mhurhangee/ep-ind-claims huggingface dataset:
A picture decoding device that is configured to decode a bitstream in which differential information between a picture that is a decoding target and a picture that is a prediction target is partitioned into a plurality of sub blocks, and the partitioned sub blocks are coded in a predetermined sequence, the picture decoding device comprising: a significant sub block information decoder that decodes significant sub block information that represents whether or not all the values of differential coefficients belonging to the sub block are zero; a significant differential coefficient information decoder that is configured to decode significant differential coefficient information that represents whether or not the value of the differential coefficient is zero; a differential coefficient value decoder that is configured to decode the value of the differential coefficient; and a context deriver that is configured to derive a context index having a value from 0 to 2 used for decoding the significant differential coefficient information of a target differential coefficient that is a decoding target based on a neighboring significant index and position of the target differential coefficient in the target sub block, wherein the neighboring significant index is a sum of the significant sub block information of a decoded sub block adjacent to the right side of a target sub block and the significant sub block information multiplied by 2 of a decoded sub block adjacent to the lower side of the target sub block. a significant sub block information decoder that decodes significant sub block information that represents whether or not all the values of differential coefficients belonging to the sub block are zero; a significant differential coefficient information decoder that is configured to decode significant differential coefficient information that represents whether or not the value of the differential coefficient is zero; a differential coefficient value decoder that is configured to decode the value of the differential coefficient; and a context deriver that is configured to derive a context index having a value from 0 to 2 used for decoding the significant differential coefficient information of a target differential coefficient that is a decoding target based on a neighboring significant index and position of the target differential coefficient in the target sub block, wherein the neighboring significant index is a sum of the significant sub block information of a decoded sub block adjacent to the right side of a target sub block and the significant sub block information multiplied by 2 of a decoded sub block adjacent to the lower side of the target sub block.
System for use in diagnosis of dysphagia and nutrition of dysphagia patients comprising at least a first, a second and a third enteral nutrition product having each a) a defined nutrient profile balanced for complete enteral nutrition and / or for supplemental enteral nutrition; b) a shear rate dependent viscosity profile, wherein at each shear rate value between 1-100 s -1 the following condition is fulfilled: viscosity product 1 > viscosity product 2 > viscosity product 3. a) a defined nutrient profile balanced for complete enteral nutrition and / or for supplemental enteral nutrition; b) a shear rate dependent viscosity profile, wherein at each shear rate value between 1-100 s -1 the following condition is fulfilled: viscosity product 1 > viscosity product 2 > viscosity product 3. viscosity product 1 > viscosity product 2 > viscosity product 3.
A crop forming assembly, comprising: a frame member (502, 504, 506); a cutout (610, 1118) defined through a portion of the frame member (502, 504, 506); a forming shield (702, 704, 1202, 1204) pivotally coupled to the frame member (502, 504, 506); and a motor (902, 1216, 1220, 1402, 1404) removably coupled to the frame member (502, 504, 506) and configured to engage the forming shield (702, 704, 1202, 1204); wherein, the motor (902, 1216, 1220, 1402, 1404) engages the forming shield (702, 704, 1202, 1204) to reposition the forming shield (702, 704, 1202, 1204) along the cutout (610, 1118), characterized in that the crop forming assembly further comprising a blocking plate (608, 904, 1408, 1410) positioned adjacent to the cutout (610, 1118), wherein the blocking plate (608, 904, 1408, 1410) is coupled to the forming shield (702, 704, 1202, 1204) through the cutout (610, 1118) at a first end (906, 1412). a frame member (502, 504, 506); a cutout (610, 1118) defined through a portion of the frame member (502, 504, 506); a forming shield (702, 704, 1202, 1204) pivotally coupled to the frame member (502, 504, 506); and a motor (902, 1216, 1220, 1402, 1404) removably coupled to the frame member (502, 504, 506) and configured to engage the forming shield (702, 704, 1202, 1204); wherein, the motor (902, 1216, 1220, 1402, 1404) engages the forming shield (702, 704, 1202, 1204) to reposition the forming shield (702, 704, 1202, 1204) along the cutout (610, 1118), characterized in that the crop forming assembly further comprising a blocking plate (608, 904, 1408, 1410) positioned adjacent to the cutout (610, 1118), wherein the blocking plate (608, 904, 1408, 1410) is coupled to the forming shield (702, 704, 1202, 1204) through the cutout (610, 1118) at a first end (906, 1412).
Apparatus for preparing foam for incorporation into cementitious slurry, comprising a conduit having an inlet for receiving a gas feed and a surfactant feed, and an outlet for allowing the exit of foam, the conduit housing a porous plug that provides a partial barrier to fluid flow along the conduit, the plug comprising a plurality of particles that are packed in a regular array, the particles defining a three-dimensional network of pores extending therebetween, wherein the apparatus comprises a resilient component located between the plug and the conduit, wherein the resilient component comprises a sleeve disposed on a radially inward side of the conduit.
An organic light emitting diode (OLED) display device, comprising: a substrate; a plurality of organic light emitting diodes (OLED) on the substrate; and the following features: a thin film encapsulation layer on the organic light emitting diodes (OLED); and at least one sensor on the thin film encapsulation layer, characterized in that the sensor includes a sensing TFT on the thin film encapsulation layer, the sensing TFT including: a sensing gate electrode; an oxide semiconductor layer overlapping the sensing gate electrode; a sensing source electrode connected to the oxide semiconductor layer; and a sensing drain electrode spaced apart from the sensing source electrode and connected to the oxide semiconductor layer. a substrate; a plurality of organic light emitting diodes (OLED) on the substrate; and the following features: a thin film encapsulation layer on the organic light emitting diodes (OLED); and at least one sensor on the thin film encapsulation layer, characterized in that the sensor includes a sensing TFT on the thin film encapsulation layer, the sensing TFT including: a sensing gate electrode; an oxide semiconductor layer overlapping the sensing gate electrode; a sensing source electrode connected to the oxide semiconductor layer; and a sensing drain electrode spaced apart from the sensing source electrode and connected to the oxide semiconductor layer. a thin film encapsulation layer on the organic light emitting diodes (OLED); and at least one sensor on the thin film encapsulation layer, characterized in that the sensor includes a sensing TFT on the thin film encapsulation layer, the sensing TFT including: a sensing gate electrode; an oxide semiconductor layer overlapping the sensing gate electrode; a sensing source electrode connected to the oxide semiconductor layer; and a sensing drain electrode spaced apart from the sensing source electrode and connected to the oxide semiconductor layer. a sensing gate electrode; an oxide semiconductor layer overlapping the sensing gate electrode; a sensing source electrode connected to the oxide semiconductor layer; and a sensing drain electrode spaced apart from the sensing source electrode and connected to the oxide semiconductor layer.
A polymer comprising at least one polymeric chain of a first type, said comprising at least two blocks, the same or different, the said blocks comprising repeat units derived from polymerisation of styrene monomers, the said units comprising at least one phenyl pendant group carrying at least one -SO 3 R group, R possibly being a hydrogen atom, an alkyl group or cationic counter-ion, the said two blocks being separated by a spacer group, the spacer group being a perfluorocarbon group.
A method for determining the biogeochemical reactivity of an aqueous sample of organic matter, wherein the fate of said organic matter in a soil is evaluated, comprising: a. The mixing of the sample with a component of a soil with which the sample is likely to react, said component of a soil being a microorganism; and b. The microplate analysis of the fluorescence emitted by said mixture in the presence of a fluorescent redox developer sensitive to the catabolism of the organic matter of the sample; a variation of fluorescence, relative to the fluorescence emitted by the soil component in the absence of the sample or by the sample in the absence of the soil component, indicating the capacity of the sample to be degraded by a soil microorganism. a. The mixing of the sample with a component of a soil with which the sample is likely to react, said component of a soil being a microorganism; and b. The microplate analysis of the fluorescence emitted by said mixture in the presence of a fluorescent redox developer sensitive to the catabolism of the organic matter of the sample;
A defrost heat discharge system, comprising: a drain duct configured to discharge heat of a defrost heater together with condensed water, which is generated when frost adhered on an evaporator is heated by the defrost heater; a drain pipe configured to allow the condensed water and the heat of the defrost heater to flow from a first space to a second space; a drain cap provided at a lower end of the drain pipe such that the condensed water is filled in a lower portion of the drain pipe, and the drain cap is configured to be selectively opened and closed; and a condensing fan configured to suck the heat of the defrost heater and discharge the heat to outside when the drain cap is opened, wherein the second space corresponds to a machine room of a refrigerator, the drain cap is disposed inside the machine room such that the heat in the first space is discharged to the machine room, and the drain cap is configured to be opened when the condensed water is filled in the lower portion of the drain pipe by a predetermined water level or more, and the condensing fan is activated when the drain cap is opened such that the heat discharged to the machine room through the drain cap is discharged to an outside of the refrigerator through discharge holes of the machine room. a drain duct configured to discharge heat of a defrost heater together with condensed water, which is generated when frost adhered on an evaporator is heated by the defrost heater; a drain pipe configured to allow the condensed water and the heat of the defrost heater to flow from a first space to a second space; a drain cap provided at a lower end of the drain pipe such that the condensed water is filled in a lower portion of the drain pipe, and the drain cap is configured to be selectively opened and closed; and a condensing fan configured to suck the heat of the defrost heater and discharge the heat to outside when the drain cap is opened, wherein the second space corresponds to a machine room of a refrigerator, the drain cap is disposed inside the machine room such that the heat in the first space is discharged to the machine room, and the drain cap is configured to be opened when the condensed water is filled in the lower portion of the drain pipe by a predetermined water level or more, and the condensing fan is activated when the drain cap is opened such that the heat discharged to the machine room through the drain cap is discharged to an outside of the refrigerator through discharge holes of the machine room.
A device (100, 200) to verify main rotor swashplate positioning, comprising: a first surface (112, 212) of a first section (110, 210); and a gradient surface (150, 250) of a second section (120, 220) having a plurality of incremental steps (151, 251); wherein the first and second sections (110, 210, 120, 220) are parallel and concentric relative to a central axis, wherein the first surface (112, 200) is configured to nest against a convex curvature of a collective sleeve of a main rotor mast, wherein the gradient surface (150, 250) is configured to contact a swashplate lug of a main rotor swashplate, and wherein the gradient surface (150, 250), having the plurality of incremental steps (151,251), is inclined. a first surface (112, 212) of a first section (110, 210); and a gradient surface (150, 250) of a second section (120, 220) having a plurality of incremental steps (151, 251); wherein the first and second sections (110, 210, 120, 220) are parallel and concentric relative to a central axis, wherein the first surface (112, 200) is configured to nest against a convex curvature of a collective sleeve of a main rotor mast, wherein the gradient surface (150, 250) is configured to contact a swashplate lug of a main rotor swashplate, and wherein the gradient surface (150, 250), having the plurality of incremental steps (151,251), is inclined.
Method for estimating patterns ( M' PF, D' PF) to be printed on a plate or mask by means of electron-beam lithography, comprising the following steps: - printing by means of electron-beam lithography, in a resin arranged on a substrate, a set of calibration patterns ( M CF, D CF), - measuring characteristic dimensions of the set of calibration patterns ( M CF, D CF) after printing and saving these characteristic dimensions to memory, - supplying, by means of a processor having access to the memory, an estimation of the point spread function characterising electrons scattered during printing based on the characteristic dimensions measured, - estimating the patterns ( M' PF, D' PF) to be printed by convoluting the point spread function supplied with an initial value ( M PF, D PF) of these patterns to be printed, characterised in that: - each calibration pattern ( M C [ i]) printed in the resin includes a central zone exposed to the electron beam and a plurality of concentric zones with rotational symmetry arranged about this central zone, - the characteristic dimensions measured after printing are characteristic dimensions of the central zones of the patterns, and - the estimation of the point spread function is calculated as the sum of a first point spread function portion (PSF BE) characterising electrons back-scattered by the substrate and a second point spread function portion (PSF FE) characterising electrons scattered in the resin, and comprises an inversion of analytical modelling of the effect, on said characteristic dimensions, of applying the first point spread function portion (PSF BE) to the set of calibration patterns ( M CF, D CF). - printing by means of electron-beam lithography, in a resin arranged on a substrate, a set of calibration patterns ( M CF, D CF), - measuring characteristic dimensions of the set of calibration patterns ( M CF, D CF) after printing and saving these characteristic dimensions to memory, - supplying, by means of a processor having access to the memory, an estimation of the point spread function characterising electrons scattered during printing based on the characteristic dimensions measured, - estimating the patterns ( M' PF, D' PF) to be printed by convoluting the point spread function supplied with an initial value ( M PF, D PF) of these patterns to be printed, - each calibration pattern ( M C [ i]) printed in the resin includes a central zone exposed to the electron beam and a plurality of concentric zones with rotational symmetry arranged about this central zone, - the characteristic dimensions measured after printing are characteristic dimensions of the central zones of the patterns, and - the estimation of the point spread function is calculated as the sum of a first point spread function portion (PSF BE) characterising electrons back-scattered by the substrate and a second point spread function portion (PSF FE) characterising electrons scattered in the resin, and comprises an inversion of analytical modelling of the effect, on said characteristic dimensions, of applying the first point spread function portion (PSF BE) to the set of calibration patterns ( M CF, D CF).
Cutter having a rotating bowl and a non-moving part (3, 8), between which a single- or multi-part seal (4, 5) is provided, characterized in that the seal (4, 5) has at least one connection which connects two ends of the seal to each other.
System for the cultivation of photosynthetic living organisms such as plants or the like comprising a support structure of a plurality of shelves (1,2) on which said plants are to be cultivated, said shelves (1,2) being positioned one above the other, along a vertical axis, so as to identify a space (100,110) interposed between the upper face of a shelf and the lower face of the overlying shelf, which space (100,110) is adapted to cultivate the plants, wherein a light (A,B,C) capture device of a light source is provided, which capture device is positioned above the highest shelf, light (A,B,C) transmission means connected to said capture device are present, which transmission means are configured for the transmission of the light (A,B,C) from the highest shelf to the lower shelves, characterized in that means for activating/inactivating said capture device and said transmission means are provided. said shelves (1,2) being positioned one above the other, along a vertical axis, so as to identify a space (100,110) interposed between the upper face of a shelf and the lower face of the overlying shelf, which space (100,110) is adapted to cultivate the plants, wherein a light (A,B,C) capture device of a light source is provided, which capture device is positioned above the highest shelf, light (A,B,C) transmission means connected to said capture device are present, which transmission means are configured for the transmission of the light (A,B,C) from the highest shelf to the lower shelves, characterized in that means for activating/inactivating said capture device and said transmission means are provided.
A laser positioning system comprising: a Light Detection and Ranging (LIDAR) device mounted to a hub; and a plurality of retro-reflectors (42, 52) attached to a portion of an aircraft (24, 30), the retro-reflectors being arranged so as to define a one-dimensional or two-dimensional array of retro-reflectors, the arrangement of the retro-reflectors in the array providing encoded information corresponding to the portion of the aircraft (24, 30) on which the reflectors are attached, wherein the Light Detection and Ranging device is configured: - to scan a field of view; - to identify the plurality of retro-reflectors as corresponding to a particular portion of the aircraft based on the encoded information and - to calculate a distance between at least part of these retro-reflectors (42, 52); to determine relative position data based on this encoded information and the calculated distance between at least part of these retro-reflectors for monitoring integrity. a Light Detection and Ranging (LIDAR) device mounted to a hub; and a plurality of retro-reflectors (42, 52) attached to a portion of an aircraft (24, 30), the retro-reflectors being arranged so as to define a one-dimensional or two-dimensional array of retro-reflectors, the arrangement of the retro-reflectors in the array providing encoded information corresponding to the portion of the aircraft (24, 30) on which the reflectors are attached, wherein the Light Detection and Ranging device is configured: - to scan a field of view; - to identify the plurality of retro-reflectors as corresponding to a particular portion of the aircraft based on the encoded information and - to calculate a distance between at least part of these retro-reflectors (42, 52); - to scan a field of view; - to identify the plurality of retro-reflectors as corresponding to a particular portion of the aircraft based on the encoded information and - to calculate a distance between at least part of these retro-reflectors (42, 52); to determine relative position data based on this encoded information and the calculated distance between at least part of these retro-reflectors for monitoring integrity.
A method of estimating the electrical length of a digital subscriber line, wherein the electrical length is the attenuation at a predetermined frequency, comprising: i) gathering attenuation data associated with the digital subscriber line, wherein the attenuation data comprises attenuation values measured as a function of frequency for the digital subscriber line; ii) generating transformed data by applying a predetermined transform function to the attenuation data, where the transform function is a function of the frequency at which the respective attenuation values are measured; characterised in that the method further comprises iii) removing data spikes from the transformed data by comparing attenuation values in the transformed data with neighbouring values, and smoothing attenuation values that are not within a predetermined range of the neighbouring attenuation values; iv) generating truncated data comprising transformed data following data spike removal at frequencies less that a noise floor frequency, wherein the noise floor frequency is equal to the frequency at which the attenuation data first falls below a predetermined attenuation; and v) estimating a compensated electrical line length, wherein the compensated electrical line length is taken as the representative attenuation value from the truncated data at or above the predetermined frequency. i) gathering attenuation data associated with the digital subscriber line, wherein the attenuation data comprises attenuation values measured as a function of frequency for the digital subscriber line; ii) generating transformed data by applying a predetermined transform function to the attenuation data, where the transform function is a function of the frequency at which the respective attenuation values are measured; iii) removing data spikes from the transformed data by comparing attenuation values in the transformed data with neighbouring values, and smoothing attenuation values that are not within a predetermined range of the neighbouring attenuation values; iv) generating truncated data comprising transformed data following data spike removal at frequencies less that a noise floor frequency, wherein the noise floor frequency is equal to the frequency at which the attenuation data first falls below a predetermined attenuation; and v) estimating a compensated electrical line length, wherein the compensated electrical line length is taken as the representative attenuation value from the truncated data at or above the predetermined frequency.