mhurhangee/ep-ind-claims huggingface dataset:
A device for controlling a pH of a solution comprising: a controller, two or more electrodes (816, 817, 822), and a solution, preferably an aqueous solution, containing one or more redox active species, the device is configured to measure an open circuit potential between the two or more electrodes (816, 817, 822) in the solution to generate a measured OCP data and send the measured OCP data to the controller, wherein the controller is configured to iteratively perform the following steps: select an amount of current or an electric source waveform based on a difference between target OCP data and the measured OCP data, apply the selected amount of current to the solution by providing an electric current or an electric potential, according to the electric potential waveform, to one or more of the two or more electrodes (816, 817, 822), and send a request to the device for another measurement of the OCP, and wherein the one or more redox active species in the solution generates and/or consumes hydrogen ions through an electrochemical reaction induced by the electric current or the electric potential applied to the solution. a controller, two or more electrodes (816, 817, 822), and a solution, preferably an aqueous solution, containing one or more redox active species, the device is configured to measure an open circuit potential between the two or more electrodes (816, 817, 822) in the solution to generate a measured OCP data and send the measured OCP data to the controller, wherein the controller is configured to iteratively perform the following steps: select an amount of current or an electric source waveform based on a difference between target OCP data and the measured OCP data, apply the selected amount of current to the solution by providing an electric current or an electric potential, according to the electric potential waveform, to one or more of the two or more electrodes (816, 817, 822), and send a request to the device for another measurement of the OCP, and wherein the one or more redox active species in the solution generates and/or consumes hydrogen ions through an electrochemical reaction induced by the electric current or the electric potential applied to the solution. select an amount of current or an electric source waveform based on a difference between target OCP data and the measured OCP data, apply the selected amount of current to the solution by providing an electric current or an electric potential, according to the electric potential waveform, to one or more of the two or more electrodes (816, 817, 822), and send a request to the device for another measurement of the OCP, and wherein the one or more redox active species in the solution generates and/or consumes hydrogen ions through an electrochemical reaction induced by the electric current or the electric potential applied to the solution.
A composition or kit-of-parts comprising the mutant peptides of (a), (b), (c), and (d): (a) the T76R, Q77E, W101R, L107R quadruple mutant of the peptide which is the wildtype ectodomain of the E protein of a dengue virus (DENV) of serotype 1, or a biologically active variant thereof, (b) the T76R, Q77E, W101R, L107R quadruple mutant of the peptide which is the wildtype ectodomain of the E protein of a dengue virus (DENV) of serotype 2, or a biologically active variant thereof, (c) the T76R, Q77E, W101R, L107R quadruple mutant of the peptide which is the wildtype ectodomain of the E protein of a dengue virus (DENV) of serotype 3, or a biologically active variant thereof, (d) the T76R, Q77E, W101R, L107R quadruple mutant of the peptide representing the wildtype ectodomain of the E protein of a dengue virus (DENV) of serotype 4, or a biologically active variant thereof, wherein the wildtype ectodomain of the E protein of a dengue virus (DENV) consists of amino acids 1 to 404 of the E protein, and wherein a biologically active variant of a mutant peptide is a peptide wherein - 1, 2, 3, 4, or 5 of the N-terminal amino acids of the wildtype ectodomain of the E protein are deleted, and/or - 1, 2, 3, 4, 5, 6, 7 or 8 of the C-terminal amino acids of the wildtype ectodomain of the E protein are deleted, and/or - the mutant peptide further contains one or more further moieties selected from 1, 2, 3, 4 or 5 of amino acids of a homologous protein sequence, a purification tag, a labeling moiety, a fluorescent moiety, a separation moiety, and a biotin moiety. (a) the T76R, Q77E, W101R, L107R quadruple mutant of the peptide which is the wildtype ectodomain of the E protein of a dengue virus (DENV) of serotype 1, or a biologically active variant thereof, (b) the T76R, Q77E, W101R, L107R quadruple mutant of the peptide which is the wildtype ectodomain of the E protein of a dengue virus (DENV) of serotype 2, or a biologically active variant thereof, (c) the T76R, Q77E, W101R, L107R quadruple mutant of the peptide which is the wildtype ectodomain of the E protein of a dengue virus (DENV) of serotype 3, or a biologically active variant thereof, (d) the T76R, Q77E, W101R, L107R quadruple mutant of the peptide representing the wildtype ectodomain of the E protein of a dengue virus (DENV) of serotype 4, or a biologically active variant thereof, - 1, 2, 3, 4, or 5 of the N-terminal amino acids of the wildtype ectodomain of the E protein are deleted, and/or - 1, 2, 3, 4, 5, 6, 7 or 8 of the C-terminal amino acids of the wildtype ectodomain of the E protein are deleted, and/or - the mutant peptide further contains one or more further moieties selected from 1, 2, 3, 4 or 5 of amino acids of a homologous protein sequence, a purification tag, a labeling moiety, a fluorescent moiety, a separation moiety, and a biotin moiety.
Arrangement having two connection devices and having a stud terminal which has a stud, wherein the two connection devices are arranged on the stud of the stud terminal, and wherein the two connection devices, for connecting at least in each case one electrical conductor to the stud terminal, have in each case one contact element, which has a connecting portion for attachment to the stud of the stud terminal, and have in each one housing, which has at least one plug-in opening for plugging-in of an electrical conductor, wherein the contact element has a contact portion and the contact portion of the contact element is able to brought into contact electrically with an electrical conductor that has been plugged into the at least one plug-in opening.
A tubular element for an aerosol-generating article, the tubular element comprising: a tubular body defining a cavity extending from a first end of the tubular body to a second end of the tubular body; a folded end portion forming a first end wall at the first end of the tubular body, the first end wall delimiting an opening for airflow between the cavity and the exterior of the tubular element; and a ventilation zone at a location along the tubular body of the tubular element; wherein the ventilation zone is located between 5 millimetres and 15 millimetres from the folded end portion of the tubular element.. a tubular body defining a cavity extending from a first end of the tubular body to a second end of the tubular body; a folded end portion forming a first end wall at the first end of the tubular body, the first end wall delimiting an opening for airflow between the cavity and the exterior of the tubular element; and a ventilation zone at a location along the tubular body of the tubular element;
A cord for reinforcing elastomers in the state after vulcanization, the cord being obtained by twisting together metallic filaments (1a, 1b) and a resin filament (2a, 2b), wherein the resin filament (2a, 2b) is made from a polymeric material having a melting point or softening point of 80°C to 160°C, the "melting point" referring to a melting peak temperature as measured by the heat flux differential scanning calorimetry described in JIS K 7121, and the "softening point" referring to a value measured by the softening point test method described in JIS K 7206, and after vulcanization the cord for reinforcing elastomers comprises a core and at least one sheath layer and characterized in that the polymeric material includes a ionomer, and after vulcanization, a distance between the metallic filaments (1a, 1b) forming an outer most sheath layer is 20 μm or less, the resin filament (2a, 2b) being melted or softened during vulcanization, and, on a cross section of the cord taken along a direction orthogonal to an axial direction, a filling ratio, which is a ratio of an area of a polymeric material derived from the resin filament (2a, 2b) to a gap region is 52% to 120%, where the gap region is defined as a portion occupied by a material other than the metallic filaments (1a, 1b) within a region formed by connecting centers of the individual metallic filaments (1a, 1b) constituting the outermost sheath layer.
Method for joining two structural members (11, 13), the first structural member being provided at least in certain regions in the joining area with respect to the second structural member with a surface structure that is generated by a radiation source, the second structural member consisting of plastic, and the second structural member being formed as a prefabricated, solid structural member and being joined to the first structural member by melting the plastic in certain regions in the area of overlap with the surface structure and subsequently making the plastic solidify, characterized in that the surface structure is generated by overlaying a microstructure by means of a nanostructure, and in that the first structural member consists of metal.
A liquid discharge apparatus comprising: a liquid discharge head to discharge liquid to a medium to form liquid surface on the medium; an irradiator to irradiate the liquid surface with active energy rays; a carriage mounting the liquid discharge head and the irradiator; a scanner to scan the carriage in a main scanning direction; a height adjuster to adjust an irradiation distance between the irradiator and the liquid surface by relatively moving the carriage and the medium; a conveyor to move the medium and the carriage relatively in a sub-scanning direction perpendicular to the main scanning direction; and a control circuitry to control the irradiator to irradiate the liquid surface with the active energy rays while scanning the carriage in the main scanning direction, the height adjuster adjusting the irradiation distance at a first distance in response to a maximum width of the liquid surface in the sub-scanning direction being a first width and adjusting the irradiation distance at a second distance larger than the first distance in response to the maximum width of the liquid surface in the sub-scanning direction being a second width larger than the first width, and the control circuitry irradiating the liquid surface with the active energy rays by the irradiator while maintaining the irradiation distance at the first distance or the second distance as determined by the maximum width using the height adjuster. a liquid discharge head to discharge liquid to a medium to form liquid surface on the medium; an irradiator to irradiate the liquid surface with active energy rays; a carriage mounting the liquid discharge head and the irradiator; a scanner to scan the carriage in a main scanning direction; a height adjuster to adjust an irradiation distance between the irradiator and the liquid surface by relatively moving the carriage and the medium; a conveyor to move the medium and the carriage relatively in a sub-scanning direction perpendicular to the main scanning direction; and a control circuitry to control the irradiator to irradiate the liquid surface with the active energy rays while scanning the carriage in the main scanning direction, the height adjuster adjusting the irradiation distance at a first distance in response to a maximum width of the liquid surface in the sub-scanning direction being a first width and adjusting the irradiation distance at a second distance larger than the first distance in response to the maximum width of the liquid surface in the sub-scanning direction being a second width larger than the first width, and the control circuitry irradiating the liquid surface with the active energy rays by the irradiator while maintaining the irradiation distance at the first distance or the second distance as determined by the maximum width using the height adjuster.
Honeycomb body through which a gas can flow from a first end side to a second end side, produced using at least one metallic film having a top side and a flat electrical conductor, attached thereto in an electrically insulated manner by a base insulation layer, having a cover layer covering the flat electrical conductor in an electrically insulating manner, wherein the metallic film has at least one edge region without the flat electrical conductor and without insulating layers (17, 18), and wherein the total thickness of the flat electrical conductor together with the insulating layers (17, 18) is less than 80 μm; and using at least one further smooth metallic film and/or corrugated metallic film by coiling and/or alternately layering the metallic films (1, 3, 4), wherein the metallic films (1, 3, 4) are connected to one another on at least one end side (9, 10) of the honeycomb body by means of a soldered connection, characterized in that the at least one metallic film with the flat electrical conductor is a smooth film which, together with at least one corrugated metallic film which is arranged adjacent and has corrugation crests and corrugation troughs, forms the honeycomb body with channels through which gas can flow, wherein, in an inner region in which the smooth metallic film with the electrical conductor and the insulations (17, 18) thereof is thicker than in an edge region of the corrugated metallic film, the at least one corrugated metallic film has a corrugation height (h) which is reduced by said total thickness, and therefore, in the edge region of the corrugated metallic film at the corrugation crests and the corrugation troughs, metallic contacts with the edge region of the smooth metallic film are produced and can be connected by means of soldered connections.
Spark gap arrangement comprising a discharge chamber, an electrode tip and a contact connection which is arranged outside the discharge chamber, a coupling mechanism comprising a first coupling part, which comprises the contact connection, and a second coupling part, which comprises the electrode tip, wherein the electrode tip is electrically conductively connected and mechanically coupled to the contact connection in such a way that, when the contact connection is removed from its position or when the contact connection reaches a preset position, the electrically conductive connection is interrupted and the electrode tip is mechanically decoupled from the contact connection so that the electrode tip is movable in the direction of the discharge chamber interior and/or within the discharge chamber) wherein the first coupling part is movable relative to the second coupling part and, when the contact connection is removed from its position or when the contact connection reaches a preset position, the electrode tip is mechanically decoupled permanently from the contact connection.
Polymer obtainable by copolymerizing monomers comprising at least one ethylenically unsaturated monomer which comprises at least one acid group and at least one ethylenically unsaturated monomer having polyether groups of the structural unit (IIa), -(C a H 2a O) n - (IIa) where n is an integer from 5 to 35, a independently at each occurrence for each (C a H 2a O) unit identically or differently is 2, 3 or 4, and at least one ethylenically unsaturated monomer having polyether groups of the structural unit (IIIa), -(C b H 2b O) m - (IIIa) where m is an integer from 45 to 150, b independently at each occurrence for each (C b H 2b O) unit identically or differently is 2, 3 or 4, and where the molar ratio of monomer to monomer is between 75:25 and 99.5:0.5. at least one ethylenically unsaturated monomer which comprises at least one acid group and at least one ethylenically unsaturated monomer having polyether groups of the structural unit (IIa), -(C a H 2a O) n - (IIa) where n is an integer from 5 to 35, a independently at each occurrence for each (C a H 2a O) unit identically or differently is 2, 3 or 4, and n is an integer from 5 to 35, a independently at each occurrence for each (C a H 2a O) unit identically or differently is 2, 3 or 4, and at least one ethylenically unsaturated monomer having polyether groups of the structural unit (IIIa), -(C b H 2b O) m - (IIIa) where m is an integer from 45 to 150, b independently at each occurrence for each (C b H 2b O) unit identically or differently is 2, 3 or 4, and where the molar ratio of monomer to monomer is between 75:25 and 99.5:0.5. m is an integer from 45 to 150, b independently at each occurrence for each (C b H 2b O) unit identically or differently is 2, 3 or 4, and where the molar ratio of monomer to monomer is between 75:25 and 99.5:0.5.
Stack of metal sheets, in particular a stack of metal sheets of a rotor or stator of an electric machine, having a plurality of identical metal sheets, wherein the metal sheets have recesses (3a, 5a, 11a, 12a, 13a) for transporting a coolant through the stack of metal sheets, wherein intake channel sections, return channel sections, tooth intake channel sections, tooth intermediate channel sections and tooth return channel sections are recesses (3a, 5a, 11a, 12a, 13a), wherein the metal sheets are joined together to form the stack of metal sheets such that: - the at least one intake channel section in each case forms an intake channel, - the at least one return channel section in each case forms a return channel, - wherein the recesses (3a, 5a, 11a, 12a, 13a) lie one above the other such that - the at least one tooth intake channel section in each case forms a tooth intake channel, - the at least one tooth return channel section in each case forms a tooth return channel, - the at least one tooth intermediate channel section in each case forms a tooth intermediate channel, wherein the at least one intake channel opens into at least one tooth intake channel, wherein the at least one tooth intake channel opens in each case into the tooth intermediate channel and/or a tooth return channel, wherein the tooth intermediate channel and/or the tooth intake channel open into the tooth return channel, wherein the tooth return channel opens into the return channel, wherein the intake channel and the return channel and optionally the tooth intermediate channel are axially arranged through the stack of metal sheets. - the at least one intake channel section in each case forms an intake channel, - the at least one return channel section in each case forms a return channel, - wherein the recesses (3a, 5a, 11a, 12a, 13a) lie one above the other such that - the at least one tooth intake channel section in each case forms a tooth intake channel, - the at least one tooth return channel section in each case forms a tooth return channel, - the at least one tooth intermediate channel section in each case forms a tooth intermediate channel,
An identification tag comprising: a processor; a transmitter coupled to the processor; a directed light receiver coupled to the processor; and a lens having first and second major surfaces and a side surface, characterized in that the lens includes an internal reflection surface to reflect a directed light signal received through the side surface to the directed light receiver. a processor; a transmitter coupled to the processor; a directed light receiver coupled to the processor; and a lens having first and second major surfaces and a side surface, characterized in that the lens includes an internal reflection surface to reflect a directed light signal received through the side surface to the directed light receiver.
A system for treating sleep apnea in a patient comprising: a first microstimulator adapted to stimulate a first hypoglossal nerve; a second microstimulator adapted to stimulate a second HGN; and a controller for controlling the stimulation function of the first and the second microstimulators; wherein the first microstimulator is adapted to stimulate the first HGN for a first predetermined length of time and the second microstimulator is adapted to stimulate the second HGN for a second predetermined length of time, and the first predetermined length of time and the second predetermined length of time occur sequentially or alternatingly. a first microstimulator adapted to stimulate a first hypoglossal nerve; a second microstimulator adapted to stimulate a second HGN; and a controller for controlling the stimulation function of the first and the second microstimulators;
A method for preparing a highly corrosion resistant rare earth permanent magnet, comprising the sequential steps of casting an alloy, said alloy containing R which is a rare earth element or a combination of two or more rare earth elements, T which is Fe or Fe and Co, and B as main components, and specifically consisting of 26.8 to 33.5% by weight of R, 0.78 to 1.25% by weight of B, 0.05 to 3.5% by weight in total of at least one element selected from the group consisting of Ni, Ga, Zr, Nb, Hf, Ta, Mn, Sn, Mo, Zn, Pb, Sb, Al, Si, V, Cr, Ti, Cu, Ca, and Mg, and the balance of T and incidental impurities, pulverizing the alloy in an oxygen-free atmosphere of argon, nitrogen or vacuum, finely pulverizing, compacting in a magnetic field, sintering, and aging, thereby producing a sintered magnet, the magnet having an oxygen concentration of up to 0.6% by weight and magnetic properties, Br of 1.2 T to 1.48 T (12.0 kG to 14.8 kG) and iHc of 875 kA/m to 2785 kA/m (11 kOe to 35 kOe), said method further comprising the steps of machining and/or grinding the magnet for surface finish, pretreating with mineral acid, characterised in that the method further comprises the steps of nickel electroplating to form a plating of a predetermined thickness, immersing in a phosphate-containing aqueous solution, washing with water, and heat treating in an atmosphere having an oxygen partial pressure of at least 1.3×10 3 Pa (10 Torr) at 150 to 400°C for 1 to 24 hours for thereby forming a thin nickel oxide layer in a surface region of the plating wherein said phosphate-containing aqueous solution is an aqueous solution comprising at least one phosphate selected from the group consisting of sodium dihydrogen phosphate, potassium dihydrogen phosphate, disodium hydrogen phosphate, and dipotassium hydrogen phosphate, or said phosphate and at least one member selected from the group consisting of sulfuric acid, nitric acid, acetic acid, oxalic acid, citric acid, phosphoric acid, pyrophosphoric acid, sodium sulfate, potassium sulfate, sodium nitrate, potassium nitrate, sodium acetate, potassium acetate, sodium oxalate, potassium oxalate, sodium citrate, potassium citrate, sodium phosphate, potassium phosphate, sodium pyrophosphate, and potassium pyrophosphate.
Platform for attaching an electricity meter, wherein the platform is formed by a housing, contact elements being provided in the interior of the said housing, a cutout being provided on the bottom face of said housing, at least one stationary lug being provided on one end wall of the said cutout, the said stationary lug facing the other end wall, and at least one moving lug which is resiliently pushed in the direction of the stationary lug being provided on the other end wall of the said cutout, so that the housing of the platform can be snapped-in behind opposite edges (19, 20; 29, 30) of at least one mounting rail (10, 11; 27, 28).
A transparent electrode (10; 20) comprising a transparent conductive film, wherein the extinction coefficient of the transparent conductive film at a wavelength of 1.55 μm is equal to or less than 0.01, wherein the transparent conductive film is made of indium tin oxide or indium titanium oxide.