mhurhangee/ep-ind-claims huggingface dataset:
An air compressor including a box and an electrically operated compressor unit installed in the box, wherein a motor drives a piston body to conduct reciprocating motion in a cylinder to produce compressed air, which is transferred into an air storage container provided with a plurality of outlets (52, 53, 55); wherein, when the piston body reaches top dead center, a space is existed between a head of the piston body and a top wall of the cylinder; a tube is formed integrally with the air storage container and on the cylinder, wherein the tube does not communicate with an inner space of the air storage container, characterised by an adjusting bolt being threadedly fitted into the tube to define an auxiliary air chamber communicating with an inner space of the cylinder via an auxiliary exit hole, and wherein the box is provided with a button; one of the outlets (52, 53, 55) is connected with a relief valve, which includes a hollow soft cap having a tip and an annular portion provided with multiple spaced protrusions at its outer surface, between two adjacent protrusions defining a gap; a mounting bolt defining a central through hole extending from an opening at one end of the mounting bolt, the central through hole of the mounting bolt having a diameter smaller than the opening of the mounting bolt, wherein the soft cap is fitted in the outlet that connects the relief valve, the mounting bolt is fitted into the outlet that connects the relief valve to have an opposite end of the mounting bolt located near the soft cap, the annular portion of the soft cap is engaged with an inner surface of the outlet that connects the relief valve, the tip of soft cap is located near the opposite end of the mounting bolt, and a push bar of the button is inserted through the through hole of the mounting bolt to touch the tip of the soft cap; whereby the button may be depressed to allow its push bar to compress the soft cap and thus deform the soft cap, so that excessive air in an object to be inflated may flow through the gaps of the soft cap and the through hole of the mounting bolt to be released into the environment.
Power supply system with a multiplicity of battery modules, wherein each battery module has a first electrical terminal and a second electrical terminal, by way of which the battery modules are arranged in series in a circuit branch of the power supply system, wherein each battery module further comprises an accumulator which can be connected to the first electrical terminal and the second electrical terminal, by way of a bridge circuit of the battery module, wherein the bridge circuit is designed to connect the accumulator with different polarity with the first and the second electrical terminal (3, 4) or to connect the first electrical terminal and the second electrical terminal to each other, wherein the power supply system has a switch, which is arranged in series with the battery modules, and can be temporarily moved into a blocking state so that, during a charging process of the power supply system with an AC voltage from an external energy source, a load voltage in the circuit branch does not exceed a maximum permissible charging voltage and that the load voltage is a voltage applied to the battery modules in the circuit branch, or a proportion of the voltage applied to the battery modules in the circuit branch. each battery module further comprises an accumulator which can be connected to the first electrical terminal and the second electrical terminal, by way of a bridge circuit of the battery module, wherein the bridge circuit is designed to connect the accumulator with different polarity with the first and the second electrical terminal (3, 4) or to connect the first electrical terminal and the second electrical terminal to each other, wherein the power supply system has a switch, which is arranged in series with the battery modules, and can be temporarily moved into a blocking state so that, during a charging process of the power supply system with an AC voltage from an external energy source, a load voltage in the circuit branch does not exceed a maximum permissible charging voltage and that the load voltage is a voltage applied to the battery modules in the circuit branch, or a proportion of the voltage applied to the battery modules in the circuit branch.
A sensor, comprising: an array of pixels, each of the pixels including: a photosensor, a photoreceptor signal being a function of an amount of light received by the photosensor, and a memory capacitor carrying a charge from the photoreceptor signal, a switch controlled by a shutter signal that connects the photosensor to the memory capacitor; and the sensor further comprises one or more comparators that compare voltages of the memory capacitor to one or more reference voltages to determine whether changes in the photoreceptor signals pass one or more thresholds, one or more memory structures for storing the output of the one or more comparators, and a reset circuit configured to reset the memory capacitor in response to a global reset signal for the array of pixels and in dependence on a content of the one or more memory structures. an array of pixels, each of the pixels including: a photosensor, a photoreceptor signal being a function of an amount of light received by the photosensor, and a memory capacitor carrying a charge from the photoreceptor signal, a switch controlled by a shutter signal that connects the photosensor to the memory capacitor; and the sensor further comprises a photosensor, a photoreceptor signal being a function of an amount of light received by the photosensor, and a memory capacitor carrying a charge from the photoreceptor signal, a switch controlled by a shutter signal that connects the photosensor to the memory capacitor; and the sensor further comprises one or more comparators that compare voltages of the memory capacitor to one or more reference voltages to determine whether changes in the photoreceptor signals pass one or more thresholds, one or more memory structures for storing the output of the one or more comparators, and a reset circuit configured to reset the memory capacitor in response to a global reset signal for the array of pixels and in dependence on a content of the one or more memory structures.
Gizzard processing device having an in-feed for an unprocessed gizzard-package and an exit or exits for parts of the gizzard-package such as a pre-stomach and/or a gizzard, wherein the in-feed comprises cooperating rollers (9.1) having helically shaped grooves for positioning the gizzard-package (9.2) in an upright position with the gizzard above the pre-stomach, and for transporting the gizzard-package (9.2) in its conveying direction, characterized in that it comprises a slope portion (9.5) with a centrally positioned knife (9.6) and slopes (9.7) extending on both sides of the knife (9.6) at a predetermined angle with respect to the knife.
A method for producing synthetic quartz glass granules by vitrifying a freeflowing SiO 2 granulate, said method comprising the following method steps: (a) granulating pyrogenically produced silicic acid so as to form the SiO 2 granulate made of porous granulate particles; (b) drying the SiO 2 granulate; (c) cleaning the SiO 2 granulate by heating in an atmosphere containing halogen in a cleaning furnace; (d) vitrifying the cleaned SiO 2 granulate by sintering in a vitrifying furnace so as to form the quartz glass granules, wherein drying, cleaning and vitrifying of the SiO 2 granulate are each carried out in a rotary tube of a rotary furnace, said rotary tube rotating about a central axis, wherein the rotary furnace used for vitrifying has a rotary tube which consists at least over a sub-length of an inner wall thereof of a ceramic material, namely of Al 2 O 3, that has a softening temperature that is higher than a softening temperature of undoped quartz glass, wherein said ceramic material used as a substance for doping quartz glass enhances the viscosity of quartz glass, wherein the synthetic quartz glass granules are doped with Al 2 O 3 from the inner wall of the rotary tube in the range of 1 to 20 wt.-ppm, and wherein the rotary tube is flooded with a low-nitrogen treatment gas or flushed with the treatment gas, said gas containing at least 30 vol.% helium and/or hydrogen. (a) granulating pyrogenically produced silicic acid so as to form the SiO 2 granulate made of porous granulate particles; (b) drying the SiO 2 granulate; (c) cleaning the SiO 2 granulate by heating in an atmosphere containing halogen in a cleaning furnace; (d) vitrifying the cleaned SiO 2 granulate by sintering in a vitrifying furnace so as to form the quartz glass granules,
A method for wireless communications by a user equipment, UE (120, 1302, 1402), comprising: during initial access of a cell, determining a default first periodicity of a physical downlink control channel, PDCCH, monitoring window to monitor for at least a first PDCCH scheduling remaining minimum system information, RMSI; after the initial access, determining a second periodicity of the PDCCH monitoring window to monitor at least a second PDCCH scheduling RMSI based on the default first periodicity or based on an indication received in a previous RMSI from the cell; determining a first time offset within the PDCCH monitoring window to monitor for the first PDCCH and a second time offset within the PDCCH monitoring window to monitor for the second PDCCH; monitoring in the PDCCH monitoring window for at least the first PDCCH during initial access at the default first periodicity and the first time offset; and monitoring in the PDCCH monitoring window for at least the second PDCCH at the second periodicity and the second time offset after the initial access. during initial access of a cell, determining a default first periodicity of a physical downlink control channel, PDCCH, monitoring window to monitor for at least a first PDCCH scheduling remaining minimum system information, RMSI; after the initial access, determining a second periodicity of the PDCCH monitoring window to monitor at least a second PDCCH scheduling RMSI based on the default first periodicity or based on an indication received in a previous RMSI from the cell; determining a first time offset within the PDCCH monitoring window to monitor for the first PDCCH and a second time offset within the PDCCH monitoring window to monitor for the second PDCCH; monitoring in the PDCCH monitoring window for at least the first PDCCH during initial access at the default first periodicity and the first time offset; and monitoring in the PDCCH monitoring window for at least the second PDCCH at the second periodicity and the second time offset after the initial access.
A binary logic circuit for determining the ratio x / d where x is a variable integer input of w bits comprising M > 8 blocks of bit width r ≥ 1 bit, and d > 2 is a fixed integer, the binary logic circuit comprising: a logarithmic tree of modulo units each configured to calculate x [ a: b]mod d for respective block positions a and b in x where b > a with the numbering of block positions increasing from the most significant bit of x up to the least significant bit of x, the modulo units being arranged such that a subset of M - 1 modulo units of the logarithmic tree provide x [0: m]mod d for all m ∈ {1, M}, and output logic configured to combine the outputs provided by the subset of modulo units with blocks of the input x so as to yield the ratio x/d, characterised in that, on the basis that any given modulo unit introduces a delay of 1: all of the modulo units are arranged in the logarithmic tree within a delay envelope of ┌ log 2 M ┐; and more than M - 2 u of the subset of modulo units are arranged at the maximal delay of ┌ log 2 M ┐, where 2 u is the power of 2 immediately smaller than M. a logarithmic tree of modulo units each configured to calculate x [ a: b]mod d for respective block positions a and b in x where b > a with the numbering of block positions increasing from the most significant bit of x up to the least significant bit of x, the modulo units being arranged such that a subset of M - 1 modulo units of the logarithmic tree provide x [0: m]mod d for all m ∈ {1, M}, and output logic configured to combine the outputs provided by the subset of modulo units with blocks of the input x so as to yield the ratio x/d, characterised in that, on the basis that any given modulo unit introduces a delay of 1: all of the modulo units are arranged in the logarithmic tree within a delay envelope of ┌ log 2 M ┐; and more than M - 2 u of the subset of modulo units are arranged at the maximal delay of ┌ log 2 M ┐, where 2 u is the power of 2 immediately smaller than M. all of the modulo units are arranged in the logarithmic tree within a delay envelope of ┌ log 2 M ┐; and more than M - 2 u of the subset of modulo units are arranged at the maximal delay of ┌ log 2 M ┐, where 2 u is the power of 2 immediately smaller than M.
A vacuum insulated glass window unit, comprising: first and second spaced apart glass substrates (2, 3) defining a gap therebetween; an edge seal provided proximate a periphery of the first and second substrates (2, 3) to form a hermetic seal, and help define the gap which is at a pressure less than atmospheric pressure; a plurality of spacers provided between at least the first and second glass substrates (2, 3) of the VIG window unit for helping space apart at least the first and second glass substrates (2, 3); and characterized in that the spacers comprise an amorphous metal alloy comprising a non-crystalline structure, and wherein the spacers have a thermal conductivity of no greater than 13.0 W/m-K and a compressive yield strength of at least 80,000 psi. first and second spaced apart glass substrates (2, 3) defining a gap therebetween; an edge seal provided proximate a periphery of the first and second substrates (2, 3) to form a hermetic seal, and help define the gap which is at a pressure less than atmospheric pressure; a plurality of spacers provided between at least the first and second glass substrates (2, 3) of the VIG window unit for helping space apart at least the first and second glass substrates (2, 3); and characterized in that the spacers comprise an amorphous metal alloy comprising a non-crystalline structure, and wherein the spacers have a thermal conductivity of no greater than 13.0 W/m-K and a compressive yield strength of at least 80,000 psi.
A method of producing a multilayered structure, comprising the steps of: obtaining a regrind by grinding a multilayered structure having a layer of a resin composition, followed by sieving; and obtaining a multilayered structure having a layer of a resin composition made by melt kneading the regrind and a polyolefin, wherein the resin composition contains a polyolefin, a saponified ethylene-vinyl acetate copolymer having an ethylene content of from 20 to 65 mol% and having a degree of saponification of vinyl acetate units of 96% or more, a saponified ethylene-vinyl acetate copolymer having an ethylene content of from 68 to 98 mol% and having a degree of saponification of vinyl acetate units of 20% or more, and an antistatic agent, and a mass ratio (H/I) of the saponified ethylene-vinyl acetate copolymer to the saponified ethylene-vinyl acetate copolymer is from 0.1 to 10, wherein the saponified ethylene-vinyl acetate copolymer in the resin composition has a dispersed particle diameter of 1.8 μm or less.
A mixture for a refrigerator, comprising a refrigerant and a lubricating oil composition, wherein the refrigerant includes at least one kind of fluorine-containing organic compounds selected from compounds represented by the following molecular formula or including a combination of the fluorine-containing organic compound and a saturated fluorinated hydrocarbon compound, C p O q F r R s where: R represents Cl, Br, I, or H; p represents an integer of 1 to 6, q represents an integer of 0 to 2, r represents an integer of 1 to 14, and s represents an integer of 0 to 13; and provided that, when q represents 0, p represents 2 to 6 and one or more carbon-carbon unsaturated bonds are included in molecules, and wherein the lubricating oil composition comprises a base oil including as a main component at least one kind of oxygen-containing compounds selected from polyvinyl ethers, wherein the polyvinylether has a constitutional unit represented by the following formula: wherein in the general formula R 4, R 5, and R 6 each represent a hydrogen atom or a hydrocarbon group having 1 to 8 carbon atoms and may be identical to or different from one another, R 7 in general formula represents a divalent hydrocarbon group having 2 to 10 carbon atoms and R 8 in the general formula represents a hydrocarbon group having 1 to 10 carbon atoms, p represents the number of the repeating unit and has such a number that the average value thereof is 0.
A method for producing an antibody conjugated to a moiety of interest, comprising the steps of: a) providing a composition comprising a plurality of antibodies each comprising an acceptor glutamine residue in an Fc region; and b) reacting said antibody comprising an acceptor glutamine residue with a linking reagent comprising a primary amine and a moiety of interest, under suitable conditions, in the presence of an amount of TGase providing between 0.001 and 0.03 enzyme units, as determined by a hydroxamate activity assay, per nanomole (nmole) of acceptor glutamine, to obtain a composition comprising a plurality of antibodies comprising an acceptor glutamine residue linked to the linking reagent, wherein no more than 10% of the antibodies in the composition comprise a deamidated acceptor glutamine residue, and wherein the moiety of interest is selected from the group consisting of a hydrophobic compound, a compound having an electrically negative charge, a compound having a molecular weight of at least 600 g/mol. a) providing a composition comprising a plurality of antibodies each comprising an acceptor glutamine residue in an Fc region; and b) reacting said antibody comprising an acceptor glutamine residue with a linking reagent comprising a primary amine and a moiety of interest, under suitable conditions, in the presence of an amount of TGase providing between 0.001 and 0.03 enzyme units, as determined by a hydroxamate activity assay, per nanomole (nmole) of acceptor glutamine, to obtain a composition comprising a plurality of antibodies comprising an acceptor glutamine residue linked to the linking reagent, wherein no more than 10% of the antibodies in the composition comprise a deamidated acceptor glutamine residue, and wherein the moiety of interest is selected from the group consisting of a hydrophobic compound, a compound having an electrically negative charge, a compound having a molecular weight of at least 600 g/mol.
A method for synchronizing a light grid having a transmitter unit with a plurality of transmitters, a receiver unit with a plurality of receivers, a transmitter control unit, and a receiver control unit, wherein each transmitter forms a transmitter/receiver pair with an associated receiver and a transmitter transmits a transmission beam to the associated receiver when the transmitter is activated, characterized in that the receiver control unit first activates all receivers and the transmitter control unit activates one after the other all transmitters once in a cycle with a steady cycle having uniform interval spacing, wherein at least two transmission beams in the cycle form a first and a second synchronization transmission beam which are transmitted at a defined time interval from one another and have a common identifier by which they are distinguished from the other transmission beams, wherein the first synchronization transmission beam, the second synchronization transmission beam, and the transmission beams are transmitted in an order which forms a defined sequence which is known to the transmitter control unit and the receiver control unit, and the defined time interval between two synchronization transmission beams in the cycle is unique, so that in the cycle a defined time interval between two synchronization transmission beams occurs only once, and wherein the receiver control unit determines the time difference between the arrival of the first second synchronization transmission beam and the second synchronization transmission beam and, on the basis of the defined distance, unambiguously allocates the first synchronization transmission beam and the second synchronization transmission beam within the totality of the transmission beams in the cycle.
A wavelength converting member, comprising: a fluorescent material containing at least one kind selected from the group consisting of a nitride-based fluorescent material and an oxynitride-based fluorescent material; and an aluminate containing at least one kind selected from the group consisting of a rare earth metal aluminate and an alkaline earth metal aluminate, wherein the content of an activating element selected from Ce, Eu and Mn in the aluminate is less than 50 ppm by mass, and the content of the aluminate in the wavelength converting member is 50% by mass or more. a fluorescent material containing at least one kind selected from the group consisting of a nitride-based fluorescent material and an oxynitride-based fluorescent material; and an aluminate containing at least one kind selected from the group consisting of a rare earth metal aluminate and an alkaline earth metal aluminate, wherein the content of an activating element selected from Ce, Eu and Mn in the aluminate is less than 50 ppm by mass, and the content of the aluminate in the wavelength converting member is 50% by mass or more.