mhurhangee/ep-ind-claims huggingface dataset:
A method of decoding video data, the method comprising: receiving an indication of a first intra-prediction mode in a first set of intra-prediction modes, the first intra-prediction mode indicated for a block of encoded video data; determining a second intra-prediction mode to which the first intra-prediction mode is mapped, wherein the second intra-prediction mode is from a second set of intra-prediction modes, smaller than the first set of intra-prediction modes, and wherein the second intra-prediction mode is different than the first intra-prediction mode; determining an inverse directional transform to which the second intra-prediction mode is mapped; determining an inverse rotational transform to which the second intra-prediction mode is mapped; applying the inverse rotational transform to the block of encoded video data to produce intermediate transformed residual data; applying the inverse directional transform to the intermediate transformed residual data to form a residual block; generating a predicted block using the first intra-prediction mode; and combining the predicted block with the residual block to decode the block of encoded video data. receiving an indication of a first intra-prediction mode in a first set of intra-prediction modes, the first intra-prediction mode indicated for a block of encoded video data; determining a second intra-prediction mode to which the first intra-prediction mode is mapped, wherein the second intra-prediction mode is from a second set of intra-prediction modes, smaller than the first set of intra-prediction modes, and wherein the second intra-prediction mode is different than the first intra-prediction mode; determining an inverse directional transform to which the second intra-prediction mode is mapped; determining an inverse rotational transform to which the second intra-prediction mode is mapped; applying the inverse rotational transform to the block of encoded video data to produce intermediate transformed residual data; applying the inverse directional transform to the intermediate transformed residual data to form a residual block; generating a predicted block using the first intra-prediction mode; and combining the predicted block with the residual block to decode the block of encoded video data.
An impedance sensing drill comprising a drilling assembly including a rotating cutter that is one of a drill bit and an endmill, a control module mechanically connected to the drilling assembly for controlling the depth of drilling of the cutter; and a sensor electrically connected to the drilling assembly and the control module for detecting a change in impedance of a material being drilled, characterized in that when a change in impedance is detected by the sensor, the sensor sends a signal to the control module, and the control module stops the drilling of the cutter and reverses the direction of the cutter to withdraw the cutter from the material, thereby controlling the depth of the drilling and forming at least one microconduit.
Folding display board for the presentation of at least one display surface, with a front frame bearing the display surface and a rear frame, wherein the upper sides of the front frame and the rear frame are connected to one another via at least one hinge and the front frame and the rear frame can be pivoted relative to one another from a storage position by folding open into at least one standing position, in which the front frame and the rear frame are arranged converging towards one another from bottom to top at angle (α), and a detachable pivot lock for fixing the hinge in at least one standing position is provided, which is formed by a locking pawl locking the hinge in a locking position, capable of moving to and fro from a release position into the locking position, and wherein the locking pawl is arranged on one hinge part in a manner movable via an actuating means, and acts on the hinge through form-fit engagement into a locking recess in a corresponding hinge part (4"), characterised in that the actuating means is formed by an actuating lever arranged in a rotatable or pivoting manner on the front frame or the rear frame, at one end of which the locking pawl is arranged and which extends downwards with a gripping region into the region between the front frame and the rear frame.
A method of forming a polycrystalline diamond compact, comprising: forming a particle mixture including diamond particles and nanoparticles; and sintering the particle mixture to form polycrystalline diamond material including nanograins of diamond, sintering the particle mixture comprising: subjecting the particle mixture to a high temperature and high pressure (HTHP) sintering cycle using a HTHP press; and pulsing direct electrical current through the particle mixture during at least a portion of the high temperature and high pressure sintering cycle, wherein the step of pulsing direct electrical current through the particle mixture comprises pulsing the direct electrical current through an electrically conductive pathway that extends through the particle mixture, the electronically conductive pathway being electrically insulated from any electrical heating elements external to the particle mixture that are part of the HTHP press used in the HTHP sintering cycle. forming a particle mixture including diamond particles and nanoparticles; and sintering the particle mixture to form polycrystalline diamond material including nanograins of diamond, sintering the particle mixture comprising: subjecting the particle mixture to a high temperature and high pressure (HTHP) sintering cycle using a HTHP press; and pulsing direct electrical current through the particle mixture during at least a portion of the high temperature and high pressure sintering cycle, wherein the step of pulsing direct electrical current through the particle mixture comprises pulsing the direct electrical current through an electrically conductive pathway that extends through the particle mixture, the electronically conductive pathway being electrically insulated from any electrical heating elements external to the particle mixture that are part of the HTHP press used in the HTHP sintering cycle. subjecting the particle mixture to a high temperature and high pressure (HTHP) sintering cycle using a HTHP press; and pulsing direct electrical current through the particle mixture during at least a portion of the high temperature and high pressure sintering cycle, wherein the step of pulsing direct electrical current through the particle mixture comprises pulsing the direct electrical current through an electrically conductive pathway that extends through the particle mixture, the electronically conductive pathway being electrically insulated from any electrical heating elements external to the particle mixture that are part of the HTHP press used in the HTHP sintering cycle.
A steel sheet having excellent bake hardening and plating adhesion, comprising: in weight%, 0.005 to 0.08% of carbon, 1.3 to 2.3% of manganese (Mn), 0.03% or less excluding 0% of phosphorus, 0.01% or less excluding 0% of sulfur, 0.01% or less excluding 0% of nitrogen, 0.01 to 0.06% of aluminum (sol.Al), 1.0% or less excluding 0% of chromium (Cr), 0.005 to 0.1% of antimony (Sb), at least one selected from the group consisting of silicon (Si): 0.3% or less excluding 0%, molybdenum (Mo): 0.2% or less excluding 0% and boron: 0.003% or less excluding 0%, a remainder of iron (Fe), and unavoidable impurities, and as a microstructure, in area%, 1 to 5% of martensite and remaining ferrite, wherein a relationship (Cgb/Cf) between an Sb average area occupancy ratio (Cgb,%) of grain boundaries of a martensite phase and a ferrite phase and an average Sb area occupancy ratio (Cf,%) in a ferrite phase within 1μm around the martensite phase, determined by the following relationship 1, at a point of 1/4t in a thickness direction of the steel sheet, is 3.5 or more, where t denotes a thickness in mm of a cold rolled steel sheet, Cgb/Cf ≥ 3.5 where Cgb in % indicates an Sb average area occupancy ratio of grain boundaries of a martensitic phase and a ferrite phase at a point of 1/4t of a cold rolled steel sheet, and Cf in % indicates an average Sb area occupancy ratio of a ferrite phase within 1μm around the martensite phase, wherein the steel sheet has a bake hardening of 35 MPa or more measured after a baking at a temperature of 170°C for 20 minutes as defined in the description. in weight%, 0.005 to 0.08% of carbon, 1.3 to 2.3% of manganese (Mn), 0.03% or less excluding 0% of phosphorus, 0.01% or less excluding 0% of sulfur, 0.01% or less excluding 0% of nitrogen, 0.01 to 0.06% of aluminum (sol.Al), 1.0% or less excluding 0% of chromium (Cr), 0.005 to 0.1% of antimony (Sb), at least one selected from the group consisting of silicon (Si): 0.3% or less excluding 0%, molybdenum (Mo): 0.2% or less excluding 0% and boron: 0.003% or less excluding 0%, a remainder of iron (Fe), and unavoidable impurities, and as a microstructure, in area%, 1 to 5% of martensite and remaining ferrite, wherein a relationship (Cgb/Cf) between an Sb average area occupancy ratio (Cgb,%) of grain boundaries of a martensite phase and a ferrite phase and an average Sb area occupancy ratio (Cf,%) in a ferrite phase within 1μm around the martensite phase, determined by the following relationship 1, at a point of 1/4t in a thickness direction of the steel sheet, is 3.5 or more, where t denotes a thickness in mm of a cold rolled steel sheet, Cgb/Cf ≥ 3.5 where Cgb in % indicates an Sb average area occupancy ratio of grain boundaries of a martensitic phase and a ferrite phase at a point of 1/4t of a cold rolled steel sheet, and Cf in % indicates an average Sb area occupancy ratio of a ferrite phase within 1μm around the martensite phase, wherein the steel sheet has a bake hardening of 35 MPa or more measured after a baking at a temperature of 170°C for 20 minutes as defined in the description.
A phase change material switch device, comprising: a phase change material, and a heater device (12; 40, 41; 50, 51, 52; 60, 61, 62; 70-73; 92, 93, 96, 97; 1001-1004; 92A, 92B, 1200) thermally coupled to the phase change material, characterized in that the heater device (12; 40, 41; 50, 51, 52; 60, 61, 62; 70-73; 92, 93, 96, 97; 1001-1004; 92A, 92B, 1200) is configured to: have a first electrical resistance in a first state where current is applied to the heater device (12; 40, 41; 50, 51, 52; 60, 61, 62; 70-73; 92, 93, 96, 97; 1001-1004; 92A, 92B, 1200) for heating the phase change material, and have a second electrical resistance higher than the first electrical resistance in a second state outside heating phases of the heater device (12; 40, 41; 50, 51, 52; 60, 61, 62; 70-73; 92, 93, 96, 97; 1001-1004; 92A, 92B, 1200). a phase change material, and a heater device (12; 40, 41; 50, 51, 52; 60, 61, 62; 70-73; 92, 93, 96, 97; 1001-1004; 92A, 92B, 1200) thermally coupled to the phase change material, characterized in that the heater device (12; 40, 41; 50, 51, 52; 60, 61, 62; 70-73; 92, 93, 96, 97; 1001-1004; 92A, 92B, 1200) is configured to: have a first electrical resistance in a first state where current is applied to the heater device (12; 40, 41; 50, 51, 52; 60, 61, 62; 70-73; 92, 93, 96, 97; 1001-1004; 92A, 92B, 1200) for heating the phase change material, and have a second electrical resistance higher than the first electrical resistance in a second state outside heating phases of the heater device (12; 40, 41; 50, 51, 52; 60, 61, 62; 70-73; 92, 93, 96, 97; 1001-1004; 92A, 92B, 1200). have a first electrical resistance in a first state where current is applied to the heater device (12; 40, 41; 50, 51, 52; 60, 61, 62; 70-73; 92, 93, 96, 97; 1001-1004; 92A, 92B, 1200) for heating the phase change material, and have a second electrical resistance higher than the first electrical resistance in a second state outside heating phases of the heater device (12; 40, 41; 50, 51, 52; 60, 61, 62; 70-73; 92, 93, 96, 97; 1001-1004; 92A, 92B, 1200).
A ketoprofen lysine salt-containing aqueous patch comprising, as an active ingredient, a ketoprofen lysine salt dissolved in a paste including not glycerin but a polyethylene glycol having an average molecular weight of 1000 or less, and wherein the pH of the paste is in the range of from pH 3.5 to 6.5.
A memory module operable in a computer system, the computer system including a memory controller coupled to a system memory bus, the system memory bus including a data bus and a control/address bus, comprising: a printed circuit board; a volatile memory subsystem mounted on the printed circuit board and coupled to the system memory bus, the volatile memory subsystem including double data rate dynamic random access memory (DRAM R0; DRAM Rl); a non-volatile memory subsystem mounted on the printed circuit board; buffer memory; and a module control device mounted on the printed circuit board and coupled to the volatile memory subsystem, the non-volatile memory subsystem, the buffer memory and the system memory bus, wherein the module control device is configured to transfer first data from the non-volatile memory subsystem to the buffer memory in response to a non-volatile access request received via the system memory bus, wherein the module control device is further configured to respond to a dummy write memory command received via the control/access bus by causing at least a portion of the first data to be output from the buffer memory, and wherein the volatile memory subsystem is configured to receive the dummy write memory command from the control/address bus and to receive the at least a portion of the first data in response to the dummy write memory command. a printed circuit board; a volatile memory subsystem mounted on the printed circuit board and coupled to the system memory bus, the volatile memory subsystem including double data rate dynamic random access memory (DRAM R0; DRAM Rl); a non-volatile memory subsystem mounted on the printed circuit board; buffer memory; and a module control device mounted on the printed circuit board and coupled to the volatile memory subsystem, the non-volatile memory subsystem, the buffer memory and the system memory bus, wherein the module control device is configured to transfer first data from the non-volatile memory subsystem to the buffer memory in response to a non-volatile access request received via the system memory bus, wherein the module control device is further configured to respond to a dummy write memory command received via the control/access bus by causing at least a portion of the first data to be output from the buffer memory, and wherein the volatile memory subsystem is configured to receive the dummy write memory command from the control/address bus and to receive the at least a portion of the first data in response to the dummy write memory command.
A document scanner (100, 200, 800), comprising: a scan bar array comprising a fixed-position scan bar or multiple overlapping staggered fixed-position scan bars, each scan bar having a linear array of imaging elements aimed in an imaging direction; a built-in translatable calibration target (140, 350) spaced apart from and parallel to the linear array of the fixed-position scan bar, or an array of overlapping staggered built-in translatable calibration targets spaced apart from and parallel to the linear arrays of corresponding ones of the multiple fixed-position scan bars, the or each calibration target having a planar surface orthogonal to the imaging direction and spanning the length of the linear array; and a drive system (370, 850) to translate the or each calibration target (140, 350) during a calibration in a direction in a plane of the planar surface which is non-orthogonal to the length of the linear array of imaging elements; wherein each calibration target is supported by an assembly, the or each assembly comprising a compliant bias plate having the calibration target and a resilient member to urge the compliant bias plate toward the linear array. a scan bar array comprising a fixed-position scan bar or multiple overlapping staggered fixed-position scan bars, each scan bar having a linear array of imaging elements aimed in an imaging direction; a built-in translatable calibration target (140, 350) spaced apart from and parallel to the linear array of the fixed-position scan bar, or an array of overlapping staggered built-in translatable calibration targets spaced apart from and parallel to the linear arrays of corresponding ones of the multiple fixed-position scan bars, the or each calibration target having a planar surface orthogonal to the imaging direction and spanning the length of the linear array; and a drive system (370, 850) to translate the or each calibration target (140, 350) during a calibration in a direction in a plane of the planar surface which is non-orthogonal to the length of the linear array of imaging elements; wherein each calibration target is supported by an assembly, the or each assembly comprising a compliant bias plate having the calibration target and a resilient member to urge the compliant bias plate toward the linear array.
A sheathing for a nacelle of a wind turbine which comprises a plurality of sheathing parts which are arranged in pairs one after another in the longitudinal direction of the nacelle, wherein pairs of sheathing parts contiguous in the longitudinal direction are arranged to overlap such that each pair is arranged at one end inside of a first neighbouring pair, and at an opposite end outside of a second neighbouring pair, characterised in that the sheathing parts comprise a base plate and two side walls (34, 36) arranged opposite to each other.
A method of managing a plurality of files in a storage system, comprising: providing at least one metadata location server of the storage system, wherein the storage system has a plurality of interconnected independent servers and wherein the at least one metadata location server has a table with plurality of file identifiers, each of the file identifiers including a pointer to a respective metadata file object stored on a metadata server, the respective metadata file object containing a layout storage object that indicates storage parameters for a respective file of a plurality of files, the layout storage object indicating at least one synchronous or asynchronous mirror for the respective file; and accessing a particular one of the plurality of files by obtaining information from the at least one metadata location server to access the metadata server containing the layout storage object corresponding to the particular file to determine the at least one mirror for the particular file, wherein the at least one mirror is provided on at least one data server that is independent of the at least one metadata location server and wherein the at least one metadata server is independent of the at least one metadata location server and is independent of the at least one data server. providing at least one metadata location server of the storage system, wherein the storage system has a plurality of interconnected independent servers and wherein the at least one metadata location server has a table with plurality of file identifiers, each of the file identifiers including a pointer to a respective metadata file object stored on a metadata server, the respective metadata file object containing a layout storage object that indicates storage parameters for a respective file of a plurality of files, the layout storage object indicating at least one synchronous or asynchronous mirror for the respective file; and accessing a particular one of the plurality of files by obtaining information from the at least one metadata location server to access the metadata server containing the layout storage object corresponding to the particular file to determine the at least one mirror for the particular file, wherein the at least one mirror is provided on at least one data server that is independent of the at least one metadata location server and wherein the at least one metadata server is independent of the at least one metadata location server and is independent of the at least one data server.
A method for transmitting broadcast signals, the method comprising: BICM encoding Physical Layer Pipe, PLP, data, wherein each PLP corresponding to the PLP data includes at least one mobile service or at least one mobile service component, wherein the encoding further comprises; Quadrature Amplitude Modulation, QAM, mapping the PLP data; Multi-Input Multi-Output, MIMO, processing the mapped PLP data; and time interleaving the MIMO processed PLP data, BICM encoding signaling information including information indicating whether a PLP is MIMO processed or not, wherein the signaling information is processed by scrambling; building at least one signal frame by mapping the encoded PLP data and the encoded signaling information,; frequency interleaving data in the built at least one signal frame; modulating the at least one signal frame by an Orthogonal Frequency Division Multiplexing, OFDM, method; inserting a P1 symbol and an AP1 symbol into a preamble in the built at least one signal frame, wherein the P1 symbol and the AP1 symbol include transmission parameters for detecting the built at least one signal frame, wherein the AP1 symbol comprises information regarding an spreading interval of the signaling information within the signal frame and is located after the P1 symbol in a time domain; and transmitting the broadcast signals including the modulated at least one signal frame. BICM encoding Physical Layer Pipe, PLP, data, wherein each PLP corresponding to the PLP data includes at least one mobile service or at least one mobile service component, wherein the encoding further comprises; Quadrature Amplitude Modulation, QAM, mapping the PLP data; Multi-Input Multi-Output, MIMO, processing the mapped PLP data; and time interleaving the MIMO processed PLP data, Quadrature Amplitude Modulation, QAM, mapping the PLP data; Multi-Input Multi-Output, MIMO, processing the mapped PLP data; and time interleaving the MIMO processed PLP data, BICM encoding signaling information including information indicating whether a PLP is MIMO processed or not, wherein the signaling information is processed by scrambling; building at least one signal frame by mapping the encoded PLP data and the encoded signaling information,; frequency interleaving data in the built at least one signal frame; modulating the at least one signal frame by an Orthogonal Frequency Division Multiplexing, OFDM, method; inserting a P1 symbol and an AP1 symbol into a preamble in the built at least one signal frame, wherein the P1 symbol and the AP1 symbol include transmission parameters for detecting the built at least one signal frame, wherein the AP1 symbol comprises information regarding an spreading interval of the signaling information within the signal frame and is located after the P1 symbol in a time domain; and transmitting the broadcast signals including the modulated at least one signal frame.