mhurhangee/ep-ind-claims huggingface dataset:
A mode-locked laser with closed-loop loss modulation system with optical comb carrier envelope offset frequency control, comprising: a mode-locked oscillator, comprising a ring cavity with a gain fiber and a mode locker, wherein the mode-locked oscillator produces an output beam using a pump beam provided by a pump laser and one or more control signals, and wherein the output beam comprises a controlled carrier envelope offset frequency; said one or more control signals are generated by a beat note generator, wherein the beat note generator produces a beat note signal using a portion of the output beam; and a control signal generator, wherein the control signal generator produces the one or more control signals to set the beat note signal by modulating the intensity within the mode locked oscillator, and wherein modulating the intensity comprises using a Mach-Zehnder intensity loss modulator. wherein the Mach-Zehnder intensity modulator is within the ring cavity. a mode-locked oscillator, comprising a ring cavity with a gain fiber and a mode locker, wherein the mode-locked oscillator produces an output beam using a pump beam provided by a pump laser and one or more control signals, and wherein the output beam comprises a controlled carrier envelope offset frequency; said one or more control signals are generated by a beat note generator, wherein the beat note generator produces a beat note signal using a portion of the output beam; and a control signal generator, wherein the control signal generator produces the one or more control signals to set the beat note signal by modulating the intensity within the mode locked oscillator, and wherein modulating the intensity comprises using a Mach-Zehnder intensity loss modulator. wherein the Mach-Zehnder intensity modulator is within the ring cavity.
An antibody that binds alpha synuclein, comprising a mature heavy chain variable region having the amino acid sequence of SEQ ID NO:10, a mature light chain variable region having the amino acid sequence of SEQ ID NO:5, a heavy chain constant region having the amino acid sequence of SEQ ID No: 32 with or without the C-terminal lysine, and the light chain constant region having the amino acid sequence designated SEQ ID No: 13.
An orthotic device for use with a heeled, dress, flat or sport shoe, the device comprising: a body portion; a medial arch support defined by a projection extending upwardly away from the body portion; and a valgus wedge defined by a projection located at a lateral rear foot portion and/or a lateral midfoot portion and/or lateral forefoot portion of the body portion, the valgus wedge extending along a lateral border of the orthotic device from the rear foot portion to the forefoot portion of the body portion, the valgus wedge tapering from a high lateral side to a low medial side of the body portion, the valgus wedge being adapted to evert the foot and concentrate the support of the device laterally, wherein a curved channel or depression is located between the medial arch support and the medial edge of the valgus wedge. a body portion; a medial arch support defined by a projection extending upwardly away from the body portion; and a valgus wedge defined by a projection located at a lateral rear foot portion and/or a lateral midfoot portion and/or lateral forefoot portion of the body portion, the valgus wedge extending along a lateral border of the orthotic device from the rear foot portion to the forefoot portion of the body portion, the valgus wedge tapering from a high lateral side to a low medial side of the body portion, the valgus wedge being adapted to evert the foot and concentrate the support of the device laterally, wherein a curved channel or depression is located between the medial arch support and the medial edge of the valgus wedge.
A multilayer nanocrystal structure comprising: a nanocrystal core; and one or more layers of nanocrystal shells formed successively on the surface of the nanocrystal core such that a first layer of nanocrystal shell completely covers the exposed surface of the nanocrystal core, and each additional layer of nanocrystal shell completely covers an exposed surface of a previous layer of nanocrystal shell, characterized in that the nanocrystal core is a nanocrystal alloy core comprising two or more nanocrystals including an alloy interlayer formed at an interface between the two or more nanocrystals; and the nanocrystal shells and the nanocrystal alloy core all have different band gaps, the outermost shell of the nanocrystal shells having a band gap larger than any one band gaps of the nanocrystal alloy core or of each of the inner shells, and the inner shell layers have a small energy band gap compared to the alloy core, wherein: the nanocrystal shells include one or more layers of nanocrystal shells sequentially grown on a surface of the nanocrystal alloy core, and the nanocrystal shells are selected from the group consisting of Group II-VI, Group III-V, Group IV, Group IV-VI compounds, and mixtures thereof; and the nanocrystal alloy core comprises two or more materials selected from the group consisting of Group II-VI alloys, Group III-V alloys, Group IV-VI alloys, Group IV alloys, and mixtures thereof. a nanocrystal core; and one or more layers of nanocrystal shells formed successively on the surface of the nanocrystal core such that a first layer of nanocrystal shell completely covers the exposed surface of the nanocrystal core, and each additional layer of nanocrystal shell completely covers an exposed surface of a previous layer of nanocrystal shell, the nanocrystal shells include one or more layers of nanocrystal shells sequentially grown on a surface of the nanocrystal alloy core, and the nanocrystal shells are selected from the group consisting of Group II-VI, Group III-V, Group IV, Group IV-VI compounds, and mixtures thereof; and the nanocrystal alloy core comprises two or more materials selected from the group consisting of Group II-VI alloys, Group III-V alloys, Group IV-VI alloys, Group IV alloys, and mixtures thereof.
A double-talk state detection method, comprising: calculating an energy ratio between a first energy of an error signal in each sub-band of M sub-bands and a second energy of a filtered signal in the same sub-band as the error signal, thereby obtaining M energy ratios; wherein the error signal is a difference between an input signal collected by a microphone and the filtered signal, the filtered signal is a signal obtained after performing filtering process on a reference signal, and M is a positive integer; performing a first smoothing processing on the M energy ratios to obtain M first energy smoothing ratios, and performing a second smoothing processing on the M first energy smoothing ratios to obtain M second energy smoothing ratios; performing double-talk state detection based on the M first energy smoothing ratios and the M second energy smoothing ratios to determine a state of the input signal; wherein said performing double-talk state detection based on the M first energy smoothing ratios and the M second energy smoothing ratios to determine a state of the input signal, comprises: predicting noise of the M second energy smoothing ratios according to the M second energy smoothing ratios; obtaining signal-to-noise ratios of the M energy ratios according to the M first energy smoothing ratios and the predicted noise of the M second energy smoothing ratios; performing double-talk state detection according to the signal-to-noise ratios of the M energy ratios and a preset threshold to determine the state of the input signal. calculating an energy ratio between a first energy of an error signal in each sub-band of M sub-bands and a second energy of a filtered signal in the same sub-band as the error signal, thereby obtaining M energy ratios; wherein the error signal is a difference between an input signal collected by a microphone and the filtered signal, the filtered signal is a signal obtained after performing filtering process on a reference signal, and M is a positive integer; performing a first smoothing processing on the M energy ratios to obtain M first energy smoothing ratios, and performing a second smoothing processing on the M first energy smoothing ratios to obtain M second energy smoothing ratios; performing double-talk state detection based on the M first energy smoothing ratios and the M second energy smoothing ratios to determine a state of the input signal; wherein said performing double-talk state detection based on the M first energy smoothing ratios and the M second energy smoothing ratios to determine a state of the input signal, comprises: predicting noise of the M second energy smoothing ratios according to the M second energy smoothing ratios; obtaining signal-to-noise ratios of the M energy ratios according to the M first energy smoothing ratios and the predicted noise of the M second energy smoothing ratios; performing double-talk state detection according to the signal-to-noise ratios of the M energy ratios and a preset threshold to determine the state of the input signal.
A vehicle power supply apparatus comprising: a main power storage device, a power feed line through which power is supplied to an inverter that drives a motor, a first voltage converter provided between said main battery and said power feed line and supplying DC voltage converted from voltage of said main battery to said power feed line, a plurality of subpower batteries (BB1, BB2) provided parallel to each other, and a second voltage converter provided between said plurality of subpower batteries (BB1, BB2) and said power feed line and supplying DC voltage converted from voltage of said subpower batteries (BB1, BB2) to said power feed line, said first voltage converter performing voltage conversion exclusively between said main battery and said power feed line, and said second voltage converter being provided to be shared among said plurality of subpower batteries (BB1, BB2), and being selectively connected to any one of said plurality of subpower batteries (BB1, BB2) to convert voltage. a main power storage device, a power feed line through which power is supplied to an inverter that drives a motor, a first voltage converter provided between said main battery and said power feed line and supplying DC voltage converted from voltage of said main battery to said power feed line, a plurality of subpower batteries (BB1, BB2) provided parallel to each other, and a second voltage converter provided between said plurality of subpower batteries (BB1, BB2) and said power feed line and supplying DC voltage converted from voltage of said subpower batteries (BB1, BB2) to said power feed line, said first voltage converter performing voltage conversion exclusively between said main battery and said power feed line, and said second voltage converter being provided to be shared among said plurality of subpower batteries (BB1, BB2), and being selectively connected to any one of said plurality of subpower batteries (BB1, BB2) to convert voltage.
A sliding door device for the lateral door opening of a passenger vehicle, at least comprising a door and a drive device (40; 40') for moving the door transversely to and along the longitudinal axis of the passenger vehicle, wherein the sliding door device is configured in such a way that the door, in the closed state, is aligned with the side wall of the passenger vehicle, whereas the door, in the opened state, rests outside against the side wall of the passenger vehicle, and the drive device (40; 40) is disposed below or above the door opening of the passenger vehicle and comprises a support to which a first slide is attached in a manner displaceable along the longitudinal axis of the support, wherein, due to this movement of the first slide, a displacement of a second slide relative to the support along the longitudinal axis of the support is caused via a transmission, and the door is attached to the second slide, and that the support is mounted in a displaceable manner, relative to the passenger vehicle, in a direction transverse to the longitudinal axis of the passenger vehicle, and the first slide is connected to a driver guided within a first guide track that is fixedly located on the passenger vehicle, characterized in that a second guide track, in which a guide member is guided that is connected to the door, is located on the side of the door opening opposite from the drive device (40; 40'), wherein the two slides (30, 31) are configured as two telescopic sliding rails, wherein the second sliding rail is movable within the first sliding rail and the two telescopic guide rails are synchronized so that the movement of the sliding rails is uniform.
A registration method for detecting the position and alignment of an object or body part in relation to an electromagnetic position detection system, wherein the method comprises the following steps: - arranging an electromagnetic reference sensor on the object or body part such that the reference sensor can be detected optically by the image sensor unit in such way that the relative position thereof in relation to the object's or body part's surface to be detected can be established from the optically captured information, - detecting the position of the reference sensor by means of the electromagnetic position detection system, - photogrammetrically capturing a surface of the object or body part and of the reference sensor by means of an optical, monofocal image sensor unit, - producing a surface model of the object or body part and of the reference sensor based on the photogrammetrically captured information, - determining the position of the reference sensor in the surface model, - correlating the surface model with a coordinate system of the electromagnetic position detection system on the basis of the determined position of the reference sensor in the surface model and on the basis of the position of the reference sensor detected by means of the electromagnetic position detection system. - arranging an electromagnetic reference sensor on the object or body part such that the reference sensor can be detected optically by the image sensor unit in such way that the relative position thereof in relation to the object's or body part's surface to be detected can be established from the optically captured information, - detecting the position of the reference sensor by means of the electromagnetic position detection system, - photogrammetrically capturing a surface of the object or body part and of the reference sensor by means of an optical, monofocal image sensor unit, - producing a surface model of the object or body part and of the reference sensor based on the photogrammetrically captured information, - determining the position of the reference sensor in the surface model, - correlating the surface model with a coordinate system of the electromagnetic position detection system on the basis of the determined position of the reference sensor in the surface model and on the basis of the position of the reference sensor detected by means of the electromagnetic position detection system.
A method for determining an analyte concentration in a sample using a biosensor system comprising a test strip and a measurement device, comprising: generating at least one output signal value responsive to an analyte concentration in the sample in the test strip; and determining the analyte concentration in the sample from the at least one output signal value and at least one index function via the measurement device, where the at least one index function was previously determined and is responsive to at least one error parameter selected from a plurality of possible error parameters, the selected error parameter accounting for the largest error in the at least one output signal, wherein the error parameter is a parameter that may be measured, calculated or determined through other means and causes errors in the analyte concentration analysis, wherein the error represents the difference between the analyte concentration and an analyte concentration value correlated with a reference correlation equation, wherein the reference correlation equation describes a function relating the output signals from the biosensor to reference analyte concentration values determined from a reference instrument, and where the at least one index function relating the at least one error parameter to a bias, wherein the bias is a slope deviation ΔS or a value of normalized slope deviation between the slope from the reference correlation equation and a hypothetical slope of a line for the output signal value that would provide an analyte concentration in the sample without bias. generating at least one output signal value responsive to an analyte concentration in the sample in the test strip; and determining the analyte concentration in the sample from the at least one output signal value and at least one index function via the measurement device, where the at least one index function was previously determined and is responsive to at least one error parameter selected from a plurality of possible error parameters, the selected error parameter accounting for the largest error in the at least one output signal, wherein the error parameter is a parameter that may be measured, calculated or determined through other means and causes errors in the analyte concentration analysis, wherein the error represents the difference between the analyte concentration and an analyte concentration value correlated with a reference correlation equation, wherein the reference correlation equation describes a function relating the output signals from the biosensor to reference analyte concentration values determined from a reference instrument, and where the at least one index function relating the at least one error parameter to a bias, wherein the bias is a slope deviation ΔS or a value of normalized slope deviation between the slope from the reference correlation equation and a hypothetical slope of a line for the output signal value that would provide an analyte concentration in the sample without bias.
Voltage converter for a switchgear assembly, comprising an active part having a transformer and a contact element for making electrical contact with the transformer, and a mechanical switching unit for electrically connecting and disconnecting the switchgear assembly and the active part, characterized in that the switching unit has an electrically conductive switching arm which is pivotable between two end positions and which, in a first of these end positions, bears in electrically conductive fashion against the contact element and, in the second end position, electrically disconnects the switching unit and the active part from one another.
A potting method for a lamp chain, wherein the method comprises the following steps: a) providing a mold having a potting groove; b) providing a fixing support which is fixedly kept in the potting groove; c) fixedly keeping a printed circuit board provided with a light emitting assembly in the fixed support; d) potting a potting material into the potting groove and curing the potting material; and e) removing the mold, characterized in that, in step a), the mold of the potting groove having a U-shape section contour is provided; and in step b) the fixing support consisting of multiple U-shape supports spaced apart is provided.
A closure for a container having a mouth surrounded by an external bead, which closure includes: an inner shell having an inner shell base wall with a central passage therein having an inner diameter, and an annular skirt extending from the inner shell base wall with external thread segments and a plurality of angularly spaced grip petals, and an outer shell having an outer shell base wall, an annular inner skirt extending axially from the outer shell base wall and through the central passage of the inner shell base wall and having an enlargement including an outer surface with an outer diameter greater than the inner diameter of the inner shell base wall central passage to retain the inner shell to the outer shell, and an annular outer skirt with internal thread segments for threaded engagement with said external thread segments on said inner shell such that an edge of said skirt on said outer shell engages said grip petals and hooks said grip petals over said external bead upon tightening of said outer shell over said inner shell.
A method of preparing logs for a log structure comprising: scanning a plurality of logs; comparing and assigning each scanned log to a virtual log, the virtual log being one of a plurality of virtual logs in a CAD model of the log structure; reviewing the CAD model by virtually replacing each of the virtual logs with the assigned scanned logs and determining whether differences between the virtual logs and the assigned logs are beyond a pre-determined parameter, wherein if the differences between the virtual logs and the assigned scanned logs are beyond the pre-determined parameter, then revising the CAD model to accommodate the assigned scanned logs and/or replacing one or more of the assigned scanned logs; generating a cutting profile for each assigned scanned logs; and cutting the assigned scanned logs in accordance with the generated cutting profiles. scanning a plurality of logs; comparing and assigning each scanned log to a virtual log, the virtual log being one of a plurality of virtual logs in a CAD model of the log structure; reviewing the CAD model by virtually replacing each of the virtual logs with the assigned scanned logs and determining whether differences between the virtual logs and the assigned logs are beyond a pre-determined parameter, wherein if the differences between the virtual logs and the assigned scanned logs are beyond the pre-determined parameter, then revising the CAD model to accommodate the assigned scanned logs and/or replacing one or more of the assigned scanned logs; generating a cutting profile for each assigned scanned logs; and cutting the assigned scanned logs in accordance with the generated cutting profiles.
An electronic signature token, comprising: a modulating module configured to modulate audio data to be transmitted into an analog waveform signal using at least two modulation modes to generate audio data frame streams in the at least two modulation modes; a splicing module configured to splice the audio data frame streams in the at least two modulation modes into an audio data stream; a transmitting module configured to transmit the audio data stream to a mobile terminal in one transmission via an audio interface of the electronic signature token. a modulating module configured to modulate audio data to be transmitted into an analog waveform signal using at least two modulation modes to generate audio data frame streams in the at least two modulation modes; a splicing module configured to splice the audio data frame streams in the at least two modulation modes into an audio data stream; a transmitting module configured to transmit the audio data stream to a mobile terminal in one transmission via an audio interface of the electronic signature token.