, 222) inside the mold (10, 20), and the barrier layer (12, 222) is disposed in-between the silicon crystal seeding material and the mold (10, 20); loading the silicon feedstock (16, 26) on the silicon crystal seeding material; obtaining a silicon melt by heating the mold (10, 20) until the silicon feedstock (16, 26) is fully melted and the silicon crystal seeding material is at least partially melted; and cooling the mold (10, 20) by the directional solidification process to solidify the silicon melt into a silicon ingot, characterised in that the barrier layer (12, 222) is made from a material selected from a group consisting of silicon, high purity graphite, aluminum oxide, silicon carbide, silicon nitride, aluminum nitride, silicon oxide, carbide, nitride, oxide, or a combination thereof, the barrier layer (12, 222) being constructed in scraps and being partially disposed on the bottom of the mold 10, the barrier layer 12 including significant gaps between the scraps, the gaps between the scraps of the barrier layer 12 being filled with an inert gas.
A method to interfere with the viability of bacteria in a biofilm in a medium in vitro, the method comprising administering to the medium an Fe chelator in combination with an Fe chelator to reduce survivability of the bacteria in a biofilm formation.
A submarine having a battery compartment, the battery compartment comprising at least two batteries, the battery compartment comprising at least one bus bar, the bus bar comprising at least a first bar element for a first phase and a second bar element for a second phase, the batteries being connected to the bus bar via a respective electrically conductive connection, said connection comprising a first cable for a first phase and a second cable for a second phase, said first rail element and said first cable being connected to each other via a clamp connection, said second rail element and said second cable being connected to each other via a clamp connection, said busbar comprising a third rail element for a first phase and a fourth rail element for a second phase, wherein the rail elements (11, 12, 13, 14, 15, 16, 17, 18) of the conductor rail are arranged such that the first rail element and the second rail element are arranged parallel to each other, wherein the third rail element and the fourth rail element are arranged parallel to each other, characterized in that the rail elements (11, 12, 13, 14, 15, 16, 17, 18) are formed flat, wherein the first rail element and the second rail element are arranged with the broadside adjacent to each other, wherein the third rail element and the fourth rail element are arranged with the broadside adjacent to each other, wherein the first rail element and the fourth rail element are arranged in a plane, wherein the second rail element and the third rail element are arranged in a plane.
A tourniquet comprising a base having first and second ends, a constricting band attached to and extending from the first end of said base, a handle engaged with said constricting band, a self cinching buckle (137,139) including a frame member and a self cinching member engaged with the frame member, the self cinching member including a bar disposed within and slidably engaged with the frame member, a free end of said constriction band being threaded through said self cinching buckle (137, 139); and a hook member attached to the first end of said base and configured to engage said frame member, characterized in that the frame member is hexagonal. a self cinching buckle (137,139) including a frame member and a self cinching member engaged with the frame member, the self cinching member including a bar disposed within and slidably engaged with the frame member, a free end of said constriction band being threaded through said self cinching buckle (137, 139); and a hook member attached to the first end of said base and configured to engage said frame member, characterized in that the frame member is hexagonal.
A method for managing content distribution in a collaborative media system, wherein a first media data is transmitted over a first channel path to a first media terminal and a second media data relevant to the first media data is transmitted over a second channel to a second media terminal, the method comprising: determining a quality of the first media data on the first channel path and a quality of the second media data on the second channel path; when the quality of the first media data is lower than a first value and the quality of the second media data is greater than a second value, transmitting the second media data over the second channel path, instead of the first media data over the first channel path, to the first media terminal. determining a quality of the first media data on the first channel path and a quality of the second media data on the second channel path; when the quality of the first media data is lower than a first value and the quality of the second media data is greater than a second value, transmitting the second media data over the second channel path, instead of the first media data over the first channel path, to the first media terminal.
An ink jet recording method including at least an ejecting step of ejecting a black ink and at least one water-based color ink to a plain paper as a recording medium, the black ink comprising water, a plurality of different water-soluble organic solvents, and a water-insoluble coloring material, wherein the water-soluble organic solvents are comprised of at least one good solvent to the water-insoluble coloring material and a plurality of poor solvents to the water-insoluble coloring material, and the total amount A (% by mass) of the good solvent or good solvents in the ink and the total amount B (% by mass) of the poor solvents in the ink are in a ratio A: B of from 10:5 to 7:9 both inclusive, wherein the at least one good solvent is selected from the group consisting of glycerin and ethylene glycol, while at least one of the plurality of poor solvents is selected from the group consisting of diethylene glycol, polyethylene glycol and 2-pyrrolidone, wherein the water-insoluble coloring material is selected from the group consisting of a resin-dispersed pigment, a micro-capsuled pigment, a self-dispersing pigment having at least one hydrophilic group attached onto a surface of a pigment particle via another group of atoms, and a polymer-binding self-dispersing pigment, wherein one of the plurality of poor solvents shows a Ka value determined by the Bristow method which is the largest among the Ka values of all the water-soluble organic solvents in the ink, and wherein a scanning operation for applying the at least one water-based color ink is performed after a scanning operation for applying the black ink is performed.
A method for controlling the operation of an induction cooking hob comprising at least one inverter device, each inverter device powering at least one inductor in a cooking plan of said induction cooking hob, said induction cooking hob comprising at least one control means, each control means being able to control at least one of said inverter devices, said induction cooking hob being powered by an alternating voltage and comprising at least one power supply system producing a rectified and filtered voltage from said alternating voltage, each power supply system powering at least one of said inverter devices, characterized in that it comprises at least the following step: - the modifying of the control of said at least one inverter device by said at least one control means when the instantaneous value of said rectified and filtered voltage supplying said at least one inverter device is between the periodic minimum and 20% more than said periodic minimum; said modifying of the control of said at least one inverter device designating the starting, the modifying of the frequency or the duty cycle, or the stopping of the control signal(s) of said at least one inverter device; said at least one control means of said at least one inverter device receives a signal synchronized with the zero crossing of said alternating voltage, and said modifying of the control of said at least one inverter device occurs with a time delay relative to said signal synchronized with the zero crossing of said alternating voltage. - the modifying of the control of said at least one inverter device by said at least one control means when the instantaneous value of said rectified and filtered voltage supplying said at least one inverter device is between the periodic minimum and 20% more than said periodic minimum; said modifying of the control of said at least one inverter device designating the starting, the modifying of the frequency or the duty cycle, or the stopping of the control signal(s) of said at least one inverter device; said at least one control means of said at least one inverter device receives a signal synchronized with the zero crossing of said alternating voltage, and said modifying of the control of said at least one inverter device occurs with a time delay relative to said signal synchronized with the zero crossing of said alternating voltage.
Flush-mounted socket outlet for receiving a plug, • said flush-mounted socket outlet having a central plate, which has a socket-outlet recess, in which central plate, in a front corner outside and at the edge of the socket-outlet recess, there is an externally accessible USB connection, which is provided with an electric plug-in device on its rear side, which is oriented toward a socket-outlet base, • having a socket-outlet base which is mechanically connectable to the central plate and has integrated into the base housing thereof a power supply subsystem for energy supply/charging of a mobile audio or communication device, said subsystem being connected on the input side to a 230 V AC voltage power supply system, wherein the input of the power supply subsystem is electrically connected to the phase conductor/neutral conductor of the 230 V AC voltage power supply system by means of electric contact means and the output of the power supply subsystem is formed by an electric plug-in device for the USB connection, • wherein the electric plug-in device is provided on the front cover plate of the base housing, the plug pins or pins of which electric plug-in device are connected to the output of the power supply subsystem and are suitable for making contact with the electric plug-in device of the USB connection, and wherein • openings are provided in the cover plate on the front of the base housing for access to the plug pins or pins of the electric plug-in device. • said flush-mounted socket outlet having a central plate, which has a socket-outlet recess, in which central plate, in a front corner outside and at the edge of the socket-outlet recess, there is an externally accessible USB connection, which is provided with an electric plug-in device on its rear side, which is oriented toward a socket-outlet base, • having a socket-outlet base which is mechanically connectable to the central plate and has integrated into the base housing thereof a power supply subsystem for energy supply/charging of a mobile audio or communication device, said subsystem being connected on the input side to a 230 V AC voltage power supply system, wherein the input of the power supply subsystem is electrically connected to the phase conductor/neutral conductor of the 230 V AC voltage power supply system by means of electric contact means and the output of the power supply subsystem is formed by an electric plug-in device for the USB connection, • wherein the electric plug-in device is provided on the front cover plate of the base housing, the plug pins or pins of which electric plug-in device are connected to the output of the power supply subsystem and are suitable for making contact with the electric plug-in device of the USB connection, and wherein • openings are provided in the cover plate on the front of the base housing for access to the plug pins or pins of the electric plug-in device.
A method performed by a time synchronization device for supporting synchronization between a first and a second radio base station of a wireless communications system when at least one of the first and second radio base station is lacking a GPS signal, and when the time synchronization device is connected to the first and to the second radio base station, the method is being performed after the first radio base station has transmitted a handover command to a user equipment, the command indicating a handover to the second radio base station, the method characterised in that it comprises: - retrieving from the first radio base station: ▪ a first timing advance value used by the user equipment to adjust its transmission timing before the handover, and ▪ a measurement of a reception timing of a random access preamble, the random access preamble being transmitted from the user equipment to the second radio base station during synchronization, - retrieving from the second radio base station a second timing advance value used by the user equipment to adjust its transmission timing after the handover, - determining a time synchronization offset between the first and second radio base station based on the retrieved first timing advance value, second timing advance value, and measurement of the reception timing, wherein determining a time synchronization offset comprises determining a third timing advance value based on the measurement of the reception timing of the random access preamble, and determining the time synchronization offset based on the difference between said third timing advance value and half of the sum of the first and second timing advance value. - retrieving from the first radio base station: ▪ a first timing advance value used by the user equipment to adjust its transmission timing before the handover, and ▪ a measurement of a reception timing of a random access preamble, the random access preamble being transmitted from the user equipment to the second radio base station during synchronization, ▪ a first timing advance value used by the user equipment to adjust its transmission timing before the handover, and ▪ a measurement of a reception timing of a random access preamble, the random access preamble being transmitted from the user equipment to the second radio base station during synchronization, - retrieving from the second radio base station a second timing advance value used by the user equipment to adjust its transmission timing after the handover, - determining a time synchronization offset between the first and second radio base station based on the retrieved first timing advance value, second timing advance value, and measurement of the reception timing, wherein determining a time synchronization offset comprises determining a third timing advance value based on the measurement of the reception timing of the random access preamble, and determining the time synchronization offset based on the difference between said third timing advance value and half of the sum of the first and second timing advance value.