mhurhangee/ep-ind-claims huggingface dataset:
A system comprising: an agricultural harvester including a crop processor for reducing crop material to processed crop, an unload conveyor for transferring a stream of processed crop out of the harvester, a first electromagnetic detecting and ranging module for detecting the location of a receiving vehicle relative to the agricultural harvester, and a second electromagnetic detecting and ranging module for detecting at least one of a fill level and a distribution of processed crop in a grain bin of the receiving vehicle; one or more computing devices for - receiving first data from the first electromagnetic detecting and ranging module, the first data indicating the location of the receiving vehicle relative to the agricultural harvester, receiving second data from the second electromagnetic detecting and ranging module, the second data indicating at least one of the fill level and the distribution of grain in the grain bin of the receiving vehicle; and an electronic device (78, 200) including a graphical user interface, the electronic device (78, 200) configured to use the graphic data to present the graphical representation on the graphical user interface; wherein the one or more computing devices are configured for using the first data and the second data to generate graphic data defining a graphical representation illustrating the relative positions of the unload conveyor and the grain bin and illustrating at least one of the fill level and the distribution of processed crop in the grain bin. an agricultural harvester including a crop processor for reducing crop material to processed crop, an unload conveyor for transferring a stream of processed crop out of the harvester, a first electromagnetic detecting and ranging module for detecting the location of a receiving vehicle relative to the agricultural harvester, and a second electromagnetic detecting and ranging module for detecting at least one of a fill level and a distribution of processed crop in a grain bin of the receiving vehicle; one or more computing devices for - receiving first data from the first electromagnetic detecting and ranging module, the first data indicating the location of the receiving vehicle relative to the agricultural harvester, receiving second data from the second electromagnetic detecting and ranging module, the second data indicating at least one of the fill level and the distribution of grain in the grain bin of the receiving vehicle; and an electronic device (78, 200) including a graphical user interface, the electronic device (78, 200) configured to use the graphic data to present the graphical representation on the graphical user interface; wherein the one or more computing devices are configured for using the first data and the second data to generate graphic data defining a graphical representation illustrating the relative positions of the unload conveyor and the grain bin and illustrating at least one of the fill level and the distribution of processed crop in the grain bin.
A method for detecting and quantifying fibrosis, wherein at least: - a non-coloured fixed tissue sample is positioned on a support; - an infrared acquisition is performed by scanning points of said sample; - the infrared spectrum rendered by each acquired point is converted into at least one spectral image; - a digital processing of said spectral image is performed by discriminating between at least the physiological collagen and the pathological collagen resulting from the fibrosis by assigning to each point a spectral class defined by an algorithm classifying the spectra according to their spectral similarities; - then, to each class is assigned a state by statistical comparison with a numerical model of spectra; - the relative area occupied by the points of each state is quantified and the result is recorded. - a non-coloured fixed tissue sample is positioned on a support; - an infrared acquisition is performed by scanning points of said sample; - the infrared spectrum rendered by each acquired point is converted into at least one spectral image; - a digital processing of said spectral image is performed by discriminating between at least the physiological collagen and the pathological collagen resulting from the fibrosis by assigning to each point a spectral class defined by an algorithm classifying the spectra according to their spectral similarities; - then, to each class is assigned a state by statistical comparison with a numerical model of spectra; - the relative area occupied by the points of each state is quantified and the result is recorded.
Method for measuring in real time the secretion of a compound C o by a target C i said method comprising: - the culture in a liquid medium, in a culture chamber, of a plurality of targets among which is found at least one target C i said culture chamber having: i) at least one 1 st surface on which said target C i is present, the presence of said target C i on said 1 st surface generating a 1 st signal, and ii) at least one 2 nd surface, different from said 1 st surface and non-coplanar with said 1 st surface, functionalized with at least one ligand specifically binding to said compound C o secreted by said target Q, the specific binding between said ligand and said compound C o generating a 2 nd signal distinct from said 1 st signal, and - the real time detection of said 2 nd signal and optionally the detection of said 1 st signal, a target being a secreting element comprising one or several, eukaryotic or prokaryotic type, identical or different cells. - the culture in a liquid medium, in a culture chamber, of a plurality of targets among which is found at least one target C i said culture chamber having: i) at least one 1 st surface on which said target C i is present, the presence of said target C i on said 1 st surface generating a 1 st signal, and ii) at least one 2 nd surface, different from said 1 st surface and non-coplanar with said 1 st surface, functionalized with at least one ligand specifically binding to said compound C o secreted by said target Q, the specific binding between said ligand and said compound C o generating a 2 nd signal distinct from said 1 st signal, and i) at least one 1 st surface on which said target C i is present, the presence of said target C i on said 1 st surface generating a 1 st signal, and ii) at least one 2 nd surface, different from said 1 st surface and non-coplanar with said 1 st surface, functionalized with at least one ligand specifically binding to said compound C o secreted by said target Q, the specific binding between said ligand and said compound C o generating a 2 nd signal distinct from said 1 st signal, and - the real time detection of said 2 nd signal and optionally the detection of said 1 st signal, a target being a secreting element comprising one or several, eukaryotic or prokaryotic type, identical or different cells.
A method of etching sacrificial material to form a transistor, comprising: supplying a semiconductor substrate in a reaction chamber, wherein said substrate includes a channel material, a sacrificial material disposed on at least a portion of said channel material, and a sacrificial gate electrode disposed over said sacrificial material and said channel material; etching said sacrificial gate electrode exposing a portion of said channel material and said sacrificial material; providing a vapor including an interhalogen compound or halogen-noble element compound in said reaction chamber; etching at least a portion of said sacrificial material with said vapor; and exposing at least a portion of said channel material from under said sacrificial material. supplying a semiconductor substrate in a reaction chamber, wherein said substrate includes a channel material, a sacrificial material disposed on at least a portion of said channel material, and a sacrificial gate electrode disposed over said sacrificial material and said channel material; etching said sacrificial gate electrode exposing a portion of said channel material and said sacrificial material; providing a vapor including an interhalogen compound or halogen-noble element compound in said reaction chamber; etching at least a portion of said sacrificial material with said vapor; and exposing at least a portion of said channel material from under said sacrificial material.
A tablet formulation comprising; - enalapril maleate - lercanidipine hydrochloride - at least one buffering agent wherein further comprising at least two fillers and wherein said tablet formulation further comprises colloidal silicon dioxide as a glidant; wherein the total amount of enalapril maleate in the tablet is between 3.0% and 15.0% by weight, the total amount of lercanidipine hydrochloride in the tablet is between 1.0% and 8.0% by weight. - enalapril maleate - lercanidipine hydrochloride - at least one buffering agent
Correction device for modifying the data of a plurality N of time-related functions displayed by a timepiece including a timepiece movement, characterized in that the device includes a pusher for changing function, whose actuation moves a control wheel and meshes said wheel with a corrector pinion (3, 4, 5, 6) for the selected function, and a stem covered with a crown whose rotation in one direction or the other pivots said control wheel, which in turn drives one of said corrector pinions (3, 4, 5, 6) to correct the data of said selected function by adding or subtracting and characterized in that the pusher and the stem are arranged along two separate and distinct radii of the timepiece movement.
An active-matrix substrate comprising: a base substrate, a plurality of gate lines located on the base substrate and arranged in parallel, a first insulating layer that covers the gate lines, a plurality of data lines located on the first insulating layer and perpendicular to the gate lines, a second insulating layer that covers the data lines, and pixel electrodes located in sub-pixel areas enclosed by the data lines and the gate lines; wherein either the substrate further comprises: polarizing films that cover the pixel electrodes, projections of the polarizing films corresponding to the pixel electrodes; and first auxiliary gate lines arranged on the second insulating layer and parallel to the gate lines, projections of the first auxiliary gate lines corresponding to the gate lines, at least two portions on each of the first auxiliary gate lines are electrically connected with at least two corresponding portions on the gate line through via holes that penetrate the first insulating layer and the second insulating layer; wherein the first auxiliary gate lines and the polarizing films have been formed by performing a same patterning process to a same layer of transparent conductive material; or, the substrate further comprises: polarizing films that cover the pixel electrodes, projections of the polarizing films corresponding to the pixel electrodes; and first auxiliary data lines arranged on the second insulating layer and parallel to the data lines, projections of the first auxiliary data lines corresponding to the data lines, at least two portions on each of the first auxiliary data lines are electrically connected with at least two corresponding portions on the data line through via holes that penetrate the second insulating layer; wherein the first auxiliary data lines and the polarizing films have been formed by performing a same patterning process to a same layer of transparent conductive material.
A method for measuring an observed time difference of arrival, OTDOA, the method performed by a user equipment and comprising: acquiring neighbor cell information on a bandwidth for a positioning reference signal, PRS, of a neighbor cell and reference cell information on a bandwidth for a PRS of a reference cell; receiving the PRS of the neighbor cell and the PRS of the reference cell based on the neighbor cell information and the reference cell information; and measuring a reference signal time difference, RSTD, based on the reference cell, using the PRSs of the neighbor and reference cells, and the method characterized in that: the RSTD is measured based on a minimum PRS bandwidth which is the smallest one among a bandwidth of a serving cell, the bandwidth for the PRS of the reference cell and the bandwidth for the PRS of the neighbor cell. acquiring neighbor cell information on a bandwidth for a positioning reference signal, PRS, of a neighbor cell and reference cell information on a bandwidth for a PRS of a reference cell; receiving the PRS of the neighbor cell and the PRS of the reference cell based on the neighbor cell information and the reference cell information; and measuring a reference signal time difference, RSTD, based on the reference cell, using the PRSs of the neighbor and reference cells, and the RSTD is measured based on a minimum PRS bandwidth which is the smallest one among a bandwidth of a serving cell, the bandwidth for the PRS of the reference cell and the bandwidth for the PRS of the neighbor cell.
An imaging system detector array, comprising: a detector tile, including: a photosensor array, including a plurality of photosensor pixels a scintillator array optically coupled to the photosensor array; and an ASIC electronics layer electrically coupled to the photosensor array, the electronics layer, including: a plurality of individual processing regions, characterised by each processing region including a predetermined number of channels corresponding to a sub-set of the plurality of photosensor pixels, wherein the processing regions are in electrical communication with each other, and each processing region includes its own electrical reference and bias circuitry (802, 804). a detector tile, including: a photosensor array, including a plurality of photosensor pixels a scintillator array optically coupled to the photosensor array; and an ASIC electronics layer electrically coupled to the photosensor array, the electronics layer, including: a plurality of individual processing regions, characterised by each processing region including a predetermined number of channels corresponding to a sub-set of the plurality of photosensor pixels, wherein the processing regions are in electrical communication with each other, and each processing region includes its own electrical reference and bias circuitry (802, 804). a photosensor array, including a plurality of photosensor pixels a scintillator array optically coupled to the photosensor array; and an ASIC electronics layer electrically coupled to the photosensor array, the electronics layer, including: a plurality of individual processing regions, characterised by each processing region including a predetermined number of channels corresponding to a sub-set of the plurality of photosensor pixels, wherein the processing regions are in electrical communication with each other, and each processing region includes its own electrical reference and bias circuitry (802, 804).
A cantilevered mounting device for an onboard carriage using a carrier vehicle such as a truck, of the type including a first stationary part secured to the carrier vehicle, said first stationary part having two fork insertion locations at the rear of said carrier vehicle, characterized in that the device includes a second part articulated to said first stationary part and movable by an actuator between a freed position and a supporting position of the onboard carriage during transport, and in that the second movable part articulated to said first stationary part has two lateral ends movable toward the rear and simultaneously allowing the passage of the arms and the wheels of the onboard carriage and the support of the chassis of the onboard carriage.
An optical arrangement comprising: at least two optical input/output ports for receiving an optical beam; a dispersion element receiving the optical beam and spatially separating the optical beam into a plurality of wavelength components; a collimating optical element for collimating the plurality of wavelength components; an actuatable optical element for receiving the optical beam having a plurality of spatially separated wavelength components and diffracting the plurality of wavelength components in a wavelength dependent manner; and a compensating optical element located in an optical path between the dispersion element and the actuatable optical element, said compensating optical element being a prism configured to adjust an optical path length experienced by the wavelength components between the collimating optical element and the actuatable optical element so that the wavelength components are focused on the actuatable optical element; characterised in that said compensating optical element has at least one refractive surface configured to compensate for the wavelength dependent manner in which the wavelength components are diffracted by the actuatable optical element so that longer wavelength components are refracted by the at least one surface at a greater angle of refraction than shorter wavelength components. at least two optical input/output ports for receiving an optical beam; a dispersion element receiving the optical beam and spatially separating the optical beam into a plurality of wavelength components; a collimating optical element for collimating the plurality of wavelength components; an actuatable optical element for receiving the optical beam having a plurality of spatially separated wavelength components and diffracting the plurality of wavelength components in a wavelength dependent manner; and a compensating optical element located in an optical path between the dispersion element and the actuatable optical element, said compensating optical element being a prism configured to adjust an optical path length experienced by the wavelength components between the collimating optical element and the actuatable optical element so that the wavelength components are focused on the actuatable optical element;
Reactor suitable for continuous preparation of hydrogen sulphide by exothermic reaction of sulphur and hydrogen to form a final product gas mixture P final comprising hydrogen sulphide and sulphur at elevated temperature and elevated pressure relative to standard conditions, said reactor comprising - a lower reactor region suitable for accommodating a sulphur melt, and - a gas collecting region suitable for accommodating the product gas mixture P final at elevated temperature and elevated pressure relative to standard conditions, characterized in that the reactor comprises at least two non-pressure-bearing first caverns and at least one supply device (5, 5a) suitable for controlled supply of pressurized gaseous hydrogen per first cavern, said caverns being suitable for at least temporary accommodation of a product gas mixture P 1 which forms in exothermic reaction and comprises hydrogen sulphide, sulphur and hydrogen, and that the reactor additionally comprises one or more non-pressure-bearing second cavern(s) which are arranged above the first cavern(s) and are suitable for at least temporary accommodation of the product gas mixture P 1 formed in the first cavern(s) and for formation of further hydrogen sulphide by exothermic reaction of sulphur and hydrogen to form a product gas mixture P 2. - a lower reactor region suitable for accommodating a sulphur melt, and - a gas collecting region suitable for accommodating the product gas mixture P final at elevated temperature and elevated pressure relative to standard conditions,
A series of spectacle lenses, each lens having a spherical front surface and an aspheric, atoric or freeform back surface; wherein each lens of the series provides a focal power P x between -6 D and +4 D; and wherein at least one lens of the series provides a focal power P x between at least one of (a) -0.75 D and +2.25 D and (b) -0.5 D and +2.00 D; wherein, for an upper range of focal powers, lenses having same nominal front surface power are provided, wherein the nominal front surface power corresponds to a radius of curvature of the front surface; and wherein, for a lower range of focal powers, lenses having same minimum nominal back surface power are provided, wherein the minimum nominal back surface power corresponds to a minimum absolute value of a radius of curvature of the back surface; the spherical front surface having a nominal front surface power P f and the back surface having a minimum nominal back surface power P b; wherein 15.5 D ≤ |P f | + |P b | + |P x | ≤ 31.5 D applies for each spectacle lens of the series.
Method for identifying and separating plastics material particles having at least two light sources (6, 7) for producing fluorescent light and for irradiating the plastics material particles, wherein the at least two light sources have different emission spectrums, an optical recognition system comprising at least one optical spectrometer onto which the fluorescent light emitted by the plastics material particles is directed and at least one additional spectrometer which detects the transmitted and/or reflected light from the plastics material particles, an analysis system for evaluating spectrums, wherein the analysis system by means of spectral analysis using the light absorbed by the spectrometers calculates the type of the respective plastics material, the colour and impurities of the plastics material particles, a separation unit having an inclined plane for conveying and separating the plastics material particles, wherein the plastics material particles during their path on the inclined plane are classified by the optical recognition system in accordance with the signals of the at least two optical spectrometers and are separated into at least two material fractions in accordance with the classification, wherein the inclined plane has channel grooves, wherein at least one nozzle is arranged in each channel groove, wherein the surface-area of the nozzle in the channel groove and the surface-area of the smallest plastics material particle which is intended to be sorted are adapted to each other in such a manner that the surface-area of the nozzle is no greater than the surface-area of the smallest material particle which is intended to be sorted.
A thermosensitive adhesive composition comprising: a Thermosensitive plastic resin; a dispersing agent; a solid plasticizing agent; and a eutectic agent represented by the following chemical structure: wherein X 1 and X 2 independently represent any one of a hydrogen atom, a halogen atom and an alkyl group, p and q independently represent an integer of from 1 to 5, wherein the content of the solid plasticizing agent is 25 to 80 weight % based on the solid portion of the thermosensitive adhesive composition, characterized in that the dispersing agent is a polyvinyl alcohol resin comprising a sulphonic acid group. a Thermosensitive plastic resin; a dispersing agent; a solid plasticizing agent; and a eutectic agent represented by the following chemical structure: wherein X 1 and X 2 independently represent any one of a hydrogen atom, a halogen atom and an alkyl group, p and q independently represent an integer of from 1 to 5, wherein the content of the solid plasticizing agent is 25 to 80 weight % based on the solid portion of the thermosensitive adhesive composition, characterized in that the dispersing agent is a polyvinyl alcohol resin comprising a sulphonic acid group.