mhurhangee/ep-ind-claims huggingface dataset:
An illumination device, comprising: a light source for generating an excitation light; and a plate contains a wavelength conversion material capable of absorbing the excitation light and emitting light having wavelengths different from that of the excitation light, wherein the plate includes two or more segments including a first segment and a second segment, one or more of which each contains a wavelength conversion material, wherein the first segment of the plate contains a first wavelength conversion material, and the second segment either contains a different wavelength conversion material or contains no wavelength conversion material; and wherein a part of the plate is disposed on an optical path of the excitation light, and the plate and the excitation light are moveable relative to each other so that different segments of the plate are exposed to the excitation light at different times; characterized in that the light source comprises a plurality of sources, wherein the plurality of sources comprise a first source and a second source which are located on opposite sides of the plate, the first source and the second source emit excitation light at different wavelength ranges, and the illumination device further comprises a dichroic plate located between the second source and the wavelength conversion material, the dichroic plate transmitting excitation light from the second source in one wavelength range, reflecting excitation light from the first source in another wavelength range and light emitted by the wavelength conversion material. a light source for generating an excitation light; and a plate contains a wavelength conversion material capable of absorbing the excitation light and emitting light having wavelengths different from that of the excitation light, wherein the plate includes two or more segments including a first segment and a second segment, one or more of which each contains a wavelength conversion material, wherein the first segment of the plate contains a first wavelength conversion material, and the second segment either contains a different wavelength conversion material or contains no wavelength conversion material; and wherein a part of the plate is disposed on an optical path of the excitation light, and the plate and the excitation light are moveable relative to each other so that different segments of the plate are exposed to the excitation light at different times; characterized in that the light source comprises a plurality of sources, wherein the plurality of sources comprise a first source and a second source which are located on opposite sides of the plate, the first source and the second source emit excitation light at different wavelength ranges, and the illumination device further comprises a dichroic plate located between the second source and the wavelength conversion material, the dichroic plate transmitting excitation light from the second source in one wavelength range, reflecting excitation light from the first source in another wavelength range and light emitted by the wavelength conversion material.
Measuring apparatus used in automation technology with a signal generator for the generation of periodic signals, wherein the signals have consecutive, discrete signal frequencies which are within a predefined frequency range, wherein the signal generator comprises: - a control and/or computing unit; - a clock, wherein said clock makes a constant scanning frequency available which is greater than the maximum discrete signal frequency in the predefined frequency range; - a memory unit, in which the amplitude values of the corresponding signals are saved, or can be saved, for each of the discrete signal frequencies, depending on the scan frequency, wherein the control and/or computing unit gradually reads the saved amplitude values of the discrete signal frequencies out of the memory unit at the scanning frequency of the clock and generates the periodic signals or forwards them for generation; and - a static filter unit with a limit frequency which is above the maximum signal frequency and which removes the frequency components caused by the scanning, wherein the amplitude values of the corresponding periodic signals are saved, or can be saved, in the memory unit depending on the scanning frequency in the form of at least one search table (8, 9), known as a look-up table, and wherein the control and/or computing unit dynamically generates a look-up table (8, 9) for each of the discrete signal frequencies with the aid of an algorithm. - a control and/or computing unit; - a clock, wherein said clock makes a constant scanning frequency available which is greater than the maximum discrete signal frequency in the predefined frequency range; - a memory unit, in which the amplitude values of the corresponding signals are saved, or can be saved, for each of the discrete signal frequencies, depending on the scan frequency, wherein the control and/or computing unit gradually reads the saved amplitude values of the discrete signal frequencies out of the memory unit at the scanning frequency of the clock and generates the periodic signals or forwards them for generation; and - a static filter unit with a limit frequency which is above the maximum signal frequency and which removes the frequency components caused by the scanning, wherein the amplitude values of the corresponding periodic signals are saved, or can be saved, in the memory unit depending on the scanning frequency in the form of at least one search table (8, 9), known as a look-up table, and wherein the control and/or computing unit dynamically generates a look-up table (8, 9) for each of the discrete signal frequencies with the aid of an algorithm.
A method of wireless communications for a relay node, i.e. a base station without a direct backhaul link to a core network (102-b, 102-c; 220; 322, 324, 326), comprising: receiving a configuration for a first radio channel (151; 360, 364, 368, 372) with a first priority and a first priority ID, and receiving a configuration for a second radio channel (152; 362, 366, 370, 374) with a second, different priority and a second priority ID; receiving a configuration for a third radio channel (153; 340) with a first mapping to the first priority, and receiving a configuration for a fourth radio channel (154; 342) with a second mapping to the second priority; forwarding packets from the third radio channel to the first radio channel based on the first mapping and inserting the first priority ID into a header in the packets from the third radio channel; and forwarding packets from the fourth radio channel to the second radio channel based on the second mapping, and inserting the second priority ID into a header in the packets from the fourth radio channel. receiving a configuration for a first radio channel (151; 360, 364, 368, 372) with a first priority and a first priority ID, and receiving a configuration for a second radio channel (152; 362, 366, 370, 374) with a second, different priority and a second priority ID; receiving a configuration for a third radio channel (153; 340) with a first mapping to the first priority, and receiving a configuration for a fourth radio channel (154; 342) with a second mapping to the second priority; forwarding packets from the third radio channel to the first radio channel based on the first mapping and inserting the first priority ID into a header in the packets from the third radio channel; and forwarding packets from the fourth radio channel to the second radio channel based on the second mapping, and inserting the second priority ID into a header in the packets from the fourth radio channel.
A method for preparing a fine powder of a polymannan extract as end product comprising the steps of: weighing a specified quantity of a freeze-dried aloe powder as source product, wherein the quantity is corrected for a moisture content; dissolving the freeze-dried aloe powder in deionized water to form a solution; adding a first volume of an alcoholic solvent to the solution to form a first mixture; wherein the alcoholic solvent to the deionized water ratio is at least 2.5:1; allowing the first mixture to settle for at least 8 hours; withdrawing a volume of a supernatant solution from the first mixture and adding a second volume of the alcoholic solvent to the volume of the supernatant solution to form a second mixture; centrifuging the second mixture; observing for a presence of a precipitate in the second mixture; adding a third volume of the alcoholic solvent to the first mixture if any precipitate is observed in the second mixture; decanting the supernatant of the first mixture by siphoning, wherein the decantation is done only if no precipitate is observed in the second mixture; filtering the precipitate from the first mixture by using a filter paper and a suction funnel under vacuum; recovering the powder of the polymannan extract from the suction funnel by scraping; placing the powder of the polymannan extract in a capped lyophilization flask in a freezer for at least 8 hours; lyophilizing the frozen powder of the polymannan extract in a lyophilizer; and grinding the lyophilized powder of the polymannan extract in a grinder to a desired texture. weighing a specified quantity of a freeze-dried aloe powder as source product, wherein the quantity is corrected for a moisture content; dissolving the freeze-dried aloe powder in deionized water to form a solution; adding a first volume of an alcoholic solvent to the solution to form a first mixture; wherein the alcoholic solvent to the deionized water ratio is at least 2.5:1; allowing the first mixture to settle for at least 8 hours; withdrawing a volume of a supernatant solution from the first mixture and adding a second volume of the alcoholic solvent to the volume of the supernatant solution to form a second mixture; centrifuging the second mixture; observing for a presence of a precipitate in the second mixture; adding a third volume of the alcoholic solvent to the first mixture if any precipitate is observed in the second mixture; decanting the supernatant of the first mixture by siphoning, wherein the decantation is done only if no precipitate is observed in the second mixture; filtering the precipitate from the first mixture by using a filter paper and a suction funnel under vacuum; recovering the powder of the polymannan extract from the suction funnel by scraping; placing the powder of the polymannan extract in a capped lyophilization flask in a freezer for at least 8 hours; lyophilizing the frozen powder of the polymannan extract in a lyophilizer; and grinding the lyophilized powder of the polymannan extract in a grinder to a desired texture.
A method comprising: determining that a user equipment is out of uplink synchronization; generating a control signal specifying timing alignment information for transmission to the user equipment, wherein the control signal further specifies use of implicit negative acknowledgement; and declaring an implicit negative acknowledgement corresponding to retransmission of data if an acknowledgement is not received within a predetermined time interval. determining that a user equipment is out of uplink synchronization; generating a control signal specifying timing alignment information for transmission to the user equipment, wherein the control signal further specifies use of implicit negative acknowledgement; and declaring an implicit negative acknowledgement corresponding to retransmission of data if an acknowledgement is not received within a predetermined time interval.
A method performed by a system that runs a platform simulation and a network simulation of a radio network, the method comprising: probing the network simulation to determine effects produced between transmitter-receiver pairs represented within the network simulation, wherein the probing includes sending a probe message within the network simulation from a transmitter to a receiver of a transmitter-receiver pair; computing communication effects in response to the probing and saving the communication effects for later use, wherein the computing includes evaluating whether the probe message arrived at the receiver of the transmitter-receiver pair, the latency of the probe message and the route traveled by the probe message; and when a communication event involving the transmitter-receiver pair occurs in the platform simulation, using the saved communication effects to simulate the communication effects for that event; wherein a communication effects engine is used to probe the network simulation, compute and save the communication effects in response to the probing, and apply the saved communication effects to the network simulation. probing the network simulation to determine effects produced between transmitter-receiver pairs represented within the network simulation, wherein the probing includes sending a probe message within the network simulation from a transmitter to a receiver of a transmitter-receiver pair; computing communication effects in response to the probing and saving the communication effects for later use, wherein the computing includes evaluating whether the probe message arrived at the receiver of the transmitter-receiver pair, the latency of the probe message and the route traveled by the probe message; and when a communication event involving the transmitter-receiver pair occurs in the platform simulation, using the saved communication effects to simulate the communication effects for that event;
A vehicle maintenance method implemented by a vehicle maintenance apparatus, the method comprising: performing a diagnosis on a vehicle to obtain failure information of the vehicle; searching for identification information of an expert corresponding to the failure information; and setting up a voice communication connection with an expert's terminal corresponding to the identification information, to establish a voice communication between the vehicle maintenance apparatus and the expert's terminal; obtaining voice information sent by the expert's terminal; playing the voice information, and parsing the voice information, and determining whether the voice information includes operation instruction information; and performing an operation corresponding to the operation instruction information, if the voice information includes the operation instruction information. performing a diagnosis on a vehicle to obtain failure information of the vehicle; searching for identification information of an expert corresponding to the failure information; and setting up a voice communication connection with an expert's terminal corresponding to the identification information, to establish a voice communication between the vehicle maintenance apparatus and the expert's terminal; obtaining voice information sent by the expert's terminal; playing the voice information, and parsing the voice information, and determining whether the voice information includes operation instruction information; and performing an operation corresponding to the operation instruction information, if the voice information includes the operation instruction information. obtaining voice information sent by the expert's terminal; playing the voice information, and parsing the voice information, and determining whether the voice information includes operation instruction information; and performing an operation corresponding to the operation instruction information, if the voice information includes the operation instruction information.
A thermal flow sensor comprising: a first substrate having a first side and a second opposite side; a second substrate having a first side and a second opposite side, said first substrate being connected to said second substrate such that said second side of said first substrate abuts said first side of said second substrate; a third substrate having a first side and a second opposite side, said third substrate being connected to said second substrate such that said second side of said second substrate abuts said first side of said third substrate; wherein said second substrate having a groove formed therein so as to form a conduit bounded by said second substrate and said second side of said first substrate and said first side of said third substrate, said conduit having a fluid flow direction; wherein said first and third substrates (12, 16) are made of borosilicate glass; a heater disposed on said first side of said first substrate opposed to said conduit; a first temperature sensor disposed on said first side of said first substrate opposed to said conduit and at a first predetermined distance from said heater in a direction opposite to said fluid flow direction; and a second temperature sensor disposed on said first side of said first substrate opposed to said conduit and at a second predetermined distance from said heater in a direction opposite to said fluid flow direction, wherein said second predetermined distance is greater than said first predetermined direction. a first substrate having a first side and a second opposite side; a second substrate having a first side and a second opposite side, said first substrate being connected to said second substrate such that said second side of said first substrate abuts said first side of said second substrate; a third substrate having a first side and a second opposite side, said third substrate being connected to said second substrate such that said second side of said second substrate abuts said first side of said third substrate; wherein said second substrate having a groove formed therein so as to form a conduit bounded by said second substrate and said second side of said first substrate and said first side of said third substrate, said conduit having a fluid flow direction; wherein said first and third substrates (12, 16) are made of borosilicate glass; a heater disposed on said first side of said first substrate opposed to said conduit; a first temperature sensor disposed on said first side of said first substrate opposed to said conduit and at a first predetermined distance from said heater in a direction opposite to said fluid flow direction; and a second temperature sensor disposed on said first side of said first substrate opposed to said conduit and at a second predetermined distance from said heater in a direction opposite to said fluid flow direction, wherein said second predetermined distance is greater than said first predetermined direction.
A method in a mobile communication device for use in reducing the effect of interference of communications using a first radio frequency, RF, transceiver of a first type due to simultaneous communications using a second RF transceiver of a second type, the communication using the first RF transceiver being within a first RF band and the communications using the second RF transceiver being in a second RF band which is adjacent to the first RF band, the method comprising: performing a communication function using the second RF transceiver and estimating a noise power spectrum on a channel of the first RF transceiver during performance of the communication function; storing parameters which characterize the estimated noise power spectrum in association with an identifier corresponding to the communication function, as well in association with an identifier of the channel and when performing the communication function again using the second RF transceiver: retrieving the stored parameters which characterize the estimated noise power spectrum and applying the retrieved parameters to the first RF transceiver for reducing the effect of RF interference during reception on the channel of the first RF transceiver; in which the communication function comprises a resource block allocation function, a resource block offset function, an index function, or a transmit power function associated with a protocol associated with the second RF transceiver. performing a communication function using the second RF transceiver and estimating a noise power spectrum on a channel of the first RF transceiver during performance of the communication function; storing parameters which characterize the estimated noise power spectrum in association with an identifier corresponding to the communication function, as well in association with an identifier of the channel and when performing the communication function again using the second RF transceiver: retrieving the stored parameters which characterize the estimated noise power spectrum and applying the retrieved parameters to the first RF transceiver for reducing the effect of RF interference during reception on the channel of the first RF transceiver; in which the communication function comprises a resource block allocation function, a resource block offset function, an index function, or a transmit power function associated with a protocol associated with the second RF transceiver.
A composition comprising a recombinant AAV9 (rAAV9) and a non-ionic, low-osmolar contrast agent for use in a method of delivering a polynucleotide to the central nervous system of a patient in need thereof, the method comprising intrathecal delivery of the composition to the patient, wherein the rAAV9 comprises a self-complementary genome including the polynucleotide, and wherein the non-ionic, low-osmolar contrast agent is iobitridol, iohexol, iomeprol, iopamidol, iopentol, iopromide, ioversol or ioxilan.
A photovoltaic cell comprising: a crystal-based semiconductor having one face and another face; an intrinsic first amorphous-based semiconductor film (4, 5); a second amorphous-based semiconductor film (4a, 7) including impurities showing one conductivity-type; a first electrode (9, 11); a semiconductor region (la, 6) corresponding either to an impurity diffusion region (la) in the crystal-based semiconductor or to a semiconductor layer including impurities, wherein said impurities show another conductivity-type different from said one conductivity-type; and a second electrode (8, 10); characterized in that: said first amorphous-based semiconductor film (4, 5), said second amorphous-based semiconductor film (4a, 7), and said first electrode (9, 11) are formed in this order on a first region of said one face of said crystal-based semiconductor, and said semiconductor region (la, 6) and said second electrode (8, 10) are formed in this order on a second region of said one face of said crystal-based semiconductor. a crystal-based semiconductor having one face and another face; an intrinsic first amorphous-based semiconductor film (4, 5); a second amorphous-based semiconductor film (4a, 7) including impurities showing one conductivity-type; a first electrode (9, 11); a semiconductor region (la, 6) corresponding either to an impurity diffusion region (la) in the crystal-based semiconductor or to a semiconductor layer including impurities, wherein said impurities show another conductivity-type different from said one conductivity-type; and a second electrode (8, 10); characterized in that: said first amorphous-based semiconductor film (4, 5), said second amorphous-based semiconductor film (4a, 7), and said first electrode (9, 11) are formed in this order on a first region of said one face of said crystal-based semiconductor, and said semiconductor region (la, 6) and said second electrode (8, 10) are formed in this order on a second region of said one face of said crystal-based semiconductor. said first amorphous-based semiconductor film (4, 5), said second amorphous-based semiconductor film (4a, 7), and said first electrode (9, 11) are formed in this order on a first region of said one face of said crystal-based semiconductor, and said semiconductor region (la, 6) and said second electrode (8, 10) are formed in this order on a second region of said one face of said crystal-based semiconductor.