mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: receiving a plurality of images from a plurality of cameras, wherein the plurality of cameras comprise a first camera having a first orientation, a second camera having a second orientation, and a third camera having the first orientation, wherein the second camera is located between the first and third cameras, and wherein the plurality of images comprises a first image (I-L1) from the first camera, a second image (I-L2) from the second camera, and a third image (I-R1) from the third camera; detecting a plurality of feature points within the first (I-L1) and second images (I-L2); determining one or more pairs of corresponding feature points located within a region of overlap (210L 1-2) between the first (I-L1) and second images (I-L2), wherein the pairs of corresponding feature points comprise a respective one of the feature points from each of the first and second images (I-L1 and I-L2), and wherein the third image (I-R1) has a region corresponding to the region of overlap (210L 1-2) between the first and second images (I-L1 and I-L2); spatially adjusting the first or second image based on a calculated offset between each pair of corresponding feature points; comparing the first and second images (I-L1 and I-L2) with the third image (I-R1) having the region corresponding to the region of overlap (210L 1-2) between the first and second images (I-L1 and I-L2); and combining the first and second images into a merged image based on the spatial adjustment and the comparison with the third image (I-R1). receiving a plurality of images from a plurality of cameras, wherein the plurality of cameras comprise a first camera having a first orientation, a second camera having a second orientation, and a third camera having the first orientation, wherein the second camera is located between the first and third cameras, and wherein the plurality of images comprises a first image (I-L1) from the first camera, a second image (I-L2) from the second camera, and a third image (I-R1) from the third camera; detecting a plurality of feature points within the first (I-L1) and second images (I-L2); determining one or more pairs of corresponding feature points located within a region of overlap (210L 1-2) between the first (I-L1) and second images (I-L2), wherein the pairs of corresponding feature points comprise a respective one of the feature points from each of the first and second images (I-L1 and I-L2), and wherein the third image (I-R1) has a region corresponding to the region of overlap (210L 1-2) between the first and second images (I-L1 and I-L2); spatially adjusting the first or second image based on a calculated offset between each pair of corresponding feature points; comparing the first and second images (I-L1 and I-L2) with the third image (I-R1) having the region corresponding to the region of overlap (210L 1-2) between the first and second images (I-L1 and I-L2); and combining the first and second images into a merged image based on the spatial adjustment and the comparison with the third image (I-R1).
A gate driving circuit, a primary side and a secondary side thereof being insulated from each other by a pulse transformer; said primary side of said pulse transformer being grounded to a first ground potential point; said secondary side of said pulse transformer being grounded to a second ground potential point insulated from said first ground potential point; and a gate driving signal generated in a secondary winding of said secondary side of said pulse transformer being output through a differential receiver, said differential receiver having a first input and second input, and having an impedance matching resistor connected to said first input of said differential receiver, characterized in that the first input of the differential receiver being connected to a negative output terminal (Rx-) of said secondary winding and the second input of the differential receiver being connected to a positive output terminal (Rx+) of said secondary winding; the impedance matching resistor being connected between said negative output terminal (Rx-) of the secondary winding of said pulse transformer and said second ground potential point such that the secondary side is grounded to the secondary ground via the impedance matching resistor; the gate driving circuit further comprising: an electrostatic shield plate between a primary winding of said primary side of said pulse transformer and said secondary winding, said electrostatic shield plate being grounded to said second ground potential point. an electrostatic shield plate between a primary winding of said primary side of said pulse transformer and said secondary winding, said electrostatic shield plate being grounded to said second ground potential point.
A fiber-reinforced resin material used for molding a fiber-reinforced resin which comprises a matrix resin and reinforcing fiber bundles A comprising chopped fiber bundles each including 100 or more single fibers, characterized in that the product of an average porosity within fiber bundles P fav (-) represented by the following equation and an average fiber bundle thickness t fav (mm) represented by the following equation is 0 mm or more and 0.01 mm or less and a porosity of composite P c (-) represented by the following equation is 0.02 or more and 0.4 or less [Equation 1] P fav = 1 n ∑ i = 1 n p 2 i v f 2 i + v m 2 i + p 2 i [Equation 2] t fav = 1 n ∑ i = 1 n t fi [Equation 3] P c = ∑ j = 1 k p 1 j + ∑ i = 1 n p 2 i ∑ x = 1 l v f 1 x + ∑ i = 1 n v f 2 i + v m 2 i + p 2 i + v m 1 + ∑ j = 1 k p 1 j here, i = 1,2, ···n, j = 1,2, ···k, x = 1,2, ···l, which are integers, and n, k, l represent, respectively, the number of all fiber bundles A, the number of voids, and the number of fibers other than the fiber bundles A included in a photographed sectional view, wherein each parameter is: v f1: area occupied by fibers other than fiber bundles A (mm 2) v f2: area occupied by fibers in fiber bundles A (mm 2) v m1: resin layer area (mm 2) v m2: resin area in fiber bundles A (mm 2) p 1: area of voids present in resin layer (mm 2) p 2: area of voids present in fiber bundles A (mm 2) tε: thickness of fiber bundle A (mm), and each parameter is a value calculated from image analysis after binarization of a sectional view prepared by observing a section of a cut surface of the fiber-reinforced resin material in its thickness direction with an optical microscope, and photographing it at effective pixels of 1,600 × 1,200 and a photograph magnification of 300 times. v f1: area occupied by fibers other than fiber bundles A (mm 2) v f2: area occupied by fibers in fiber bundles A (mm 2) v m1: resin layer area (mm 2) v m2: resin area in fiber bundles A (mm 2) p 1: area of voids present in resin layer (mm 2) p 2: area of voids present in fiber bundles A (mm 2) tε: thickness of fiber bundle A (mm), and each parameter is a value calculated from image analysis after binarization of a sectional view prepared by observing a section of a cut surface of the fiber-reinforced resin material in its thickness direction with an optical microscope, and photographing it at effective pixels of 1,600 × 1,200 and a photograph magnification of 300 times.
An electronic device comprising: a housing having a hole formed therein; an audio device provided inside the housing and arranged to communicate with an outside of the electronic device through the hole; a gas sensor provided inside the housing and arranged to communicate with the outside through the hole; a proximity sensor provided inside the housing; a wireless communication module provided inside the housing; and a processor provided inside the housing and electrically connected to the audio device, the gas sensor, the proximity sensor, and the wireless communication module, wherein the processor is configured to: acquire data associated with a particular component of the air in contact with the gas sensor, recognize a user gesture of starting a proximity call by using the proximity sensor wherein during the proximity call the user talks into the electronic device while placing their ear in contact with or close to the device, and calculate air quality by analyzing at least one of data acquired by the gas sensor before the proximity call starting gesture is recognized and data acquired by the gas sensor after a gesture of ending the proximity call is recognized. a housing having a hole formed therein; an audio device provided inside the housing and arranged to communicate with an outside of the electronic device through the hole; a gas sensor provided inside the housing and arranged to communicate with the outside through the hole; a proximity sensor provided inside the housing; a wireless communication module provided inside the housing; and a processor provided inside the housing and electrically connected to the audio device, the gas sensor, the proximity sensor, and the wireless communication module, wherein the processor is configured to: acquire data associated with a particular component of the air in contact with the gas sensor, recognize a user gesture of starting a proximity call by using the proximity sensor wherein during the proximity call the user talks into the electronic device while placing their ear in contact with or close to the device, and calculate air quality by analyzing at least one of data acquired by the gas sensor before the proximity call starting gesture is recognized and data acquired by the gas sensor after a gesture of ending the proximity call is recognized. acquire data associated with a particular component of the air in contact with the gas sensor, recognize a user gesture of starting a proximity call by using the proximity sensor wherein during the proximity call the user talks into the electronic device while placing their ear in contact with or close to the device, and calculate air quality by analyzing at least one of data acquired by the gas sensor before the proximity call starting gesture is recognized and data acquired by the gas sensor after a gesture of ending the proximity call is recognized.
A mixing apparatus comprising: a first port for receiving milk; a second port for receiving steam; an air intake channel for receiving air; and a mixing chamber for mixing milk, steam and air to create frothed milk; wherein the mixing apparatus further comprises a barrier element at an output of the mixing chamber, characterized in that the barrier element is adjustable between at least first and second positions to define different degrees of frothing. a first port for receiving milk; a second port for receiving steam; an air intake channel for receiving air; and a mixing chamber for mixing milk, steam and air to create frothed milk; wherein the mixing apparatus further comprises a barrier element at an output of the mixing chamber, characterized in that the barrier element is adjustable between at least first and second positions to define different degrees of frothing.
A biosensor meter for determining an analyte concentration in a fluid, the biosensor meter comprising: a USB port comprising a first data signal port terminal; a detection circuit comprising a first input terminal coupled to the first data signal port terminal, and comprising an output terminal, wherein the detection circuit is adapted to provide at the output terminal a first output signal when a current sensed at the first input terminal is greater than or equal to a first predetermined amount, and a second output signal when the current sensed at the first input terminal is less than the first predetermined amount, characterized in that the biosensor meter is adapted to disable determination of the analyte concentration in the fluid when the detection circuit provides the first output signal at the output terminal, and wherein the biosensor meter disables determination of the analyte concentration in the fluid by providing a warning to not apply a fluid sample to the biosensor meter. a USB port comprising a first data signal port terminal; a detection circuit comprising a first input terminal coupled to the first data signal port terminal, and comprising an output terminal, wherein the detection circuit is adapted to provide at the output terminal a first output signal when a current sensed at the first input terminal is greater than or equal to a first predetermined amount, and a second output signal when the current sensed at the first input terminal is less than the first predetermined amount,
A film comprising an ethylene copolymer and at least one organic filler dispersed in the ethylene copolymer, said copolymer having a density less than 0.970 g/cm 3, as determined by ASTM D792, a melting point less than 137°C, as determined by ASTM D3418-03, and a melt index between 0.1 g/10min. to 5.0 g/10min., as determined by ASTM D1238: 1999 at 190 °C and 2.16 kg load; said organic filler when dispersed in the ethylene copolymer having a particle size d50 from 0.1 micron to 10 micron, and a particle size d90 of less than 5 times d50, wherein the organic filler is crosslinked acrylate beads and said film has a higher dart impact strength and similar MD Tear strength and ultimate tensile strength when compared to a film without the organic filler.
A laser tip-off system for a vacuum insulating glass unit, comprising: an oven; at least one laser source for melting a pump-out tube of the VIG unit; a vision system configured to provide positional data for facilitating the melting of the pump-out tube, characterized in that the system further comprising: a lighting system located remote from the oven; and a quartz rod configured to convey light from the lighting system to an area proximate the pump-out tube and through VIG unit so as to increase contrast in that area and facilitate location of the pump-out tube by the vision system. an oven; at least one laser source for melting a pump-out tube of the VIG unit; a vision system configured to provide positional data for facilitating the melting of the pump-out tube, characterized in that the system further comprising: a lighting system located remote from the oven; and a quartz rod configured to convey light from the lighting system to an area proximate the pump-out tube and through VIG unit so as to increase contrast in that area and facilitate location of the pump-out tube by the vision system.
A vehicle headlamp comprising a semiconductor-type light source and a lens, wherein: an emission center of the semiconductor-type light source is arranged at a reference focal point of the lens, or in the proximity of the reference focal point, at least a part of the lens is configured of an upper part and a lower part, which are in a vertically symmetrical relationship and form a pair with respect to the horizontal line passing through the reference optical axis, characterized in that light distribution patterns (SPA, SPB) formed by the upper part and the lower part respectively have in corresponding peripheral parts thereof different color bands (R, B) due to spectral phenomena of the lens, and the lens is configured to control light distribution in such a manner that the light distribution patterns (SPA, SPB) formed by the upper part and the lower part are shifted relative to each other in the vertical direction, such that the different color bands (R, B) in the corresponding peripheral parts substantially overlap. an emission center of the semiconductor-type light source is arranged at a reference focal point of the lens, or in the proximity of the reference focal point, at least a part of the lens is configured of an upper part and a lower part, which are in a vertically symmetrical relationship and form a pair with respect to the horizontal line passing through the reference optical axis, characterized in that light distribution patterns (SPA, SPB) formed by the upper part and the lower part respectively have in corresponding peripheral parts thereof different color bands (R, B) due to spectral phenomena of the lens, and the lens is configured to control light distribution in such a manner that the light distribution patterns (SPA, SPB) formed by the upper part and the lower part are shifted relative to each other in the vertical direction, such that the different color bands (R, B) in the corresponding peripheral parts substantially overlap.
A system for in-line treatment of thread for use with a thread consuming device, comprising: a treatment unit comprising at least one discharge device being configured to dispense one or more coating substances onto the at least one thread when activated, characterized in that it further comprises a drive unit being connected to the at least one discharge device by means of an actuator and a crank together forming a transmission mechanism, wherein the actuator comprises a connecting rod having a curved portion and a straight portion, and wherein the curved portion is configured to accommodate a rotational axis of the drive unit, wherein the drive unit is configured to: move said at least one discharge device between an idle position and an operational position being arranged along an axis of movement, and to move said at least one discharge device by means of the transmission mechanism providing different transmission ratios between the drive unit and the discharge device depending on the position of the discharge device along the axis of movement, wherein the transmission ratio is the correlation between rotational movement of the crank, or an electric motor of the drive unit, and the linear movement of the discharge device. a treatment unit comprising at least one discharge device being configured to dispense one or more coating substances onto the at least one thread when activated, characterized in that it further comprises a drive unit being connected to the at least one discharge device by means of an actuator and a crank together forming a transmission mechanism, wherein the actuator comprises a connecting rod having a curved portion and a straight portion, and wherein the curved portion is configured to accommodate a rotational axis of the drive unit, wherein the drive unit is configured to: move said at least one discharge device between an idle position and an operational position being arranged along an axis of movement, and to move said at least one discharge device by means of the transmission mechanism providing different transmission ratios between the drive unit and the discharge device depending on the position of the discharge device along the axis of movement, wherein the transmission ratio is the correlation between rotational movement of the crank, or an electric motor of the drive unit, and the linear movement of the discharge device.
An apparatus for particle therapy in a treatment room, comprising - an irradiation unit for emitting a particle beam, - a gantry comprising the irradiation unit, said gantry being rotatable around an axis, - a squirrel cage structure, located within and supported by said gantry so that it can rotate relative to said gantry around said axis, - a frame arranged so as to be motionless and preferably fixed to a wall of the treatment room, - a moving floor comprising a plurality of elongated members flexibly connected to each other and forming a primary caterpillar, - two moving floor guide units (301,302) having a truncated circle shape, facing each other, attached to said squirrel cage structure and the motionless frame respectively, and each of the two moving floor guide units (301,302) comprising at least a first rail, said first rail having a truncated circle shape, - said primary caterpillar being slidably arranged on said first rail, and wherein each moving floor guide unit further comprises at least a second rail having a truncated circle shape and the moving floor further comprises at least one secondary caterpillar comprising elongated members flexibly connected to each other by linking means, said secondary caterpillar being slidably arranged on said second rail and attached to the irradiation unit so that it can rotate with the irradiation unit. - an irradiation unit for emitting a particle beam, - a gantry comprising the irradiation unit, said gantry being rotatable around an axis, - a squirrel cage structure, located within and supported by said gantry so that it can rotate relative to said gantry around said axis, - a frame arranged so as to be motionless and preferably fixed to a wall of the treatment room, - a moving floor comprising a plurality of elongated members flexibly connected to each other and forming a primary caterpillar, - two moving floor guide units (301,302) having a truncated circle shape, facing each other, attached to said squirrel cage structure and the motionless frame respectively, and each of the two moving floor guide units (301,302) comprising at least a first rail, said first rail having a truncated circle shape, - said primary caterpillar being slidably arranged on said first rail,
An optical device, comprising: a first optical layer having a first dispersion response as a first function of wavelength; a second optical layer having a second dispersion response as a second function of wavelength different than the first function; and a separating layer between the first and second optical layers having a lower refractive index than the first optical layer and the second optical layer, a thickness of the separating layer selected such that the first and second dispersion responses combine to create an anomalous dispersion about a target wavelength, wherein the target wavelength comprises a wavelength between 250 and 500 nm, characterized in that the anomalous dispersion resulting in the optical device emitting a wideband coherent optical output about the target wavelength in response to an optical input at the target wavelength, wherein the first and second optical layers are configured such that anti-crossing behavior of the first and second dispersion curves results in a supermode of the optical device such that the anomalous dispersion about the target wavelength exceeds a normal material dispersion of the optical device about the target wavelength, wherein the first and second optical layers are formed from materials selected such that the first and second optical layers are phase matched at the target wavelength and phase mismatched away from the target wavelength. a first optical layer having a first dispersion response as a first function of wavelength; a second optical layer having a second dispersion response as a second function of wavelength different than the first function; and a separating layer between the first and second optical layers having a lower refractive index than the first optical layer and the second optical layer, a thickness of the separating layer selected such that the first and second dispersion responses combine to create an anomalous dispersion about a target wavelength, wherein the target wavelength comprises a wavelength between 250 and 500 nm, characterized in that the anomalous dispersion resulting in the optical device emitting a wideband coherent optical output about the target wavelength in response to an optical input at the target wavelength, wherein the first and second optical layers are configured such that anti-crossing behavior of the first and second dispersion curves results in a supermode of the optical device such that the anomalous dispersion about the target wavelength exceeds a normal material dispersion of the optical device about the target wavelength, wherein the first and second optical layers are formed from materials selected such that the first and second optical layers are phase matched at the target wavelength and phase mismatched away from the target wavelength.