mhurhangee/ep-ind-claims huggingface dataset:
A decoder coupled to receive encoded data, said decoder includes: an unpacking stage configured to, in response to the encoded data, unpack Huffman coded values, side chain words, filter coefficient data indicative of first and second coefficient sets, and values that determine the size of a macroblock of Huffman coded values, the values being usable for determining intervals at which a first and a second filter of the decoder should be reconfigured with the first and the second coefficient set, respectively, a Huffman decoding stage configured to decode the Huffman coded values; a block floating point representation decoding stage configured to generate partially decoded data in response to the Huffman decoded values, the partially decoded data comprising a plurality of values, each value corresponding to a sum of a quantized residual of a sample of the encoded data and most significant bits of the sample corresponding to the quantized residual; a predictor, coupled to the block floating point representation decoding stage and including the first filter, being a finite impulse response filter connected in a feedback configuration, and the second filter, being a FIR filter connected in a feedforward configuration, and configured to generate prediction filtered data in response to the partially decoded data, wherein the first filter is configured with the first coefficient set and the second filter is configured with the second coefficient set at the intervals determined by the unpacking stage; and a rematrixing stage configured to recover output audio samples from the prediction filtered data. an unpacking stage configured to, in response to the encoded data, unpack Huffman coded values, side chain words, filter coefficient data indicative of first and second coefficient sets, and values that determine the size of a macroblock of Huffman coded values, the values being usable for determining intervals at which a first and a second filter of the decoder should be reconfigured with the first and the second coefficient set, respectively, a Huffman decoding stage configured to decode the Huffman coded values; a block floating point representation decoding stage configured to generate partially decoded data in response to the Huffman decoded values, the partially decoded data comprising a plurality of values, each value corresponding to a sum of a quantized residual of a sample of the encoded data and most significant bits of the sample corresponding to the quantized residual; a predictor, coupled to the block floating point representation decoding stage and including the first filter, being a finite impulse response filter connected in a feedback configuration, and the second filter, being a FIR filter connected in a feedforward configuration, and configured to generate prediction filtered data in response to the partially decoded data, wherein the first filter is configured with the first coefficient set and the second filter is configured with the second coefficient set at the intervals determined by the unpacking stage; and a rematrixing stage configured to recover output audio samples from the prediction filtered data.
A transport assembly for transporting different types of articles of the smoking products manufacturing industry; the transport assembly comprises: a first conveying system for feeding first articles of the smoking products manufacturing industry along a first conveying path to a first input station of a first machine; and a second conveying system for conveying second articles of the smoking products manufacturing industry along a second conveying path from a first output station of the first machine to a second input station of a second machine; the transport assembly is characterized in that: the first conveying system is configured to change the length of a first stretch of the first conveying path; the second conveying system is configured to change the length of a second stretch of the second conveying path; the first conveying system and the second conveying system are mutually arranged so that the first stretch and the second stretch at least partially overlap one another and/or are side by side. the first conveying system is configured to change the length of a first stretch of the first conveying path; the second conveying system is configured to change the length of a second stretch of the second conveying path; the first conveying system and the second conveying system are mutually arranged so that the first stretch and the second stretch at least partially overlap one another and/or are side by side.
A sealed linear encoder apparatus for providing a measure of relative displacement of two relatively movable members, comprising a protective housing and at least one elongate sealing lip, wherein at least a sealing portion of the elongate sealing lip is held in tension along its length, characterised in that the elongate sealing lip has a natural curvature, and the elongate sealing lip is deformed away from its natural curvature into a less curved configuration by the protective housing so as to hold at least the sealing portion in tension.
An energy-autonomous elevator system control element (20, 22) comprising means (32, 46) for detecting a control operation and means for wireless transmission of at least one signal, which can be generated automatically with the aid of the control operation by the elevator system control element (20, 22), to a remote elevator system controller and an energy recovery unit constituted by the elevator system control element (20, 22), and having a layer-like structure and a configurable display unit in one layer and the energy recovery unit in at least one further layer (32, 36).
A self-locking cable clamp arrangement for mounting a cable to a panel defining at least a first slot, the self-locking cable clamp arrangement comprising: (a) a bracket extending along a first axis from a first end to a second end, the bracket having a cable mounting region at the first end, a first engagement region at the second end, and a support region disposed between the cable mounting region and the first engagement region, the cable mounting region defining at least two adjacently aligned fastener apertures, the support region defining two members spaced apart sufficient to enable an edge of the panel to extend partially therebetween; and (b) a flexible tab disposed on the bracket, the flexible tab being deflectable between a first position and a second position, the flexible tab being biased to the first position, wherein the flexible tab can be selectively coupled to the cable mounting region and to the first engagement region. (a) a bracket extending along a first axis from a first end to a second end, the bracket having a cable mounting region at the first end, a first engagement region at the second end, and a support region disposed between the cable mounting region and the first engagement region, the cable mounting region defining at least two adjacently aligned fastener apertures, the support region defining two members spaced apart sufficient to enable an edge of the panel to extend partially therebetween; and (b) a flexible tab disposed on the bracket, the flexible tab being deflectable between a first position and a second position, the flexible tab being biased to the first position, wherein the flexible tab can be selectively coupled to the cable mounting region and to the first engagement region.
Analysis device for a land vehicle able to travel on a traffic route and comprising a structure for supporting one or more passengers, characterised in that it comprises processing means arranged to estimate at least one dominant frequency f p in at least one signal Z(t) representing excitations of said structure at a time t, then to determine a value of an indicator representing the state of said traffic route in accordance with at least said estimated dominant frequency f p and in that said processing means are arranged to assimilate each associated signal Z(t) at a time t with a function equal to the product of an amplitude by a single-frequency sinusoid having a variable equal to the product of said time t by a pulse w proportional to a dominant frequency f p, and to determine the pulse w of each signal Z(t) by calculating the square root of the modulus of a ratio between a second derivative of said signal Z(t) with respect to the time and said signal Z(t).
A method comprising: receiving, by a processor of a biological scanning system, one or more images of a biological growth plate (50, 60), the biological growth plate (50, 60) including an indicia (54, 64) for identifying the plate (50, 60) as a specific type of growth plate (50, 60), and a growth area of a biological growth medium; determining, by the processor, whether a background color associated with the growth area is within a range, wherein the range is specific to the identified type of the biological growth plate (50, 60); and flagging, by the processor, the biological growth plate (50, 60) for review by a technician in response to determining the background color is outside the range. receiving, by a processor of a biological scanning system, one or more images of a biological growth plate (50, 60), the biological growth plate (50, 60) including an indicia (54, 64) for identifying the plate (50, 60) as a specific type of growth plate (50, 60), and a growth area of a biological growth medium; determining, by the processor, whether a background color associated with the growth area is within a range, wherein the range is specific to the identified type of the biological growth plate (50, 60); and flagging, by the processor, the biological growth plate (50, 60) for review by a technician in response to determining the background color is outside the range.
A method for telemetric data exchange between at least one agricultural working machine and a master computer, wherein the agricultural working machine is a combine harvester, a forage harvester, a baler, a tractor, a transloading vehicle, a telescopic handler or a green harvest machine, wherein the agricultural working machine comprises an onboard computer, with which use data points are measured in a fixed time interval (Δt) and transmitted to the master computer, wherein the use data points comprise machine data for the agricultural working machine and for each use data point, a measured value (31(t1, t2)) is measured by means of a sensor provided for it, characterized in that • the respective measured value (31) measured for a use data point is compared with the previously detected measured value (32) for the use data point, wherein not all of the measured values (31) which have been measured are detected and transmitted to the master computer, but • the measured value (31) of the use data point which has been measured is then only detected as a new measured value (32) and transmitted to the master computer when it differs from the previously detected measured value (32) by at least a threshold value (Δw). • the respective measured value (31) measured for a use data point is compared with the previously detected measured value (32) for the use data point, wherein not all of the measured values (31) which have been measured are detected and transmitted to the master computer, but • the measured value (31) of the use data point which has been measured is then only detected as a new measured value (32) and transmitted to the master computer when it differs from the previously detected measured value (32) by at least a threshold value (Δw).
An apparatus, comprising: a host; and a memory device including a controller, a number of block buffers, a number of block configuration registers, and a memory array, wherein the host is configured to program the number of block configuration registers to set a buffer start address and a buffer end address for each of the number of block buffers, wherein the buffer start address and the buffer end address for each of the number of block buffers determines the size of the respective block buffer, wherein the memory device is configured to perform operations on the number of block buffers based on commands received from the host wherein the number of block configuration registers includes a number of target address registers that identify a number of target addresses of data in the memory array associated with the operations, wherein the target address registers are paired with the buffer start address and the buffer end address for each of the number of block buffers, and wherein the operations are performed to read data from the number of block buffers that is retrieved from the target addresses in the memory array and write data to the number of block buffers on the memory device that is then written to the target addresses in the memory array, characterized in that the memory array is an array of memory cells, and in that the size of each of the number of block buffers matches the block size in the memory array. a host; and a memory device including a controller, a number of block buffers, a number of block configuration registers, and a memory array, wherein the host is configured to program the number of block configuration registers to set a buffer start address and a buffer end address for each of the number of block buffers, wherein the buffer start address and the buffer end address for each of the number of block buffers determines the size of the respective block buffer, wherein the memory device is configured to perform operations on the number of block buffers based on commands received from the host wherein the number of block configuration registers includes a number of target address registers that identify a number of target addresses of data in the memory array associated with the operations, wherein the target address registers are paired with the buffer start address and the buffer end address for each of the number of block buffers, and wherein the operations are performed to read data from the number of block buffers that is retrieved from the target addresses in the memory array and write data to the number of block buffers on the memory device that is then written to the target addresses in the memory array, characterized in that the memory array is an array of memory cells, and in that the size of each of the number of block buffers matches the block size in the memory array.
A process for the extraction of Vitis vinifera seeds which comprises: a) extraction of grape seeds with a solvent which is a C1-C3 alcohol, or mixtures or aqueous solutions thereof with a water content not higher than 90% (v/v); b) removal of water-insoluble tannins by cooling the extract of step a) and filtering or centrifuging off the insolubles; c) removal of water-soluble tannins; d) separation of products with different molecular weights, through chromatographic purification on a column; characterised in that step c) is carried out by adding polyvinylpolypyrrolidone (PVPP) to the extract of step b). a) extraction of grape seeds with a solvent which is a C1-C3 alcohol, or mixtures or aqueous solutions thereof with a water content not higher than 90% (v/v); b) removal of water-insoluble tannins by cooling the extract of step a) and filtering or centrifuging off the insolubles; c) removal of water-soluble tannins; d) separation of products with different molecular weights, through chromatographic purification on a column; characterised in that step c) is carried out by adding polyvinylpolypyrrolidone (PVPP) to the extract of step b).
A ceramic pellet grill, comprising: a ceramic oven body with a first through-hole in a side of the ceramic oven body; a conduit inserted through the first through-hole into the ceramic oven body for supplying pellets into the oven; and a firepot, the ceramic pellet grill being characterized in that thermal insulation is provided within the ceramic oven body and arranged to thermally insulate the conduit from heat from within the ceramic oven body; and in that the firepot is located within the conduit toward an end of the conduit that is within the ceramic oven body. a ceramic oven body with a first through-hole in a side of the ceramic oven body; a conduit inserted through the first through-hole into the ceramic oven body for supplying pellets into the oven; and a firepot, the ceramic pellet grill being characterized in that thermal insulation is provided within the ceramic oven body and arranged to thermally insulate the conduit from heat from within the ceramic oven body; and in that the firepot is located within the conduit toward an end of the conduit that is within the ceramic oven body.
A process for minimizing scorch of a silane-functionalized polyolefin under melt mixing conditions, and in the presence of a flame retardant, the process comprising the step of contacting the silane-functionalized polyolefin with a hydroxyl-terminated polydimethylsiloxane (PDMS) having a number average molecular weight (Mn) greater than or equal to (≥) 4,000 grams per mole (g/mol), viscosity of greater than or equal to (≥) 0.09 Pa·s [90 centipoise (cP)], and hydroxyl group content of less than or equal to (≤) 0.9 weight percent (wt%) based on the weight of the PDMS; wherein the PDMS is present in an amount from 0.5 to 15 weight percent based on the combined weight of the silane-functionalized polyolefin, flame retardant and the PDMS; wherein the flame retardant is at least one of a metal hydrate, carbon black, halogenated compounds, nitrogen and/or phosphorus-based halogen-free compound, and an epoxidized novolac resin; wherein the flame retardant comprises a halogenated compound; and Mn is measured by gel permeation chromatography; viscosity at 25°C is measured with a BROOKFIELD viscometer; and hydroxyl content is determined by 1 H NMR spectroscopy. wherein the PDMS is present in an amount from 0.5 to 15 weight percent based on the combined weight of the silane-functionalized polyolefin, flame retardant and the PDMS; wherein the flame retardant is at least one of a metal hydrate, carbon black, halogenated compounds, nitrogen and/or phosphorus-based halogen-free compound, and an epoxidized novolac resin; wherein the flame retardant comprises a halogenated compound; and Mn is measured by gel permeation chromatography; viscosity at 25°C is measured with a BROOKFIELD viscometer; and hydroxyl content is determined by 1 H NMR spectroscopy.
Photovoltaic module, comprising - a translucent tube encompassing an inner space, with a main direction of extent, and a curved inner face facing the inner space, and - a mechanically flexible photovoltaic component with a solar cell arrangement applied to a carrier film, wherein - the photovoltaic component is arranged in the inner space, - the solar cell arrangement has a curvature, wherein the curvature at least in places follows the curved course of the inner face of the tube, and - the solar cell arrangement at least partially covers the inner face, wherein the covered inner face forms a light passage surface of the photovoltaic module, characterised in that the photovoltaic component has at least two encapsulation films (231, 232) connected together by a material-formed bond, wherein - the solar cell arrangement is arranged completely between the encapsulation films (231, 232), - the encapsulation films (231, 232) are thermoplastic films, and - the encapsulation films (231, 232) at least in places are in direct contact with each other. - a translucent tube encompassing an inner space, with a main direction of extent, and a curved inner face facing the inner space, and - a mechanically flexible photovoltaic component with a solar cell arrangement applied to a carrier film, wherein - the photovoltaic component is arranged in the inner space, - the solar cell arrangement has a curvature, wherein the curvature at least in places follows the curved course of the inner face of the tube, and - the solar cell arrangement at least partially covers the inner face, wherein the covered inner face forms a light passage surface of the photovoltaic module, characterised in that the photovoltaic component has at least two encapsulation films (231, 232) connected together by a material-formed bond, wherein - the solar cell arrangement is arranged completely between the encapsulation films (231, 232), - the encapsulation films (231, 232) are thermoplastic films, and - the encapsulation films (231, 232) at least in places are in direct contact with each other.
Manually operated switching device for a vehicle, with a switch lever and at least one touch-sensitive sensor device formed on the switch lever, which is designed for detecting an effect on a sensor surface (7, 8) of the sensor device that leaves the switch lever positionally unchanged and that triggers a switching signal, wherein an activation device is formed, with which the detecting state of the sensor device can be activated as defined by the user, wherein the activation device comprises an operating element, which is formed on the switch lever, characterized in that the operating element is formed outside a region of an end piece of the switch lever that is provided for gripping by a user in the case of a position-changing operation of the switch lever.
An optical device comprising a first base layer, a liquid crystal layer, a second base layer sequentially, a first electrode layer formed on the first base layer and a second electrode layer formed on the second base layer, wherein each of the first base layer and the second base layer is a heat shrinkable base layer, wherein the heat shrinkable base layer has a length change rate (ΔL) of a negative number in the following equation 1: Δ L = L − L 0 L 0 × 100 wherein, L 0 is a length of the base layer in one direction at 25°C and L is a length of the base layer in the one direction after heat treatment at a temperature range of 80°C to 150°C for a time period of 1 minute to 180 minutes, characterized in that when the heat shrinkable base layer shrinks in an MD direction, it expands in a TD direction perpendicular to the MD direction at an expansion rate of 0.01 times to 0.5 times an MD direction shrinkage rate, and wherein the optical device has a positive pressure higher than an atmospheric pressure therein upon changing a temperature from a high temperature of 90°C to 100°C to a low temperature of -30°C to -40°C. wherein each of the first base layer and the second base layer is a heat shrinkable base layer, wherein the heat shrinkable base layer has a length change rate (ΔL) of a negative number in the following equation 1: Δ L = L − L 0 L 0 × 100 wherein, L 0 is a length of the base layer in one direction at 25°C and L is a length of the base layer in the one direction after heat treatment at a temperature range of 80°C to 150°C for a time period of 1 minute to 180 minutes, characterized in that when the heat shrinkable base layer shrinks in an MD direction, it expands in a TD direction perpendicular to the MD direction at an expansion rate of 0.01 times to 0.5 times an MD direction shrinkage rate, and wherein the optical device has a positive pressure higher than an atmospheric pressure therein upon changing a temperature from a high temperature of 90°C to 100°C to a low temperature of -30°C to -40°C.
Method for producing a nickel-phosphorus alloy, in which a metallic substrate is dipped into an aqueous electrolyte containing at least nickel cations, hypophosphite ions, stabilisers and complexing agents, characterised in that the electrolyte additionally contains pyrones of formula I or the salts thereof, wherein R1 represents a hydrogen atom or a hydroxy group, R2 Prepresents a methyl group, an ethyl group or a hydroxymethyl group, R3 represents a hydrogen atom or a hydroxy group and R4 represents a hydrogen atom, a hydroxy group or a methyl ketone group.