mhurhangee/patent-ind-claim-en huggingface dataset:
A method of converting 10:10:10:2 format pixel data into 8888 format data, the method comprising, for each pixel: truncating the three 10-bit input data channels such that a first truncated channel and a third truncated channel each comprises 7 bits and a second truncated channel comprises 8 bits ; appending a different bit from the 2-bit input data channel to each of the truncated first and third channels ; generating an error value for each of the 10-bit input data channels by comparing, for each of the first and third channels, three LSBs of the input data channel and three bits derived from the truncated channel, and for the second channel, two LSBs of the input data channel and two bits derived from the truncated channel ; outputting a first 8-bit channel comprising the truncated first channel with the appended bit from the 2-bit input data channel, a second 8-bit channel comprising the truncated second channel, a third 8-bit channel comprising the truncated third channel with the appended bit from the 2-bit input data channel and a fourth 8-bit channel comprising the three error values. truncating the three 10-bit input data channels such that a first truncated channel and a third truncated channel each comprises 7 bits and a second truncated channel comprises 8 bits ; appending a different bit from the 2-bit input data channel to each of the truncated first and third channels ; generating an error value for each of the 10-bit input data channels by comparing, for each of the first and third channels, three LSBs of the input data channel and three bits derived from the truncated channel, and for the second channel, two LSBs of the input data channel and two bits derived from the truncated channel ; outputting a first 8-bit channel comprising the truncated first channel with the appended bit from the 2-bit input data channel, a second 8-bit channel comprising the truncated second channel, a third 8-bit channel comprising the truncated third channel with the appended bit from the 2-bit input data channel and a fourth 8-bit channel comprising the three error values.
A method, carried out by a system comprising a first, second and third computing device, comprising: receiving, by the first computing device , a playback queue from the second computing device , wherein the playback queue includes a media item, and wherein the media item comprises a media item identifier, a first account identifier, and a delegate token; selecting, by the first computing device, the media item for playback by the first computing device; determining, by the first computing device, that the media item is associated with the first account identifier that is distinct from a second account identifier configured for the first computing device; sending, by the first computing device, a media asset request to the third computing device , the media asset request including the media item identifier, the first account identifier, the delegate token, and a device identifier for the first computing device; receiving, by the first computing device, a media asset corresponding to the media item identifier responsive to the third computing device validating the delegate token based on the first account identifier and the device identifier; and presenting, by the first computing device, the media asset corresponding to the selected media item. receiving, by the first computing device , a playback queue from the second computing device , wherein the playback queue includes a media item, and wherein the media item comprises a media item identifier, a first account identifier, and a delegate token; selecting, by the first computing device, the media item for playback by the first computing device; determining, by the first computing device, that the media item is associated with the first account identifier that is distinct from a second account identifier configured for the first computing device; sending, by the first computing device, a media asset request to the third computing device , the media asset request including the media item identifier, the first account identifier, the delegate token, and a device identifier for the first computing device; receiving, by the first computing device, a media asset corresponding to the media item identifier responsive to the third computing device validating the delegate token based on the first account identifier and the device identifier; and presenting, by the first computing device, the media asset corresponding to the selected media item.
A hole former for use in casting a gasket within an opening of a structure, comprising: a body defining a central axis (A 1 ) and including an outer peripheral wall having a substantially cylindrical outer peripheral surface having a length extending parallel to said central axis (A 1 ), said outer peripheral surface disposed at a first radial extent from said central axis (A 1 ), the hole former further comprising an annular gasket received on said outer peripheral surface , characterized in that the body includes gasket retention element interfaces extending through said outer peripheral wall and by at least one gasket retention element projecting through a corresponding of said gasket retention element interfaces with an outer portion outwardly beyond said outer peripheral surface to a second radial extent from said central axis (A 1 ), said second radial extent greater than said first radial extent, an inner portion of said gasket retention element remaining disposed within the interior profile or volume of said body of said hole former , said gasket mechanically interfacing with a respective said gasket retention element , whereby movement of said gasket with respect to said outer peripheral surface of said hole former along a direction of said axis (A 1 ) is restricted.
Independent suspension system of a two-track vehicle with a lower leaf spring element which is configured in a fibre composite material, and assumes the wheel guidance for the vehicle wheel together with a damper which is arranged in the manner of a damper strut, and is attached on one side to a wheel support and on the other side to an axle carrier or directly to the vehicle body , characterized in that the lower leaf spring element is oriented at least approximately in the vehicle transverse direction and, on the vehicle body side, has a supporting base which is measured in the vehicle longitudinal direction (F) and the length of which corresponds to at least 0.4 times the length of the lower leaf spring element as measured in the vehicle transverse direction, and the lower leaf spring element being arranged below the wheel rotational axis (D) as viewed in the vehicle vertical direction (H).
A method for synchronous signal transmission, wherein the method comprises: transmitting (S210), by a network device, a synchronization signal block on a first frequency domain position, wherein the first frequency domain position is located on a frequency domain candidate position of a synchronization signal, each 20 MHz subband comprises one frequency domain candidate position of the synchronization signal, and the frequency domain candidate position of the synchronization signal is a synchronization raster on an unlicensed frequency band; wherein the frequency domain candidate position of the synchronization signal satisfies a formula fc = f1+(g*20) + f2, characterised in that , fc is the frequency domain candidate position of the synchronous signal, f1 is a center frequency point position of a first 20MHz subband of the unlicensed frequency band, f1+(g*20) is a center frequency point position of a (g+1)th 20MHz subband of the unlicensed frequency band, and g is an integer, f2 is an offset of a candidate position of a center frequency point of the synchronous signal within a 20MHz subband. transmitting (S210), by a network device, a synchronization signal block on a first frequency domain position, wherein the first frequency domain position is located on a frequency domain candidate position of a synchronization signal, each 20 MHz subband comprises one frequency domain candidate position of the synchronization signal, and the frequency domain candidate position of the synchronization signal is a synchronization raster on an unlicensed frequency band; wherein the frequency domain candidate position of the synchronization signal satisfies a formula fc = f1+(g*20) + f2, characterised in that , fc is the frequency domain candidate position of the synchronous signal, f1 is a center frequency point position of a first 20MHz subband of the unlicensed frequency band, f1+(g*20) is a center frequency point position of a (g+1)th 20MHz subband of the unlicensed frequency band, and g is an integer, f2 is an offset of a candidate position of a center frequency point of the synchronous signal within a 20MHz subband.
A motor control device comprising: a first storage unit configured to store characteristic data related to drive control of a motor of a plurality of vehicle types; a second storage unit configured to store a vehicle type parameter related to a predetermined vehicle type, wherein the vehicle type parameter is a reduction ratio of a differential gear connected to the motor; a processor configured to execute arithmetic processing related to the drive control corresponding to the predetermined vehicle type, based on the vehicle type parameter and the characteristic data; and a drive circuit configured to execute drive processing of a motor of a vehicle of the predetermined vehicle type, based on a result of the arithmetic processing, wherein the drive circuit is configured to read out the characteristic data from the first storage unit and the vehicle type parameter from the second storage unit when abnormality has occurred in the processor, and to execute the arithmetic processing related to the drive control corresponding to the predetermined vehicle type, based on the vehicle type parameter and the characteristic data. a first storage unit configured to store characteristic data related to drive control of a motor of a plurality of vehicle types; a second storage unit configured to store a vehicle type parameter related to a predetermined vehicle type, wherein the vehicle type parameter is a reduction ratio of a differential gear connected to the motor; a processor configured to execute arithmetic processing related to the drive control corresponding to the predetermined vehicle type, based on the vehicle type parameter and the characteristic data; and a drive circuit configured to execute drive processing of a motor of a vehicle of the predetermined vehicle type, based on a result of the arithmetic processing, wherein the drive circuit is configured to read out the characteristic data from the first storage unit and the vehicle type parameter from the second storage unit when abnormality has occurred in the processor, and to execute the arithmetic processing related to the drive control corresponding to the predetermined vehicle type, based on the vehicle type parameter and the characteristic data.
A method for cooling an arrangement comprising a current conductor , which is operated at a first temperature level, and comprising two current connections , which are electrically conductively connected to the current conductor and are operated at a second temperature level above the first temperature level, characterized in that the current conductor is cooled using gaseous helium and the current connections are cooled using liquid nitrogen.
A piezoelectric element comprising: a first electrode disposed over a substrate ; an orientation control layer disposed over the first electrode, the orientation control layer containing titanium; a piezoelectric layer disposed over the orientation control layer, the piezoelectric layer having a perovskite crystal structure; and a second electrode disposed over the piezoelectric layer, wherein the orientation control layer has a thickness in the range of 5.0 nm to 22.0 nm, and characterized in that the piezoelectric element further comprises an additional piezoelectric layer between the first electrode and the orientation control layer, the additional piezoelectric layer having a perovskite crystal structure. a first electrode disposed over a substrate ; an orientation control layer disposed over the first electrode, the orientation control layer containing titanium; a piezoelectric layer disposed over the orientation control layer, the piezoelectric layer having a perovskite crystal structure; and a second electrode disposed over the piezoelectric layer, wherein the orientation control layer has a thickness in the range of 5.0 nm to 22.0 nm, and characterized in that the piezoelectric element further comprises an additional piezoelectric layer between the first electrode and the orientation control layer, the additional piezoelectric layer having a perovskite crystal structure.
A computer-implemented method comprising processing pressure and particle velocity data measured by at least one seismic sensor while in tow, wherein the processing estimates a component of a slowness vector associated with a seismic gather, the method being characterized by : estimating the component of the slowness vector based on a model of the component as a function of a spatial derivative of the pressure and a time derivative of the pressure, wherein the estimating comprises determining the spatial derivative of the pressure data based on the time derivative of the measured particle velocity and wherein the component of the slowness vector is estimated in a frequency range in which an associated signal-to-noise ratio is higher as compared to other frequency ranges; the method further comprising using the estimated component to improve a consistency between the pressure data and the indication of particle velocity. estimating the component of the slowness vector based on a model of the component as a function of a spatial derivative of the pressure and a time derivative of the pressure, wherein the estimating comprises determining the spatial derivative of the pressure data based on the time derivative of the measured particle velocity and wherein the component of the slowness vector is estimated in a frequency range in which an associated signal-to-noise ratio is higher as compared to other frequency ranges; the method further comprising using the estimated component to improve a consistency between the pressure data and the indication of particle velocity.
An anti-electric shock mechanism for a power converter, comprising: a protective tube , a locking guide block , a protective holder for mounting the protective tube , and an Euro-standard pin assembly ; wherein a locking groove is formed on the protective holder , and a locking part inserted into the locking groove is provided on the locking guide block ; characterized in that a linkage block is provided on a side of the locking guide block ; at least one limiting part is provided on a side of the linkage block away from the locking guide block , and the at least one limiting part is provided in a direction of the Euro-standard pin assembly ; at least one avoidance groove for the limiting part to be clamped is formed on an outer side of the Euro-standard pin assembly ; the linkage block is provided separately from the locking guide block . a protective tube , a locking guide block , a protective holder for mounting the protective tube , and an Euro-standard pin assembly ; wherein a locking groove is formed on the protective holder , and a locking part inserted into the locking groove is provided on the locking guide block ; characterized in that a linkage block is provided on a side of the locking guide block ; at least one limiting part is provided on a side of the linkage block away from the locking guide block , and the at least one limiting part is provided in a direction of the Euro-standard pin assembly ; at least one avoidance groove for the limiting part to be clamped is formed on an outer side of the Euro-standard pin assembly ; the linkage block is provided separately from the locking guide block .
A liquid foamable composition, comprising: 0.5% to 7%, preferably 0.5% to 5%, by weight, of a surfactant selected from cationic surfactants, nonionic surfactants, and mixtures thereof; 1% to 15%, preferably 2% to 7%, by weight, of a fatty alcohol; 12% to 25%, by weight, of a skin care active, wherein the skin care active is selected from niacinamide, hexyldecanol, a peptide, panthenol, undeylenoyl phenylalanine, retinyl propionate, and mixtures thereof; and water, wherein the composition comprises 5% to 30% by weight of a skin care active. 0.5% to 7%, preferably 0.5% to 5%, by weight, of a surfactant selected from cationic surfactants, nonionic surfactants, and mixtures thereof; 1% to 15%, preferably 2% to 7%, by weight, of a fatty alcohol; 12% to 25%, by weight, of a skin care active, wherein the skin care active is selected from niacinamide, hexyldecanol, a peptide, panthenol, undeylenoyl phenylalanine, retinyl propionate, and mixtures thereof; and water, wherein the composition comprises 5% to 30% by weight of a skin care active.
A method for controlling molluscs in a liquid location comprising: administering an effective amount of a composition having protein that is 100% identical to SEQ ID NO: 1, to control said molluscs at said liquid location.
An electromagnetically enabled active dynamic pressure gas bearing, configured to support a rotor shaft , comprising an electromagnetic bearing and an elastic foil bearing sleeved between the electromagnetic bearing and the rotor shaft ; and wherein the elastic foil bearing comprises a top layer elastic foil and a bottom layer elastic foil , the top layer elastic foil is made of non-magnetic material, characterized in that a plurality of separate magnetic material areas are distributed on a surface of the top layer elastic foil .
A method for calculating and displaying a climb-dive marker (CDM), comprising: obtaining, by a controller, a roll angel (φ) in aircraft body coordinates, an X-axis velocity in aircraft body coordinates, a Y-axis velocity in aircraft body coordinates, and a Z-axis velocity in aircraft body coordinates of an aircraft; calculating, by the controller, a CDM elevation using a CDM formula: CDM el = tan − 1 − V zb V xb + tan φ tan − 1 − V yb V xb ; where CDM el is the CDM elevation in degrees, V xb is an X-axis velocity in aircraft body coordinates, V yb is a Y-axis velocity in aircraft body coordinates, V zb is a Z-axis velocity in aircraft body coordinates, φ is the roll angle of the aircraft in degrees; and displaying, by the controller, the calculated CDM elevation. obtaining, by a controller, a roll angel (φ) in aircraft body coordinates, an X-axis velocity in aircraft body coordinates, a Y-axis velocity in aircraft body coordinates, and a Z-axis velocity in aircraft body coordinates of an aircraft; calculating, by the controller, a CDM elevation using a CDM formula: CDM el = tan − 1 − V zb V xb + tan φ tan − 1 − V yb V xb ; where CDM el is the CDM elevation in degrees, V xb is an X-axis velocity in aircraft body coordinates, V yb is a Y-axis velocity in aircraft body coordinates, V zb is a Z-axis velocity in aircraft body coordinates, φ is the roll angle of the aircraft in degrees; and where CDM el is the CDM elevation in degrees, V xb is an X-axis velocity in aircraft body coordinates, V yb is a Y-axis velocity in aircraft body coordinates, V zb is a Z-axis velocity in aircraft body coordinates, φ is the roll angle of the aircraft in degrees; and displaying, by the controller, the calculated CDM elevation.
A method of retrofitting a hearing protector with an active communication device , the method comprising the steps of: - providing a hearing protector that has two generally dome-shaped earmuffs , each earmuff forming toward an ear facing side of the earmuff a space for a wearer's ear, at least one of the earmuffs comprises an outer shell and a cushioning arranged adjacent the ear facing side; - providing the active communication device , the active communication device comprising a loudspeaker and electronic circuitry which comprises a wireless communication interface, the electronic circuitry being configured to drive the loudspeaker based on information received via the wireless communication interface, wherein the active communication device comprises a mounting ring ; - separating the cushioning from the outer shell and assembling the active communication device between the outer shell and the cushioning by mounting the mounting ring between the outer shell and the cushioning and thereby - retaining the active communication device at the hearing protector so that the loudspeaker is arranged within the space formed by the at least one of the earmuffs . - providing a hearing protector that has two generally dome-shaped earmuffs , each earmuff forming toward an ear facing side of the earmuff a space for a wearer's ear, at least one of the earmuffs comprises an outer shell and a cushioning arranged adjacent the ear facing side; - providing the active communication device , the active communication device comprising a loudspeaker and electronic circuitry which comprises a wireless communication interface, the electronic circuitry being configured to drive the loudspeaker based on information received via the wireless communication interface, wherein the active communication device comprises a mounting ring ; - separating the cushioning from the outer shell and assembling the active communication device between the outer shell and the cushioning by mounting the mounting ring between the outer shell and the cushioning and thereby - retaining the active communication device at the hearing protector so that the loudspeaker is arranged within the space formed by the at least one of the earmuffs .
An addition-fragmentation oligomer of the formula: wherein R A is non-directionally a 1-methylene-3,3-dimethyl propyl group, R B is a hydrocarbyl group that optionally further comprises a functional group D, wherein at least two R A and/or R B groups are substituted with a D group; group D is selected from phosphonic acid, carboxylic acid, and silyl groups; X 1 is -O- or NR 5 -, where R 5 is H or C 1 -C 4 alkyl; Z comprises an ethylenically unsaturated polymerizable group; y is 0 or 1; and x is 0 to 60. R A is non-directionally a 1-methylene-3,3-dimethyl propyl group, R B is a hydrocarbyl group that optionally further comprises a functional group D, wherein at least two R A and/or R B groups are substituted with a D group; group D is selected from phosphonic acid, carboxylic acid, and silyl groups; X 1 is -O- or NR 5 -, where R 5 is H or C 1 -C 4 alkyl; Z comprises an ethylenically unsaturated polymerizable group; y is 0 or 1; and x is 0 to 60.