mhurhangee/ep-ind-claims huggingface dataset:
An auxiliary machine-driving device for a vehicle, comprising: an engine roller that integrally rotates with a crank shaft of an engine; a motor/generator roller that integrally rotates with a rotary shaft of a motor/generator; a rotating roller that integrally rotates with a rotary shaft of an auxiliary machine that is driven by the engine or the motor/generator; a first idler roller that is biased in a direction in which an outer peripheral surface of the first idler roller comes into contact with outer peripheral surfaces of the motor/generator roller and the engine roller; a second idler roller that is biased in a direction in which an outer peripheral surface of the second idler roller comes into contact with outer peripheral surfaces of the engine roller and the rotating roller; and a third idler roller that is biased in a direction in which an outer peripheral surface of the third idler roller comes into contact with the outer peripheral surfaces the rotating roller and the motor/generator roller; wherein when the engine starts, the engine is started by transmitting the driving force of the motor/generator to the engine via the motor/generator roller, the first idler roller, and the engine roller, and after the engine starts, power is generated by the motor/generator by transmitting the driving force of the engine to the motor/generator via the engine roller, the second idler roller, the rotating roller, the third idler roller, and the motor/generator roller. an engine roller that integrally rotates with a crank shaft of an engine; a motor/generator roller that integrally rotates with a rotary shaft of a motor/generator; a rotating roller that integrally rotates with a rotary shaft of an auxiliary machine that is driven by the engine or the motor/generator; a first idler roller that is biased in a direction in which an outer peripheral surface of the first idler roller comes into contact with outer peripheral surfaces of the motor/generator roller and the engine roller; a second idler roller that is biased in a direction in which an outer peripheral surface of the second idler roller comes into contact with outer peripheral surfaces of the engine roller and the rotating roller; and a third idler roller that is biased in a direction in which an outer peripheral surface of the third idler roller comes into contact with the outer peripheral surfaces the rotating roller and the motor/generator roller; wherein when the engine starts, the engine is started by transmitting the driving force of the motor/generator to the engine via the motor/generator roller, the first idler roller, and the engine roller, and after the engine starts, power is generated by the motor/generator by transmitting the driving force of the engine to the motor/generator via the engine roller, the second idler roller, the rotating roller, the third idler roller, and the motor/generator roller.
Electronic device, comprising low and high frequency digital logic adapted to change the sampling rate of a base band signal delivered by a base band processor to provide an upsampled signal; sigma-delta modulation means adapted to operate with a clock signal to process said upsampled signal, and having output means adapted to deliver a digital data signal, first means adapted to deliver a radiofrequency transposition signal, two identical radiofrequency digital to analog conversion blocks (RDCi), wherein each radiofrequency digital to analog conversion block having first input means coupled to said output means, second input means adapted to receive said radiofrequency transposition signal, and second output means adapted to deliver a radiofrequency analog signal (ARFSi), digital delay means controlled by said clock signal and including a delay block connected between the two first input means, wherein the first input means of a first radiofrequency digital to analog conversion block being directly connected to said output means, and the first input means of the second radiofrequency digital to analog conversion block being connected to said output means through said delay block, and summation means adapted to sum said radiofrequency analog signals (ARFSi); wherein the delay value of the delay block is smaller than 1/(10 ∗ BW), where BW is the frequency bandwidth of the summed radio frequency analog signal. delivered by a base band processor to provide an upsampled signal; sigma-delta modulation means adapted to operate with a clock signal to process said upsampled signal, and having output means adapted to deliver a digital data signal, first means adapted to deliver a radiofrequency transposition signal, two identical radiofrequency digital to analog conversion blocks (RDCi), wherein each radiofrequency digital to analog conversion block having first input means coupled to said output means, second input means adapted to receive said radiofrequency transposition signal, and second output means adapted to deliver a radiofrequency analog signal (ARFSi), digital delay means controlled by said clock signal and including a delay block connected between the two first input means, wherein the first input means of a first radiofrequency digital to analog conversion block being directly connected to said output means, and the first input means of the second radiofrequency digital to analog conversion block being connected to said output means through said delay block, and summation means adapted to sum said radiofrequency analog signals (ARFSi); wherein the delay value of the delay block is smaller than 1/(10 ∗ BW), where BW is the frequency bandwidth of the summed radio frequency analog signal.
A method for transmitting a data frame by a transmitting terminal in a wireless communication system, the method comprising: generating at least one media access control, MAC, protocol data unit, MPDU, and a delimiter as a first subframe; generating one or more padding delimiters as second subframes; generating an aggregated MPDU, A-MPDU, as a data frame including the first and second subframes; and transmitting the data frame to one of a plurality of receiving terminals, wherein the delimiter includes length information of the MPDU, first cyclic redundancy check, CRC, information and first signature information, and the padding delimiter includes length information set to zero, second CRC information and second signature information, wherein the generating of the one or more second subframes includes generating the one or more second subframes in number such that a temporal length of the data frame is the same as of the longest data frame among data frames to be transmitted by the transmitting terminal to the plurality of receiving terminals in the same transmission period. generating at least one media access control, MAC, protocol data unit, MPDU, and a delimiter as a first subframe; generating one or more padding delimiters as second subframes; generating an aggregated MPDU, A-MPDU, as a data frame including the first and second subframes; and transmitting the data frame to one of a plurality of receiving terminals, wherein the delimiter includes length information of the MPDU, first cyclic redundancy check, CRC, information and first signature information, and the padding delimiter includes length information set to zero, second CRC information and second signature information, wherein the generating of the one or more second subframes includes generating the one or more second subframes in number such that a temporal length of the data frame is the same as of the longest data frame among data frames to be transmitted by the transmitting terminal to the plurality of receiving terminals in the same transmission period.
Warning system for a track construction site, comprising; - a track portion which is divided into a plurality of warning regions (W1, W2, W3), - a boundary marker (G1, G2, G3, G4, G5, G6) arranged at each boundary between adjacent warning regions (W1, W2, W3), - at least one warning transmitter arranged in each warning region (W1, W2, W3), and - a track construction machine which travels on the track portion and comprises a sensor (12, 14) which detects the boundary marker (G1, G2, G3, G4, G5, G6) when passing from one warning region (W1, W2, W3) into another warning region (W1, W2, W3), wherein the warning system is designed to determine a current warning region (W1, W2, W3) in which the track construction machine is located on the basis of the last boundary marker (G1, G2, G3, G4, G5, G6) detected by the sensor (12, 14), and to output a warning signal using only the at least one warning transmitter in the current warning region (W1, W2, W3). - a track portion which is divided into a plurality of warning regions (W1, W2, W3), - a boundary marker (G1, G2, G3, G4, G5, G6) arranged at each boundary between adjacent warning regions (W1, W2, W3), - at least one warning transmitter arranged in each warning region (W1, W2, W3), and - a track construction machine which travels on the track portion and comprises a sensor (12, 14) which detects the boundary marker (G1, G2, G3, G4, G5, G6) when passing from one warning region (W1, W2, W3) into another warning region (W1, W2, W3),
An automated method of standardizing intensity of a medical image comprising: registering said medical image to a standard image; applying a plurality of masks to said medical image and applying corresponding masks to said standard image for isolating image components; characterized by determining the most common intensity data pair between said medical image and said standard image for each isolated image component; calculating a formula that joins the most common intensity data pair of each image component, wherein said formula is one of a linear, polynomial and basis-function formula, and wherein said basis-function formula is one of a Gaussian, Bessel, Sine and Cosine formula; and interpolating an intensity data adjustment using said formula and applying it to said medical image data to generate a standardized version of said medical image. registering said medical image to a standard image; applying a plurality of masks to said medical image and applying corresponding masks to said standard image for isolating image components; characterized by determining the most common intensity data pair between said medical image and said standard image for each isolated image component; calculating a formula that joins the most common intensity data pair of each image component, wherein said formula is one of a linear, polynomial and basis-function formula, and wherein said basis-function formula is one of a Gaussian, Bessel, Sine and Cosine formula; and interpolating an intensity data adjustment using said formula and applying it to said medical image data to generate a standardized version of said medical image.
A method for forming a thermoplastic composite material, wherein the method comprises the steps of: forming an aqueous organic fiber material suspension, wherein the organic fiber is a natural lignocellulosic fiber, wood fiber, bleached kraft fiber, dissolving pulp fiber or microfibrillated cellulose; bringing said fiber suspension in contact with at least one additive, said additive being introduced into said fiber suspension, whereby said additive reacts to form a precipitation product, wherein the precipitation product comprises a crystallized filler, and wherein the additives are carbon dioxide and lime milk, said carbon dioxide and lime milk being fed to the short circulation separately or simultaneously, wherein said precipitation product or filler is allowed to precipitate onto the fibers of the fiber suspension, thereby forming an intermediate suspension, comprising precipitated calcium carbonate onto said fibers; introducing, after the formation of the intermediate suspension, a plastic material which is a plastic particle material, a plastic fiber material or a mixture thereof and which is selected from the group of polyethylene, polypropylene, ethylene/propylene copolymer, polycarbonate, polystyrene, polyethylene terephthalate, polylactic acid, polyhydroxybutylate, acrylonitrile/butadiene/styrene copolymer, styrene/acrylonitrile copolymer, polyoxymethylene, biodegradable thermoplastics, starch-based thermoplastics, their derivatives and/or mixtures thereof into said intermediate suspension, thereby forming a composite material. forming an aqueous organic fiber material suspension, wherein the organic fiber is a natural lignocellulosic fiber, wood fiber, bleached kraft fiber, dissolving pulp fiber or microfibrillated cellulose; bringing said fiber suspension in contact with at least one additive, said additive being introduced into said fiber suspension, whereby said additive reacts to form a precipitation product, wherein the precipitation product comprises a crystallized filler, and wherein the additives are carbon dioxide and lime milk, said carbon dioxide and lime milk being fed to the short circulation separately or simultaneously, wherein said precipitation product or filler is allowed to precipitate onto the fibers of the fiber suspension, thereby forming an intermediate suspension, comprising precipitated calcium carbonate onto said fibers; introducing, after the formation of the intermediate suspension, a plastic material which is a plastic particle material, a plastic fiber material or a mixture thereof and which is selected from the group of polyethylene, polypropylene, ethylene/propylene copolymer, polycarbonate, polystyrene, polyethylene terephthalate, polylactic acid, polyhydroxybutylate, acrylonitrile/butadiene/styrene copolymer, styrene/acrylonitrile copolymer, polyoxymethylene, biodegradable thermoplastics, starch-based thermoplastics, their derivatives and/or mixtures thereof into said intermediate suspension, thereby forming a composite material.
A method of reducing buffer overflow in a cellular radio network caused by a service interruption during a handover of a mobile equipment from a first cell to a second cell, wherein data is transferred using Transmission Control Protocol, the method characterised by: calculating an amount of temporary buffer space required to handle increased buffer usage caused by said service interruption as the product of a data transfer rate before cell handover and one of an outage time during cell handover and a base round trip time; and temporarily increasing the amount of buffer space required to handle increased buffer usage caused by said service interruption by the calculated amount. calculating an amount of temporary buffer space required to handle increased buffer usage caused by said service interruption as the product of a data transfer rate before cell handover and one of an outage time during cell handover and a base round trip time; and temporarily increasing the amount of buffer space required to handle increased buffer usage caused by said service interruption by the calculated amount.
A last member (102; 1802), comprising: a plurality of retractable pins (180, 182, 184) extending from an outer surface; a plurality of vacuum holes (150, 152, 154) disposed on the outer surface; and wherein the plurality of retractable pins (180, 182, 184) and the vacuum holes (150, 152, 154) are both configured to temporarily hold one or more footwear segments of an upper of an article of footwear in place on the last member (102; 1802). a plurality of retractable pins (180, 182, 184) extending from an outer surface; a plurality of vacuum holes (150, 152, 154) disposed on the outer surface; and wherein the plurality of retractable pins (180, 182, 184) and the vacuum holes (150, 152, 154) are both configured to temporarily hold one or more footwear segments of an upper of an article of footwear in place on the last member (102; 1802).
Method for the uninterrupted adaptation of parameters of a circuit through the targeted introduction of ohmic, capacitive or inductive components by means of at least two switching devices (1000; 1001) as control elements and a sensor or measuring device, wherein the switching devices (1000; 1001) each comprise an on state, an off state for opening, closing or switching a circuit between a first contact and a second contact and further intermediate states between the on and off state as well as a controllable resistor element, wherein the controllable resistor element is electrically arranged between the first contact and the second contact, wherein the switching devices (1000; 1001) are closed in the on state and open in the off state, wherein the state of the switching devices (1000; 1001) is changed by means of a mechanical transit movement, wherein the transit movement is carried out in such a way that the present voltage drop at each point in time is less than the igniting voltage of an electric arc and as a result the switching energy in the controllable resistor element is discharged in the form of electrical power loss, wherein, in the case of overcurrents below an overcurrent threshold value, the controllable resistor element is transferred into an intermediate state by the transit movement such that electrical damping is introduced into the circuit without an interruption of same, having the steps: - measuring the state of the parameter; - comparing with the desired state of the parameter; - controlling the at least two controllable resistor elements. wherein the transit movement is carried out in such a way that the present voltage drop at each point in time is less than the igniting voltage of an electric arc and as a result the switching energy in the controllable resistor element is discharged in the form of electrical power loss, wherein, in the case of overcurrents below an overcurrent threshold value, the controllable resistor element is transferred into an intermediate state by the transit movement such that electrical damping is introduced into the circuit without an interruption of same, having the steps: - measuring the state of the parameter; - comparing with the desired state of the parameter; - controlling the at least two controllable resistor elements. - measuring the state of the parameter; - comparing with the desired state of the parameter; - controlling the at least two controllable resistor elements.
A computer-implemented method for data back-up, the computer-implemented method being performed by one or more processors executing computer executable instructions for the computer-implemented method, and the computer-implemented method comprising: establishing a stable, unchanging state within a virtual machine running on a computing system which comprises a data storage, the stable state being associated with a checkpoint that includes corresponding state data including a CPU state, memory state and device state for a device of the computing system and storage data, wherein first storage identifiers referencing a point in time associated with the checkpoint are determined by the computing system querying the data storage and are stored as a first virtual machine reference point; accessing a previously generated virtual machine reference point to identify a state data change of virtual machine state between the current stable state and a past stable state by comparing the first virtual machine reference point and the previously generated virtual machine reference point; and replicating the state data change of virtual machine state between the current stable state and the past stable state, the replicated state data change forming backup data. establishing a stable, unchanging state within a virtual machine running on a computing system which comprises a data storage, the stable state being associated with a checkpoint that includes corresponding state data including a CPU state, memory state and device state for a device of the computing system and storage data, wherein first storage identifiers referencing a point in time associated with the checkpoint are determined by the computing system querying the data storage and are stored as a first virtual machine reference point; accessing a previously generated virtual machine reference point to identify a state data change of virtual machine state between the current stable state and a past stable state by comparing the first virtual machine reference point and the previously generated virtual machine reference point; and replicating the state data change of virtual machine state between the current stable state and the past stable state, the replicated state data change forming backup data.
A method for analysing hybridisation between a target in a sample solution and a probe bound at a surface, the method comprising receiving detection intensity results for hybridisation of the target with a plurality of different probes, the probes being selected so that a range of hybridisation detection intensity results for the hybridisation between the target and the probe is covered, and analysing the detection intensity results as function of hybridisation free energy, wherein the hybridisation free energy for the hybridisation between a target in solution and a probe bound at a surface is determined based on a model, the model being a model wherein a thermodynamic non-equilibrium state for the hybridisation is taken into account and wherein analysing the detection intensity results as function of the hybridisation free energy comprises analysing the logarithm of the detection intensity results as function hybridisation free energy for a range of hybridisation free energies and determining whether one linear relationship or more linear relationships can be distinguished between parts of the logarithm of the detection intensity results and the hybridisation free energy.
A mobile communication network comprising a network entity for providing area-specific messages to a plurality of user equipments (110, 110') of the mobile communication network, each of the plurality of user equipments (110, 110') being associated with a respective network slice of a plurality of network slices (130, 130') of the mobile communication network, wherein each of the plurality of network slices (130, 130') is configured to provide information about the current spatial position and about the current network slice association of each of the plurality of user equipments (110, 110') associated with the respective network slice (130, 130') to the network entity, wherein the information about the current spatial position and about the current network slice association of each of the plurality of user equipments (110, 110') comprises an identifier, in particular an International Mobile Subscriber Identity, IMSI, for each of the plurality of user equipments (110, 110'), and wherein the network entity is configured to: receive the information about the current spatial position and about the current network slice association of each of the plurality of user equipments (110, 110'); and forward on the basis of the information about the current spatial position and about the current network slice association of each of the plurality of user equipments (110, 110') an area-specific message to those network slices of the plurality of network slices (130, 130'), which are associated with at least one of the plurality of user equipments (110, 110') located in a defined spatial area of the mobile communication network for distributing the area-specific message to the plurality of user equipments (110, 110') located in the defined spatial area of the mobile communication network. receive the information about the current spatial position and about the current network slice association of each of the plurality of user equipments (110, 110'); and forward on the basis of the information about the current spatial position and about the current network slice association of each of the plurality of user equipments (110, 110') an area-specific message to those network slices of the plurality of network slices (130, 130'), which are associated with at least one of the plurality of user equipments (110, 110') located in a defined spatial area of the mobile communication network for distributing the area-specific message to the plurality of user equipments (110, 110') located in the defined spatial area of the mobile communication network.