mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: determining whether a urea refill event is detected, in response to the refill event being detected, clearing a urea quantity accumulator value and clearing a latching abort command; determining whether urea fluid quality check abort conditions are met; in response to the abort conditions being met, clearing the urea quantity accumulator value, clearing the latching abort command, and exiting the urea fluid quality check; in response to the abort conditions not being met, incrementing the urea quantity accumulator value according to an amount of urea injected; comparing the urea quantity accumulator value to a low test threshold, and in response to the urea quantity accumulator value being less than the low test threshold, exiting the current execution cycle of the urea fluid quality check; in response to the urea quantity accumulator value being greater than the low test threshold, comparing the urea quantity accumulator value to a high test threshold, in response to the urea quantity accumulator value being greater than the high test threshold, determining whether a NO x exceedance for a NO x emissions amount is observed and clearing a urea quality error in response to the NO x exceedance not being observed. determining whether a urea refill event is detected, in response to the refill event being detected, clearing a urea quantity accumulator value and clearing a latching abort command; determining whether urea fluid quality check abort conditions are met; in response to the abort conditions being met, clearing the urea quantity accumulator value, clearing the latching abort command, and exiting the urea fluid quality check; in response to the abort conditions not being met, incrementing the urea quantity accumulator value according to an amount of urea injected; comparing the urea quantity accumulator value to a low test threshold, and in response to the urea quantity accumulator value being less than the low test threshold, exiting the current execution cycle of the urea fluid quality check; in response to the urea quantity accumulator value being greater than the low test threshold, comparing the urea quantity accumulator value to a high test threshold, in response to the urea quantity accumulator value being greater than the high test threshold, determining whether a NO x exceedance for a NO x emissions amount is observed and clearing a urea quality error in response to the NO x exceedance not being observed.
A fluorofuroxan compound represented by general formula or below: in each formula, R 1 represents an alkyl group having 1 to 30 carbon atoms, or an aryl group having 4 to 30 carbon atoms.
A vehicular torque control device (100, 100A), comprising: a) a storage unit; b) gear stage detection means for detecting a gear stage of a transmission of a vehicle in current travelling; c1) engine speed detection means for detecting an engine speed of the vehicle in current travelling; c2) driving wheel rotating speed detection means for detecting a driving wheel rotating speed of the vehicle in current travelling; and d) torque control means for controlling output torque of an engine of the vehicle in current travelling, e) wherein the storage unit stores theoretical drive ratios corresponding with the gear stages respectively, and f) wherein, when a first gear stage is shifted down to a second gear stage, the torque control means makes the output torque increased, in the case that a relative value of a current drive ratio calculated on the basis of the engine speed and the driving wheel rotating speed with respect to the theoretical drive ratio corresponding with the second gear stage is equal to or greater than a first threshold value, so that the current drive ratio becomes close to the theoretical drive ratio corresponding with the second gear stage; and g) wherein the relative value is the difference or the rate of the current drive ratio with respect to the theoretical drive ratio. a) a storage unit; b) gear stage detection means for detecting a gear stage of a transmission of a vehicle in current travelling; c1) engine speed detection means for detecting an engine speed of the vehicle in current travelling; c2) driving wheel rotating speed detection means for detecting a driving wheel rotating speed of the vehicle in current travelling; and d) torque control means for controlling output torque of an engine of the vehicle in current travelling, e) wherein the storage unit stores theoretical drive ratios corresponding with the gear stages respectively, and f) wherein, when a first gear stage is shifted down to a second gear stage, the torque control means makes the output torque increased, in the case that a relative value of a current drive ratio calculated on the basis of the engine speed and the driving wheel rotating speed with respect to the theoretical drive ratio corresponding with the second gear stage is equal to or greater than a first threshold value, so that the current drive ratio becomes close to the theoretical drive ratio corresponding with the second gear stage; and g) wherein the relative value is the difference or the rate of the current drive ratio with respect to the theoretical drive ratio.
A method performed by a terminal apparatus performing Peer-to-Peer, P2P, communications in a wireless communication system, the method comprising: transmitting a signal to establish P2P connection with a correspondent terminal apparatus; and transmitting or receiving P2P communication data through a frame which comprises at least one P2P dedicated channel and at least one of a plurality of P2P contention channels, wherein the at least one P2P dedicated channel is allocated by a base station for the P2P communications and a resource for the plurality of P2P contention channels is overlapped with a resource for cellular communications with the base station. transmitting a signal to establish P2P connection with a correspondent terminal apparatus; and transmitting or receiving P2P communication data through a frame which comprises at least one P2P dedicated channel and at least one of a plurality of P2P contention channels, wherein the at least one P2P dedicated channel is allocated by a base station for the P2P communications and a resource for the plurality of P2P contention channels is overlapped with a resource for cellular communications with the base station.
A communication control device comprising: a radio communication unit configured to communicate with one or more terminal devices in a cell over a channel using one of a plurality of frequency bands in which channel a link direction can be dynamically set for each sub-frame, which is a unit of time in radio communication, wherein the frequency band used is based on the location of the one or more terminal devices in the cell wherein a first frequency band is allocated for a central portion of the cell and a second frequency band is allocated for a peripheral portion of the cell, and wherein the link direction of the second frequency band is set based on the link direction of sub-frames of an adjacent cell; and a power control unit (140, 149) configured to control transmission power of the frequency bands, wherein the power control unit is configured to control the transmission power to reduce interference of downlink and uplink signals in different cells, by allocating a smaller transmission power to the first frequency band allocated for a central portion of the cell and a higher transmission power to the second frequency band allocated for a peripheral portion of the cell adjacent to said different cells. a radio communication unit configured to communicate with one or more terminal devices in a cell over a channel using one of a plurality of frequency bands in which channel a link direction can be dynamically set for each sub-frame, which is a unit of time in radio communication, wherein the frequency band used is based on the location of the one or more terminal devices in the cell wherein a first frequency band is allocated for a central portion of the cell and a second frequency band is allocated for a peripheral portion of the cell, and wherein the link direction of the second frequency band is set based on the link direction of sub-frames of an adjacent cell; and a power control unit (140, 149) configured to control transmission power of the frequency bands, wherein the power control unit is configured to control the transmission power to reduce interference of downlink and uplink signals in different cells, by allocating a smaller transmission power to the first frequency band allocated for a central portion of the cell and a higher transmission power to the second frequency band allocated for a peripheral portion of the cell adjacent to said different cells.
A wireless device comprising: a transmitter including a plurality of antennas; and a communication processor configured to calculate a total exposure ratio value of each of the plurality of antennas, wherein the communication processor includes: an antenna index buffer configured to store a used antenna index, which is an index of one or more used antennas from among the plurality of antennas used in each window of a plurality of windows in a TER measurement interval; a used power buffer configured to store used power of an antenna corresponding to the used antenna index; and a controller configured to calculate the TER value based on the used antenna index, the used power, and an influence matrix, wherein the influence matrix includes a plurality of influence coefficients R (i, j), each of which represents a degree of influence of exposure caused by a radio frequency signal transmission of an ith antenna on a jth antenna, and wherein i and j are integer numbers equal to a number of the plurality of antennas. a transmitter including a plurality of antennas; and a communication processor configured to calculate a total exposure ratio value of each of the plurality of antennas, wherein the communication processor includes: an antenna index buffer configured to store a used antenna index, which is an index of one or more used antennas from among the plurality of antennas used in each window of a plurality of windows in a TER measurement interval; a used power buffer configured to store used power of an antenna corresponding to the used antenna index; and a controller configured to calculate the TER value based on the used antenna index, the used power, and an influence matrix, wherein the influence matrix includes a plurality of influence coefficients R (i, j), each of which represents a degree of influence of exposure caused by a radio frequency signal transmission of an ith antenna on a jth antenna, and wherein i and j are integer numbers equal to a number of the plurality of antennas. an antenna index buffer configured to store a used antenna index, which is an index of one or more used antennas from among the plurality of antennas used in each window of a plurality of windows in a TER measurement interval; a used power buffer configured to store used power of an antenna corresponding to the used antenna index; and a controller configured to calculate the TER value based on the used antenna index, the used power, and an influence matrix, wherein the influence matrix includes a plurality of influence coefficients R (i, j), each of which represents a degree of influence of exposure caused by a radio frequency signal transmission of an ith antenna on a jth antenna, and wherein i and j are integer numbers equal to a number of the plurality of antennas.
An optical device comprising: - a laser module comprising a laser diode and a plane-convex-lens having a focal length of 150mm, - a microscope module comprising a standard air-lens microscope objective and a CCD camera, - a standard slide coverslip being on a plane defined as an XY-plane, wherein said laser diode emits a laser beam on said plane-convex lens said laser beam being focused at the rim of said slide coverslip, said laser beam hitting said rim of the slide coverslip with an angle of incidence of 25°± 2 with respect to said XY-plane, said slide coverslip being of thickness of 0.17 mm, said microscope objective being located perpendicular to said slide coverslip. - a laser module comprising a laser diode and a plane-convex-lens having a focal length of 150mm, - a microscope module comprising a standard air-lens microscope objective and a CCD camera, - a standard slide coverslip being on a plane defined as an XY-plane,
Method for adjusting a predetermined ratio between handlebar angle and steering angle of a front wheel of a bicycle, wherein the method has the following method steps: - detecting a lift-off of a rear wheel of the bicycle, and - adjusting the predefined ratio between handlebar angle (β) and steering angle (α) of the front wheel in a manner dependent on the determined lift-off of the rear wheel, by means of an actuator (210, 300) arranged on a handlebar of the bicycle. - detecting a lift-off of a rear wheel of the bicycle, and - adjusting the predefined ratio between handlebar angle (β) and steering angle (α) of the front wheel in a manner dependent on the determined lift-off of the rear wheel, by means of an actuator (210, 300) arranged on a handlebar of the bicycle.
A semiconductor processing apparatus, comprising: a micro chamber configured to tightly accommodate and process a semiconductor wafer, the micro chamber including an upper chamber portion defining an upper working surface and a lower chamber portion defining a lower working surface, the upper chamber portion and the lower chamber portion being relatively movable between an open position for loading and removing the semiconductor wafer and a closed position for tightly accommodating the semiconductor wafer, wherein, when the upper chamber portion or the lower chamber portion is in the closed position, the micro chamber is configured to allow the semiconductor wafer to be disposed between the upper working surface and the lower working surface, wherein an inner wall of the micro chamber includes gaps thereon, the gaps configured to allow a fluid to flow therein, and wherein at least one of the upper chamber portion or the lower chamber portion includes at least one inlet and at least one outlet, the at least one inlet configured to allow the fluid to enter into the micro chamber, the at least one outlet configured to discharge the fluid out of the micro chamber, characterized in that, wherein the lower chamber portion includes a lower chamber plate defining the lower working surface and a lower box device receiving the lower chamber plate, wherein the lower box device includes an uncovered cavity with a side opening, and wherein through the side opening the lower chamber plate is configured to slidably move into or out of the uncovered cavity. a micro chamber configured to tightly accommodate and process a semiconductor wafer, the micro chamber including an upper chamber portion defining an upper working surface and a lower chamber portion defining a lower working surface, the upper chamber portion and the lower chamber portion being relatively movable between an open position for loading and removing the semiconductor wafer and a closed position for tightly accommodating the semiconductor wafer, wherein, when the upper chamber portion or the lower chamber portion is in the closed position, the micro chamber is configured to allow the semiconductor wafer to be disposed between the upper working surface and the lower working surface, wherein an inner wall of the micro chamber includes gaps thereon, the gaps configured to allow a fluid to flow therein, and wherein at least one of the upper chamber portion or the lower chamber portion includes at least one inlet and at least one outlet, the at least one inlet configured to allow the fluid to enter into the micro chamber, the at least one outlet configured to discharge the fluid out of the micro chamber, characterized in that, wherein the lower chamber portion includes a lower chamber plate defining the lower working surface and a lower box device receiving the lower chamber plate, wherein the lower box device includes an uncovered cavity with a side opening, and wherein through the side opening the lower chamber plate is configured to slidably move into or out of the uncovered cavity.
A method for unloading a ballast consist that includes a plurality of hopper cars and a control car, the method comprising opening a first gate to a first extent to enable flow of ballast material from a first hopper onto a first conveyor, the first hopper and the first conveyor being included in a first hopper car of the plurality of hopper cars, wherein the first hopper car is located rearward of the control car; detecting an amperage drawn by a motor powering the first conveyor; opening the first gate to a second extent when the amperage is less than a desired amount, the second extent being greater than the first extent; at least partially closing the first gate when the amperage is greater than the desired amount; conveying the ballast material from the first hopper car forward along the ballast consist to the control car; depositing the ballast material onto a control car conveyor on the control car, the control car conveyor extending longitudinally along the control car and beneath one or more of a control unit and a generator disposed on the control car; conveying the ballast material along the length of the control car and beneath the one or more of the control unit and the generator; and depositing the ballast material from the control car conveyor onto a second conveyor on a second hopper car coupled to a forward end of the control car, the control car conveyor overlapping the second conveyor. opening a first gate to a first extent to enable flow of ballast material from a first hopper onto a first conveyor, the first hopper and the first conveyor being included in a first hopper car of the plurality of hopper cars, wherein the first hopper car is located rearward of the control car; detecting an amperage drawn by a motor powering the first conveyor; opening the first gate to a second extent when the amperage is less than a desired amount, the second extent being greater than the first extent; at least partially closing the first gate when the amperage is greater than the desired amount; conveying the ballast material from the first hopper car forward along the ballast consist to the control car; depositing the ballast material onto a control car conveyor on the control car, the control car conveyor extending longitudinally along the control car and beneath one or more of a control unit and a generator disposed on the control car; conveying the ballast material along the length of the control car and beneath the one or more of the control unit and the generator; and depositing the ballast material from the control car conveyor onto a second conveyor on a second hopper car coupled to a forward end of the control car, the control car conveyor overlapping the second conveyor.
A nonwoven insulation blanket comprising: aerogel particles; fibers; an infrared opacifier in an amount of 2% to 150% based on the weight of aerogel in the dried aerogel blanket; and a binder, wherein the density of aerogel particles in the upper 10% of a cross section of the blanket is within +/- 20% of the density of aerogel particles in the lowest 10% of the cross section. aerogel particles; fibers; an infrared opacifier in an amount of 2% to 150% based on the weight of aerogel in the dried aerogel blanket; and a binder, wherein the density of aerogel particles in the upper 10% of a cross section of the blanket is within +/- 20% of the density of aerogel particles in the lowest 10% of the cross section.
A converter monitoring unit for monitoring at least a voltage over one of at least two semiconductor switches of a power converter of a wind turbine, the power converter comprising electronic converter components including semiconductor switches configured to be controlled by an external controller, the converter monitoring unit comprising: - electric connection means configured for connecting the converter monitoring unit to one or more of the electric converter components, wherein the converter monitoring unit is characterized in that it further comprising - an area defined as a cold area comprising a data communication interface, and - one or more areas defined as hot areas dedicated to obtain measurements from the semiconductor switches, wherein the cold area is galvanic isolated from each of the one or more hot areas, and wherein the cold area is communicating with an external data processor, and wherein the one or more hot areas is having an electric potential of the electric potential of the semiconductor switches which are measured. - electric connection means configured for connecting the converter monitoring unit to one or more of the electric converter components, - an area defined as a cold area comprising a data communication interface, and - one or more areas defined as hot areas dedicated to obtain measurements from the semiconductor switches, wherein the cold area is galvanic isolated from each of the one or more hot areas, and wherein the cold area is communicating with an external data processor, and wherein the one or more hot areas is having an electric potential of the electric potential of the semiconductor switches which are measured.
An unwinder for unwinding reels of web material, comprising: unwinding members adapted to unwind a reel; a feed path for feeding the web material unwound from the reel; and at least one nozzle adapted to blow pressurized air in an area where the web material is detached from the reel; characterized by further comprising a moving mechanism for moving the at least one nozzle, so controlled as to follow the movement of the area where the web material is detached from the reel as the reel diameter decreases. unwinding members adapted to unwind a reel; a feed path for feeding the web material unwound from the reel; and at least one nozzle adapted to blow pressurized air in an area where the web material is detached from the reel; characterized by further comprising a moving mechanism for moving the at least one nozzle, so controlled as to follow the movement of the area where the web material is detached from the reel as the reel diameter decreases.
A method for commissioning a conveyor system, wherein the method comprises: - providing an optically readable code containing one or more parameters of a conveyor component and/or a link, such as a URL, to one or more parameters of the conveyor component, and attaching and/or printing said code to said conveyor component, - reading data of the optically readable code with a reader device, - transferring the data read from the optically readable code and/or downloaded from the link of the optically readable code to a control unit controlling the conveyor component and/or conveyor system via a wireless or wired communication interface, and - receiving the data by the control unit and storing the parameters to a memory of the control unit. - providing an optically readable code containing one or more parameters of a conveyor component and/or a link, such as a URL, to one or more parameters of the conveyor component, and attaching and/or printing said code to said conveyor component, - reading data of the optically readable code with a reader device, - transferring the data read from the optically readable code and/or downloaded from the link of the optically readable code to a control unit controlling the conveyor component and/or conveyor system via a wireless or wired communication interface, and - receiving the data by the control unit and storing the parameters to a memory of the control unit.