mhurhangee/ep-ind-claims huggingface dataset:
Magazine for a firearm, the magazine comprising a hollow housing for retaining a plurality of cartridges and a follower arranged inside the hollow housing, the hollow housing comprising a first side wall, a second side wall opposing the first side wall and a feed opening for feeding the cartridges into the firearm, the first side wall comprising an outer first side wall surface and an inner first side wall surface and the second side wall comprising an outer second side wall surface and an inner second side wall surface such that an interior space of the hollow housing is provided between the inner first side wall surface and the inner second side wall surface, wherein the magazine further comprising: - a stopping member for preventing the follower from escaping out from the hollow housing, said stopping member is arranged to protrude from the inner first side wall surface toward the interior space of the hollow housing, the first side wall of the hollow housing comprising a first upper end and the second side wall of the hollow housing comprising a second upper end, the stopping member comprises a stopping surface for contacting the follower, the stopping member is arranged to the inner first side wall surface such that the stopping surface is at a first distance from the first upper end, the follower comprising a top surface for supporting a cartridge, a first side surface facing toward the inner first side wall surface of the hollow housing and a second side surface facing toward the inner second side wall surface of the hollow housing, the follower further comprising a projection for forming a contact point with the stopping surface in the stopping member, characterized in that the first side surface of the follower is arranged to have a narrowing and said projection is arranged in the narrowing. - a stopping member for preventing the follower from escaping out from the hollow housing, said stopping member is arranged to protrude from the inner first side wall surface toward the interior space of the hollow housing, the first side wall of the hollow housing comprising a first upper end and the second side wall of the hollow housing comprising a second upper end, the stopping member comprises a stopping surface for contacting the follower, the stopping member is arranged to the inner first side wall surface such that the stopping surface is at a first distance from the first upper end, the follower comprising a top surface for supporting a cartridge, a first side surface facing toward the inner first side wall surface of the hollow housing and a second side surface facing toward the inner second side wall surface of the hollow housing, the follower further comprising a projection for forming a contact point with the stopping surface in the stopping member, characterized in that the first side surface of the follower is arranged to have a narrowing and said projection is arranged in the narrowing.
An anti-integrin α8β1 antibody for use in a method of treatment of fibrosis, wherein the anti-integrin α8β1 antibody comprises heavy chain CDR1 having the amino acid sequence set forth in SEQ ID NO: 1, heavy chain CDR2 having the amino acid sequence set forth in SEQ ID NO: 2, heavy chain CDR3 having the amino acid sequence set forth in SEQ ID NO: 3, light chain CDR1 having the amino acid sequence set forth in SEQ ID NO: 4, light chain CDR2 having the amino acid sequence set forth in SEQ ID NO: 5, light chain CDR3 having the amino acid sequence set forth in SEQ ID NO: 6, wherein the anti-integrin α8β1 antibody inhibits binding of integrin α8β1 to a ligand.
A process shutter arrangement for a vacuum process system comprising: - a shutter disc having an essentially circumferential outer diameter D Do, a thickness t, a first surface, and a second surface, the disc comprising at least three positioning mortises in the first surface near the outer diameter D Do, each mortise being centered with respect to a radially axis ξ 1-3 in an xy-plane of the disc and having two long sides a positioned in parallel or right angled to the respective axis ξ 1-3; - a shutter arm comprising a bearing sickle with an inner periphery D Si, and at least three positioning tenons near or adjacent to the inner diameter D Si, and corresponding with positioning mortises to position the disc when set on the positioning tenons or on an optional bearing surface of the sickle. - a shutter disc having an essentially circumferential outer diameter D Do, a thickness t, a first surface, and a second surface, the disc comprising at least three positioning mortises in the first surface near the outer diameter D Do, each mortise being centered with respect to a radially axis ξ 1-3 in an xy-plane of the disc and having two long sides a positioned in parallel or right angled to the respective axis ξ 1-3; - a shutter arm comprising a bearing sickle with an inner periphery D Si, and at least three positioning tenons near or adjacent to the inner diameter D Si, and corresponding with positioning mortises to position the disc when set on the positioning tenons or on an optional bearing surface of the sickle.
A front loader comprising: a pair of left and right masts provided to a machine body frame in a detachable manner; a pair of left and right lifting arms coupled to the masts in a vertically rotatable manner; and work equipment mounted to the pair of left and right lifting arms, wherein each of the lifting arms includes a rear lifting arm attached to the mast and a front lifting arm attached to the work equipment, and each of the front lifting arm and the rear lifting arm has a hollow, rectangular cross-section when viewed in a direction in which the front lifting arm or the rear lifting arm extends; a rear end portion of the front lifting arm is inserted into a front end portion of the rear lifting arm, the rear lifting arm has a side plate whose front end portion is provided with a protruding portion that extends along a side plate of the front lifting arm, characterized in that the cross-sectional area of the protruding portion gradually decreases from its proximal end portion toward its distal end portion when viewed in a direction in which the front lifting arm extends, and under a state where the front lifting arm is inserted into the rear lifting arm, an overlap portion where the insertion portion overlaps the protruding portion is welded so that the front lifting arm is fixed to the rear lifting arm. a pair of left and right masts provided to a machine body frame in a detachable manner; a pair of left and right lifting arms coupled to the masts in a vertically rotatable manner; and work equipment mounted to the pair of left and right lifting arms, wherein each of the lifting arms includes a rear lifting arm attached to the mast and a front lifting arm attached to the work equipment, and each of the front lifting arm and the rear lifting arm has a hollow, rectangular cross-section when viewed in a direction in which the front lifting arm or the rear lifting arm extends; a rear end portion of the front lifting arm is inserted into a front end portion of the rear lifting arm, the rear lifting arm has a side plate whose front end portion is provided with a protruding portion that extends along a side plate of the front lifting arm, the cross-sectional area of the protruding portion gradually decreases from its proximal end portion toward its distal end portion when viewed in a direction in which the front lifting arm extends, and under a state where the front lifting arm is inserted into the rear lifting arm, an overlap portion where the insertion portion overlaps the protruding portion is welded so that the front lifting arm is fixed to the rear lifting arm.
An actuator device comprising: a support portion; a movable portion; a first connection portion connecting the movable portion to the support portion on a first axis so that the movable portion is swingable around the first axis; and a first wiring provided on the first connection portion, wherein the first wiring includes a first main body formed of a metal material having a Vickers hardness of 50 HV or more, wherein the first main body includes a first surface facing the first connection portion and a second surface other than the first surface, and wherein the second surface has a shape in which a curvature is continuous over the entire second surface in a cross-section perpendicular to an extension direction of the first wiring. a support portion; a movable portion; a first connection portion connecting the movable portion to the support portion on a first axis so that the movable portion is swingable around the first axis; and a first wiring provided on the first connection portion, wherein the first wiring includes a first main body formed of a metal material having a Vickers hardness of 50 HV or more, wherein the first main body includes a first surface facing the first connection portion and a second surface other than the first surface, and wherein the second surface has a shape in which a curvature is continuous over the entire second surface in a cross-section perpendicular to an extension direction of the first wiring.
A bi-directional AC to DC converter (1;500;600;700) comprising: - a first AC terminal for connection to a first AC circuit terminal; - a neutral line terminal for connection to a neutral AC circuit terminal; - a common node; - a first AC side active bridge (16;510;606;702) having a first and a second outer terminal, the first outer terminal being coupled to the first AC terminal and the second outer terminal being coupled to the common node; - a neutral voltage lift capacitor (20;515;705) coupled between the neutral line terminal and the common node; - a first DC terminal; - a second DC terminal; - a buffer capacitor arranged between the first DC terminal and the second DC terminal; - a DC-side active bridge (24;513;610;703) coupled between the first DC terminal and the second DC terminal; - a first inductance (45;616;706) coupled between a switchable inner node of a leg of the first AC side active bridge and a switchable node of the DC side active bridge; - a controller (30;516;620;720) arranged to control the first AC side active bridge and the DC-side active bridge so that an alternating voltage across the first AC terminal and the neutral line terminal is converted to and from a direct voltage across the first DC terminal and the second DC terminal, wherein a voltage across the neutral voltage lift capacitor is created such that a voltage (V R -V A) between the first AC terminal and the neutral line terminal is always positive. - a first AC terminal for connection to a first AC circuit terminal; - a neutral line terminal for connection to a neutral AC circuit terminal; - a common node; - a first AC side active bridge (16;510;606;702) having a first and a second outer terminal, the first outer terminal being coupled to the first AC terminal and the second outer terminal being coupled to the common node; - a neutral voltage lift capacitor (20;515;705) coupled between the neutral line terminal and the common node; - a first DC terminal; - a second DC terminal; - a buffer capacitor arranged between the first DC terminal and the second DC terminal; - a DC-side active bridge (24;513;610;703) coupled between the first DC terminal and the second DC terminal; - a first inductance (45;616;706) coupled between a switchable inner node of a leg of the first AC side active bridge and a switchable node of the DC side active bridge; - a controller (30;516;620;720) arranged to control the first AC side active bridge and the DC-side active bridge so that an alternating voltage across the first AC terminal and the neutral line terminal is converted to and from a direct voltage across the first DC terminal and the second DC terminal, wherein a voltage across the neutral voltage lift capacitor is created such that a voltage (V R -V A) between the first AC terminal and the neutral line terminal is always positive.
A biodegradable polymeric composite represented by the formula: SMAC − D + B S W, wherein: SMAC- represents a styrene maleic acid copolymer in acid form and/or anionic with a neutralization of the SMAC copolymer of 48-58 % and leading to a solution of the copolymer salt with a concentration higher than 25%; D represents a counterion when SMAC is in anionic form; B represents a biopolymer selected from a protein, soybean protein, collagen, collagenic biopolymer, gelatin, collagen hydrolysate, albumin, guar or starch and casein, S represents coating agent selected from glycerin, ethylene glycol, propylene glycol, polyethylene glycol or polyether hydroxyl W represents water bonded to the composite; the polymeric composite having an absorbency under load that is higher than 20g/g in aqueous solution of 0.9% NaCl at pressure of 0.9 psi (6205.28 Pa). SMAC- represents a styrene maleic acid copolymer in acid form and/or anionic with a neutralization of the SMAC copolymer of 48-58 % and leading to a solution of the copolymer salt with a concentration higher than 25%; D represents a counterion when SMAC is in anionic form; B represents a biopolymer selected from a protein, soybean protein, collagen, collagenic biopolymer, gelatin, collagen hydrolysate, albumin, guar or starch and casein, S represents coating agent selected from glycerin, ethylene glycol, propylene glycol, polyethylene glycol or polyether hydroxyl W represents water bonded to the composite; the polymeric composite having an absorbency under load that is higher than 20g/g in aqueous solution of 0.9% NaCl at pressure of 0.9 psi (6205.28 Pa).
A transmission apparatus comprising: a calculating section that generates parity bits by an encoding operation that uses a low density parity check convolutional code, referred to as LDPC-CC, for an information sequence, made up of a plurality of bits, and a known information sequence made up of known information bits to be added at a rear end of the information sequence; and a transmitting section that transmits the information sequence and the parity bits generated by the encoding operation, characterized in that the transmission apparatus further comprises a determining section that determines the sequence length of a first parity sequence according to the belonging of the sequence length of the information sequence to one of predetermined ranges of sequence lengths of information sequences and the coding rate of the LDPC-CC, the first parity sequence being a part of the parity bits and being generated using the known information sequence, the calculating section adds the known information sequence at the rear end of the information sequence based on the determined sequence length of the first parity sequence, and generates the parity bits by the encoding operation that uses the low density parity check convolutional code, and the determined sequence length of the first parity sequence has a different sequence length per predetermined range of sequence lengths of information sequences. a calculating section that generates parity bits by an encoding operation that uses a low density parity check convolutional code, referred to as LDPC-CC, for an information sequence, made up of a plurality of bits, and a known information sequence made up of known information bits to be added at a rear end of the information sequence; and a transmitting section that transmits the information sequence and the parity bits generated by the encoding operation, characterized in that the transmission apparatus further comprises a determining section that determines the sequence length of a first parity sequence according to the belonging of the sequence length of the information sequence to one of predetermined ranges of sequence lengths of information sequences and the coding rate of the LDPC-CC, the first parity sequence being a part of the parity bits and being generated using the known information sequence, the calculating section adds the known information sequence at the rear end of the information sequence based on the determined sequence length of the first parity sequence, and generates the parity bits by the encoding operation that uses the low density parity check convolutional code, and the determined sequence length of the first parity sequence has a different sequence length per predetermined range of sequence lengths of information sequences.
Method for calibrating a sensor, in particular a turbidity sensor in a domestic appliance, e.g. a dishwasher or a washing machine, with the aid of reference values ( m a s ̅, m* a s) with the following steps: - establishing at least two measured values (m a s) in at least one cleaning program sequence (s), - selection of at least one measured value (m a s) by methods of statistics or probability calculation, which are not taken into further consideration in the following step and - establishing at least one possible reference value ( m a s ̅, m* a s) for the calibration of the sensor from the measured value (m a s) not selected and - selection of an optimal reference value ( m a s ̅, m* a s) from the at least one possible reference value ( m a s ̅, m* a s), provided more than two possible reference values ( m a s ̅, m* a s) have been established. - establishing at least two measured values (m a s) in at least one cleaning program sequence (s), - selection of at least one measured value (m a s) by methods of statistics or probability calculation, which are not taken into further consideration in the following step and - establishing at least one possible reference value ( m a s ̅, m* a s) for the calibration of the sensor from the measured value (m a s) not selected and - selection of an optimal reference value ( m a s ̅, m* a s) from the at least one possible reference value ( m a s ̅, m* a s), provided more than two possible reference values ( m a s ̅, m* a s) have been established.
A food product comprising a flavor composition comprising a dipeptide, wherein the peptide is present at a concentration of from 0.1ppb to 1000 ppb of the food product, and wherein the peptide comprises: (i) pyroglutamic acid (pGlu); and (ii) a second amino acid selected from the group consisting of glycine (Gly), alanine (Ala), valine (Val), leucine (Leu), isoleucine (Ile), proline (Pro), phenylalanine (Phe), methionine (Met), tyrosine (Tyr), tryptophan (Trp) and cysteine (Cys). (i) pyroglutamic acid (pGlu); and (ii) a second amino acid selected from the group consisting of glycine (Gly), alanine (Ala), valine (Val), leucine (Leu), isoleucine (Ile), proline (Pro), phenylalanine (Phe), methionine (Met), tyrosine (Tyr), tryptophan (Trp) and cysteine (Cys).
A process for controlling chlorination reactions in manufacturing titanium tetrachloride in a fluidized bed reactor, optionally followed by processing to form a titanium product comprising an amount of silica, the process comprising: (a) feeding carbonaceous material, titanium bearing material comprising an amount of silica, and chlorine to the fluidized bed reactor to form a gaseous stream, and condensing the gaseous stream to form titanium tetrachloride, a non-condensed gas stream and a condensable product stream, wherein at least one of the titanium tetrachloride and the non-condensed gas stream comprise silicon tetrachloride; (b) analyzing the non-condensed gas stream, the titanium tetrachloride or both, to determine the analyzed concentration of silicon tetrachloride; (c) identifying a set point concentration of silicon tetrachloride based on the desired amount of silica in the titanium product; (d) calculating the difference between the analyzed concentration of silicon tetrachloride and the set point concentration of silicon tetrachloride; and (e) generating a signal which corresponds to the difference calculated in step (d) which provides a feedback response that controls the flow of the titanium bearing material into the fluidized bed reactor. (a) feeding carbonaceous material, titanium bearing material comprising an amount of silica, and chlorine to the fluidized bed reactor to form a gaseous stream, and condensing the gaseous stream to form titanium tetrachloride, a non-condensed gas stream and a condensable product stream, wherein at least one of the titanium tetrachloride and the non-condensed gas stream comprise silicon tetrachloride; (b) analyzing the non-condensed gas stream, the titanium tetrachloride or both, to determine the analyzed concentration of silicon tetrachloride; (c) identifying a set point concentration of silicon tetrachloride based on the desired amount of silica in the titanium product; (d) calculating the difference between the analyzed concentration of silicon tetrachloride and the set point concentration of silicon tetrachloride; and (e) generating a signal which corresponds to the difference calculated in step (d) which provides a feedback response that controls the flow of the titanium bearing material into the fluidized bed reactor.
A method for transmitting and receiving data between nodes (1, 2), a plurality of the nodes (1, 2) each performing a periodical standby operation at a specific interval, the method for transmitting and receiving data comprising: a detecting step of detecting another communicable node (1, 2) within a communication network that is performed by one node (1, 2); characterized by a consecutive transmitting step of consecutively transmitting notice information representing data transmission timing to the another communicable node (1, 2) for a plurality of number of times at a predetermined interval by using the one node (1, 2) to extend over one period of the periodical standby operation of the another node (1, 2); a notice standby step of performing a standby operation for data according to the data transmission timing represented in the notice information that is performed by the another node (1, 2) receiving the notice information within the periodical standby operation; a notice transmitting step of transmitting the notice information to the another node according to the data transmission timing that is performed by the one node; and a notice receiving step of receiving the transmission data transmitted from the one node according to the notified data transmission timing that is performed by the another node. a detecting step of detecting another communicable node (1, 2) within a communication network that is performed by one node (1, 2); characterized by a consecutive transmitting step of consecutively transmitting notice information representing data transmission timing to the another communicable node (1, 2) for a plurality of number of times at a predetermined interval by using the one node (1, 2) to extend over one period of the periodical standby operation of the another node (1, 2); a notice standby step of performing a standby operation for data according to the data transmission timing represented in the notice information that is performed by the another node (1, 2) receiving the notice information within the periodical standby operation; a notice transmitting step of transmitting the notice information to the another node according to the data transmission timing that is performed by the one node; and a notice receiving step of receiving the transmission data transmitted from the one node according to the notified data transmission timing that is performed by the another node.