mhurhangee/ep-ind-claims huggingface dataset:
A resistance-measuring device (10,110,210) mountable to a component (11,14A,14B) of a current-carrying transmission line, the resistance-measuring device comprising: a body (20,120,220) having a base and two arms (21,121.221) with interconnected first ends (23,123) and spaced-apart second ends, the arms defining a gap (22,122,222) therebetween, each arm having an inner portion (25,225) facing the gap, the body being displaceable to mount the body about the component and position the component within the gap, the body having an abrading mechanism (30,130) mounted to the arms, the abrading mechanism having an electrically-conductive abrading element (31,231) disposed along the arm and facing inwardly toward the gap, the abrading element rubbing against an outer surface of the component upon displacing the body to mount the body about the component.
A piece of clothing to which an indicator dye is bonded by chemical bonding, wherein the piece of clothing comprises at least one fiber to which the indicator dye is indirectly coupled via nano- or microparticles which are bonded, printed, adhered or laminated to the at least one fiber, wherein the indicator dye is covalently bonded to the surface of the nano- or microparticles, is covalently bonded in pores of the nano- or microparticles, or the indicator dye is covalently polymerized into the nano- or microparticles, wherein the at least one fiber is exposed at an interior side of the piece of clothing, so that when the piece of clothing is worn by a person the indicator dye is in contact with a skin surface of the person such that a sensitivity of detection of the analyte in body perspiration of the person for which the indicator dye is sensitive is increased.
A plate heat exchanger made of plastic, comprising a plate pack covered by a front plate and a back plate and made of heat exchanger plates being profiled and joined together i n a sealing manner at a circumferential edge portion to form flow channels provided alternately for a first fluid and for a second fluid, wherein the heat exchanger plates have respectively two passageway openings formed in a upper and a lower plate level (11', 11") for connecting the flow channels provided respectively for the same fluid, having wave mountains and wave valleys defining the upper and lower plate levels and running only in one direction inclined to the longitudinal axis, characterized in that the heat exchanger plates are heat exchanger plates being formed in an identical manner and highly heat-conducting by the integration of carbon fibers and thin-walled and stiffened by endless carbon fibers and having a connecting crimp running at the edge portion on the upper plate level (11") and a circumferential connecting region added to it towards the plate interior and horizontal in relation to the plate plane, and being respectively stacked in a rotated manner around a plate transverse axis and being glued or welded together in a firm and sealing manner at the abutting connecting crimps and horizontal connecting regions and at the contact areas of intersecting wave mountains and the edge regions of the passageways openings being in a raised position in the upper plate level (11") and abutting.
A method for the capture of at least one acid gas in a composition, said method comprising: a. capturing an acid gas by contacting said acid gas with a capture composition comprising a metal salt of a C 5- C 8 -aliphatic carboxylic acid and either: (i) a metal salt of a C 1 -C 4 -aliphatic carboxylic acid; or (ii) a base additive, wherein the base additive is a carbonate salt and is capable of deprotonating the C 5 -C 8 -carboxylic acid from which the metal salt is derived, said metal salt of a C 5- C 8 -aliphatic carboxylic acid and either (i) or (ii) being dissolved in a solvent system consisting substantially of water, to form a loaded capture composition; wherein said capture composition comprises no more than 1% of amino acids or salts of amino acids, wherein said solvent system consisting substantially of water comprises at least 95% water, wherein said acid gas comprises carbon dioxide. a. capturing an acid gas by contacting said acid gas with a capture composition comprising a metal salt of a C 5- C 8 -aliphatic carboxylic acid and either: (i) a metal salt of a C 1 -C 4 -aliphatic carboxylic acid; or (ii) a base additive, wherein the base additive is a carbonate salt and is capable of deprotonating the C 5 -C 8 -carboxylic acid from which the metal salt is derived, said metal salt of a C 5- C 8 -aliphatic carboxylic acid and either (i) or (ii) being dissolved in a solvent system consisting substantially of water, to form a loaded capture composition; wherein said capture composition comprises no more than 1% of amino acids or salts of amino acids, wherein said solvent system consisting substantially of water comprises at least 95% water, wherein said acid gas comprises carbon dioxide. (i) a metal salt of a C 1 -C 4 -aliphatic carboxylic acid; or (ii) a base additive, wherein the base additive is a carbonate salt and is capable of deprotonating the C 5 -C 8 -carboxylic acid from which the metal salt is derived, wherein said capture composition comprises no more than 1% of amino acids or salts of amino acids, wherein said solvent system consisting substantially of water comprises at least 95% water, wherein said acid gas comprises carbon dioxide.
A process for preparing a supported catalyst for slurry phase hydrocracking, the catalyst comprising exfoliated metal sulphide, said process comprising the following steps: i. charging a vessel with a predetermined amount of metal sulphide and one fluid medium to obtain a first mixture comprising metal sulphide; ii. sonicating said first mixture to obtain a resultant mixture comprising an exfoliated metal sulphide; iii. mixing said exfoliated metal sulphide with a predetermined amount of one support material to obtain a slurry; iv. ageing said slurry for a time period in the range of 12 to 60 hours at a temperature in the range of 10 to 80°C to obtain an aged slurry; and v. drying and calcining said aged slurry under inert atmosphere to obtain the supported catalyst comprising exfoliated metal sulphide; wherein said one support material is selected from the group consisting of activated carbon, multiwall carbon nanotubes, and porous silica; wherein said calcination is carried out at a temperature in the range of 300 to 550 °C; wherein said fluid medium is N-methyl pyrrolidone. i. charging a vessel with a predetermined amount of metal sulphide and one fluid medium to obtain a first mixture comprising metal sulphide; ii. sonicating said first mixture to obtain a resultant mixture comprising an exfoliated metal sulphide; iii. mixing said exfoliated metal sulphide with a predetermined amount of one support material to obtain a slurry; iv. ageing said slurry for a time period in the range of 12 to 60 hours at a temperature in the range of 10 to 80°C to obtain an aged slurry; and v. drying and calcining said aged slurry under inert atmosphere to obtain the supported catalyst comprising exfoliated metal sulphide; wherein said one support material is selected from the group consisting of activated carbon, multiwall carbon nanotubes, and porous silica; wherein said calcination is carried out at a temperature in the range of 300 to 550 °C; wherein said fluid medium is N-methyl pyrrolidone. wherein said one support material is selected from the group consisting of activated carbon, multiwall carbon nanotubes, and porous silica; wherein said calcination is carried out at a temperature in the range of 300 to 550 °C; wherein said fluid medium is N-methyl pyrrolidone.
Process for removing cations from an isophoronenitrile product mixture from the preparation of isophoronenitrile from isophorone and hydrocyanic acid in the presence of a cation-containing catalyst in homogeneous phase, characterized in that the removal of the cations of the catalyst takes place by means of cation exchanger without prior neutralization of the catalyst.
A cable strain relief for a cable, having a strain relief element, a retaining element, and a counterpiece, wherein the retaining element is intended to be connected to the counterpiece, wherein the strain relief element and the retaining element are configured such that they form a unit, the retaining element is a cap nut, and the strain relief element is crown-like and is deformable, characterised in that the counterpiece has an inclined stop face, such that the strain relief element is made to deform when the counterpiece and unit formed of strain relief element and retaining element are assembled, such that the diameter for passage of a cable is reduced.
System for handling sensitive products, in particular for filling and sealing medicaments in containers, comprising - an enclosed space in which the sensitive products are handled, - a device for monitoring the air in the enclosed space with a measuring point and at least one Petri dish, the Petri dish comprising a lower receptacle and a removable lid, and - an automatic handling device, - wherein the automatic handling device is designed to automatically transport the Petri dish to the measuring point and back and to remove the lid from the lower receptacle of the Petri dish and put it back on, characterized in that the automatic handling device is designed to carry out further handling steps, in particular transport steps, for containers for receiving the products. - an enclosed space in which the sensitive products are handled, - a device for monitoring the air in the enclosed space with a measuring point and at least one Petri dish, the Petri dish comprising a lower receptacle and a removable lid, and - an automatic handling device, - wherein the automatic handling device is designed to automatically transport the Petri dish to the measuring point and back and to remove the lid from the lower receptacle of the Petri dish and put it back on,
An improved lamp connector comprising: a base having a flange and a threaded portion; a first cooperating member having a flange, and a male electrical connector; a retainer having a threaded portion and a ridge, the ridge forming an aperture smaller in diameter than the flange of the first cooperating member; wherein the flange of the first cooperating member abuts the threaded portion of the base; and further wherein the threaded portion of the retainer operatively engages the threaded portion of the base such that the ridge of the retainer holds the flange of the first cooperating member against the threaded portion of the base; characterized in comprising a second cooperating member having a bulbous female electrical connector being larger in diameter than the aperture formed by the ridge of the retainer; whereby the second cooperating member restricts axial movement of the retainer relative to the first cooperating member and base, when the bulbous female electrical connector is connected to the male electrical connector to prevent the removal of a UV lamp, configured to be connected to a distal portion of the first cooperating member, while energized. a base having a flange and a threaded portion; a first cooperating member having a flange, and a male electrical connector; a retainer having a threaded portion and a ridge, the ridge forming an aperture smaller in diameter than the flange of the first cooperating member; wherein the flange of the first cooperating member abuts the threaded portion of the base; and further wherein the threaded portion of the retainer operatively engages the threaded portion of the base such that the ridge of the retainer holds the flange of the first cooperating member against the threaded portion of the base; characterized in comprising a second cooperating member having a bulbous female electrical connector being larger in diameter than the aperture formed by the ridge of the retainer; whereby the second cooperating member restricts axial movement of the retainer relative to the first cooperating member and base, when the bulbous female electrical connector is connected to the male electrical connector to prevent the removal of a UV lamp, configured to be connected to a distal portion of the first cooperating member, while energized.
An electrical circuit for converting electrical power, the electrical circuit comprising: a primary circuit comprising a first quantity of windings; and a secondary circuit comprising a second quantity of windings and magnetically coupled to the primary circuit, wherein the primary circuit includes a first quantity of terminals (P1, P2, PN-K, PN), each (P1, P2, PN) being electrically coupled to a corresponding one of the first quantity of windings of the primary circuit via a primary blocking capacitor, except that one of the terminals (PN-K) of the primary circuit is electrically coupled directly to the corresponding one of the first quantity of the windings of the primary circuit without a primary blocking capacitor, wherein the first quantity of windings of the primary circuit are connected with each other in a Y-connection configuration or a Δ-connection configuration, wherein the secondary circuit includes a second quantity of terminals (S1, S2, SM-I, SM), each (S1, S2, SM) being electrically coupled to a corresponding one of the second quantity of windings of the secondary circuit via a secondary blocking capacitor, except that one of the terminals (SM-I) of the secondary circuit is electrically coupled directly to the corresponding one of the second quantity of windings of the secondary circuit without a secondary blocking capacitor, wherein the second quantity of windings of the secondary circuit are connected with each other in a Y-connection configuration or a Δ-connection configuration, wherein the first quantity is at least three, and the second quantity is at least three. a primary circuit comprising a first quantity of windings; and a secondary circuit comprising a second quantity of windings and magnetically coupled to the primary circuit, wherein the primary circuit includes a first quantity of terminals (P1, P2, PN-K, PN), each (P1, P2, PN) being electrically coupled to a corresponding one of the first quantity of windings of the primary circuit via a primary blocking capacitor, except that one of the terminals (PN-K) of the primary circuit is electrically coupled directly to the corresponding one of the first quantity of the windings of the primary circuit without a primary blocking capacitor, wherein the first quantity of windings of the primary circuit are connected with each other in a Y-connection configuration or a Δ-connection configuration, wherein the secondary circuit includes a second quantity of terminals (S1, S2, SM-I, SM), each (S1, S2, SM) being electrically coupled to a corresponding one of the second quantity of windings of the secondary circuit via a secondary blocking capacitor, except that one of the terminals (SM-I) of the secondary circuit is electrically coupled directly to the corresponding one of the second quantity of windings of the secondary circuit without a secondary blocking capacitor, wherein the second quantity of windings of the secondary circuit are connected with each other in a Y-connection configuration or a Δ-connection configuration, wherein the first quantity is at least three, and the second quantity is at least three.
A tissue ablation needle system, comprising: a rigid elongate guide cannula including an open proximal end, an open distal end, and a guide cannula lumen connecting therebetween; an elongate needle cannula that circumferentially defines a needle lumen; an elongate inner probe disposed through the needle lumen and configured to provide a distal needle tip of the needle cannula, where a probe distal end region includes a first electrode; an electroinsulative layer disposed between the needle cannula and the first electrode; where a portion of the needle cannula is configured to include a second electrode, the needle cannula having a distal body that forms a needle cannula end having a terminus, the second electrode is formed by the distal body of the needle cannula; where at least one of the inner probe and the needle cannula is slidable relative to the other such that the inner probe extends through and beyond the distal needle cannula end; where the needle cannula is longer than the guide cannula such that the needle cannula distal region can be extended through and beyond a distal guide cannula end, released thereby from guide cannula lumen restraint; and where the distal needle tip has an outer diameter at least as large as an outer diameter of the needle cannula. a rigid elongate guide cannula including an open proximal end, an open distal end, and a guide cannula lumen connecting therebetween; an elongate needle cannula that circumferentially defines a needle lumen; an elongate inner probe disposed through the needle lumen and configured to provide a distal needle tip of the needle cannula, where a probe distal end region includes a first electrode; an electroinsulative layer disposed between the needle cannula and the first electrode; where a portion of the needle cannula is configured to include a second electrode, the needle cannula having a distal body that forms a needle cannula end having a terminus, the second electrode is formed by the distal body of the needle cannula; where at least one of the inner probe and the needle cannula is slidable relative to the other such that the inner probe extends through and beyond the distal needle cannula end; where the needle cannula is longer than the guide cannula such that the needle cannula distal region can be extended through and beyond a distal guide cannula end, released thereby from guide cannula lumen restraint; and where the distal needle tip has an outer diameter at least as large as an outer diameter of the needle cannula.
An antimicrobial composition obtainable by a method comprising the step of splitting a refined lauric oil characterized in that the refined oil is an oil that has been brought into contact with activated carbon saicl composition comprising 90% or more, by weight, free fatty acids, FFAs, and characterized in that it comprises, by weight: • 0-5% C6 fatty acids; • 1 -15% C8 fatty acids; • 1-15% C10 fatty acids; and • 35-70% C12 fatty acids; and having • a total polycyclic aromatic hydrocarbons level of 20 toxicity equivalence of sum of benzo[a]pyrene, benzo[a]anthracene, benzo[b]fluorthene and chrysene (TEQ B[a]P), or less. • 0-5% C6 fatty acids; • 1 -15% C8 fatty acids; • 1-15% C10 fatty acids; and • 35-70% C12 fatty acids; and having • a total polycyclic aromatic hydrocarbons level of 20 toxicity equivalence of sum of benzo[a]pyrene, benzo[a]anthracene, benzo[b]fluorthene and chrysene (TEQ B[a]P),
A processing system comprising: a composite material in which fibers and a thermoplastic resin are compounded; a heating device configured to heat the composite material to a temperature higher than or equal to a melting point of the resin contained in the composite material; a mold configured to press the composite material; and a temperature adjustment unit configured to adjust a temperature of the mold, characterized in that the mold and temperature adjustment unit are configured such that while the mold presses the composite material, the temperature of the mold is maintained at a temperature higher than or equal to a temperature lower by 40°C than a melting point of the resin contained in the composite material and lower than or equal to a temperature lower by 20°C than the melting point of the resin. a composite material in which fibers and a thermoplastic resin are compounded; a heating device configured to heat the composite material to a temperature higher than or equal to a melting point of the resin contained in the composite material; a mold configured to press the composite material; and a temperature adjustment unit configured to adjust a temperature of the mold, characterized in that the mold and temperature adjustment unit are configured such that while the mold presses the composite material, the temperature of the mold is maintained at a temperature higher than or equal to a temperature lower by 40°C than a melting point of the resin contained in the composite material and lower than or equal to a temperature lower by 20°C than the melting point of the resin.
Photovoltaic device intended to convert into electricity incident radiation φ1 of a wavelength λ1 comprised between 280 and 1000 nm, comprising: - an assembly having two external major faces f1 and f3, comprising a. a glass sheet V1 having two major faces f1 and f2, the face f1 being that via which the incident radiation penetrates into said assembly and said sheet V1 being transparent to said incident radiation φ1; b. a functional layer F covering the major face f2 of the sheet V1 and comprising a matrix in which are dispersed luminescent elements capable of absorbing said incident radiation φ1 of wavelength λ1 and of re-emitting it with a wavelength λ2 longer than λ1 and comprised between 800 and 1400 nm; which assembly plays the role of waveguide for the radiation re-emitted of wavelength λ2, and - at least one photovoltaic cell (C1, C2, C3,...) positioned (i) on one or more edge faces of the assembly, and/or (ii) on the major face f1, and/or (iii) on the major face f3, and at which the re-emitted radiation of wavelength λ2 arrives and which is sensitive to the wavelength λ2; in which device, the glass sheet V1 has a coefficient of absorption at the wavelength λ2 lower than 3 m -1 and has a composition that comprises, in a content expressed in percentage by total weight of glass: Total iron expressed in the form of Fe 2 O 3 0.002 - 0.06%; Cr 2 O 3 0.0001 - 0.06%. - an assembly having two external major faces f1 and f3, comprising a. a glass sheet V1 having two major faces f1 and f2, the face f1 being that via which the incident radiation penetrates into said assembly and said sheet V1 being transparent to said incident radiation φ1; b. a functional layer F covering the major face f2 of the sheet V1 and comprising a matrix in which are dispersed luminescent elements capable of absorbing said incident radiation φ1 of wavelength λ1 and of re-emitting it with a wavelength λ2 longer than λ1 and comprised between 800 and 1400 nm; which assembly plays the role of waveguide for the radiation re-emitted of wavelength λ2, and a. a glass sheet V1 having two major faces f1 and f2, the face f1 being that via which the incident radiation penetrates into said assembly and said sheet V1 being transparent to said incident radiation φ1; b. a functional layer F covering the major face f2 of the sheet V1 and comprising a matrix in which are dispersed luminescent elements capable of absorbing said incident radiation φ1 of wavelength λ1 and of re-emitting it with a wavelength λ2 longer than λ1 and comprised between 800 and 1400 nm; - at least one photovoltaic cell (C1, C2, C3,...) positioned (i) on one or more edge faces of the assembly, and/or (ii) on the major face f1, and/or (iii) on the major face f3, and at which the re-emitted radiation of wavelength λ2 arrives and which is sensitive to the wavelength λ2;