mhurhangee/patent-ind-claim-en huggingface dataset:
A system comprising: a set of satellite network devices providing switching functionality; and an aggregation network device providing control plane functionality, wherein the aggregation network device is configured to communicate with an orchestrator of a wide area network, WAN, and wherein the aggregation network device is configured to: send, to the orchestrator, data indicating the satellite network devices as respective sub-systems within a logical switch comprising the aggregation network device and the set of satellite network devices; receive, from the orchestrator, configuration information for managing at least one sub-system within the logical switch; and configure, based on the configuration information and by a port extension service executing on the aggregation network device, a satellite network device of the set of satellite network devices corresponding to the at least one sub-system, wherein the port extension service executes a link layer discovery protocol, LLDP, configured to detect each satellite network device of the set of satellite network devices coupled to the aggregation network device. a set of satellite network devices providing switching functionality; and an aggregation network device providing control plane functionality, wherein the aggregation network device is configured to communicate with an orchestrator of a wide area network, WAN, and wherein the aggregation network device is configured to: send, to the orchestrator, data indicating the satellite network devices as respective sub-systems within a logical switch comprising the aggregation network device and the set of satellite network devices; receive, from the orchestrator, configuration information for managing at least one sub-system within the logical switch; and configure, based on the configuration information and by a port extension service executing on the aggregation network device, a satellite network device of the set of satellite network devices corresponding to the at least one sub-system, wherein the port extension service executes a link layer discovery protocol, LLDP, configured to detect each satellite network device of the set of satellite network devices coupled to the aggregation network device. send, to the orchestrator, data indicating the satellite network devices as respective sub-systems within a logical switch comprising the aggregation network device and the set of satellite network devices; receive, from the orchestrator, configuration information for managing at least one sub-system within the logical switch; and configure, based on the configuration information and by a port extension service executing on the aggregation network device, a satellite network device of the set of satellite network devices corresponding to the at least one sub-system, wherein the port extension service executes a link layer discovery protocol, LLDP, configured to detect each satellite network device of the set of satellite network devices coupled to the aggregation network device.
A light emitting device comprising: a fluorescent material; a first laser element configured to emit a first laser light to excite the fluorescent material, the first laser light having a first peak wavelength that is shorter than an excitation peak wavelength of the fluorescent material at room temperature; and a second laser element configured to emit a second laser light to excite the fluorescent material, the second laser light having a second peak wavelength that is longer than the excitation peak wavelength of the fluorescent material at room temperature; wherein a difference between the first peak wavelength and the second peak wavelength is 6 nm or greater and 50 nm or less, wherein the first peak wavelength is shorter than the excitation peak wavelength of the fluorescent material at temperatures corresponding to 70 % or greater of a temperature range that is defined by a lower limit temperature and an upper limit temperature, the lower limit temperature being -20 °C or -40 °C and the upper limit temperature being 85 °C or 135 °C and characterized in that the second peak wavelength is longer than the excitation peak wavelength of the fluorescent material at temperatures corresponding to 70 % or greater of the temperature range. a fluorescent material; a first laser element configured to emit a first laser light to excite the fluorescent material, the first laser light having a first peak wavelength that is shorter than an excitation peak wavelength of the fluorescent material at room temperature; and a second laser element configured to emit a second laser light to excite the fluorescent material, the second laser light having a second peak wavelength that is longer than the excitation peak wavelength of the fluorescent material at room temperature; wherein a difference between the first peak wavelength and the second peak wavelength is 6 nm or greater and 50 nm or less, wherein the first peak wavelength is shorter than the excitation peak wavelength of the fluorescent material at temperatures corresponding to 70 % or greater of a temperature range that is defined by a lower limit temperature and an upper limit temperature, the lower limit temperature being -20 °C or -40 °C and the upper limit temperature being 85 °C or 135 °C and characterized in that the second peak wavelength is longer than the excitation peak wavelength of the fluorescent material at temperatures corresponding to 70 % or greater of the temperature range.
A method performed at a first wireless station of transmitting to a second wireless station of a plurality of wireless stations with which the first wireless station has recently communicated, the first wireless station and the second wireless station of the plurality of wireless stations being configured to transmit and receive packets of information using orthogonal frequency division multiplexing, OFDM, signals that include a plurality of frequency tones, the first wireless station including a plurality of antennas for receiving and transmitting coupled to a transmit selector coupled to a transmit signal path for transmitting, the method comprising: determining a measure of an error vector magnitude, EVM, for signals received from the second wireless station of the plurality of wireless stations via each of the antennas of the first wireless station ; storing the measures of the EVM for the signals received from the second wireless station of the plurality of wireless stations, or a decision based on those measures, in a memory included in the first wireless station , the memory storing measures of the EVM, or decisions based on those measures, for the plurality of wireless stations with which the first wireless station has recently communicated; selecting one of the transmit antennas for transmitting to the second wireless station of the plurality of wireless stations based on the stored measures of the EVM for the signals received from the second wireless station of the plurality of wireless stations, or according to the stored decision based on those measures; and transmitting a signal for transmission to the second wireless station of the plurality of wireless stations via the selected antenna . determining a measure of an error vector magnitude, EVM, for signals received from the second wireless station of the plurality of wireless stations via each of the antennas of the first wireless station ; storing the measures of the EVM for the signals received from the second wireless station of the plurality of wireless stations, or a decision based on those measures, in a memory included in the first wireless station , the memory storing measures of the EVM, or decisions based on those measures, for the plurality of wireless stations with which the first wireless station has recently communicated; selecting one of the transmit antennas for transmitting to the second wireless station of the plurality of wireless stations based on the stored measures of the EVM for the signals received from the second wireless station of the plurality of wireless stations, or according to the stored decision based on those measures; and transmitting a signal for transmission to the second wireless station of the plurality of wireless stations via the selected antenna .
A system comprising an audible alert system for a locomotive and an assembly mountable to handrailing of the locomotive and the audible alert system, the audible alert system comprising a speaker , an audio amplifier , an audio file player , and an enclosure, wherein the audio amplifier and the audio file player are within an enclosure configured to provide protection for the audio amplifier and the audio file player from the environment, characterized in that the speaker of the audible alert system is mountable to the assembly , such that the speaker of the audible alert system is mountable via the assembly to the handrailing of the locomotive, wherein the system further comprises a speaker bracket positionable generally between wherein the speaker and a portion of the assembly , and the speaker bracket includes: fastener holes alignable with corresponding fastener holes of the portion of the assembly , whereby one or more mechanical fasteners are insertable through the aligned fastener holes of the speaker bracket and the portion of the assembly to thereby couple the speaker bracket to the portion of the assembly ; and/or fastener holes alignable with corresponding fastener holes of the speaker , whereby one or more mechanical fasteners are insertable through the aligned fastener holes of the speaker bracket and the speaker to thereby couple the speaker bracket to the speaker . fastener holes alignable with corresponding fastener holes of the portion of the assembly , whereby one or more mechanical fasteners are insertable through the aligned fastener holes of the speaker bracket and the portion of the assembly to thereby couple the speaker bracket to the portion of the assembly ; and/or fastener holes alignable with corresponding fastener holes of the speaker , whereby one or more mechanical fasteners are insertable through the aligned fastener holes of the speaker bracket and the speaker to thereby couple the speaker bracket to the speaker .
Adjustment device which comprises a stator , a driven element , a guide device which is configured such that, in the operational state of the adjustment device , the same provides a guided support of the driven element with respect to the stator in a drive direction, a slider , a support device which movably supports the slider relative to the stator along the drive direction, a drive device for driving the slider , a coupling device and a clamping device , wherein the coupling device comprises a connection device which is fastened to the driven element or the slider , wherein the clamping device is configured such that the same provides, in a release state, a movement clearance between a connection section of the connection device and either the slider or the driven element in order to establish a mounting state of the adjustment device and that the same provides, in a clamping state, a rigid coupling of the connection section and either the slider or the driven element in the drive direction, thereby causing a rotational relative movement about a rotational axis, which runs along the drive direction, between the driven element and the slider . wherein the coupling device comprises a connection device which is fastened to the driven element or the slider , wherein the clamping device is configured such that the same provides, in a release state, a movement clearance between a connection section of the connection device and either the slider or the driven element in order to establish a mounting state of the adjustment device and that the same provides, in a clamping state, a rigid coupling of the connection section and either the slider or the driven element in the drive direction, thereby causing a rotational relative movement about a rotational axis, which runs along the drive direction, between the driven element and the slider .
A surgical device , comprising: a housing having an ultrasonic transducer positioned therein; an instrument shaft extending from the housing, the instrument shaft including an outer sleeve having an articulable region and a non-articulable region , the instrument shaft further including, a waveguide that is acoustically coupled with the ultrasonic transducer, wherein a portion of the articulable region is aligned with a flexible portion of the waveguide , and a rotation assembly having an inner sleeve ; and an end effector assembly at a distal end of the outer sleeve, the end effector assembly having a clamping element and an ultrasonic blade that is in acoustic communication with the waveguide, wherein the inner sleeve is coupled to the clamping element, the inner sleeve having a sliding mechanism that is configured to selectively rotate the clamping element about the ultrasonic blade. a housing having an ultrasonic transducer positioned therein; an instrument shaft extending from the housing, the instrument shaft including an outer sleeve having an articulable region and a non-articulable region , the instrument shaft further including, a waveguide that is acoustically coupled with the ultrasonic transducer, wherein a portion of the articulable region is aligned with a flexible portion of the waveguide , and a rotation assembly having an inner sleeve ; and a waveguide that is acoustically coupled with the ultrasonic transducer, wherein a portion of the articulable region is aligned with a flexible portion of the waveguide , and a rotation assembly having an inner sleeve ; and an end effector assembly at a distal end of the outer sleeve, the end effector assembly having a clamping element and an ultrasonic blade that is in acoustic communication with the waveguide, wherein the inner sleeve is coupled to the clamping element, the inner sleeve having a sliding mechanism that is configured to selectively rotate the clamping element about the ultrasonic blade.
A computer implemented method of aligning a plurality of sequence reads, the method comprising: obtaining a plurality of sequence reads as strings of symbols; aligning the sequence reads against a reference directed acyclic graph (DAG) comprising a plurality of nodes representing respective sequences as strings of symbols, wherein a path through the DAG represents a reference sequence, at least two of the plurality of nodes represent alternative sequences for one or more positions in the reference sequence, and at least some of the plurality of nodes have one or more parent nodes, wherein the parent node(s) of a node define(s) the node's position with respect to the other nodes in the DAG, wherein aligning comprises scoring overlaps between each of the plurality of sequence reads and the reference DAG at each of a plurality of positions, wherein a predecessor of each symbol ( d ) of the sequence represented by a node is defined as: (i) the symbol preceding symbol d, if symbol d is not the first symbol of the sequence represented by the node; and (ii) the last symbol of the sequence of any node that is a parent of symbol d 's node, if symbol d is the first symbol of the sequence represented by the node; and writing a file to memory corresponding to the aligned sequence. obtaining a plurality of sequence reads as strings of symbols; aligning the sequence reads against a reference directed acyclic graph (DAG) comprising a plurality of nodes representing respective sequences as strings of symbols, wherein a path through the DAG represents a reference sequence, at least two of the plurality of nodes represent alternative sequences for one or more positions in the reference sequence, and at least some of the plurality of nodes have one or more parent nodes, wherein the parent node(s) of a node define(s) the node's position with respect to the other nodes in the DAG, wherein aligning comprises scoring overlaps between each of the plurality of sequence reads and the reference DAG at each of a plurality of positions, wherein a predecessor of each symbol ( d ) of the sequence represented by a node is defined as: (i) the symbol preceding symbol d, if symbol d is not the first symbol of the sequence represented by the node; and (ii) the last symbol of the sequence of any node that is a parent of symbol d 's node, if symbol d is the first symbol of the sequence represented by the node; and writing a file to memory corresponding to the aligned sequence.
A hybrid cooktop comprising: a case ; a cover plate configured to couple to an upper end of the case , the cover plate being configured to seat an object to be heated; one or more working coils (WC1, WC2) located in the case , each working coil being configured to heat the object; one or more heating elements (HE1, HE2) located at a lower surface of the cover plate and located above the plurality of working coils (WC1, WC2) at positions corresponding to the one or more working coils (WC1, WC2), each heating element being configured to heat the object; a heat insulation part that is located at the lower surface of the cover plate and that surrounds the one or more heating elements (HE1, HE2); and a spacer located between the one or more working coils (WC1, WC2) and the heat insulation part . a case ; a cover plate configured to couple to an upper end of the case , the cover plate being configured to seat an object to be heated; one or more working coils (WC1, WC2) located in the case , each working coil being configured to heat the object; one or more heating elements (HE1, HE2) located at a lower surface of the cover plate and located above the plurality of working coils (WC1, WC2) at positions corresponding to the one or more working coils (WC1, WC2), each heating element being configured to heat the object; a heat insulation part that is located at the lower surface of the cover plate and that surrounds the one or more heating elements (HE1, HE2); and a spacer located between the one or more working coils (WC1, WC2) and the heat insulation part .
A method for the production of non-carbon-based 2D materials and/or non-carbon-based 2D material nanoplatelet structures having a thickness of less than 100 nm in an electrochemical cell, wherein the cell comprises: (a) a negative electrode which is a composite comprising a non-carbon-based bulk 2D material and an electronically conducting material; (b) a positive electrode; and (c) an electrolyte; and wherein the method comprises the step of passing a current through the cell such that the non-carbon-based bulk 2D material undergoes electrochemical intercalation and subsequent electrochemical exfoliation to afford non-carbon-based 2D materials and/or non-carbon-based 2D material nanoplatelet structures having a thickness of less than 100 nm. (a) a negative electrode which is a composite comprising a non-carbon-based bulk 2D material and an electronically conducting material; (b) a positive electrode; and (c) an electrolyte;
A method of recovering fly ash, including a firing step in which raw fly ash powder containing an unburned carbon is fired to remove the unburned carbon by burning, characterized by further including: a measuring step of measuring a content of said unburned carbon in said raw fly ash powder; and a sieve-classifying step of obtaining a fine fly ash powder which is a component under a sieve and has a decreased content of said unburned carbon as a result of sieve-classifying said raw fly ash powder; wherein a perforation size of the sieve used in said sieve-classifying step is set depending upon the content of unburned carbon in the raw fly ash powder, the sieve having a small perforation size being used when the content of unburned carbon is large and the sieve having a large perforation size being used when the content of unburned carbon is small; and a fine fly ash powder which is the component under the sieve is recovered through said firing step. a measuring step of measuring a content of said unburned carbon in said raw fly ash powder; and a sieve-classifying step of obtaining a fine fly ash powder which is a component under a sieve and has a decreased content of said unburned carbon as a result of sieve-classifying said raw fly ash powder; wherein a perforation size of the sieve used in said sieve-classifying step is set depending upon the content of unburned carbon in the raw fly ash powder, the sieve having a small perforation size being used when the content of unburned carbon is large and the sieve having a large perforation size being used when the content of unburned carbon is small; and a fine fly ash powder which is the component under the sieve is recovered through said firing step.
Use of granules in beverages, whereby the granules comprise (i) a milled carotenoid selected from the group consisting of lutein and zeaxanthin and any mixture thereof having the following particle size distribution: D in the range of from 0.6 to 1.5 μm, and D [v, 0.5] in the range of from 1.1 to 3.5 μm, and (ii) a matrix comprising at least one modified food starch, a glucose syrup and sucrose, (iii) a water-soluble antioxidant, wherein the granules have the following particle size distribution: D in the range of from 200 to 300 μm, and D [v, 0.5] in the range of from 220 to 320 μm, all D values as measured by laser diffraction according to the Fraunhofer scattering model, whereby the milled carotenoid is encapsulated by the matrix. (i) a milled carotenoid selected from the group consisting of lutein and zeaxanthin and any mixture thereof having the following particle size distribution: D in the range of from 0.6 to 1.5 μm, and D [v, 0.5] in the range of from 1.1 to 3.5 μm, and (ii) a matrix comprising at least one modified food starch, a glucose syrup and sucrose, (iii) a water-soluble antioxidant, wherein the granules have the following particle size distribution: D in the range of from 200 to 300 μm, and D [v, 0.5] in the range of from 220 to 320 μm, all D values as measured by laser diffraction according to the Fraunhofer scattering model, whereby the milled carotenoid is encapsulated by the matrix. D in the range of from 200 to 300 μm, and D [v, 0.5] in the range of from 220 to 320 μm, all D values as measured by laser diffraction according to the Fraunhofer scattering model, whereby the milled carotenoid is encapsulated by the matrix.
A method implemented by an electronic device, the method comprising: receiving an instruction to scale a region of a displayed structured document, the region including at least one element or a portion thereof; in response to the received instruction: identifying a dominant alignment of the region; the dominant alignment being an alignment of a dominant image in the region or an alignment of text within a dominant text block in the region; scaling the region; and outputting to a display interface a portion of the scaled region intersecting a viewport defined for a display, the viewport being aligned with the scaled region according to the dominant alignment when it is intersected with the scaled region. receiving an instruction to scale a region of a displayed structured document, the region including at least one element or a portion thereof; in response to the received instruction: identifying a dominant alignment of the region; the dominant alignment being an alignment of a dominant image in the region or an alignment of text within a dominant text block in the region; scaling the region; and outputting to a display interface a portion of the scaled region intersecting a viewport defined for a display, the viewport being aligned with the scaled region according to the dominant alignment when it is intersected with the scaled region. identifying a dominant alignment of the region; the dominant alignment being an alignment of a dominant image in the region or an alignment of text within a dominant text block in the region; scaling the region; and outputting to a display interface a portion of the scaled region intersecting a viewport defined for a display, the viewport being aligned with the scaled region according to the dominant alignment when it is intersected with the scaled region.