mhurhangee/ep-ind-claims huggingface dataset:
An air-assisted sprayer comprising: a platform; a fluid cup connected to the platform to hold a volume of fluid; an air reservoir extending through the platform and configured to receive pressurized air; a spray cap connected to the platform to receive pressurized air from the air reservoir; a pressure line connecting the air reservoir with the fluid cup to pressurize the volume of fluid; a fluid reservoir extending from the fluid cup to the platform to provide pressurized fluid to the spray cap; and a poppet valve in fluid communication with the pressure line between the volume of fluid and the air reservoir to prevent fluid from entering the air reservoir, wherein the poppet valve is manually removable from the sprayer without use of tools, characterised in that the poppet valve comprises: a first housing comprising: a first fitting for connecting to the pressure line; and a first annular body extending axially from the first fitting; a second housing comprising: a second fitting for connecting to the pressure line; and a second annular body extending axially from the second fitting and threaded onto the first annular body to define a valve cylinder extending axially between the first and second fittings (120, 126); and a spring-actuated poppet assembly (110, 112, 114, 116) disposed within the valve cylinder to permit one-way fluid flow. a platform; a fluid cup connected to the platform to hold a volume of fluid; an air reservoir extending through the platform and configured to receive pressurized air; a spray cap connected to the platform to receive pressurized air from the air reservoir; a pressure line connecting the air reservoir with the fluid cup to pressurize the volume of fluid; a fluid reservoir extending from the fluid cup to the platform to provide pressurized fluid to the spray cap; and a poppet valve in fluid communication with the pressure line between the volume of fluid and the air reservoir to prevent fluid from entering the air reservoir, wherein the poppet valve is manually removable from the sprayer without use of tools, a first housing comprising: a first fitting for connecting to the pressure line; and a first annular body extending axially from the first fitting; a first fitting for connecting to the pressure line; and a first annular body extending axially from the first fitting; a second housing comprising: a second fitting for connecting to the pressure line; and a second annular body extending axially from the second fitting and threaded onto the first annular body to define a valve cylinder extending axially between the first and second fittings (120, 126); and a second fitting for connecting to the pressure line; and a second annular body extending axially from the second fitting and threaded onto the first annular body to define a valve cylinder extending axially between the first and second fittings (120, 126); and a spring-actuated poppet assembly (110, 112, 114, 116) disposed within the valve cylinder to permit one-way fluid flow.
A process for producing an electrode composition, comprising conducting a process for preparing lithium sulphite comprising the following steps:- a) introducing H 2 SO 3 (aq) into a reaction vessel; b) reacting the H 2 SO 3 (aq) with an aqueous suspension of Li 2 CO 3 in the vessel to form an aqueous solution of Li 2 SO 3; wherein H 2 SO 3 (aq) with Li 2 CO 3 (aq) are reacted with each other in substantially equimolar amounts, that is up to +- 3%, and wherein H 2 SO 3 (aq) is added by titration to the Li 2 CO 3 (aq) in the vessel until the end point of the reaction is reached and wherein titration occurs at the top of the vessel while inert gas is introduced into the reaction vessel at the bottom and, c) evaporating the solution to recover Li 2 SO 3 (s), wherein at least steps a) and b) are conducted under an inert atmosphere, wherein between step b) and step c) a nitrogen-carbon structure suitable for use as an electrode composition is added to the solution and step c) is then conducted to yield an intimate mixture of Li 2 SO 3 (s) and the nitrogen-carbon structure. a) introducing H 2 SO 3 (aq) into a reaction vessel; b) reacting the H 2 SO 3 (aq) with an aqueous suspension of Li 2 CO 3 in the vessel to form an aqueous solution of Li 2 SO 3; wherein H 2 SO 3 (aq) with Li 2 CO 3 (aq) are reacted with each other in substantially equimolar amounts, that is up to +- 3%, and wherein H 2 SO 3 (aq) is added by titration to the Li 2 CO 3 (aq) in the vessel until the end point of the reaction is reached and wherein titration occurs at the top of the vessel while inert gas is introduced into the reaction vessel at the bottom and, c) evaporating the solution to recover Li 2 SO 3 (s),
A method for the non-destructive separation of a soldered joint on at least two metallic components materially bonded by means of soldering, so that the separated components are available for mechanical processing in the circuit, wherein the focal spot of a laser beam having a power density in the focal spot sufficient to melt a solder material and a power density which avoids at least a melting of a component material and an advancing movement of the focal spot is directed onto a joining region of the materially bonded joint, and the molten solder material is removed from the joining region by means of at least one fluid flow which has a kinetic energy, and the components are separated from each other continuously or only after complete separation of the materially bonded solder joint, and at least one of the components is recycled, wherein the fluid flow is directed in the direction of the advancing movement of the laser beam focal spot and/or at an angle in the range of 15° to 45° with respect to a surface of a component on which a solder seam or point-shaped material-fit joints with the solder material has/have been applied, onto the liquid solder material melted by means of the energy of the laser beam or the fluid flow in the direction of the advancing movement of the laser beam focal spot is aligned coaxially with the optical axis of the laser beam when the laser beam is directed at an angle in the range of 15 ° to 45 ° with respect to the surface of a component on which a solder seam or point-shaped interlocking joints with the solder material has/have been applied, onto the liquid solder material melted by means of the energy of the laser beam. the focal spot of a laser beam having a power density in the focal spot sufficient to melt a solder material and a power density which avoids at least a melting of a component material and an advancing movement of the focal spot is directed onto a joining region of the materially bonded joint, and the molten solder material is removed from the joining region by means of at least one fluid flow which has a kinetic energy, and the components are separated from each other continuously or only after complete separation of the materially bonded solder joint, and at least one of the components is recycled, wherein the fluid flow is directed in the direction of the advancing movement of the laser beam focal spot and/or at an angle in the range of 15° to 45° with respect to a surface of a component on which a solder seam or point-shaped material-fit joints with the solder material has/have been applied, onto the liquid solder material melted by means of the energy of the laser beam or the fluid flow in the direction of the advancing movement of the laser beam focal spot is aligned coaxially with the optical axis of the laser beam when the laser beam is directed at an angle in the range of 15 ° to 45 ° with respect to the surface of a component on which a solder seam or point-shaped interlocking joints with the solder material has/have been applied, onto the liquid solder material melted by means of the energy of the laser beam.
A photocurable resin composition, comprising: an allylic polymer produced by polymerization of an allylic compound represented by the formula below; and a tackifier resin having an SP value of 7.0 to 10.0 as calculated by the Fedors' method described in Polymer Engineering and Science, 14,, 147, wherein the amount of the tackifier resin is 50 to 1,000 parts by weight, relative to 100 parts by weight of the allylic polymer in the photocurable resin composition; wherein R 1 and R 2 each represent H or CH 3; X represents an a-valent group having an unsubstituted saturated or partially unsaturated four- to eight-membered cyclic structure; and a represents 2 or 3. an allylic polymer produced by polymerization of an allylic compound represented by the formula below; and a tackifier resin having an SP value of 7.0 to 10.0 as calculated by the Fedors' method described in Polymer Engineering and Science, 14,, 147, wherein the amount of the tackifier resin is 50 to 1,000 parts by weight, relative to 100 parts by weight of the allylic polymer in the photocurable resin composition; wherein R 1 and R 2 each represent H or CH 3; X represents an a-valent group having an unsubstituted saturated or partially unsaturated four- to eight-membered cyclic structure; and a represents 2 or 3.
Suspension device for a vehicle seat, comprising a suspension upper part and a suspension lower part that are interconnected by means of a first connecting swing arm and a second connecting swing arm, characterised in that the suspension device comprises a first settable gear element that is arranged on the suspension upper part, a second gear element that is connected to the first connecting swing arm and is intended for adjusting a position of a first spring unit, as a result of which a spring force and a spring rate of the suspension device can be changed, and a third gear element that is at least operatively connected to the first and to the second gear element and that is connected to the first connecting swing arm.
A method for the diagnosis of Alzheimer disease in a subject at risk of having or developing the cognitive disorder, comprising: (a) detecting a level of expression in a ncRNA signature in a biological sample from said subject; (b) comparing the level of expression in the sample to a level of expression in a reference, wherein an increased or decreased level of expression in the sample compared to the level in the reference identifies the subject having Alzheimer disease or being at risk of developing Alzheimer disease, wherein the biological sample is selected from blood, plasma, and serum, and wherein the ncRNA signature comprises: 13 lncRNAs of lnc-DLG5-1:1, lnc-EBLN1-1:4, lnc-FAT1-7:2, lnc-PRR5-5:1, lnc-RBKS-6:1, lnc-FOXD4L5-35:1, lnc-TENM3-3:3, lnc-FAM133B-2:1, lnc-ZNF726-1:3, lnc-AP3M1-1:1, lnc-DUSP10-6:1, lnc-TPPP-1:2, and LINC01206:20. (a) detecting a level of expression in a ncRNA signature in a biological sample from said subject; (b) comparing the level of expression in the sample to a level of expression in a reference, wherein an increased or decreased level of expression in the sample compared to the level in the reference identifies the subject having Alzheimer disease or being at risk of developing Alzheimer disease, wherein the biological sample is selected from blood, plasma, and serum, and wherein the ncRNA signature comprises: 13 lncRNAs of lnc-DLG5-1:1, lnc-EBLN1-1:4, lnc-FAT1-7:2, lnc-PRR5-5:1, lnc-RBKS-6:1, lnc-FOXD4L5-35:1, lnc-TENM3-3:3, lnc-FAM133B-2:1, lnc-ZNF726-1:3, lnc-AP3M1-1:1, lnc-DUSP10-6:1, lnc-TPPP-1:2, and LINC01206:20. wherein an increased or decreased level of expression in the sample compared to the level in the reference identifies the subject having Alzheimer disease or being at risk of developing Alzheimer disease, wherein the biological sample is selected from blood, plasma, and serum, and wherein the ncRNA signature comprises: 13 lncRNAs of lnc-DLG5-1:1, lnc-EBLN1-1:4, lnc-FAT1-7:2, lnc-PRR5-5:1, lnc-RBKS-6:1, lnc-FOXD4L5-35:1, lnc-TENM3-3:3, lnc-FAM133B-2:1, lnc-ZNF726-1:3, lnc-AP3M1-1:1, lnc-DUSP10-6:1, lnc-TPPP-1:2, and LINC01206:20.
A facial mask (800; 850; 900; 950) comprising a first material and a second material different from the first material and a material gradient in at least a portion of the mask, the material gradient transitioning from the first material to the second material, wherein the first material is a relatively softer material well suited to contact with the face of a patient, and the second material is a harder material well suited to providing a structure and shape to the mask, and wherein the mask is made by additive manufacturing without the use of insert molding or casting.
A method of coating a substrate with at least one cathode assembly having a rotatable sputter target and a magnet assembly that is rotatable around a rotation axis and is arranged inside the rotatable sputter target, the method comprising - coating the substrate while moving the magnet assembly in a reciprocating manner in a first angular sector, coating comprising moving the magnet assembly two or more times in the first angular sector between a first turnaround angular position of the first angular sector and a second turnaround angular position of the first angular sector; and - subsequently coating the substrate while moving the magnet assembly in a reciprocating manner in a second angular sector different from the first angular sector, subsequently coating comprising moving the magnet assembly two or more times between a first turnaround angular position of the second angular sector and a second turnaround angular position of the second angular sector. - coating the substrate while moving the magnet assembly in a reciprocating manner in a first angular sector, coating comprising moving the magnet assembly two or more times in the first angular sector between a first turnaround angular position of the first angular sector and a second turnaround angular position of the first angular sector; and - subsequently coating the substrate while moving the magnet assembly in a reciprocating manner in a second angular sector different from the first angular sector, subsequently coating comprising moving the magnet assembly two or more times between a first turnaround angular position of the second angular sector and a second turnaround angular position of the second angular sector.
An optical detector sensitive in at least two infrared wavelength ranges called first spectral band and second spectral band, and having a set of pixels, comprising: - an absorbent structure (Sabs) disposed on a bottom face of a substrate (Sub) and comprising a stack of at least one absorbent layer (AL, AL1, AL2) made of semiconductor material, sensitive in the two spectral bands (SB1, SB2) and capable of photo-generating carriers by absorption of an incident beam on a top face of said substrate, the absorbent structure being further linked to a read-out circuit by at least one set of contacts (CL1, CL2) associated with said pixels, - the detector further comprising a plurality of dielectric resonators (Res) on the top face of said substrate forming a top surface called meta-surface, the meta-surface being configured to diffuse, deflect and focus in the pixels of the detector in a resonant manner, when lit by the incident light, a first beam having at least one first wavelength (λ1) lying within the first spectral band and a second beam having at least one second wavelength (λ2) lying in the second band, the meta-surface being also configured so that said first and second beams are focused on different pixels of the detector. - an absorbent structure (Sabs) disposed on a bottom face of a substrate (Sub) and comprising a stack of at least one absorbent layer (AL, AL1, AL2) made of semiconductor material, sensitive in the two spectral bands (SB1, SB2) and capable of photo-generating carriers by absorption of an incident beam on a top face of said substrate, the absorbent structure being further linked to a read-out circuit by at least one set of contacts (CL1, CL2) associated with said pixels, - the detector further comprising a plurality of dielectric resonators (Res) on the top face of said substrate forming a top surface called meta-surface, the meta-surface being configured to diffuse, deflect and focus in the pixels of the detector in a resonant manner, when lit by the incident light, a first beam having at least one first wavelength (λ1) lying within the first spectral band and a second beam having at least one second wavelength (λ2) lying in the second band, the meta-surface being also configured so that said first and second beams are focused on different pixels of the detector. the meta-surface being configured to diffuse, deflect and focus in the pixels of the detector in a resonant manner, when lit by the incident light, a first beam having at least one first wavelength (λ1) lying within the first spectral band and a second beam having at least one second wavelength (λ2) lying in the second band, the meta-surface being also configured so that said first and second beams are focused on different pixels of the detector.
Security document with at least one security element, comprising a document body which comprises at least one diffraction layer that comprises on a top side a diffraction surface structure which is embodied as an optically thin projection hologram as the at least one security element, wherein, in the document body, viewed from the upper side of the at least one diffraction layer, behind the diffraction surface structure at least one noise suppression structure is formed or arranged, which minimises an unoriented reflection of a reconstruction light (9, 10) for reading out the diffraction surface structure, impinging onto the top side of the diffraction layer, and transmitted through the diffraction surface structure, back through the top side of the diffraction layer, and wherein the noise suppression structure comprises an optical volume hologram, which diffracts or reflectively diffracts at least one diffraction order of the transmitted reconstruction layer (9, 10), characterised in that at least one pattern is stored into the volume hologram as holographic information, and the pattern stored in the volume hologram is a pattern constituent part of a total pattern, and a reflection on the upper side of the diffractive surface structure reconstructs a further pattern constituent part of the total pattern, and a marked incidence angle exists for the reconstruction light impinging onto the diffractive surface structure, such that at least one order of diffraction of the reconstruction light (9, 10), impinging onto the diffracting surface structure at this marked incidence angle, and transmitted through the diffraction surface structure, reconstructs the volume hologram in such a way that the at least one pattern constituent part is reconstructed, and is supplemented with the further pattern constituent part to form the total pattern.
A controller for an internal combustion engine, the controller being configured to control an internal combustion engine that includes a filter configured to trap particulate matter in exhaust gas discharged from a plurality of cylinders and fuel injection valves provided for the respective cylinders, wherein the controller is configured to: execute a dither control process of operating the fuel injection valves such that at least one of the cylinders is a lean combustion cylinder, in which an air-fuel ratio is leaner than a stoichiometric air-fuel ratio, and at least another one of the cylinders is a rich combustion cylinder, in which an air-fuel ratio is richer than the stoichiometric air-fuel ratio, and execute, while the dither control process is being executed, an enlarging process, which includes at least one of the following two processes a process of changing an operation region of the internal combustion engine in which the dither control process is executed in accordance with an amount of particulate matter trapped by the filter, and a process of increasing a degree of richness of the rich combustion cylinder and a degree of leanness of the lean combustion cylinder in accordance with the amount of particulate matter trapped by the filter. execute a dither control process of operating the fuel injection valves such that at least one of the cylinders is a lean combustion cylinder, in which an air-fuel ratio is leaner than a stoichiometric air-fuel ratio, and at least another one of the cylinders is a rich combustion cylinder, in which an air-fuel ratio is richer than the stoichiometric air-fuel ratio, and execute, while the dither control process is being executed, an enlarging process, which includes at least one of the following two processes a process of changing an operation region of the internal combustion engine in which the dither control process is executed in accordance with an amount of particulate matter trapped by the filter, and a process of increasing a degree of richness of the rich combustion cylinder and a degree of leanness of the lean combustion cylinder in accordance with the amount of particulate matter trapped by the filter. a process of changing an operation region of the internal combustion engine in which the dither control process is executed in accordance with an amount of particulate matter trapped by the filter, and a process of increasing a degree of richness of the rich combustion cylinder and a degree of leanness of the lean combustion cylinder in accordance with the amount of particulate matter trapped by the filter.
An in vitro method for preparing a graft material comprising organ cells or tissue cells, the cells having a genotype of PHLDA3 (+/-), wherein said graft material is a graft material of a kidney, liver, lung, heart, small intestine, pancreas, or pancreatic islets.
A radio communication base station apparatus comprising: a duplicating section that is adapted to duplicate a response signal in an automatic repeat request to produce a plurality of identical response signals; and a scrambling section that is adapted to scramble the plurality of response signals by a scrambling code characterized in that the scrambling code is allocated to a group, to which a destination mobile station belongs, among a plurality of mobile station groups classified based on received quality of each mobile station. a duplicating section that is adapted to duplicate a response signal in an automatic repeat request to produce a plurality of identical response signals; and a scrambling section that is adapted to scramble the plurality of response signals by a scrambling code the scrambling code is allocated to a group, to which a destination mobile station belongs, among a plurality of mobile station groups classified based on received quality of each mobile station.
Process for preparing alkanesulfonic acids of the formula R-SO 3 -H, comprising the step of oxidizing a symmetrical dialkyl disulfide of the formula R-S 2 -R, in solution in an alkanesulfonic acid, in the presence of catalytic amounts of nitric acid, with R denoting a C 1 -C 12 alkyl radical and the alkanesulfonic acid used as solvent being identical with the alkanesulfonic acid obtained from the oxidation of the dialkyl disulfide in question, characterized in that the concentration of the dialkyl disulfide in the solution is not more than 20 weight per cent, the ratio of dialkyl disulfide to nitric acid ranges from 2000:1 (mol/mol) to 1:1 (mol/mol), and the concentration of the alkanesulfonic acid used as solvent is more than 70 weight per cent.
A readily thermally degradable organic resin binder comprising a (meth)acrylic resin and an ethyl cellulose resin, the weight ratio between (meth)acrylic resin and ethyl cellulose resin being 5: 95 to 50: 50, wherein the (meth)acrylic resin is a (meth)acrylic polymer that has a weight-average molecular weight of 1,000 to 250,000, as polystyrene measured by gel permeation chromatography, and has a monomer unit given by the following general formula [in the formula, R 1 represents hydrogen or a methyl group and R 2 represents hydrogen or a C 1 - 2 straight-chain hydrocarbon group, branched-chain hydrocarbon group or hydroxyl group-bearing hydrocarbon group, or a polyalkylene oxide-containing group].