mhurhangee/ep-ind-claims huggingface dataset:
An agent for dyeing keratinous material, in particular human hair, containing at least one amino-functionalized silicone polymer comprising structural units of formula (Si-I) and formula (Si-II) and at least one coloring compound, and at least one preservative from the group of 2-phenoxyethanol, 4-hydroxybenzoic acid methyl ester, 4-hydroxybenzoic acid propyl ester, benzyl alcohol, 1-phenoxy-propan-2-ol, isopropanol, ethanol, zinc pyrithione, benzoic acid, salicylic acid, sorbic acid, formic acid, propionic acid, 2-hydroxydiphenyl, 4-hydroxybenzoic acid, dehydroacetic acid, dibromohexamidine, 10-undecylenic acid, hexetidinum, trichlorocarban, triclosanum, 4-chloro-3,4-dimethylphenol, imidazolidinyl urea, hexamethylenetetramine, 1-(4-chlorophenoxy)-1-(imidazol-1-yl)-3,3-dimethyl-2-butanone, 1,3-bis-(hydroxymethyl)-5,5-dimethyl-2,4-imidazolidinedione, 1-hydroxy-4-methyl-6-(2,4,4-trimethylpentyl)-2-pyridone, bromochlorophene, 3-methyl-4-(1-methylethyl)phenol, 5-chloro-2-methyl-3 -isothiazolone, 2-benzyl-4-chlorophenol, 2-chloroacetamide, chlorhexidine, 4,4-dimethyl-1,3-oxazolidine, hexamidinum, 5-ethyl-1-aza-3,7-dioxabicyclo-[3.3.0]-octane, chlorphenesin, sodium hydroxymethyl aminoacetate, benzyl hemiformal, 3-iodo-2-propynyl-butylcarbamate, methylisothiazolinone and ethyl lauroyl arginate, and at least one non-ionic surfactant from the group of addition products of ethylene oxide to C 8 -C 24 fatty alcohols. at least one amino-functionalized silicone polymer comprising structural units of formula (Si-I) and formula (Si-II) and at least one coloring compound, and at least one preservative from the group of 2-phenoxyethanol, 4-hydroxybenzoic acid methyl ester, 4-hydroxybenzoic acid propyl ester, benzyl alcohol, 1-phenoxy-propan-2-ol, isopropanol, ethanol, zinc pyrithione, benzoic acid, salicylic acid, sorbic acid, formic acid, propionic acid, 2-hydroxydiphenyl, 4-hydroxybenzoic acid, dehydroacetic acid, dibromohexamidine, 10-undecylenic acid, hexetidinum, trichlorocarban, triclosanum, 4-chloro-3,4-dimethylphenol, imidazolidinyl urea, hexamethylenetetramine, 1-(4-chlorophenoxy)-1-(imidazol-1-yl)-3,3-dimethyl-2-butanone, 1,3-bis-(hydroxymethyl)-5,5-dimethyl-2,4-imidazolidinedione, 1-hydroxy-4-methyl-6-(2,4,4-trimethylpentyl)-2-pyridone, bromochlorophene, 3-methyl-4-(1-methylethyl)phenol, 5-chloro-2-methyl-3 -isothiazolone, 2-benzyl-4-chlorophenol, 2-chloroacetamide, chlorhexidine, 4,4-dimethyl-1,3-oxazolidine, hexamidinum, 5-ethyl-1-aza-3,7-dioxabicyclo-[3.3.0]-octane, chlorphenesin, sodium hydroxymethyl aminoacetate, benzyl hemiformal, 3-iodo-2-propynyl-butylcarbamate, methylisothiazolinone and ethyl lauroyl arginate, and at least one non-ionic surfactant from the group of addition products of ethylene oxide to C 8 -C 24 fatty alcohols.
Solid matter valve for pressurized cans, in particular for the dispensing/discharging of assembly foams, with a valve disk, a valve body arranged in the valve disk, a stem mounted in a central cutout of the valve body and having at least one inlet opening for the contents of the pressurized can, said opening being cleared by actuation of the stem, with at least one discharge opening, a duct connecting the inlet opening with the discharge opening, at least one sealing element acting between the valve body and the stem, as well as a spring element, characterized in that the stem is designed so as to form two parts, on upper part being connected to a lower part in a form-closed or force-closed manner, a circumferential elastic diaphragm integrally connecting the valve body to the upper part of the stem, and the two parts (3a, 3b) of the stem forming a functional unit which accommodates the duct.
A method for selecting a material of an injection-molded article comprising steps of: preparing a first specimen in a form of a sheet having a width of 6 mm, a height of 10 mm and a thickness of 0.3 mm using polyethylene; preparing a second specimen in a form of a dog bone having a thickness of 3 mm, a width of 3 mm and an elongation part length of 13 mm by injection-molding of said polyethylene; measuring a complex modulus of the first specimen at 25°C; measuring elongation in the transverse direction and elongation in the longitudinal direction of the second specimen at 25°C to determine an elongation ratio (A/B); and selecting the polyethylene having the complex modulus of 1.80 GPa or less and the elongation ratio (A/B) of 2.8 or less as a material for injection molding, wherein the step of measuring the complex modulus of the first specimen comprises melting polyethylene pellets at 200°C, applying the melted polyethylene pellets to a pressing process at a molding pressure of 20 to 25 MPa to prepare the first specimen, and applying a displacement of 0.1% at a frequency of 1 Hz to the first specimen in the longitudinal direction of the first specimen at 25°C, wherein the step of determining the elongation ratio of the second specimen comprises injection-molding polyethylene by an injection molding method with a resin temperature of 230°C, a mold temperature of 50°C and a molding pressure of 0.9 to 1.0 MPa to prepare the second specimen, and measuring the elongation in the transverse direction and the elongation in the longitudinal direction at an elongation speed of 300 mm/min at 25°C. preparing a first specimen in a form of a sheet having a width of 6 mm, a height of 10 mm and a thickness of 0.3 mm using polyethylene; preparing a second specimen in a form of a dog bone having a thickness of 3 mm, a width of 3 mm and an elongation part length of 13 mm by injection-molding of said polyethylene; measuring a complex modulus of the first specimen at 25°C; measuring elongation in the transverse direction and elongation in the longitudinal direction of the second specimen at 25°C to determine an elongation ratio (A/B); and selecting the polyethylene having the complex modulus of 1.80 GPa or less and the elongation ratio (A/B) of 2.8 or less as a material for injection molding, wherein the step of measuring the complex modulus of the first specimen comprises melting polyethylene pellets at 200°C, applying the melted polyethylene pellets to a pressing process at a molding pressure of 20 to 25 MPa to prepare the first specimen, and applying a displacement of 0.1% at a frequency of 1 Hz to the first specimen in the longitudinal direction of the first specimen at 25°C, wherein the step of determining the elongation ratio of the second specimen comprises injection-molding polyethylene by an injection molding method with a resin temperature of 230°C, a mold temperature of 50°C and a molding pressure of 0.9 to 1.0 MPa to prepare the second specimen, and measuring the elongation in the transverse direction and the elongation in the longitudinal direction at an elongation speed of 300 mm/min at 25°C.
A signal processing apparatus comprising: a coefficient update unit configured to approximate a characteristic of an optical transmission line of an optical signal by a first tap coefficient vector of which an L0 norm is a predetermined value or less; a zeroing unit configured to generate a second tap coefficient vector by replacing, with 0, a tap coefficient of which an absolute value is less than a threshold, among tap coefficients of the first tap coefficient vector; and an adaptive filter configured to perform adaptive equalization processing, based on the second tap coefficient vector, on a digital signal corresponding to an optical signal received via the optical transmission line, wherein the coefficient update unit approximates the characteristic of the optical transmission line by the first tap coefficient vector using an algorithm of a steepest descent method having a constraint that the L0 norm is a predetermined value or less. a coefficient update unit configured to approximate a characteristic of an optical transmission line of an optical signal by a first tap coefficient vector of which an L0 norm is a predetermined value or less; a zeroing unit configured to generate a second tap coefficient vector by replacing, with 0, a tap coefficient of which an absolute value is less than a threshold, among tap coefficients of the first tap coefficient vector; and an adaptive filter configured to perform adaptive equalization processing, based on the second tap coefficient vector, on a digital signal corresponding to an optical signal received via the optical transmission line, wherein the coefficient update unit approximates the characteristic of the optical transmission line by the first tap coefficient vector using an algorithm of a steepest descent method having a constraint that the L0 norm is a predetermined value or less.
An integrated circuit comprising: a reference signal generation circuit comprising: a first front end of line, FEOL, resistor and a second FEOL resistor formed in at least one FEOL device level of the integrated circuit, wherein the first resistor and the second resistor are coupled in series, an output node between the first resistor and the second resistor, wherein a reference signal is generated at the output node, and a back end of line, BEOL, programmable resistive element formed in at least one BEOL wiring level of the integrated circuit, wherein the programmable resistive element is coupled in series with the second resistor, and a non-volatile resistive state of the programmable resistive element is variable across a plurality of non-volatile resistive states in response to a program signal applied to the programmable resistive element. a first front end of line, FEOL, resistor and a second FEOL resistor formed in at least one FEOL device level of the integrated circuit, wherein the first resistor and the second resistor are coupled in series, an output node between the first resistor and the second resistor, wherein a reference signal is generated at the output node, and a back end of line, BEOL, programmable resistive element formed in at least one BEOL wiring level of the integrated circuit, wherein the programmable resistive element is coupled in series with the second resistor, and a non-volatile resistive state of the programmable resistive element is variable across a plurality of non-volatile resistive states in response to a program signal applied to the programmable resistive element. the programmable resistive element is coupled in series with the second resistor, and a non-volatile resistive state of the programmable resistive element is variable across a plurality of non-volatile resistive states in response to a program signal applied to the programmable resistive element.
An electrostatic capacitive vibration sensor (31, 51) comprising a substrate in which a through-hole penetrating the substrate is made, a vibrating electrode plate and a fixed electrode plate being opposite to each other, the vibrating electrode plate being subjected to vibration to perform membrane oscillation, the fixed electrode plate comprising a fixed electrode, a plurality of acoustic holes (43a, 43b) being made in the fixed electrode plate penetrating the fixed electrode, the vibrating electrode plate and the fixed electrode plate being disposed on a surface side of the substrate such that an opening on the surface side of the substrate of the through-hole is covered therewith, wherein a lower surface of an outer peripheral portion of the vibrating electrode plate is partially fixed to the substrate, a vent hole that communicates a surface side and a rear surface side of the vibrating electrode plate with each other is made between the surface of the substrate and the lower surface of the vibrating electrode plate, and the acoustic holes (43a, 43b) are not regularly arrayed according to a square shape, characterized in that the acoustic holes which are made in an outer peripheral portion of a region of the fixed electrode plate opposite to a moving portion of the vibrating electrode plate have opening areas smaller than that of the acoustic holes which are made in said region except for said outer peripheral portion of said region.
A method of manufacturing an article of footwear having an upper, a footbed, an outsole, and a bladder that is disposed between the footbed and the outsole, the method comprising: providing a plurality of layers that are separate from each other in a molding apparatus, the plurality of layers including a top layer, an outsole layer, a first bladder layer, and a second bladder layer, the first and second bladder layers being provided between the top layer and the outsole layer; and molding the plurality of layers together substantially simultaneously to form the upper, the footbed, the outsole, and the bladder, the top layer being molded to a first outer surface of the first bladder layer, the outsole layer being molded to a second outer surface of the second bladder layer, a first inner surface of the first bladder layer molding and sealing to a second inner surface of the second bladder layer to define a chamber between the first inner surface and the second inner surface, the chamber operable to contain a fluid, the top layer at least partially defining the upper and the footbed, the outsole layer at least partially defining the outsole, and the first and second bladder layers cooperating to define the bladder. providing a plurality of layers that are separate from each other in a molding apparatus, the plurality of layers including a top layer, an outsole layer, a first bladder layer, and a second bladder layer, the first and second bladder layers being provided between the top layer and the outsole layer; and molding the plurality of layers together substantially simultaneously to form the upper, the footbed, the outsole, and the bladder, the top layer being molded to a first outer surface of the first bladder layer, the outsole layer being molded to a second outer surface of the second bladder layer, a first inner surface of the first bladder layer molding and sealing to a second inner surface of the second bladder layer to define a chamber between the first inner surface and the second inner surface, the chamber operable to contain a fluid, the top layer at least partially defining the upper and the footbed, the outsole layer at least partially defining the outsole, and the first and second bladder layers cooperating to define the bladder.
A mutant eukaryotic algal microorganism having attenuated expression of a gene encoding a Zn Cys fungal-type DNA binding domain-containing polypeptide, wherein the Zn -C fungal-type DNA-binding domain polypeptide has at least 65% identity to an amino acid sequence selected from the group consisting of: SEQ ID NO:2, SEQ ID NO:17, SEQ ID NO:5, SEQ ID NO:6, SEQ ID NO:7, SEQ ID NO:8, SEQ ID NO:9, SEQ ID NO:10, SEQ ID NO:11, SEQ ID NO:12, SEQ ID NO:13, SEQ ID NO:14, SEQ ID NO:15, and SEQ ID NO:16, wherein the mutant produces at least 50% more fatty acid methyl ester-derivatizable lipids (FAME lipids) than a control microorganism from which the mutant microorganism is directly derived, not having the attenuated expression of the gene and at least 70% of the amount of biomass accumulated by the control microorganism when the mutant microorganism and control microorganism are cultured under nitrogen replete conditions under which the control microorganism is accumulating biomass.
A fire damper, composed of a cylindrical body comprising a self-closing division that is fixed inside the body on an axis via bearings, the division being linked to the inside wall of the body by means of a closing spring device and being kept in an open position by means of a releasing fuse link element, the division being also provided with a flexible sealing ring fixed in its circumference notch and cooperating with a thermally expanding gasket located on the inside wall of the body in a lateral plane corresponding to the closed position of the division characterized in that the flexible sealing ring is continuous and has a rectangular cross-section, the closing spring device and the releasing fuse link element being located inside the body connected to the same side of the body.
A method for producing a tubular radiator having at least one module comprising two head pieces, each comprising a plurality of sleeves, and a plurality of tubular elements, each connected between a sleeve of a first one of said head pieces and a corresponding sleeve of the other head piece, the method comprising the steps of: - placing and holding at least one of the two head pieces and the relative plurality of tubular elements in the desired final position; and - joining the sleeves of said at least one head piece to the relative tubular elements by resistance welding; and being characterized in that the step of joining the sleeves of said at least one head piece to the relative tubular elements by resistance welding comprises the step of: - joining pairs of sleeves to the same number of pairs of tubular elements by means of respective pairs of welds in series with one another, each pair of series welds being obtained by generating a single electric current and by causing it to circulate from a tubular element to the other of the relative pair of tubular elements through the two relative sleeves. - placing and holding at least one of the two head pieces and the relative plurality of tubular elements in the desired final position; and - joining the sleeves of said at least one head piece to the relative tubular elements by resistance welding; - joining pairs of sleeves to the same number of pairs of tubular elements by means of respective pairs of welds in series with one another, each pair of series welds being obtained by generating a single electric current and by causing it to circulate from a tubular element to the other of the relative pair of tubular elements through the two relative sleeves.
A method for providing a wafer geometry metric, comprising: acquiring a wafer shape value at each of a plurality of points of a surface of a wafer at a first process level and an additional process level; generating a wafer shape change value at each of the points utilizing the acquired wafer shape value at each of the points at the first process level and the additional process level, the wafer shape change value at each point corresponding to a change in wafer shape between the first process level and the second process level; generating a set of slope of shape change values by calculating a slope of shape change at each of the points utilizing the generated wafer shape change value at each of the points, each of the slope of shape change values corresponding to a slope of the change in wafer shape along at least one direction of the surface of the wafer; calculating a set of process tool correctables utilizing the generated set of slope of shape change values; generating a set of slope shape change residuals (SSCRs) by calculating a slope of shape change residual value at each of the points utilizing the set of process tool correctables; defining a plurality of metric analysis regions distributed across the surface of the wafer, each metric analysis region encompassing one or more points of the plurality of points; and generating one or more residual slope shape change metrics for each metric analysis region based on one or more SSCRs within each metric analysis region. acquiring a wafer shape value at each of a plurality of points of a surface of a wafer at a first process level and an additional process level; generating a wafer shape change value at each of the points utilizing the acquired wafer shape value at each of the points at the first process level and the additional process level, the wafer shape change value at each point corresponding to a change in wafer shape between the first process level and the second process level; generating a set of slope of shape change values by calculating a slope of shape change at each of the points utilizing the generated wafer shape change value at each of the points, each of the slope of shape change values corresponding to a slope of the change in wafer shape along at least one direction of the surface of the wafer; calculating a set of process tool correctables utilizing the generated set of slope of shape change values; generating a set of slope shape change residuals (SSCRs) by calculating a slope of shape change residual value at each of the points utilizing the set of process tool correctables; defining a plurality of metric analysis regions distributed across the surface of the wafer, each metric analysis region encompassing one or more points of the plurality of points; and generating one or more residual slope shape change metrics for each metric analysis region based on one or more SSCRs within each metric analysis region.
A fiber optic connector, comprising: a ferrule configured to support at least one optical fiber; a ferrule holder from which the ferrule extends; a housing in which the ferrule holder is received; a connector body coupled to the housing and configured to retain the ferrule holder within the housing, the connector body having a front portion at least partially received in the housing and a rear portion at least partially outside of the housing; and a strain relief assembly, comprising: a support coupled to the rear portion of the connector body, wherein the support includes a first portion defining a front end of the support, a second portion defining a back end of the support, and a transition region between the first and second portions (80, 84); and a boot received over the support, wherein the support and boot are formed from respective first and second materials, the second material being less rigid than the first material; characterized in that the second portion of the support has a stiffness less than the first portion, and that the boot is received over the first portion of the support and extends rearwardly over the transition region and the second portion. a ferrule configured to support at least one optical fiber; a ferrule holder from which the ferrule extends; a housing in which the ferrule holder is received; a connector body coupled to the housing and configured to retain the ferrule holder within the housing, the connector body having a front portion at least partially received in the housing and a rear portion at least partially outside of the housing; and a strain relief assembly, comprising: a support coupled to the rear portion of the connector body, wherein the support includes a first portion defining a front end of the support, a second portion defining a back end of the support, and a transition region between the first and second portions (80, 84); and a boot received over the support, wherein the support and boot are formed from respective first and second materials, the second material being less rigid than the first material; a support coupled to the rear portion of the connector body, wherein the support includes a first portion defining a front end of the support, a second portion defining a back end of the support, and a transition region between the first and second portions (80, 84); and a boot received over the support, wherein the support and boot are formed from respective first and second materials, the second material being less rigid than the first material; characterized in that the second portion of the support has a stiffness less than the first portion, and that the boot is received over the first portion of the support and extends rearwardly over the transition region and the second portion.