mhurhangee/ep-ind-claims huggingface dataset:
Device for dispensing measured quantities of a liquid material comprising a hollow containment body which defines inside thereof a chamber capable of receiving said liquid material to be dispensed, said containment body having at one end at least one loading opening and at least one discharge opening arranged to allow respectively a predefined quantity of said liquid material to be inserted in said chamber and said predefined quantity of said liquid material to be dispensed; a piston shiftable inside said chamber, along a longitudinal direction parallel to a longitudinal axis of said containment body; a valve arranged inside said chamber, close to said end of said containment body, said valve being operable in rotation around an axis parallel to said longitudinal axis between a first configuration, where it connects said chamber directly with said at least one loading opening, and in a second configuration, where it connects said chamber directly with said discharge opening, said valve being mounted matching a first flange, which defines a top surface of said containing body, the surfaces of said valve and of said first flange making a sealing, in a step of loading said liquid material in said chamber and in a step of discharging said liquid material from said chamber, so that the phenomena of leakage of said liquid material are avoided, said valve comprising a stem, which develops longitudinally through said first flange; elastic means associated with said stem and with said first flange, said elastic means being capable of ensuring contact between said valve and said first flange in said step of loading said liquid material in said chamber and in said step of discharging said liquid material from said chamber; a safety member, associated with said stem, which cooperates with said elastic means in order to ensure the contact, in said loading and unloading steps of said liquid material, of said first flange with said valve.
A method for analyzing a target of an eye in vivo wherein said method comprises the steps of: configuring a head mountable frame, said frame including a turning mirror (111, 113) to direct a probe beam to said target, and configured to coarsely axially length align the probe beam with said target; coupling an OCT photonic module with said frame, such that the probe beam of said OCT photonic module is laterally aligned with said eye and directed into said eye by means of said turning mirror (111, 113) dynamically adjusting a selected optical path length of said OCT photonic module such that said probe beam is finely axially length aligned with the target of said eye; acquiring interference signals acquired by the OCT photonic module; and processing said acquired interference signals and outputting an analysis of said target. configuring a head mountable frame, said frame including a turning mirror (111, 113) to direct a probe beam to said target, and configured to coarsely axially length align the probe beam with said target; coupling an OCT photonic module with said frame, such that the probe beam of said OCT photonic module is laterally aligned with said eye and directed into said eye by means of said turning mirror (111, 113) dynamically adjusting a selected optical path length of said OCT photonic module such that said probe beam is finely axially length aligned with the target of said eye; acquiring interference signals acquired by the OCT photonic module; and processing said acquired interference signals and outputting an analysis of said target.
A motor-operated drive for a drive rod lock, having an electric motor, with a gearbox for driving a drive rod connection slide provided for coupling with a drive rod, having a coupling for selective generation or separation of a force flow between electric motor and drive rod connection side and having an electromagnet for controlling the coupling, characterized in that the electromagnet for controlling the coupling with a pair of gear wheels of the gearbox forms one structural unit.
A structured aqueous liquid detergent composition comprising: at least 10 wt% water, at least 0.5 wt% surfactant, at least 0.0001 wt% of cellulase and /or pectate lyase an external structurant, characterised in that the external structurant comprises at least 0.15 wt%, preferably at least 0.2%, apple fibre that has been mechanically pulped and swollen in water to an extent that it can absorb at least 10 times its own dry weight of water. at least 10 wt% water, at least 0.5 wt% surfactant, at least 0.0001 wt% of cellulase and /or pectate lyase an external structurant,
A method for surface treatment of a stainless steel separator for a fuel cell, comprising: preparing a stainless steel sheet containing nickel, chrome and iron, and having a passive film on a surface of the stainless steel sheet; and dipping the stainless steel sheet into an etching solution formed by mixing one of oxalic acid (C2H2O4) and hydrogen peroxide (H2O2) with a solution of nitric acid (HNO 3) and sulfuric acid (H2SO4) prepared as a basic solution to selectively lower an amount of Fe in the passive film formed on the surface of the stainless steel sheet, wherein the etching solution comprises 5∼20 wt% pure nitric acid, 2∼15 wt% pure sulfuric acid (H2SO4), 0.5∼10 wt% pure oxalic acid (C2H2O4), and the balance of water. preparing a stainless steel sheet containing nickel, chrome and iron, and having a passive film on a surface of the stainless steel sheet; and dipping the stainless steel sheet into an etching solution formed by mixing one of oxalic acid (C2H2O4) and hydrogen peroxide (H2O2) with a solution of nitric acid (HNO 3) and sulfuric acid (H2SO4) prepared as a basic solution to selectively lower an amount of Fe in the passive film formed on the surface of the stainless steel sheet, wherein the etching solution comprises 5∼20 wt% pure nitric acid, 2∼15 wt% pure sulfuric acid (H2SO4), 0.5∼10 wt% pure oxalic acid (C2H2O4), and the balance of water.
An item of cushioning (1510, 1520, 1530) produced using an additive manufacturing device, comprising: a plurality of curved layers each formed by the additive manufacturing device, wherein a curved layer of the plurality of curved layers forms an outer layer (1512, 1514, 1522, 1524, 1532, 1534) of the item of cushioning, and a first area with a first thickness and a second area with a second thickness, wherein the first area has a greater thickness than the second area and comprises a greater number of curved layers than the second area, wherein a number of infill layers (1516, 1526, 1536) between the curved layer and another outer layer (1512, 1514, 1522, 1524, 1532, 1534) of the item varies along the item to form a curvature of the curved layer, wherein the item of cushioning is an insole, wherein the curved layer corresponds to a top layer of the item of cushioning, and the other outer layer corresponds to a bottom layer of the item of cushioning, and wherein a curvature of the infill layers is based on at least one of the curved layer and the other outer layer. a plurality of curved layers each formed by the additive manufacturing device, wherein a curved layer of the plurality of curved layers forms an outer layer (1512, 1514, 1522, 1524, 1532, 1534) of the item of cushioning, and a first area with a first thickness and a second area with a second thickness, wherein the first area has a greater thickness than the second area and comprises a greater number of curved layers than the second area, wherein a number of infill layers (1516, 1526, 1536) between the curved layer and another outer layer (1512, 1514, 1522, 1524, 1532, 1534) of the item varies along the item to form a curvature of the curved layer, wherein the item of cushioning is an insole, wherein the curved layer corresponds to a top layer of the item of cushioning, and the other outer layer corresponds to a bottom layer of the item of cushioning, and wherein a curvature of the infill layers is based on at least one of the curved layer and the other outer layer.
An optical device comprising: first and second outer substrates; a liquid crystal element positioned between the first and second outer substrates and having a structure in which a first base layer, a liquid crystal layer and a second base layer are sequentially laminated; and an adhesive film positioned between the first outer substrate and the liquid crystal element and between the second outer substrate and the liquid crystal element, characterized in that the first base layer and the second base layer each have a flexural rigidity of 2.2 ∗ 10 -4 N·m to 1 ∗ 10 -2 Nm, as represented by Equation 1 below. D = Eh e 3 12 1 − υ 2 wherein, D is the flexural rigidity of the base layer, E is the Young's modulus of the base layer, h e is the thickness of the base layer, and υ is the Poisson's ratio of the base layer. first and second outer substrates; a liquid crystal element positioned between the first and second outer substrates and having a structure in which a first base layer, a liquid crystal layer and a second base layer are sequentially laminated; and an adhesive film positioned between the first outer substrate and the liquid crystal element and between the second outer substrate and the liquid crystal element,
A method of processing a multichannel signal that includes a first audio input channel and a second audio input channel, said method comprising: performing an active noise cancellation operation on the first audio input channel to produce an antinoise signal; processing the multichannel signal to obtain a source component, said processing including performing a spatially selective processing operation on the multichannel signal to separate the source component from a background component; processing the obtained separated source component to produce a target component: producing an augmented signal from the target component, wherein the augmented signal is a stereo signal providing a perceived direction of arrival corresponding to a direction of arrival associated with the obtained separated source component, wherein the direction of arrival associated with the obtained separated source component is determined from the first audio input channel and second audio input channel; and combining the antinoise signal and the augmented signal to produce an audio output signal. performing an active noise cancellation operation on the first audio input channel to produce an antinoise signal; processing the multichannel signal to obtain a source component, said processing including performing a spatially selective processing operation on the multichannel signal to separate the source component from a background component; processing the obtained separated source component to produce a target component: producing an augmented signal from the target component, wherein the augmented signal is a stereo signal providing a perceived direction of arrival corresponding to a direction of arrival associated with the obtained separated source component, wherein the direction of arrival associated with the obtained separated source component is determined from the first audio input channel and second audio input channel; and combining the antinoise signal and the augmented signal to produce an audio output signal. producing an augmented signal from the target component, wherein the augmented signal is a stereo signal providing a perceived direction of arrival corresponding to a direction of arrival associated with the obtained separated source component, wherein the direction of arrival associated with the obtained separated source component is determined from the first audio input channel and second audio input channel; and combining the antinoise signal and the augmented signal to produce an audio output signal.
A method for migrating data between storage devices, wherein a first storage device comprises a source controller, a first solid state storage disk, SSD,, and a first network interface card comprising a first migration cache, the second storage device comprises a second solid state storage disk, SSD,, and a second network interface card comprising a second migration cache, and the method comprises: receiving, by the first network interface card, a first migration instruction, sent by the source controller, wherein the first migration instruction comprises an address of the data stored in the first SSD; in response to the receiving of the first migration instruction, obtaining, by the first network interface card, the data from the first SSD based on the address and reading the data into the first migration cache; sending, by the first network interface card, a second migration instruction to the second network interface card, the second migration instruction comprises access information of the first migration cache and an address of the second SSD, the access information of the first migration cache comprises information about the data stored in the migration cache; in response to the sending of the second migration instruction, reading, by the second network interface card, the data into the second migration cache of the second network interface card; sending a write instruction by the second network interface card, to write the data to the second SSD. receiving, by the first network interface card, a first migration instruction, sent by the source controller, wherein the first migration instruction comprises an address of the data stored in the first SSD; in response to the receiving of the first migration instruction, obtaining, by the first network interface card, the data from the first SSD based on the address and reading the data into the first migration cache; sending, by the first network interface card, a second migration instruction to the second network interface card, the second migration instruction comprises access information of the first migration cache and an address of the second SSD, the access information of the first migration cache comprises information about the data stored in the migration cache; in response to the sending of the second migration instruction, reading, by the second network interface card, the data into the second migration cache of the second network interface card; sending a write instruction by the second network interface card, to write the data to the second SSD.
Method of reducing the content of NO x and N 2 O in gases, which comprises the measures: a) passage of the N 2 O- and NO x -containing gas over two catalyst beds of which the first containing a catalyst for the decomposition of N 2 O into nitrogen and oxygen and the second catalyst bed containing a catalyst for the chemical reaction of NO x and N 2 O with a reducing agent, b) selection of temperature, pressure and space velocity in the first catalyst bed so that the decrease in the N 2 O content of the gas occurring in this is not more than 95%, based on the N 2 O content at the entrance of the first catalyst bed, and c) addition of a reducing agent for NO x and a reducing agent for N 2 O between the first and second catalyst beds, where the added amount of reducing agent is greater than that necessary for the reduction of NO x at the selected reaction conditions of pressure, temperature and space velocity, so that not only a decrease in the proportion of NO x in the gas mixture to a residual content of less than 20 ppm but also a further decrease in the N 2 O content of the gas by chemical reduction of at least 50%, based on the N 2 O content at the inlet of the second catalyst bed, occurs in the second catalyst bed. a) passage of the N 2 O- and NO x -containing gas over two catalyst beds of which the first containing a catalyst for the decomposition of N 2 O into nitrogen and oxygen and the second catalyst bed containing a catalyst for the chemical reaction of NO x and N 2 O with a reducing agent, b) selection of temperature, pressure and space velocity in the first catalyst bed so that the decrease in the N 2 O content of the gas occurring in this is not more than 95%, based on the N 2 O content at the entrance of the first catalyst bed, and c) addition of a reducing agent for NO x and a reducing agent for N 2 O between the first and second catalyst beds, where the added amount of reducing agent is greater than that necessary for the reduction of NO x at the selected reaction conditions of pressure, temperature and space velocity, so that not only a decrease in the proportion of NO x in the gas mixture to a residual content of less than 20 ppm but also a further decrease in the N 2 O content of the gas by chemical reduction of at least 50%, based on the N 2 O content at the inlet of the second catalyst bed, occurs in the second catalyst bed.
A modified relaxin polypeptide comprising a non-naturally encoded amino acid, wherein: (a) the modified relaxin polypeptide comprises the relaxin A chain polypeptide of SEQ ID NO: 4 and the relaxin B chain polypeptide of SEQ ID NO: 5 or SEQ ID NO: 6, substituted with a non-naturally encoded amino acid at A chain residue 1, and the modified relaxin polypeptide has 0, 1 or 2 additional amino acid substitutions, insertions and/or deletions in said relaxin A chain and/or said relaxin B chain; (b) said non-naturally encoded amino acid has the structure: wherein the R group is any substituent other than the side chain found in alanine, arginine, asparagine, aspartic acid, cysteine, glutamine, glutamic acid, glycine, histidine, isoleucine, leucine, lysine, methionine, phenylalanine, proline, serine, threonine, tryptophan, tyrosine or valine; (c) said non-naturally encoded amino acid is linked to a pharmacokinetic enhancer comprising a peptide component between 2 and 30 amino acids and a half-life extending moiety; and (d) said peptide component comprises GGGGS-Glu γ (SEQ ID NO: 139), DRDDRD (SEQ ID NO: 102), KKKKKK-Glu γ (SEQ ID NO: 103), RGGEEKKKEKEK-Glu γ (SEQ ID NO: 104), GGGEEE-Glu γ (SEQ ID NO: 105), EEEGGG-Glu γ (SEQ ID NO: 106), KKKGGG-Glu γ (SEQ ID NO: 107), GGGKKK-Glu γ (SEQ ID NO: 109), GSHHHHHGS-Glu γ (SEQ ID NO: 110), Sar-Sar-Sar-Sar-Ser-Glu γ (SEQ ID NO: 112), Sar-Sar-Sar-Glu-Glu-Glu γ (SEQ ID NO: 113), or KSGGSGG-Glu γ (SEQ ID NO: 117), or preferably comprises Glu γ, more preferably comprises GGGGS-Glu γ (SEQ ID NO: 139); and wherein said modified relaxin polypeptide is biologically active. (a) the modified relaxin polypeptide comprises the relaxin A chain polypeptide of SEQ ID NO: 4 and the relaxin B chain polypeptide of SEQ ID NO: 5 or SEQ ID NO: 6, substituted with a non-naturally encoded amino acid at A chain residue 1, and the modified relaxin polypeptide has 0, 1 or 2 additional amino acid substitutions, insertions and/or deletions in said relaxin A chain and/or said relaxin B chain; (b) said non-naturally encoded amino acid has the structure: wherein the R group is any substituent other than the side chain found in alanine, arginine, asparagine, aspartic acid, cysteine, glutamine, glutamic acid, glycine, histidine, isoleucine, leucine, lysine, methionine, phenylalanine, proline, serine, threonine, tryptophan, tyrosine or valine; (c) said non-naturally encoded amino acid is linked to a pharmacokinetic enhancer comprising a peptide component between 2 and 30 amino acids and a half-life extending moiety; and (d) said peptide component comprises GGGGS-Glu γ (SEQ ID NO: 139), DRDDRD (SEQ ID NO: 102), KKKKKK-Glu γ (SEQ ID NO: 103), RGGEEKKKEKEK-Glu γ (SEQ ID NO: 104), GGGEEE-Glu γ (SEQ ID NO: 105), EEEGGG-Glu γ (SEQ ID NO: 106), KKKGGG-Glu γ (SEQ ID NO: 107), GGGKKK-Glu γ (SEQ ID NO: 109), GSHHHHHGS-Glu γ (SEQ ID NO: 110), Sar-Sar-Sar-Sar-Ser-Glu γ (SEQ ID NO: 112), Sar-Sar-Sar-Glu-Glu-Glu γ (SEQ ID NO: 113), or KSGGSGG-Glu γ (SEQ ID NO: 117), or preferably comprises Glu γ, more preferably comprises GGGGS-Glu γ (SEQ ID NO: 139); and wherein said modified relaxin polypeptide is biologically active.
An antibody comprising an antigen binding domain which binds to human IL-12 and human IL-23, wherein the antibody comprises 3 heavy chain CDR sequences as follows: HCDR1 DYYLH, HCDR2 WIDPENGDTEX 2 APKFQG, wherein; X 2 = Y, H, or S; HCDR3 NKELRYFDV, and 3 light chain CDR sequences as follows: LCDR1 RASQSISINLH, LCDR2 FASQSIS, LCDR3 QQSNSFPLT; and wherein the antibody further comprises a human heavy chain acceptor framework sequence selected from the group consisting of FR1 SEQ ID NO: 202, FR2 SEQ ID NO: 203, FR3 SEQ ID NO: 208, FR4 SEQ ID NO: 205, FR1 SEQ ID NO: 206, FR2 SEQ ID NO: 207 FR3 SEQ ID NO: 204 and FR4 SEQ ID NO: 209, a human light chain acceptor framework sequence selected from the group consisting of FR1 SEQ ID NO: 210, FR2 SEQ ID NO: 211, FR3 SEQ ID NO: 216, FR4 SEQ ID NO: 213, FR1 SEQ ID NO: 214, FR2 SEQ ID NO: 215 and FR3 SEQ ID NO: 212. HCDR1 DYYLH, HCDR2 WIDPENGDTEX 2 APKFQG, wherein; X 2 = Y, H, or S; HCDR3 NKELRYFDV, LCDR1 RASQSISINLH, LCDR2 FASQSIS, LCDR3 QQSNSFPLT; FR1 SEQ ID NO: 202, FR2 SEQ ID NO: 203, FR3 SEQ ID NO: 208, FR4 SEQ ID NO: 205, FR1 SEQ ID NO: 206, FR2 SEQ ID NO: 207 FR3 SEQ ID NO: 204 and FR4 SEQ ID NO: 209, a human light chain acceptor framework sequence selected from the group consisting of FR1 SEQ ID NO: 210, FR2 SEQ ID NO: 211, FR3 SEQ ID NO: 216, FR4 SEQ ID NO: 213, FR1 SEQ ID NO: 214, FR2 SEQ ID NO: 215 and FR3 SEQ ID NO: 212.
Screw for screwing into a dental implant for securing an abutment, comprising a threaded stem which is screwed into the dental implant, where the threaded stem has a cavity to receive at least one fluid-filled container which is closed by a plunger which is pushed into the cavity, where the cavity has outlet openings for the fluid which are formed by longitudinal slots made in the threaded stem and/or by a porous design of the threaded stem.