mhurhangee/ep-ind-claims huggingface dataset:
A method for estimating a road surface condition under a tire in motion from a time-series waveform of tire vibration detected by a vibration detecting means, the method comprising: estimating positions of leading end point (Pf) and trailing end point (Pk) of tire contact patch from peak positions appearing in the time-series waveform; calculating one or more of contact time, extra-contact time, and revolution time, which is the time for one revolution of the tire, from the estimated positions of leading end point (Pf) and trailing end point (Pk); and determining whether or not the estimated positions of leading end point (Pf) and trailing end point (Pk) are equal to the actual positions of leading end point (Pf) and trailing end point (Pk), based on one or more of the calculated contact time, extra-contact time, and revolution time, wherein the estimation of a road surface condition is not performed when it is determined that one or both of the positions of leading end point (Pf) and trailing end point (Pk) estimated in the above step of estimating are not equal to the actual positions of leading end point (Pf) and trailing end point (Pk). estimating positions of leading end point (Pf) and trailing end point (Pk) of tire contact patch from peak positions appearing in the time-series waveform; calculating one or more of contact time, extra-contact time, and revolution time, which is the time for one revolution of the tire, from the estimated positions of leading end point (Pf) and trailing end point (Pk); and determining whether or not the estimated positions of leading end point (Pf) and trailing end point (Pk) are equal to the actual positions of leading end point (Pf) and trailing end point (Pk), based on one or more of the calculated contact time, extra-contact time, and revolution time, wherein the estimation of a road surface condition is not performed when it is determined that one or both of the positions of leading end point (Pf) and trailing end point (Pk) estimated in the above step of estimating are not equal to the actual positions of leading end point (Pf) and trailing end point (Pk).
A stent, the stent comprising: a first closed serpentine ring having interconnected struts, all of which being of the same length, the first closed ring forming a first end of the stent; a second closed serpentine ring having interconnected struts, all of which being of the same length, the second closed ring forming a second end of the stent; a first helical band, the first helical band engaged to the first closed ring and the second closed ring; a second helical band, the second helical band engaged to the first closed ring and the second closed ring, the first and second helical bands (116, 122) being side-by-side; and a plurality of curved connectors engaging the first and second helical bands (116, 122). a first closed serpentine ring having interconnected struts, all of which being of the same length, the first closed ring forming a first end of the stent; a second closed serpentine ring having interconnected struts, all of which being of the same length, the second closed ring forming a second end of the stent; a first helical band, the first helical band engaged to the first closed ring and the second closed ring; a second helical band, the second helical band engaged to the first closed ring and the second closed ring, the first and second helical bands (116, 122) being side-by-side; and a plurality of curved connectors engaging the first and second helical bands (116, 122).
A communication optimization system of a blockchain network, comprising blockchain nodes, the communication optimization system comprising: two or more relay nodes (310-1, 310-2,...310-n), and a global node; wherein a first relay node among the two or more relay nodes (310-1, 310-2...310-n) is configured to: establish a connection with a blockchain node of said blockchain nodes in response to a connection request of the blockchain node; receive a registration request transmitted by the blockchain node, wherein the registration request comprises an ID of the blockchain node and an ID of the first relay node connected to the blockchain node; generate a registration event based on the registration request and transmit the registration event to the global node, wherein the registration event comprises the ID of the blockchain node and the ID of the first relay node connected to the blockchain node; update a local routing table based on the registration event, wherein the local routing table comprises a corresponding relationship between the ID of the blockchain node and the ID of the first relay node connected to the blockchain node; and forward a message of the blockchain node based on the local routing table; and the global node is configured to transmit a registration event of any relay node to another relay node of the two or more relay nodes (310-1, 310-2,...310-n). establish a connection with a blockchain node of said blockchain nodes in response to a connection request of the blockchain node; receive a registration request transmitted by the blockchain node, wherein the registration request comprises an ID of the blockchain node and an ID of the first relay node connected to the blockchain node; generate a registration event based on the registration request and transmit the registration event to the global node, wherein the registration event comprises the ID of the blockchain node and the ID of the first relay node connected to the blockchain node; update a local routing table based on the registration event, wherein the local routing table comprises a corresponding relationship between the ID of the blockchain node and the ID of the first relay node connected to the blockchain node; and forward a message of the blockchain node based on the local routing table; and the global node is configured to transmit a registration event of any relay node to another relay node of the two or more relay nodes (310-1, 310-2,...310-n).
A centrifugal separator for cleaning crankcase gas, containing oil, from an internal combustion engine, wherein the centrifugal separator comprises - a stationary casing defining a separation space and comprising a first end portion and an opposite second end portion, wherein the stationary casing has an inner wall surface facing the separation space, - an inlet channel, extending to the separation space and forming an inlet for the gas to be cleaned, - a centrifuge rotor, which is provided in the separation space and extends from the first end portion to the second end portion, wherein the centrifuge rotor comprises a spindle and a plurality of separation discs (12a-12c) carried by the spindle, - a drive member provided to rotate the centrifuge rotor in a direction of rotation about an axis (x) of rotation to create a rotating gas volume, whereby oil is separated from the gas by means of centrifugal forces, - a gas outlet channel for discharging the cleaned gas from the separation space, - an oil outlet for discharging the oil from the separation space, and an oil supply device, characterized in that the oil supply device is configured to supply such a quantity of oil to the separation space that a flowing oil film is created on the inner wall surface during operation of the centrifugal separator. - a stationary casing defining a separation space and comprising a first end portion and an opposite second end portion, wherein the stationary casing has an inner wall surface facing the separation space, - an inlet channel, extending to the separation space and forming an inlet for the gas to be cleaned, - a centrifuge rotor, which is provided in the separation space and extends from the first end portion to the second end portion, wherein the centrifuge rotor comprises a spindle and a plurality of separation discs (12a-12c) carried by the spindle, - a drive member provided to rotate the centrifuge rotor in a direction of rotation about an axis (x) of rotation to create a rotating gas volume, whereby oil is separated from the gas by means of centrifugal forces, - a gas outlet channel for discharging the cleaned gas from the separation space, - an oil outlet for discharging the oil from the separation space, and
Method for controlling a vehicle with a hybrid drive, which is driven with an internal combustion engine, in that it is a first drive unit, and with a second drive unit, wherein the internal combustion engine and the second drive unit contribute individually or together to driving the vehicle, and at least one control function for the internal combustion engine is carried out by a coordination unit which determines the time at which the internal combustion engine or the drive unit contributes alone to driving the vehicle, or the internal combustion engine and the drive unit contribute simultaneously to driving the vehicle, wherein at least during the hybrid mode of the vehicle at least one emission-relevant control function of the internal combustion engine is carried out by the coordination unit, and in that an exhaust gas recirculation rate is determined as an emission-relevant function in the coordination unit, characterized in that the exhaust gas recirculation rate is determined as a function of the contribution of the internal combustion engine and of the contribution of the drive unit to the vehicle torque.
A method implemented in a decoder, the method comprising: receiving a bitstream comprising syntax of video data, wherein the video data comprises a plurality of pictures; partitioning a picture of the plurality of pictures into a plurality of coded slices, wherein the syntax comprises a plurality of adaptation parameter sets, APSs, including a plurality of APS types associated with a coded slice of the coded slices, wherein each APS includes an APS identifier, ID, and wherein each of the APS types uses a separate value space for the APS ID; decoding the coded slice using parameters from the plurality of APSs obtained based on the APS IDs; wherein the plurality of APS types include an adaptive loop filter, ALF, type containing ALF parameters, a luma mapping with chroma scaling, LMCS, type containing LMCS parameters; wherein the APS is a syntax structure containing syntax elements that apply to slices, the LMCS parameters are used for a LMCS which is a process that scale chroma values based on luma mappings, and wherein the ALF parameters are used for an ALF which is a filter that is controlled by parameters included in the ALF APS; and wherein each of the separate value spaces extend over a predefined range, and wherein the predefined ranges are determined based on the APS types; wherein each APS includes an APS parameter type, aps_params_type, set to a predefined value indicating the parameter type of each APS, and the parameter type indicates the ALF parameters or the LMCS parameters. receiving a bitstream comprising syntax of video data, wherein the video data comprises a plurality of pictures; partitioning a picture of the plurality of pictures into a plurality of coded slices, wherein the syntax comprises a plurality of adaptation parameter sets, APSs, including a plurality of APS types associated with a coded slice of the coded slices, wherein each APS includes an APS identifier, ID, and wherein each of the APS types uses a separate value space for the APS ID; decoding the coded slice using parameters from the plurality of APSs obtained based on the APS IDs; wherein the plurality of APS types include an adaptive loop filter, ALF, type containing ALF parameters, a luma mapping with chroma scaling, LMCS, type containing LMCS parameters; wherein the APS is a syntax structure containing syntax elements that apply to slices, the LMCS parameters are used for a LMCS which is a process that scale chroma values based on luma mappings, and wherein the ALF parameters are used for an ALF which is a filter that is controlled by parameters included in the ALF APS; and wherein each of the separate value spaces extend over a predefined range, and wherein the predefined ranges are determined based on the APS types; wherein each APS includes an APS parameter type, aps_params_type, set to a predefined value indicating the parameter type of each APS, and the parameter type indicates the ALF parameters or the LMCS parameters.
Movable device having a removal device for removing at least a part of filler material, possibly containing particles, from an artificial turf field, wherein the device has a separating unit for separating the particles from the filler material, characterized in that the separating unit has a continuously changing separating measurement for separating the particles from the filler material, wherein the separating measurement of the separating unit is configured continuously changing by means of the physical quality of the particles, and the separating unit has a transport assembly for the filler material, wherein the transport assembly is defined by a double screen configured as a vibrating screen.
Tool for a punching machine for reshaping at least one portion of a plate-shaped workpiece, the tool having a first tool portion and a second tool portion, wherein the first tool portion comprises a first device for accommodation in a first tool holder of the punching machine and a bending stamp of at least one first bending segment having a bending edge, and the second tool portion comprises a second device for accommodation in a second tool holder of the punching machine and a bending roller cooperating with the bending stamp, the bending roller being rotatable around a rotation axis running in direction of the bending edge, wherein along the rotation axis, the bending roller comprises a sector-shaped notch having a bending shank and a second shank, and the bending roller comprises an actuation portion which can be impinged upon a relative motion of the bending stamp and the bending roller in the form of a working stroke of the punching machine so that the bending roller is rotatably deflectable out of a rest position during a reshaping process upon a bending deformation of the workpiece by the cooperation of the bending stamp and the bending roller, wherein the second tool portion comprises a first ejector being supported in a spring-loaded manner in direction of the working stroke, characterized in that the bending roller comprises a plurality of second bending segments (31', 31") in direction of the rotation axis, the actuation portion of at least one of the second bending segments (32") engages with the first ejector so that the bending roller is rotatably deflectable by an impingement of the first ejector by the working stroke of the punching machine, the bending roller has a rest position in which it is oriented such that the sector-shaped notch is directed in a direction towards the bending stamp, and the bending roller is configured such that it is moved out of its rest position by the impingement already before the plate-shaped workpiece impinges onto the second bending segments (31").
A catheter device, comprising - a drive shaft, which is connected to a motor, - a rotor (3.2), which is mounted on the drive shaft at the distal end region thereof, wherein the rotor can independently unfold after a forced compression, characterized in that the rotor (3.2) has a frame structure (3.2.1), which is made from a helical limiting frame (3.2.2) and rotor struts (3.2.3) extending inwards from the limiting frame (3.2.2) to the drive shaft, and the rotor struts (3.2.3) are mounted on the drive shaft via their ends remote from the limiting frame (3.2.2), and an elastic covering extends between the limiting frame and the drive shaft, the frame structure (3.2.1) made from an elastic material being formed in such a way that the rotor (3.2) independently unfolds after a forced compression. - a drive shaft, which is connected to a motor, - a rotor (3.2), which is mounted on the drive shaft at the distal end region thereof,
An integrated analog to digital converting and digital to analog converting, ADDA, RF transceiver for satellite applications, the transceiver being contained on one or more die, all located on the same package and comprising: a plurality of high speed analog to digital conversion, ADC, units, each configured to take in an RF signal and output a sampled digital signal; a plurality of high speed digital to analog conversion, DAC, units, each configured to take in a sampled digital signal and output an RF signal; a plurality of digital inputs (28, 22); a plurality of digital outputs (30, 34); one or more digital signal processing, DSP, cores, each core capable of processing data from one high speed ADC unit and outputting the processed data on one or more digital outputs; and a plurality of digital signal processing, DSP, cores, each capable of processing data from a digital input and outputting the processed data to one DAC unit; wherein the provision of the RF transceiver on the same package operatively spatially and temporally mitigates a single event effect close to where the SEE induced event occurred in component or system level circuitry within the RF transceiver to provide mitigation of effects having a duration of less than 1 nanosecond, the RF transceiver being further configured to operatively downconvert and digitize RF frequencies from 100MHz to 20GHz a plurality of high speed analog to digital conversion, ADC, units, each configured to take in an RF signal and output a sampled digital signal; a plurality of high speed digital to analog conversion, DAC, units, each configured to take in a sampled digital signal and output an RF signal; a plurality of digital inputs (28, 22); a plurality of digital outputs (30, 34); one or more digital signal processing, DSP, cores, each core capable of processing data from one high speed ADC unit and outputting the processed data on one or more digital outputs; and a plurality of digital signal processing, DSP, cores, each capable of processing data from a digital input and outputting the processed data to one DAC unit; wherein the provision of the RF transceiver on the same package operatively spatially and temporally mitigates a single event effect close to where the SEE induced event occurred in component or system level circuitry within the RF transceiver to provide mitigation of effects having a duration of less than 1 nanosecond, the RF transceiver being further configured to operatively downconvert and digitize RF frequencies from 100MHz to 20GHz
Method for electrochemically reducing carbon dioxide, comprising a) introducing a water feed to an anode compartment of an electrochemical reactor, said anode compartment comprising an anode; b) introducing a carbon dioxide feed, wherein the carbon dioxide feed has carbon dioxide as main component, to a cathode compartment of an electrochemical reactor, said cathode compartment comprising a cathode; c) applying an electrical potential between the anode and the cathode in the electrochemical reactor sufficient for the cathode to reduce carbon dioxide into a reduced carbon dioxide product or product mixture, wherein said anode compartment is separated from said cathode compartment by a separator comprising a bipolar membrane, a charge-mosaic membrane, or a layered mixture of anion and cation exchange resins, and wherein the pressure in the electrochemical reactor is 2.0 MPa (20 bara) or more. a) introducing a water feed to an anode compartment of an electrochemical reactor, said anode compartment comprising an anode; b) introducing a carbon dioxide feed, wherein the carbon dioxide feed has carbon dioxide as main component, to a cathode compartment of an electrochemical reactor, said cathode compartment comprising a cathode; c) applying an electrical potential between the anode and the cathode in the electrochemical reactor sufficient for the cathode to reduce carbon dioxide into a reduced carbon dioxide product or product mixture,
A machine for bending a cast or stamped component into compliance with dimension and tolerance requirements, the machine comprising: a base; at least one fixed holding device coupled to the base and configured to clamp a corresponding datum of the component; at least one bending device coupled to the base and configured to engage a corresponding bending datum of the component; an articulating holding device configured to clamp the component at a corresponding articulating datum and configured to move the articulating datum to a target location; and a control system configured to control the at least one fixed holding device and the at least one bending device during a manipulation routine; wherein the at least one fixed holding device is configured to hold the component in a predetermined spatial orientation relative to the base; and wherein the at least one bending device is configured to apply an upward and downward force to plastically deform the component. a base; at least one fixed holding device coupled to the base and configured to clamp a corresponding datum of the component; at least one bending device coupled to the base and configured to engage a corresponding bending datum of the component; an articulating holding device configured to clamp the component at a corresponding articulating datum and configured to move the articulating datum to a target location; and a control system configured to control the at least one fixed holding device and the at least one bending device during a manipulation routine; wherein the at least one fixed holding device is configured to hold the component in a predetermined spatial orientation relative to the base; and wherein the at least one bending device is configured to apply an upward and downward force to plastically deform the component.
A projector apparatus, comprising: a first plurality of adjacent translucent lenses on at least one side of an inner lens (120, 920), said inner lens configured to rotate and translate about an axis of said inner lens; a second plurality of adjacent translucent lenses (400, 912) formed on at least one side of a concave outer lens (125, 900); a light source (135, 940) configured to direct a portion of light through said rotatable and translatable inner lens and then through said concave outer lens; and a motor configured to rotatably and translatably drive said inner lens in an oscillating manner about and along the axis of said inner lens; wherein the oscillating inner lens imparts a moving textured image for modification through the fixed concave outer lens for display upon a surface such as a ceiling to simulate a moving liquid surface. a first plurality of adjacent translucent lenses on at least one side of an inner lens (120, 920), said inner lens configured to rotate and translate about an axis of said inner lens; a second plurality of adjacent translucent lenses (400, 912) formed on at least one side of a concave outer lens (125, 900); a light source (135, 940) configured to direct a portion of light through said rotatable and translatable inner lens and then through said concave outer lens; and a motor configured to rotatably and translatably drive said inner lens in an oscillating manner about and along the axis of said inner lens; wherein the oscillating inner lens imparts a moving textured image for modification through the fixed concave outer lens for display upon a surface such as a ceiling to simulate a moving liquid surface.