mhurhangee/ep-ind-claims huggingface dataset:
A multi-wavelength source, comprising: a substrate including a first area for receiving a chip and a second area elevated relative to the first area, the second area separated from the first area by a trench having a bottom at a lower elevation within the substrate than the first area, the substrate including a third area next to the second area, the third area having a lower elevation within the substrate than the second area; a laser array chip disposed in the first area, the laser array chip having optical outputs facing toward the second area, wherein the laser array chip is configured to output multiple wavelengths of continuous wave laser light; a planar lightwave circuit disposed in the second area, the planar lightwave circuit having optical inputs facing toward and aligned with respective optical outputs of the laser array chip, the planar lightwave circuit having optical outputs facing toward the third area; and an optical fiber alignment device disposed in the third area, the optical fiber alignment device configured to receive a number of optical fibers such that optical cores of the number of optical fibers respectively align with the optical outputs of the planar lightwave circuit. a substrate including a first area for receiving a chip and a second area elevated relative to the first area, the second area separated from the first area by a trench having a bottom at a lower elevation within the substrate than the first area, the substrate including a third area next to the second area, the third area having a lower elevation within the substrate than the second area; a laser array chip disposed in the first area, the laser array chip having optical outputs facing toward the second area, wherein the laser array chip is configured to output multiple wavelengths of continuous wave laser light; a planar lightwave circuit disposed in the second area, the planar lightwave circuit having optical inputs facing toward and aligned with respective optical outputs of the laser array chip, the planar lightwave circuit having optical outputs facing toward the third area; and an optical fiber alignment device disposed in the third area, the optical fiber alignment device configured to receive a number of optical fibers such that optical cores of the number of optical fibers respectively align with the optical outputs of the planar lightwave circuit.
A system configured to analyze audio information, the system comprising: one or more processors configured to execute computer program modules, the computer program modules comprising: an audio information module configured to obtain transformed audio information representing one or more sounds, wherein the transformed audio information specifies magnitude of a coefficient related to energy amplitude as a function of frequency for an audio signal within a time sample window; and a tone likelihood module configured to determine, from the obtained transformed audio information, a tone likelihood metric as a function of frequency for the audio signal within the time sample window, the tone likelihood module being further characterized in that the tone likelihood metric for a given frequency is based on a dot product between (i) a peak function having a function width centered on the given frequency and (ii) the transformed audio information over the function width centered on the given frequency and indicates the likelihood that a sound represented by the audio signal has a tone at the given frequency during the time sample window. one or more processors configured to execute computer program modules, the computer program modules comprising: an audio information module configured to obtain transformed audio information representing one or more sounds, wherein the transformed audio information specifies magnitude of a coefficient related to energy amplitude as a function of frequency for an audio signal within a time sample window; and a tone likelihood module configured to determine, from the obtained transformed audio information, a tone likelihood metric as a function of frequency for the audio signal within the time sample window, the tone likelihood module being further characterized in that the tone likelihood metric for a given frequency is based on a dot product between (i) a peak function having a function width centered on the given frequency and (ii) the transformed audio information over the function width centered on the given frequency and indicates the likelihood that a sound represented by the audio signal has a tone at the given frequency during the time sample window. an audio information module configured to obtain transformed audio information representing one or more sounds, wherein the transformed audio information specifies magnitude of a coefficient related to energy amplitude as a function of frequency for an audio signal within a time sample window; and a tone likelihood module configured to determine, from the obtained transformed audio information, a tone likelihood metric as a function of frequency for the audio signal within the time sample window, the tone likelihood module being further characterized in that the tone likelihood metric for a given frequency is based on a dot product between (i) a peak function having a function width centered on the given frequency and (ii) the transformed audio information over the function width centered on the given frequency and indicates the likelihood that a sound represented by the audio signal has a tone at the given frequency during the time sample window.
High strength austenitic steel having remarkable toughness in a welding heat-affected zone, consisting of 0.8-1.5 wt% of C, 15-22 wt% of Mn, 5 wt% or less of Cr, except 0, and the balance of Fe and inevitable impurities, and further comprising at least one of (a) and (b), and optionally including 2 wt % or less of Cu, wherein the steel is a hot-rolled and welded steel, wherein the microstructure of a welding heat-affected zone comprises 90% or more of austenite and 10% or less of carbide by volume fraction, wherein the welding heat-affected zone has 50 J or more of a Charpy impact value at -40°C, and the steel has 450 MPa or more of yield strength: (a) both Mo: 0.1-1 wt% and B: 0.001-0.02 wt% (b) both Ti: 0.01-0.3 wt% and N: 0.003-0.1 wt%. (a) both Mo: 0.1-1 wt% and B: 0.001-0.02 wt% (b) both Ti: 0.01-0.3 wt% and N: 0.003-0.1 wt%.
Method for slowing down a vehicle, in particular a motor vehicle, having a service brake device, which is subject to wear, and at least one continuous service brake device, wherein a desired movement variable of the vehicle is compared with an actual movement variable of the vehicle and wherein a movement variable disparity between the actual movement variable and the desired movement variable requiring a decrease in a longitudinal acceleration of the vehicle to reach the desired movement variable causes the continuous service brake device to be activated so as to decrease the longitudinal acceleration of the vehicle, wherein an operating variable of the service brake device is captured and wherein the operating variable and the movement variable disparity (ΔBW) between the actual movement variable and desired movement variable are taken as a basis, in the event of a movement variable disparity (ΔBW) between the actual movement variable and the desired movement variable requiring a decrease in the longitudinal acceleration of the vehicle to reach the desired movement variable, for the service brake device to be additionally activated so as to decrease the longitudinal acceleration of the vehicle, characterized in that a captured operating variable below a set operating variable and a movement variable disparity (ΔBW) above a first set movement variable disparity (ΔBWS1) cause the service brake device to be activated, and a captured operating variable above the set operating variable and a movement variable disparity (ΔBW) above a second set movement variable disparity (ΔBWS2), wherein the second set movement variable disparity (ΔBWS2) is greater than the first set movement variable disparity (ΔBWS1), cause the service brake device to be activated.
Method for distance error correction applied to an uncorrected distance measured between a primary sensor unit, in particular embodied as a tachymeter, and a reflector, in particular embodied as a 360° prism, in a primary sensor unit coordinate system using measurement light emitted by the primary sensor unit towards the reflector, the measurement light traveling along a line of sight to the reflector, wherein the method comprises: • providing an orientation and position of a reflector coordinate system with respect to the primary sensor unit coordinate system, and providing a coordinate transform between the reflector coordinate system and the primary sensor unit coordinate system, and • providing at least one angle of incidence of the measurement light used for obtaining the uncorrected distance in the reflector coordinate system, the at least one angle of incidence being determined based on the line of sight between the primary sensor unit and the reflector and on the reflector coordinate system, characterized by • determining a distance error in the reflector coordinate system using a calibrated distance error function with at least the at least one angle of incidence being provided as input to the calibrated distance error function, • determining a distance error in the primary sensor unit coordinate system using the coordinate transform and the distance error in the reflector coordinate system, and • correcting the uncorrected distance between the primary sensor unit and the reflector using the distance error in the primary sensor unit coordinate system. • providing an orientation and position of a reflector coordinate system with respect to the primary sensor unit coordinate system, and providing a coordinate transform between the reflector coordinate system and the primary sensor unit coordinate system, and • providing at least one angle of incidence of the measurement light used for obtaining the uncorrected distance in the reflector coordinate system, the at least one angle of incidence being determined based on the line of sight between the primary sensor unit and the reflector and on the reflector coordinate system, • determining a distance error in the reflector coordinate system using a calibrated distance error function with at least the at least one angle of incidence being provided as input to the calibrated distance error function, • determining a distance error in the primary sensor unit coordinate system using the coordinate transform and the distance error in the reflector coordinate system, and • correcting the uncorrected distance between the primary sensor unit and the reflector using the distance error in the primary sensor unit coordinate system.
A housing for a camera comprising: a housing body, the housing body comprising a top wall, a left wall, a right wall, and a bottom wall of substantially equal length and configured to secure a camera with a substantially square cross section in a plurality of orientations relative to the housing body, wherein the housing body comprises a top opening in the top wall, a left opening in the left wall, and a right opening in the right wall, the top opening configured to accommodate a camera button when the camera is oriented in a first orientation relative to the housing body, the left opening configured to accommodate the camera button when the camera is oriented in a second orientation relative to the housing body, and the right opening configured to accommodate the camera button when the camera is oriented in a third orientation relative to the housing body; a latching mechanism configured to allow for the insertion or removal of a camera in an open position and to secure the camera within the housing in a closed position; and a mounting mechanism on the bottom wall of the housing body configured to secure the housing to a reciprocal mounting mechanism. a housing body, the housing body comprising a top wall, a left wall, a right wall, and a bottom wall of substantially equal length and configured to secure a camera with a substantially square cross section in a plurality of orientations relative to the housing body, wherein the housing body comprises a top opening in the top wall, a left opening in the left wall, and a right opening in the right wall, the top opening configured to accommodate a camera button when the camera is oriented in a first orientation relative to the housing body, the left opening configured to accommodate the camera button when the camera is oriented in a second orientation relative to the housing body, and the right opening configured to accommodate the camera button when the camera is oriented in a third orientation relative to the housing body; a latching mechanism configured to allow for the insertion or removal of a camera in an open position and to secure the camera within the housing in a closed position; and a mounting mechanism on the bottom wall of the housing body configured to secure the housing to a reciprocal mounting mechanism.
An enzyme-containing gel composition comprising at least one proteolytic enzyme obtained from Antarctic krill, at least one gelling agent and at least one diluent comprising a polyol for use as a medicament, wherein the enzymatic concentration of the enzyme is from 0.01 U/ml to 10 U/ml, where one unit of activity causes the liberation of 1 μmole of tyrosine from a tyrosine standard, per minute at 35°C, wherein said polyol is selected from the group consisting of propylene glycol, ethylene glycol, butylene glycol, glycerol and mixtures thereof, wherein said gelling agent is selected from the group consisting of glyceryl polymethacrylate, glyceryl acrylate and a glyceryl acrylic acid copolymer, wherein said diluent comprises up to 5% by weight water.
A method of dynamical adjustment for manufacturing a thermally treated steel sheet having a chemical steel composition and a microstructure m target comprising from 0 to 100% of at least one phase chosen among: ferrite, martensite, bainite, pearlite, cementite and austenite, in a heat treatment line wherein a predefined thermal treatment TT is performed on the steel sheet, such method comprising: A. a control step wherein at least one sensor detects any deviation happening during the thermal treatment, B. a calculation step performed when a deviation is detected during the thermal treatment such that a new thermal path TP target is determined to reach m target taking the deviation into account, such calculation step comprising: 1) a calculation sub step wherein at least two thermal path, TP x corresponding to one microstructure m x obtained at the end of TP x, are calculated based on TT and the microstructure m i of the steel sheet to reach m target, 2) a selection sub step wherein one new thermal path TPtarget to reach m target is selected, TP target being chosen from TPx and being selected such that m x is the closest to m target, C. a new thermal treatment step wherein TPtarget is performed online on the steel sheet. A. a control step wherein at least one sensor detects any deviation happening during the thermal treatment, B. a calculation step performed when a deviation is detected during the thermal treatment such that a new thermal path TP target is determined to reach m target taking the deviation into account, such calculation step comprising: 1) a calculation sub step wherein at least two thermal path, TP x corresponding to one microstructure m x obtained at the end of TP x, are calculated based on TT and the microstructure m i of the steel sheet to reach m target, 2) a selection sub step wherein one new thermal path TPtarget to reach m target is selected, TP target being chosen from TPx and being selected such that m x is the closest to m target, 1) a calculation sub step wherein at least two thermal path, TP x corresponding to one microstructure m x obtained at the end of TP x, are calculated based on TT and the microstructure m i of the steel sheet to reach m target, 2) a selection sub step wherein one new thermal path TPtarget to reach m target is selected, TP target being chosen from TPx and being selected such that m x is the closest to m target, C. a new thermal treatment step wherein TPtarget is performed online on the steel sheet.
An apparatus (100; 200; 300; 400) for the removal of tissue comprising: a first jaw member including first and second elongated spaced apart members and a shelf disposed therebetween; and a second semi-arcuate jaw member pivotably connected between the first and second elongated members of the first jaw member, the distal end of the second jaw member being in a spaced apart relationship with the first jaw member in an open position and extending into a channel defined by the distal ends of the first and second elongated members in a closed position, wherein: in the closed position a gap is formed between the first and second jaw members suitable for retaining the stem of a polyp; and the second jaw member is configured to operably engage the shelf when the first and second jaw members are in a closed position. a first jaw member including first and second elongated spaced apart members and a shelf disposed therebetween; and a second semi-arcuate jaw member pivotably connected between the first and second elongated members of the first jaw member, the distal end of the second jaw member being in a spaced apart relationship with the first jaw member in an open position and extending into a channel defined by the distal ends of the first and second elongated members in a closed position, wherein: in the closed position a gap is formed between the first and second jaw members suitable for retaining the stem of a polyp; and the second jaw member is configured to operably engage the shelf when the first and second jaw members are in a closed position. in the closed position a gap is formed between the first and second jaw members suitable for retaining the stem of a polyp; and the second jaw member is configured to operably engage the shelf when the first and second jaw members are in a closed position.
A fly ring adapted to be used in a rotary drum filtering apparatus, the fly ring comprising a plurality of ring segments, each ring segment being laser cut, and having a first end which overlaps a second end of an adjacent ring segment, and forming a lapped joint, each ring segment first and second end having at least two spaced apart through-holes (120, 124), the through-holes (120, 124) of the first end being aligned with the through-holes (120, 124) of the second end, and a custom fastener extending through the first end and second end aligned through-holes (120, 124), the custom fastener comprising a bolt with a head on one side of the lapped joint, and a washer and a nut on the other side of the lapped joint.
Use of an elastomer sleeve for mounting a line against or in an opening, wherein the elastomer sleeve is i) inserted into the opening, ii) pressed radially outwards against a reveal delimiting the opening, relative to a centre axis of the opening, by expanding a clamping ring arranged in the elastomer sleeve, and iii) sealed against the line routed against the opening or through the opening, characterised in that the line is mounted against or in the opening by means of a supporting element which is provided in a material that is more rigid in comparison to the elastomer sleeve, wherein the mounted line rests on the supporting element such that it is radially supported. i) inserted into the opening, ii) pressed radially outwards against a reveal delimiting the opening, relative to a centre axis of the opening, by expanding a clamping ring arranged in the elastomer sleeve, and iii) sealed against the line routed against the opening or through the opening,
A breathable geosynthetic clay liner, which comprises an upper breathable layer, a lower breathable layer, and a breathable and impermeable sand layer sandwiched between the upper breathable layer and the lower breathable layer; the breathable and impermeable sand layer comprises a breathable and impermeable particle and an expansive particle, and the expansive particle is added in an amount of 0.1% to 1000% of the mass of the breathable and impermeable particle; characterized in that the expansive particle is a mixture of bentonite and clay, and the mass ratio of the bentonite to the clay is 1:0.1-200; the breathable and impermeable particle comprises an aggregate and a hydrophobic film covering the aggregate; and the aggregate is medical stone, volcanic rock and kaolin in a mass ratio of 1:5-20:5-20. an upper breathable layer, a lower breathable layer, and a breathable and impermeable sand layer sandwiched between the upper breathable layer and the lower breathable layer; the breathable and impermeable sand layer comprises a breathable and impermeable particle and an expansive particle, and the expansive particle is added in an amount of 0.1% to 1000% of the mass of the breathable and impermeable particle; characterized in that the expansive particle is a mixture of bentonite and clay, and the mass ratio of the bentonite to the clay is 1:0.1-200; the breathable and impermeable particle comprises an aggregate and a hydrophobic film covering the aggregate; and the aggregate is medical stone, volcanic rock and kaolin in a mass ratio of 1:5-20:5-20.
Bandwidth extension decoder (500, 600) for providing a bandwidth extended audio signal based on an input audio signal and a parameter signal, wherein the parameter signal comprises an indication of an offset frequency and an indication of a power density parameter, the bandwidth extension decoder comprising: a patch generator configured to generate a bandwidth extension high-frequency signal comprising a high-frequency band, wherein the high-frequency band of the bandwidth extension high-frequency signal is generated by performing a frequency shift of a frequency band of the input audio signal to higher frequencies, wherein the frequency shift is based on the offset frequency, and wherein the patch generator is configured to amplify or attenuate the high-frequency band of the bandwidth extension high-frequency signal by a factor equal to the value of the power density parameter or equal to the reciprocal value of the power density parameter, respectively; a combiner configured to combine the bandwidth extension high-frequency signal and the input audio signal to obtain the bandwidth extended audio signal; and an output interface configured to provide the bandwidth extended audio signal, wherein the indication of the offset frequency is the offset frequency itself, a quantized offset frequency or another quantity based on the offset frequency. a patch generator configured to generate a bandwidth extension high-frequency signal comprising a high-frequency band, wherein the high-frequency band of the bandwidth extension high-frequency signal is generated by performing a frequency shift of a frequency band of the input audio signal to higher frequencies, wherein the frequency shift is based on the offset frequency, and wherein the patch generator is configured to amplify or attenuate the high-frequency band of the bandwidth extension high-frequency signal by a factor equal to the value of the power density parameter or equal to the reciprocal value of the power density parameter, respectively; a combiner configured to combine the bandwidth extension high-frequency signal and the input audio signal to obtain the bandwidth extended audio signal; and an output interface configured to provide the bandwidth extended audio signal, wherein the indication of the offset frequency is the offset frequency itself, a quantized offset frequency or another quantity based on the offset frequency.