mhurhangee/patent-ind-claim-en huggingface dataset:
A sintered oil-impregnated metal bearing that is formed of a cylindrical porous body formed through sintering of a compact obtained through compression molding of raw-material powder, the sintered oil-impregnated metal bearing comprising a dynamic pressure generating portion formed on an inner peripheral surface of the sintered oil-impregnated metal bearing , wherein a lubricating oil is impregnated into inner pores of the cylindrical porous body, wherein the dynamic pressure generating portion comprises dynamic pressure generating groove array regions (A1, A2) formed continuously to each other in an axial direction of the sintered oil-impregnated metal bearing , the dynamic pressure generating groove array regions (A1, A2) each comprising a plurality of dynamic pressure generating grooves (8a1) arrayed so as to be inclined with respect to a circumferential direction of the sintered oil-impregnated metal bearing, wherein an axial dimension of the sintered oil-impregnated metal bearing is set to 6 mm or less, wherein a density ratio of the sintered oil-impregnated metal bearing is set to 80% or more and 95% or less, and wherein both fluctuation of a density ratio between a surface layer side and a core side in the sintered oil-impregnated metal bearing and fluctuation of the density ratio between one side in an axial direction and the other side in the axial direction therein are set to 3% or less. wherein a lubricating oil is impregnated into inner pores of the cylindrical porous body, wherein the dynamic pressure generating portion comprises dynamic pressure generating groove array regions (A1, A2) formed continuously to each other in an axial direction of the sintered oil-impregnated metal bearing , the dynamic pressure generating groove array regions (A1, A2) each comprising a plurality of dynamic pressure generating grooves (8a1) arrayed so as to be inclined with respect to a circumferential direction of the sintered oil-impregnated metal bearing, wherein an axial dimension of the sintered oil-impregnated metal bearing is set to 6 mm or less, wherein a density ratio of the sintered oil-impregnated metal bearing is set to 80% or more and 95% or less, and wherein both fluctuation of a density ratio between a surface layer side and a core side in the sintered oil-impregnated metal bearing and fluctuation of the density ratio between one side in an axial direction and the other side in the axial direction therein are set to 3% or less.
A method for reducing leakage power in a memory array, the method comprising: dynamically placing a group of one or more memory cells of the memory array in a reduced power state during an inactive state, by causing read bit lines and write bit lines corresponding to the group of one or more memory cells to float, wherein the memory cells are formed as static random access memory, SRAM, cells having eight transistors; and during an access operation, dynamically activating one or more selected memory cells of the group by precharging selected read bit lines or selected write bit lines associated with the one or more selected memory cells, and characterized by , for a write operation, dynamically precharging the selected write bit lines before and after the write operation. dynamically placing a group of one or more memory cells of the memory array in a reduced power state during an inactive state, by causing read bit lines and write bit lines corresponding to the group of one or more memory cells to float, wherein the memory cells are formed as static random access memory, SRAM, cells having eight transistors; and during an access operation, dynamically activating one or more selected memory cells of the group by precharging selected read bit lines or selected write bit lines associated with the one or more selected memory cells, and characterized by , for a write operation, dynamically precharging the selected write bit lines before and after the write operation.
A computer-implemented method for operating a marine vessel comprising a plurality of propulsion units , each being arranged to deliver thrust to water in which the vessel is floating, the thrust delivery levels of the propulsion units being individually controllable, the method comprising controlling (S2) a first of the propulsion units so as to deliver a thrust in a direction (T106, T207) which has a component in a first direction (F) of the vessel, simultaneously controlling (S2) a second of the propulsion units so as to deliver less thrust than the first propulsion unit , characterised by subsequently increasing (S4) the thrust delivered by the second propulsion unit in a direction (T107, T208) which has a component in the first direction (F), and simultaneously with increasing the thrust delivered by the second propulsion unit decreasing (S5) the thrust delivered by the first propulsion unit , and in that controlling the second propulsion unit so as to deliver less thrust than the first propulsion unit comprises controlling the second propulsion unit so as to deliver substantially no thrust.
A method comprising: obtaining first audio data of a communication session between a first device and a second device; obtaining, during the communication session, a first text string that is a transcription of the first audio data, the first text string including a first word in a first location of the transcription; directing the first text string to the first device for presentation of the first text string during the communication session; obtaining, during the communication session, a second text string that is a transcription of the first audio data, the second text string including a second word in the first location of the transcription that is different from the first word; comparing a first accuracy score of the first word to a second accuracy score of the second word; obtaining a first content score of the first word, the first content score indicating an effect of the first word on a meaning of the transcription; obtaining a second content score of the second word, the second content score indicating an effect of the second word on the meaning of the transcription; and in response to a difference between the first accuracy score and the second accuracy score satisfying a threshold and based on one or more of: the first content score of the first word and the second content score of the second word, directing the second word to the first device to replace the first word in the first location as displayed by the first device. obtaining first audio data of a communication session between a first device and a second device; obtaining, during the communication session, a first text string that is a transcription of the first audio data, the first text string including a first word in a first location of the transcription; directing the first text string to the first device for presentation of the first text string during the communication session; obtaining, during the communication session, a second text string that is a transcription of the first audio data, the second text string including a second word in the first location of the transcription that is different from the first word; comparing a first accuracy score of the first word to a second accuracy score of the second word; obtaining a first content score of the first word, the first content score indicating an effect of the first word on a meaning of the transcription; obtaining a second content score of the second word, the second content score indicating an effect of the second word on the meaning of the transcription; and in response to a difference between the first accuracy score and the second accuracy score satisfying a threshold and based on one or more of: the first content score of the first word and the second content score of the second word, directing the second word to the first device to replace the first word in the first location as displayed by the first device.
A method for processing an analogue channel signal from a transmission channel, comprising at least one phase of detecting the state of the transmission channel from a digital channel signal (SNC) from an analogue/digital conversion of the analogue channel signal so as to detect whether the transmission channel is considered, over a time interval, to be linear and temporally invariant or else linear and cyclostationary, characterised in that the analogue channel signal (SAC) conveys symbol frames (TRM) and said detection phase is performed during the reception of at least one frame, the detected state of the channel being considered valid for the entire duration of said at least one frame. and in that said detection phase comprises a plurality of channel estimations respectively made from a plurality of reference symbols (SYMR i ) of said received frame so as to obtain a plurality of transfer functions (H i ) of said channel, a determination of at least one phase difference between at least one pair of transfer functions, and the detection of said state includes comparing the absolute value of said at least one phase difference with a threshold (TH), the channel being considered linear and temporally invariant if the absolute value of said at least one phase difference is less than or equal to said threshold and linear and cyclostationary in the opposite case.
Jet engine having a bearing chamber , a sealing chamber , a ventilation chamber and a bearing chamber carrier , which bearing chamber carrier regionally delimits the bearing chamber , which has at least one bearing device , wherein the bearing chamber is separated by means of a seal device from the sealing chamber , which sealing chamber is in turn separated by means of a further seal device from the ventilation chamber , which is arranged on a side of the sealing chamber which is averted from the bearing chamber , and wherein the sealing chamber is connected to a sealing air line , by means of which a sealing air volume flow can be supplied to the bearing chamber , and the ventilation chamber is connected to a ventilation device , via which a volume flow can be discharged from the ventilation chamber into a core flow channel of the jet engine , wherein the ventilation device is configured as at least one ventilation line with a tubular flow cross section, and wherein the ventilation line has a region with a defined cross-sectional widening, characterized in that a flow cross section of the ventilation line downstream of the region is substantially not enlarged in relation to a flow cross section in the region .
Storage insert for inserting into a storage device , wherein the storage insert comprises: a sensor rail , a storage body with: a top side for receiving storage goods ; a bottom side with receiving structures in a receiving region for receiving the sensor rail ; and at least one optically transparent portion between the receiving region and the top side ; and the sensor rail which is configured to be received by the receiving structures in the receiving region and comprises at least one sensor element in the region of the at least one optically transparent portion ; wherein the storage body is configured as punched and bent storage sheet. a sensor rail , a storage body with: a top side for receiving storage goods ; a bottom side with receiving structures in a receiving region for receiving the sensor rail ; and at least one optically transparent portion between the receiving region and the top side ; and a top side for receiving storage goods ; a bottom side with receiving structures in a receiving region for receiving the sensor rail ; and at least one optically transparent portion between the receiving region and the top side ; and the sensor rail which is configured to be received by the receiving structures in the receiving region and comprises at least one sensor element in the region of the at least one optically transparent portion ; wherein the storage body is configured as punched and bent storage sheet.
Loading device , in particular lifting-and-tipping device, for receiving system containers on a refuse collection vehicle, having a receiving device with which the system containers can be gripped on a receptacle arranged in the upper edge region thereof, a locking bar arranged above the receiving device , with which locking bar the system containers can be fixed to the upper edge, and a supporting device which is arranged beneath the receiving device and is configured, once the system containers have been raised , so as to be in contact with the wall thereof which faces the loading device , wherein the supporting device has at least one additional element which can be brought into engagement with a corresponding lower receptacle on the wall of the system containers , characterised in that the locking bar is adjustable, and in that the at least one element is embodied passively as a hook-shaped projection which is oriented in the direction of the receiving device . a locking bar arranged above the receiving device , with which locking bar the system containers can be fixed to the upper edge, and a supporting device which is arranged beneath the receiving device and is configured, once the system containers have been raised , so as to be in contact with the wall thereof which faces the loading device , wherein the supporting device has at least one additional element which can be brought into engagement with a corresponding lower receptacle on the wall of the system containers , characterised in that the locking bar is adjustable, and in that the at least one element is embodied passively as a hook-shaped projection which is oriented in the direction of the receiving device .
A hydrogen gas producing apparatus, comprising: a container portion which receives water; a photocatalyst body, dispersed or placed in the water in the container portion, which has a photocatalyst material, which, when it is irradiated with light, generates excited electrons and electron holes, causing a water decomposition reaction in which water is decomposed into hydrogen and oxygen thereby generating hydrogen gas; a light source emitting light which is irradiated to the photocatalyst body and causes the water decomposition reaction; and a housing, made of a metal material, carrying the light source; wherein the housing is placed in the water in the container portion so that the water is warmed by waste heat of the light source discharged from the surface of the housing, and the surface of the housing in contact with the water is coated with a photocatalyst material. a container portion which receives water; a photocatalyst body, dispersed or placed in the water in the container portion, which has a photocatalyst material, which, when it is irradiated with light, generates excited electrons and electron holes, causing a water decomposition reaction in which water is decomposed into hydrogen and oxygen thereby generating hydrogen gas; a light source emitting light which is irradiated to the photocatalyst body and causes the water decomposition reaction; and a housing, made of a metal material, carrying the light source;
An apparatus for calculating a moving-image correction-coefficient to be applied to frames of a moving-image, the apparatus comprising: a temporary correction-coefficient calculating unit for calculating a temporary correction-coefficient for each of a plurality of frames extracted at a first time interval; a temporary storage unit for storing the temporary correction-coefficients calculated by the temporary correction-coefficient calculating unit; a correction-coefficient calculating unit for calculating the moving-image correction-coefficient for each of a plurality of frames, extracted at a second time interval between two adjacent frames extracted at the first time interval, the calculating being based on the temporary correction-coefficients of said adjacent frames; and characterised by a change-amount determining unit for determining an amount of image change between adjacent frames based on a change in their respective temporary correction-coefficients, wherein the correction-coefficient calculating unit is configured to set the second time interval to be narrower when an absolute value of difference of the temporary correction-coefficients of said adjacent frames extracted at the first time interval is equal to or more than a threshold. a temporary correction-coefficient calculating unit for calculating a temporary correction-coefficient for each of a plurality of frames extracted at a first time interval; a temporary storage unit for storing the temporary correction-coefficients calculated by the temporary correction-coefficient calculating unit; a correction-coefficient calculating unit for calculating the moving-image correction-coefficient for each of a plurality of frames, extracted at a second time interval between two adjacent frames extracted at the first time interval, the calculating being based on the temporary correction-coefficients of said adjacent frames; and characterised by a change-amount determining unit for determining an amount of image change between adjacent frames based on a change in their respective temporary correction-coefficients, wherein the correction-coefficient calculating unit is configured to set the second time interval to be narrower when an absolute value of difference of the temporary correction-coefficients of said adjacent frames extracted at the first time interval is equal to or more than a threshold. a change-amount determining unit for determining an amount of image change between adjacent frames based on a change in their respective temporary correction-coefficients, wherein the correction-coefficient calculating unit is configured to set the second time interval to be narrower when an absolute value of difference of the temporary correction-coefficients of said adjacent frames extracted at the first time interval is equal to or more than a threshold.
Oral pharmaceutical solution comprising from 0.001% w/v to 0.01% w/v fludrocortisone acetate and a non-aqueous liquid carrier comprising one or more triglycerides of saturated fatty acids having an aliphatic chain of 6 to 10 carbon atoms (medium-chain triglycerides), wherein the total concentration of medium-chain triglycerides in the oral solution is at least 45% w/v.
A turbine system , comprising a first turbine , a second turbine , a third turbine , a central gearbox , which is mechanically coupled on the input side to the three turbines (151, 251, 351; 152, 252, 352; 153, 253, 353) and which comprises a mechanical connector on the output side, to which a work machine which absorbs mechanical energy can be attached, a first fluid line for forwarding a work fluid from the first turbine to the second turbine , a second fluid line for forwarding the work fluid from the second turbine to the third turbine , a first connection device , which is assigned to the first fluid line and which is set up in such a way that a first partial mass flow of the work fluid can be drawn from the first fluid line or can be supplied to the first fluid line , and a second connection device , which is assigned to the second fluid line and which is set up in such a way that a second partial mass flow of the work fluid can be drawn from the second fluid line or can be supplied to the second fluid line , wherein the three turbines (151, 251, 351; 152, 252, 352; 153, 253, 353) are connected in series with regard to a flow path of the work fluid, wherein the second turbine is connected downstream of the first turbine and the third turbine is connected downstream of the second turbine .
Use of a phosphate-free composition comprising at least one fatty alcohol ethoxylate of formula (I) R 1 -O-(EO) m -H (I), where R 1 is a linear or branched, substituted or unsubstituted alkyl group with 16 to 18 C atoms; EO is an ethylene oxide unit; and m is 20 to 30, preferably 22 to 27, in particular 25; wherein the fatty alcohol ethoxylate of formula (I) is present in an amount of 1 to 18 wt.%, preferably 6 to 13 wt.%, more preferably 9 to 10 wt.% based on the composition, and the absolute amount of the at least one fatty alcohol ethoxylate of the formula (I) in the composition being 0.1 to 4 g/job, preferably 1 to 3 g/job, particularly preferably 1.5 to 2.5 g/job, for example 2 g/job, for cleaning and maintaining an automatic dishwashing machine, the composition being in solid form. R 1 is a linear or branched, substituted or unsubstituted alkyl group with 16 to 18 C atoms; EO is an ethylene oxide unit; and m is 20 to 30, preferably 22 to 27, in particular 25; wherein the fatty alcohol ethoxylate of formula (I) is present in an amount of 1 to 18 wt.%, preferably 6 to 13 wt.%, more preferably 9 to 10 wt.% based on the composition, and the absolute amount of the at least one fatty alcohol ethoxylate of the formula (I) in the composition being 0.1 to 4 g/job, preferably 1 to 3 g/job, particularly preferably 1.5 to 2.5 g/job, for example 2 g/job, for cleaning and maintaining an automatic dishwashing machine, the composition being in solid form.
An acoustic device configured to mechanically vibrate a piezoelectric buzzer to output a warning sound, the acoustic device comprising: a switching circuit configured to periodically repeat a time period including an ON time period (T1) and an OFF time period (T2) and to output a first voltage having a square waveform in which a voltage level periodically alternates between a high level and a low level, the voltage level of the first voltage during the ON time period (T1) being the high level, the voltage level of the first voltage during the OFF time period (T2) being the low level; and a resonance circuit configured to receive the first voltage, the resonance circuit being configured to generate, from electrical energy applied during the ON time period (T1), a second voltage which oscillates at an oscillation frequency f1 during the OFF time period (T2) and to output a composite voltage of the first voltage and the second voltage to the piezoelectric buzzer , the composite voltage serving as a drive voltage, wherein a relationship among a frequency fn in kHz of an Nth harmonic, a fundamental frequency f0 in kHz of the drive voltage, and the oscillation frequency f1 in kHz is fn-1/2f0 ≤ f1 ≤ fn+1/2f0, where the Nth harmonic is one harmonic of a plurality of harmonics of the drive voltage, a sound pressure level of an output sound from the piezoelectric buzzer at the Nth harmonic being higher than a sound pressure level of the output sound from the piezoelectric buzzer at the fundamental frequency f0. a switching circuit configured to periodically repeat a time period including an ON time period (T1) and an OFF time period (T2) and to output a first voltage having a square waveform in which a voltage level periodically alternates between a high level and a low level, the voltage level of the first voltage during the ON time period (T1) being the high level, the voltage level of the first voltage during the OFF time period (T2) being the low level; and a resonance circuit configured to receive the first voltage, the resonance circuit being configured to generate, from electrical energy applied during the ON time period (T1), a second voltage which oscillates at an oscillation frequency f1 during the OFF time period (T2) and to output a composite voltage of the first voltage and the second voltage to the piezoelectric buzzer , the composite voltage serving as a drive voltage, wherein a relationship among a frequency fn in kHz of an Nth harmonic, a fundamental frequency f0 in kHz of the drive voltage, and the oscillation frequency f1 in kHz is fn-1/2f0 ≤ f1 ≤ fn+1/2f0, where the Nth harmonic is one harmonic of a plurality of harmonics of the drive voltage, a sound pressure level of an output sound from the piezoelectric buzzer at the Nth harmonic being higher than a sound pressure level of the output sound from the piezoelectric buzzer at the fundamental frequency f0.