mhurhangee/ep-ind-claims huggingface dataset:
A controller for controlling at least a first lighting device and a second lighting device, the controller comprising: a communication unit for communicating with the first and second lighting device, a user interface (104, 202) for receiving user input, a display unit, a processor for rendering, on the display unit, a graphical representation of a first color spectrum, a first type of graphical representation of the first lighting device in the first color spectrum at a first position in the user interface, a second type of graphical representation of the second lighting device in the first color spectrum at a second position in the user interface, characterized in that the first type of graphical representation is indicative for the first lighting device being arranged for generating light matching a color of the first color spectrum associated with the first position in the user interface, and the second type of graphical representation is indicative for the second lighting device not being arranged for generating light matching a color of the first color spectrum associated with the second position in the user interface, wherein the processor is further arranged for controlling, upon receiving a first user input for controlling the first lighting device via the user interface, via the communication unit, the color of one or more of the first and second lighting device according to the first user input, and wherein color spectra are rendered in the same area of the user interface such that only a single color spectrum is rendered at a certain point in time. a communication unit for communicating with the first and second lighting device, a user interface (104, 202) for receiving user input, a display unit, a processor for rendering, on the display unit, a graphical representation of a first color spectrum, a first type of graphical representation of the first lighting device in the first color spectrum at a first position in the user interface, a second type of graphical representation of the second lighting device in the first color spectrum at a second position in the user interface, wherein the processor is further arranged for controlling, upon receiving a first user input for controlling the first lighting device via the user interface, via the communication unit, the color of one or more of the first and second lighting device according to the first user input, and wherein color spectra are rendered in the same area of the user interface such that only a single color spectrum is rendered at a certain point in time.
A wireless transmit/receive unit, WTRU, (102; 102a-c) configured to operate using a coverage enhancement mode, characterized in that the WTRU comprises: a receiver configured to receive a physical random access channel, PRACH, configuration from an eNode-B; a transmitter configured to transmit using the PRACH configuration, a first random access preamble using a first coverage enhancement level; and the transmitter further configured to, on a condition that a random access response message is not received within an allotted random access response time window, in response to the first random access preamble, transmit using the PRACH configuration, a second random access preamble using a second coverage enhancement level, wherein the first and second coverage enhancement levels are each associated with a repetition factor that is a positive integer that indicates a number of times to repeat each preamble during each transmission, wherein the first coverage enhancement level is associated with a first repetition factor that is lower than a second repetition factor that is associated with the second coverage enhancement level, and wherein the first random access preamble uses first subframes based on the first coverage enhancement level and the second random access preamble uses second subframes based on the second coverage enhancement level. a receiver configured to receive a physical random access channel, PRACH, configuration from an eNode-B; a transmitter configured to transmit using the PRACH configuration, a first random access preamble using a first coverage enhancement level; and the transmitter further configured to, on a condition that a random access response message is not received within an allotted random access response time window, in response to the first random access preamble, transmit using the PRACH configuration, a second random access preamble using a second coverage enhancement level, wherein the first and second coverage enhancement levels are each associated with a repetition factor that is a positive integer that indicates a number of times to repeat each preamble during each transmission, wherein the first coverage enhancement level is associated with a first repetition factor that is lower than a second repetition factor that is associated with the second coverage enhancement level, and wherein the first random access preamble uses first subframes based on the first coverage enhancement level and the second random access preamble uses second subframes based on the second coverage enhancement level.
A device for comminuting waste materials, particularly chips, having at least one motor, a cutting rotor which can be driven by the motor and having at least one cutting edge and at least one base plate, a cutting profile of the cutting rotor interacting with at least one counterpart, particularly a counter knife, adapted to the cutting profile and fastened on the base plate or formed by the same, the base plate having at least one openable flap, in order to discharge a coarse component, a lower toggle lever with a first lever and a second lever being provided for opening the flap, which toggle lever is connected at a first end to the at least one flap such that it can rotate about a first spindle, the first lever and the second lever being connected to one another such that they can rotate about a lower lever spindle, which is parallel to the first spindle, it being possible to bring the lower toggle lever into a stable position, in which the lower toggle lever positively holds the at least one flap, the toggle lever being constructed in such a manner that, with the flap open, an angle, which the first lever and second lever enclose, is less than 180°, characterized in that the angle in the closed state of the flap is more than 180° and a stop is provided, which prevents a further movement of the lower toggle lever in a direction in which the angle would be enlarged further.
Rock drilling tool for a portable power tool, - having a hard-metal drill head, - having a drill shank that is connected in a materially integral manner to the drill head and - having a rotation axis (a), wherein the drill shank is configured so as to be integral, and for conveying away drilling dust has a conveying portion that has a conveying groove that winds in a helical manner about the drill shank, and has a fastening portion which is provided for releasably fastening the drilling tool to a power tool, wherein the conveying portion on a drill head support region of the conveying portion that neighbours the drill head has a diameter reinforcement, characterized in that the drill head has at least one secondary cutting element, wherein the drilling tool has a secondary cutting diameter (D_secondary) which delimits the at least one secondary cutting element of the drill head and which substantially corresponds to the first diameter of the conveying portion. - having a hard-metal drill head, - having a drill shank that is connected in a materially integral manner to the drill head and - having a rotation axis (a), wherein the drill shank is configured so as to be integral, and for conveying away drilling dust has a conveying portion that has a conveying groove that winds in a helical manner about the drill shank, and has a fastening portion which is provided for releasably fastening the drilling tool to a power tool, wherein the conveying portion on a drill head support region of the conveying portion that neighbours the drill head has a diameter reinforcement, characterized in that the drill head has at least one secondary cutting element, wherein the drilling tool has a secondary cutting diameter (D_secondary) which delimits the at least one secondary cutting element of the drill head and which substantially corresponds to the first diameter of the conveying portion.
A method for producing a fiber-reinforced pressure container, characterized by the steps of 1) producing a pressure container blank, wherein the pressure container blank has at least one liner made of plastic and a cylindrical pipe operatively connected thereto, wherein the cylindrical pipe is produced separately, wherein the cylindrical pipe is at most partially cured; 2) overwrapping the pressure container blank. 1) producing a pressure container blank, wherein the pressure container blank has at least one liner made of plastic and a cylindrical pipe operatively connected thereto, wherein the cylindrical pipe is produced separately, wherein the cylindrical pipe is at most partially cured; 2) overwrapping the pressure container blank.
A high-energy laser characterized by: a first fiber oscillator for providing a first beam including light of a first polarization; a second fiber oscillator for providing a second beam including light of a second polarization orthogonal to the first polarization; a master feedback output coupler mirror; and a structure comprising a first node for coherently combining said first and said second beams comprising: a beam splitter for reflecting the light of the first polarization and transmitting the light of the second polarization to output a combined polarized beam; and a polarizer for combining the combined polarized beam with other beams to provide a combined beam having a polarization determined in response to a polarization state feedback of a laser output from the master feedback output coupler mirror. a first fiber oscillator for providing a first beam including light of a first polarization; a second fiber oscillator for providing a second beam including light of a second polarization orthogonal to the first polarization; a master feedback output coupler mirror; and a structure comprising a first node for coherently combining said first and said second beams comprising: a beam splitter for reflecting the light of the first polarization and transmitting the light of the second polarization to output a combined polarized beam; and a polarizer for combining the combined polarized beam with other beams to provide a combined beam having a polarization determined in response to a polarization state feedback of a laser output from the master feedback output coupler mirror. a beam splitter for reflecting the light of the first polarization and transmitting the light of the second polarization to output a combined polarized beam; and a polarizer for combining the combined polarized beam with other beams to provide a combined beam having a polarization determined in response to a polarization state feedback of a laser output from the master feedback output coupler mirror.
Device for treating exhaust gases of an internal combustion engine, with a heating disc arranged in a housing and with a main catalytic converter (3, 13) arranged downstream of the heating disc in the flow direction in the housing, wherein the flow can pass through the heating disc and the main catalytic converter (3, 13) in the flow direction along a plurality of flow channels, wherein the heating disc is formed by a metallic honeycomb body and the main catalytic converter (3, 13) is formed from a ceramic honeycomb body which is fixed in relation to the housing by means of a fixing means, wherein the heating disc is electrically contacted by means of an electrical feedthrough which is guided through the housing from the outside to the inside, characterized in that the heating disc is inserted into a ceramic half-shell.
Method for determining the shape of an optical waveguide having a plurality of fiber Bragg gratings, comprising the following steps: coupling light of a light source into the optical waveguide, coupling the reflected light out of the optical waveguide, determining a spectrum of the reflected light by measuring the intensity versus the wavelength (λ), characterized in that the spectrum is supplied to a self-learning neural network, which was previously trained with training data consisting of a plurality of data sets each containing a measured spectrum and the associated shape of the optical waveguide, the shape of the optical waveguide being determined with the neural network from the intensity and wavelength of the light reflected by the Bragg gratings and the intensity and kind of the underground. coupling the reflected light out of the optical waveguide, determining a spectrum of the reflected light by measuring the intensity versus the wavelength (λ), characterized in that the spectrum is supplied to a self-learning neural network, which was previously trained with training data consisting of a plurality of data sets each containing a measured spectrum and the associated shape of the optical waveguide, the shape of the optical waveguide being determined with the neural network from the intensity and wavelength of the light reflected by the Bragg gratings and the intensity and kind of the underground.
Method for compensating for missing printing nozzles in an inkjet printing machine wherein missing printing nozzles are compensated for by increasing the ink drop volume of adjacent printing nozzles, the method comprising the steps of • printing a nozzle test chart for all printing units of the inkjet printing machine characterized by • analyzing the printed nozzle test chart to determine the actual positions of the print dots of all printing nozzles • calculating the deviation of the actual positions of the print dots from their target positions by means of the determined actual positions of the print dots and including the statistical distribution of the deviation • calculating the required ink drop volumes of the adjacent printing nozzles as a function of the actual position of the print dot of the printing nozzle relative to the actual positions of the print dots of the respective adjacent printing nozzles to compensate for the missing printing nozzles, wherein a greater distance of the print dots of the adjacent printing nozzles leads to an increased ink drop volume of the adjacent printing nozzles and a shorter distance of the print dots of the adjacent printing nozzles leads to a reduced ink drop volume of the adjacent printing nozzles, and compensating for missing printing nozzles occurring with the respective minimum required ink drop volume. • printing a nozzle test chart for all printing units of the inkjet printing machine characterized by • analyzing the printed nozzle test chart to determine the actual positions of the print dots of all printing nozzles • calculating the deviation of the actual positions of the print dots from their target positions by means of the determined actual positions of the print dots and including the statistical distribution of the deviation • calculating the required ink drop volumes of the adjacent printing nozzles as a function of the actual position of the print dot of the printing nozzle relative to the actual positions of the print dots of the respective adjacent printing nozzles to compensate for the missing printing nozzles, wherein a greater distance of the print dots of the adjacent printing nozzles leads to an increased ink drop volume of the adjacent printing nozzles and a shorter distance of the print dots of the adjacent printing nozzles leads to a reduced ink drop volume of the adjacent printing nozzles, and compensating for missing printing nozzles occurring with the respective minimum required ink drop volume.
A method of processing data frames arriving on a network interface, comprising the following steps implemented in the network interface: • storing a set of target positions (tgtPOS), positions in a frame at which are expected at least one parameter characterizing a subframe (ETH_TYPE) and parameters (SRC IP, DST_IP) characterizing a client-server session; • storing an expected value (xpVAL) for the subframe parameter; • receiving a current frame; • starting a frame position counter; • when the current position indicated by the counter corresponds to the target position of the subframe parameter, comparing the current value (xtVAL) received of the frame to the expected value; • if equal, calculating an index from the values received at the target positions of the session parameters; and • routing the current frame to a processing resource associated with the index. • storing a set of target positions (tgtPOS), positions in a frame at which are expected at least one parameter characterizing a subframe (ETH_TYPE) and parameters (SRC IP, DST_IP) characterizing a client-server session; • storing an expected value (xpVAL) for the subframe parameter; • receiving a current frame; • starting a frame position counter; • when the current position indicated by the counter corresponds to the target position of the subframe parameter, comparing the current value (xtVAL) received of the frame to the expected value; • if equal, calculating an index from the values received at the target positions of the session parameters; and • routing the current frame to a processing resource associated with the index.
A coating composition comprising particles selected from particles having wear resistance properties, particles having surface enhancing properties, particles having catalytic properties or combinations thereof, and a mechanical blend comprising at least one powder of particles of a boron source and at least one powder of particles of a silicon source, each particle in the powders is either of a silicon source or of a boron source and wherein the particles have an average particle size less than 250 μm, and wherein: - the mechanical blend comprises boron and silicon in a weight ratio boron to silicon within a range from 3:100 wt:wt to 100:3 wt:wt; - silicon and boron are present in the blend in at least 25 wt%; - at least one boron source and the at least one silicon source are oxygen free except for inevitable amounts of contaminating oxygen, and wherein the inevitable amount of contaminating oxygen is less than 5 wt%. - the mechanical blend comprises boron and silicon in a weight ratio boron to silicon within a range from 3:100 wt:wt to 100:3 wt:wt; - silicon and boron are present in the blend in at least 25 wt%; - at least one boron source and the at least one silicon source are oxygen free except for inevitable amounts of contaminating oxygen, and wherein the inevitable amount of contaminating oxygen is less than 5 wt%.
A display device (30, 30A, 30B) for a hybrid vehicle which displays at least one of outputs related to traveling of the hybrid vehicle, the display device comprising: a first area configured to indicate a first output in a first mode in which traveling is performed with an electric motor while an internal combustion engine is stopped and to indicate a second output in a second mode in which traveling is performed with the internal combustion engine and the electric motor both being actuated; a second area provided side by side with the first area and configured to indicate a third output in the second mode; and a third area provided in a position adjacent to the second area, included in the first area, and configured to indicate a range of the first output where a possibility that the internal combustion engine starts is high, wherein the first area has a first display portion (36, 36A) that changes according to the first output in the first mode and the second output in the second mode; and wherein the second area has a second display portion that changes according to the third output in the second mode, the display device being characterized in that a display area formed of the first area and the second area is shaped in a circle, and in that the first area and the second area are provided so as to range with each other in a fan-like or arc-like shape with an uppermost position of the display area as a boundary. a first area configured to indicate a first output in a first mode in which traveling is performed with an electric motor while an internal combustion engine is stopped and to indicate a second output in a second mode in which traveling is performed with the internal combustion engine and the electric motor both being actuated; a second area provided side by side with the first area and configured to indicate a third output in the second mode; and a third area provided in a position adjacent to the second area, included in the first area, and configured to indicate a range of the first output where a possibility that the internal combustion engine starts is high, wherein the first area has a first display portion (36, 36A) that changes according to the first output in the first mode and the second output in the second mode; and wherein the second area has a second display portion that changes according to the third output in the second mode, the display device being characterized in that a display area formed of the first area and the second area is shaped in a circle, and in that the first area and the second area are provided so as to range with each other in a fan-like or arc-like shape with an uppermost position of the display area as a boundary.
A method of determining the veracity of vehicle information, comprising: receiving, in a server computing device, vehicle information from a reporting vehicle; comparing, in the server computing device, the received vehicle information to contextual information to generate a comparison result; determining, in the server computing device, whether due to a discrepancy between the received vehicle information and the contextual information, the received vehicle information should be evaluated with greater scrutiny based on the comparison result; in response to determining that the received vehicle information should be evaluated, identifying, by the server computing device, sensors for polling based on the received vehicle information; polling, by the server computing device, identified sensors to receive sensor information; corroborating, in the server computing device, the received vehicle information based on the received sensor information, when the received vehicle information is determined to require greater scrutiny; determining whether the received vehicle information is corroborated by the received sensor information, and discarding the received vehicle information in response to determining that the received vehicle information is not corroborated by the received sensor information. receiving, in a server computing device, vehicle information from a reporting vehicle; comparing, in the server computing device, the received vehicle information to contextual information to generate a comparison result; determining, in the server computing device, whether due to a discrepancy between the received vehicle information and the contextual information, the received vehicle information should be evaluated with greater scrutiny based on the comparison result; in response to determining that the received vehicle information should be evaluated, identifying, by the server computing device, sensors for polling based on the received vehicle information; polling, by the server computing device, identified sensors to receive sensor information; corroborating, in the server computing device, the received vehicle information based on the received sensor information, when the received vehicle information is determined to require greater scrutiny; determining whether the received vehicle information is corroborated by the received sensor information, and discarding the received vehicle information in response to determining that the received vehicle information is not corroborated by the received sensor information.